Index: trunk/src/blha/blha.nw
===================================================================
--- trunk/src/blha/blha.nw	(revision 8818)
+++ trunk/src/blha/blha.nw	(revision 8819)
@@ -1,4260 +1,4272 @@
 % -*- ess-noweb-default-code-mode: f90-mode; noweb-default-code-mode: f90-mode; -*-
 % WHIZARD code as NOWEB source: matrix elements and process libraries
 %%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
 \chapter{BLHA Interface}
 \includemodulegraph{blha}
 
 The code in this chapter implements support for the BLHA record that
 communicates data for NLO processes.
 
 These are the modules:
 \begin{description}
 \item[blha\_config]
 \item[blha\_olp\_interfaces]
 \end{description}
 
 %%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
 The module is split into a configuration interface which manages configuration
 and handles the request and contract files, a module which interfaces the OLP
 matrix elements and a driver.
 
 <<[[blha_config.f90]]>>=
 <<File header>>
 
 module blha_config
 
   use kinds
 <<Use strings>>
   use variables, only: var_list_t
   use model_data
   use beam_structures, only: beam_structure_t
 
 <<Standard module head>>
 
 <<BLHA config: public>>
 
 <<BLHA config: parameters>>
 
 <<BLHA config: types>>
 
 <<BLHA config: variables>>
 
 <<BLHA config: interfaces>>
 
   interface
 <<BLHA config: sub interfaces>>
   end interface
 
 end module blha_config
 
 @ %def blha_config
 @
 <<[[blha_config_sub.f90]]>>=
 <<File header>>
 
 submodule (blha_config) blha_config_s
 
 <<Use mpi f08>>
   use io_units
   use constants
   use string_utils
   use physics_defs, only: PHOTON, PHOTON_OFFSHELL
   use diagnostics
   use flavors
   use pdg_arrays
 
   implicit none
 
 contains
 
 <<BLHA config: procedures>>
 
 end submodule blha_config_s
 
 @ %def blha_config_s
 @
 \section{Configuration}
 
 Parameters to enumerate the different options in the order.
 <<BLHA config: parameters>>=
   integer, public, parameter :: &
        BLHA_CT_QCD = 1, BLHA_CT_EW = 2, BLHA_CT_OTHER = 3
   integer, public, parameter :: &
        BLHA_IRREG_CDR = 1, BLHA_IRREG_DRED = 2, BLHA_IRREG_THV = 3, &
        BLHA_IRREG_MREG = 4, BLHA_IRREG_OTHER = 5
   integer, public, parameter :: &
        BLHA_MPS_ONSHELL = 1, BLHA_MPS_OTHER = 2
   integer, public, parameter :: &
        BLHA_MODE_GOSAM = 1, BLHA_MODE_FEYNARTS = 2, BLHA_MODE_GENERIC = 3, &
        BLHA_MODE_OPENLOOPS = 4
   integer, public, parameter :: &
        BLHA_VERSION_1 = 1, BLHA_VERSION_2 = 2
   integer, public, parameter :: &
        BLHA_AMP_LOOP = 1, BLHA_AMP_COLOR_C = 2, BLHA_AMP_SPIN_C = 3, &
        BLHA_AMP_TREE = 4, BLHA_AMP_LOOPINDUCED = 5
   integer, public, parameter :: &
        BLHA_EW_INTERNAL = 0, &
        BLHA_EW_GF = 1, BLHA_EW_MZ = 2, BLHA_EW_MSBAR = 3, &
        BLHA_EW_0 = 4, BLHA_EW_RUN = 5
   integer, public, parameter :: &
        BLHA_WIDTH_COMPLEX = 1, BLHA_WIDTH_FIXED = 2, &
        BLHA_WIDTH_RUNNING = 3, BLHA_WIDTH_POLE = 4, &
        BLHA_WIDTH_DEFAULT = 5
 
 @ %def blha_ct_qcd blha_ct_ew blha_ct_other
 @ %def blha_irreg_cdr blha_irreg_dred blha_irreg_thv blha_irreg_mreg blha_irreg_other
 @ %def blha_mps_onshell blha_mps_other
 @ %def blha_mode_gosam blha_mode_feynarts blha_mode_generic
 @ %def blha version blha_amp blha_ew blha_width
 @
 Those are the default pdg codes for massive particles in BLHA programs
 <<BLHA config: parameters>>=
   integer, parameter, public :: OLP_N_MASSIVE_PARTICLES = 12
   integer, dimension(OLP_N_MASSIVE_PARTICLES), public :: &
        OLP_MASSIVE_PARTICLES = [5, -5, 6, -6, 13, -13, 15, -15, 23, 24, -24, 25]
   integer, parameter :: OLP_HEL_UNPOLARIZED = 0
 
 @ %def OLP_MASSIVE_PARTICLES
 @ The user might provide an extra command string for OpenLoops to
 apply special libraries instead of the default ones, such as
 signal-only amplitudes for off-shell top production. We check in this
 subroutine that the provided string is valid and print out the
 possible options to ease the user's memory.
 <<BLHA config: parameters>>=
   integer, parameter :: N_KNOWN_SPECIAL_OL_METHODS = 3
 <<BLHA config: procedures>>=
   subroutine check_extra_cmd (extra_cmd)
     type(string_t), intent(in) :: extra_cmd
     type(string_t), dimension(N_KNOWN_SPECIAL_OL_METHODS) :: known_methods
     integer :: i
     logical :: found
     known_methods(1) = 'top'
     known_methods(2) = 'not'
     known_methods(3) = 'stop'
     if (extra_cmd == var_str ("")) return
     found = .false.
     do i = 1, N_KNOWN_SPECIAL_OL_METHODS
        found = found .or. &
             (extra_cmd == var_str ('extra approx ') // known_methods(i))
     end do
     if (.not. found) &
          call msg_fatal ("The given extra OpenLoops method is not kown ", &
          [var_str ("Available commands are: "), &
          var_str ("extra approx top (only WbWb signal),"), &
          var_str ("extra approx stop (only WbWb singletop),"), &
          var_str ("extra approx not (no top in WbWb).")])
   end subroutine check_extra_cmd
 
 @ %def check_extra_cmd
 @ This type contains the pdg code of the particle to be written in the process
 specification string and an optional additional information about the polarization
 of the particles. Note that the output can only be processed by OpenLoops.
 <<BLHA config: types>>=
   type :: blha_particle_string_element_t
      integer :: pdg = 0
      integer :: hel = OLP_HEL_UNPOLARIZED
      logical :: polarized = .false.
   contains
   <<BLHA config: blha particle string element: TBP>>
   end type blha_particle_string_element_t
 
 @ %def blha_particle_string_element_t
 @
 <<BLHA config: blha particle string element: TBP>>=
   generic :: init => init_default
   generic :: init => init_polarized
   procedure :: init_default => blha_particle_string_element_init_default
   procedure :: init_polarized => blha_particle_string_element_init_polarized
 <<BLHA config: sub interfaces>>=
     module subroutine blha_particle_string_element_init_default (blha_p, id)
       class(blha_particle_string_element_t), intent(out) :: blha_p
       integer, intent(in) :: id
     end subroutine blha_particle_string_element_init_default
     module subroutine blha_particle_string_element_init_polarized (blha_p, id, hel)
       class(blha_particle_string_element_t), intent(out) :: blha_p
       integer, intent(in) :: id, hel
     end subroutine blha_particle_string_element_init_polarized
 <<BLHA config: procedures>>=
   module subroutine blha_particle_string_element_init_default (blha_p, id)
     class(blha_particle_string_element_t), intent(out) :: blha_p
     integer, intent(in) :: id
     blha_p%pdg = id
   end subroutine blha_particle_string_element_init_default
 
 @ %def blha_particle_string_element_init_default
 @
 <<BLHA config: procedures>>=
   module subroutine blha_particle_string_element_init_polarized (blha_p, id, hel)
     class(blha_particle_string_element_t), intent(out) :: blha_p
     integer, intent(in) :: id, hel
     blha_p%polarized = .true.
     blha_p%pdg = id
     blha_p%hel = hel
   end subroutine blha_particle_string_element_init_polarized
 
 @ %def blha_particle_string_element_init_polarized
 @
 <<BLHA config: blha particle string element: TBP>>=
   generic :: write_pdg => write_pdg_unit
   generic :: write_pdg => write_pdg_character
   procedure :: write_pdg_unit => blha_particle_string_element_write_pdg_unit
   procedure :: write_pdg_character &
        => blha_particle_string_element_write_pdg_character
 <<BLHA config: sub interfaces>>=
     module subroutine blha_particle_string_element_write_pdg_unit (blha_p, unit)
       class(blha_particle_string_element_t), intent(in) :: blha_p
       integer, intent(in), optional :: unit
     end subroutine blha_particle_string_element_write_pdg_unit
     module subroutine blha_particle_string_element_write_pdg_character (blha_p, c)
       class(blha_particle_string_element_t), intent(in) :: blha_p
       character(3), intent(inout) :: c
     end subroutine blha_particle_string_element_write_pdg_character
 <<BLHA config: procedures>>=
   module subroutine blha_particle_string_element_write_pdg_unit (blha_p, unit)
     class(blha_particle_string_element_t), intent(in) :: blha_p
     integer, intent(in), optional :: unit
     integer :: u
     u = given_output_unit (unit)
     write (u, '(I3)') blha_p%pdg
   end subroutine blha_particle_string_element_write_pdg_unit
 
 @ %def blha_particle_string_element_write_pdg_unit
 @
 <<BLHA config: procedures>>=
   module subroutine blha_particle_string_element_write_pdg_character (blha_p, c)
     class(blha_particle_string_element_t), intent(in) :: blha_p
     character(3), intent(inout) :: c
     write (c, '(I3)') blha_p%pdg
   end subroutine blha_particle_string_element_write_pdg_character
 
 @ %def blha_particle_string_element_write_pdg_character
 @
 <<BLHA config: blha particle string element: TBP>>=
   generic :: write_helicity => write_helicity_unit
   generic :: write_helicity => write_helicity_character
   procedure :: write_helicity_unit &
        => blha_particle_string_element_write_helicity_unit
   procedure :: write_helicity_character &
        => blha_particle_string_element_write_helicity_character
 <<BLHA config: sub interfaces>>=
     module subroutine blha_particle_string_element_write_helicity_unit (blha_p, unit)
       class(blha_particle_string_element_t), intent(in) :: blha_p
       integer, intent(in), optional :: unit
     end subroutine blha_particle_string_element_write_helicity_unit
     module subroutine blha_particle_string_element_write_helicity_character (blha_p, c)
       class(blha_particle_string_element_t), intent(in) :: blha_p
       character(4), intent(inout) :: c
     end subroutine blha_particle_string_element_write_helicity_character
 <<BLHA config: procedures>>=
   module subroutine blha_particle_string_element_write_helicity_unit (blha_p, unit)
     class(blha_particle_string_element_t), intent(in) :: blha_p
     integer, intent(in), optional :: unit
     integer :: u
     u = given_output_unit (unit)
     write (u, '(A1,I0,A1)') '(', blha_p%hel, ')'
   end subroutine blha_particle_string_element_write_helicity_unit
 
 @ %def blha_particle_string_element_write_helicity_unit
 @
 <<BLHA config: procedures>>=
   module subroutine blha_particle_string_element_write_helicity_character (blha_p, c)
     class(blha_particle_string_element_t), intent(in) :: blha_p
     character(4), intent(inout) :: c
     write (c, '(A1,I0,A1)') '(', blha_p%hel, ')'
   end subroutine blha_particle_string_element_write_helicity_character
 
 @ %def blha_particle_string_element_write_helicity_character
 @ This type encapsulates a BLHA request.
 <<BLHA config: public>>=
   public :: blha_configuration_t
   public :: blha_cfg_process_node_t
 <<BLHA config: types>>=
   type :: blha_cfg_process_node_t
      type(blha_particle_string_element_t), dimension(:), allocatable :: pdg_in, pdg_out
      integer, dimension(:), allocatable :: fingerprint
      integer :: nsub
      integer, dimension(:), allocatable :: ids
      integer :: amplitude_type
      type(blha_cfg_process_node_t), pointer :: next => null ()
   end type blha_cfg_process_node_t
 
   type :: blha_configuration_t
      type(string_t) :: name
      class(model_data_t), pointer :: model => null ()
      type(string_t) :: md5
      integer :: version = 2
      logical :: dirty = .false.
      integer :: n_proc = 0
      real(default) :: accuracy_target
      logical :: debug_unstable = .false.
      integer :: mode = BLHA_MODE_GENERIC
      logical :: polarized = .false.
      type(blha_cfg_process_node_t), pointer :: processes => null ()
      !integer, dimension(2) :: matrix_element_square_type = BLHA_MEST_SUM
      integer :: correction_type
      type(string_t) :: correction_type_other
      integer :: irreg = BLHA_IRREG_THV
      type(string_t) :: irreg_other
      integer :: massive_particle_scheme = BLHA_MPS_ONSHELL
      type(string_t) :: massive_particle_scheme_other
      type(string_t) :: model_file
      logical :: subdivide_subprocesses = .false.
      integer :: alphas_power = -1, alpha_power = -1
      integer :: ew_scheme = BLHA_EW_GF
      integer :: width_scheme = BLHA_WIDTH_DEFAULT
      logical :: openloops_use_cms = .false.
      integer :: openloops_phs_tolerance = 0
      type(string_t) :: openloops_extra_cmd
+     type(string_t) :: openloops_allowed_libs
      integer :: openloops_stability_log = 0
      integer :: n_off_photons_is = 0
      integer :: n_off_photons_fs = 0
   end type blha_configuration_t
 
 @ %def blha_cffg_process_node_t blha_configuration_t
 @ Translate the SINDARIN input string to the corresponding named integer.
 <<BLHA config: public>>=
   public :: ew_scheme_string_to_int
 <<BLHA config: sub interfaces>>=
     module function ew_scheme_string_to_int (ew_scheme_str) result (ew_scheme_int)
       integer :: ew_scheme_int
       type(string_t), intent(in) :: ew_scheme_str
     end function ew_scheme_string_to_int
 <<BLHA config: procedures>>=
   module function ew_scheme_string_to_int (ew_scheme_str) result (ew_scheme_int)
     integer :: ew_scheme_int
     type(string_t), intent(in) :: ew_scheme_str
     select case (char (ew_scheme_str))
     case ('GF', 'Gmu')
        ew_scheme_int = BLHA_EW_GF
     case ('alpha_qed', 'alpha_internal')
        ew_scheme_int = BLHA_EW_INTERNAL
     case ('alpha_mz')
        ew_scheme_int = BLHA_EW_MZ
     case ('alpha_0', 'alpha_thompson')
        ew_scheme_int = BLHA_EW_0
     case default
        call msg_fatal ("ew_scheme: " // char (ew_scheme_str) // &
             " not supported. Try 'Gmu', 'alpha_internal', 'alpha_mz' or 'alpha_0'.")
     end select
   end function ew_scheme_string_to_int
 
 @ %def ew_scheme_string_to_int
 @
 @ Translate the SINDARIN input string to the corresponding named integer
 denoting the type of NLO correction.
 <<BLHA config: public>>=
   public :: correction_type_string_to_int
 <<BLHA config: sub interfaces>>=
     module function correction_type_string_to_int &
          (correction_type_str) result (correction_type_int)
       integer :: correction_type_int
       type(string_t), intent(in) :: correction_type_str
     end function correction_type_string_to_int
 <<BLHA config: procedures>>=
   module function correction_type_string_to_int &
        (correction_type_str) result (correction_type_int)
     integer :: correction_type_int
     type(string_t), intent(in) :: correction_type_str
     select case (char (correction_type_str))
     case ('QCD')
        correction_type_int = BLHA_CT_QCD
     case ('EW')
        correction_type_int = BLHA_CT_EW
     case default
        call msg_warning ("nlo_correction_type: " // char (correction_type_str) // &
             " not supported. Try setting it to 'QCD', 'EW'.")
     end select
   end function correction_type_string_to_int
 
 @ %def correction_type_string_to_int
 @
 This types control the creation of BLHA-interface files
 <<BLHA config: public>>=
   public :: blha_flv_state_t
   public :: blha_master_t
 <<BLHA config: types>>=
   type:: blha_flv_state_t
     integer, dimension(:), allocatable :: flavors
     integer :: flv_mult
     logical :: flv_real = .false.
   end type blha_flv_state_t
 
   type :: blha_master_t
     integer, dimension(5) :: blha_mode = BLHA_MODE_GENERIC
     logical :: compute_borns = .false.
     logical :: compute_real_trees = .false.
     logical :: compute_loops = .true.
     logical :: compute_correlations = .false.
     logical :: compute_dglap = .false.
     integer :: ew_scheme
     type(string_t), dimension(:), allocatable :: suffix
     type(blha_configuration_t), dimension(:), allocatable :: blha_cfg
     integer :: n_files = 0
     integer, dimension(:), allocatable :: i_file_to_nlo_index
   contains
   <<BLHA config: blha master: TBP>>
   end type blha_master_t
 
 @ %def blha_flv_state_t, blha_master_t
 @ Master-Routines
 <<BLHA config: blha master: TBP>>=
   procedure :: set_methods => blha_master_set_methods
 <<BLHA config: sub interfaces>>=
     module subroutine blha_master_set_methods (master, is_nlo, var_list)
       class(blha_master_t), intent(inout) :: master
       logical, intent(in) :: is_nlo
       type(var_list_t), intent(in) :: var_list
     end subroutine blha_master_set_methods
 <<BLHA config: procedures>>=
   module subroutine blha_master_set_methods (master, is_nlo, var_list)
     class(blha_master_t), intent(inout) :: master
     logical, intent(in) :: is_nlo
     type(var_list_t), intent(in) :: var_list
     type(string_t) :: method, born_me_method, real_tree_me_method
     type(string_t) :: loop_me_method, correlation_me_method
     type(string_t) :: dglap_me_method
     type(string_t) :: default_method
     logical :: cmp_born, cmp_real
     logical :: cmp_loop, cmp_corr
     logical :: cmp_dglap
     if (is_nlo) then
        method = var_list%get_sval (var_str ("$method"))
        born_me_method = var_list%get_sval (var_str ("$born_me_method"))
        if (born_me_method == "")  born_me_method = method
        real_tree_me_method = var_list%get_sval (var_str ("$real_tree_me_method"))
        if (real_tree_me_method == "")  real_tree_me_method = method
        loop_me_method = var_list%get_sval (var_str ("$loop_me_method"))
        if (loop_me_method == "")  loop_me_method = method
        correlation_me_method = var_list%get_sval (var_str ("$correlation_me_method"))
        if (correlation_me_method == "")  correlation_me_method = method
        dglap_me_method = var_list%get_sval (var_str ("$dglap_me_method"))
        if (dglap_me_method == "")  dglap_me_method = method
        cmp_born = born_me_method /= 'omega'
        cmp_real = is_nlo .and. (real_tree_me_method /= 'omega')
        cmp_loop = is_nlo .and. (loop_me_method /= 'omega')
        cmp_corr = is_nlo .and. (correlation_me_method /= 'omega')
        cmp_dglap = is_nlo .and. (dglap_me_method /= 'omega')
        call set_me_method (1, loop_me_method)
        call set_me_method (2, correlation_me_method)
        call set_me_method (3, real_tree_me_method)
        call set_me_method (4, born_me_method)
        call set_me_method (5, dglap_me_method)
     else
        default_method = var_list%get_sval (var_str ("$method"))
        cmp_born = default_method /= 'omega'
        cmp_real = .false.; cmp_loop = .false.; cmp_corr = .false.
        call set_me_method (4, default_method)
     end if
     master%n_files = count ([cmp_born, cmp_real, cmp_loop, cmp_corr, cmp_dglap])
     call set_nlo_indices ()
     master%compute_borns = cmp_born
     master%compute_real_trees = cmp_real
     master%compute_loops = cmp_loop
     master%compute_correlations = cmp_corr
     master%compute_dglap = cmp_dglap
   contains
     subroutine set_nlo_indices ()
       integer :: i_file
       allocate (master%i_file_to_nlo_index (master%n_files))
       master%i_file_to_nlo_index = 0
       i_file = 0
       if (cmp_loop) then
          i_file = i_file + 1
          master%i_file_to_nlo_index(i_file) = 1
       end if
       if (cmp_corr) then
          i_file = i_file + 1
          master%i_file_to_nlo_index(i_file) = 2
       end if
       if (cmp_real) then
          i_file = i_file + 1
          master%i_file_to_nlo_index(i_file) = 3
       end if
       if (cmp_born) then
          i_file = i_file + 1
          master%i_file_to_nlo_index(i_file) = 4
       end if
       if (cmp_dglap) then
          i_file = i_file + 1
          master%i_file_to_nlo_index(i_file) = 5
       end if
     end subroutine set_nlo_indices
 
     subroutine set_me_method (i, me_method)
       integer, intent(in) :: i
       type(string_t) :: me_method
       select case (char (me_method))
       case ('gosam')
          call master%set_gosam (i)
       case ('openloops')
          call master%set_openloops (i)
       end select
     end subroutine set_me_method
   end subroutine blha_master_set_methods
 
 @ %def blha_master_set_methods
 @
 <<BLHA config: blha master: TBP>>=
   procedure :: allocate_config_files => blha_master_allocate_config_files
 <<BLHA config: sub interfaces>>=
     module subroutine blha_master_allocate_config_files (master)
       class(blha_master_t), intent(inout) :: master
     end subroutine blha_master_allocate_config_files
 <<BLHA config: procedures>>=
   module subroutine blha_master_allocate_config_files (master)
     class(blha_master_t), intent(inout) :: master
     allocate (master%blha_cfg (master%n_files))
     allocate (master%suffix (master%n_files))
   end subroutine blha_master_allocate_config_files
 
 @ %def blha_master_allocate_config_files
 @
 <<BLHA config: blha master: TBP>>=
   procedure :: set_ew_scheme => blha_master_set_ew_scheme
 <<BLHA config: sub interfaces>>=
     module subroutine blha_master_set_ew_scheme (master, ew_scheme)
       class(blha_master_t), intent(inout) :: master
       type(string_t), intent(in) :: ew_scheme
     end subroutine blha_master_set_ew_scheme
 <<BLHA config: procedures>>=
   module subroutine blha_master_set_ew_scheme (master, ew_scheme)
     class(blha_master_t), intent(inout) :: master
     type(string_t), intent(in) :: ew_scheme
     master%ew_scheme = ew_scheme_string_to_int (ew_scheme)
   end subroutine blha_master_set_ew_scheme
 
 @ %def blha_master_set_ew_scheme
 @
 <<BLHA config: blha master: TBP>>=
   procedure :: set_correction_type => blha_master_set_correction_type
 <<BLHA config: sub interfaces>>=
     module subroutine blha_master_set_correction_type (master, correction_type_str)
       class(blha_master_t), intent(inout) :: master
       type(string_t), intent(in) :: correction_type_str
     end subroutine blha_master_set_correction_type
 <<BLHA config: procedures>>=
   module subroutine blha_master_set_correction_type (master, correction_type_str)
     class(blha_master_t), intent(inout) :: master
     type(string_t), intent(in) :: correction_type_str
     master%blha_cfg(:)%correction_type = &
          correction_type_string_to_int (correction_type_str)
   end subroutine blha_master_set_correction_type
 
 @ %def blha_master_set_correction_type
 @
 <<BLHA config: blha master: TBP>>=
   procedure :: set_photon_characteristics => blha_master_set_photon_characteristics
 <<BLHA config: sub interfaces>>=
     module subroutine blha_master_set_photon_characteristics (master, flv_born, n_in)
       class(blha_master_t), intent(inout) :: master
       integer, dimension(:,:), intent(in) :: flv_born
       integer, intent(in) :: n_in
     end subroutine blha_master_set_photon_characteristics
 <<BLHA config: procedures>>=
   module subroutine blha_master_set_photon_characteristics (master, flv_born, n_in)
     class(blha_master_t), intent(inout) :: master
     integer, dimension(:,:), intent(in) :: flv_born
     integer, intent(in) :: n_in
     integer :: i_file, i, i_flv 
     integer :: noff_is, noff_fs, noff_is_max, noff_fs_max
     do i_file = 1, master%n_files
        noff_is_max = 0; noff_fs_max = 0
        do i_flv = 1, size (flv_born, 2)
           noff_is = 0; noff_fs = 0
           do i = 1, n_in
              if (flv_born (i, i_flv) == PHOTON) noff_is = noff_is + 1
           end do
           noff_is_max = max (noff_is, noff_is_max)
           do i = n_in + 1, size (flv_born(:, i_flv))
              if (flv_born (i, i_flv) == PHOTON) noff_fs = noff_fs + 1
           end do
           noff_fs_max = max (noff_fs, noff_fs_max)
        end do
        if (master%blha_cfg(i_file)%correction_type == BLHA_CT_EW &
           .and. master%ew_scheme == BLHA_EW_0 &
           .and. (noff_is_max > 0 .or. noff_fs_max > 0)) then
           call msg_fatal ("For NLO EW/mixed corrections, 'alpha_0'/" &
           // "'alpha_thompson' are ",  [ var_str ("inconsistent EW input " &
           // "schemes. Please use 'alpha_mz' or 'Gmu'")])
        end if
        master%blha_cfg(i_file)%n_off_photons_is = noff_is_max
        master%blha_cfg(i_file)%n_off_photons_fs = noff_fs_max
     end do
   end subroutine blha_master_set_photon_characteristics
 
 @ %def blha_master_set_photon_characteristics
 @
 <<BLHA config: blha master: TBP>>=
   procedure :: generate => blha_master_generate
 <<BLHA config: sub interfaces>>=
     module subroutine blha_master_generate (master, basename, model, &
          n_in, alpha_power, alphas_power, flv_born, flv_real)
       class(blha_master_t), intent(inout) :: master
       type(string_t), intent(in) :: basename
       class(model_data_t), intent(in), target :: model
       integer, intent(in) :: n_in
       integer, intent(in) :: alpha_power, alphas_power
       integer, intent(in), dimension(:,:), allocatable :: flv_born, flv_real
     end subroutine blha_master_generate
 <<BLHA config: procedures>>=
   module subroutine blha_master_generate (master, basename, model, &
        n_in, alpha_power, alphas_power, flv_born, flv_real)
     class(blha_master_t), intent(inout) :: master
     type(string_t), intent(in) :: basename
     class(model_data_t), intent(in), target :: model
     integer, intent(in) :: n_in
     integer, intent(in) :: alpha_power, alphas_power
     integer, intent(in), dimension(:,:), allocatable :: flv_born, flv_real
     integer :: i_file
     if (master%n_files < 1) &
          call msg_fatal ("Attempting to generate OLP-files, but none are specified!")
     i_file = 1
     call master%generate_loop (basename, model, n_in, alpha_power, &
          alphas_power, flv_born, i_file)
     call master%generate_correlation (basename, model, n_in, alpha_power, &
          alphas_power, flv_born, i_file)
     call master%generate_real_tree (basename, model, n_in, alpha_power, &
          alphas_power, flv_real, i_file)
     call master%generate_born (basename, model, n_in, alpha_power, &
          alphas_power, flv_born, i_file)
     call master%generate_dglap (basename, model, n_in, alpha_power, &
          alphas_power, flv_born, i_file)
   end subroutine blha_master_generate
 
 @ %def blha_master_generate
 @
 <<BLHA config: blha master: TBP>>=
   procedure :: generate_loop => blha_master_generate_loop
 <<BLHA config: sub interfaces>>=
     module subroutine blha_master_generate_loop (master, basename, model, n_in, &
          alpha_power, alphas_power, flv_born, i_file)
       class(blha_master_t), intent(inout) :: master
       type(string_t), intent(in) :: basename
       class(model_data_t), intent(in), target :: model
       integer, intent(in) :: n_in
       integer, intent(in) :: alpha_power, alphas_power
       integer, dimension(:,:), allocatable, intent(in) :: flv_born
       integer, intent(inout) :: i_file
     end subroutine blha_master_generate_loop
 <<BLHA config: procedures>>=
   module subroutine blha_master_generate_loop (master, basename, model, n_in, &
        alpha_power, alphas_power, flv_born, i_file)
     class(blha_master_t), intent(inout) :: master
     type(string_t), intent(in) :: basename
     class(model_data_t), intent(in), target :: model
     integer, intent(in) :: n_in
     integer, intent(in) :: alpha_power, alphas_power
     integer, dimension(:,:), allocatable, intent(in) :: flv_born
     integer, intent(inout) :: i_file
     type(blha_flv_state_t), dimension(:), allocatable :: blha_flavor
     integer :: i_flv
     if (master%compute_loops) then
        if (allocated (flv_born)) then
           allocate (blha_flavor (size (flv_born, 2)))
           do i_flv = 1, size (flv_born, 2)
              allocate (blha_flavor(i_flv)%flavors (size (flv_born(:,i_flv))))
              blha_flavor(i_flv)%flavors = flv_born(:,i_flv)
              blha_flavor(i_flv)%flv_mult = 2
           end do
           master%suffix(i_file) = blha_get_additional_suffix (var_str ("_LOOP"))
           call blha_init_virtual (master%blha_cfg(i_file), blha_flavor, &
                n_in, alpha_power, alphas_power, master%ew_scheme, &
                basename, model, master%blha_mode(1), master%suffix(i_file))
           i_file = i_file + 1
         else
           call msg_fatal ("BLHA Loops requested but " &
                // "Born flavor not existing")
         end if
     end if
   end subroutine blha_master_generate_loop
 
 @ %def blha_master_generate_loop
 @
 <<BLHA config: blha master: TBP>>=
   procedure :: generate_correlation => blha_master_generate_correlation
 <<BLHA config: sub interfaces>>=
     module subroutine blha_master_generate_correlation (master, basename, model, n_in, &
          alpha_power, alphas_power, flv_born, i_file)
       class(blha_master_t), intent(inout) :: master
       type(string_t), intent(in) :: basename
       class(model_data_t), intent(in), target :: model
       integer, intent(in) :: n_in
       integer, intent(in) :: alpha_power, alphas_power
       integer, dimension(:,:), allocatable, intent(in) :: flv_born
       integer, intent(inout) :: i_file
     end subroutine blha_master_generate_correlation
 <<BLHA config: procedures>>=
   module subroutine blha_master_generate_correlation (master, basename, model, n_in, &
        alpha_power, alphas_power, flv_born, i_file)
     class(blha_master_t), intent(inout) :: master
     type(string_t), intent(in) :: basename
     class(model_data_t), intent(in), target :: model
     integer, intent(in) :: n_in
     integer, intent(in) :: alpha_power, alphas_power
     integer, dimension(:,:), allocatable, intent(in) :: flv_born
     integer, intent(inout) :: i_file
     type(blha_flv_state_t), dimension(:), allocatable :: blha_flavor
     integer :: i_flv
     if (master%compute_correlations) then
        if (allocated (flv_born)) then
           allocate (blha_flavor (size (flv_born, 2)))
           do i_flv = 1, size (flv_born, 2)
              allocate (blha_flavor(i_flv)%flavors (size (flv_born(:,i_flv))))
              blha_flavor(i_flv)%flavors = flv_born(:,i_flv)
              blha_flavor(i_flv)%flv_mult = 3
           end do
           master%suffix(i_file) = blha_get_additional_suffix (var_str ("_SUB"))
           call blha_init_subtraction (master%blha_cfg(i_file), blha_flavor, &
                n_in, alpha_power, alphas_power, master%ew_scheme, &
                basename, model, master%blha_mode(2), master%suffix(i_file))
           i_file = i_file + 1
        else
           call msg_fatal ("BLHA Correlations requested but "&
                // "Born flavor not existing")
        end if
     end if
   end subroutine blha_master_generate_correlation
 
 @ %def blha_master_generate_correlation
 @
 <<BLHA config: blha master: TBP>>=
   procedure :: generate_real_tree => blha_master_generate_real_tree
 <<BLHA config: sub interfaces>>=
     module subroutine blha_master_generate_real_tree (master, basename, model, n_in, &
          alpha_power, alphas_power, flv_real, i_file)
       class(blha_master_t), intent(inout) :: master
       type(string_t), intent(in) :: basename
       class(model_data_t), intent(in), target :: model
       integer, intent(in) :: n_in
       integer, intent(in) :: alpha_power, alphas_power
       integer, dimension(:,:), allocatable, intent(in) :: flv_real
       integer, intent(inout) :: i_file
     end subroutine blha_master_generate_real_tree
 <<BLHA config: procedures>>=
   module subroutine blha_master_generate_real_tree (master, basename, model, n_in, &
        alpha_power, alphas_power, flv_real, i_file)
     class(blha_master_t), intent(inout) :: master
     type(string_t), intent(in) :: basename
     class(model_data_t), intent(in), target :: model
     integer, intent(in) :: n_in
     integer, intent(in) :: alpha_power, alphas_power
     integer, dimension(:,:), allocatable, intent(in) :: flv_real
     integer, intent(inout) :: i_file
     type(blha_flv_state_t), dimension(:), allocatable :: blha_flavor
     integer :: i_flv
     if (master%compute_real_trees) then
        if (allocated (flv_real)) then
           allocate (blha_flavor (size (flv_real, 2)))
           do i_flv = 1, size (flv_real, 2)
              allocate (blha_flavor(i_flv)%flavors (size (flv_real(:,i_flv))))
              blha_flavor(i_flv)%flavors = flv_real(:,i_flv)
              blha_flavor(i_flv)%flv_mult = 1
           end do
           master%suffix(i_file) = blha_get_additional_suffix (var_str ("_REAL"))
           call blha_init_real (master%blha_cfg(i_file), blha_flavor, &
                n_in, alpha_power, alphas_power, master%ew_scheme, &
                basename, model, master%blha_mode(3), master%suffix(i_file))
           i_file = i_file + 1
        else
           call msg_fatal ("BLHA Trees requested but "&
                // "Real flavor not existing")
        end if
     end if
   end subroutine blha_master_generate_real_tree
 
 @ %def blha_master_generate_real_tree
 @
 <<BLHA config: blha master: TBP>>=
   procedure :: generate_born => blha_master_generate_born
 <<BLHA config: sub interfaces>>=
     module subroutine blha_master_generate_born (master, basename, model, n_in, &
          alpha_power, alphas_power, flv_born, i_file)
       class(blha_master_t), intent(inout) :: master
       type(string_t), intent(in) :: basename
       class(model_data_t), intent(in), target :: model
       integer, intent(in) :: n_in
       integer, intent(in) :: alpha_power, alphas_power
       integer, dimension(:,:), allocatable, intent(in) :: flv_born
       integer, intent(inout) :: i_file
     end subroutine blha_master_generate_born
 <<BLHA config: procedures>>=
   module subroutine blha_master_generate_born (master, basename, model, n_in, &
        alpha_power, alphas_power, flv_born, i_file)
     class(blha_master_t), intent(inout) :: master
     type(string_t), intent(in) :: basename
     class(model_data_t), intent(in), target :: model
     integer, intent(in) :: n_in
     integer, intent(in) :: alpha_power, alphas_power
     integer, dimension(:,:), allocatable, intent(in) :: flv_born
     integer, intent(inout) :: i_file
     type(blha_flv_state_t), dimension(:), allocatable :: blha_flavor
     integer :: i_flv
     if (master%compute_borns) then
        if (allocated (flv_born)) then
           allocate (blha_flavor (size (flv_born, 2)))
           do i_flv = 1, size (flv_born, 2)
              allocate (blha_flavor(i_flv)%flavors (size (flv_born(:,i_flv))))
              blha_flavor(i_flv)%flavors = flv_born(:,i_flv)
              blha_flavor(i_flv)%flv_mult = 1
           end do
           master%suffix(i_file) = blha_get_additional_suffix (var_str ("_BORN"))
           call blha_init_born (master%blha_cfg(i_file), blha_flavor, &
                n_in, alpha_power, alphas_power, master%ew_scheme, &
                basename, model, master%blha_mode(4), master%suffix(i_file))
           i_file = i_file + 1
        end if
     end if
   end subroutine blha_master_generate_born
 
 @ %def blha_master_generate_born
 @
 <<BLHA config: blha master: TBP>>=
   procedure :: generate_dglap => blha_master_generate_dglap
 <<BLHA config: sub interfaces>>=
     module subroutine blha_master_generate_dglap (master, basename, model, n_in, &
          alpha_power, alphas_power, flv_born, i_file)
       class(blha_master_t), intent(inout) :: master
       type(string_t), intent(in) :: basename
       class(model_data_t), intent(in), target :: model
       integer, intent(in) :: n_in
       integer, intent(in) :: alpha_power, alphas_power
       integer, dimension(:,:), allocatable, intent(in) :: flv_born
       integer, intent(inout) :: i_file
     end subroutine blha_master_generate_dglap
 <<BLHA config: procedures>>=
   module subroutine blha_master_generate_dglap (master, basename, model, n_in, &
        alpha_power, alphas_power, flv_born, i_file)
     class(blha_master_t), intent(inout) :: master
     type(string_t), intent(in) :: basename
     class(model_data_t), intent(in), target :: model
     integer, intent(in) :: n_in
     integer, intent(in) :: alpha_power, alphas_power
     integer, dimension(:,:), allocatable, intent(in) :: flv_born
     integer, intent(inout) :: i_file
     type(blha_flv_state_t), dimension(:), allocatable :: blha_flavor
     integer :: i_flv
     if (master%compute_dglap) then
        if (allocated (flv_born)) then
           allocate (blha_flavor (size (flv_born, 2)))
           do i_flv = 1, size (flv_born, 2)
              allocate (blha_flavor(i_flv)%flavors (size (flv_born(:,i_flv))))
              blha_flavor(i_flv)%flavors = flv_born(:,i_flv)
              blha_flavor(i_flv)%flv_mult = 2
           end do
           master%suffix(i_file) = blha_get_additional_suffix (var_str ("_DGLAP"))
           call blha_init_dglap (master%blha_cfg(i_file), blha_flavor, &
                n_in, alpha_power, alphas_power, master%ew_scheme, &
                basename, model, master%blha_mode(5), master%suffix(i_file))
           i_file = i_file + 1
        end if
     end if
   end subroutine blha_master_generate_dglap
 
 @ %def blha_master_generate_dglap
 @
 <<BLHA config: blha master: TBP>>=
   procedure :: setup_additional_features => blha_master_setup_additional_features
 <<BLHA config: sub interfaces>>=
     module subroutine blha_master_setup_additional_features (master, &
-           phs_tolerance, use_cms, stability_log, extra_cmd, beam_structure)
+           phs_tolerance, use_cms, stability_log, extra_cmd, &
+           allowed_libs, beam_structure)
       class(blha_master_t), intent(inout) :: master
       integer, intent(in) :: phs_tolerance
       logical, intent(in) :: use_cms
-      type(string_t), intent(in), optional :: extra_cmd
+      type(string_t), intent(in), optional :: extra_cmd, allowed_libs
       integer, intent(in) :: stability_log
       type(beam_structure_t), intent(in), optional :: beam_structure
     end subroutine blha_master_setup_additional_features
 <<BLHA config: procedures>>=
   module subroutine blha_master_setup_additional_features (master, &
-         phs_tolerance, use_cms, stability_log, extra_cmd, beam_structure)
+         phs_tolerance, use_cms, stability_log, extra_cmd, &
+         allowed_libs,beam_structure)
     class(blha_master_t), intent(inout) :: master
     integer, intent(in) :: phs_tolerance
     logical, intent(in) :: use_cms
-    type(string_t), intent(in), optional :: extra_cmd
+    type(string_t), intent(in), optional :: extra_cmd, allowed_libs
     integer, intent(in) :: stability_log
     type(beam_structure_t), intent(in), optional :: beam_structure
     integer :: i_file
     logical :: polarized, throw_warning
     
     polarized = .false.
     if (present (beam_structure)) polarized = beam_structure%has_polarized_beams ()
     
     throw_warning = .false.
     if (use_cms) then
        throw_warning = throw_warning .or. (master%compute_loops &
             .and. master%blha_mode(1) /= BLHA_MODE_OPENLOOPS)
        throw_warning = throw_warning .or. (master%compute_correlations &
             .and. master%blha_mode(2) /= BLHA_MODE_OPENLOOPS)
        throw_warning = throw_warning .or. (master%compute_real_trees &
             .and. master%blha_mode(3) /= BLHA_MODE_OPENLOOPS)
        throw_warning = throw_warning .or. (master%compute_borns &
             .and. master%blha_mode(4) /= BLHA_MODE_OPENLOOPS)
        throw_warning = throw_warning .or. (master%compute_dglap &
             .and. master%blha_mode(5) /= BLHA_MODE_OPENLOOPS)
        if (throw_warning)  call cms_warning ()
     end if
     
     do i_file = 1, master%n_files
        if (phs_tolerance > 0) then
           select case (master%blha_mode (master%i_file_to_nlo_index(i_file)))
           case (BLHA_MODE_GOSAM)
              if (polarized)  call gosam_error_message ()
           case (BLHA_MODE_OPENLOOPS)
              master%blha_cfg(i_file)%openloops_use_cms = use_cms
              master%blha_cfg(i_file)%openloops_phs_tolerance = phs_tolerance
              master%blha_cfg(i_file)%polarized = polarized
              if (present (extra_cmd)) then
                 master%blha_cfg(i_file)%openloops_extra_cmd = extra_cmd
              else
                 master%blha_cfg(i_file)%openloops_extra_cmd = var_str ('')
              end if
+             if (present (extra_cmd)) then
+                master%blha_cfg(i_file)%openloops_allowed_libs = allowed_libs
+             else
+                master%blha_cfg(i_file)%openloops_allowed_libs = var_str ('')
+             end if
              master%blha_cfg(i_file)%openloops_stability_log = stability_log
           end select
        end if
     end do
   contains
     subroutine cms_warning ()
       call msg_warning ("You have set ?openloops_use_cms = true, but not all active matrix ", &
            [var_str ("element methods are set to OpenLoops. Note that other "), &
            var_str ("methods might not necessarily support the complex mass "), &
            var_str ("scheme. This can yield inconsistencies in your NLO results!")])
     end subroutine cms_warning
     
     subroutine gosam_error_message ()
       call msg_fatal ("You are trying to evaluate a process at NLO ", &
            [var_str ("which involves polarized beams using GoSam. "), &
            var_str ("This feature is not supported yet. "), &
            var_str ("Please use OpenLoops instead")])
     end subroutine gosam_error_message
   end subroutine blha_master_setup_additional_features
   
 @ %def blha_master_setup_additional_features
 @
 <<BLHA config: blha master: TBP>>=
   procedure :: set_gosam => blha_master_set_gosam
 <<BLHA config: sub interfaces>>=
     module subroutine blha_master_set_gosam (master, i)
       class(blha_master_t), intent(inout) :: master
       integer, intent(in) :: i
     end subroutine blha_master_set_gosam
 <<BLHA config: procedures>>=
   module subroutine blha_master_set_gosam (master, i)
     class(blha_master_t), intent(inout) :: master
     integer, intent(in) :: i
     master%blha_mode(i) = BLHA_MODE_GOSAM
   end subroutine blha_master_set_gosam
 
 @ %def blha_master_set_gosam
 @
 <<BLHA config: blha master: TBP>>=
   procedure :: set_openloops => blha_master_set_openloops
 <<BLHA config: sub interfaces>>=
     module subroutine blha_master_set_openloops (master, i)
       class(blha_master_t), intent(inout) :: master
       integer, intent(in) :: i
     end subroutine blha_master_set_openloops
 <<BLHA config: procedures>>=
   module subroutine blha_master_set_openloops (master, i)
     class(blha_master_t), intent(inout) :: master
     integer, intent(in) :: i
     master%blha_mode(i) = BLHA_MODE_OPENLOOPS
   end subroutine blha_master_set_openloops
 
 @ %def blha_master_set_openloops
 @
 <<BLHA config: blha master: TBP>>=
   procedure :: set_polarization => blha_master_set_polarization
 <<BLHA config: sub interfaces>>=
     module subroutine blha_master_set_polarization (master, i)
       class(blha_master_t), intent(inout) :: master
       integer, intent(in) :: i
     end subroutine blha_master_set_polarization
 <<BLHA config: procedures>>=
   module subroutine blha_master_set_polarization (master, i)
     class(blha_master_t), intent(inout) :: master
     integer, intent(in) :: i
     master%blha_cfg(i)%polarized = .true.
   end subroutine blha_master_set_polarization
 
 @ %def blha_master_set_polarization
 @
 <<BLHA config: procedures>>=
   subroutine blha_init_born (blha_cfg, blha_flavor, n_in, &
          ap, asp, ew_scheme, basename, model, blha_mode, suffix)
     type(blha_configuration_t), intent(inout) :: blha_cfg
     type(blha_flv_state_t), intent(in), dimension(:) :: blha_flavor
     integer, intent(in) :: n_in
     integer, intent(in) :: ap, asp
     integer, intent(in) :: ew_scheme
     type(string_t), intent(in) :: basename
     type(model_data_t), intent(in), target :: model
     integer, intent(in) :: blha_mode
     type(string_t), intent(in) :: suffix
     integer, dimension(:), allocatable :: amp_type
     integer :: i
 
     allocate (amp_type (size (blha_flavor)))
     do i = 1, size (blha_flavor)
        amp_type(i) = BLHA_AMP_TREE
     end do
     call blha_configuration_init (blha_cfg, basename // suffix , &
          model, blha_mode)
     call blha_configuration_append_processes (blha_cfg, n_in, &
          blha_flavor, amp_type)
     call blha_configuration_set (blha_cfg, BLHA_VERSION_2, &
          irreg = BLHA_IRREG_CDR, alphas_power = asp, &
          alpha_power = ap, ew_scheme = ew_scheme, &
          debug = blha_mode == BLHA_MODE_GOSAM)
   end subroutine blha_init_born
 
   subroutine blha_init_virtual (blha_cfg, blha_flavor, n_in, &
          ap, asp, ew_scheme, basename, model, blha_mode, suffix)
     type(blha_configuration_t), intent(inout) :: blha_cfg
     type(blha_flv_state_t), intent(in), dimension(:) :: blha_flavor
     integer, intent(in) :: n_in
     integer, intent(in) :: ap, asp
     integer, intent(in) :: ew_scheme
     type(string_t), intent(in) :: basename
     type(model_data_t), intent(in), target :: model
     integer, intent(in) :: blha_mode
     type(string_t), intent(in) :: suffix
     integer, dimension(:), allocatable :: amp_type
     integer :: i
 
     allocate (amp_type (size (blha_flavor) * 2))
     do i = 1, size (blha_flavor)
        amp_type(2 * i - 1) = BLHA_AMP_LOOP
        amp_type(2 * i) = BLHA_AMP_COLOR_C
     end do
     call blha_configuration_init (blha_cfg, basename // suffix , &
          model, blha_mode)
     call blha_configuration_append_processes (blha_cfg, n_in, &
          blha_flavor, amp_type)
     call blha_configuration_set (blha_cfg, BLHA_VERSION_2, &
          irreg = BLHA_IRREG_CDR, &
          alphas_power = asp, &
          alpha_power = ap, &
          ew_scheme = ew_scheme, &
          debug = blha_mode == BLHA_MODE_GOSAM)
   end subroutine blha_init_virtual
 
   subroutine blha_init_dglap (blha_cfg, blha_flavor, n_in, &
          ap, asp, ew_scheme, basename, model, blha_mode, suffix)
     type(blha_configuration_t), intent(inout) :: blha_cfg
     type(blha_flv_state_t), intent(in), dimension(:) :: blha_flavor
     integer, intent(in) :: n_in
     integer, intent(in) :: ap, asp
     integer, intent(in) :: ew_scheme
     type(string_t), intent(in) :: basename
     type(model_data_t), intent(in), target :: model
     integer, intent(in) :: blha_mode
     type(string_t), intent(in) :: suffix
     integer, dimension(:), allocatable :: amp_type
     integer :: i
 
     allocate (amp_type (size (blha_flavor) * 2))
     do i = 1, size (blha_flavor)
        amp_type(2 * i - 1) = BLHA_AMP_TREE
        amp_type(2 * i) = BLHA_AMP_COLOR_C
     end do
     call blha_configuration_init (blha_cfg, basename // suffix , &
          model, blha_mode)
     call blha_configuration_append_processes (blha_cfg, n_in, &
          blha_flavor, amp_type)
     call blha_configuration_set (blha_cfg, BLHA_VERSION_2, &
          irreg = BLHA_IRREG_CDR, &
          alphas_power = asp, &
          alpha_power = ap, &
          ew_scheme = ew_scheme, &
          debug = blha_mode == BLHA_MODE_GOSAM)
   end subroutine blha_init_dglap
 
   subroutine blha_init_subtraction (blha_cfg, blha_flavor, n_in, &
          ap, asp, ew_scheme, basename, model, blha_mode, suffix)
     type(blha_configuration_t), intent(inout) :: blha_cfg
     type(blha_flv_state_t), intent(in), dimension(:) :: blha_flavor
     integer, intent(in) :: n_in
     integer, intent(in) :: ap, asp
     integer, intent(in) :: ew_scheme
     type(string_t), intent(in) :: basename
     type(model_data_t), intent(in), target :: model
     integer, intent(in) :: blha_mode
     type(string_t), intent(in) :: suffix
     integer, dimension(:), allocatable :: amp_type
     integer :: i
 
     allocate (amp_type (size (blha_flavor) * 3))
     do i = 1, size (blha_flavor)
        amp_type(3 * i - 2) = BLHA_AMP_TREE
        amp_type(3 * i - 1) = BLHA_AMP_COLOR_C
        amp_type(3 * i) = BLHA_AMP_SPIN_C
     end do
     call blha_configuration_init (blha_cfg, basename // suffix , &
          model, blha_mode)
     call blha_configuration_append_processes (blha_cfg, n_in, &
          blha_flavor, amp_type)
     call blha_configuration_set (blha_cfg, BLHA_VERSION_2, &
          irreg = BLHA_IRREG_CDR, &
          alphas_power = asp, &
          alpha_power = ap, &
          ew_scheme = ew_scheme, &
          debug = blha_mode == BLHA_MODE_GOSAM)
   end subroutine blha_init_subtraction
 
   subroutine blha_init_real (blha_cfg, blha_flavor, n_in, &
          ap, asp, ew_scheme, basename, model, blha_mode, suffix)
     type(blha_configuration_t), intent(inout) :: blha_cfg
     type(blha_flv_state_t), intent(in), dimension(:) :: blha_flavor
     integer, intent(in) :: n_in
     integer, intent(in) :: ap, asp
     integer :: ap_ew, ap_qcd
     integer, intent(in) :: ew_scheme
     type(string_t), intent(in) :: basename
     type(model_data_t), intent(in), target :: model
     integer, intent(in) :: blha_mode
     type(string_t), intent(in) :: suffix
     integer, dimension(:), allocatable :: amp_type
     integer :: i
 
     allocate (amp_type (size (blha_flavor)))
     do i = 1, size (blha_flavor)
        amp_type(i) = BLHA_AMP_TREE
     end do
     select case (blha_cfg%correction_type)
     case (BLHA_CT_QCD)
        ap_ew = ap
        ap_qcd = asp + 1
     case (BLHA_CT_EW)
        ap_ew = ap + 1
        ap_qcd = asp
     end select
     call blha_configuration_init (blha_cfg, basename // suffix , &
          model, blha_mode)
     call blha_configuration_append_processes (blha_cfg, n_in, &
          blha_flavor, amp_type)
 
     call blha_configuration_set (blha_cfg, BLHA_VERSION_2, &
          irreg = BLHA_IRREG_CDR, &
          alphas_power = ap_qcd, &
          alpha_power = ap_ew, &
          ew_scheme = ew_scheme, &
          debug = blha_mode == BLHA_MODE_GOSAM)
   end subroutine blha_init_real
 
 @ %def blha_init_virtual blha_init_real
 @ %def blha_init_subtraction
 @
 <<BLHA config: public>>=
   public :: blha_get_additional_suffix
 <<BLHA config: sub interfaces>>=
     module function blha_get_additional_suffix (base_suffix) result (suffix)
       type(string_t) :: suffix
       type(string_t), intent(in) :: base_suffix
     end function blha_get_additional_suffix
 <<BLHA config: procedures>>=
   module function blha_get_additional_suffix (base_suffix) result (suffix)
     type(string_t) :: suffix
     type(string_t), intent(in) :: base_suffix
   <<blha master: blha master extend suffixes: variables>>
     suffix = base_suffix
   <<blha master: blha master extend suffixes: procedure>>
   end function blha_get_additional_suffix
 
 @ %def blha_master_extend_suffixes
 @
 <<MPI: blha master: blha master extend suffixes: variables>>=
   integer :: n_size, rank
 <<MPI: blha master: blha master extend suffixes: procedure>>=
   call MPI_Comm_rank (MPI_COMM_WORLD, rank)
   call MPI_Comm_size (MPI_COMM_WORLD, n_size)
   if (n_size > 1) then
      suffix = suffix // var_str ("_") // str (rank)
   end if
 @
 <<BLHA config: blha master: TBP>>=
   procedure :: write_olp => blha_master_write_olp
 <<BLHA config: sub interfaces>>=
     module subroutine blha_master_write_olp (master, basename)
       class(blha_master_t), intent(in) :: master
       type(string_t), intent(in) :: basename
     end subroutine blha_master_write_olp
 <<BLHA config: procedures>>=
   module subroutine blha_master_write_olp (master, basename)
     class(blha_master_t), intent(in) :: master
     type(string_t), intent(in) :: basename
     integer :: unit
     type(string_t) :: filename
     integer :: i_file
     do i_file = 1, master%n_files
        filename = basename // master%suffix(i_file) // ".olp"
        unit = free_unit ()
        open (unit, file = char (filename), status = 'replace', action = 'write')
        call blha_configuration_write &
             (master%blha_cfg(i_file), master%suffix(i_file), unit)
        close (unit)
     end do
   end subroutine blha_master_write_olp
 
 @ %def blha_master_write_olp
 @
 <<BLHA config: blha master: TBP>>=
   procedure :: final => blha_master_final
 <<BLHA config: sub interfaces>>=
     module subroutine blha_master_final (master)
       class(blha_master_t), intent(inout) :: master
     end subroutine blha_master_final
 <<BLHA config: procedures>>=
   module subroutine blha_master_final (master)
     class(blha_master_t), intent(inout) :: master
     master%n_files = 0
     deallocate (master%suffix)
     deallocate (master%blha_cfg)
     deallocate (master%i_file_to_nlo_index)
   end subroutine blha_master_final
 
 @ %def blha_master_final
 @
 <<BLHA config: public>>=
   public :: blha_configuration_init
 <<BLHA config: sub interfaces>>=
     module subroutine blha_configuration_init (cfg, name, model, mode)
       type(blha_configuration_t), intent(inout) :: cfg
       type(string_t), intent(in) :: name
       class(model_data_t), target, intent(in) :: model
       integer, intent(in), optional :: mode
     end subroutine blha_configuration_init
 <<BLHA config: procedures>>=
   module subroutine blha_configuration_init (cfg, name, model, mode)
     type(blha_configuration_t), intent(inout) :: cfg
     type(string_t), intent(in) :: name
     class(model_data_t), target, intent(in) :: model
     integer, intent(in), optional :: mode
     if (.not. associated (cfg%model)) then
        cfg%name = name
        cfg%model => model
     end if
     if (present (mode))  cfg%mode = mode
   end subroutine blha_configuration_init
 
 @ %def blha_configuration_init
 @ Create an array of massive particle indices, to be used by the
 "MassiveParticle"-statement of the order file.
 <<BLHA config: procedures>>=
   subroutine blha_configuration_get_massive_particles &
          (cfg, massive, i_massive)
     type(blha_configuration_t), intent(in) :: cfg
     logical, intent(out) :: massive
     integer, intent(out), dimension(:), allocatable :: i_massive
     integer, parameter :: max_particles = 10
     integer, dimension(max_particles) :: i_massive_tmp
     integer, dimension(max_particles) :: checked
     type(blha_cfg_process_node_t), pointer :: current_process
     integer :: k
     integer :: n_massive
     n_massive = 0; k = 1
     checked = 0
     if (associated (cfg%processes)) then
        current_process => cfg%processes
     else
        call msg_fatal ("BLHA, massive particles: " // &
             "No processes allocated!")
     end if
     do
        call check_pdg_list (current_process%pdg_in%pdg)
        call check_pdg_list (current_process%pdg_out%pdg)
        if (k > max_particles) &
             call msg_fatal ("BLHA, massive particles: " // &
             "Max. number of particles exceeded!")
        if (associated (current_process%next)) then
           current_process => current_process%next
        else
           exit
        end if
     end do
     if (n_massive > 0) then
        allocate (i_massive (n_massive))
        i_massive = i_massive_tmp (1:n_massive)
        massive = .true.
     else
        massive = .false.
     end if
   contains
     subroutine check_pdg_list (pdg_list)
        integer, dimension(:), intent(in) :: pdg_list
        integer :: i, i_pdg
        type(flavor_t) :: flv
        do i = 1, size (pdg_list)
           i_pdg = abs (pdg_list(i))
           call flv%init (i_pdg, cfg%model)
           if (flv%get_mass () > 0._default) then
              !!! Avoid duplicates in output
              if (.not. any (checked == i_pdg)) then
                 i_massive_tmp(k) = i_pdg
                 checked(k) = i_pdg
                 k = k + 1
                 n_massive = n_massive + 1
              end if
           end if
        end do
     end subroutine check_pdg_list
   end subroutine blha_configuration_get_massive_particles
 
 @ %def blha_configuration_get_massive_particles
 @
 <<BLHA config: public>>=
   public :: blha_configuration_append_processes
 <<BLHA config: sub interfaces>>=
     module subroutine blha_configuration_append_processes (cfg, n_in, flavor, amp_type)
       type(blha_configuration_t), intent(inout) :: cfg
       integer, intent(in) :: n_in
       type(blha_flv_state_t), dimension(:), intent(in) :: flavor
       integer, dimension(:), intent(in), optional :: amp_type
     end subroutine blha_configuration_append_processes
 <<BLHA config: procedures>>=
   module subroutine blha_configuration_append_processes (cfg, n_in, flavor, amp_type)
     type(blha_configuration_t), intent(inout) :: cfg
     integer, intent(in) :: n_in
     type(blha_flv_state_t), dimension(:), intent(in) :: flavor
     integer, dimension(:), intent(in), optional :: amp_type
     integer :: n_tot
     type(blha_cfg_process_node_t), pointer :: current_node
     integer :: i_process, i_flv
     integer, dimension(:), allocatable :: pdg_in, pdg_out
     integer, dimension(:), allocatable :: flavor_state
     integer :: proc_offset, n_proc_tot
     proc_offset = 0; n_proc_tot = 0
     do i_flv = 1, size (flavor)
        n_proc_tot = n_proc_tot + flavor(i_flv)%flv_mult
     end do
     if (.not. associated (cfg%processes)) &
          allocate (cfg%processes)
     current_node => cfg%processes
     do i_flv = 1, size (flavor)
        n_tot = size (flavor(i_flv)%flavors)
        allocate (pdg_in (n_in), pdg_out (n_tot - n_in))
        allocate (flavor_state (n_tot))
        flavor_state = flavor(i_flv)%flavors
        do i_process = 1, flavor(i_flv)%flv_mult
           pdg_in = flavor_state (1 : n_in)
           pdg_out = flavor_state (n_in + 1 : )
           if (cfg%polarized) then
              select case (cfg%mode)
              case (BLHA_MODE_OPENLOOPS)
                 call allocate_and_init_pdg_and_helicities (current_node, &
                      pdg_in, pdg_out, amp_type (proc_offset + i_process))
              case (BLHA_MODE_GOSAM)
                 !!! Nothing special for GoSam yet. This exception is already caught
                 !!! in blha_master_setup_additional_features
              end select
           else
              call allocate_and_init_pdg (current_node, pdg_in, pdg_out, &
                   amp_type (proc_offset + i_process))
           end if
           if (proc_offset + i_process /= n_proc_tot) then
             allocate (current_node%next)
             current_node => current_node%next
           end if
           if (i_process == flavor(i_flv)%flv_mult) &
                proc_offset = proc_offset + flavor(i_flv)%flv_mult
        end do
        deallocate (pdg_in, pdg_out)
        deallocate (flavor_state)
     end do
 
   contains
 
     subroutine allocate_and_init_pdg (node, pdg_in, pdg_out, amp_type)
       type(blha_cfg_process_node_t), intent(inout), pointer :: node
       integer, intent(in), dimension(:), allocatable :: pdg_in, pdg_out
       integer, intent(in) :: amp_type
       allocate (node%pdg_in (size (pdg_in)))
       allocate (node%pdg_out (size (pdg_out)))
       node%pdg_in%pdg = pdg_in
       node%pdg_out%pdg = pdg_out
       node%amplitude_type = amp_type
     end subroutine allocate_and_init_pdg
 
     subroutine allocate_and_init_pdg_and_helicities (node, pdg_in, pdg_out, amp_type)
       type(blha_cfg_process_node_t), intent(inout), pointer :: node
       integer, intent(in), dimension(:), allocatable :: pdg_in, pdg_out
       integer, intent(in) :: amp_type
       integer :: h1, h2
       if (size (pdg_in) == 2) then
          do h1 = -1, 1, 2
             do h2 = -1, 1, 2
                call allocate_and_init_pdg (current_node, pdg_in, pdg_out, amp_type)
                current_node%pdg_in(1)%polarized = .true.
                current_node%pdg_in(2)%polarized = .true.
                current_node%pdg_in(1)%hel = h1
                current_node%pdg_in(2)%hel = h2
                if (h1 + h2 /= 2) then !!! not end of loop
                   allocate (current_node%next)
                   current_node => current_node%next
                end if
             end do
          end do
       else
          do h1 = -1, 1, 2
             call allocate_and_init_pdg (current_node, pdg_in, pdg_out, amp_type)
             current_node%pdg_in(1)%polarized = .true.
             current_node%pdg_in(1)%hel = h1
             if (h1 /= 1) then !!! not end of loop
                allocate (current_node%next)
                current_node => current_node%next
             end if
          end do
       end if
     end subroutine allocate_and_init_pdg_and_helicities
 
   end subroutine blha_configuration_append_processes
 
 @ %def blha_configuration_append_processes
 @ Change parameter(s).
 <<BLHA config: public>>=
   public :: blha_configuration_set
 <<BLHA config: sub interfaces>>=
     module subroutine blha_configuration_set (cfg, &
          version, irreg, massive_particle_scheme, &
          model_file, alphas_power, alpha_power, ew_scheme, width_scheme, &
          accuracy, debug)
       type(blha_configuration_t), intent(inout) :: cfg
       integer, optional, intent(in) :: version
       integer, optional, intent(in) :: irreg
       integer, optional, intent(in) :: massive_particle_scheme
       type(string_t), optional, intent(in) :: model_file
       integer, optional, intent(in) :: alphas_power, alpha_power
       integer, optional, intent(in) :: ew_scheme
       integer, optional, intent(in) :: width_scheme
       real(default), optional, intent(in) :: accuracy
       logical, optional, intent(in) :: debug
     end subroutine blha_configuration_set
 <<BLHA config: procedures>>=
   module subroutine blha_configuration_set (cfg, &
        version, irreg, massive_particle_scheme, &
        model_file, alphas_power, alpha_power, ew_scheme, width_scheme, &
        accuracy, debug)
     type(blha_configuration_t), intent(inout) :: cfg
     integer, optional, intent(in) :: version
     integer, optional, intent(in) :: irreg
     integer, optional, intent(in) :: massive_particle_scheme
     type(string_t), optional, intent(in) :: model_file
     integer, optional, intent(in) :: alphas_power, alpha_power
     integer, optional, intent(in) :: ew_scheme
     integer, optional, intent(in) :: width_scheme
     real(default), optional, intent(in) :: accuracy
     logical, optional, intent(in) :: debug
     if (present (version)) &
          cfg%version = version
     if (present (irreg)) &
          cfg%irreg = irreg
     if (present (massive_particle_scheme)) &
          cfg%massive_particle_scheme = massive_particle_scheme
     if (present (model_file)) &
          cfg%model_file = model_file
     if (present (alphas_power)) &
          cfg%alphas_power = alphas_power
     if (present (alpha_power)) &
          cfg%alpha_power = alpha_power
     if (present (ew_scheme)) &
          cfg%ew_scheme = ew_scheme
     if (present (width_scheme)) &
          cfg%width_scheme = width_scheme
     if (present (accuracy)) &
          cfg%accuracy_target = accuracy
     if (present (debug)) &
          cfg%debug_unstable = debug
     cfg%dirty = .false.
   end subroutine blha_configuration_set
 
 @ %def blha_configuration_set
 @
 <<BLHA config: public>>=
   public :: blha_configuration_get_n_proc
 <<BLHA config: sub interfaces>>=
     module function blha_configuration_get_n_proc (cfg) result (n_proc)
       type(blha_configuration_t), intent(in) :: cfg
       integer :: n_proc
     end function blha_configuration_get_n_proc
 <<BLHA config: procedures>>=
   module function blha_configuration_get_n_proc (cfg) result (n_proc)
     type(blha_configuration_t), intent(in) :: cfg
     integer :: n_proc
     n_proc = cfg%n_proc
   end function blha_configuration_get_n_proc
 
 @ %def blha_configuration_get_n_proc
 @
 Write the BLHA file. Internal mode is intented for md5summing only.
 
 Special cases of external photons in \texttt{OpenLoops}:
 
 For electroweak corrections the particle ID (PID) of photons is a crucial input for the
 computation of matrix elements by \texttt{OpenLoops}.
 According to "arXiv: 1907.13071", section 3.2, external photons are classified by the
 following types:
 \begin{itemize}
 \item PID $= -2002$: off-shell photons, that undergo $\gamma\rightarrow f\bar{f}$ splittings
 at NLO EW, or initial state photons from QED PDFs
 \item PID $= 2002$: on-shell photons, that do not undergo $\gamma\rightarrow f\bar{f}$
 splittings at NLO EW, or initial state photons for example at photon colliders
 \item PID $= 22$: unresolved photons, representing radiated photons at NLO EW, absent at LO
 \end{itemize}
 For the first two types scattering amplitudes for processes with external photons at NLO EW
 get renormalisation factors containing photon-coupling and wave function counterterms.
 Logarithmic mass singularities arising due to the renormalisation of off-shell external
 photon wave functions are cancelled by collinear singularities of photon PDF counterterms or
 analogous terms in virtual contributions originating from $\gamma\rightarrow f\bar{f}$
 splittings of final state photons.
 
 The finite remainders of the renormalisation factors are thus dictated by the specific photon
 PID stated above.
 As consequence, we have to adjust the input PIDs written into the BLHA file which will be
 read by \texttt{OpenLoops}.\\
 Concretely, for the case of electroweak corrections initial state photons associated with
 photon PDFs and final state photons (if existent at LO) are labeled as off-shell photons with
 PID "$-2002$".
 On-shell photons with PID "$2002$" are neglected for now since to include them for processes
 at NLO EW is non-trivial from the phenomenological point of view.
 Processes at NLO EW typically are studied at high energy scales for which photon-induced
 sub-processes in most cases can not be neglected.
 However, on-shell, e.~g. tagged, photons are defined at low energy scales and thus the
 process has to be described with external photon fields and couplings at two different
 scales.
 
 Another issue which has to be adressed if various photon PIDs are taken into account is that
 real and virtual amplitudes have to be computed at the same order in $\alpha$ at a specific
 scale for the subtraction scheme to be consistent.
 The complication comes by the fact that the EW coupling $\alpha$ of each external photon in
 the amplitudes will automatically be rescaled by \texttt{OpenLoops} corresponding to the
 specific photon type.
 Following eq. (3.30) of "arXiv: 1907.13071", by default the coupling of an on-shell photon
 will be changed to $\alpha(0)$ and that of an off-shell photon to $\alpha_{G_\mu}$ if not
 chosen already at a high scale, e.~g. $\alpha(M_Z)$.
 In order to not spoil the IR cancellation \texttt{OpenLoops} supplies to register unresolved
 photons with PID "22" describing a radiated photon at NLO EW for which the photon-coupling
 $\alpha$ is left unchanged at the value which is computed with the electroweak input scheme
 chosen by the user.
 This is adopted here by labeling each emitted photon as unresolved with PID "22" if no
 photons are present at LO.\\
 For EW corrections the freedom to choose an electroweak input scheme is restricted, however,
 since the number of external photons present at LO is not conserved for the corresponding
 real flavor structures due to possible $\gamma \rightarrow f\bar{f}$ splittings.
 This forbids to choose $\alpha=\alpha(0)$ since otherwise the order in $\alpha(0)$ is not
 conserved in the real amplitudes corresponding to the factorizing Born process.
 Consequently, for FKS the NLO components are not of the same order in $\alpha(0)$.
 The option \texttt{\$blha\_ew\_scheme = "alpha\_0"} is thus refused for the case if EW
 corrections are activated and photons are present at LO.
 <<BLHA config: public>>=
   public :: blha_configuration_write
 <<BLHA config: sub interfaces>>=
     module subroutine blha_configuration_write (cfg, suffix, unit, internal, no_version)
       type(blha_configuration_t), intent(in) :: cfg
       integer, intent(in), optional :: unit
       logical, intent(in), optional :: internal, no_version
       type(string_t), intent(in) :: suffix
     end subroutine blha_configuration_write
 <<BLHA config: procedures>>=
   module subroutine blha_configuration_write (cfg, suffix, unit, internal, no_version)
     type(blha_configuration_t), intent(in) :: cfg
     integer, intent(in), optional :: unit
     logical, intent(in), optional :: internal, no_version
     type(string_t), intent(in) :: suffix
     integer, dimension(:), allocatable :: pdg_flv
     integer :: u
     logical :: full, nlo3
     type(string_t) :: buf
     type(blha_cfg_process_node_t), pointer :: node
     integer :: i
     character(3) :: pdg_char
     character(5) :: pdg_char_extra
     character(4) :: hel_char
     character(6) :: suffix_char
     character(len=25), parameter :: pad = ""
     logical :: write_process, no_v
     no_v = .false. ; if (present (no_version))  no_v = no_version
     u = given_output_unit (unit); if (u < 0) return
     full = .true.; if (present (internal)) full = .not. internal
     if (full .and. cfg%dirty) call msg_bug ( &
          "BUG: attempted to write out a dirty BLHA configuration")
     if (full) then
        if (no_v) then
           write (u, "(A)") "# BLHA order written by WHIZARD [version]"
        else
           write (u, "(A)") "# BLHA order written by WHIZARD <<Version>>"
        end if
        write (u, "(A)")
     end if
     select case (cfg%mode)
        case (BLHA_MODE_GOSAM); buf = "GoSam"
        case (BLHA_MODE_OPENLOOPS); buf = "OpenLoops"
        case default; buf = "vanilla"
     end select
     write (u, "(A)") "# BLHA interface mode: " // char (buf)
     write (u, "(A)") "# process: " // char (cfg%name)
     write (u, "(A)") "# model: " // char (cfg%model%get_name ())
     select case (cfg%version)
        case (1); buf = "BLHA1"
        case (2); buf = "BLHA2"
     end select
     write (u, '(A25,A)') "InterfaceVersion " // pad, char (buf)
     select case (cfg%correction_type)
        case (BLHA_CT_QCD); buf = "QCD"
        case (BLHA_CT_EW); buf = "EW"
        case default; buf = cfg%correction_type_other
     end select
     write (u,'(A25,A)') "CorrectionType" // pad, char (buf)
 
     select case (cfg%mode)
     case (BLHA_MODE_OPENLOOPS)
        buf = cfg%name // '.olc'
        write (u, '(A25,A)') "Extra AnswerFile" // pad, char (buf)
     end select
 
     select case (cfg%irreg)
        case (BLHA_IRREG_CDR); buf = "CDR"
        case (BLHA_IRREG_DRED); buf = "DRED"
        case (BLHA_IRREG_THV); buf = "tHV"
        case (BLHA_IRREG_MREG); buf = "MassReg"
        case default; buf = cfg%irreg_other
     end select
     write (u,'(A25,A)') "IRregularisation" // pad, char (buf)
     select case (cfg%massive_particle_scheme)
        case (BLHA_MPS_ONSHELL); buf = "OnShell"
        case default; buf = cfg%massive_particle_scheme_other
     end select
     if (cfg%mode == BLHA_MODE_GOSAM) &
          write (u,'(A25,A)') "MassiveParticleScheme" // pad, char (buf)
     select case (cfg%version)
     case (1)
       if (cfg%alphas_power >= 0) write (u,'(A25,A)') &
            "AlphasPower" // pad, int2char (cfg%alphas_power)
       if (cfg%alpha_power >= 0) write (u,'(A25,A)') &
            "AlphaPower " // pad, int2char (cfg%alpha_power)
     case (2)
       if (cfg%alphas_power >= 0) write (u,'(A25,A)') &
            "CouplingPower QCD " // pad, int2char (cfg%alphas_power)
       if (cfg%alpha_power >= 0) write (u, '(A25,A)') &
            "CouplingPower QED " // pad, int2char (cfg%alpha_power)
     end select
     select case (cfg%mode)
     case (BLHA_MODE_GOSAM)
        select case (cfg%ew_scheme)
           case (BLHA_EW_GF, BLHA_EW_INTERNAL); buf = "alphaGF"
           case (BLHA_EW_MZ); buf = "alphaMZ"
           case (BLHA_EW_MSBAR); buf = "alphaMSbar"
           case (BLHA_EW_0); buf = "alpha0"
           case (BLHA_EW_RUN); buf = "alphaRUN"
        end select
        write (u, '(A25, A)') "EWScheme " // pad, char (buf)
     case (BLHA_MODE_OPENLOOPS)
        select case (cfg%ew_scheme)
           case (BLHA_EW_0); buf = "alpha0"
           case (BLHA_EW_GF); buf = "Gmu"
           case (BLHA_EW_MZ, BLHA_EW_INTERNAL); buf = "alphaMZ"
           case default
              call msg_fatal ("OpenLoops input: Only supported EW schemes &
                   & are 'alpha0', 'Gmu', and 'alphaMZ'")
           end select
        write (u, '(A25, A)') "ewscheme " // pad, char (buf)
     end select
     select case (cfg%mode)
     case (BLHA_MODE_GOSAM)
        write (u, '(A25)', advance='no') "MassiveParticles " // pad
        do i = 1, size (OLP_MASSIVE_PARTICLES)
           if (OLP_MASSIVE_PARTICLES(i) > 0) &
                write (u, '(I2,1X)', advance='no') OLP_MASSIVE_PARTICLES(i)
        end do
        write (u,*)
     case (BLHA_MODE_OPENLOOPS)
        if (cfg%openloops_use_cms) then
           write (u, '(A25,I1)') "extra use_cms " // pad, 1
        else
           write (u, '(A25,I1)') "extra use_cms " // pad, 0
        end if
        write (u, '(A25,I1)') "extra me_cache " // pad, 0
        !!! Turn off calculation of 1/eps & 1/eps^2 poles in one-loop calculation
        !!! Not needed in FKS (or any numerical NLO subtraction scheme)
        write (u, '(A25,I1)') "extra IR_on " // pad, 0
        if (cfg%openloops_phs_tolerance > 0) then
           write (u, '(A25,A4,I0)') "extra psp_tolerance " // pad, "10e-", &
                cfg%openloops_phs_tolerance
        end if
        call check_extra_cmd (cfg%openloops_extra_cmd)
        write (u, '(A)') char (cfg%openloops_extra_cmd)
+       if (cfg%openloops_allowed_libs /= '') then
+          write (u, '(A25,A)') "extra allowed_libs" // pad, &
+               char (cfg%openloops_allowed_libs)
+       end if
        if (cfg%openloops_stability_log > 0) &
             write (u, '(A25,I1)') "extra stability_log " // pad, &
             cfg%openloops_stability_log
     end select
     if (full) then
        write (u, "(A)")
        write (u, "(A)") "# Process definitions"
        write (u, "(A)")
     end if
     if (cfg%debug_unstable) &
          write (u, '(A25,A)') "DebugUnstable " // pad, "True"
     write (u, *)
     node => cfg%processes
     do while (associated (node))
        write_process = .true.
        allocate (pdg_flv (size (node%pdg_in) + size (node%pdg_out)))
        do i = 1, size (node%pdg_in)
           pdg_flv (i) = node%pdg_in(i)%pdg
        end do
        do i = 1, size (node%pdg_out)
           pdg_flv (i + size (node%pdg_in)) = node%pdg_out(i)%pdg
        end do
        suffix_char = char (suffix)
        if (cfg%correction_type == BLHA_CT_EW .and. cfg%alphas_power > 0) then
           if ((suffix_char (1:5) == "_BORN" .and. .not. query_coupling_powers &
              (pdg_flv, cfg%alpha_power, cfg%alphas_power)) .or. &
              ((suffix_char (1:4) == "_SUB" .or. suffix_char (1:5) == "_LOOP" .or. &
              suffix_char (1:6) == "_DGLAP") .and. (.not. (query_coupling_powers &
              (pdg_flv, cfg%alpha_power, cfg%alphas_power) .or. query_coupling_powers &
              (pdg_flv, cfg%alpha_power + 1, cfg%alphas_power - 1)) .or. &
              all (is_gluon (pdg_flv))))) then
              deallocate (pdg_flv)
              node => node%next
              cycle
           end if
        end if
        select case (node%amplitude_type)
          case (BLHA_AMP_LOOP); buf = "Loop"
          case (BLHA_AMP_COLOR_C); buf = "ccTree"
          case (BLHA_AMP_SPIN_C)
             if (cfg%mode == BLHA_MODE_OPENLOOPS) then
                buf = "sctree_polvect"
             else
                buf = "scTree"
             end if
          case (BLHA_AMP_TREE); buf = "Tree"
          case (BLHA_AMP_LOOPINDUCED); buf = "LoopInduced"
        end select
        nlo3 = qcd_ew_interferences (pdg_flv) .and. &
              (node%amplitude_type == BLHA_AMP_COLOR_C .or. &
              node%amplitude_type == BLHA_AMP_SPIN_C) .and. &
              .not. query_coupling_powers (pdg_flv, cfg%alpha_power+2, cfg%alphas_power-2)
        if (write_process) then
           write (u, '(A25, A)') "AmplitudeType " // pad, char (buf)
           buf = ""
           if (cfg%correction_type == BLHA_CT_EW .and. cfg%alphas_power > 0 .and. &
              (suffix_char (1:4) == "_SUB" .or. suffix_char (1:5) == "_LOOP" &
              .or. suffix_char (1:6) == "_DGLAP")) then
              if (query_coupling_powers (pdg_flv, cfg%alpha_power, cfg%alphas_power) &
                 .and. .not. nlo3) then
                 write (u,'(A25,A)') "CorrectionType" // pad, "EW"
                 select case (cfg%version)
                    case (1)
                       if (cfg%alphas_power >= 0) write (u,'(A25,A)') &
                            "AlphasPower" // pad, int2char (cfg%alphas_power)
                       if (cfg%alpha_power >= 0) write (u,'(A25,A)') &
                            "AlphaPower " // pad, int2char (cfg%alpha_power)
                    case (2)
                       if (cfg%alphas_power >= 0) write (u,'(A25,A)') &
                            "CouplingPower QCD " // pad, int2char (cfg%alphas_power)
                       if (cfg%alpha_power >= 0) write (u, '(A25,A)') &
                            "CouplingPower QED " // pad, int2char (cfg%alpha_power)
                 end select
              else if (query_coupling_powers &
                   (pdg_flv, cfg%alpha_power + 1, cfg%alphas_power - 1)) then
                 write (u,'(A25,A)') "CorrectionType" // pad, "QCD"
                 select case (cfg%version)
                    case (1)
                       if (cfg%alphas_power >= 0) write (u,'(A25,A)') &
                            "AlphasPower" // pad, int2char (cfg%alphas_power - 1)
                       if (cfg%alpha_power >= 0) write (u,'(A25,A)') &
                            "AlphaPower " // pad, int2char (cfg%alpha_power + 1)
                    case (2)
                       if (cfg%alphas_power >= 0) write (u,'(A25,A)') &
                            "CouplingPower QCD " // pad, int2char (cfg%alphas_power - 1)
                       if (cfg%alpha_power >= 0) write (u, '(A25,A)') &
                            "CouplingPower QED " // pad, int2char (cfg%alpha_power + 1)
                 end select
              end if
           end if
           do i = 1, size (node%pdg_in)
              if (cfg%correction_type == BLHA_CT_EW .and. node%pdg_in(i)%pdg == PHOTON &
                 .and. cfg%n_off_photons_is > 0) then
                 if (cfg%ew_scheme == BLHA_EW_0) then
                    call msg_fatal ("ew_scheme: 'alpha_0' or 'alpha_thompson' " &
                         // "in combination",  [ var_str ("with off-shell external photons " &
                         // "is not consistent with FKS.")])
                 end if
                 write (pdg_char_extra, '(I5)') PHOTON_OFFSHELL
                 buf = (buf // pdg_char_extra) // " "
              else
                 call node%pdg_in(i)%write_pdg (pdg_char)
                 if (node%pdg_in(i)%polarized) then
                    call node%pdg_in(i)%write_helicity (hel_char)
                    buf = (buf // pdg_char // hel_char) // " "
                 else
                    buf = (buf // pdg_char) // " "
                 end if
              end if
           end do
           buf = buf // "-> "
           do i = 1, size (node%pdg_out)
              if (cfg%correction_type == BLHA_CT_EW .and. node%pdg_out(i)%pdg == PHOTON &
                 .and. cfg%n_off_photons_fs > 0) then
                 if (cfg%ew_scheme == BLHA_EW_0) then
                    call msg_fatal ("ew_scheme: 'alpha_0' or 'alpha_thompson' " &
                         // "in combination with off-shell external photons " &
                         // "is not consistent with FKS. Try a different one.")
                 end if
                 write (pdg_char_extra, '(I5)') PHOTON_OFFSHELL
                 buf = (buf // pdg_char_extra) // " "
              else
                 call node%pdg_out(i)%write_pdg (pdg_char)
                 buf = (buf // pdg_char) // " "
              end if
           end do
           write (u, "(A)") char (trim (buf))
           write (u, *)
        end if
        deallocate (pdg_flv)
        node => node%next
     end do
   end subroutine blha_configuration_write
 
 @ %def blha_configuration_write
 @
 %%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
 \section{Module definition}
 
 These modules implement the communication with one loop matrix element providers
 according to the Binoth LesHouches Accord Interface. The actual matrix
 element(s) are loaded as a dynamic library.
 
 This module defines the common OLP-interfaces defined through the Binoth Les-Houches
 accord.
 
 <<[[blha_olp_interfaces.f90]]>>=
 <<File header>>
 
 module blha_olp_interfaces
 
   use, intrinsic :: iso_c_binding !NODEP!
   use, intrinsic :: iso_fortran_env
 
   use kinds
 <<Use strings>>
   use os_interface
   use lorentz
   use interactions
   use model_data
 
   use prclib_interfaces
   use process_libraries
   use prc_core_def
   use prc_core
   use prc_external
   use blha_config
 
 <<Standard module head>>
 
 <<BLHA OLP interfaces: public>>
 
 <<BLHA OLP interfaces: public parameters>>
 
 <<BLHA OLP interfaces: types>>
 
 <<BLHA OLP interfaces: interfaces>>
 
   interface
 <<BLHA OLP interfaces: sub interfaces>>
   end interface
 
 end module blha_olp_interfaces
 
 @ %def module blha_olp_interfaces
 @
 <<[[blha_olp_interfaces_sub.f90]]>>=
 <<File header>>
 
 submodule (blha_olp_interfaces) blha_olp_interfaces_s
 
 <<Use debug>>
   use constants
   use numeric_utils, only: vanishes
   use numeric_utils, only: extend_integer_array, crop_integer_array
   use io_units
   use string_utils
   use physics_defs
   use diagnostics
   use sm_qcd
   use flavors
   use pdg_arrays, only: is_gluon, is_quark, qcd_ew_interferences
 
   implicit none
 
 <<BLHA OLP interfaces: parameters>>
 
 contains
 
 <<BLHA OLP interfaces: procedures>>
 
 end submodule blha_olp_interfaces_s
 
 @ %def blha_olp_interfaces_s
 @
 <<BLHA OLP interfaces: public>>=
   public :: blha_template_t
 <<BLHA OLP interfaces: types>>=
   type :: blha_template_t
     integer :: I_BORN = 0
     integer :: I_REAL = 1
     integer :: I_LOOP = 2
     integer :: I_SUB = 3
     integer :: I_DGLAP = 4
     logical, dimension(0:4) :: compute_component
     logical :: include_polarizations = .false.
     logical :: switch_off_muon_yukawas = .false.
     logical :: use_internal_color_correlations = .true.
     real(default) :: external_top_yukawa = -1._default
     integer :: ew_scheme
     integer :: loop_method = BLHA_MODE_GENERIC
   contains
   <<BLHA OLP interfaces: blha template: TBP>>
   end type blha_template_t
 
 @ %def blha_template_t
 @
 <<BLHA OLP interfaces: blha template: TBP>>=
   procedure :: write => blha_template_write
 <<BLHA OLP interfaces: sub interfaces>>=
     module subroutine blha_template_write (blha_template, unit)
       class(blha_template_t), intent(in) :: blha_template
       integer, intent(in), optional :: unit
     end subroutine blha_template_write
 <<BLHA OLP interfaces: procedures>>=
   module subroutine blha_template_write (blha_template, unit)
     class(blha_template_t), intent(in) :: blha_template
     integer, intent(in), optional :: unit
     integer :: u
     u = given_output_unit (unit)
     write (u,"(A,4(L1))") "Compute components: ", &
          blha_template%compute_component
     write (u,"(A,L1)") "Include polarizations: ", &
          blha_template%include_polarizations
     write (u,"(A,L1)") "Switch off muon yukawas: ", &
          blha_template%switch_off_muon_yukawas
     write (u,"(A,L1)") "Use internal color correlations: ", &
          blha_template%use_internal_color_correlations
   end subroutine blha_template_write
 
 @ %def blha_template_write
 @ Compute the total number of used helicity states for the given particle PDG
 codes, given a model.  Applies only if polarization is supported.  This
 yields the [[n_hel]] value as required below.
 <<BLHA OLP interfaces: blha template: TBP>>=
   procedure :: get_n_hel => blha_template_get_n_hel
 <<BLHA OLP interfaces: sub interfaces>>=
     module function blha_template_get_n_hel (blha_template, pdg, model) result (n_hel)
       class(blha_template_t), intent(in) :: blha_template
       integer, dimension(:), intent(in) :: pdg
       class(model_data_t), intent(in), target :: model
       integer :: n_hel
     end function blha_template_get_n_hel
 <<BLHA OLP interfaces: procedures>>=
   module function blha_template_get_n_hel (blha_template, pdg, model) result (n_hel)
     class(blha_template_t), intent(in) :: blha_template
     integer, dimension(:), intent(in) :: pdg
     class(model_data_t), intent(in), target :: model
     integer :: n_hel
     type(flavor_t) :: flv
     integer :: f
     n_hel = 1
     if (blha_template%include_polarizations) then
        do f = 1, size (pdg)
           call flv%init (pdg(f), model)
           n_hel = n_hel * flv%get_multiplicity ()
        end do
     end if
   end function blha_template_get_n_hel
 
 @ %def blha_template_get_n_hel
 @
 <<BLHA OLP interfaces: parameters>>=
   integer, parameter :: I_ALPHA_0 = 1
   integer, parameter :: I_GF = 2
   integer, parameter :: I_ALPHA_MZ = 3
   integer, parameter :: I_ALPHA_INTERNAL = 4
   integer, parameter :: I_SW2 = 5
 
 <<BLHA OLP interfaces: public>>=
   public :: prc_blha_t
 <<BLHA OLP interfaces: types>>=
   type, abstract, extends (prc_external_t) :: prc_blha_t
     integer :: n_particles
     integer :: n_hel
     integer :: n_proc
     integer, dimension(:, :), allocatable :: i_tree, i_spin_c, i_color_c
     integer, dimension(:, :), allocatable :: i_virt
     integer, dimension(:, :), allocatable :: i_hel
     logical, dimension(5) :: ew_parameter_mask
     integer :: sqme_tree_pos
   contains
   <<BLHA OLP interfaces: prc blha: TBP>>
   end type prc_blha_t
 
 @ %def prc_blha_t
 @
 Obviously, this process-core type uses the BLHA interface.
 <<BLHA OLP interfaces: prc blha: TBP>>=
   procedure, nopass :: uses_blha => prc_blha_uses_blha
 <<BLHA OLP interfaces: sub interfaces>>=
     module function prc_blha_uses_blha () result (flag)
       logical :: flag
     end function prc_blha_uses_blha
 <<BLHA OLP interfaces: procedures>>=
   module function prc_blha_uses_blha () result (flag)
     logical :: flag
     flag = .true.
   end function prc_blha_uses_blha
 
 @ %def prc_blha_uses_blha
 @
 <<BLHA OLP interfaces: public>>=
   public :: blha_driver_t
 <<BLHA OLP interfaces: types>>=
   type, abstract, extends (prc_external_driver_t) :: blha_driver_t
     type(string_t) :: contract_file
     type(string_t) :: nlo_suffix
     logical :: include_polarizations = .false.
     logical :: switch_off_muon_yukawas = .false.
     real(default) :: external_top_yukawa = -1.0
     procedure(olp_start),nopass,  pointer :: &
          blha_olp_start => null ()
     procedure(olp_eval), nopass, pointer :: &
          blha_olp_eval => null()
     procedure(olp_info), nopass, pointer :: &
          blha_olp_info => null ()
     procedure(olp_set_parameter), nopass, pointer :: &
          blha_olp_set_parameter => null ()
     procedure(olp_eval2), nopass, pointer :: &
          blha_olp_eval2 => null ()
     procedure(olp_option), nopass, pointer :: &
          blha_olp_option => null ()
     procedure(olp_polvec), nopass, pointer :: &
          blha_olp_polvec => null ()
     procedure(olp_finalize), nopass, pointer :: &
          blha_olp_finalize => null ()
     procedure(olp_print_parameter), nopass, pointer :: &
          blha_olp_print_parameter => null ()
   contains
   <<BLHA OLP interfaces: blha driver: TBP>>
   end type blha_driver_t
 
 @
 @ %def blha_driver_t
 <<BLHA OLP interfaces: public>>=
   public :: prc_blha_writer_t
 <<BLHA OLP interfaces: types>>=
   type, abstract, extends (prc_external_writer_t) :: prc_blha_writer_t
     type(blha_configuration_t) :: blha_cfg
   contains
   <<BLHA OLP interfaces: blha writer: TBP>>
   end type prc_blha_writer_t
 
 @
 @ %def prc_blha_writer_t
 <<BLHA OLP interfaces: public>>=
   public :: blha_def_t
 <<BLHA OLP interfaces: types>>=
   type, abstract, extends (prc_external_def_t) :: blha_def_t
     type(string_t) :: suffix
   contains
   <<BLHA OLP interfaces: blha def: TBP>>
   end type blha_def_t
 
 @ %def blha_def_t
 @
 <<BLHA OLP interfaces: public>>=
   public :: blha_state_t
 <<BLHA OLP interfaces: types>>=
   type, abstract, extends (prc_external_state_t) :: blha_state_t
   contains
   <<BLHA OLP interfaces: blha state: TBP>>
   end type blha_state_t
 
 @ %def blha_state_t
 @
 <<BLHA OLP interfaces: blha state: TBP>>=
   procedure :: reset_new_kinematics => blha_state_reset_new_kinematics
 <<BLHA OLP interfaces: sub interfaces>>=
     module subroutine blha_state_reset_new_kinematics (object)
       class(blha_state_t), intent(inout) :: object
     end subroutine blha_state_reset_new_kinematics
 <<BLHA OLP interfaces: procedures>>=
   module subroutine blha_state_reset_new_kinematics (object)
     class(blha_state_t), intent(inout) :: object
     object%new_kinematics = .true.
   end subroutine blha_state_reset_new_kinematics
 
 @ %def blha_state_reset_new_kinematics
 @
 <<BLHA OLP interfaces: public parameters>>=
   integer, parameter, public :: OLP_PARAMETER_LIMIT = 10
   integer, parameter, public :: OLP_MOMENTUM_LIMIT = 50
   integer, parameter, public :: OLP_RESULTS_LIMIT = 60
 
 <<BLHA OLP interfaces: public>>=
   public :: olp_start
 <<BLHA OLP interfaces: interfaces>>=
   interface
     subroutine olp_start (contract_file_name, ierr) bind (C,name = "OLP_Start")
       import
       character(kind = c_char, len = 1), intent(in) :: contract_file_name
       integer(kind = c_int), intent(out) :: ierr
     end subroutine olp_start
   end interface
 
 @ %def olp_start_interface
 @
 <<BLHA OLP interfaces: public>>=
   public :: olp_eval
 <<BLHA OLP interfaces: interfaces>>=
   interface
     subroutine olp_eval (label, momenta, mu, parameters, res) &
            bind (C, name = "OLP_EvalSubProcess")
       import
       integer(kind = c_int), value, intent(in) :: label
       real(kind = c_double), value, intent(in) :: mu
       real(kind = c_double), dimension(OLP_MOMENTUM_LIMIT), intent(in) :: &
            momenta
       real(kind = c_double), dimension(OLP_PARAMETER_LIMIT), intent(in) :: &
            parameters
       real(kind = c_double), dimension(OLP_RESULTS_LIMIT), intent(out) :: res
     end subroutine olp_eval
   end interface
 
 @ %def olp_eval interface
 @
 <<BLHA OLP interfaces: public>>=
   public :: olp_info
 <<BLHA OLP interfaces: interfaces>>=
   interface
     subroutine olp_info (olp_file, olp_version, message) bind(C)
       import
       character(kind = c_char), intent(inout), dimension(15) :: olp_file
       character(kind = c_char), intent(inout), dimension(15) :: olp_version
       character(kind = c_char), intent(inout), dimension(255) :: message
     end subroutine olp_info
   end interface
 
 @ %def olp_info interface
 @
 <<BLHA OLP interfaces: public>>=
   public :: olp_set_parameter
 <<BLHA OLP interfaces: interfaces>>=
   interface
     subroutine olp_set_parameter &
            (variable_name, real_part, complex_part, success) bind(C)
       import
       character(kind = c_char,len = 1), intent(in) :: variable_name
       real(kind = c_double), intent(in) :: real_part, complex_part
       integer(kind = c_int), intent(out) :: success
     end subroutine olp_set_parameter
   end interface
 
 @ %def olp_set_parameter_interface
 @
 <<BLHA OLP interfaces: public>>=
   public :: olp_eval2
 <<BLHA OLP interfaces: interfaces>>=
   interface
     subroutine olp_eval2 (label, momenta, mu, res, acc) bind(C)
       import
       integer(kind = c_int), intent(in) :: label
       real(kind = c_double), intent(in) :: mu
       real(kind = c_double), dimension(OLP_MOMENTUM_LIMIT), intent(in) :: momenta
       real(kind = c_double), dimension(OLP_RESULTS_LIMIT), intent(out) :: res
       real(kind = c_double), intent(out) :: acc
     end subroutine olp_eval2
   end interface
 
 @ %def olp_eval2 interface
 @
 <<BLHA OLP interfaces: public>>=
   public :: olp_option
 <<BLHA OLP interfaces: interfaces>>=
   interface
     subroutine olp_option (line, stat) bind(C)
       import
       character(kind = c_char, len=1), intent(in) :: line
       integer(kind = c_int), intent(out) :: stat
     end subroutine
   end interface
 
 @ %def olp_option_interface
 @
 <<BLHA OLP interfaces: public>>=
   public :: olp_polvec
 <<BLHA OLP interfaces: interfaces>>=
   interface
     subroutine olp_polvec (p, q, eps) bind(C)
       import
       real(kind = c_double), dimension(0:3), intent(in) :: p, q
       real(kind = c_double), dimension(0:7), intent(out) :: eps
     end subroutine
   end interface
 
 @ %def olp_polvec_interface
 @
 <<BLHA OLP interfaces: public>>=
   public :: olp_finalize
 <<BLHA OLP interfaces: interfaces>>=
   interface
     subroutine olp_finalize () bind(C)
       import
     end subroutine olp_finalize
   end interface
 
 @ %def olp_finalize_interface
 @
 <<BLHA OLP interfaces: public>>=
   public :: olp_print_parameter
 <<BLHA OLP interfaces: interfaces>>=
   interface
     subroutine olp_print_parameter (filename) bind(C)
       import
       character(kind = c_char, len = 1), intent(in) :: filename
     end subroutine olp_print_parameter
   end interface
 
 @ %def olp_print_parameter_interface
 @
 <<BLHA OLP interfaces: public>>=
   public :: blha_result_array_size
 <<BLHA OLP interfaces: sub interfaces>>=
     pure module function blha_result_array_size &
          (n_part, amp_type) result (rsize)
       integer, intent(in) :: n_part, amp_type
       integer :: rsize
     end function blha_result_array_size
 <<BLHA OLP interfaces: procedures>>=
   pure module function blha_result_array_size &
        (n_part, amp_type) result (rsize)
     integer, intent(in) :: n_part, amp_type
     integer :: rsize
     select case (amp_type)
        case (BLHA_AMP_TREE)
           rsize = 1
        case (BLHA_AMP_LOOP)
           rsize = 4
        case (BLHA_AMP_COLOR_C)
           rsize = n_part * (n_part - 1) / 2
        case (BLHA_AMP_SPIN_C)
           rsize = 2 * n_part**2
        case default
           rsize = 0
      end select
   end function blha_result_array_size
 
 @ %def blha_result_array_size
 @
 <<BLHA OLP interfaces: prc blha: TBP>>=
   procedure :: create_momentum_array => prc_blha_create_momentum_array
 <<BLHA OLP interfaces: sub interfaces>>=
     module function prc_blha_create_momentum_array (object, p) result (mom)
       class(prc_blha_t), intent(in) :: object
       type(vector4_t), intent(in), dimension(:) :: p
       real(double), dimension(5*object%n_particles) :: mom
     end function prc_blha_create_momentum_array
 <<BLHA OLP interfaces: procedures>>=
   module function prc_blha_create_momentum_array (object, p) result (mom)
     class(prc_blha_t), intent(in) :: object
     type(vector4_t), intent(in), dimension(:) :: p
     real(double), dimension(5*object%n_particles) :: mom
     integer :: n, i, k
 
     n = size (p)
     if (n > 10) call msg_fatal ("Number of external particles exceeds" &
          // "size of BLHA-internal momentum array")
 
     mom = zero
     k = 1
     do i = 1, n
        mom(k : k + 3) = vector4_get_components (p(i))
        mom(k + 4) = invariant_mass (p(i))
        k = k + 5
     end do
   end function prc_blha_create_momentum_array
 
 @ %def prc_blha_create_momentum_array
 @
 <<BLHA OLP interfaces: blha template: TBP>>=
   procedure :: init => blha_template_init
 <<BLHA OLP interfaces: sub interfaces>>=
     module subroutine blha_template_init (template, requires_polarizations, &
            switch_off_muon_yukawas, external_top_yukawa, ew_scheme)
       class(blha_template_t), intent(inout) :: template
       logical, intent(in) :: requires_polarizations, switch_off_muon_yukawas
       real(default), intent(in) :: external_top_yukawa
       type(string_t), intent(in) :: ew_scheme
     end subroutine blha_template_init
 <<BLHA OLP interfaces: procedures>>=
   module subroutine blha_template_init (template, requires_polarizations, &
          switch_off_muon_yukawas, external_top_yukawa, ew_scheme)
     class(blha_template_t), intent(inout) :: template
     logical, intent(in) :: requires_polarizations, switch_off_muon_yukawas
     real(default), intent(in) :: external_top_yukawa
     type(string_t), intent(in) :: ew_scheme
     template%compute_component = .false.
     template%include_polarizations = requires_polarizations
     template%switch_off_muon_yukawas = switch_off_muon_yukawas
     template%external_top_yukawa = external_top_yukawa
     template%ew_scheme = ew_scheme_string_to_int (ew_scheme)
   end subroutine blha_template_init
 
 @ %def blha_template_init
 @
 <<BLHA OLP interfaces: blha template: TBP>>=
   procedure :: set_born => blha_template_set_born
   procedure :: set_real_trees => blha_template_set_real_trees
   procedure :: set_loop => blha_template_set_loop
   procedure :: set_subtraction => blha_template_set_subtraction
   procedure :: set_dglap => blha_template_set_dglap
 <<BLHA OLP interfaces: sub interfaces>>=
     module subroutine blha_template_set_born (template)
       class(blha_template_t), intent(inout) :: template
     end subroutine blha_template_set_born
     module subroutine blha_template_set_real_trees (template)
       class(blha_template_t), intent(inout) :: template
     end subroutine blha_template_set_real_trees
     module subroutine blha_template_set_loop (template)
       class(blha_template_t), intent(inout) :: template
     end subroutine blha_template_set_loop
     module subroutine blha_template_set_subtraction (template)
       class(blha_template_t), intent(inout) :: template
     end subroutine blha_template_set_subtraction
     module subroutine blha_template_set_dglap (template)
       class(blha_template_t), intent(inout) :: template
     end subroutine blha_template_set_dglap
 <<BLHA OLP interfaces: procedures>>=
   module subroutine blha_template_set_born (template)
     class(blha_template_t), intent(inout) :: template
     template%compute_component (template%I_BORN) = .true.
   end subroutine blha_template_set_born
 
   module subroutine blha_template_set_real_trees (template)
     class(blha_template_t), intent(inout) :: template
     template%compute_component (template%I_REAL) = .true.
   end subroutine blha_template_set_real_trees
 
   module subroutine blha_template_set_loop (template)
     class(blha_template_t), intent(inout) :: template
     template%compute_component(template%I_LOOP) = .true.
   end subroutine blha_template_set_loop
 
   module subroutine blha_template_set_subtraction (template)
     class(blha_template_t), intent(inout) :: template
     template%compute_component (template%I_SUB) = .true.
   end subroutine blha_template_set_subtraction
 
   module subroutine blha_template_set_dglap (template)
     class(blha_template_t), intent(inout) :: template
     template%compute_component (template%I_DGLAP) = .true.
   end subroutine blha_template_set_dglap
 
 @ %def blha_template_set_components
 @
 <<BLHA OLP interfaces: blha template: TBP>>=
   procedure :: set_internal_color_correlations &
        => blha_template_set_internal_color_correlations
 <<BLHA OLP interfaces: sub interfaces>>=
     module subroutine blha_template_set_internal_color_correlations (template)
       class(blha_template_t), intent(inout) :: template
     end subroutine blha_template_set_internal_color_correlations
 <<BLHA OLP interfaces: procedures>>=
   module subroutine blha_template_set_internal_color_correlations (template)
     class(blha_template_t), intent(inout) :: template
     template%use_internal_color_correlations = .true.
   end subroutine blha_template_set_internal_color_correlations
 
 @ %def blha_template_set_internal_color_correlations
 @
 <<BLHA OLP interfaces: blha template: TBP>>=
   procedure :: get_internal_color_correlations &
        => blha_template_get_internal_color_correlations
 <<BLHA OLP interfaces: sub interfaces>>=
     pure module function blha_template_get_internal_color_correlations &
          (template) result (val)
       logical :: val
       class(blha_template_t), intent(in) :: template
     end function blha_template_get_internal_color_correlations
 <<BLHA OLP interfaces: procedures>>=
   pure module function blha_template_get_internal_color_correlations &
        (template) result (val)
     logical :: val
     class(blha_template_t), intent(in) :: template
     val = template%use_internal_color_correlations
   end function blha_template_get_internal_color_correlations
 
 @ %def blha_template_use_internal_color_correlations
 @
 <<BLHA OLP interfaces: blha template: TBP>>=
   procedure :: compute_born => blha_template_compute_born
   procedure :: compute_real_trees => blha_template_compute_real_trees
   procedure :: compute_loop => blha_template_compute_loop
   procedure :: compute_subtraction => blha_template_compute_subtraction
   procedure :: compute_dglap => blha_template_compute_dglap
 <<BLHA OLP interfaces: sub interfaces>>=
     pure module function blha_template_compute_born (template) result (val)
       class(blha_template_t), intent(in) :: template
       logical :: val
     end function blha_template_compute_born
     pure module function blha_template_compute_real_trees (template) result (val)
       class(blha_template_t), intent(in) :: template
       logical :: val
     end function blha_template_compute_real_trees
     pure module function blha_template_compute_loop (template) result (val)
       class(blha_template_t), intent(in) :: template
       logical :: val
     end function blha_template_compute_loop
     pure module function blha_template_compute_subtraction (template) result (val)
       class(blha_template_t), intent(in) :: template
       logical :: val
     end function blha_template_compute_subtraction
     pure module function blha_template_compute_dglap (template) result (val)
       class(blha_template_t), intent(in) :: template
       logical :: val
     end function blha_template_compute_dglap
 <<BLHA OLP interfaces: procedures>>=
   pure module function blha_template_compute_born (template) result (val)
     class(blha_template_t), intent(in) :: template
     logical :: val
     val = template%compute_component (template%I_BORN)
   end function blha_template_compute_born
 
   pure module function blha_template_compute_real_trees (template) result (val)
     class(blha_template_t), intent(in) :: template
     logical :: val
     val = template%compute_component (template%I_REAL)
   end function blha_template_compute_real_trees
 
   pure module function blha_template_compute_loop (template) result (val)
     class(blha_template_t), intent(in) :: template
     logical :: val
     val = template%compute_component (template%I_LOOP)
   end function blha_template_compute_loop
 
   pure module function blha_template_compute_subtraction (template) result (val)
     class(blha_template_t), intent(in) :: template
     logical :: val
     val = template%compute_component (template%I_SUB)
   end function blha_template_compute_subtraction
 
   pure module function blha_template_compute_dglap (template) result (val)
     class(blha_template_t), intent(in) :: template
     logical :: val
     val = template%compute_component (template%I_DGLAP)
   end function blha_template_compute_dglap
 
 @ %def blha_template_compute
 @
 <<BLHA OLP interfaces: blha template: TBP>>=
   procedure :: set_loop_method => blha_template_set_loop_method
 <<BLHA OLP interfaces: sub interfaces>>=
     module subroutine blha_template_set_loop_method (template, master)
       class(blha_template_t), intent(inout) :: template
       class(blha_master_t), intent(in) :: master
     end subroutine blha_template_set_loop_method
 <<BLHA OLP interfaces: procedures>>=
   module subroutine blha_template_set_loop_method (template, master)
     class(blha_template_t), intent(inout) :: template
     class(blha_master_t), intent(in) :: master
     template%loop_method = master%blha_mode(1)
   end subroutine blha_template_set_loop_method
 @ %def blha_template_set_loop_method
 @
 <<BLHA OLP interfaces: blha template: TBP>>=
   procedure :: check => blha_template_check
 <<BLHA OLP interfaces: sub interfaces>>=
     module function blha_template_check (template) result (val)
       class(blha_template_t), intent(in) :: template
       logical :: val
     end function blha_template_check
 <<BLHA OLP interfaces: procedures>>=
   module function blha_template_check (template) result (val)
     class(blha_template_t), intent(in) :: template
     logical :: val
     val = count (template%compute_component) == 1
   end function blha_template_check
 
 @ %def blha_template_check
 @
 <<BLHA OLP interfaces: blha template: TBP>>=
   procedure :: reset => blha_template_reset
 <<BLHA OLP interfaces: sub interfaces>>=
     module subroutine blha_template_reset (template)
       class(blha_template_t), intent(inout) :: template
     end subroutine blha_template_reset
 <<BLHA OLP interfaces: procedures>>=
   module subroutine blha_template_reset (template)
     class(blha_template_t), intent(inout) :: template
     template%compute_component = .false.
   end subroutine blha_template_reset
 
 @ %def blha_template_reset
 @
 <<BLHA OLP interfaces: blha writer: TBP>>=
   procedure :: write => prc_blha_writer_write
 <<BLHA OLP interfaces: sub interfaces>>=
     module subroutine prc_blha_writer_write (writer, unit)
       class(prc_blha_writer_t), intent(in) :: writer
       integer, intent(in) :: unit
     end subroutine prc_blha_writer_write
 <<BLHA OLP interfaces: procedures>>=
   module subroutine prc_blha_writer_write (writer, unit)
     class(prc_blha_writer_t), intent(in) :: writer
     integer, intent(in) :: unit
     write (unit, "(1x,A)")  char (writer%get_process_string ())
   end subroutine prc_blha_writer_write
 
 @
 @ %def prc_blha_writer_write
 <<BLHA OLP interfaces: blha writer: TBP>>=
   procedure :: get_process_string => prc_blha_writer_get_process_string
 <<BLHA OLP interfaces: sub interfaces>>=
     module function prc_blha_writer_get_process_string (writer) result (s_proc)
       class(prc_blha_writer_t), intent(in) :: writer
       type(string_t) :: s_proc
     end function prc_blha_writer_get_process_string
 <<BLHA OLP interfaces: procedures>>=
   module function prc_blha_writer_get_process_string (writer) result (s_proc)
     class(prc_blha_writer_t), intent(in) :: writer
     type(string_t) :: s_proc
     s_proc = var_str ("")
   end function prc_blha_writer_get_process_string
 
 @ %def prc_blha_writer_get_process_string
 @
 <<BLHA OLP interfaces: blha writer: TBP>>=
   procedure :: get_n_proc => prc_blha_writer_get_n_proc
 <<BLHA OLP interfaces: sub interfaces>>=
     module function prc_blha_writer_get_n_proc (writer) result (n_proc)
       class(prc_blha_writer_t), intent(in) :: writer
       integer :: n_proc
     end function prc_blha_writer_get_n_proc
 <<BLHA OLP interfaces: procedures>>=
   module function prc_blha_writer_get_n_proc (writer) result (n_proc)
     class(prc_blha_writer_t), intent(in) :: writer
     integer :: n_proc
     n_proc = blha_configuration_get_n_proc (writer%blha_cfg)
   end function prc_blha_writer_get_n_proc
 
 @ %def prc_blha_writer_get_n_proc
 @
 <<BLHA OLP interfaces: blha driver: TBP>>=
   procedure(blha_driver_set_GF), deferred :: &
        set_GF
 <<BLHA OLP interfaces: interfaces>>=
   abstract interface
     subroutine blha_driver_set_GF (driver, GF)
       import
       class(blha_driver_t), intent(inout) :: driver
       real(default), intent(in) :: GF
     end subroutine blha_driver_set_GF
   end interface
 
 @ %def blha_driver_set_GF
 @
 <<BLHA OLP interfaces: blha driver: TBP>>=
   procedure(blha_driver_set_alpha_s), deferred :: &
        set_alpha_s
 <<BLHA OLP interfaces: interfaces>>=
   abstract interface
     subroutine blha_driver_set_alpha_s (driver, alpha_s)
        import
        class(blha_driver_t), intent(in) :: driver
        real(default), intent(in) :: alpha_s
     end subroutine blha_driver_set_alpha_s
   end interface
 
 @ %def set_alpha_s interface
 @
 <<BLHA OLP interfaces: blha driver: TBP>>=
   procedure(blha_driver_set_weinberg_angle), deferred :: &
        set_weinberg_angle
 <<BLHA OLP interfaces: interfaces>>=
   abstract interface
     subroutine blha_driver_set_weinberg_angle (driver, sw2)
       import
       class(blha_driver_t), intent(inout) :: driver
       real(default), intent(in) :: sw2
     end subroutine blha_driver_set_weinberg_angle
   end interface
 
 @ %def blha_driver_set_weinberg_angle
 @
 <<BLHA OLP interfaces: blha driver: TBP>>=
   procedure(blha_driver_set_alpha_qed), deferred :: set_alpha_qed
 <<BLHA OLP interfaces: interfaces>>=
   abstract interface
     subroutine blha_driver_set_alpha_qed (driver, alpha)
       import
       class(blha_driver_t), intent(inout) :: driver
       real(default), intent(in) :: alpha
     end subroutine blha_driver_set_alpha_qed
   end interface
 
 @ %def blha_driver_set_alpha_qed
 @
 <<BLHA OLP interfaces: blha driver: TBP>>=
   procedure(blha_driver_print_alpha_s), deferred :: &
        print_alpha_s
 <<BLHA OLP interfaces: interfaces>>=
   abstract interface
     subroutine blha_driver_print_alpha_s (object)
       import
       class(blha_driver_t), intent(in) :: object
     end subroutine blha_driver_print_alpha_s
   end interface
 
 @ %def print_alpha_s interface
 @
 <<BLHA OLP interfaces: public>>=
   public :: parameter_error_message
 <<BLHA OLP interfaces: sub interfaces>>=
     module subroutine parameter_error_message (par, subr)
       type(string_t), intent(in) :: par, subr
     end subroutine parameter_error_message
 <<BLHA OLP interfaces: procedures>>=
   module subroutine parameter_error_message (par, subr)
     type(string_t), intent(in) :: par, subr
     type(string_t) :: message
     message = "Setting of parameter " // par &
          // "failed in " // subr // "!"
     call msg_fatal (char (message))
   end subroutine parameter_error_message
 
 @ %def parameter_error_message
 @
 <<BLHA OLP interfaces: public>>=
   public :: ew_parameter_error_message
 <<BLHA OLP interfaces: sub interfaces>>=
     module subroutine ew_parameter_error_message (par)
       type(string_t), intent(in) :: par
     end subroutine ew_parameter_error_message
 <<BLHA OLP interfaces: procedures>>=
   module subroutine ew_parameter_error_message (par)
     type(string_t), intent(in) :: par
     type(string_t) :: message
     message = "Setting of parameter " // par &
          // "failed. This happens because the chosen " &
          // "EWScheme in the BLHA file does not fit " &
          // "your parameter choice"
     call msg_fatal (char (message))
   end subroutine ew_parameter_error_message
 
 @ %def ew_parameter_error_message
 @
 <<BLHA OLP interfaces: blha driver: TBP>>=
   procedure :: set_mass_and_width => blha_driver_set_mass_and_width
 <<BLHA OLP interfaces: sub interfaces>>=
     module subroutine blha_driver_set_mass_and_width &
          (driver, i_pdg, mass, width)
       class(blha_driver_t), intent(inout) :: driver
       integer, intent(in) :: i_pdg
       real(default), intent(in), optional :: mass
       real(default), intent(in), optional :: width
     end subroutine blha_driver_set_mass_and_width
 <<BLHA OLP interfaces: procedures>>=
   module subroutine blha_driver_set_mass_and_width &
        (driver, i_pdg, mass, width)
     class(blha_driver_t), intent(inout) :: driver
     integer, intent(in) :: i_pdg
     real(default), intent(in), optional :: mass
     real(default), intent(in), optional :: width
     type(string_t) :: buf
     character(kind=c_char,len=20) :: c_string
     integer :: ierr
     if (present (mass)) then
        buf = 'mass(' // str (abs(i_pdg)) // ')'
        c_string = char(buf) // c_null_char
        call driver%blha_olp_set_parameter &
             (c_string, dble(mass), 0._double, ierr)
        if (ierr == 0) then
           buf = "BLHA driver: Attempt to set mass of particle " // &
                str (abs(i_pdg)) // "failed"
           call msg_fatal (char(buf))
        end if
     end if
     if (present (width)) then
        buf = 'width(' // str (abs(i_pdg)) // ')'
        c_string = char(buf)//c_null_char
        call driver%blha_olp_set_parameter &
             (c_string, dble(width), 0._double, ierr)
        if (ierr == 0) then
           buf = "BLHA driver: Attempt to set width of particle " // &
                str (abs(i_pdg)) // "failed"
           call msg_fatal (char(buf))
        end if
     end if
   end subroutine blha_driver_set_mass_and_width
 
 @ %def blha_driver_set_mass_and_width
 @
 <<BLHA OLP interfaces: blha driver: TBP>>=
   procedure(blha_driver_init_dlaccess_to_library), deferred :: &
        init_dlaccess_to_library
 <<BLHA OLP interfaces: interfaces>>=
   abstract interface
     subroutine blha_driver_init_dlaccess_to_library &
            (object, os_data, dlaccess, success)
       import
       class(blha_driver_t), intent(in) :: object
       type(os_data_t), intent(in) :: os_data
       type(dlaccess_t), intent(out) :: dlaccess
       logical, intent(out) :: success
     end subroutine blha_driver_init_dlaccess_to_library
   end interface
 
 @ %def interface blha_driver_init_dlaccess_to_library
 @
 <<BLHA OLP interfaces: blha driver: TBP>>=
   procedure :: load => blha_driver_load
 <<BLHA OLP interfaces: sub interfaces>>=
     module subroutine blha_driver_load (object, os_data, success)
       class(blha_driver_t), intent(inout) :: object
       type(os_data_t), intent(in) :: os_data
       logical, intent(out) :: success
     end subroutine blha_driver_load
 <<BLHA OLP interfaces: procedures>>=
   module subroutine blha_driver_load (object, os_data, success)
     class(blha_driver_t), intent(inout) :: object
     type(os_data_t), intent(in) :: os_data
     logical, intent(out) :: success
     type(dlaccess_t) :: dlaccess
     type(c_funptr) :: c_fptr
     logical :: init_success
 
     call object%init_dlaccess_to_library (os_data, dlaccess, init_success)
 
     c_fptr = dlaccess_get_c_funptr (dlaccess, var_str ("OLP_Start"))
     call c_f_procpointer (c_fptr, object%blha_olp_start)
     call check_for_error (var_str ("OLP_Start"))
 
     c_fptr = dlaccess_get_c_funptr (dlaccess, var_str ("OLP_EvalSubProcess"))
     call c_f_procpointer (c_fptr, object%blha_olp_eval)
     call check_for_error (var_str ("OLP_EvalSubProcess"))
 
     c_fptr = dlaccess_get_c_funptr (dlaccess, var_str ("OLP_Info"))
     call c_f_procpointer (c_fptr, object%blha_olp_info)
     call check_for_error (var_str ("OLP_Info"))
 
     c_fptr = dlaccess_get_c_funptr (dlaccess, var_str ("OLP_SetParameter"))
     call c_f_procpointer (c_fptr, object%blha_olp_set_parameter)
     call check_for_error (var_str ("OLP_SetParameter"))
 
     c_fptr = dlaccess_get_c_funptr (dlaccess, var_str ("OLP_EvalSubProcess2"))
     call c_f_procpointer (c_fptr, object%blha_olp_eval2)
     call check_for_error (var_str ("OLP_EvalSubProcess2"))
 
     !!! The following three functions are not implemented in OpenLoops.
     !!! In another BLHA provider, they need to be implemented separately.
 
     !!! c_fptr = dlaccess_get_c_funptr (dlaccess, var_str ("OLP_Option"))
     !!! call c_f_procpointer (c_fptr, object%blha_olp_option)
     !!! call check_for_error (var_str ("OLP_Option"))
 
     !!! c_fptr = dlaccess_get_c_funptr (dlaccess, var_str ("OLP_Polvec"))
     !!! call c_f_procpointer (c_fptr, object%blha_olp_polvec)
     !!! call check_for_error (var_str ("OLP_Polvec"))
 
     !!! c_fptr = dlaccess_get_c_funptr (dlaccess, var_str ("OLP_Finalize"))
     !!! call c_f_procpointer (c_fptr, object%blha_olp_finalize)
     !!! call check_for_error (var_str ("OLP_Finalize"))
 
     c_fptr = dlaccess_get_c_funptr (dlaccess, var_str ("OLP_PrintParameter"))
     call c_f_procpointer (c_fptr, object%blha_olp_print_parameter)
     call check_for_error (var_str ("OLP_PrintParameter"))
 
     success = .true.
     contains
       subroutine check_for_error (function_name)
         type(string_t), intent(in) :: function_name
         if (dlaccess_has_error (dlaccess)) &
              call msg_fatal (char ("Loading of " // function_name // " failed!"))
      end subroutine check_for_error
   end subroutine blha_driver_load
 
 @ %def blha_driver_load
 @
 <<BLHA OLP interfaces: parameters>>=
   integer, parameter :: LEN_MAX_FLAVOR_STRING = 100
   integer, parameter :: N_MAX_FLAVORS = 100
 <<BLHA OLP interfaces: blha driver: TBP>>=
   procedure :: read_contract_file => blha_driver_read_contract_file
 <<BLHA OLP interfaces: sub interfaces>>=
     module subroutine blha_driver_read_contract_file (driver, flavors, &
          amp_type, flv_index, hel_index, label, helicities)
       class(blha_driver_t), intent(inout) :: driver
       integer, intent(in), dimension(:,:) :: flavors
       integer, intent(out), dimension(:), allocatable :: amp_type, &
            flv_index, hel_index, label
       integer, intent(out), dimension(:,:) :: helicities
     end subroutine blha_driver_read_contract_file
 <<BLHA OLP interfaces: procedures>>=
   module subroutine blha_driver_read_contract_file (driver, flavors, &
        amp_type, flv_index, hel_index, label, helicities)
     class(blha_driver_t), intent(inout) :: driver
     integer, intent(in), dimension(:,:) :: flavors
     integer, intent(out), dimension(:), allocatable :: amp_type, &
          flv_index, hel_index, label
     integer, intent(out), dimension(:,:) :: helicities
     integer :: unit, filestat
     character(len=LEN_MAX_FLAVOR_STRING) :: rd_line
     logical :: read_flavor, give_warning
     integer :: label_count, i_flv, i
     integer :: i_hel, n_in
     integer :: i_next, n_entries
     integer, dimension(size(flavors, 1) + 2) :: i_array
     integer, dimension(size(flavors, 1) + 2) :: hel_array
     integer, dimension(size(flavors, 1)) :: flv_array
     integer, parameter :: NO_NUMBER = -1000
     integer, parameter :: PROC_NOT_FOUND = -1001
     integer, parameter :: list_incr = 50
     integer :: n_found
     allocate (amp_type (N_MAX_FLAVORS), flv_index (N_MAX_FLAVORS), &
          hel_index (N_MAX_FLAVORS), label (N_MAX_FLAVORS))
     amp_type = -1; flv_index = -1; hel_index = -1; label = -1
     helicities = 0
     n_in = size (helicities, dim = 2)
     n_entries = size (flavors, 1) + 2
     unit = free_unit ()
     open (unit, file = char (driver%contract_file), status="old")
     read_flavor = .false.
     label_count = 1
     i_hel = 1
     n_found = 0
     give_warning = .false.
     do
       read (unit, "(A)", iostat = filestat) rd_line
       if (filestat == iostat_end) then
          exit
       else
          if (rd_line(1:13) == 'AmplitudeType') then
             if (i_hel > 2 * n_in) i_hel = 1
             i_next = find_next_word_index (rd_line, 13)
             if (label_count > size (amp_type)) &
                  call extend_integer_array (amp_type, list_incr)
             if (rd_line(i_next : i_next + 4) == 'Loop') then
                amp_type(label_count) = BLHA_AMP_LOOP
             else if (rd_line(i_next : i_next + 4) == 'Tree') then
                amp_type(label_count) = BLHA_AMP_TREE
             else if (rd_line(i_next : i_next + 6) == 'ccTree') then
                amp_type(label_count) = BLHA_AMP_COLOR_C
             else if (rd_line(i_next : i_next + 6) == 'scTree' .or. &
                  rd_line(i_next : i_next + 14) == 'sctree_polvect') then
                amp_type(label_count) = BLHA_AMP_SPIN_C
             else
                call msg_fatal ("AmplitudeType present but AmpType not known!")
             end if
             read_flavor = .true.
          else if (read_flavor .and. .not. (rd_line(1:13) == 'CouplingPower' &
               .or. rd_line(1:14) == 'CorrectionType')) then
             i_array = create_flavor_string (rd_line, n_entries)
             if (driver%include_polarizations) then
                hel_array = create_helicity_string (rd_line, n_entries)
                call check_helicity_array (hel_array, n_entries, n_in)
             else
                hel_array = 0
             end if
             if (.not. all (i_array == PROC_NOT_FOUND)) then
                do i_flv = 1, size (flavors, 2)
                   flv_array = 0
                   do i = 1, size (flv_array)
                      if (i_array (i) == PHOTON_OFFSHELL .and. &
                           flavors (i, i_flv) == PHOTON) then
                         flv_array (i) = i_array (i)
                      else
                         flv_array (i) = flavors (i, i_flv)
                      end if
                   end do
                   if (all (i_array (1 : n_entries - 2) == flv_array (:))) then
                      if (label_count > size (label)) &
                           call extend_integer_array (label, list_incr)
                      label(label_count) = i_array (n_entries)
                      if (label_count > size (flv_index)) &
                           call extend_integer_array (flv_index, list_incr)
                      flv_index (label_count) = i_flv
                      if (label_count > size (hel_index)) &
                           call extend_integer_array (hel_index, list_incr)
                      hel_index (label_count) = i_hel
                      if (driver%include_polarizations) then
                         helicities (label(label_count), :) = hel_array (1:n_in)
                         i_hel = i_hel + 1
                      end if
                      n_found = n_found + 1
                      label_count = label_count + 1
                      exit
                   end if
                end do
                give_warning = .false.
             else
                give_warning = .true.
             end if
             read_flavor = .false.
          end if
       end if
     end do
     call crop_integer_array (amp_type, label_count-1)
     if (n_found == 0) then
        call msg_fatal ("The desired process has not been found ",  &
             [var_str ("by the OLP-Provider. Maybe the value of alpha_power "), &
             var_str ("or alphas_power does not correspond to the process. "), &
             var_str ("If you are using OpenLoops, you can set the option "), &
             var_str ("openloops_verbosity to a value larger than 1 to obtain "),  &
             var_str ("more information")])
     else if (give_warning) then
        call msg_warning ("Some processes have not been found in the OLC file.", &
             [var_str ("This is because these processes do not fit the required "), &
             var_str ("coupling alpha_power and alphas_power. Be aware that the "), &
             var_str ("results of this calculation are not necessarily an accurate "), &
             var_str ("description of the physics of interest.")])
     end if
     close(unit)
 
   contains
 
     function create_flavor_string (s, n_entries) result (i_array)
       character(len=LEN_MAX_FLAVOR_STRING), intent(in) :: s
       integer, intent(in) :: n_entries
       integer, dimension(n_entries) :: i_array
       integer :: k, current_position
       integer :: i_entry
       k = 1; current_position = 1
       do
          if (current_position > LEN_MAX_FLAVOR_STRING) &
               call msg_fatal ("Read OLC File: Current position exceeds maximum value")
          if (s(current_position:current_position) /= " ") then
             call create_flavor (s, i_entry, current_position)
             if (i_entry /= NO_NUMBER .and. i_entry /= PROC_NOT_FOUND) then
                i_array(k) = i_entry
                k = k + 1
                if (k > n_entries) then
                   return
                else
                   call increment_current_position (s, current_position)
                end if
             else if (i_entry == PROC_NOT_FOUND) then
                i_array = PROC_NOT_FOUND
                return
             else
                call increment_current_position (s, current_position)
             end if
          else
             call increment_current_position (s, current_position)
          end if
       end do
     end function create_flavor_string
 
     function create_helicity_string (s, n_entries) result (hel_array)
       character(len = LEN_MAX_FLAVOR_STRING), intent(in) :: s
       integer, intent(in) :: n_entries
       integer, dimension(n_entries) :: hel_array
       integer :: k, current_position
       integer :: hel
       k = 1; current_position = 1
       do
          if (current_position > LEN_MAX_FLAVOR_STRING) &
               call msg_fatal ("Read OLC File: Current position exceeds maximum value")
          if (s(current_position:current_position) /= " ") then
             call create_helicity (s, hel, current_position)
             if (hel >= -1 .and. hel <= 1) then
                hel_array(k) = hel
                k = k + 1
                if (k > n_entries) then
                   return
                else
                   call increment_current_position (s, current_position)
                end if
             else
                call increment_current_position (s, current_position)
             end if
          else
             call increment_current_position (s, current_position)
          end if
       end do
     end function create_helicity_string
 
     subroutine increment_current_position (s, current_position)
       character(len = LEN_MAX_FLAVOR_STRING), intent(in) :: s
       integer, intent(inout) :: current_position
       current_position = find_next_word_index (s, current_position)
     end subroutine increment_current_position
 
     subroutine get_next_buffer (s, current_position, buf, last_buffer_index)
       character(len = LEN_MAX_FLAVOR_STRING), intent(in) :: s
       integer, intent(inout) :: current_position
       character(len = 10), intent(out) :: buf
       integer, intent(out) :: last_buffer_index
       integer :: i
       i = 1; buf = ""
       do
          if (s(current_position:current_position) /= " ") then
             buf(i:i) = s(current_position:current_position)
             i = i + 1; current_position = current_position + 1
          else
             exit
          end if
       end do
       last_buffer_index = i
     end subroutine get_next_buffer
 
     function is_particle_buffer (buf, i) result (valid)
       logical :: valid
       character(len = 10), intent(in) :: buf
       integer, intent(in) :: i
       valid = (buf(1 : i - 1) /= "->" .and. buf(1 : i - 1) /= "|" &
            .and. buf(1 : i - 1) /= "Process")
     end function is_particle_buffer
 
     subroutine create_flavor (s, i_particle, current_position)
       character(len=LEN_MAX_FLAVOR_STRING), intent(in) :: s
       integer, intent(out) :: i_particle
       integer, intent(inout) :: current_position
       character(len=10) :: buf
       integer :: i, last_buffer_index
       call get_next_buffer (s, current_position, buf, last_buffer_index)
       i = last_buffer_index
       if (is_particle_buffer (buf, i)) then
          call strip_helicity (buf, i)
          i_particle = read_ival (var_str (buf(1 : i - 1)))
       else if (buf(1 : i - 1) == "Process") then
          i_particle = PROC_NOT_FOUND
       else
          i_particle = NO_NUMBER
       end if
     end subroutine create_flavor
 
     subroutine create_helicity (s, helicity, current_position)
       character(len = LEN_MAX_FLAVOR_STRING), intent(in) :: s
       integer, intent(out) :: helicity
       integer, intent(inout) :: current_position
       character(len = 10) :: buf
       integer :: i, last_buffer_index
       logical :: success
       call get_next_buffer (s, current_position, buf, last_buffer_index)
       i = last_buffer_index
       if (is_particle_buffer (buf, i)) then
          call strip_flavor (buf, i, helicity, success)
       else
          helicity = 0
       end if
     end subroutine create_helicity
 
     subroutine strip_helicity (buf, i)
       character(len = 10), intent(in) :: buf
       integer, intent(inout) :: i
       integer :: i_last
       i_last = i - 1
       if (i_last < 4) return
       if (buf(i_last - 2 : i_last) == "(1)") then
          i = i - 3
       else if (buf(i_last - 3 : i_last) == "(-1)") then
          i = i - 4
       end if
     end subroutine strip_helicity
 
     subroutine strip_flavor (buf, i, helicity, success)
       character(len = 10), intent(in) :: buf
       integer, intent(in) :: i
       integer, intent(out) :: helicity
       logical, intent(out) :: success
       integer :: i_last
       i_last = i - 1
       helicity = 0
       if (i_last < 4) return
       if (buf(i_last - 2 : i_last) == "(1)") then
          helicity = 1
          success = .true.
       else if (buf(i_last - 3 : i_last) == "(-1)") then
          helicity = -1
          success = .true.
       else
          success = .false.
       end if
     end subroutine strip_flavor
 
     function find_next_word_index (word, i_start) result (i_next)
       character(len = LEN_MAX_FLAVOR_STRING), intent(in) :: word
       integer, intent(in) :: i_start
       integer :: i_next
       i_next = i_start + 1
       do
          if (word(i_next : i_next) /= " ") then
             exit
          else
             i_next = i_next + 1
          end if
          if (i_next > LEN_MAX_FLAVOR_STRING) &
               call msg_fatal ("Find next word: line limit exceeded")
       end do
     end function find_next_word_index
 
     subroutine check_helicity_array (hel_array, n_entries, n_in)
       integer, intent(in), dimension(:) :: hel_array
       integer, intent(in) :: n_entries, n_in
       integer :: n_particles, i
       logical :: valid
       n_particles = n_entries - 2
       !!! only allow polarisations for incoming fermions for now
       valid = all (hel_array (n_in + 1 : n_particles) == 0)
       do i = 1, n_in
          valid = valid .and. (hel_array(i) == 1 .or. hel_array(i) == -1)
       end do
       if (.not. valid) &
            call msg_fatal ("Invalid helicities encountered!")
     end subroutine check_helicity_array
 
   end subroutine blha_driver_read_contract_file
 
 @ %def blha_driver_read_contract_file
 @
 <<BLHA OLP interfaces: prc blha: TBP>>=
   procedure :: set_alpha_qed => prc_blha_set_alpha_qed
 <<BLHA OLP interfaces: sub interfaces>>=
     module subroutine prc_blha_set_alpha_qed (object, model)
       class(prc_blha_t), intent(inout) :: object
       type(model_data_t), intent(in), target :: model
     end subroutine prc_blha_set_alpha_qed
 <<BLHA OLP interfaces: procedures>>=
   module subroutine prc_blha_set_alpha_qed (object, model)
     class(prc_blha_t), intent(inout) :: object
     type(model_data_t), intent(in), target :: model
     real(default) :: alpha
 
     alpha = one / model%get_real (var_str ('alpha_em_i'))
 
     select type (driver => object%driver)
     class is (blha_driver_t)
        call driver%set_alpha_qed (alpha)
     end select
   end subroutine prc_blha_set_alpha_qed
 
 @ %def prc_blha_set_alpha_qed
 @
 <<BLHA OLP interfaces: prc blha: TBP>>=
   procedure :: set_GF => prc_blha_set_GF
 <<BLHA OLP interfaces: sub interfaces>>=
     module subroutine prc_blha_set_GF (object, model)
       class(prc_blha_t), intent(inout) :: object
       type(model_data_t), intent(in), target :: model
     end subroutine prc_blha_set_GF
 <<BLHA OLP interfaces: procedures>>=
   module subroutine prc_blha_set_GF (object, model)
     class(prc_blha_t), intent(inout) :: object
     type(model_data_t), intent(in), target :: model
     real(default) :: GF
 
     GF = model%get_real (var_str ('GF'))
     select type (driver => object%driver)
     class is (blha_driver_t)
        call driver%set_GF (GF)
     end select
   end subroutine prc_blha_set_GF
 
 @ %def prc_blha_set_GF
 @
 <<BLHA OLP interfaces: prc blha: TBP>>=
   procedure :: set_weinberg_angle => prc_blha_set_weinberg_angle
 <<BLHA OLP interfaces: sub interfaces>>=
     module subroutine prc_blha_set_weinberg_angle (object, model)
       class(prc_blha_t), intent(inout) :: object
       type(model_data_t), intent(in), target :: model
     end subroutine prc_blha_set_weinberg_angle
 <<BLHA OLP interfaces: procedures>>=
   module subroutine prc_blha_set_weinberg_angle (object, model)
     class(prc_blha_t), intent(inout) :: object
     type(model_data_t), intent(in), target :: model
     real(default) :: sw2
 
     sw2 = model%get_real (var_str ('sw2'))
     select type (driver => object%driver)
     class is (blha_driver_t)
       call driver%set_weinberg_angle (sw2)
     end select
   end subroutine prc_blha_set_weinberg_angle
 
 @ %def prc_blha_set_weinberg_angle
 @
 <<BLHA OLP interfaces: prc blha: TBP>>=
   procedure :: set_electroweak_parameters => &
        prc_blha_set_electroweak_parameters
 <<BLHA OLP interfaces: sub interfaces>>=
     module subroutine prc_blha_set_electroweak_parameters (object, model)
       class(prc_blha_t), intent(inout) :: object
       type(model_data_t), intent(in), target :: model
     end subroutine prc_blha_set_electroweak_parameters
 <<BLHA OLP interfaces: procedures>>=
   module subroutine prc_blha_set_electroweak_parameters (object, model)
      class(prc_blha_t), intent(inout) :: object
      type(model_data_t), intent(in), target :: model
      if (count (object%ew_parameter_mask) == 0) then
         call msg_fatal ("Cannot decide EW parameter setting: No scheme set!")
      else if (count (object%ew_parameter_mask) > 1) then
         call msg_fatal ("Cannot decide EW parameter setting: More than one scheme set!")
      end if
      if (object%ew_parameter_mask (I_ALPHA_INTERNAL)) call object%set_alpha_qed (model)
      if (object%ew_parameter_mask (I_GF)) call object%set_GF (model)
      if (object%ew_parameter_mask (I_SW2)) call object%set_weinberg_angle (model)
   end subroutine prc_blha_set_electroweak_parameters
 
 @ %def prc_blha_set_electrweak_parameters
 @
 <<BLHA OLP interfaces: prc blha: TBP>>=
   procedure :: read_contract_file => prc_blha_read_contract_file
 <<BLHA OLP interfaces: sub interfaces>>=
     module subroutine prc_blha_read_contract_file (object, flavors)
       class(prc_blha_t), intent(inout) :: object
       integer, intent(in), dimension(:,:) :: flavors
     end subroutine prc_blha_read_contract_file
 <<BLHA OLP interfaces: procedures>>=
   module subroutine prc_blha_read_contract_file (object, flavors)
     class(prc_blha_t), intent(inout) :: object
     integer, intent(in), dimension(:,:) :: flavors
     integer, dimension(:), allocatable :: amp_type, flv_index, hel_index, label
     integer, dimension(:,:), allocatable :: helicities
     integer :: i_proc, i_hel
     allocate (helicities (N_MAX_FLAVORS, object%data%n_in))
     select type (driver => object%driver)
     class is (blha_driver_t)
        call driver%read_contract_file (flavors, amp_type, flv_index, &
             hel_index, label, helicities)
     end select
     object%n_proc = count (amp_type >= 0)
     do i_proc = 1, object%n_proc
        if (amp_type (i_proc) < 0) exit
        if (hel_index(i_proc) < 0 .and. object%includes_polarization ()) &
             call msg_bug ("Object includes polarization, but helicity index is undefined.")
        i_hel = hel_index (i_proc)
        select case (amp_type (i_proc))
        case (BLHA_AMP_TREE)
           if (allocated (object%i_tree)) then
              object%i_tree(flv_index(i_proc), i_hel) = label(i_proc)
           else
              call msg_fatal ("Tree matrix element present, &
                   &but neither Born nor real indices are allocated!")
           end if
        case (BLHA_AMP_COLOR_C)
           if (allocated (object%i_color_c)) then
              object%i_color_c(flv_index(i_proc), i_hel) = label(i_proc)
           else
              call msg_fatal ("Color-correlated matrix element present, &
                   &but cc-indices are not allocated!")
           end if
        case (BLHA_AMP_SPIN_C)
           if (allocated (object%i_spin_c)) then
              object%i_spin_c(flv_index(i_proc), i_hel) = label(i_proc)
           else
              call msg_fatal ("Spin-correlated matrix element present, &
                   &but sc-indices are not allocated!")
           end if
        case (BLHA_AMP_LOOP)
           if (allocated (object%i_virt)) then
              object%i_virt(flv_index(i_proc), i_hel) = label(i_proc)
           else
              call msg_fatal ("Loop matrix element present, &
                   &but virt-indices are not allocated!")
           end if
        case default
           call msg_fatal ("Undefined amplitude type")
        end select
        if (allocated (object%i_hel)) &
             object%i_hel (i_proc, :) = helicities (label(i_proc), :)
     end do
   end subroutine prc_blha_read_contract_file
 
 @ %def prc_blha_read_contract_file
 @
 <<BLHA OLP interfaces: prc blha: TBP>>=
   procedure :: print_parameter_file => prc_blha_print_parameter_file
 <<BLHA OLP interfaces: sub interfaces>>=
     module subroutine prc_blha_print_parameter_file (object, i_component)
       class(prc_blha_t), intent(in) :: object
       integer, intent(in) :: i_component
     end subroutine prc_blha_print_parameter_file
 <<BLHA OLP interfaces: procedures>>=
   module subroutine prc_blha_print_parameter_file (object, i_component)
     class(prc_blha_t), intent(in) :: object
     integer, intent(in) :: i_component
     type(string_t) :: filename
 
     select type (def => object%def)
     class is (blha_def_t)
        filename = def%basename // '_' // str (i_component) // '.olp_parameters'
     end select
     select type (driver => object%driver)
     class is (blha_driver_t)
        call driver%blha_olp_print_parameter (char(filename)//c_null_char)
     end select
   end subroutine prc_blha_print_parameter_file
 
 @ %def prc_blha_print_parameter_file
 @
 <<BLHA OLP interfaces: prc blha: TBP>>=
   procedure :: compute_amplitude => prc_blha_compute_amplitude
 <<BLHA OLP interfaces: sub interfaces>>=
     module function prc_blha_compute_amplitude &
          (object, j, p, f, h, c, fac_scale, ren_scale, alpha_qcd_forced, &
          core_state)  result (amp)
       class(prc_blha_t), intent(in) :: object
       integer, intent(in) :: j
       type(vector4_t), dimension(:), intent(in) :: p
       integer, intent(in) :: f, h, c
       real(default), intent(in) :: fac_scale, ren_scale
       real(default), intent(in), allocatable :: alpha_qcd_forced
       class(prc_core_state_t), intent(inout), allocatable, optional :: core_state
       complex(default) :: amp
     end function prc_blha_compute_amplitude
 <<BLHA OLP interfaces: procedures>>=
   module function prc_blha_compute_amplitude &
        (object, j, p, f, h, c, fac_scale, ren_scale, alpha_qcd_forced, &
        core_state)  result (amp)
     class(prc_blha_t), intent(in) :: object
     integer, intent(in) :: j
     type(vector4_t), dimension(:), intent(in) :: p
     integer, intent(in) :: f, h, c
     real(default), intent(in) :: fac_scale, ren_scale
     real(default), intent(in), allocatable :: alpha_qcd_forced
     class(prc_core_state_t), intent(inout), allocatable, optional :: core_state
     complex(default) :: amp
     select type (core_state)
     class is (blha_state_t)
       core_state%alpha_qcd = object%qcd%alpha%get (ren_scale)
     end select
     amp = zero
   end function prc_blha_compute_amplitude
 
 @ %def prc_blha_compute_amplitude
 @ 
 <<BLHA OLP interfaces: prc blha: TBP>>=
   procedure :: init_blha => prc_blha_init_blha
 <<BLHA OLP interfaces: sub interfaces>>=
     module subroutine prc_blha_init_blha (object, blha_template, n_in, &
          n_particles, n_flv, n_hel)
       class(prc_blha_t), intent(inout) :: object
       type(blha_template_t), intent(in) :: blha_template
       integer, intent(in) :: n_in, n_particles, n_flv, n_hel
     end subroutine prc_blha_init_blha
 <<BLHA OLP interfaces: procedures>>=
   module subroutine prc_blha_init_blha (object, blha_template, n_in, &
        n_particles, n_flv, n_hel)
     class(prc_blha_t), intent(inout) :: object
     type(blha_template_t), intent(in) :: blha_template
     integer, intent(in) :: n_in, n_particles, n_flv, n_hel
     object%n_particles = n_particles
     object%n_flv = n_flv
     object%n_hel = n_hel
     if (blha_template%compute_loop ()) then
        if (blha_template%include_polarizations) then
           allocate (object%i_virt (n_flv, n_hel), &
                object%i_color_c (n_flv, n_hel))
           if (blha_template%use_internal_color_correlations) then
              allocate (object%i_hel (n_flv * n_in * n_hel * 2, n_in))
           else
              allocate (object%i_hel (n_flv * n_in * n_hel, n_in))
           end if
        else
           allocate (object%i_virt (n_flv, 1), object%i_color_c (n_flv, 1))
        end if
        object%i_virt = -1
        object%i_color_c = -1
     else if (blha_template%compute_subtraction ()) then
        if (blha_template%include_polarizations) then
           allocate (object%i_tree (n_flv, n_hel), &
                object%i_color_c (n_flv, n_hel), &
                object%i_spin_c (n_flv, n_hel), &
                object%i_hel (3 * (n_flv * n_hel * n_in), n_in))
           object%i_hel = 0
        else
           allocate (object%i_tree (n_flv, 1), object%i_color_c (n_flv, 1) , &
                object%i_spin_c (n_flv, 1))
        end if
        object%i_tree = -1
        object%i_color_c = -1
        object%i_spin_c = -1
     else if (blha_template%compute_dglap ()) then
        if (blha_template%include_polarizations) then
           allocate (object%i_tree (n_flv, n_hel), &
                object%i_color_c (n_flv, n_hel), &
                object%i_hel (3 * (n_flv * n_hel * n_in), n_in))
           object%i_hel = 0
        else
           allocate (object%i_tree (n_flv, 1), object%i_color_c (n_flv, 1))
        end if
        object%i_tree = -1
        object%i_color_c = -1
     else if (blha_template%compute_real_trees () .or. blha_template%compute_born ()) then
        if (blha_template%include_polarizations) then
           allocate (object%i_tree (n_flv, n_hel))
           allocate (object%i_hel (n_flv * n_hel * n_in, n_in))
           object%i_hel = 0
        else
           allocate (object%i_tree (n_flv, 1))
        end if
        object%i_tree = -1
     end if
 
     call object%init_ew_parameters (blha_template%ew_scheme)
 
     select type (driver => object%driver)
     class is (blha_driver_t)
        driver%include_polarizations = blha_template%include_polarizations
        driver%switch_off_muon_yukawas = blha_template%switch_off_muon_yukawas
        driver%external_top_yukawa = blha_template%external_top_yukawa
     end select
   end subroutine prc_blha_init_blha
 
 @ %def prc_blha_init_blha
 @
 <<BLHA OLP interfaces: prc blha: TBP>>=
   procedure :: set_mass_and_width => prc_blha_set_mass_and_width
 <<BLHA OLP interfaces: sub interfaces>>=
     module subroutine prc_blha_set_mass_and_width (object, i_pdg, mass, width)
       class(prc_blha_t), intent(inout) :: object
       integer, intent(in) :: i_pdg
       real(default), intent(in) :: mass, width
     end subroutine prc_blha_set_mass_and_width
 <<BLHA OLP interfaces: procedures>>=
   module subroutine prc_blha_set_mass_and_width (object, i_pdg, mass, width)
     class(prc_blha_t), intent(inout) :: object
     integer, intent(in) :: i_pdg
     real(default), intent(in) :: mass, width
     select type (driver => object%driver)
     class is (blha_driver_t)
        call driver%set_mass_and_width (i_pdg, mass, width)
     end select
   end subroutine prc_blha_set_mass_and_width
 
 @ %def prc_blha_set_mass_and_width
 @
 <<BLHA OLP interfaces: prc blha: TBP>>=
   procedure :: set_particle_properties => prc_blha_set_particle_properties
 <<BLHA OLP interfaces: sub interfaces>>=
     module subroutine prc_blha_set_particle_properties (object, model)
       class(prc_blha_t), intent(inout) :: object
       class(model_data_t), intent(in), target :: model
     end subroutine prc_blha_set_particle_properties
 <<BLHA OLP interfaces: procedures>>=
   module subroutine prc_blha_set_particle_properties (object, model)
     class(prc_blha_t), intent(inout) :: object
     class(model_data_t), intent(in), target :: model
     integer :: i, i_pdg
     type(flavor_t) :: flv
     real(default) :: mass, width
     integer :: ierr
     real(default) :: top_yukawa
     do i = 1, OLP_N_MASSIVE_PARTICLES
        i_pdg = OLP_MASSIVE_PARTICLES(i)
        if (i_pdg < 0) cycle
        call flv%init (i_pdg, model)
        mass = flv%get_mass (); width = flv%get_width ()
        select type (driver => object%driver)
        class is (blha_driver_t)
           call driver%set_mass_and_width (i_pdg, mass = mass, width = width)
           if (i_pdg == 5) call driver%blha_olp_set_parameter &
                ('yuk(5)'//c_null_char, dble(mass), 0._double, ierr)
           if (i_pdg == 6) then
              if (driver%external_top_yukawa > 0._default) then
                 top_yukawa = driver%external_top_yukawa
              else
                 top_yukawa = mass
              end if
              call driver%blha_olp_set_parameter &
                   ('yuk(6)'//c_null_char, dble(top_yukawa), 0._double, ierr)
           end if
           if (driver%switch_off_muon_yukawas) then
              if (i_pdg == 13) call driver%blha_olp_set_parameter &
                   ('yuk(13)' //c_null_char, 0._double, 0._double, ierr)
           end if
        end select
     end do
   end subroutine prc_blha_set_particle_properties
 
 @ %def prc_blha_set_particle_properties
 @ This mask adapts which electroweak parameters are supposed to set according to
 the chosen BLHA EWScheme. This is only implemented for the default OLP method so far.
 <<BLHA OLP interfaces: prc blha: TBP>>=
   procedure :: init_ew_parameters => prc_blha_init_ew_parameters
 <<BLHA OLP interfaces: sub interfaces>>=
     module subroutine prc_blha_init_ew_parameters (object, ew_scheme)
       class(prc_blha_t), intent(inout) :: object
       integer, intent(in) :: ew_scheme
     end subroutine prc_blha_init_ew_parameters
 <<BLHA OLP interfaces: procedures>>=
   module subroutine prc_blha_init_ew_parameters (object, ew_scheme)
     class(prc_blha_t), intent(inout) :: object
     integer, intent(in) :: ew_scheme
     object%ew_parameter_mask = .false.
     select case (ew_scheme)
     case (BLHA_EW_0)
        object%ew_parameter_mask (I_ALPHA_0) = .true.
     case (BLHA_EW_GF)
        object%ew_parameter_mask (I_GF) = .true.
     case (BLHA_EW_MZ)
        object%ew_parameter_mask (I_ALPHA_MZ) = .true.
     case (BLHA_EW_INTERNAL)
        object%ew_parameter_mask (I_ALPHA_INTERNAL) = .true.
     end select
   end subroutine prc_blha_init_ew_parameters
 
 @ %def prc_blha_init_ew_parameters
 @ Computes a virtual matrix element from an interface to an
 external one-loop provider. The output of [[blha_olp_eval2]]
 is an array of [[dimension(4)]], corresponding to the
 $\epsilon^2$-, $\epsilon^1$- and $\epsilon^0$-poles of the
 virtual matrix element at position [[r(1:3)]] and the Born
 matrix element at position [[r(4)]]. The matrix element is
 rejected if its accuracy is larger than the maximal allowed
 accuracy. OpenLoops includes a factor of 1 / [[n_hel]] in the
 amplitudes, which we have to undo if polarized matrix elements
 are requested (GoSam does not support polarized matrix elements).
 <<BLHA OLP interfaces: prc blha: TBP>>=
   procedure :: compute_sqme_virt => prc_blha_compute_sqme_virt
 <<BLHA OLP interfaces: sub interfaces>>=
     module subroutine prc_blha_compute_sqme_virt (object, &
          i_flv, i_hel, p, ren_scale, es_scale, loop_method, sqme, bad_point)
       class(prc_blha_t), intent(in) :: object
       integer, intent(in) :: i_flv, i_hel
       type(vector4_t), dimension(:), intent(in) :: p
       real(default), intent(in) :: ren_scale, es_scale
       integer, intent(in) :: loop_method
       real(default), dimension(4), intent(out) :: sqme
       logical, intent(out) :: bad_point
     end subroutine prc_blha_compute_sqme_virt
 <<BLHA OLP interfaces: procedures>>=
   module subroutine prc_blha_compute_sqme_virt (object, &
        i_flv, i_hel, p, ren_scale, es_scale, loop_method, sqme, bad_point)
     class(prc_blha_t), intent(in) :: object
     integer, intent(in) :: i_flv, i_hel
     type(vector4_t), dimension(:), intent(in) :: p
     real(default), intent(in) :: ren_scale, es_scale
     integer, intent(in) :: loop_method
     real(default), dimension(4), intent(out) :: sqme
     logical, intent(out) :: bad_point
     real(double), dimension(5 * object%n_particles) :: mom
     real(double), dimension(:), allocatable :: r
     real(double) :: mu_dble, es_dble
     real(double) :: acc_dble
     real(default) :: acc
     real(default) :: alpha_s
     integer :: ierr
     if (object%i_virt(i_flv, i_hel) >= 0) then
        allocate (r (blha_result_array_size (object%n_particles, BLHA_AMP_LOOP)))
        if (debug_on) call msg_debug2 (D_VIRTUAL, "prc_blha_compute_sqme_virt")
        if (debug_on) call msg_debug2 (D_VIRTUAL, "i_flv", i_flv)
        if (debug_on) call msg_debug2 (D_VIRTUAL, "object%i_virt(i_flv, i_hel)", object%i_virt(i_flv, i_hel))
        if (debug2_active (D_VIRTUAL)) then
            call msg_debug2 (D_VIRTUAL, "use momenta: ")
            call vector4_write_set (p, show_mass = .true., &
                 check_conservation = .true.)
        end if
        mom = object%create_momentum_array (p)
        if (vanishes (ren_scale)) &
             call msg_fatal ("prc_blha_compute_sqme_virt: ren_scale vanishes")
        mu_dble = dble (ren_scale)
        es_dble = dble (es_scale)
        alpha_s = object%qcd%alpha%get (ren_scale)
        select type (driver => object%driver)
        class is (blha_driver_t)
           if (loop_method == BLHA_MODE_OPENLOOPS) then
              call driver%blha_olp_set_parameter ('mureg'//c_null_char, es_dble, 0._double, ierr)
              if (ierr == 0) call parameter_error_message (var_str ('mureg'), &
                   var_str ('prc_blha_compute_sqme_virt'))
           end if
           call driver%set_alpha_s (alpha_s)
           call driver%blha_olp_eval2 (object%i_virt(i_flv, i_hel), mom, mu_dble, r, acc_dble)
        end select
        acc = acc_dble
        sqme = r(1:4)
        bad_point = acc > object%maximum_accuracy
        if (object%includes_polarization ()) sqme = object%n_hel * sqme
     else
        sqme = zero
     end if
   end subroutine prc_blha_compute_sqme_virt
 
 @ %def prc_blha_compute_sqme_virt
 @ Computes a tree-level matrix element from an interface to an
 external one-loop provider. The matrix element is
 rejected if its accuracy is larger than the maximal allowed
 accuracy. OpenLoops includes a factor of 1 / [[n_hel]] in the
 amplitudes, which we have to undo if polarized matrix elements
 are requested (GoSam does not support polarized matrix elements).
 <<BLHA OLP interfaces: prc blha: TBP>>=
   procedure :: compute_sqme => prc_blha_compute_sqme
 <<BLHA OLP interfaces: sub interfaces>>=
     module subroutine prc_blha_compute_sqme (object, i_flv, i_hel, p, &
          ren_scale, sqme, bad_point)
       class(prc_blha_t), intent(in) :: object
       integer, intent(in) :: i_flv, i_hel
       type(vector4_t), intent(in), dimension(:) :: p
       real(default), intent(in) :: ren_scale
       real(default), intent(out) :: sqme
       logical, intent(out) :: bad_point
     end subroutine prc_blha_compute_sqme
 <<BLHA OLP interfaces: procedures>>=
   module subroutine prc_blha_compute_sqme (object, i_flv, i_hel, p, &
        ren_scale, sqme, bad_point)
     class(prc_blha_t), intent(in) :: object
     integer, intent(in) :: i_flv, i_hel
     type(vector4_t), intent(in), dimension(:) :: p
     real(default), intent(in) :: ren_scale
     real(default), intent(out) :: sqme
     logical, intent(out) :: bad_point
     real(double), dimension(5*object%n_particles) :: mom
     real(double), dimension(OLP_RESULTS_LIMIT) :: r
     real(double) :: mu_dble, acc_dble
     real(default) :: acc, alpha_s
     if (object%i_tree(i_flv, i_hel) >= 0) then
        if (debug_on) call msg_debug2 (D_REAL, "prc_blha_compute_sqme")
        if (debug_on) call msg_debug2 (D_REAL, "i_flv", i_flv)
        if (debug2_active (D_REAL)) then
            call msg_debug2 (D_REAL, "use momenta: ")
            call vector4_write_set (p, show_mass = .true., &
                 check_conservation = .true.)
        end if
        mom = object%create_momentum_array (p)
        if (vanishes (ren_scale)) &
             call msg_fatal ("prc_blha_compute_sqme: ren_scale vanishes")
        mu_dble = dble(ren_scale)
        alpha_s = object%qcd%alpha%get (ren_scale)
        select type (driver => object%driver)
        class is (blha_driver_t)
           call driver%set_alpha_s (alpha_s)
           call driver%blha_olp_eval2 (object%i_tree(i_flv, i_hel), mom, &
                mu_dble, r, acc_dble)
           sqme = r(object%sqme_tree_pos)
        end select
        acc = acc_dble
        bad_point = acc > object%maximum_accuracy
        if (object%includes_polarization ()) sqme = object%n_hel * sqme
     else
        sqme = zero
     end if
   end subroutine prc_blha_compute_sqme
 
 @ %def prc_blha_compute_sqme
 @
 For the color correlated matrix the standard is to compute the diagonal entries
 from the born amplitudes and corresponding casimirs. However, if EW
 corrections are activated, the thus derived entries can be computed with born
 amplitudes of wrong coupling powers if the flavor structure potentially induces
 QCD-EW interference amplitudes. For this purpose a second possibility, to
 compute the diagonal from the off-diagonal elements is implemented as a special
 case.
 <<BLHA OLP interfaces: public>>=
   public :: blha_color_c_fill_diag
 <<BLHA OLP interfaces: sub interfaces>>=
     module subroutine blha_color_c_fill_diag &
          (sqme_born, flavors, sqme_color_c, special_case)
       real(default), intent(in) :: sqme_born
       integer, intent(in), dimension(:) :: flavors
       logical, intent(in), optional :: special_case
       real(default), intent(inout), dimension(:,:) :: sqme_color_c
     end subroutine blha_color_c_fill_diag
 <<BLHA OLP interfaces: procedures>>=
   module subroutine blha_color_c_fill_diag &
        (sqme_born, flavors, sqme_color_c, special_case)
     real(default), intent(in) :: sqme_born
     integer, intent(in), dimension(:) :: flavors
     logical, intent(in), optional :: special_case
     real(default), intent(inout), dimension(:,:) :: sqme_color_c
     real(default) :: sqme_line_off
     integer :: i, j
     logical :: special_c
     special_c = .false.
     if (present (special_case)) &
          special_c = special_case .and. qcd_ew_interferences (flavors)
     do i = 1, size (flavors)
        if (is_quark (flavors(i))) then
           sqme_line_off = zero
           do j = 1, size (flavors)
              if (j /= i) sqme_line_off = sqme_line_off + sqme_color_c (i, j)
           end do
           if (special_c) then
              sqme_color_c (i, i) = - sqme_line_off
           else
              sqme_color_c (i, i) = -cf * sqme_born
           end if
        else if (is_gluon (flavors(i))) then
           sqme_line_off = zero
           do j = 1, size (flavors)
              if (j /= i) sqme_line_off = sqme_line_off + sqme_color_c (i, j)
           end do
           if (special_c) then
              sqme_color_c (i, i) = - sqme_line_off
           else
              sqme_color_c (i, i) = -ca * sqme_born
           end if
        else
           sqme_color_c (i, i) = zero
        end if
     end do
   end subroutine blha_color_c_fill_diag
 
 @ %def blha_color_c_fill_diag
 <<BLHA OLP interfaces: public>>=
   public :: blha_color_c_fill_offdiag
 <<BLHA OLP interfaces: sub interfaces>>=
     module subroutine blha_color_c_fill_offdiag &
          (n, r, sqme_color_c, offset, n_flv)
       integer, intent(in) :: n
       real(default), intent(in), dimension(:) :: r
       real(default), intent(inout), dimension(:,:) :: sqme_color_c
       integer, intent(in), optional :: offset, n_flv
     end subroutine blha_color_c_fill_offdiag
 <<BLHA OLP interfaces: procedures>>=
   module subroutine blha_color_c_fill_offdiag &
        (n, r, sqme_color_c, offset, n_flv)
     integer, intent(in) :: n
     real(default), intent(in), dimension(:) :: r
     real(default), intent(inout), dimension(:,:) :: sqme_color_c
     integer, intent(in), optional :: offset, n_flv
     integer :: i, j, pos, incr
     if (present (offset)) then
        incr = offset
     else
        incr = 0
     end if
     pos = 0
     do j = 1, n
        do i = 1, j
           if (i /= j) then
              pos = (j - 1) * (j - 2) / 2 + i
              if (present (n_flv))  incr = incr + n_flv - 1
              if (present (offset))  pos = pos + incr
              sqme_color_c (i, j) = -r (pos)
              sqme_color_c (j, i) = sqme_color_c (i, j)
           end if
        end do
     end do
   end subroutine blha_color_c_fill_offdiag
 
 @ %def blha_color_c_fill_offdiag
 @ Computes a color-correlated matrix element from an interface to an
 external one-loop provider. The output of [[blha_olp_eval2]] is
 an array of [[dimension(n * (n - 1) / 2)]]. The matrix element is
 rejected if its accuracy is larger than the maximal allowed
 accuracy. OpenLoops includes a factor of 1 / [[n_hel]] in the
 amplitudes, which we have to undo if polarized matrix elements
 are requested (GoSam does not support polarized matrix elements).
 <<BLHA OLP interfaces: prc blha: TBP>>=
   procedure :: compute_sqme_color_c_raw => prc_blha_compute_sqme_color_c_raw
 <<BLHA OLP interfaces: sub interfaces>>=
     module subroutine prc_blha_compute_sqme_color_c_raw &
          (object, i_flv, i_hel, p, ren_scale, rr, bad_point)
       class(prc_blha_t), intent(in) :: object
       integer, intent(in) :: i_flv, i_hel
       type(vector4_t), intent(in), dimension(:) :: p
       real(default), intent(in) :: ren_scale
       real(default), intent(out), dimension(:) :: rr
       logical, intent(out) :: bad_point
     end subroutine prc_blha_compute_sqme_color_c_raw
 <<BLHA OLP interfaces: procedures>>=
   module subroutine prc_blha_compute_sqme_color_c_raw &
        (object, i_flv, i_hel, p, ren_scale, rr, bad_point)
     class(prc_blha_t), intent(in) :: object
     integer, intent(in) :: i_flv, i_hel
     type(vector4_t), intent(in), dimension(:) :: p
     real(default), intent(in) :: ren_scale
     real(default), intent(out), dimension(:) :: rr
     logical, intent(out) :: bad_point
     real(double), dimension(5 * object%n_particles) :: mom
     real(double), dimension(size(rr)) :: r
     real(default) :: alpha_s, acc
     real(double) :: mu_dble, acc_dble
     if (debug2_active (D_REAL)) then
        call msg_debug2 (D_REAL, "use momenta: ")
        call vector4_write_set (p, show_mass = .true., &
             check_conservation = .true.)
     end if
     if (object%i_color_c(i_flv, i_hel) >= 0) then
        mom = object%create_momentum_array (p)
        if (vanishes (ren_scale)) &
             call msg_fatal ("prc_blha_compute_sqme_color_c: ren_scale vanishes")
        mu_dble = dble(ren_scale)
        alpha_s = object%qcd%alpha%get (ren_scale)
 
        select type (driver => object%driver)
        class is (blha_driver_t)
           call driver%set_alpha_s (alpha_s)
           call driver%blha_olp_eval2 (object%i_color_c(i_flv, i_hel), &
                mom, mu_dble, r, acc_dble)
        end select
        rr = r
        acc = acc_dble
        bad_point = acc > object%maximum_accuracy
        if (object%includes_polarization ())  rr = object%n_hel * rr
     else
        rr = zero
     end if
   end subroutine prc_blha_compute_sqme_color_c_raw
 
 @ %def prc_blha_compute_sqme_color_c_raw
 @
 <<BLHA OLP interfaces: prc blha: TBP>>=
   procedure :: compute_sqme_color_c => prc_blha_compute_sqme_color_c
 <<BLHA OLP interfaces: sub interfaces>>=
     module subroutine prc_blha_compute_sqme_color_c &
          (object, i_flv, i_hel, p, ren_scale, born_color_c, bad_point, born_out)
       class(prc_blha_t), intent(inout) :: object
       integer, intent(in) :: i_flv, i_hel
       type(vector4_t), intent(in), dimension(:) :: p
       real(default), intent(in) :: ren_scale
       real(default), intent(inout), dimension(:,:) :: born_color_c
       real(default), intent(out), optional :: born_out
       logical, intent(out) :: bad_point
     end subroutine prc_blha_compute_sqme_color_c
 <<BLHA OLP interfaces: procedures>>=
   module subroutine prc_blha_compute_sqme_color_c &
        (object, i_flv, i_hel, p, ren_scale, born_color_c, bad_point, born_out)
     class(prc_blha_t), intent(inout) :: object
     integer, intent(in) :: i_flv, i_hel
     type(vector4_t), intent(in), dimension(:) :: p
     real(default), intent(in) :: ren_scale
     real(default), intent(inout), dimension(:,:) :: born_color_c
     real(default), intent(out), optional :: born_out
     logical, intent(out) :: bad_point
     real(default), dimension(:), allocatable :: r
     logical :: bad_point2
     real(default) :: born
     integer, dimension(:), allocatable :: flavors
     if (debug2_active (D_REAL)) then
        call msg_debug2 (D_REAL, "use momenta: ")
        call vector4_write_set (p, show_mass = .true., &
             check_conservation = .true.)
     end if
     allocate (r (blha_result_array_size &
          (size(born_color_c, dim=1), BLHA_AMP_COLOR_C)))
     call object%compute_sqme_color_c_raw (i_flv, i_hel, p, ren_scale, r, bad_point)
 
     select type (driver => object%driver)
     class is (blha_driver_t)
        if (allocated (object%i_tree)) then
           call object%compute_sqme (i_flv, i_hel, p, ren_scale, born, bad_point2)
        else
           born = zero
        end if
        if (present (born_out)) born_out = born
     end select
     call blha_color_c_fill_offdiag (object%n_particles, r, born_color_c)
     flavors = object%get_flv_state (i_flv)
     call blha_color_c_fill_diag (born, flavors, born_color_c)
 
     bad_point = bad_point .or. bad_point2
   end subroutine prc_blha_compute_sqme_color_c
 
 @ %def prc_blha_compute_sqme_color_c
 @
 <<BLHA OLP interfaces: prc blha: TBP>>=
   generic :: get_beam_helicities => get_beam_helicities_single
   generic :: get_beam_helicities => get_beam_helicities_array
   procedure :: get_beam_helicities_single => prc_blha_get_beam_helicities_single
   procedure :: get_beam_helicities_array => prc_blha_get_beam_helicities_array
 <<BLHA OLP interfaces: sub interfaces>>=
     module function prc_blha_get_beam_helicities_single &
          (object, i, invert_second) result (hel)
       integer, dimension(:), allocatable :: hel
       class(prc_blha_t), intent(in) :: object
       logical, intent(in), optional :: invert_second
       integer, intent(in) :: i
     end function prc_blha_get_beam_helicities_single
     module function prc_blha_get_beam_helicities_array &
          (object, invert_second) result (hel)
       integer, dimension(:,:), allocatable :: hel
       class(prc_blha_t), intent(in) :: object
       logical, intent(in), optional :: invert_second
     end function prc_blha_get_beam_helicities_array
 <<BLHA OLP interfaces: procedures>>=
   module function prc_blha_get_beam_helicities_single &
        (object, i, invert_second) result (hel)
     integer, dimension(:), allocatable :: hel
     class(prc_blha_t), intent(in) :: object
     logical, intent(in), optional :: invert_second
     integer, intent(in) :: i
     logical :: inv
     inv = .false.; if (present (invert_second)) inv = invert_second
     allocate (hel (object%data%n_in))
     hel = object%i_hel (i, :)
     if (inv .and. object%data%n_in == 2) hel(2) = -hel(2)
   end function prc_blha_get_beam_helicities_single
 
 @ %def prc_blha_get_beam_helicities_single
 @
 <<BLHA OLP interfaces: procedures>>=
   module function prc_blha_get_beam_helicities_array &
        (object, invert_second) result (hel)
     integer, dimension(:,:), allocatable :: hel
     class(prc_blha_t), intent(in) :: object
     logical, intent(in), optional :: invert_second
     integer :: i
     allocate (hel (object%n_proc, object%data%n_in))
     do i = 1, object%n_proc
        hel(i,:) = object%get_beam_helicities (i, invert_second)
     end do
   end function prc_blha_get_beam_helicities_array
 
 @ %def prc_blha_get_beam_helicities_array
 @
 <<BLHA OLP interfaces: prc blha: TBP>>=
   procedure :: includes_polarization => prc_blha_includes_polarization
 <<BLHA OLP interfaces: sub interfaces>>=
     module function prc_blha_includes_polarization (object) result (polarized)
       logical :: polarized
       class(prc_blha_t), intent(in) :: object
     end function prc_blha_includes_polarization
 <<BLHA OLP interfaces: procedures>>=
   module function prc_blha_includes_polarization (object) result (polarized)
     logical :: polarized
     class(prc_blha_t), intent(in) :: object
     select type (driver => object%driver)
     class is (blha_driver_t)
        polarized = driver%include_polarizations
     end select
   end function prc_blha_includes_polarization
 
 @ %def prc_blha_includes_polarization
 @ Setup an index mapping for flavor structures and helicities that give the same matrix
 element. The index mapping is according to the order of flavor structures known to the
 [[prc_core]] class. Overrides [[prc_core_set_equivalent_flv_hel_indices]].
 <<BLHA OLP interfaces: prc blha: TBP>>=
   procedure :: set_equivalent_flv_hel_indices => prc_blha_set_equivalent_flv_hel_indices
 <<BLHA OLP interfaces: sub interfaces>>=
     module subroutine prc_blha_set_equivalent_flv_hel_indices (object)
       class(prc_blha_t), intent(inout) :: object
     end subroutine prc_blha_set_equivalent_flv_hel_indices
 <<BLHA OLP interfaces: procedures>>=
   module subroutine prc_blha_set_equivalent_flv_hel_indices (object)
     class(prc_blha_t), intent(inout) :: object
     integer :: n_flv, n_hel
     integer :: i_flv1, i_flv2, i_hel1, i_hel2
     integer, dimension(:,:), allocatable :: amp_id, amp_id_color
     if (allocated (object%i_virt)) then
        amp_id = object%i_virt
     else
        amp_id = object%i_tree
     end if
     if (allocated (object%i_color_c)) then
        amp_id_color = object%i_color_c
     end if
     n_flv = size (amp_id, dim=1)
     n_hel = size (amp_id, dim=2)
     if (.not. allocated (object%data%eqv_flv_index)) &
          allocate (object%data%eqv_flv_index(n_flv))
     if (.not. allocated (object%data%eqv_hel_index)) &
          allocate (object%data%eqv_hel_index(n_hel))
     if (size (object%data%eqv_flv_index) /= n_flv) &
          call msg_bug ("BLHA Core: Size mismatch between eqv_flv_index and number of flavors.")
     if (size (object%data%eqv_hel_index) /= n_hel) &
          call msg_bug ("BLHA Core: Size mismatch between eqv_hel_index and number of helicities.")
     do i_flv1 = 1, n_flv
        do i_hel1 = 1, n_hel
           FLV_LOOP: do i_flv2 = 1, i_flv1
              do i_hel2 = 1, i_hel1
                 if (amp_id(i_flv2, i_hel2) == amp_id(i_flv1, i_hel1)) then
                    if (.not. allocated (amp_id_color)) then
                       object%data%eqv_flv_index(i_flv1) = i_flv2
                       object%data%eqv_hel_index(i_hel1) = i_hel2
                       exit FLV_LOOP
                    else if (amp_id_color (i_flv2, i_hel2) == &
                         amp_id_color(i_flv1, i_hel1)) then
                       object%data%eqv_flv_index(i_flv1) = i_flv2
                       object%data%eqv_hel_index(i_hel1) = i_hel2
                       exit FLV_LOOP
                    end if
                 end if
              end do
           end do FLV_LOOP
        end do
     end do
   end subroutine prc_blha_set_equivalent_flv_hel_indices
 
 @ %def prc_blha_set_equivalent_flv_hel_indices
 @
 <<BLHA OLP interfaces: prc blha: TBP>>=
   procedure(prc_blha_init_driver), deferred :: &
        init_driver
 <<BLHA OLP interfaces: interfaces>>=
   abstract interface
     subroutine prc_blha_init_driver (object, os_data)
       import
       class(prc_blha_t), intent(inout) :: object
       type(os_data_t), intent(in) :: os_data
     end subroutine prc_blha_init_driver
   end interface
 
 @ %def prc_blha_init_driver interface
 @ In general, the BLHA consits of a virtual matrix element and $n_{\rm{sub}}$
 subtraction terms. The subtractions terms can be pure Born matrix elements
 (to be used in collinear subtraction or in internal color-correlation),
 color-correlated matrix elements or spin-correlated matrix elements.
 The numbers should be ordered in such a way that $\mathcal{V}_{\rm{fin}}$
 is first, followed by the pure Born, the color-correlated and the spin-correlated
 matrix elements. This repeats $n_{\rm{flv}}$ times. Let $\nu_i$ be the position
 of the $ith$ virtual matrix element. The next $\mathcal{V}_{\rm{fin}}$ is
 at position $\nu_i = \nu_{i - 1} + n_{\rm{sub}} + 1$. Obviously, $\nu_1 = 1$.
 This allows us to determine the virtual matrix element positions using the
 recursive function implemented below.
 <<BLHA OLP interfaces: public>>=
   public :: blha_loop_positions
 <<BLHA OLP interfaces: sub interfaces>>=
     recursive module function blha_loop_positions (i_flv, n_sub) result (index)
       integer :: index
       integer, intent(in) :: i_flv, n_sub
     end function blha_loop_positions
 <<BLHA OLP interfaces: procedures>>=
   recursive module function blha_loop_positions (i_flv, n_sub) result (index)
     integer :: index
     integer, intent(in) :: i_flv, n_sub
     index = 0
     if (i_flv == 1) then
        index = 1
     else
        index = blha_loop_positions (i_flv - 1, n_sub) + n_sub + 1
     end if
   end function blha_loop_positions
 
 @ %def blha_loop_positions
 @
 %%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
 \subsection{Unit tests}
 Test module, followed by the corresponding implementation module.
 <<[[blha_ut.f90]]>>=
 <<File header>>
 
 module blha_ut
   use unit_tests
   use blha_uti
 
 <<Standard module head>>
 
 <<BLHA: public tests>>
 
 contains
 
 <<BLHA: test driver>>
 
 end module blha_ut
 
 @ %def blha_ut
 @
 <<[[blha_uti.f90]]>>=
 <<File header>>
 
 module blha_uti
 
 <<Use strings>>
   use format_utils, only: write_separator
   use variables, only: var_list_t
   use os_interface
   use models
   use blha_config
 
 
 <<Standard module head>>
 
 <<BLHA: test declarations>>
 
 contains
 
 <<BLHA: test procedures>>
 
 <<BLHA: tests>>
 
 end module blha_uti
 
 @ %def blha_uti
 @ API: driver for the unit tests below.
 <<BLHA: public tests>>=
   public :: blha_test
 <<BLHA: test driver>>=
   subroutine blha_test (u, results)
     integer, intent(in) :: u
     type(test_results_t), intent(inout) :: results
     call test(blha_1, "blha_1", "Test the creation of BLHA-OLP files", u, results)
     call test(blha_2, "blha_2", "Test the creation of BLHA-OLP files for "&
          &"multiple flavor structures", u, results)
     call test(blha_3, "blha_3", "Test helicity-information in OpenLoops OLP files", &
          u, results)
   end subroutine blha_test
 
 @ %def blha_test
 @
 <<BLHA: test procedures>>=
   subroutine setup_and_write_blha_configuration (u, single, polarized)
     integer, intent(in) :: u
     logical, intent(in), optional :: single
     logical, intent(in), optional :: polarized
     logical :: polrzd, singl
     type(blha_master_t) :: blha_master
     integer :: i
     integer :: n_in, n_out
     integer :: alpha_power, alphas_power
     integer, dimension(:,:), allocatable :: flv_born, flv_real
     type(string_t) :: proc_id, method, correction_type
     type(os_data_t) :: os_data
     type(model_list_t) :: model_list
     type(var_list_t) :: var_list
     type(model_t), pointer :: model => null ()
     integer :: openloops_phs_tolerance
 
     polrzd = .false.; if (present (polarized)) polrzd = polarized
     singl = .true.; if (present (single)) singl = single
 
     if (singl) then
        write (u, "(A)") "* Process: e+ e- -> W+ W- b b~"
        n_in = 2; n_out = 4
        alpha_power = 4; alphas_power = 0
        allocate (flv_born (n_in + n_out, 1))
        allocate (flv_real (n_in + n_out + 1, 1))
        flv_born(1,1) = 11; flv_born(2,1) = -11
        flv_born(3,1) = 24; flv_born(4,1) = -24
        flv_born(5,1) = 5; flv_born(6,1) = -5
        flv_real(1:6,1) = flv_born(:,1)
        flv_real(7,1) = 21
     else
        write (u, "(A)") "* Process: e+ e- -> u:d:s U:D:S"
        n_in = 2; n_out = 2
        alpha_power = 2; alphas_power = 0
        allocate (flv_born (n_in + n_out, 3))
        allocate (flv_real (n_in + n_out + 1, 3))
        flv_born(1,:) = 11; flv_born(2,:) = -11
        flv_born(3,1) = 1; flv_born(4,1) = -1
        flv_born(3,2) = 2; flv_born(4,2) = -2
        flv_born(3,3) = 3; flv_born(4,3) = -3
        flv_real(1:4,:) = flv_born
        flv_real(5,:) = 21
     end if
     proc_id = var_str ("BLHA_Test")
 
     call syntax_model_file_init ()
     call os_data%init ()
     call model_list%read_model &
          (var_str ("SM"), var_str ("SM.mdl"), os_data, model)
 
     write (u, "(A)") "* BLHA matrix elements assumed for all process components"
     write (u, "(A)") "* Mode: GoSam"
 
     method = var_str ("gosam")
     correction_type = var_str ("QCD")
     call var_list%append_string (var_str ("$born_me_method"), method)
     call var_list%append_string (var_str ("$real_tree_me_method"), method)
     call var_list%append_string (var_str ("$loop_me_method"), method)
     call var_list%append_string (var_str ("$correlation_me_method"), method)
     call blha_master%set_ew_scheme (var_str ("GF"))
     call blha_master%set_methods (.true., var_list)
     call blha_master%allocate_config_files ()
     call blha_master%set_correction_type (correction_type)
     call blha_master%generate (proc_id, model, n_in, &
          alpha_power, alphas_power, flv_born, flv_real)
 
     call test_output (u)
 
     call blha_master%final ()
     call var_list%final ()
     write (u, "(A)") "* Switch to OpenLoops"
     openloops_phs_tolerance = 7
 
     method = var_str ("openloops")
     correction_type = var_str ("QCD")
     call var_list%append_string (var_str ("$born_me_method"), method)
     call var_list%append_string (var_str ("$real_tree_me_method"), method)
     call var_list%append_string (var_str ("$loop_me_method"), method)
     call var_list%append_string (var_str ("$correlation_me_method"), method)
     call blha_master%set_methods (.true., var_list)
     call blha_master%allocate_config_files ()
     call blha_master%set_correction_type (correction_type)
     call blha_master%generate (proc_id, model, n_in, &
          alpha_power, alphas_power, flv_born, flv_real)
 
     if (polrzd) then
        do i = 1, 4
           call blha_master%set_polarization (i)
        end do
     end if
     call blha_master%setup_additional_features &
          (openloops_phs_tolerance, .false., 0)
 
     call test_output (u)
 
   contains
 
     subroutine test_output (u)
       integer, intent(in) :: u
       do i = 1, 4
          call write_separator (u)
          call write_component_type (i, u)
          call write_separator (u)
          call blha_configuration_write &
               (blha_master%blha_cfg(i), blha_master%suffix(i), u, no_version = .true.)
       end do
     end subroutine test_output
 
     subroutine write_component_type (i, u)
       integer, intent(in) :: i, u
       type(string_t) :: message, component_type
       message = var_str ("OLP-File content for ")
       select case (i)
       case (1)
          component_type = var_str ("loop")
       case (2)
          component_type = var_str ("subtraction")
       case (3)
          component_type = var_str ("real")
       case (4)
          component_type = var_str ("born")
       end select
       message = message // component_type // " matrix elements"
       write (u, "(A)") char (message)
     end subroutine write_component_type
 
   end subroutine setup_and_write_blha_configuration
 
 @ %def setup_and_write_blha_configuration
 @
 <<BLHA: test declarations>>=
   public :: blha_1
 <<BLHA: tests>>=
   subroutine blha_1 (u)
     integer, intent(in) :: u
     write (u, "(A)") "* Test output: blha_1"
     write (u, "(A)") "* Purpose: Test the creation of olp-files for single "&
          &"and unpolarized flavor structures"
     write (u, "(A)")
     call setup_and_write_blha_configuration (u, single = .true., polarized = .false.)
   end subroutine blha_1
 
 @ %def blha_1
 @
 <<BLHA: test declarations>>=
   public :: blha_2
 <<BLHA: tests>>=
   subroutine blha_2 (u)
     integer, intent(in) :: u
     write (u, "(A)") "* Test output: blha_2"
     write (u, "(A)") "* Purpose: Test the creation of olp-files for multiple "&
          &"and unpolarized flavor structures"
     write (u, "(A)")
     call setup_and_write_blha_configuration (u, single = .false., polarized = .false.)
   end subroutine blha_2
 
 @ %def blha_2
 @
 <<BLHA: test declarations>>=
   public :: blha_3
 <<BLHA: tests>>=
   subroutine blha_3 (u)
     integer, intent(in) :: u
     write (u, "(A)") "* Test output: blha_3"
     write (u, "(A)") "* Purpose: Test the creation of olp-files for single "&
          &"and polarized flavor structures"
     write (u, "(A)")
     call setup_and_write_blha_configuration (u, single = .true., polarized = .true.)
   end subroutine blha_3
 
 @ %def blha_3
 @
Index: trunk/src/variables/variables.nw
===================================================================
--- trunk/src/variables/variables.nw	(revision 8818)
+++ trunk/src/variables/variables.nw	(revision 8819)
@@ -1,7755 +1,7762 @@
 % -*- ess-noweb-default-code-mode: f90-mode; noweb-default-code-mode: f90-mode; -*-
 % WHIZARD code as NOWEB source: variables for processes
 %%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
 \chapter{Variables for Processes}
 \includemodulegraph{variables}
 
 This part introduces variables as user-controlled objects that
 influence the behavior of objects and calculations.  Variables contain
 objects of intrinsic type or of a type as introced above.
 \begin{description}
 \item[variables]
   Store values of various kind, used by expressions and accessed by
   the command interface.  This provides an implementation of the [[vars_t]]
   abstract type.
 \item[observables]
   Concrete implementation of observables (functions in the variable tree),
   applicable for \whizard.
   abstract type.
 \end{description}
 
 \clearpage
 %%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
 \section{Variables: Implementation}
 The user interface deals with variables that are handled similarly to
 full-flegded programming languages.  The system will add a lot of
 predefined variables (model parameters, flags, etc.) that are
 accessible to the user by the same methods.
 
 Variables can be of various type: logical (boolean/flag), integer,
 real (default precision), subevents (used in cut expressions),
 arrays of PDG codes (aliases for particles), strings.  Furthermore, in
 cut expressions we have unary and binary observables, which are used
 like real parameters but behave like functions.
 <<[[variables.f90]]>>=
 <<File header>>
 
 module variables
 
 <<Use kinds>>
 <<Use strings>>
   use numeric_utils, only: pacify
   use os_interface, only: paths_t
   use pdg_arrays
   use subevents
   use var_base
 
 <<Standard module head>>
 
 <<Variables: public>>
 
 <<Variables: parameters>>
 
 <<Variables: types>>
 
 <<Variables: interfaces>>
 
   interface
 <<Variables: sub interfaces>>
   end interface
 
 end module variables
 @ %def variables
 @
 <<[[variables_sub.f90]]>>=
 <<File header>>
 
 submodule (variables) variables_s
 
   use io_units
   use format_utils, only: pac_fmt
   use format_defs, only: FMT_12, FMT_19
   use constants, only: eps0
   use physics_defs, only: LAMBDA_QCD_REF
   use system_dependencies
   use diagnostics
   use fastjet !NODEP!
 
   implicit none
 
 contains
 
 <<Variables: procedures>>
 
 end submodule variables_s
 
 @ %def variables_s
 @
 \subsection{Variable list entries}
 Variable (and constant) values can be of one of the following types:
 <<Variables: parameters>>=
   integer, parameter, public :: V_NONE = 0, V_LOG = 1, V_INT = 2, V_REAL = 3
   integer, parameter, public :: V_CMPLX = 4, V_SEV = 5, V_PDG = 6, V_STR = 7
   integer, parameter, public :: V_OBS1_INT = 11, V_OBS2_INT = 12
   integer, parameter, public :: V_OBS1_REAL = 21, V_OBS2_REAL = 22
   integer, parameter, public :: V_OBSEV_INT = 13, V_OBSEV_REAL = 23
   integer, parameter, public :: V_UOBS1_INT = 31, V_UOBS2_INT = 32
   integer, parameter, public :: V_UOBS1_REAL = 41, V_UOBS2_REAL = 42
 
 @ %def V_NONE V_LOG V_INT V_REAL V_CMPLX V_PRT V_SEV V_PDG V_OBS1_INT
 @ %def V_OBS2_INT V_OBSEV_INT V_OBS1_REAL V_OBS2_REAL V_OBSEV_REAL
 @ %def V_UOBS1_INT V_UOBS2_INT V_UOBS1_REAL V_UOBS2_REAL
 @
 \subsubsection{The type}
 This is an entry in the variable list.  It can be of any type; in
 each case only one value is allocated.  It may be physically
 allocated upon creation, in which case [[is_allocated]] is true, or
 it may contain just a pointer to a value somewhere else, in which case
 [[is_allocated]] is false.
 
 The flag [[is_defined]] is set when the variable is given a value, even the
 undefined value.  (Therefore it is distinct from [[is_known]].)  This matters
 for variable declaration in the SINDARIN language.  The variable is set up in
 the compilation step and initially marked as defined, but after compilation
 all variables are set undefined.  Each variable becomes defined when it is
 explicitly set.  The difference matters in loops.
 
 [[is_locked]] means that it cannot be given a value using the interface
 routines [[var_list_set_XXX]] below.  It can only be initialized, or change
 automatically due to a side effect.
 
 [[is_copy]] means that this is a local copy of a global variable.  The copy
 has a pointer to the original, which can be used to restore a previous value.
 
 [[is_intrinsic]] means that this variable is defined by the program, not by
 the user.  Intrinsic variables cannot be (re)declared, but their values can be
 reset unless they are locked.  [[is_user_var]] means that the variable has
 been declared by the user.  It could be a new variable, or a local copy of an
 intrinsic variable.
 
 The flag [[is_known]] is a pointer which parallels the use of the
 value pointer.  For pointer variables, it is set if the value should point to
 a known value.  For ordinary variables, it should be true.
 
 The value is implemented as a set of alternative type-specific pointers.  This
 emulates polymorphism, and it allows for actual pointer variables.
 Observable-type variables have function pointers as values, so they behave
 like macros.  The functions make use of the particle objects accessible via
 the pointers [[prt1]] and [[prt2]].
 
 Finally, the [[next]] pointer indicates that we are making lists of
 variables.  A more efficient implementation might switch to hashes or
 similar; the current implementation has $O(N)$ lookup.
 <<Variables: types>>=
   type :: var_entry_t
      private
      integer :: type = V_NONE
      type(string_t) :: name
      logical :: is_allocated = .false.
      logical :: is_defined = .false.
      logical :: is_locked = .false.
      logical :: is_intrinsic = .false.
      logical :: is_user_var = .false.
      logical, pointer :: is_known => null ()
      logical,           pointer :: lval => null ()
      integer,           pointer :: ival => null ()
      real(default),     pointer :: rval => null ()
      complex(default), pointer :: cval => null ()
      type(subevt_t),  pointer :: pval => null ()
      type(pdg_array_t), pointer :: aval => null ()
      type(string_t),    pointer :: sval => null ()
      procedure(obs_unary_int),   nopass, pointer :: obs1_int  => null ()
      procedure(obs_unary_real),  nopass, pointer :: obs1_real => null ()
      procedure(obs_binary_int),  nopass, pointer :: obs2_int  => null ()
      procedure(obs_binary_real), nopass, pointer :: obs2_real => null ()
      procedure(obs_sev_int),  nopass, pointer :: obsev_int  => null ()
      procedure(obs_sev_real), nopass, pointer :: obsev_real => null ()
      type(prt_t), pointer :: prt1 => null ()
      type(prt_t), pointer :: prt2 => null ()
      type(var_entry_t), pointer :: next => null ()
      type(var_entry_t), pointer :: previous => null ()
      type(string_t) :: description
   end type var_entry_t
 
 @ %def var_entry_t
 @
 \subsubsection{Interfaces for the observable functions}
 <<Variables: public>>=
   public :: obs_unary_int
   public :: obs_unary_real
   public :: obs_binary_int
   public :: obs_binary_real
   public :: obs_sev_int
   public :: obs_sev_real
 <<Variables: interfaces>>=
   abstract interface
      function obs_unary_int (prt1) result (ival)
        import
        integer :: ival
        type(prt_t), intent(in) :: prt1
      end function obs_unary_int
   end interface
   abstract interface
      function obs_unary_real (prt1) result (rval)
        import
        real(default) :: rval
        type(prt_t), intent(in) :: prt1
      end function obs_unary_real
   end interface
   abstract interface
      function obs_binary_int (prt1, prt2) result (ival)
        import
        integer :: ival
        type(prt_t), intent(in) :: prt1, prt2
      end function obs_binary_int
   end interface
   abstract interface
      function obs_binary_real (prt1, prt2) result (rval)
        import
        real(default) :: rval
        type(prt_t), intent(in) :: prt1, prt2
      end function obs_binary_real
   end interface
   abstract interface
      function obs_sev_int (sev) result (ival)
        import
        integer :: ival
        type(subevt_t), intent(in) :: sev
      end function obs_sev_int
   end interface
   abstract interface
      function obs_sev_real (sev) result (rval)
        import
        real(default) :: rval
        type(subevt_t), intent(in) :: sev
      end function obs_sev_real
   end interface
 
 @ %def obs_unary_int obs_unary_real
 @ %def obs_binary_int obs_binary_real
 @ %def obs_sev_int obs_sev_real
 @
 \subsubsection{Initialization}
 Initialize an entry, optionally with a physical value.  We also
 allocate the [[is_known]] flag and set it if the value is set.
 <<Variables: procedures>>=
   subroutine var_entry_init_log (var, name, lval, intrinsic, user)
     type(var_entry_t), intent(out) :: var
     type(string_t), intent(in) :: name
     logical, intent(in), optional :: lval
     logical, intent(in), optional :: intrinsic, user
     var%name = name
     var%type = V_LOG
     allocate (var%lval, var%is_known)
     if (present (lval)) then
        var%lval = lval
        var%is_defined = .true.
        var%is_known = .true.
     else
        var%is_known = .false.
     end if
     if (present (intrinsic))  var%is_intrinsic = intrinsic
     if (present (user))  var%is_user_var = user
     var%is_allocated = .true.
   end subroutine var_entry_init_log
 
   subroutine var_entry_init_int (var, name, ival, intrinsic, user)
     type(var_entry_t), intent(out) :: var
     type(string_t), intent(in) :: name
     integer, intent(in), optional :: ival
     logical, intent(in), optional :: intrinsic, user
     var%name = name
     var%type = V_INT
     allocate (var%ival, var%is_known)
     if (present (ival)) then
        var%ival = ival
        var%is_defined = .true.
        var%is_known = .true.
     else
        var%is_known = .false.
     end if
     if (present (intrinsic))  var%is_intrinsic = intrinsic
     if (present (user))  var%is_user_var = user
     var%is_allocated = .true.
   end subroutine var_entry_init_int
 
   subroutine var_entry_init_real (var, name, rval, intrinsic, user)
     type(var_entry_t), intent(out) :: var
     type(string_t), intent(in) :: name
     real(default), intent(in), optional :: rval
     logical, intent(in), optional :: intrinsic, user
     var%name = name
     var%type = V_REAL
     allocate (var%rval, var%is_known)
     if (present (rval)) then
        var%rval = rval
        var%is_defined = .true.
        var%is_known = .true.
     else
        var%is_known = .false.
     end if
     if (present (intrinsic))  var%is_intrinsic = intrinsic
     if (present (user))  var%is_user_var = user
     var%is_allocated = .true.
   end subroutine var_entry_init_real
 
   subroutine var_entry_init_cmplx (var, name, cval, intrinsic, user)
     type(var_entry_t), intent(out) :: var
     type(string_t), intent(in) :: name
     complex(default), intent(in), optional :: cval
     logical, intent(in), optional :: intrinsic, user
     var%name = name
     var%type = V_CMPLX
     allocate (var%cval, var%is_known)
     if (present (cval)) then
        var%cval = cval
        var%is_defined = .true.
        var%is_known = .true.
     else
        var%is_known = .false.
     end if
     if (present (intrinsic))  var%is_intrinsic = intrinsic
     if (present (user))  var%is_user_var = user
     var%is_allocated = .true.
   end subroutine var_entry_init_cmplx
 
   subroutine var_entry_init_subevt (var, name, pval, intrinsic, user)
     type(var_entry_t), intent(out) :: var
     type(string_t), intent(in) :: name
     type(subevt_t), intent(in), optional :: pval
     logical, intent(in), optional :: intrinsic, user
     var%name = name
     var%type = V_SEV
     allocate (var%pval, var%is_known)
     if (present (pval)) then
        var%pval = pval
        var%is_defined = .true.
        var%is_known = .true.
     else
        var%is_known = .false.
     end if
     if (present (intrinsic))  var%is_intrinsic = intrinsic
     if (present (user))  var%is_user_var = user
     var%is_allocated = .true.
   end subroutine var_entry_init_subevt
 
   subroutine var_entry_init_pdg_array (var, name, aval, intrinsic, user)
     type(var_entry_t), intent(out) :: var
     type(string_t), intent(in) :: name
     type(pdg_array_t), intent(in), optional :: aval
     logical, intent(in), optional :: intrinsic, user
     var%name = name
     var%type = V_PDG
     allocate (var%aval, var%is_known)
     if (present (aval)) then
        var%aval = aval
        var%is_defined = .true.
        var%is_known = .true.
     else
        var%is_known = .false.
     end if
     if (present (intrinsic))  var%is_intrinsic = intrinsic
     if (present (user))  var%is_user_var = user
     var%is_allocated = .true.
   end subroutine var_entry_init_pdg_array
 
   subroutine var_entry_init_string (var, name, sval, intrinsic, user)
     type(var_entry_t), intent(out) :: var
     type(string_t), intent(in) :: name
     type(string_t), intent(in), optional :: sval
     logical, intent(in), optional :: intrinsic, user
     var%name = name
     var%type = V_STR
     allocate (var%sval, var%is_known)
     if (present (sval)) then
        var%sval = sval
        var%is_defined = .true.
        var%is_known = .true.
     else
        var%is_known = .false.
     end if
     if (present (intrinsic))  var%is_intrinsic = intrinsic
     if (present (user))  var%is_user_var = user
     var%is_allocated = .true.
   end subroutine var_entry_init_string
 
 @ %def var_entry_init_log
 @ %def var_entry_init_int
 @ %def var_entry_init_real
 @ %def var_entry_init_cmplx
 @ %def var_entry_init_subevt
 @ %def var_entry_init_pdg_array
 @ %def var_entry_init_string
 @ Initialize an entry with a pointer to the value and, for numeric/logical
 values, a pointer to the [[is_known]] flag.
 <<Variables: procedures>>=
   subroutine var_entry_init_log_ptr (var, name, lval, is_known, intrinsic)
     type(var_entry_t), intent(out) :: var
     type(string_t), intent(in) :: name
     logical, intent(in), target :: lval
     logical, intent(in), target :: is_known
     logical, intent(in), optional :: intrinsic
     var%name = name
     var%type = V_LOG
     var%lval => lval
     var%is_known => is_known
     if (present (intrinsic))  var%is_intrinsic = intrinsic
     var%is_defined = .true.
   end subroutine var_entry_init_log_ptr
 
   subroutine var_entry_init_int_ptr (var, name, ival, is_known, intrinsic)
     type(var_entry_t), intent(out) :: var
     type(string_t), intent(in) :: name
     integer, intent(in), target :: ival
     logical, intent(in), target :: is_known
     logical, intent(in), optional :: intrinsic
     var%name = name
     var%type = V_INT
     var%ival => ival
     var%is_known => is_known
     if (present (intrinsic))  var%is_intrinsic = intrinsic
     var%is_defined = .true.
   end subroutine var_entry_init_int_ptr
 
   subroutine var_entry_init_real_ptr (var, name, rval, is_known, intrinsic)
     type(var_entry_t), intent(out) :: var
     type(string_t), intent(in) :: name
     real(default), intent(in), target :: rval
     logical, intent(in), target :: is_known
     logical, intent(in), optional :: intrinsic
     var%name = name
     var%type = V_REAL
     var%rval => rval
     var%is_known => is_known
     if (present (intrinsic))  var%is_intrinsic = intrinsic
     var%is_defined = .true.
   end subroutine var_entry_init_real_ptr
 
   subroutine var_entry_init_cmplx_ptr (var, name, cval, is_known, intrinsic)
     type(var_entry_t), intent(out) :: var
     type(string_t), intent(in) :: name
     complex(default), intent(in), target :: cval
     logical, intent(in), target :: is_known
     logical, intent(in), optional :: intrinsic
     var%name = name
     var%type = V_CMPLX
     var%cval => cval
     var%is_known => is_known
     if (present (intrinsic))  var%is_intrinsic = intrinsic
     var%is_defined = .true.
   end subroutine var_entry_init_cmplx_ptr
 
   subroutine var_entry_init_pdg_array_ptr (var, name, aval, is_known, intrinsic)
     type(var_entry_t), intent(out) :: var
     type(string_t), intent(in) :: name
     type(pdg_array_t), intent(in), target :: aval
     logical, intent(in), target :: is_known
     logical, intent(in), optional :: intrinsic
     var%name = name
     var%type = V_PDG
     var%aval => aval
     var%is_known => is_known
     if (present (intrinsic))  var%is_intrinsic = intrinsic
     var%is_defined = .true.
   end subroutine var_entry_init_pdg_array_ptr
 
   subroutine var_entry_init_subevt_ptr (var, name, pval, is_known, intrinsic)
     type(var_entry_t), intent(out) :: var
     type(string_t), intent(in) :: name
     type(subevt_t), intent(in), target :: pval
     logical, intent(in), target :: is_known
     logical, intent(in), optional :: intrinsic
     var%name = name
     var%type = V_SEV
     var%pval => pval
     var%is_known => is_known
     if (present (intrinsic))  var%is_intrinsic = intrinsic
     var%is_defined = .true.
   end subroutine var_entry_init_subevt_ptr
 
   subroutine var_entry_init_string_ptr (var, name, sval, is_known, intrinsic)
     type(var_entry_t), intent(out) :: var
     type(string_t), intent(in) :: name
     type(string_t), intent(in), target :: sval
     logical, intent(in), target :: is_known
     logical, intent(in), optional :: intrinsic
     var%name = name
     var%type = V_STR
     var%sval => sval
     var%is_known => is_known
     if (present (intrinsic))  var%is_intrinsic = intrinsic
     var%is_defined = .true.
   end subroutine var_entry_init_string_ptr
 
 @ %def var_entry_init_log_ptr
 @ %def var_entry_init_int_ptr
 @ %def var_entry_init_real_ptr
 @ %def var_entry_init_cmplx_ptr
 @ %def var_entry_init_pdg_array_ptr
 @ %def var_entry_init_subevt_ptr
 @ %def var_entry_init_string_ptr
 @ Initialize an entry with an observable.  The procedure pointer is
 not yet set.
 <<Variables: procedures>>=
   subroutine var_entry_init_obs (var, name, type, prt1, prt2)
     type(var_entry_t), intent(out) :: var
     type(string_t), intent(in) :: name
     integer, intent(in) :: type
     type(prt_t), intent(in), target :: prt1
     type(prt_t), intent(in), optional, target :: prt2
     var%type = type
     var%name = name
     var%prt1 => prt1
     if (present (prt2))  var%prt2 => prt2
     var%is_intrinsic = .true.
     var%is_defined = .true.
   end subroutine var_entry_init_obs
 
   subroutine var_entry_init_obs_sev (var, name, type, pval)
     type(var_entry_t), intent(out) :: var
     type(string_t), intent(in) :: name
     integer, intent(in) :: type
     type(subevt_t), intent(in), target :: pval
     var%type = type
     var%name = name
     var%pval => pval
     var%is_intrinsic = .true.
     var%is_defined = .true.
   end subroutine var_entry_init_obs_sev
 
 @ %def var_entry_init_obs var_entry_init_obs_sev
 @ Mark an entry as undefined it it is a user-defined variable object, so force
 re-initialization.
 <<Variables: procedures>>=
   subroutine var_entry_undefine (var)
     type(var_entry_t), intent(inout) :: var
     var%is_defined = .not. var%is_user_var
     var%is_known = var%is_defined .and. var%is_known
   end subroutine var_entry_undefine
 
 @ %def var_entry_undefine
 @ Clear an entry: mark it as unknown.
 <<Variables: procedures>>=
   subroutine var_entry_clear (var)
     type(var_entry_t), intent(inout) :: var
     var%is_known = .false.
   end subroutine var_entry_clear
 
 @ %def var_entry_clear
 @ Lock an entry: forbid resetting the entry after initialization.
 <<Variables: procedures>>=
   subroutine var_entry_lock (var, locked)
     type(var_entry_t), intent(inout) :: var
     logical, intent(in), optional :: locked
     if (present (locked)) then
        var%is_locked = locked
     else
        var%is_locked = .true.
     end if
   end subroutine var_entry_lock
 
 @ %def var_entry_lock
 @
 \subsubsection{Finalizer}
 <<Variables: procedures>>=
   subroutine var_entry_final (var)
     type(var_entry_t), intent(inout) :: var
     if (var%is_allocated) then
        select case (var%type)
        case (V_LOG); deallocate (var%lval)
        case (V_INT); deallocate (var%ival)
        case (V_REAL);deallocate (var%rval)
        case (V_CMPLX);deallocate (var%cval)
        case (V_SEV); deallocate (var%pval)
        case (V_PDG); deallocate (var%aval)
        case (V_STR); deallocate (var%sval)
        end select
        deallocate (var%is_known)
        var%is_allocated = .false.
        var%is_defined = .false.
     end if
   end subroutine var_entry_final
 
 @ %def var_entry_final
 @
 \subsubsection{Output}
 <<Variables: procedures>>=
   recursive subroutine var_entry_write (var, unit, model_name, &
        intrinsic, pacified, descriptions, ascii_output)
     type(var_entry_t), intent(in) :: var
     integer, intent(in), optional :: unit
     type(string_t), intent(in), optional :: model_name
     logical, intent(in), optional :: intrinsic
     logical, intent(in), optional :: pacified
     logical, intent(in), optional :: descriptions
     logical, intent(in), optional :: ascii_output
     type(string_t) :: col_string
     logical :: show_desc, ao
     integer :: u
     u = given_output_unit (unit);  if (u < 0)  return
     show_desc = .false.; if (present (descriptions))  show_desc = descriptions
     ao = .false.; if (present (ascii_output))  ao = ascii_output
     if (show_desc) then
        if (ao) then
           col_string = create_col_string (COL_BLUE)
           if (var%is_locked) then
              write (u, "(A)", advance="no") char (achar(27) // col_string) // &
                   char (var%name) // achar(27) // "[0m" //" fixed-value="
           else
              write (u, "(A)", advance="no") char (achar(27) // col_string) // &
                   char (var%name) // achar(27) // "[0m" //" default="
           end if
           col_string = create_col_string (COL_RED)
           write (u, "(A)", advance="no") char (achar(27) // col_string)
           call var_write_val (var, u, "no", pacified=.true.)
           write (u, "(A)") achar(27) // "[0m"
           write (u, "(A)")  char (var%description)
           return
        else
           write (u, "(A)")  "\item"
           write (u, "(A)", advance="no")  "\ttt{" // char ( &
                replace (replace (var%name, "_", "\_", every=.true.), "$", "\$" )) // &
                "} "
           if (var%is_known) then
              if (var%is_locked) then
                 write (u, "(A)", advance="no")  "\qquad (fixed value: \ttt{"
              else
                 write (u, "(A)", advance="no")  "\qquad (default: \ttt{"
              end if
              call var_write_val (var, u, "no", pacified=.true., escape_tex=.true.)
              write (u, "(A)", advance="no")  "})"
           end if
           write (u, "(A)") " \newline"
           write (u, "(A)") char (var%description)
           write (u, "(A)") "%%%%%"
           return
        end if
     end if
     if (present (intrinsic)) then
        if (var%is_intrinsic .neqv. intrinsic)  return
     end if
     if (.not. var%is_defined) then
        write (u, "(A,1x)", advance="no")  "[undefined]"
     end if
     if (.not. var%is_intrinsic) then
        write (u, "(A,1x)", advance="no")  "[user variable]"
     end if
     if (present (model_name)) then
        write (u, "(A,A)", advance="no")  char(model_name), "."
     end if
     write (u, "(A)", advance="no")  char (var%name)
     if (var%is_locked)  write (u, "(A)", advance="no")  "*"
     if (var%is_allocated) then
        write (u, "(A)", advance="no")  " = "
     else if (var%type /= V_NONE) then
        write (u, "(A)", advance="no")  " => "
     end if
     call var_write_val (var, u, "yes", pacified)
   end subroutine var_entry_write
 
 @ %def var_entry_write
 @
 <<Variables: procedures>>=
   subroutine var_write_val (var, u, advance, pacified, escape_tex)
     type(var_entry_t), intent(in) :: var
     integer, intent(in) :: u
     character(*), intent(in) :: advance
     logical, intent(in), optional :: pacified, escape_tex
     logical :: num_pac, et
     real(default) :: rval
     complex(default) :: cval
     character(len=7) :: fmt
     call pac_fmt (fmt, FMT_19, FMT_12, pacified)
     num_pac = .false.; if (present (pacified))  num_pac = pacified
     et = .false.; if (present (escape_tex))  et = escape_tex
     select case (var%type)
     case (V_NONE); write (u, '()', advance=advance)
     case (V_LOG)
        if (var%is_known) then
           if (var%lval) then
              write (u, "(A)", advance=advance)  "true"
           else
              write (u, "(A)", advance=advance)  "false"
           end if
        else
           write (u, "(A)", advance=advance)  "[unknown logical]"
        end if
     case (V_INT)
        if (var%is_known) then
           write (u, "(I0)", advance=advance)  var%ival
        else
           write (u, "(A)", advance=advance)  "[unknown integer]"
        end if
     case (V_REAL)
        if (var%is_known) then
           rval = var%rval
           if (num_pac) then
              call pacify (rval, 10 * eps0)
           end if
           write (u, "(" // fmt // ")", advance=advance)  rval
        else
           write (u, "(A)", advance=advance)  "[unknown real]"
        end if
     case (V_CMPLX)
        if (var%is_known) then
           cval = var%cval
           if (num_pac) then
              call pacify (cval, 10 * eps0)
           end if
           write (u, "('('," // fmt // ",','," // fmt // ",')')", advance=advance)  cval
        else
           write (u, "(A)", advance=advance)  "[unknown complex]"
        end if
     case (V_SEV)
        if (var%is_known) then
           call var%pval%write (u, prefix="       ", pacified = pacified)
        else
           write (u, "(A)", advance=advance)  "[unknown subevent]"
        end if
     case (V_PDG)
        if (var%is_known) then
           call var%aval%write (u);  write (u, *)
        else
           write (u, "(A)", advance=advance)  "[unknown PDG array]"
        end if
     case (V_STR)
        if (var%is_known) then
           if (et) then
              write (u, "(A)", advance=advance)  '"' // char (replace ( &
                   replace (var%sval, "_", "\_", every=.true.), "$", "\$" )) // '"'
           else
              write (u, "(A)", advance=advance)  '"' // char (var%sval) // '"'
           end if
        else
           write (u, "(A)", advance=advance)  "[unknown string]"
        end if
     case (V_OBS1_INT);  write (u, "(A)", advance=advance) "[int] = unary observable"
     case (V_OBS2_INT);  write (u, "(A)", advance=advance) "[int] = binary observable"
     case (V_OBSEV_INT);  write (u, "(A)", advance=advance) "[int] = subeventary observable"
     case (V_OBS1_REAL); write (u, "(A)", advance=advance) "[real] = unary observable"
     case (V_OBS2_REAL); write (u, "(A)", advance=advance) "[real] = binary observable"
     case (V_OBSEV_REAL); write (u, "(A)", advance=advance) "[real] = subeventary observable"
     case (V_UOBS1_INT);  write (u, "(A)", advance=advance) "[int] = unary user observable"
     case (V_UOBS2_INT);  write (u, "(A)", advance=advance) "[int] = binary user observable"
     case (V_UOBS1_REAL); write (u, "(A)", advance=advance) "[real] = unary user observable"
     case (V_UOBS2_REAL); write (u, "(A)", advance=advance) "[real] = binary user observable"
     end select
   end subroutine var_write_val
 
 @ %def procedure
 @
 \subsubsection{Accessing contents}
 <<Variables: procedures>>=
   function var_entry_get_name (var) result (name)
     type(string_t) :: name
     type(var_entry_t), intent(in) :: var
     name = var%name
   end function var_entry_get_name
 
   function var_entry_get_type (var) result (type)
     integer :: type
     type(var_entry_t), intent(in) :: var
     type = var%type
   end function var_entry_get_type
 
 @ %def var_entry_get_name var_entry_get_type
 @ Return true if the variable is defined.  This the case if it is allocated
 and known, or if it is a pointer.
 <<Variables: procedures>>=
   function var_entry_is_defined (var) result (defined)
     logical :: defined
     type(var_entry_t), intent(in) :: var
     defined = var%is_defined
   end function var_entry_is_defined
 
 @ %def var_entry_is_defined
 @ Return true if the variable is locked.  If [[force]] is active,
 always return false.
 <<Variables: procedures>>=
   function var_entry_is_locked (var, force) result (locked)
     logical :: locked
     type(var_entry_t), intent(in) :: var
     logical, intent(in), optional :: force
     if (present (force)) then
        if (force) then
           locked = .false.;  return
        end if
     end if
     locked = var%is_locked
   end function var_entry_is_locked
 
 @ %def var_entry_is_locked
 @ Return true if the variable is intrinsic
 <<Variables: procedures>>=
   function var_entry_is_intrinsic (var) result (flag)
     logical :: flag
     type(var_entry_t), intent(in) :: var
     flag = var%is_intrinsic
   end function var_entry_is_intrinsic
 
 @ %def var_entry_is_intrinsic
 @ Return components
 <<Variables: procedures>>=
   function var_entry_is_known (var) result (flag)
     logical :: flag
     type(var_entry_t), intent(in) :: var
     flag = var%is_known
   end function var_entry_is_known
 
   function var_entry_get_lval (var) result (lval)
     logical :: lval
     type(var_entry_t), intent(in) :: var
     lval = var%lval
   end function var_entry_get_lval
 
   function var_entry_get_ival (var) result (ival)
     integer :: ival
     type(var_entry_t), intent(in) :: var
     ival = var%ival
   end function var_entry_get_ival
 
   function var_entry_get_rval (var) result (rval)
     real(default) :: rval
     type(var_entry_t), intent(in) :: var
     rval = var%rval
   end function var_entry_get_rval
 
   function var_entry_get_cval (var) result (cval)
     complex(default) :: cval
     type(var_entry_t), intent(in) :: var
     cval = var%cval
   end function var_entry_get_cval
 
   function var_entry_get_aval (var) result (aval)
     type(pdg_array_t) :: aval
     type(var_entry_t), intent(in) :: var
     aval = var%aval
   end function var_entry_get_aval
 
   function var_entry_get_pval (var) result (pval)
     type(subevt_t) :: pval
     type(var_entry_t), intent(in) :: var
     pval = var%pval
   end function var_entry_get_pval
 
   function var_entry_get_sval (var) result (sval)
     type(string_t) :: sval
     type(var_entry_t), intent(in) :: var
     sval = var%sval
   end function var_entry_get_sval
 
 @ %def var_entry_get_lval
 @ %def var_entry_get_ival
 @ %def var_entry_get_rval
 @ %def var_entry_get_cval
 @ %def var_entry_get_aval
 @ %def var_entry_get_pval
 @ %def var_entry_get_sval
 @ Return pointers to components.
 <<Variables: procedures>>=
   function var_entry_get_known_ptr (var) result (ptr)
     logical, pointer :: ptr
     type(var_entry_t), intent(in), target :: var
     ptr => var%is_known
   end function var_entry_get_known_ptr
 
   function var_entry_get_lval_ptr (var) result (ptr)
     logical, pointer :: ptr
     type(var_entry_t), intent(in), target :: var
     ptr => var%lval
   end function var_entry_get_lval_ptr
 
   function var_entry_get_ival_ptr (var) result (ptr)
     integer, pointer :: ptr
     type(var_entry_t), intent(in), target :: var
     ptr => var%ival
   end function var_entry_get_ival_ptr
 
   function var_entry_get_rval_ptr (var) result (ptr)
     real(default), pointer :: ptr
     type(var_entry_t), intent(in), target :: var
     ptr => var%rval
   end function var_entry_get_rval_ptr
 
   function var_entry_get_cval_ptr (var) result (ptr)
     complex(default), pointer :: ptr
     type(var_entry_t), intent(in), target :: var
     ptr => var%cval
   end function var_entry_get_cval_ptr
 
   function var_entry_get_pval_ptr (var) result (ptr)
     type(subevt_t), pointer :: ptr
     type(var_entry_t), intent(in), target :: var
     ptr => var%pval
   end function var_entry_get_pval_ptr
 
   function var_entry_get_aval_ptr (var) result (ptr)
     type(pdg_array_t), pointer :: ptr
     type(var_entry_t), intent(in), target :: var
     ptr => var%aval
   end function var_entry_get_aval_ptr
 
   function var_entry_get_sval_ptr (var) result (ptr)
     type(string_t), pointer :: ptr
     type(var_entry_t), intent(in), target :: var
     ptr => var%sval
   end function var_entry_get_sval_ptr
 
 @ %def var_entry_get_known_ptr
 @ %def var_entry_get_lval_ptr var_entry_get_ival_ptr var_entry_get_rval_ptr
 @ %def var_entry_get_cval_ptr var_entry_get_aval_ptr var_entry_get_pval_ptr
 @ %def var_entry_get_sval_ptr
 @ Furthermore,
 <<Variables: procedures>>=
   function var_entry_get_prt1_ptr (var) result (ptr)
     type(prt_t), pointer :: ptr
     type(var_entry_t), intent(in), target :: var
     ptr => var%prt1
   end function var_entry_get_prt1_ptr
 
   function var_entry_get_prt2_ptr (var) result (ptr)
     type(prt_t), pointer :: ptr
     type(var_entry_t), intent(in), target :: var
     ptr => var%prt2
   end function var_entry_get_prt2_ptr
 
 @ %def var_entry_get_prt1_ptr
 @ %def var_entry_get_prt2_ptr
 @ Subroutines might be safer than functions for procedure pointer transfer.
 <<Variables: procedures>>=
   subroutine var_entry_assign_obs1_int_ptr (ptr, var)
     procedure(obs_unary_int), pointer :: ptr
     type(var_entry_t), intent(in), target :: var
     ptr => var%obs1_int
   end subroutine var_entry_assign_obs1_int_ptr
 
   subroutine var_entry_assign_obs1_real_ptr (ptr, var)
     procedure(obs_unary_real), pointer :: ptr
     type(var_entry_t), intent(in), target :: var
     ptr => var%obs1_real
   end subroutine var_entry_assign_obs1_real_ptr
 
   subroutine var_entry_assign_obs2_int_ptr (ptr, var)
     procedure(obs_binary_int), pointer :: ptr
     type(var_entry_t), intent(in), target :: var
     ptr => var%obs2_int
   end subroutine var_entry_assign_obs2_int_ptr
 
   subroutine var_entry_assign_obs2_real_ptr (ptr, var)
     procedure(obs_binary_real), pointer :: ptr
     type(var_entry_t), intent(in), target :: var
     ptr => var%obs2_real
   end subroutine var_entry_assign_obs2_real_ptr
 
   subroutine var_entry_assign_obsev_int_ptr (ptr, var)
     procedure(obs_sev_int), pointer :: ptr
     type(var_entry_t), intent(in), target :: var
     ptr => var%obsev_int
   end subroutine var_entry_assign_obsev_int_ptr
 
   subroutine var_entry_assign_obsev_real_ptr (ptr, var)
     procedure(obs_sev_real), pointer :: ptr
     type(var_entry_t), intent(in), target :: var
     ptr => var%obsev_real
   end subroutine var_entry_assign_obsev_real_ptr
 
 @ %def var_entry_assign_obs1_int_ptr var_entry_assign_obs1_real_ptr
 @ %def var_entry_assign_obs2_int_ptr var_entry_assign_obs2_real_ptr
 @ %def var_entry_assigbn_obsev_int_ptr var_entry_assign_obsev_real_ptr
 @
 \subsection{Setting values}
 Undefine the value.
 <<Variables: procedures>>=
   subroutine var_entry_clear_value (var)
     type(var_entry_t), intent(inout) :: var
     var%is_known = .false.
   end subroutine var_entry_clear_value
 
 @ %def var_entry_clear_value
 <<Variables: procedures>>=
   recursive subroutine var_entry_set_log &
        (var, lval, is_known, verbose, model_name)
     type(var_entry_t), intent(inout) :: var
     logical, intent(in) :: lval
     logical, intent(in) :: is_known
     logical, intent(in), optional :: verbose
     type(string_t), intent(in), optional :: model_name
     integer :: u
     u = logfile_unit ()
     var%lval = lval
     var%is_known = is_known
     var%is_defined = .true.
     if (present (verbose)) then
        if (verbose) then
           call var_entry_write (var, model_name=model_name)
           call var_entry_write (var, model_name=model_name, unit=u)
           if (u >= 0) flush (u)
        end if
     end if
   end subroutine var_entry_set_log
 
   recursive subroutine var_entry_set_int &
        (var, ival, is_known, verbose, model_name)
     type(var_entry_t), intent(inout) :: var
     integer, intent(in) :: ival
     logical, intent(in) :: is_known
     logical, intent(in), optional :: verbose
     type(string_t), intent(in), optional :: model_name
     integer :: u
     u = logfile_unit ()
     var%ival = ival
     var%is_known = is_known
     var%is_defined = .true.
     if (present (verbose)) then
        if (verbose) then
           call var_entry_write (var, model_name=model_name)
           call var_entry_write (var, model_name=model_name, unit=u)
           if (u >= 0) flush (u)
        end if
     end if
   end subroutine var_entry_set_int
 
   recursive subroutine var_entry_set_real &
        (var, rval, is_known, verbose, model_name, pacified)
     type(var_entry_t), intent(inout) :: var
     real(default), intent(in) :: rval
     logical, intent(in) :: is_known
     logical, intent(in), optional :: verbose, pacified
     type(string_t), intent(in), optional :: model_name
     integer :: u
     u = logfile_unit ()
     var%rval = rval
     var%is_known = is_known
     var%is_defined = .true.
     if (present (verbose)) then
        if (verbose) then
           call var_entry_write &
                (var, model_name=model_name, pacified = pacified)
           call var_entry_write &
                (var, model_name=model_name, unit=u, pacified = pacified)
           if (u >= 0) flush (u)
        end if
     end if
   end subroutine var_entry_set_real
 
   recursive subroutine var_entry_set_cmplx &
        (var, cval, is_known, verbose, model_name, pacified)
     type(var_entry_t), intent(inout) :: var
     complex(default), intent(in) :: cval
     logical, intent(in) :: is_known
     logical, intent(in), optional :: verbose, pacified
     type(string_t), intent(in), optional :: model_name
     integer :: u
     u = logfile_unit ()
     var%cval = cval
     var%is_known = is_known
     var%is_defined = .true.
     if (present (verbose)) then
        if (verbose) then
           call var_entry_write &
                (var, model_name=model_name, pacified = pacified)
           call var_entry_write &
                (var, model_name=model_name, unit=u, pacified = pacified)
           if (u >= 0) flush (u)
        end if
     end if
   end subroutine var_entry_set_cmplx
 
   recursive subroutine var_entry_set_pdg_array &
        (var, aval, is_known, verbose, model_name)
     type(var_entry_t), intent(inout) :: var
     type(pdg_array_t), intent(in) :: aval
     logical, intent(in) :: is_known
     logical, intent(in), optional :: verbose
     type(string_t), intent(in), optional :: model_name
     integer :: u
     u = logfile_unit ()
     var%aval = aval
     var%is_known = is_known
     var%is_defined = .true.
     if (present (verbose)) then
        if (verbose) then
           call var_entry_write (var, model_name=model_name)
           call var_entry_write (var, model_name=model_name, unit=u)
           if (u >= 0) flush (u)
        end if
     end if
   end subroutine var_entry_set_pdg_array
 
   recursive subroutine var_entry_set_subevt &
        (var, pval, is_known, verbose, model_name)
     type(var_entry_t), intent(inout) :: var
     type(subevt_t), intent(in) :: pval
     logical, intent(in) :: is_known
     logical, intent(in), optional :: verbose
     type(string_t), intent(in), optional :: model_name
     integer :: u
     u = logfile_unit ()
     var%pval = pval
     var%is_known = is_known
     var%is_defined = .true.
     if (present (verbose)) then
        if (verbose) then
           call var_entry_write (var, model_name=model_name)
           call var_entry_write (var, model_name=model_name, unit=u)
           if (u >= 0) flush (u)
        end if
     end if
   end subroutine var_entry_set_subevt
 
   recursive subroutine var_entry_set_string &
        (var, sval, is_known, verbose, model_name)
     type(var_entry_t), intent(inout) :: var
     type(string_t), intent(in) :: sval
     logical, intent(in) :: is_known
     logical, intent(in), optional :: verbose
     type(string_t), intent(in), optional :: model_name
     integer :: u
     u = logfile_unit ()
     var%sval = sval
     var%is_known = is_known
     var%is_defined = .true.
     if (present (verbose)) then
        if (verbose) then
           call var_entry_write (var, model_name=model_name)
           call var_entry_write (var, model_name=model_name, unit=u)
           if (u >= 0) flush (u)
        end if
     end if
   end subroutine var_entry_set_string
 
 @ %def var_entry_set_log
 @ %def var_entry_set_int
 @ %def var_entry_set_real
 @ %def var_entry_set_cmplx
 @ %def var_entry_set_pdg_array
 @ %def var_entry_set_subevt
 @ %def var_entry_set_string
 @
 <<Variables: procedures>>=
   pure subroutine var_entry_set_description (var_entry, description)
     type(var_entry_t), intent(inout) :: var_entry
     type(string_t), intent(in) :: description
     var_entry%description = description
   end subroutine var_entry_set_description
 
 @ %def var_entry_set_description
 @
 \subsection{Copies and pointer variables}
 Initialize an entry with a copy of an existing variable entry.  The
 copy is physically allocated with the same type as the original.
 <<Variables: procedures>>=
   subroutine var_entry_init_copy (var, original, user)
     type(var_entry_t), intent(out) :: var
     type(var_entry_t), intent(in), target :: original
     logical, intent(in), optional :: user
     type(string_t) :: name
     logical :: intrinsic
     name = var_entry_get_name (original)
     intrinsic = original%is_intrinsic
     select case (original%type)
     case (V_LOG)
        call var_entry_init_log (var, name, intrinsic=intrinsic, user=user)
     case (V_INT)
        call var_entry_init_int (var, name, intrinsic=intrinsic, user=user)
     case (V_REAL)
        call var_entry_init_real (var, name, intrinsic=intrinsic, user=user)
     case (V_CMPLX)
        call var_entry_init_cmplx (var, name, intrinsic=intrinsic, user=user)
     case (V_SEV)
        call var_entry_init_subevt (var, name, intrinsic=intrinsic, user=user)
     case (V_PDG)
        call var_entry_init_pdg_array (var, name, intrinsic=intrinsic, user=user)
     case (V_STR)
        call var_entry_init_string (var, name, intrinsic=intrinsic, user=user)
     end select
   end subroutine var_entry_init_copy
 
 @ %def var_entry_init_copy
 @ Copy the value of an entry.  The target variable entry must be initialized
 correctly.
 <<Variables: procedures>>=
   subroutine var_entry_copy_value (var, original)
     type(var_entry_t), intent(inout) :: var
     type(var_entry_t), intent(in), target :: original
     if (var_entry_is_known (original)) then
        select case (original%type)
        case (V_LOG)
           call var_entry_set_log (var, var_entry_get_lval (original), .true.)
        case (V_INT)
           call var_entry_set_int (var, var_entry_get_ival (original), .true.)
        case (V_REAL)
           call var_entry_set_real (var, var_entry_get_rval (original), .true.)
        case (V_CMPLX)
           call var_entry_set_cmplx (var, var_entry_get_cval (original), .true.)
        case (V_SEV)
           call var_entry_set_subevt (var, var_entry_get_pval (original), .true.)
        case (V_PDG)
           call var_entry_set_pdg_array (var, var_entry_get_aval (original), .true.)
        case (V_STR)
           call var_entry_set_string (var, var_entry_get_sval (original), .true.)
        end select
     else
        call var_entry_clear (var)
     end if
   end subroutine var_entry_copy_value
 
 @ %def var_entry_copy_value
 @
 \subsection{Variable lists}
 \subsubsection{The type}
 Variable lists can be linked together.  No initializer needed.
 They are deleted separately.
 <<Variables: public>>=
   public :: var_list_t
 <<Variables: types>>=
   type, extends (vars_t) :: var_list_t
      private
      type(var_entry_t), pointer :: first => null ()
      type(var_entry_t), pointer :: last => null ()
      type(var_list_t), pointer :: next => null ()
    contains
    <<Variables: var list: TBP>>
   end type var_list_t
 
 @ %def var_list_t
 @
 \subsubsection{Constructors}
 Implementation of the [[link]] deferred method.  The implementation
 restricts itself to var lists of the same type.  We might need to
 relax this constraint.
 <<Variables: var list: TBP>>=
   procedure :: link => var_list_link
 <<Variables: sub interfaces>>=
     module subroutine var_list_link (vars, target_vars)
       class(var_list_t), intent(inout) :: vars
       class(vars_t), intent(in), target :: target_vars
     end subroutine var_list_link
 <<Variables: procedures>>=
   module subroutine var_list_link (vars, target_vars)
     class(var_list_t), intent(inout) :: vars
     class(vars_t), intent(in), target :: target_vars
     select type (target_vars)
     type is (var_list_t)
        vars%next => target_vars
     class default
        call msg_bug ("var_list_link: unsupported target type")
     end select
   end subroutine var_list_link
 
 @ %def var_list_link
 @ Append a new entry to an existing list.
 <<Variables: procedures>>=
   subroutine var_list_append (var_list, var, verbose)
     type(var_list_t), intent(inout), target :: var_list
     type(var_entry_t), intent(inout), target :: var
     logical, intent(in), optional :: verbose
     if (associated (var_list%last)) then
        var%previous => var_list%last
        var_list%last%next => var
     else
        var%previous => null ()
        var_list%first => var
     end if
     var_list%last => var
     if (present (verbose)) then
        if (verbose)  call var_entry_write (var)
     end if
   end subroutine var_list_append
 
 @ %def var_list_append
 @ Sort a list.
 <<Variables: var list: TBP>>=
   procedure :: sort => var_list_sort
 <<Variables: sub interfaces>>=
     module subroutine var_list_sort (var_list)
       class(var_list_t), intent(inout) :: var_list
     end subroutine var_list_sort
 <<Variables: procedures>>=
   module subroutine var_list_sort (var_list)
     class(var_list_t), intent(inout) :: var_list
     type(var_entry_t), pointer :: var, previous
     if (associated (var_list%first)) then
        var => var_list%first
        do while (associated (var))
           previous => var%previous
           do while (associated (previous))
              if (larger_var (previous, var)) then
                 call var_list%swap_with_next (previous)
              end if
              previous => previous%previous
           end do
           var => var%next
        end do
     end if
   end subroutine var_list_sort
 
 @ %def var_list_sort
 @
 <<Variables: procedures>>=
   pure function larger_var (var1, var2) result (larger)
     logical :: larger
     type(var_entry_t), intent(in) :: var1, var2
     type(string_t) :: str1, str2
     str1 = replace (var1%name, "?", "")
     str1 = replace (str1, "$", "")
     str2 = replace (var2%name, "?", "")
     str2 = replace (str2, "$", "")
     larger = str1 > str2
   end function larger_var
 
 @ %def larger_var
 @
 <<Variables: var list: TBP>>=
   procedure :: get_previous => var_list_get_previous
 <<Variables: sub interfaces>>=
     module function var_list_get_previous &
          (var_list, var_entry) result (previous)
       type(var_entry_t), pointer :: previous
       class(var_list_t), intent(in) :: var_list
       type(var_entry_t), intent(in) :: var_entry
     end function var_list_get_previous
 <<Variables: procedures>>=
   module function var_list_get_previous &
        (var_list, var_entry) result (previous)
     type(var_entry_t), pointer :: previous
     class(var_list_t), intent(in) :: var_list
     type(var_entry_t), intent(in) :: var_entry
     previous => var_list%first
     if (previous%name == var_entry%name) then
        previous => null ()
     else
        do while (associated (previous))
           if (previous%next%name == var_entry%name) exit
           previous => previous%next
        end do
     end if
   end function var_list_get_previous
 
 @ %def var_list_get_previous
 @
 <<Variables: var list: TBP>>=
   procedure :: swap_with_next => var_list_swap_with_next
 <<Variables: sub interfaces>>=
     module subroutine var_list_swap_with_next (var_list, var_entry)
       class(var_list_t), intent(inout) :: var_list
       type(var_entry_t), intent(in) :: var_entry
     end subroutine var_list_swap_with_next
 <<Variables: procedures>>=
   module subroutine var_list_swap_with_next (var_list, var_entry)
     class(var_list_t), intent(inout) :: var_list
     type(var_entry_t), intent(in) :: var_entry
     type(var_entry_t), pointer :: previous, this, next, next_next
     previous => var_list%get_previous (var_entry)
     if (.not. associated (previous)) then
        this => var_list%first
     else
        this => previous%next
     end if
     next => this%next
     next_next => next%next
     if (associated (previous)) then
        previous%next => next
        next%previous => previous
     else
        var_list%first => next
        next%previous => null ()
     end if
     this%next => next_next
     if (associated (next_next)) then
        next_next%previous => this
     end if
     next%next => this
     this%previous => next
     if (.not. associated (next%next)) then
        var_list%last => next
     end if
   end subroutine var_list_swap_with_next
 
 @ %def var_list_swap_with_next
 @ Public methods for expanding the variable list (as subroutines)
 <<Variables: var list: TBP>>=
   generic :: append_log => var_list_append_log_s, var_list_append_log_c
   procedure, private :: var_list_append_log_s
   procedure, private :: var_list_append_log_c
   generic :: append_int => var_list_append_int_s, var_list_append_int_c
   procedure, private :: var_list_append_int_s
   procedure, private :: var_list_append_int_c
   generic :: append_real => var_list_append_real_s, var_list_append_real_c
   procedure, private :: var_list_append_real_s
   procedure, private :: var_list_append_real_c
   generic :: append_cmplx => var_list_append_cmplx_s, var_list_append_cmplx_c
   procedure, private :: var_list_append_cmplx_s
   procedure, private :: var_list_append_cmplx_c
   generic :: append_subevt => var_list_append_subevt_s, var_list_append_subevt_c
   procedure, private :: var_list_append_subevt_s
   procedure, private :: var_list_append_subevt_c
   generic :: append_pdg_array => var_list_append_pdg_array_s, var_list_append_pdg_array_c
   procedure, private :: var_list_append_pdg_array_s
   procedure, private :: var_list_append_pdg_array_c
   generic :: append_string => var_list_append_string_s, var_list_append_string_c
   procedure, private :: var_list_append_string_s
   procedure, private :: var_list_append_string_c
 <<Variables: interfaces>>=
   interface var_list_append_log
      module procedure var_list_append_log_s
      module procedure var_list_append_log_c
   end interface
   interface var_list_append_int
      module procedure var_list_append_int_s
      module procedure var_list_append_int_c
   end interface
   interface var_list_append_real
      module procedure var_list_append_real_s
      module procedure var_list_append_real_c
   end interface
   interface var_list_append_cmplx
      module procedure var_list_append_cmplx_s
      module procedure var_list_append_cmplx_c
   end interface
   interface var_list_append_subevt
      module procedure var_list_append_subevt_s
      module procedure var_list_append_subevt_c
   end interface
   interface var_list_append_pdg_array
      module procedure var_list_append_pdg_array_s
      module procedure var_list_append_pdg_array_c
   end interface
   interface var_list_append_string
      module procedure var_list_append_string_s
      module procedure var_list_append_string_c
   end interface
 <<Variables: sub interfaces>>=
     module subroutine var_list_append_log_s &
          (var_list, name, lval, locked, verbose, intrinsic, user, description)
       class(var_list_t), intent(inout) :: var_list
       type(string_t), intent(in) :: name
       logical, intent(in), optional :: lval
       logical, intent(in), optional :: locked, verbose, intrinsic, user
       type(string_t), intent(in), optional :: description
     end subroutine var_list_append_log_s
     module subroutine var_list_append_int_s &
          (var_list, name, ival, locked, verbose, intrinsic, user, description)
       class(var_list_t), intent(inout) :: var_list
       type(string_t), intent(in) :: name
       integer, intent(in), optional :: ival
       logical, intent(in), optional :: locked, verbose, intrinsic, user
       type(string_t), intent(in), optional :: description
     end subroutine var_list_append_int_s
     module subroutine var_list_append_real_s &
          (var_list, name, rval, locked, verbose, intrinsic, user, description)
       class(var_list_t), intent(inout) :: var_list
       type(string_t), intent(in) :: name
       real(default), intent(in), optional :: rval
       logical, intent(in), optional :: locked, verbose, intrinsic, user
       type(string_t), intent(in), optional :: description
     end subroutine var_list_append_real_s
     module subroutine var_list_append_cmplx_s &
          (var_list, name, cval, locked, verbose, intrinsic, user, description)
       class(var_list_t), intent(inout) :: var_list
       type(string_t), intent(in) :: name
       complex(default), intent(in), optional :: cval
       logical, intent(in), optional :: locked, verbose, intrinsic, user
       type(string_t), intent(in), optional :: description
     end subroutine var_list_append_cmplx_s
     module subroutine var_list_append_subevt_s &
          (var_list, name, pval, locked, verbose, intrinsic, user, description)
       class(var_list_t), intent(inout) :: var_list
       type(string_t), intent(in) :: name
       type(subevt_t), intent(in), optional :: pval
       logical, intent(in), optional :: locked, verbose, intrinsic, user
       type(string_t), intent(in), optional :: description
     end subroutine var_list_append_subevt_s
     module subroutine var_list_append_pdg_array_s &
          (var_list, name, aval, locked, verbose, intrinsic, user, description)
       class(var_list_t), intent(inout) :: var_list
       type(string_t), intent(in) :: name
       type(pdg_array_t), intent(in), optional :: aval
       logical, intent(in), optional :: locked, verbose, intrinsic, user
       type(string_t), intent(in), optional :: description
     end subroutine var_list_append_pdg_array_s
     module subroutine var_list_append_string_s &
          (var_list, name, sval, locked, verbose, intrinsic, user, description)
       class(var_list_t), intent(inout) :: var_list
       type(string_t), intent(in) :: name
       type(string_t), intent(in), optional :: sval
       logical, intent(in), optional :: locked, verbose, intrinsic, user
       type(string_t), intent(in), optional :: description
     end subroutine var_list_append_string_s
     module subroutine var_list_append_log_c &
          (var_list, name, lval, locked, verbose, intrinsic, user, description)
       class(var_list_t), intent(inout) :: var_list
       character(*), intent(in) :: name
       logical, intent(in), optional :: lval
       logical, intent(in), optional :: locked, verbose, intrinsic, user
       type(string_t), intent(in), optional :: description
     end subroutine var_list_append_log_c
     module subroutine var_list_append_int_c &
          (var_list, name, ival, locked, verbose, intrinsic, user, description)
       class(var_list_t), intent(inout) :: var_list
       character(*), intent(in) :: name
       integer, intent(in), optional :: ival
       logical, intent(in), optional :: locked, verbose, intrinsic, user
       type(string_t), intent(in), optional :: description
     end subroutine var_list_append_int_c
     module subroutine var_list_append_real_c &
          (var_list, name, rval, locked, verbose, intrinsic, user, description)
       class(var_list_t), intent(inout) :: var_list
       character(*), intent(in) :: name
       real(default), intent(in), optional :: rval
       logical, intent(in), optional :: locked, verbose, intrinsic, user
       type(string_t), intent(in), optional :: description
     end subroutine var_list_append_real_c
     module subroutine var_list_append_cmplx_c &
          (var_list, name, cval, locked, verbose, intrinsic, user, description)
       class(var_list_t), intent(inout) :: var_list
       character(*), intent(in) :: name
       complex(default), intent(in), optional :: cval
       logical, intent(in), optional :: locked, verbose, intrinsic, user
       type(string_t), intent(in), optional :: description
     end subroutine var_list_append_cmplx_c
     module subroutine var_list_append_subevt_c &
          (var_list, name, pval, locked, verbose, intrinsic, user, description)
       class(var_list_t), intent(inout) :: var_list
       character(*), intent(in) :: name
       type(subevt_t), intent(in), optional :: pval
       logical, intent(in), optional :: locked, verbose, intrinsic, user
       type(string_t), intent(in), optional :: description
     end subroutine var_list_append_subevt_c
     module subroutine var_list_append_pdg_array_c &
          (var_list, name, aval, locked, verbose, intrinsic, user, description)
       class(var_list_t), intent(inout) :: var_list
       character(*), intent(in) :: name
       type(pdg_array_t), intent(in), optional :: aval
       logical, intent(in), optional :: locked, verbose, intrinsic, user
       type(string_t), intent(in), optional :: description
     end subroutine var_list_append_pdg_array_c
     module subroutine var_list_append_string_c &
          (var_list, name, sval, locked, verbose, intrinsic, user, description)
       class(var_list_t), intent(inout) :: var_list
       character(*), intent(in) :: name
       character(*), intent(in), optional :: sval
       logical, intent(in), optional :: locked, verbose, intrinsic, user
       type(string_t), intent(in), optional :: description
     end subroutine var_list_append_string_c
 <<Variables: procedures>>=
   module subroutine var_list_append_log_s &
        (var_list, name, lval, locked, verbose, intrinsic, user, description)
     class(var_list_t), intent(inout) :: var_list
     type(string_t), intent(in) :: name
     logical, intent(in), optional :: lval
     logical, intent(in), optional :: locked, verbose, intrinsic, user
     type(string_t), intent(in), optional :: description
     type(var_entry_t), pointer :: var
     allocate (var)
     call var_entry_init_log (var, name, lval, intrinsic, user)
     if (present (description))  call var_entry_set_description (var, description)
     if (present (locked))  call var_entry_lock (var, locked)
     call var_list_append (var_list, var, verbose)
   end subroutine var_list_append_log_s
 
   module subroutine var_list_append_int_s &
        (var_list, name, ival, locked, verbose, intrinsic, user, description)
     class(var_list_t), intent(inout) :: var_list
     type(string_t), intent(in) :: name
     integer, intent(in), optional :: ival
     logical, intent(in), optional :: locked, verbose, intrinsic, user
     type(string_t), intent(in), optional :: description
     type(var_entry_t), pointer :: var
     allocate (var)
     call var_entry_init_int (var, name, ival, intrinsic, user)
     if (present (description))  call var_entry_set_description (var, description)
     if (present (locked))  call var_entry_lock (var, locked)
     call var_list_append (var_list, var, verbose)
   end subroutine var_list_append_int_s
 
   module subroutine var_list_append_real_s &
        (var_list, name, rval, locked, verbose, intrinsic, user, description)
     class(var_list_t), intent(inout) :: var_list
     type(string_t), intent(in) :: name
     real(default), intent(in), optional :: rval
     logical, intent(in), optional :: locked, verbose, intrinsic, user
     type(string_t), intent(in), optional :: description
     type(var_entry_t), pointer :: var
     allocate (var)
     call var_entry_init_real (var, name, rval, intrinsic, user)
     if (present (description))  call var_entry_set_description (var, description)
     if (present (locked))  call var_entry_lock (var, locked)
     call var_list_append (var_list, var, verbose)
   end subroutine var_list_append_real_s
 
   module subroutine var_list_append_cmplx_s &
        (var_list, name, cval, locked, verbose, intrinsic, user, description)
     class(var_list_t), intent(inout) :: var_list
     type(string_t), intent(in) :: name
     complex(default), intent(in), optional :: cval
     logical, intent(in), optional :: locked, verbose, intrinsic, user
     type(string_t), intent(in), optional :: description
     type(var_entry_t), pointer :: var
     allocate (var)
     call var_entry_init_cmplx (var, name, cval, intrinsic, user)
     if (present (description))  call var_entry_set_description (var, description)
     if (present (locked))  call var_entry_lock (var, locked)
     call var_list_append (var_list, var, verbose)
   end subroutine var_list_append_cmplx_s
 
   module subroutine var_list_append_subevt_s &
        (var_list, name, pval, locked, verbose, intrinsic, user, description)
     class(var_list_t), intent(inout) :: var_list
     type(string_t), intent(in) :: name
     type(subevt_t), intent(in), optional :: pval
     logical, intent(in), optional :: locked, verbose, intrinsic, user
     type(string_t), intent(in), optional :: description
     type(var_entry_t), pointer :: var
     allocate (var)
     call var_entry_init_subevt (var, name, pval, intrinsic, user)
     if (present (description))  call var_entry_set_description (var, description)
     if (present (locked))  call var_entry_lock (var, locked)
     call var_list_append (var_list, var, verbose)
   end subroutine var_list_append_subevt_s
 
   module subroutine var_list_append_pdg_array_s &
        (var_list, name, aval, locked, verbose, intrinsic, user, description)
     class(var_list_t), intent(inout) :: var_list
     type(string_t), intent(in) :: name
     type(pdg_array_t), intent(in), optional :: aval
     logical, intent(in), optional :: locked, verbose, intrinsic, user
     type(string_t), intent(in), optional :: description
     type(var_entry_t), pointer :: var
     allocate (var)
     call var_entry_init_pdg_array (var, name, aval, intrinsic, user)
     if (present (description))  call var_entry_set_description (var, description)
     if (present (locked))  call var_entry_lock (var, locked)
     call var_list_append (var_list, var, verbose)
   end subroutine var_list_append_pdg_array_s
 
   module subroutine var_list_append_string_s &
        (var_list, name, sval, locked, verbose, intrinsic, user, description)
     class(var_list_t), intent(inout) :: var_list
     type(string_t), intent(in) :: name
     type(string_t), intent(in), optional :: sval
     logical, intent(in), optional :: locked, verbose, intrinsic, user
     type(string_t), intent(in), optional :: description
     type(var_entry_t), pointer :: var
     allocate (var)
     call var_entry_init_string (var, name, sval, intrinsic, user)
     if (present (description))  call var_entry_set_description (var, description)
     if (present (locked))  call var_entry_lock (var, locked)
     call var_list_append (var_list, var, verbose)
   end subroutine var_list_append_string_s
 
   module subroutine var_list_append_log_c &
        (var_list, name, lval, locked, verbose, intrinsic, user, description)
     class(var_list_t), intent(inout) :: var_list
     character(*), intent(in) :: name
     logical, intent(in), optional :: lval
     logical, intent(in), optional :: locked, verbose, intrinsic, user
     type(string_t), intent(in), optional :: description
     call var_list_append_log_s &
          (var_list, var_str (name), lval, locked, verbose, &
          intrinsic, user, description)
   end subroutine var_list_append_log_c
 
   module subroutine var_list_append_int_c &
        (var_list, name, ival, locked, verbose, intrinsic, user, description)
     class(var_list_t), intent(inout) :: var_list
     character(*), intent(in) :: name
     integer, intent(in), optional :: ival
     logical, intent(in), optional :: locked, verbose, intrinsic, user
     type(string_t), intent(in), optional :: description
     call var_list_append_int_s &
          (var_list, var_str (name), ival, locked, verbose, &
          intrinsic, user, description)
   end subroutine var_list_append_int_c
 
   module subroutine var_list_append_real_c &
        (var_list, name, rval, locked, verbose, intrinsic, user, description)
     class(var_list_t), intent(inout) :: var_list
     character(*), intent(in) :: name
     real(default), intent(in), optional :: rval
     logical, intent(in), optional :: locked, verbose, intrinsic, user
     type(string_t), intent(in), optional :: description
     call var_list_append_real_s &
          (var_list, var_str (name), rval, locked, verbose, &
          intrinsic, user, description)
   end subroutine var_list_append_real_c
 
   module subroutine var_list_append_cmplx_c &
        (var_list, name, cval, locked, verbose, intrinsic, user, description)
     class(var_list_t), intent(inout) :: var_list
     character(*), intent(in) :: name
     complex(default), intent(in), optional :: cval
     logical, intent(in), optional :: locked, verbose, intrinsic, user
     type(string_t), intent(in), optional :: description
     call var_list_append_cmplx_s &
          (var_list, var_str (name), cval, locked, verbose, &
          intrinsic, user, description)
   end subroutine var_list_append_cmplx_c
 
   module subroutine var_list_append_subevt_c &
        (var_list, name, pval, locked, verbose, intrinsic, user, description)
     class(var_list_t), intent(inout) :: var_list
     character(*), intent(in) :: name
     type(subevt_t), intent(in), optional :: pval
     logical, intent(in), optional :: locked, verbose, intrinsic, user
     type(string_t), intent(in), optional :: description
     call var_list_append_subevt_s &
          (var_list, var_str (name), pval, locked, verbose, &
          intrinsic, user, description)
   end subroutine var_list_append_subevt_c
 
   module subroutine var_list_append_pdg_array_c &
        (var_list, name, aval, locked, verbose, intrinsic, user, description)
     class(var_list_t), intent(inout) :: var_list
     character(*), intent(in) :: name
     type(pdg_array_t), intent(in), optional :: aval
     logical, intent(in), optional :: locked, verbose, intrinsic, user
     type(string_t), intent(in), optional :: description
     call var_list_append_pdg_array_s &
          (var_list, var_str (name), aval, locked, verbose, &
          intrinsic, user, description)
   end subroutine var_list_append_pdg_array_c
 
   module subroutine var_list_append_string_c &
        (var_list, name, sval, locked, verbose, intrinsic, user, description)
     class(var_list_t), intent(inout) :: var_list
     character(*), intent(in) :: name
     character(*), intent(in), optional :: sval
     logical, intent(in), optional :: locked, verbose, intrinsic, user
     type(string_t), intent(in), optional :: description
     if (present (sval)) then
        call var_list_append_string_s &
             (var_list, var_str (name), var_str (sval), &
             locked, verbose, intrinsic, user, description)
     else
        call var_list_append_string_s &
             (var_list, var_str (name), &
             locked=locked, verbose=verbose, intrinsic=intrinsic, &
             user=user, description=description)
     end if
   end subroutine var_list_append_string_c
 
 @ %def var_list_append_log
 @ %def var_list_append_int
 @ %def var_list_append_real
 @ %def var_list_append_cmplx
 @ %def var_list_append_subevt
 @ %def var_list_append_pdg_array
 @ %def var_list_append_string
 <<Variables: var list: TBP>>=
   procedure :: append_log_ptr => var_list_append_log_ptr
   procedure :: append_int_ptr => var_list_append_int_ptr
   procedure :: append_real_ptr => var_list_append_real_ptr
   procedure :: append_cmplx_ptr => var_list_append_cmplx_ptr
   procedure :: append_pdg_array_ptr => var_list_append_pdg_array_ptr
   procedure :: append_subevt_ptr => var_list_append_subevt_ptr
   procedure :: append_string_ptr => var_list_append_string_ptr
 <<Variables: sub interfaces>>=
     module subroutine var_list_append_log_ptr &
          (var_list, name, lval, is_known, locked, verbose, &
           intrinsic, description)
       class(var_list_t), intent(inout) :: var_list
       type(string_t), intent(in) :: name
       logical, intent(in), target :: lval
       logical, intent(in), target :: is_known
       logical, intent(in), optional :: locked, verbose, intrinsic
       type(string_t), intent(in), optional :: description
     end subroutine var_list_append_log_ptr
     module subroutine var_list_append_int_ptr &
          (var_list, name, ival, is_known, locked, verbose, &
           intrinsic, description)
       class(var_list_t), intent(inout) :: var_list
       type(string_t), intent(in) :: name
       integer, intent(in), target :: ival
       logical, intent(in), target :: is_known
       logical, intent(in), optional :: locked, verbose, intrinsic
       type(string_t), intent(in), optional :: description
     end subroutine var_list_append_int_ptr
     module subroutine var_list_append_real_ptr &
          (var_list, name, rval, is_known, locked, verbose, &
           intrinsic, description)
       class(var_list_t), intent(inout) :: var_list
       type(string_t), intent(in) :: name
       real(default), intent(in), target :: rval
       logical, intent(in), target :: is_known
       logical, intent(in), optional :: locked, verbose, intrinsic
       type(string_t), intent(in), optional :: description
     end subroutine var_list_append_real_ptr
     module subroutine var_list_append_cmplx_ptr &
          (var_list, name, cval, is_known, locked, verbose, &
           intrinsic, description)
       class(var_list_t), intent(inout) :: var_list
       type(string_t), intent(in) :: name
       complex(default), intent(in), target :: cval
       logical, intent(in), target :: is_known
       logical, intent(in), optional :: locked, verbose, intrinsic
       type(string_t), intent(in), optional :: description
     end subroutine var_list_append_cmplx_ptr
     module subroutine var_list_append_pdg_array_ptr &
          (var_list, name, aval, is_known, locked, verbose, &
           intrinsic, description)
       class(var_list_t), intent(inout) :: var_list
       type(string_t), intent(in) :: name
       type(pdg_array_t), intent(in), target :: aval
       logical, intent(in), target :: is_known
       logical, intent(in), optional :: locked, verbose, intrinsic
       type(string_t), intent(in), optional :: description
     end subroutine var_list_append_pdg_array_ptr
     module subroutine var_list_append_subevt_ptr &
          (var_list, name, pval, is_known, locked, verbose, &
           intrinsic, description)
       class(var_list_t), intent(inout) :: var_list
       type(string_t), intent(in) :: name
       type(subevt_t), intent(in), target :: pval
       logical, intent(in), target :: is_known
       logical, intent(in), optional :: locked, verbose, intrinsic
       type(string_t), intent(in), optional :: description
     end subroutine var_list_append_subevt_ptr
     module subroutine var_list_append_string_ptr &
          (var_list, name, sval, is_known, locked, verbose, &
           intrinsic, description)
       class(var_list_t), intent(inout) :: var_list
       type(string_t), intent(in) :: name
       type(string_t), intent(in), target :: sval
       logical, intent(in), target :: is_known
       logical, intent(in), optional :: locked, verbose, intrinsic
       type(string_t), intent(in), optional :: description
     end subroutine var_list_append_string_ptr
 <<Variables: procedures>>=
   module subroutine var_list_append_log_ptr &
        (var_list, name, lval, is_known, locked, verbose, &
         intrinsic, description)
     class(var_list_t), intent(inout) :: var_list
     type(string_t), intent(in) :: name
     logical, intent(in), target :: lval
     logical, intent(in), target :: is_known
     logical, intent(in), optional :: locked, verbose, intrinsic
     type(string_t), intent(in), optional :: description
     type(var_entry_t), pointer :: var
     allocate (var)
     call var_entry_init_log_ptr (var, name, lval, is_known, intrinsic)
     if (present (description))  &
          call var_entry_set_description (var, description)
     if (present (locked))  call var_entry_lock (var, locked)
     call var_list_append (var_list, var, verbose)
   end subroutine var_list_append_log_ptr
 
   module subroutine var_list_append_int_ptr &
        (var_list, name, ival, is_known, locked, verbose, intrinsic, description)
     class(var_list_t), intent(inout) :: var_list
     type(string_t), intent(in) :: name
     integer, intent(in), target :: ival
     logical, intent(in), target :: is_known
     logical, intent(in), optional :: locked, verbose, intrinsic
     type(string_t), intent(in), optional :: description
     type(var_entry_t), pointer :: var
     allocate (var)
     call var_entry_init_int_ptr (var, name, ival, is_known, intrinsic)
     if (present (description))  call var_entry_set_description (var, description)
     if (present (locked))  call var_entry_lock (var, locked)
     call var_list_append (var_list, var, verbose)
   end subroutine var_list_append_int_ptr
 
   module subroutine var_list_append_real_ptr &
        (var_list, name, rval, is_known, locked, verbose, intrinsic, description)
     class(var_list_t), intent(inout) :: var_list
     type(string_t), intent(in) :: name
     real(default), intent(in), target :: rval
     logical, intent(in), target :: is_known
     logical, intent(in), optional :: locked, verbose, intrinsic
     type(string_t), intent(in), optional :: description
     type(var_entry_t), pointer :: var
     allocate (var)
     call var_entry_init_real_ptr (var, name, rval, is_known, intrinsic)
     if (present (description))  call var_entry_set_description (var, description)
     if (present (locked))  call var_entry_lock (var, locked)
     call var_list_append (var_list, var, verbose)
   end subroutine var_list_append_real_ptr
 
   module subroutine var_list_append_cmplx_ptr &
        (var_list, name, cval, is_known, locked, verbose, intrinsic, description)
     class(var_list_t), intent(inout) :: var_list
     type(string_t), intent(in) :: name
     complex(default), intent(in), target :: cval
     logical, intent(in), target :: is_known
     logical, intent(in), optional :: locked, verbose, intrinsic
     type(string_t), intent(in), optional :: description
     type(var_entry_t), pointer :: var
     allocate (var)
     call var_entry_init_cmplx_ptr (var, name, cval, is_known, intrinsic)
     if (present (description))  call var_entry_set_description (var, description)
     if (present (locked))  call var_entry_lock (var, locked)
     call var_list_append (var_list, var, verbose)
   end subroutine var_list_append_cmplx_ptr
 
   module subroutine var_list_append_pdg_array_ptr &
        (var_list, name, aval, is_known, locked, verbose, intrinsic, description)
     class(var_list_t), intent(inout) :: var_list
     type(string_t), intent(in) :: name
     type(pdg_array_t), intent(in), target :: aval
     logical, intent(in), target :: is_known
     logical, intent(in), optional :: locked, verbose, intrinsic
     type(string_t), intent(in), optional :: description
     type(var_entry_t), pointer :: var
     allocate (var)
     call var_entry_init_pdg_array_ptr (var, name, aval, is_known, intrinsic)
     if (present (description))  call var_entry_set_description (var, description)
     if (present (locked))  call var_entry_lock (var, locked)
     call var_list_append (var_list, var, verbose)
   end subroutine var_list_append_pdg_array_ptr
 
   module subroutine var_list_append_subevt_ptr &
        (var_list, name, pval, is_known, locked, verbose, intrinsic, description)
     class(var_list_t), intent(inout) :: var_list
     type(string_t), intent(in) :: name
     type(subevt_t), intent(in), target :: pval
     logical, intent(in), target :: is_known
     logical, intent(in), optional :: locked, verbose, intrinsic
     type(string_t), intent(in), optional :: description
     type(var_entry_t), pointer :: var
     allocate (var)
     call var_entry_init_subevt_ptr (var, name, pval, is_known, intrinsic)
     if (present (description))  call var_entry_set_description (var, description)
     if (present (locked))  call var_entry_lock (var, locked)
     call var_list_append (var_list, var, verbose)
   end subroutine var_list_append_subevt_ptr
 
   module subroutine var_list_append_string_ptr &
        (var_list, name, sval, is_known, locked, verbose, intrinsic, description)
     class(var_list_t), intent(inout) :: var_list
     type(string_t), intent(in) :: name
     type(string_t), intent(in), target :: sval
     logical, intent(in), target :: is_known
     logical, intent(in), optional :: locked, verbose, intrinsic
     type(string_t), intent(in), optional :: description
     type(var_entry_t), pointer :: var
     allocate (var)
     call var_entry_init_string_ptr (var, name, sval, is_known, intrinsic)
     if (present (description))  call var_entry_set_description (var, description)
     if (present (locked))  call var_entry_lock (var, locked)
     call var_list_append (var_list, var, verbose)
   end subroutine var_list_append_string_ptr
 
 @ %def var_list_append_log_ptr
 @ %def var_list_append_int_ptr
 @ %def var_list_append_real_ptr
 @ %def var_list_append_cmplx_ptr
 @ %def var_list_append_pdg_array_ptr
 @ %def var_list_append_subevt_ptr
 @
 \subsubsection{Finalizer}
 Finalize, delete the list entry by entry.  The link itself is kept
 intact.  Follow link and delete recursively only if requested
 explicitly.
 <<Variables: var list: TBP>>=
   procedure :: final => var_list_final
 <<Variables: sub interfaces>>=
     recursive module subroutine var_list_final (vars, follow_link)
       class(var_list_t), intent(inout) :: vars
       logical, intent(in), optional :: follow_link
     end subroutine var_list_final
 <<Variables: procedures>>=
   recursive module subroutine var_list_final (vars, follow_link)
     class(var_list_t), intent(inout) :: vars
     logical, intent(in), optional :: follow_link
     type(var_entry_t), pointer :: var
     vars%last => null ()
     do while (associated (vars%first))
        var => vars%first
        vars%first => var%next
        call var_entry_final (var)
        deallocate (var)
     end do
     if (present (follow_link)) then
        if (follow_link) then
           if (associated (vars%next)) then
              call vars%next%final (follow_link)
              deallocate (vars%next)
           end if
        end if
     end if
   end subroutine var_list_final
 
 @ %def var_list_final
 @
 \subsubsection{Output}
 Show variable list with precise control over options.  E.g.,
 show only variables of a certain type.
 
 Many options, thus not an ordinary [[write]] method.
 <<Variables: var list: TBP>>=
   procedure :: write => var_list_write
 <<Variables: sub interfaces>>=
     recursive module subroutine var_list_write &
          (var_list, unit, follow_link, only_type, prefix, model_name, &
           intrinsic, pacified, descriptions, ascii_output)
       class(var_list_t), intent(in), target :: var_list
       integer, intent(in), optional :: unit
       logical, intent(in), optional :: follow_link
       integer, intent(in), optional :: only_type
       character(*), intent(in), optional :: prefix
       type(string_t), intent(in), optional :: model_name
       logical, intent(in), optional :: intrinsic
       logical, intent(in), optional :: pacified
       logical, intent(in), optional :: descriptions
       logical, intent(in), optional :: ascii_output
     end subroutine var_list_write
 <<Variables: procedures>>=
   recursive module subroutine var_list_write &
        (var_list, unit, follow_link, only_type, prefix, model_name, &
         intrinsic, pacified, descriptions, ascii_output)
     class(var_list_t), intent(in), target :: var_list
     integer, intent(in), optional :: unit
     logical, intent(in), optional :: follow_link
     integer, intent(in), optional :: only_type
     character(*), intent(in), optional :: prefix
     type(string_t), intent(in), optional :: model_name
     logical, intent(in), optional :: intrinsic
     logical, intent(in), optional :: pacified
     logical, intent(in), optional :: descriptions
     logical, intent(in), optional :: ascii_output
     type(var_entry_t), pointer :: var
     integer :: u, length
     logical :: write_this, write_next
     u = given_output_unit (unit);  if (u < 0)  return
     if (present (prefix))  length = len (prefix)
     var => var_list%first
     if (associated (var)) then
        do while (associated (var))
           if (present (only_type)) then
              write_this = only_type == var%type
           else
              write_this = .true.
           end if
           if (write_this .and. present (prefix)) then
              if (prefix /= extract (var%name, 1, length)) &
                   write_this = .false.
           end if
           if (write_this) then
              call var_entry_write &
                   (var, unit, model_name=model_name, &
                    intrinsic=intrinsic, pacified=pacified, &
                    descriptions=descriptions, ascii_output=ascii_output)
           end if
           var => var%next
        end do
     end if
     if (present (follow_link)) then
        write_next = follow_link .and. associated (var_list%next)
     else
        write_next = associated (var_list%next)
     end if
     if (write_next) then
        call var_list_write (var_list%next, &
             unit, follow_link, only_type, prefix, model_name, &
             intrinsic, pacified)
     end if
   end subroutine var_list_write
 
 @ %def var_list_write
 @ Write only a certain variable.
 <<Variables: var list: TBP>>=
   procedure :: write_var => var_list_write_var
 <<Variables: sub interfaces>>=
     recursive module subroutine var_list_write_var &
          (var_list, name, unit, type, follow_link, &
          model_name, pacified, defined, descriptions, ascii_output)
       class(var_list_t), intent(in), target :: var_list
       type(string_t), intent(in) :: name
       integer, intent(in), optional :: unit
       integer, intent(in), optional :: type
       logical, intent(in), optional :: follow_link
       type(string_t), intent(in), optional :: model_name
       logical, intent(in), optional :: pacified
       logical, intent(in), optional :: defined
       logical, intent(in), optional :: descriptions
       logical, intent(in), optional :: ascii_output
     end subroutine var_list_write_var
 <<Variables: procedures>>=
   recursive module subroutine var_list_write_var &
        (var_list, name, unit, type, follow_link, &
        model_name, pacified, defined, descriptions, ascii_output)
     class(var_list_t), intent(in), target :: var_list
     type(string_t), intent(in) :: name
     integer, intent(in), optional :: unit
     integer, intent(in), optional :: type
     logical, intent(in), optional :: follow_link
     type(string_t), intent(in), optional :: model_name
     logical, intent(in), optional :: pacified
     logical, intent(in), optional :: defined
     logical, intent(in), optional :: descriptions
     logical, intent(in), optional :: ascii_output
     type(var_entry_t), pointer :: var
     integer :: u
     u = given_output_unit (unit);  if (u < 0)  return
     var => var_list_get_var_ptr &
          (var_list, name, type, follow_link=follow_link, defined=defined)
     if (associated (var)) then
        call var_entry_write &
             (var, unit, model_name = model_name, &
             pacified = pacified, &
             descriptions=descriptions, ascii_output=ascii_output)
     else
        write (u, "(A)")  char (name) // " = [undefined]"
     end if
   end subroutine var_list_write_var
 
 @ %def var_list_write_var
 @
 \subsection{Tools}
 Return a pointer to the variable list linked to by the current one.
 <<Variables: procedures>>=
   function var_list_get_next_ptr (var_list) result (next_ptr)
     type(var_list_t), pointer :: next_ptr
     type(var_list_t), intent(in) :: var_list
     next_ptr => var_list%next
   end function var_list_get_next_ptr
 
 @ %def var_list_get_next_ptr
 @ Used by [[eval_trees]]:
 Return a pointer to the variable with the requested name.  If no such
 name exists, return a null pointer.  In that case, try the next list
 if present, unless [[follow_link]] is unset.  If [[defined]] is set, ignore
 entries that exist but are undefined.
 <<Variables: procedures>>=
   recursive function var_list_get_var_ptr &
        (var_list, name, type, follow_link, defined) result (var)
     type(var_entry_t), pointer :: var
     type(var_list_t), intent(in), target :: var_list
     type(string_t), intent(in) :: name
     integer, intent(in), optional :: type
     logical, intent(in), optional :: follow_link, defined
     logical :: ignore_undef, search_next
     ignore_undef = .true.;  if (present (defined))  ignore_undef = .not. defined
     var => var_list%first
     if (present (type)) then
        do while (associated (var))
           if (var%type == type) then
              if (var%name == name) then
                 if (ignore_undef .or. var%is_defined)  return
              end if
           end if
           var => var%next
        end do
     else
        do while (associated (var))
           if (var%name == name) then
              if (ignore_undef .or. var%is_defined)  return
           end if
           var => var%next
        end do
     end if
     search_next = associated (var_list%next)
     if (present (follow_link)) &
          search_next = search_next .and. follow_link
     if (search_next) &
          var => var_list_get_var_ptr &
               (var_list%next, name, type, defined=defined)
   end function var_list_get_var_ptr
 
 @ %def var_list_get_var_ptr
 @ Return the variable type
 <<Variables: var list: TBP>>=
   procedure :: get_type => var_list_get_type
 <<Variables: sub interfaces>>=
     module function var_list_get_type &
          (var_list, name, follow_link) result (type)
       class(var_list_t), intent(in), target :: var_list
       type(string_t), intent(in) :: name
       logical, intent(in), optional :: follow_link
       integer :: type
     end function var_list_get_type
 <<Variables: procedures>>=
   module function var_list_get_type &
        (var_list, name, follow_link) result (type)
     class(var_list_t), intent(in), target :: var_list
     type(string_t), intent(in) :: name
     logical, intent(in), optional :: follow_link
     integer :: type
     type(var_entry_t), pointer :: var
     var => var_list_get_var_ptr (var_list, name, follow_link=follow_link)
     if (associated (var)) then
        type = var%type
     else
        type = V_NONE
     end if
   end function var_list_get_type
 
 @ %def var_list_get_type
 @ Return true if the variable exists in the current list.
 <<Variables: var list: TBP>>=
   procedure :: contains => var_list_exists
 <<Variables: sub interfaces>>=
     module function var_list_exists (vars, name, follow_link) result (lval)
       logical :: lval
       type(string_t), intent(in) :: name
       class(var_list_t), intent(in) :: vars
       logical, intent(in), optional :: follow_link
     end function var_list_exists
 <<Variables: procedures>>=
   module function var_list_exists (vars, name, follow_link) result (lval)
     logical :: lval
     type(string_t), intent(in) :: name
     class(var_list_t), intent(in) :: vars
     logical, intent(in), optional :: follow_link
     type(var_entry_t), pointer :: var
     var => var_list_get_var_ptr (vars, name, follow_link=follow_link)
     lval = associated (var)
   end function var_list_exists
 
 @ %def var_list_exists
 @ Return true if the variable is declared as intrinsic.  (This is not a
 property of the abstract [[vars_t]] type, and therefore the method is
 not inherited.)
 <<Variables: var list: TBP>>=
   procedure :: is_intrinsic => var_list_is_intrinsic
 <<Variables: sub interfaces>>=
     module function var_list_is_intrinsic &
          (vars, name, follow_link) result (lval)
       logical :: lval
       type(string_t), intent(in) :: name
       class(var_list_t), intent(in) :: vars
       logical, intent(in), optional :: follow_link
     end function var_list_is_intrinsic
 <<Variables: procedures>>=
   module function var_list_is_intrinsic &
        (vars, name, follow_link) result (lval)
     logical :: lval
     type(string_t), intent(in) :: name
     class(var_list_t), intent(in) :: vars
     logical, intent(in), optional :: follow_link
     type(var_entry_t), pointer :: var
     var => var_list_get_var_ptr (vars, name, follow_link=follow_link)
     if (associated (var)) then
        lval = var%is_intrinsic
     else
        lval = .false.
     end if
   end function var_list_is_intrinsic
 
 @ %def var_list_is_intrinsic
 @ Return true if the value is known.
 <<Variables: var list: TBP>>=
   procedure :: is_known => var_list_is_known
 <<Variables: sub interfaces>>=
     module function var_list_is_known (vars, name, follow_link) result (lval)
       logical :: lval
       type(string_t), intent(in) :: name
       class(var_list_t), intent(in) :: vars
       logical, intent(in), optional :: follow_link
     end function var_list_is_known
 <<Variables: procedures>>=
   module function var_list_is_known (vars, name, follow_link) result (lval)
     logical :: lval
     type(string_t), intent(in) :: name
     class(var_list_t), intent(in) :: vars
     logical, intent(in), optional :: follow_link
     type(var_entry_t), pointer :: var
     var => var_list_get_var_ptr (vars, name, follow_link=follow_link)
     if (associated (var)) then
        lval = var%is_known
     else
        lval = .false.
     end if
   end function var_list_is_known
 
 @ %def var_list_is_known
 @ Return true if the value is locked.  (This is not a
 property of the abstract [[vars_t]] type, and therefore the method is
 not inherited.)
 <<Variables: var list: TBP>>=
   procedure :: is_locked => var_list_is_locked
 <<Variables: sub interfaces>>=
     module function var_list_is_locked (vars, name, follow_link) result (lval)
       logical :: lval
       type(string_t), intent(in) :: name
       class(var_list_t), intent(in) :: vars
       logical, intent(in), optional :: follow_link
     end function var_list_is_locked
 <<Variables: procedures>>=
   module function var_list_is_locked (vars, name, follow_link) result (lval)
     logical :: lval
     type(string_t), intent(in) :: name
     class(var_list_t), intent(in) :: vars
     logical, intent(in), optional :: follow_link
     type(var_entry_t), pointer :: var
     var => var_list_get_var_ptr (vars, name, follow_link=follow_link)
     if (associated (var)) then
        lval = var_entry_is_locked (var)
     else
        lval = .false.
     end if
   end function var_list_is_locked
 
 @ %def var_list_is_locked
 @ Return several properties at once.
 <<Variables: var list: TBP>>=
   procedure :: get_var_properties => var_list_get_var_properties
 <<Variables: sub interfaces>>=
     module subroutine var_list_get_var_properties &
          (vars, name, req_type, follow_link, &
           type, is_defined, is_known, is_locked)
       class(var_list_t), intent(in) :: vars
       type(string_t), intent(in) :: name
       integer, intent(in), optional :: req_type
       logical, intent(in), optional :: follow_link
       integer, intent(out), optional :: type
       logical, intent(out), optional :: is_defined, is_known, is_locked
     end subroutine var_list_get_var_properties
 <<Variables: procedures>>=
   module subroutine var_list_get_var_properties &
        (vars, name, req_type, follow_link, &
         type, is_defined, is_known, is_locked)
     class(var_list_t), intent(in) :: vars
     type(string_t), intent(in) :: name
     integer, intent(in), optional :: req_type
     logical, intent(in), optional :: follow_link
     integer, intent(out), optional :: type
     logical, intent(out), optional :: is_defined, is_known, is_locked
     type(var_entry_t), pointer :: var
     var => var_list_get_var_ptr &
          (vars, name, type=req_type, follow_link=follow_link)
     if (associated (var)) then
        if (present (type))  type = var_entry_get_type (var)
        if (present (is_defined))  is_defined = var_entry_is_defined (var)
        if (present (is_known))  is_known = var_entry_is_known (var)
        if (present (is_locked))  is_locked = var_entry_is_locked (var)
     else
        if (present (type))  type = V_NONE
        if (present (is_defined))  is_defined = .false.
        if (present (is_known))  is_known = .false.
        if (present (is_locked))  is_locked = .false.
     end if
   end subroutine var_list_get_var_properties
 
 @ %def var_list_get_var_properties
 @ Return the value, assuming that the type is correct.  We consider only
 variable entries that have been [[defined]].
 
 For convenience, allow both variable and fixed-length (literal) strings.
 <<Variables: var list: TBP>>=
   procedure :: get_lval => var_list_get_lval
   procedure :: get_ival => var_list_get_ival
   procedure :: get_rval => var_list_get_rval
   procedure :: get_cval => var_list_get_cval
   procedure :: get_pval => var_list_get_pval
   procedure :: get_aval => var_list_get_aval
   procedure :: get_sval => var_list_get_sval
 <<Variables: sub interfaces>>=
     module function var_list_get_lval (vars, name, follow_link) result (lval)
       logical :: lval
       type(string_t), intent(in) :: name
       class(var_list_t), intent(in) :: vars
       logical, intent(in), optional :: follow_link
     end function var_list_get_lval
     module function var_list_get_ival (vars, name, follow_link) result (ival)
       integer :: ival
       type(string_t), intent(in) :: name
       class(var_list_t), intent(in) :: vars
       logical, intent(in), optional :: follow_link
     end function var_list_get_ival
     module function var_list_get_rval (vars, name, follow_link) result (rval)
       real(default) :: rval
       type(string_t), intent(in) :: name
       class(var_list_t), intent(in) :: vars
       logical, intent(in), optional :: follow_link
     end function var_list_get_rval
     module function var_list_get_cval (vars, name, follow_link) result (cval)
       complex(default) :: cval
       type(string_t), intent(in) :: name
       class(var_list_t), intent(in) :: vars
       logical, intent(in), optional :: follow_link
     end function var_list_get_cval
     module function var_list_get_aval (vars, name, follow_link) result (aval)
       type(pdg_array_t) :: aval
       type(string_t), intent(in) :: name
       class(var_list_t), intent(in) :: vars
       logical, intent(in), optional :: follow_link
     end function var_list_get_aval
     module function var_list_get_pval (vars, name, follow_link) result (pval)
       type(subevt_t) :: pval
       type(string_t), intent(in) :: name
       class(var_list_t), intent(in) :: vars
       logical, intent(in), optional :: follow_link
     end function var_list_get_pval
     module function var_list_get_sval (vars, name, follow_link) result (sval)
       type(string_t) :: sval
       type(string_t), intent(in) :: name
       class(var_list_t), intent(in) :: vars
       logical, intent(in), optional :: follow_link
     end function var_list_get_sval
 <<Variables: procedures>>=
   module function var_list_get_lval (vars, name, follow_link) result (lval)
     logical :: lval
     type(string_t), intent(in) :: name
     class(var_list_t), intent(in) :: vars
     logical, intent(in), optional :: follow_link
     type(var_entry_t), pointer :: var
     var => var_list_get_var_ptr &
          (vars, name, V_LOG, follow_link, defined=.true.)
     if (associated (var)) then
        if (var_has_value (var)) then
           lval = var%lval
        else
           lval = .false.
        end if
     else
        lval = .false.
     end if
   end function var_list_get_lval
 
   module function var_list_get_ival (vars, name, follow_link) result (ival)
     integer :: ival
     type(string_t), intent(in) :: name
     class(var_list_t), intent(in) :: vars
     logical, intent(in), optional :: follow_link
     type(var_entry_t), pointer :: var
     var => var_list_get_var_ptr &
          (vars, name, V_INT, follow_link, defined=.true.)
     if (associated (var)) then
        if (var_has_value (var)) then
           ival = var%ival
        else
           ival = 0
        end if
     else
        ival = 0
     end if
   end function var_list_get_ival
 
   module function var_list_get_rval (vars, name, follow_link) result (rval)
     real(default) :: rval
     type(string_t), intent(in) :: name
     class(var_list_t), intent(in) :: vars
     logical, intent(in), optional :: follow_link
     type(var_entry_t), pointer :: var
     var => var_list_get_var_ptr &
          (vars, name, V_REAL, follow_link, defined=.true.)
     if (associated (var)) then
        if (var_has_value (var)) then
           rval = var%rval
        else
           rval = 0
        end if
     else
        rval = 0
     end if
   end function var_list_get_rval
 
   module function var_list_get_cval (vars, name, follow_link) result (cval)
     complex(default) :: cval
     type(string_t), intent(in) :: name
     class(var_list_t), intent(in) :: vars
     logical, intent(in), optional :: follow_link
     type(var_entry_t), pointer :: var
     var => var_list_get_var_ptr &
          (vars, name, V_CMPLX, follow_link, defined=.true.)
     if (associated (var)) then
        if (var_has_value (var)) then
           cval = var%cval
        else
           cval = 0
        end if
     else
        cval = 0
     end if
   end function var_list_get_cval
 
   module function var_list_get_aval (vars, name, follow_link) result (aval)
     type(pdg_array_t) :: aval
     type(string_t), intent(in) :: name
     class(var_list_t), intent(in) :: vars
     logical, intent(in), optional :: follow_link
     type(var_entry_t), pointer :: var
     var => var_list_get_var_ptr &
          (vars, name, V_PDG, follow_link, defined=.true.)
     if (associated (var)) then
        if (var_has_value (var)) then
           aval = var%aval
        end if
     end if
   end function var_list_get_aval
 
   module function var_list_get_pval (vars, name, follow_link) result (pval)
     type(subevt_t) :: pval
     type(string_t), intent(in) :: name
     class(var_list_t), intent(in) :: vars
     logical, intent(in), optional :: follow_link
     type(var_entry_t), pointer :: var
     var => var_list_get_var_ptr &
          (vars, name, V_SEV, follow_link, defined=.true.)
     if (associated (var)) then
        if (var_has_value (var)) then
           pval = var%pval
        end if
     end if
   end function var_list_get_pval
 
   module function var_list_get_sval (vars, name, follow_link) result (sval)
     type(string_t) :: sval
     type(string_t), intent(in) :: name
     class(var_list_t), intent(in) :: vars
     logical, intent(in), optional :: follow_link
     type(var_entry_t), pointer :: var
     var => var_list_get_var_ptr &
          (vars, name, V_STR, follow_link, defined=.true.)
     if (associated (var)) then
        if (var_has_value (var)) then
           sval = var%sval
        else
           sval = ""
        end if
     else
        sval = ""
     end if
   end function var_list_get_sval
 
 @ %def var_list_get_lval
 @ %def var_list_get_ival
 @ %def var_list_get_rval
 @ %def var_list_get_cval
 @ %def var_list_get_pval
 @ %def var_list_get_aval
 @ %def var_list_get_sval
 @ Check for a valid value, given a pointer.  Issue error messages if invalid.
 <<Variables: procedures>>=
   function var_has_value (var) result (valid)
     logical :: valid
     type(var_entry_t), pointer :: var
     if (associated (var)) then
        if (var%is_known) then
           valid = .true.
        else
           call msg_error ("The value of variable '" // char (var%name) &
                // "' is unknown but must be known at this point.")
           valid = .false.
        end if
     else
        call msg_error ("Variable '" // char (var%name) &
             // "' is undefined but must have a known value at this point.")
        valid = .false.
     end if
   end function var_has_value
 
 @ %def var_has_value
 @ Return pointers instead of values, including a pointer to the
 [[known]] entry.
 <<Variables: var list: TBP>>=
   procedure :: get_lptr => var_list_get_lptr
   procedure :: get_iptr => var_list_get_iptr
   procedure :: get_rptr => var_list_get_rptr
   procedure :: get_cptr => var_list_get_cptr
   procedure :: get_aptr => var_list_get_aptr
   procedure :: get_pptr => var_list_get_pptr
   procedure :: get_sptr => var_list_get_sptr
 <<Variables: sub interfaces>>=
     module subroutine var_list_get_lptr (var_list, name, lptr, known)
       class(var_list_t), intent(in) :: var_list
       type(string_t), intent(in) :: name
       logical, pointer, intent(out) :: lptr
       logical, pointer, intent(out), optional :: known
     end subroutine var_list_get_lptr
     module subroutine var_list_get_iptr (var_list, name, iptr, known)
       class(var_list_t), intent(in) :: var_list
       type(string_t), intent(in) :: name
       integer, pointer, intent(out) :: iptr
       logical, pointer, intent(out), optional :: known
     end subroutine var_list_get_iptr
     module subroutine var_list_get_rptr (var_list, name, rptr, known)
       class(var_list_t), intent(in) :: var_list
       type(string_t), intent(in) :: name
       real(default), pointer, intent(out) :: rptr
       logical, pointer, intent(out), optional :: known
     end subroutine var_list_get_rptr
     module subroutine var_list_get_cptr (var_list, name, cptr, known)
       class(var_list_t), intent(in) :: var_list
       type(string_t), intent(in) :: name
       complex(default), pointer, intent(out) :: cptr
       logical, pointer, intent(out), optional :: known
     end subroutine var_list_get_cptr
     module subroutine var_list_get_aptr (var_list, name, aptr, known)
       class(var_list_t), intent(in) :: var_list
       type(string_t), intent(in) :: name
       type(pdg_array_t), pointer, intent(out) :: aptr
       logical, pointer, intent(out), optional :: known
       type(var_entry_t), pointer :: var
     end subroutine var_list_get_aptr
     module subroutine var_list_get_pptr (var_list, name, pptr, known)
       class(var_list_t), intent(in) :: var_list
       type(string_t), intent(in) :: name
       type(subevt_t), pointer, intent(out) :: pptr
       logical, pointer, intent(out), optional :: known
     end subroutine var_list_get_pptr
     module subroutine var_list_get_sptr (var_list, name, sptr, known)
       class(var_list_t), intent(in) :: var_list
       type(string_t), intent(in) :: name
       type(string_t), pointer, intent(out) :: sptr
       logical, pointer, intent(out), optional :: known
     end subroutine var_list_get_sptr
 <<Variables: procedures>>=
   module subroutine var_list_get_lptr (var_list, name, lptr, known)
     class(var_list_t), intent(in) :: var_list
     type(string_t), intent(in) :: name
     logical, pointer, intent(out) :: lptr
     logical, pointer, intent(out), optional :: known
     type(var_entry_t), pointer :: var
     var => var_list_get_var_ptr (var_list, name, V_LOG)
     if (associated (var)) then
        lptr => var_entry_get_lval_ptr (var)
        if (present (known))  known => var_entry_get_known_ptr (var)
     else
        lptr => null ()
        if (present (known))  known => null ()
     end if
   end subroutine var_list_get_lptr
 
   module subroutine var_list_get_iptr (var_list, name, iptr, known)
     class(var_list_t), intent(in) :: var_list
     type(string_t), intent(in) :: name
     integer, pointer, intent(out) :: iptr
     logical, pointer, intent(out), optional :: known
     type(var_entry_t), pointer :: var
     var => var_list_get_var_ptr (var_list, name, V_INT)
     if (associated (var)) then
        iptr => var_entry_get_ival_ptr (var)
        if (present (known))  known => var_entry_get_known_ptr (var)
     else
        iptr => null ()
        if (present (known))  known => null ()
     end if
   end subroutine var_list_get_iptr
 
   module subroutine var_list_get_rptr (var_list, name, rptr, known)
     class(var_list_t), intent(in) :: var_list
     type(string_t), intent(in) :: name
     real(default), pointer, intent(out) :: rptr
     logical, pointer, intent(out), optional :: known
     type(var_entry_t), pointer :: var
     var => var_list_get_var_ptr (var_list, name, V_REAL)
     if (associated (var)) then
        rptr => var_entry_get_rval_ptr (var)
        if (present (known))  known => var_entry_get_known_ptr (var)
     else
        rptr => null ()
        if (present (known))  known => null ()
     end if
   end subroutine var_list_get_rptr
 
   module subroutine var_list_get_cptr (var_list, name, cptr, known)
     class(var_list_t), intent(in) :: var_list
     type(string_t), intent(in) :: name
     complex(default), pointer, intent(out) :: cptr
     logical, pointer, intent(out), optional :: known
     type(var_entry_t), pointer :: var
     var => var_list_get_var_ptr (var_list, name, V_CMPLX)
     if (associated (var)) then
        cptr => var_entry_get_cval_ptr (var)
        if (present (known))  known => var_entry_get_known_ptr (var)
     else
        cptr => null ()
        if (present (known))  known => null ()
     end if
   end subroutine var_list_get_cptr
 
   module subroutine var_list_get_aptr (var_list, name, aptr, known)
     class(var_list_t), intent(in) :: var_list
     type(string_t), intent(in) :: name
     type(pdg_array_t), pointer, intent(out) :: aptr
     logical, pointer, intent(out), optional :: known
     type(var_entry_t), pointer :: var
     var => var_list_get_var_ptr (var_list, name, V_PDG)
     if (associated (var)) then
        aptr => var_entry_get_aval_ptr (var)
        if (present (known))  known => var_entry_get_known_ptr (var)
     else
        aptr => null ()
        if (present (known))  known => null ()
     end if
   end subroutine var_list_get_aptr
 
   module subroutine var_list_get_pptr (var_list, name, pptr, known)
     class(var_list_t), intent(in) :: var_list
     type(string_t), intent(in) :: name
     type(subevt_t), pointer, intent(out) :: pptr
     logical, pointer, intent(out), optional :: known
     type(var_entry_t), pointer :: var
     var => var_list_get_var_ptr (var_list, name, V_SEV)
     if (associated (var)) then
        pptr => var_entry_get_pval_ptr (var)
        if (present (known))  known => var_entry_get_known_ptr (var)
     else
        pptr => null ()
        if (present (known))  known => null ()
     end if
   end subroutine var_list_get_pptr
 
   module subroutine var_list_get_sptr (var_list, name, sptr, known)
     class(var_list_t), intent(in) :: var_list
     type(string_t), intent(in) :: name
     type(string_t), pointer, intent(out) :: sptr
     logical, pointer, intent(out), optional :: known
     type(var_entry_t), pointer :: var
     var => var_list_get_var_ptr (var_list, name, V_STR)
     if (associated (var)) then
        sptr => var_entry_get_sval_ptr (var)
        if (present (known))  known => var_entry_get_known_ptr (var)
     else
        sptr => null ()
        if (present (known))  known => null ()
     end if
   end subroutine var_list_get_sptr
 
 @ %def var_list_get_lptr
 @ %def var_list_get_iptr
 @ %def var_list_get_rptr
 @ %def var_list_get_cptr
 @ %def var_list_get_aptr
 @ %def var_list_get_pptr
 @ %def var_list_get_sptr
 @
 This bunch of methods handles the procedure-pointer cases.
 <<Variables: var list: TBP>>=
   procedure :: get_obs1_iptr => var_list_get_obs1_iptr
   procedure :: get_obs2_iptr => var_list_get_obs2_iptr
   procedure :: get_obsev_iptr => var_list_get_obsev_iptr
   procedure :: get_obs1_rptr => var_list_get_obs1_rptr
   procedure :: get_obs2_rptr => var_list_get_obs2_rptr
   procedure :: get_obsev_rptr => var_list_get_obsev_rptr
 <<Variables: sub interfaces>>=
     module subroutine var_list_get_obs1_iptr (var_list, name, obs1_iptr, p1)
       class(var_list_t), intent(in) :: var_list
       type(string_t), intent(in) :: name
       procedure(obs_unary_int), pointer, intent(out) :: obs1_iptr
       type(prt_t), pointer, intent(out) :: p1
     end subroutine var_list_get_obs1_iptr
     module subroutine var_list_get_obs2_iptr (var_list, name, obs2_iptr, p1, p2)
       class(var_list_t), intent(in) :: var_list
       type(string_t), intent(in) :: name
       procedure(obs_binary_int), pointer, intent(out) :: obs2_iptr
       type(prt_t), pointer, intent(out) :: p1, p2
     end subroutine var_list_get_obs2_iptr
     module subroutine var_list_get_obsev_iptr (var_list, name, obsev_iptr, pval)
       class(var_list_t), intent(in) :: var_list
       type(string_t), intent(in) :: name
       procedure(obs_sev_int), pointer, intent(out) :: obsev_iptr
       type(subevt_t), pointer, intent(out) :: pval
     end subroutine var_list_get_obsev_iptr
     module subroutine var_list_get_obs1_rptr (var_list, name, obs1_rptr, p1)
       class(var_list_t), intent(in) :: var_list
       type(string_t), intent(in) :: name
       procedure(obs_unary_real), pointer, intent(out) :: obs1_rptr
       type(prt_t), pointer, intent(out) :: p1
     end subroutine var_list_get_obs1_rptr
     module subroutine var_list_get_obs2_rptr (var_list, name, obs2_rptr, p1, p2)
       class(var_list_t), intent(in) :: var_list
       type(string_t), intent(in) :: name
       procedure(obs_binary_real), pointer, intent(out) :: obs2_rptr
       type(prt_t), pointer, intent(out) :: p1, p2
     end subroutine var_list_get_obs2_rptr
     module subroutine var_list_get_obsev_rptr (var_list, name, obsev_rptr, pval)
       class(var_list_t), intent(in) :: var_list
       type(string_t), intent(in) :: name
       procedure(obs_sev_real), pointer, intent(out) :: obsev_rptr
       type(subevt_t), pointer, intent(out) :: pval
     end subroutine var_list_get_obsev_rptr
 <<Variables: procedures>>=
   module subroutine var_list_get_obs1_iptr (var_list, name, obs1_iptr, p1)
     class(var_list_t), intent(in) :: var_list
     type(string_t), intent(in) :: name
     procedure(obs_unary_int), pointer, intent(out) :: obs1_iptr
     type(prt_t), pointer, intent(out) :: p1
     type(var_entry_t), pointer :: var
     var => var_list_get_var_ptr (var_list, name, V_OBS1_INT)
     if (associated (var)) then
        call var_entry_assign_obs1_int_ptr (obs1_iptr, var)
        p1 => var_entry_get_prt1_ptr (var)
     else
        obs1_iptr => null ()
        p1 => null ()
     end if
   end subroutine var_list_get_obs1_iptr
 
   module subroutine var_list_get_obs2_iptr (var_list, name, obs2_iptr, p1, p2)
     class(var_list_t), intent(in) :: var_list
     type(string_t), intent(in) :: name
     procedure(obs_binary_int), pointer, intent(out) :: obs2_iptr
     type(prt_t), pointer, intent(out) :: p1, p2
     type(var_entry_t), pointer :: var
     var => var_list_get_var_ptr (var_list, name, V_OBS2_INT)
     if (associated (var)) then
        call var_entry_assign_obs2_int_ptr (obs2_iptr, var)
        p1 => var_entry_get_prt1_ptr (var)
        p2 => var_entry_get_prt2_ptr (var)
     else
        obs2_iptr => null ()
        p1 => null ()
        p2 => null ()
     end if
   end subroutine var_list_get_obs2_iptr
 
   module subroutine var_list_get_obsev_iptr (var_list, name, obsev_iptr, pval)
     class(var_list_t), intent(in) :: var_list
     type(string_t), intent(in) :: name
     procedure(obs_sev_int), pointer, intent(out) :: obsev_iptr
     type(subevt_t), pointer, intent(out) :: pval
     type(var_entry_t), pointer :: var
     var => var_list_get_var_ptr (var_list, name, V_OBSEV_INT)
     if (associated (var)) then
        call var_entry_assign_obsev_int_ptr (obsev_iptr, var)
        pval => var_entry_get_pval_ptr (var)
     else
        obsev_iptr => null ()
        pval => null ()
     end if
   end subroutine var_list_get_obsev_iptr
 
   module subroutine var_list_get_obs1_rptr (var_list, name, obs1_rptr, p1)
     class(var_list_t), intent(in) :: var_list
     type(string_t), intent(in) :: name
     procedure(obs_unary_real), pointer, intent(out) :: obs1_rptr
     type(prt_t), pointer, intent(out) :: p1
     type(var_entry_t), pointer :: var
     var => var_list_get_var_ptr (var_list, name, V_OBS1_REAL)
     if (associated (var)) then
        call var_entry_assign_obs1_real_ptr (obs1_rptr, var)
        p1 => var_entry_get_prt1_ptr (var)
     else
        obs1_rptr => null ()
        p1 => null ()
     end if
   end subroutine var_list_get_obs1_rptr
 
   module subroutine var_list_get_obs2_rptr (var_list, name, obs2_rptr, p1, p2)
     class(var_list_t), intent(in) :: var_list
     type(string_t), intent(in) :: name
     procedure(obs_binary_real), pointer, intent(out) :: obs2_rptr
     type(prt_t), pointer, intent(out) :: p1, p2
     type(var_entry_t), pointer :: var
     var => var_list_get_var_ptr (var_list, name, V_OBS2_REAL)
     if (associated (var)) then
        call var_entry_assign_obs2_real_ptr (obs2_rptr, var)
        p1 => var_entry_get_prt1_ptr (var)
        p2 => var_entry_get_prt2_ptr (var)
     else
        obs2_rptr => null ()
        p1 => null ()
        p2 => null ()
     end if
   end subroutine var_list_get_obs2_rptr
 
   module subroutine var_list_get_obsev_rptr (var_list, name, obsev_rptr, pval)
     class(var_list_t), intent(in) :: var_list
     type(string_t), intent(in) :: name
     procedure(obs_sev_real), pointer, intent(out) :: obsev_rptr
     type(subevt_t), pointer, intent(out) :: pval
     type(var_entry_t), pointer :: var
     var => var_list_get_var_ptr (var_list, name, V_OBSEV_REAL)
     if (associated (var)) then
        call var_entry_assign_obsev_real_ptr (obsev_rptr, var)
        pval => var_entry_get_pval_ptr (var)
     else
        obsev_rptr => null ()
        pval => null ()
     end if
   end subroutine var_list_get_obsev_rptr
 
 @ %def var_list_get_obs1_iptr
 @ %def var_list_get_obs2_iptr
 @ %def var_list_get_obsev_iptr
 @ %def var_list_get_obs1_rptr
 @ %def var_list_get_obs2_rptr
 @ %def var_list_get_obsev_rptr
 @
 \subsection{Process Result Variables}
 These variables are associated to process (integration) runs and their
 results.  Their names contain brackets (so they look like function
 evaluations), therefore we need to special-case them.
 <<Variables: var list: TBP>>=
   procedure :: set_procvar_int => var_list_set_procvar_int
   procedure :: set_procvar_real => var_list_set_procvar_real
 <<Variables: sub interfaces>>=
     module subroutine var_list_set_procvar_int (var_list, proc_id, name, ival)
       class(var_list_t), intent(inout) :: var_list
       type(string_t), intent(in) :: proc_id
       type(string_t), intent(in) :: name
       integer, intent(in), optional :: ival
     end subroutine var_list_set_procvar_int
     module subroutine var_list_set_procvar_real (var_list, proc_id, name, rval)
       class(var_list_t), intent(inout) :: var_list
       type(string_t), intent(in) :: proc_id
       type(string_t), intent(in) :: name
       real(default), intent(in), optional :: rval
     end subroutine var_list_set_procvar_real
 <<Variables: procedures>>=
   module subroutine var_list_set_procvar_int (var_list, proc_id, name, ival)
     class(var_list_t), intent(inout) :: var_list
     type(string_t), intent(in) :: proc_id
     type(string_t), intent(in) :: name
     integer, intent(in), optional :: ival
     type(string_t) :: var_name
     type(var_entry_t), pointer :: var
     var_name = name // "(" // proc_id // ")"
     var => var_list_get_var_ptr (var_list, var_name)
     if (.not. associated (var)) then
        call var_list%append_int (var_name, ival, intrinsic=.true.)
     else if (present (ival)) then
        call var_list%set_int (var_name, ival, is_known=.true.)
     end if
   end subroutine var_list_set_procvar_int
 
   module subroutine var_list_set_procvar_real (var_list, proc_id, name, rval)
     class(var_list_t), intent(inout) :: var_list
     type(string_t), intent(in) :: proc_id
     type(string_t), intent(in) :: name
     real(default), intent(in), optional :: rval
     type(string_t) :: var_name
     type(var_entry_t), pointer :: var
     var_name = name // "(" // proc_id // ")"
     var => var_list_get_var_ptr (var_list, var_name)
     if (.not. associated (var)) then
        call var_list%append_real (var_name, rval, intrinsic=.true.)
     else if (present (rval)) then
        call var_list%set_real (var_name, rval, is_known=.true.)
     end if
   end subroutine var_list_set_procvar_real
 
 @ %def var_list_set_procvar_int
 @ %def var_list_set_procvar_real
 @
 \subsection{Observable initialization}
 Observables are formally treated as variables, which however are
 evaluated each time the observable is used.  The arguments (pointers)
 to evaluate and the function are part of the variable-list entry.
 <<Variables: var list: TBP>>=
   procedure :: append_obs1_iptr => var_list_append_obs1_iptr
   procedure :: append_obs2_iptr => var_list_append_obs2_iptr
   procedure :: append_obs1_rptr => var_list_append_obs1_rptr
   procedure :: append_obs2_rptr => var_list_append_obs2_rptr
   procedure :: append_obsev_iptr => var_list_append_obsev_iptr
   procedure :: append_obsev_rptr => var_list_append_obsev_rptr
 <<Variables: sub interfaces>>=
     module subroutine var_list_append_obs1_iptr &
          (var_list, name, obs1_iptr, p1)
       class(var_list_t), intent(inout) :: var_list
       type(string_t), intent(in) :: name
       procedure(obs_unary_int) :: obs1_iptr
       type(prt_t), intent(in), target :: p1
     end subroutine var_list_append_obs1_iptr
     module subroutine var_list_append_obs2_iptr &
          (var_list, name, obs2_iptr, p1, p2)
       class(var_list_t), intent(inout) :: var_list
       type(string_t), intent(in) :: name
       procedure(obs_binary_int) :: obs2_iptr
       type(prt_t), intent(in), target :: p1, p2
     end subroutine var_list_append_obs2_iptr
     module subroutine var_list_append_obsev_iptr &
          (var_list, name, obsev_iptr, sev)
       class(var_list_t), intent(inout) :: var_list
       type(string_t), intent(in) :: name
       procedure(obs_sev_int) :: obsev_iptr
       type(subevt_t), intent(in), target :: sev
     end subroutine var_list_append_obsev_iptr
     module subroutine var_list_append_obs1_rptr &
          (var_list, name, obs1_rptr, p1)
       class(var_list_t), intent(inout) :: var_list
       type(string_t), intent(in) :: name
       procedure(obs_unary_real) :: obs1_rptr
       type(prt_t), intent(in), target :: p1
     end subroutine var_list_append_obs1_rptr
     module subroutine var_list_append_obs2_rptr &
          (var_list, name, obs2_rptr, p1, p2)
       class(var_list_t), intent(inout) :: var_list
       type(string_t), intent(in) :: name
       procedure(obs_binary_real) :: obs2_rptr
       type(prt_t), intent(in), target :: p1, p2
     end subroutine var_list_append_obs2_rptr
     module subroutine var_list_append_obsev_rptr &
          (var_list, name, obsev_rptr, sev)
       class(var_list_t), intent(inout) :: var_list
       type(string_t), intent(in) :: name
       procedure(obs_sev_real) :: obsev_rptr
       type(subevt_t), intent(in), target :: sev
     end subroutine var_list_append_obsev_rptr
 <<Variables: procedures>>=
   module subroutine var_list_append_obs1_iptr &
        (var_list, name, obs1_iptr, p1)
     class(var_list_t), intent(inout) :: var_list
     type(string_t), intent(in) :: name
     procedure(obs_unary_int) :: obs1_iptr
     type(prt_t), intent(in), target :: p1
     type(var_entry_t), pointer :: var
     allocate (var)
     call var_entry_init_obs (var, name, V_OBS1_INT, p1)
     var%obs1_int => obs1_iptr
     call var_list_append (var_list, var)
   end subroutine var_list_append_obs1_iptr
 
   module subroutine var_list_append_obs2_iptr &
        (var_list, name, obs2_iptr, p1, p2)
     class(var_list_t), intent(inout) :: var_list
     type(string_t), intent(in) :: name
     procedure(obs_binary_int) :: obs2_iptr
     type(prt_t), intent(in), target :: p1, p2
     type(var_entry_t), pointer :: var
     allocate (var)
     call var_entry_init_obs (var, name, V_OBS2_INT, p1, p2)
     var%obs2_int => obs2_iptr
     call var_list_append (var_list, var)
   end subroutine var_list_append_obs2_iptr
 
   module subroutine var_list_append_obsev_iptr &
        (var_list, name, obsev_iptr, sev)
     class(var_list_t), intent(inout) :: var_list
     type(string_t), intent(in) :: name
     procedure(obs_sev_int) :: obsev_iptr
     type(subevt_t), intent(in), target :: sev
     type(var_entry_t), pointer :: var
     allocate (var)
     call var_entry_init_obs_sev (var, name, V_OBSEV_INT, sev)
     var%obsev_int => obsev_iptr
     call var_list_append (var_list, var)
   end subroutine var_list_append_obsev_iptr
 
   module subroutine var_list_append_obs1_rptr &
        (var_list, name, obs1_rptr, p1)
     class(var_list_t), intent(inout) :: var_list
     type(string_t), intent(in) :: name
     procedure(obs_unary_real) :: obs1_rptr
     type(prt_t), intent(in), target :: p1
     type(var_entry_t), pointer :: var
     allocate (var)
     call var_entry_init_obs (var, name, V_OBS1_REAL, p1)
     var%obs1_real => obs1_rptr
     call var_list_append (var_list, var)
   end subroutine var_list_append_obs1_rptr
 
   module subroutine var_list_append_obs2_rptr &
        (var_list, name, obs2_rptr, p1, p2)
     class(var_list_t), intent(inout) :: var_list
     type(string_t), intent(in) :: name
     procedure(obs_binary_real) :: obs2_rptr
     type(prt_t), intent(in), target :: p1, p2
     type(var_entry_t), pointer :: var
     allocate (var)
     call var_entry_init_obs (var, name, V_OBS2_REAL, p1, p2)
     var%obs2_real => obs2_rptr
     call var_list_append (var_list, var)
   end subroutine var_list_append_obs2_rptr
 
   module subroutine var_list_append_obsev_rptr &
        (var_list, name, obsev_rptr, sev)
     class(var_list_t), intent(inout) :: var_list
     type(string_t), intent(in) :: name
     procedure(obs_sev_real) :: obsev_rptr
     type(subevt_t), intent(in), target :: sev
     type(var_entry_t), pointer :: var
     allocate (var)
     call var_entry_init_obs_sev (var, name, V_OBSEV_REAL, sev)
     var%obsev_real => obsev_rptr
     call var_list_append (var_list, var)
   end subroutine var_list_append_obsev_rptr
 
 @ %def var_list_append_obs1_iptr
 @ %def var_list_append_obs2_iptr
 @ %def var_list_append_obs1_rptr
 @ %def var_list_append_obs2_rptr
 @ User observables: no pointer needs to be stored.
 <<Variables: var list: TBP>>=
   procedure :: append_uobs_int => var_list_append_uobs_int
   procedure :: append_uobs_real => var_list_append_uobs_real
 <<Variables: sub interfaces>>=
     module subroutine var_list_append_uobs_int (var_list, name, p1, p2)
       class(var_list_t), intent(inout) :: var_list
       type(string_t), intent(in) :: name
       type(prt_t), intent(in), target :: p1
       type(prt_t), intent(in), target, optional :: p2
     end subroutine var_list_append_uobs_int
     module subroutine var_list_append_uobs_real (var_list, name, p1, p2)
       class(var_list_t), intent(inout) :: var_list
       type(string_t), intent(in) :: name
       type(prt_t), intent(in), target :: p1
       type(prt_t), intent(in), target, optional :: p2
     end subroutine var_list_append_uobs_real
 <<Variables: procedures>>=
   module subroutine var_list_append_uobs_int (var_list, name, p1, p2)
     class(var_list_t), intent(inout) :: var_list
     type(string_t), intent(in) :: name
     type(prt_t), intent(in), target :: p1
     type(prt_t), intent(in), target, optional :: p2
     type(var_entry_t), pointer :: var
     allocate (var)
     if (present (p2)) then
        call var_entry_init_obs (var, name, V_UOBS2_INT, p1, p2)
     else
        call var_entry_init_obs (var, name, V_UOBS1_INT, p1)
     end if
     call var_list_append (var_list, var)
   end subroutine var_list_append_uobs_int
 
   module subroutine var_list_append_uobs_real (var_list, name, p1, p2)
     class(var_list_t), intent(inout) :: var_list
     type(string_t), intent(in) :: name
     type(prt_t), intent(in), target :: p1
     type(prt_t), intent(in), target, optional :: p2
     type(var_entry_t), pointer :: var
     allocate (var)
     if (present (p2)) then
        call var_entry_init_obs (var, name, V_UOBS2_REAL, p1, p2)
     else
        call var_entry_init_obs (var, name, V_UOBS1_REAL, p1)
     end if
     call var_list_append (var_list, var)
   end subroutine var_list_append_uobs_real
 
 @ %def var_list_append_uobs_int
 @ %def var_list_append_uobs_real
 @
 \subsection{API for variable lists}
 Set a new value.  If the variable holds a pointer, this pointer is
 followed, e.g., a model parameter is actually set.  If [[ignore]] is
 set, do nothing if the variable does not exist.  If [[verbose]] is
 set, echo the new value.
 
 Clear a variable (all variables), i.e., undefine the value.
 <<Variables: var list: TBP>>=
   procedure :: unset => var_list_clear
 <<Variables: sub interfaces>>=
     module subroutine var_list_clear (vars, name, follow_link)
       class(var_list_t), intent(inout) :: vars
       type(string_t), intent(in) :: name
       logical, intent(in), optional :: follow_link
     end subroutine var_list_clear
 <<Variables: procedures>>=
   module subroutine var_list_clear (vars, name, follow_link)
     class(var_list_t), intent(inout) :: vars
     type(string_t), intent(in) :: name
     logical, intent(in), optional :: follow_link
     type(var_entry_t), pointer :: var
     var => var_list_get_var_ptr (vars, name, follow_link=follow_link)
     if (associated (var)) then
        call var_entry_clear (var)
     end if
   end subroutine var_list_clear
 
 @ %def var_list_clear
 @
 Setting the value, concise specific versions (implementing deferred TBP):
 <<Variables: var list: TBP>>=
   procedure :: set_ival => var_list_set_ival
   procedure :: set_rval => var_list_set_rval
   procedure :: set_cval => var_list_set_cval
   procedure :: set_lval => var_list_set_lval
   procedure :: set_sval => var_list_set_sval
 <<Variables: sub interfaces>>=
     module subroutine var_list_set_ival (vars, name, ival, follow_link)
       class(var_list_t), intent(inout) :: vars
       type(string_t), intent(in) :: name
       integer, intent(in) :: ival
       logical, intent(in), optional :: follow_link
     end subroutine var_list_set_ival
     module subroutine var_list_set_rval (vars, name, rval, follow_link)
       class(var_list_t), intent(inout) :: vars
       type(string_t), intent(in) :: name
       real(default), intent(in) :: rval
       logical, intent(in), optional :: follow_link
     end subroutine var_list_set_rval
     module subroutine var_list_set_cval (vars, name, cval, follow_link)
       class(var_list_t), intent(inout) :: vars
       type(string_t), intent(in) :: name
       complex(default), intent(in) :: cval
       logical, intent(in), optional :: follow_link
     end subroutine var_list_set_cval
     module subroutine var_list_set_lval (vars, name, lval, follow_link)
       class(var_list_t), intent(inout) :: vars
       type(string_t), intent(in) :: name
       logical, intent(in) :: lval
       logical, intent(in), optional :: follow_link
     end subroutine var_list_set_lval
     module subroutine var_list_set_sval (vars, name, sval, follow_link)
       class(var_list_t), intent(inout) :: vars
       type(string_t), intent(in) :: name
       type(string_t), intent(in) :: sval
       logical, intent(in), optional :: follow_link
     end subroutine var_list_set_sval
 <<Variables: procedures>>=
   module subroutine var_list_set_ival (vars, name, ival, follow_link)
     class(var_list_t), intent(inout) :: vars
     type(string_t), intent(in) :: name
     integer, intent(in) :: ival
     logical, intent(in), optional :: follow_link
     type(var_entry_t), pointer :: var
     var => var_list_get_var_ptr (vars, name, follow_link=follow_link)
     if (associated (var)) then
        call var_entry_set_int (var, ival, is_known=.true.)
     end if
   end subroutine var_list_set_ival
 
   module subroutine var_list_set_rval (vars, name, rval, follow_link)
     class(var_list_t), intent(inout) :: vars
     type(string_t), intent(in) :: name
     real(default), intent(in) :: rval
     logical, intent(in), optional :: follow_link
     type(var_entry_t), pointer :: var
     var => var_list_get_var_ptr (vars, name, follow_link=follow_link)
     if (associated (var)) then
        call var_entry_set_real (var, rval, is_known=.true.)
     end if
   end subroutine var_list_set_rval
 
   module subroutine var_list_set_cval (vars, name, cval, follow_link)
     class(var_list_t), intent(inout) :: vars
     type(string_t), intent(in) :: name
     complex(default), intent(in) :: cval
     logical, intent(in), optional :: follow_link
     type(var_entry_t), pointer :: var
     var => var_list_get_var_ptr (vars, name, follow_link=follow_link)
     if (associated (var)) then
        call var_entry_set_cmplx (var, cval, is_known=.true.)
     end if
   end subroutine var_list_set_cval
 
   module subroutine var_list_set_lval (vars, name, lval, follow_link)
     class(var_list_t), intent(inout) :: vars
     type(string_t), intent(in) :: name
     logical, intent(in) :: lval
     logical, intent(in), optional :: follow_link
     type(var_entry_t), pointer :: var
     var => var_list_get_var_ptr (vars, name, follow_link=follow_link)
     if (associated (var)) then
        call var_entry_set_log (var, lval, is_known=.true.)
     end if
   end subroutine var_list_set_lval
 
   module subroutine var_list_set_sval (vars, name, sval, follow_link)
     class(var_list_t), intent(inout) :: vars
     type(string_t), intent(in) :: name
     type(string_t), intent(in) :: sval
     logical, intent(in), optional :: follow_link
     type(var_entry_t), pointer :: var
     var => var_list_get_var_ptr (vars, name, follow_link=follow_link)
     if (associated (var)) then
        call var_entry_set_string (var, sval, is_known=.true.)
     end if
   end subroutine var_list_set_sval
 
 @ %def var_list_set_ival
 @ %def var_list_set_rval
 @ %def var_list_set_cval
 @ %def var_list_set_lval
 @ %def var_list_set_sval
 @
 Setting the value, verbose specific versions (as subroutines):
 <<Variables: var list: TBP>>=
   procedure :: set_log => var_list_set_log
   procedure :: set_int => var_list_set_int
   procedure :: set_real => var_list_set_real
   procedure :: set_cmplx => var_list_set_cmplx
   procedure :: set_subevt => var_list_set_subevt
   procedure :: set_pdg_array => var_list_set_pdg_array
   procedure :: set_string => var_list_set_string
 <<Variables: sub interfaces>>=
     module subroutine var_list_set_log &
          (var_list, name, lval, is_known, ignore, force, verbose, model_name)
       class(var_list_t), intent(inout), target :: var_list
       type(string_t), intent(in) :: name
       logical, intent(in) :: lval
       logical, intent(in) :: is_known
       logical, intent(in), optional :: ignore, force, verbose
       type(string_t), intent(in), optional :: model_name
     end subroutine var_list_set_log
     module subroutine var_list_set_int &
          (var_list, name, ival, is_known, ignore, force, verbose, model_name)
       class(var_list_t), intent(inout), target :: var_list
       type(string_t), intent(in) :: name
       integer, intent(in) :: ival
       logical, intent(in) :: is_known
       logical, intent(in), optional :: ignore, force, verbose
       type(string_t), intent(in), optional :: model_name
     end subroutine var_list_set_int
     module subroutine var_list_set_real &
          (var_list, name, rval, is_known, ignore, force, &
           verbose, model_name, pacified)
       class(var_list_t), intent(inout), target :: var_list
       type(string_t), intent(in) :: name
       real(default), intent(in) :: rval
       logical, intent(in) :: is_known
       logical, intent(in), optional :: ignore, force, verbose, pacified
       type(string_t), intent(in), optional :: model_name
     end subroutine var_list_set_real
     module subroutine var_list_set_cmplx &
          (var_list, name, cval, is_known, ignore, force, &
           verbose, model_name, pacified)
       class(var_list_t), intent(inout), target :: var_list
       type(string_t), intent(in) :: name
       complex(default), intent(in) :: cval
       logical, intent(in) :: is_known
       logical, intent(in), optional :: ignore, force, verbose, pacified
       type(string_t), intent(in), optional :: model_name
     end subroutine var_list_set_cmplx
     module subroutine var_list_set_pdg_array &
          (var_list, name, aval, is_known, ignore, force, verbose, model_name)
       class(var_list_t), intent(inout), target :: var_list
       type(string_t), intent(in) :: name
       type(pdg_array_t), intent(in) :: aval
       logical, intent(in) :: is_known
       logical, intent(in), optional :: ignore, force, verbose
       type(string_t), intent(in), optional :: model_name
     end subroutine var_list_set_pdg_array
     module subroutine var_list_set_subevt &
          (var_list, name, pval, is_known, ignore, force, verbose, model_name)
       class(var_list_t), intent(inout), target :: var_list
       type(string_t), intent(in) :: name
       type(subevt_t), intent(in) :: pval
       logical, intent(in) :: is_known
       logical, intent(in), optional :: ignore, force, verbose
       type(string_t), intent(in), optional :: model_name
     end subroutine var_list_set_subevt
     module subroutine var_list_set_string &
          (var_list, name, sval, is_known, ignore, force, verbose, model_name)
       class(var_list_t), intent(inout), target :: var_list
       type(string_t), intent(in) :: name
       type(string_t), intent(in) :: sval
       logical, intent(in) :: is_known
       logical, intent(in), optional :: ignore, force, verbose
       type(string_t), intent(in), optional :: model_name
     end subroutine var_list_set_string
 <<Variables: procedures>>=
   module subroutine var_list_set_log &
        (var_list, name, lval, is_known, ignore, force, verbose, model_name)
     class(var_list_t), intent(inout), target :: var_list
     type(string_t), intent(in) :: name
     logical, intent(in) :: lval
     logical, intent(in) :: is_known
     logical, intent(in), optional :: ignore, force, verbose
     type(string_t), intent(in), optional :: model_name
     type(var_entry_t), pointer :: var
     var => var_list_get_var_ptr (var_list, name, V_LOG)
     if (associated (var)) then
        if (.not. var_entry_is_locked (var, force)) then
           select case (var%type)
           case (V_LOG)
              call var_entry_set_log (var, lval, is_known, verbose, model_name)
           case default
              call var_mismatch_error (name)
           end select
        else
           call var_locked_error (name)
        end if
     else
        call var_missing_error (name, ignore)
     end if
   end subroutine var_list_set_log
 
   module subroutine var_list_set_int &
        (var_list, name, ival, is_known, ignore, force, verbose, model_name)
     class(var_list_t), intent(inout), target :: var_list
     type(string_t), intent(in) :: name
     integer, intent(in) :: ival
     logical, intent(in) :: is_known
     logical, intent(in), optional :: ignore, force, verbose
     type(string_t), intent(in), optional :: model_name
     type(var_entry_t), pointer :: var
     var => var_list_get_var_ptr (var_list, name, V_INT)
     if (associated (var)) then
        if (.not. var_entry_is_locked (var, force)) then
           select case (var%type)
           case (V_INT)
              call var_entry_set_int (var, ival, is_known, verbose, model_name)
           case default
              call var_mismatch_error (name)
           end select
        else
           call var_locked_error (name)
        end if
     else
        call var_missing_error (name, ignore)
     end if
   end subroutine var_list_set_int
 
   module subroutine var_list_set_real &
        (var_list, name, rval, is_known, ignore, force, &
         verbose, model_name, pacified)
     class(var_list_t), intent(inout), target :: var_list
     type(string_t), intent(in) :: name
     real(default), intent(in) :: rval
     logical, intent(in) :: is_known
     logical, intent(in), optional :: ignore, force, verbose, pacified
     type(string_t), intent(in), optional :: model_name
     type(var_entry_t), pointer :: var
     var => var_list_get_var_ptr (var_list, name, V_REAL)
     if (associated (var)) then
        if (.not. var_entry_is_locked (var, force)) then
           select case (var%type)
           case (V_REAL)
              call var_entry_set_real &
                   (var, rval, is_known, verbose, model_name, pacified)
           case default
              call var_mismatch_error (name)
           end select
        else
           call var_locked_error (name)
        end if
     else
        call var_missing_error (name, ignore)
     end if
   end subroutine var_list_set_real
 
   module subroutine var_list_set_cmplx &
        (var_list, name, cval, is_known, ignore, force, &
         verbose, model_name, pacified)
     class(var_list_t), intent(inout), target :: var_list
     type(string_t), intent(in) :: name
     complex(default), intent(in) :: cval
     logical, intent(in) :: is_known
     logical, intent(in), optional :: ignore, force, verbose, pacified
     type(string_t), intent(in), optional :: model_name
     type(var_entry_t), pointer :: var
     var => var_list_get_var_ptr (var_list, name, V_CMPLX)
     if (associated (var)) then
        if (.not. var_entry_is_locked (var, force)) then
           select case (var%type)
           case (V_CMPLX)
              call var_entry_set_cmplx &
                   (var, cval, is_known, verbose, model_name, pacified)
           case default
              call var_mismatch_error (name)
           end select
        else
           call var_locked_error (name)
        end if
     else
        call var_missing_error (name, ignore)
     end if
   end subroutine var_list_set_cmplx
 
   module subroutine var_list_set_pdg_array &
        (var_list, name, aval, is_known, ignore, force, verbose, model_name)
     class(var_list_t), intent(inout), target :: var_list
     type(string_t), intent(in) :: name
     type(pdg_array_t), intent(in) :: aval
     logical, intent(in) :: is_known
     logical, intent(in), optional :: ignore, force, verbose
     type(string_t), intent(in), optional :: model_name
     type(var_entry_t), pointer :: var
     var => var_list_get_var_ptr (var_list, name, V_PDG)
     if (associated (var)) then
        if (.not. var_entry_is_locked (var, force)) then
           select case (var%type)
           case (V_PDG)
              call var_entry_set_pdg_array &
                   (var, aval, is_known, verbose, model_name)
           case default
              call var_mismatch_error (name)
           end select
        else
           call var_locked_error (name)
        end if
     else
        call var_missing_error (name, ignore)
     end if
   end subroutine var_list_set_pdg_array
 
   module subroutine var_list_set_subevt &
        (var_list, name, pval, is_known, ignore, force, verbose, model_name)
     class(var_list_t), intent(inout), target :: var_list
     type(string_t), intent(in) :: name
     type(subevt_t), intent(in) :: pval
     logical, intent(in) :: is_known
     logical, intent(in), optional :: ignore, force, verbose
     type(string_t), intent(in), optional :: model_name
     type(var_entry_t), pointer :: var
     var => var_list_get_var_ptr (var_list, name, V_SEV)
     if (associated (var)) then
        if (.not. var_entry_is_locked (var, force)) then
           select case (var%type)
           case (V_SEV)
              call var_entry_set_subevt &
                   (var, pval, is_known, verbose, model_name)
           case default
              call var_mismatch_error (name)
           end select
        else
           call var_locked_error (name)
        end if
     else
        call var_missing_error (name, ignore)
     end if
   end subroutine var_list_set_subevt
 
   module subroutine var_list_set_string &
        (var_list, name, sval, is_known, ignore, force, verbose, model_name)
     class(var_list_t), intent(inout), target :: var_list
     type(string_t), intent(in) :: name
     type(string_t), intent(in) :: sval
     logical, intent(in) :: is_known
     logical, intent(in), optional :: ignore, force, verbose
     type(string_t), intent(in), optional :: model_name
     type(var_entry_t), pointer :: var
     var => var_list_get_var_ptr (var_list, name, V_STR)
     if (associated (var)) then
        if (.not. var_entry_is_locked (var, force)) then
           select case (var%type)
           case (V_STR)
              call var_entry_set_string &
                   (var, sval, is_known, verbose, model_name)
           case default
              call var_mismatch_error (name)
           end select
        else
           call var_locked_error (name)
        end if
     else
        call var_missing_error (name, ignore)
     end if
   end subroutine var_list_set_string
 
   subroutine var_mismatch_error (name)
     type(string_t), intent(in) :: name
     call msg_fatal ("Type mismatch for variable '" // char (name) // "'")
   end subroutine var_mismatch_error
 
   subroutine var_locked_error (name)
     type(string_t), intent(in) :: name
     call msg_error ("Variable '" // char (name) // "' is not user-definable")
   end subroutine var_locked_error
 
   subroutine var_missing_error (name, ignore)
     type(string_t), intent(in) :: name
     logical, intent(in), optional :: ignore
     logical :: error
     if (present (ignore)) then
        error = .not. ignore
     else
        error = .true.
     end if
     if (error) then
        call msg_fatal ("Variable '" // char (name) // "' has not been declared")
     end if
   end subroutine var_missing_error
 
 @ %def var_list_set_log
 @ %def var_list_set_int
 @ %def var_list_set_real
 @ %def var_list_set_cmplx
 @ %def var_list_set_subevt
 @ %def var_list_set_pdg_array
 @ %def var_list_set_string
 @ %def var_mismatch_error
 @ %def var_missing_error
 @
 Import values for the current variable list from another list.
 <<Variables: var list: TBP>>=
   procedure :: import => var_list_import
 <<Variables: sub interfaces>>=
     module subroutine var_list_import (var_list, src_list)
       class(var_list_t), intent(inout) :: var_list
       type(var_list_t), intent(in) :: src_list
     end subroutine var_list_import
 <<Variables: procedures>>=
   module subroutine var_list_import (var_list, src_list)
     class(var_list_t), intent(inout) :: var_list
     type(var_list_t), intent(in) :: src_list
     type(var_entry_t), pointer :: var, src
     var => var_list%first
     do while (associated (var))
        src => var_list_get_var_ptr (src_list, var%name)
        if (associated (src)) then
           call var_entry_copy_value (var, src)
        end if
        var => var%next
     end do
   end subroutine var_list_import
 
 @ %def var_list_import
 @ Mark all entries in the current variable list as undefined.  This is done
 when a local variable list is discarded.  If the local list is used again (by
 a loop), the entries will be re-initialized.
 <<Variables: var list: TBP>>=
   procedure :: undefine => var_list_undefine
 <<Variables: sub interfaces>>=
     recursive module subroutine var_list_undefine (var_list, follow_link)
       class(var_list_t), intent(inout) :: var_list
       logical, intent(in), optional :: follow_link
     end subroutine var_list_undefine
 <<Variables: procedures>>=
   recursive module subroutine var_list_undefine (var_list, follow_link)
     class(var_list_t), intent(inout) :: var_list
     logical, intent(in), optional :: follow_link
     type(var_entry_t), pointer :: var
     logical :: rec
     rec = .true.;  if (present (follow_link))  rec = follow_link
     var => var_list%first
     do while (associated (var))
        call var_entry_undefine (var)
        var => var%next
     end do
     if (rec .and. associated (var_list%next)) then
        call var_list_undefine (var_list%next, follow_link=follow_link)
     end if
   end subroutine var_list_undefine
 
 @ %def var_list_undefine
 @ Make a deep copy of a variable list.
 <<Variables: var list: TBP>>=
   procedure :: init_snapshot => var_list_init_snapshot
 <<Variables: sub interfaces>>=
     recursive module subroutine var_list_init_snapshot &
          (var_list, vars_in, follow_link)
       class(var_list_t), intent(out) :: var_list
       type(var_list_t), intent(in) :: vars_in
       logical, intent(in), optional :: follow_link
     end subroutine var_list_init_snapshot
 <<Variables: procedures>>=
   recursive module subroutine var_list_init_snapshot &
        (var_list, vars_in, follow_link)
     class(var_list_t), intent(out) :: var_list
     type(var_list_t), intent(in) :: vars_in
     logical, intent(in), optional :: follow_link
     type(var_entry_t), pointer :: var, var_in
     type(var_list_t), pointer :: var_list_next
     logical :: rec
     rec = .true.;  if (present (follow_link))  rec = follow_link
     var_in => vars_in%first
     do while (associated (var_in))
        allocate (var)
        call var_entry_init_copy (var, var_in)
        call var_entry_copy_value (var, var_in)
        call var_list_append (var_list, var)
        var_in => var_in%next
     end do
     if (rec .and. associated (vars_in%next)) then
        allocate (var_list_next)
        call var_list_init_snapshot (var_list_next, vars_in%next)
        call var_list%link (var_list_next)
     end if
   end subroutine var_list_init_snapshot
 
 @ %def var_list_init_snapshot
 @ Check if a user variable can be set.  The [[new]] flag is set if the user
 variable has an explicit declaration.  If an error occurs, return [[V_NONE]]
 as variable type.
 
 Also determine the actual type of generic numerical variables, which enter the
 procedure with type [[V_NONE]].
 <<Variables: var list: TBP>>=
   procedure :: check_user_var => var_list_check_user_var
 <<Variables: sub interfaces>>=
     module subroutine var_list_check_user_var (var_list, name, type, new)
       class(var_list_t), intent(in), target :: var_list
       type(string_t), intent(in) :: name
       integer, intent(inout) :: type
       logical, intent(in) :: new
     end subroutine var_list_check_user_var
 <<Variables: procedures>>=
   module subroutine var_list_check_user_var (var_list, name, type, new)
     class(var_list_t), intent(in), target :: var_list
     type(string_t), intent(in) :: name
     integer, intent(inout) :: type
     logical, intent(in) :: new
     type(var_entry_t), pointer :: var
     var => var_list_get_var_ptr (var_list, name)
     if (associated (var)) then
        if (type == V_NONE) then
           type = var_entry_get_type (var)
        end if
        if (var_entry_is_locked (var)) then
           call msg_fatal ("Variable '" // char (name) &
                // "' is not user-definable")
           type = V_NONE
           return
        else if (new) then
           if (var_entry_is_intrinsic (var)) then
              call msg_fatal ("Intrinsic variable '" &
                   // char (name) // "' redeclared")
              type = V_NONE
              return
           end if
           if (var_entry_get_type (var) /= type) then
              call msg_fatal ("Variable '" // char (name) // "' " &
                   // "redeclared with different type")
              type = V_NONE
              return
           end if
        end if
     end if
   end subroutine var_list_check_user_var
 
 @ %def var_list_check_user_var
 @
 \subsection{Default values for global var list}
 
 <<Variables: var list: TBP>>=
   procedure :: init_defaults => var_list_init_defaults
 <<Variables: sub interfaces>>=
     module subroutine var_list_init_defaults (var_list, seed, paths)
       class(var_list_t), intent(out) :: var_list
       integer, intent(in) :: seed
       type(paths_t), intent(in), optional :: paths
     end subroutine var_list_init_defaults
 <<Variables: procedures>>=
   module subroutine var_list_init_defaults (var_list, seed, paths)
     class(var_list_t), intent(out) :: var_list
     integer, intent(in) :: seed
     type(paths_t), intent(in), optional :: paths
     call var_list%set_beams_defaults (paths)
     call var_list%set_core_defaults (seed)
     call var_list%set_integration_defaults ()
     call var_list%set_phase_space_defaults ()
     call var_list%set_gamelan_defaults ()
     call var_list%set_clustering_defaults ()
     call var_list%set_isolation_recomb_defaults ()
     call var_list%set_eio_defaults ()
     call var_list%set_shower_defaults ()
     call var_list%set_hadronization_defaults ()
     call var_list%set_tauola_defaults  ()
     call var_list%set_mlm_matching_defaults ()
     call var_list%set_powheg_matching_defaults ()
     call var_list%append_log (var_str ("?ckkw_matching"), .false., &
             intrinsic=.true., description=var_str ('Master flag that switches ' // &
             'on the CKKW(-L) (LO) matching between hard scattering matrix ' // &
             'elements and QCD parton showers. Note that this is not yet ' // &
             '(completely) implemented in \whizard. (cf. also \ttt{?allow\_shower}, ' // &
             '\ttt{?ps\_ ...}, \ttt{\$ps\_ ...}, \ttt{?mlm\_ ...})'))
     call var_list%set_openmp_defaults ()
     call var_list%set_mpi_defaults ()
     call var_list%set_nlo_defaults ()
   end subroutine var_list_init_defaults
 
 @ %def var_list_init_defaults
 @
 <<Variables: var list: TBP>>=
   procedure :: set_beams_defaults => var_list_set_beams_defaults
 <<Variables: sub interfaces>>=
     module subroutine var_list_set_beams_defaults (var_list, paths)
       type(paths_t), intent(in), optional :: paths
       class(var_list_t), intent(inout) :: var_list
     end subroutine var_list_set_beams_defaults
 <<Variables: procedures>>=
   module subroutine var_list_set_beams_defaults (var_list, paths)
     type(paths_t), intent(in), optional :: paths
     class(var_list_t), intent(inout) :: var_list
     call var_list%append_real (var_str ("sqrts"), &
           intrinsic=.true., &
           description=var_str ('Real variable in order to set the center-of-mass ' // &
           'energy for the collisions (collider energy $\sqrt{s}$, not ' // &
           'hard interaction energy $\sqrt{\hat{s}}$): \ttt{sqrts = {\em ' // &
           '<num>} [ {\em <phys\_unit>} ]}. The physical unit can be one ' // &
           'of the following \ttt{eV}, \ttt{keV}, \ttt{MeV}, \ttt{GeV}, ' // &
           'and \ttt{TeV}. If absent, \whizard\ takes \ttt{GeV} as its ' // &
           'standard unit. Note that this variable is absolutely mandatory ' // &
           'for integration and simulation of scattering processes.'))
     call var_list%append_real (var_str ("luminosity"), 0._default, &
           intrinsic=.true., &
           description=var_str ('This specifier \ttt{luminosity = {\em ' // &
           '<num>}} sets the integrated luminosity (in inverse femtobarns, ' // &
           'fb${}^{-1}$) for the event generation of the processes in the ' // &
           '\sindarin\ input files. Note that WHIZARD itself chooses the ' // &
           'number from the \ttt{luminosity} or from the \ttt{n\_events} ' // &
           'specifier, whichever would give the larger number of events. ' // &
           'As this depends on the cross section under consideration, it ' // &
           'might be different for different processes in the process list.  ' // &
           '(cf. \ttt{n\_events}, \ttt{\$sample}, \ttt{sample\_format}, \ttt{?unweighted})'))
     call var_list%append_log (var_str ("?sf_trace"), .false., &
           intrinsic=.true., &
           description=var_str ('Debug flag that writes out detailed information ' // &
           'about the structure function setup into the file \ttt{{\em ' // &
           '<proc\_name>}\_sftrace.dat}. This file name can be changed ' // &
           'with ($\to$) \ttt{\$sf\_trace\_file}.'))
     call var_list%append_string (var_str ("$sf_trace_file"), var_str (""), &
           intrinsic=.true., &
           description=var_str ('\ttt{\$sf\_trace\_file = "{\em <file\_name>}"} ' // &
           'allows to change the detailed structure function information ' // &
           'switched on by the debug flag ($\to$) \ttt{?sf\_trace} into ' // &
           'a different file \ttt{{\em <file\_name>}} than the default ' // &
           '\ttt{{\em <proc\_name>}\_sftrace.dat}.'))
     call var_list%append_log (var_str ("?sf_allow_s_mapping"), .true., &
           intrinsic=.true., &
           description=var_str ('Flag that determines whether special mappings ' // &
           'for processes with structure functions and $s$-channel resonances ' // &
           'are applied, e.g. Drell-Yan at hadron colliders, or $Z$ production ' // &
           'at linear colliders with beamstrahlung and ISR.'))
     if (present (paths)) then
        call var_list%append_string (var_str ("$lhapdf_dir"), paths%lhapdfdir, &
              intrinsic=.true., &
              description=var_str ('String variable that tells the path ' // &
              'where the \lhapdf\ library and PDF sets can be found. When ' // &
              'the library has been correctly recognized during configuration, ' // &
              'this is automatically set by \whizard. (cf. also \ttt{lhapdf}, ' // &
              '\ttt{\$lhapdf\_file}, \ttt{lhapdf\_photon}, \ttt{\$lhapdf\_photon\_file}, ' // &
              '\ttt{lhapdf\_member}, \ttt{lhapdf\_photon\_scheme})'))
     else
        call var_list%append_string (var_str ("$lhapdf_dir"), var_str(""), &
              intrinsic=.true., &
              description=var_str ('String variable that tells the path ' // &
              'where the \lhapdf\ library and PDF sets can be found. When ' // &
              'the library has been correctly recognized during configuration, ' // &
              'this is automatically set by \whizard. (cf. also \ttt{lhapdf}, ' // &
              '\ttt{\$lhapdf\_file}, \ttt{lhapdf\_photon}, \ttt{\$lhapdf\_photon\_file}, ' // &
              '\ttt{lhapdf\_member}, \ttt{lhapdf\_photon\_scheme})'))
     end if
     call var_list%append_string (var_str ("$lhapdf_file"), var_str (""), &
           intrinsic=.true., &
           description=var_str ('This string variable \ttt{\$lhapdf\_file ' // &
           '= "{\em <pdf\_set>}"} allows to specify the PDF set \ttt{{\em ' // &
           '<pdf\_set>}} from the external \lhapdf\ library. It must match ' // &
           'the exact name of the PDF set from the \lhapdf\ library. The ' // &
           'default is empty, and the default set from \lhapdf\ is taken. ' // &
           'Only one argument is possible, the PDF set must be identical ' // &
           'for both beams, unless there are fundamentally different beam ' // &
           'particles like proton and photon. (cf. also \ttt{lhapdf}, \ttt{\$lhapdf\_dir}, ' // &
           '\ttt{lhapdf\_photon}, \ttt{\$lhapdf\_photon\_file}, \ttt{lhapdf\_photon\_scheme}, ' // &
           '\ttt{lhapdf\_member})'))
     call var_list%append_string (var_str ("$lhapdf_photon_file"), var_str (""), &
           intrinsic=.true., &
           description=var_str ('String variable \ttt{\$lhapdf\_photon\_file ' // &
           '= "{\em <pdf\_set>}"} analagous to ($\to$) \ttt{\$lhapdf\_file} ' // &
           'for photon PDF structure functions from the external \lhapdf\ ' // &
           'library. The name must exactly match the one of the set from ' // &
           '\lhapdf.  (cf. \ttt{beams}, \ttt{lhapdf}, \ttt{\$lhapdf\_dir}, ' // &
           '\ttt{\$lhapdf\_file}, \ttt{\$lhapdf\_photon\_file}, \ttt{lhapdf\_member}, ' // &
           '\ttt{lhapdf\_photon\_scheme})'))
     call var_list%append_int (var_str ("lhapdf_member"), 0, &
           intrinsic=.true., &
           description=var_str ('Integer variable that specifies the number ' // &
           'of the corresponding PDF set chosen via the command ($\to$) ' // &
           '\ttt{\$lhapdf\_file} or ($\to$) \ttt{\$lhapdf\_photon\_file} ' // &
           'from the external \lhapdf\ library. E.g. error PDF sets can ' // &
           'be chosen by this. (cf. also \ttt{lhapdf}, \ttt{\$lhapdf\_dir}, ' // &
           '\ttt{\$lhapdf\_file}, \ttt{lhapdf\_photon}, \ttt{\$lhapdf\_photon\_file}, ' // &
           '\ttt{lhapdf\_photon\_scheme})'))
     call var_list%append_int (var_str ("lhapdf_photon_scheme"), 0, &
           intrinsic=.true., &
           description=var_str ('Integer parameter that controls the different ' // &
           'available schemes for photon PDFs inside the external \lhapdf\ ' // &
           'library. For more details see the \lhapdf\ manual.  (cf. also ' // &
           '\ttt{lhapdf}, \ttt{\$lhapdf\_dir}, \ttt{\$lhapdf\_file}, \ttt{lhapdf\_photon}, ' // &
           '\ttt{\$lhapdf\_photon\_file}, \ttt{lhapdf\_member})'))
     call var_list%append_string (var_str ("$pdf_builtin_set"), var_str ("CTEQ6L"), &
          intrinsic=.true., &
          description=var_str ("For \whizard's internal PDF structure functions " // &
          'for hadron colliders, this string variable allows to set the ' // &
          'particular PDF set. (cf. also \ttt{pdf\_builtin}, \ttt{pdf\_builtin\_photon})'))
     call var_list%append_log (var_str ("?hoppet_b_matching"), .false., &
           intrinsic=.true., &
           description=var_str ('Flag that switches on the matching between ' // &
           '4- and 5-flavor schemes for hadron collider $b$-parton initiated ' // &
           'processes. Works either with builtin PDFs or with the external ' // &
           '\lhapdf\ interface. Needs the external \ttt{HOPPET} library ' // &
           'to be linked. (cf. \ttt{beams}, \ttt{pdf\_builtin}, \ttt{lhapdf})'))
     call var_list%append_real (var_str ("isr_alpha"), 0._default, &
           intrinsic=.true., &
           description=var_str ('For lepton collider initial-state QED ' // &
           'radiation (ISR), this real parameter sets the value of $\alpha_{em}$ ' // &
           'used in the structure function. If not set, it is taken from ' // &
           'the parameter set of the physics model in use (cf. also \ttt{isr}, ' // &
           '\ttt{isr\_q\_max}, \ttt{isr\_mass}, \ttt{isr\_order}, \ttt{?isr\_recoil}, ' // &
           '\ttt{?isr\_keep\_energy})'))
     call var_list%append_real (var_str ("isr_q_max"), 0._default, &
           intrinsic=.true., &
           description=var_str ('This real parameter allows to set the ' // &
           'scale of the initial-state QED radiation (ISR) structure function. ' // &
           'If not set, it is taken internally to be $\sqrt{s}$.  (cf. ' // &
           'also \ttt{isr}, \ttt{isr\_alpha}, \ttt{isr\_mass}, \ttt{isr\_order}, ' // &
           '\ttt{?isr\_recoil}, \ttt{?isr\_keep\_energy})'))
     call var_list%append_real (var_str ("isr_mass"), 0._default, &
           intrinsic=.true., &
           description=var_str ('This real parameter allows to set by hand ' // &
           'the mass of the incoming particle for lepton collider initial-state ' // &
           'QED radiation (ISR). If not set, the mass for the initial beam ' // &
           'particle is taken from the model in use. (cf. also \ttt{isr}, ' // &
           '\ttt{isr\_q\_max}, \ttt{isr\_alpha}, \ttt{isr\_order}, \ttt{?isr\_recoil}, ' // &
           '\ttt{?isr\_keep\_energy}, \ttt{isr\_log\_order})'))
     call var_list%append_int (var_str ("isr_order"), 3, &
           intrinsic=.true., &
           description=var_str ('For lepton collider initial-state QED ' // &
           'radiation (ISR), this integer parameter allows to set the order ' // &
           'up to which hard-collinear radiation is taken into account. ' // &
           'Default is the highest available, namely third order. (cf. ' // &
           'also \ttt{isr}, \ttt{isr\_q\_max}, \ttt{isr\_mass}, \ttt{isr\_alpha}, ' // &
           '\ttt{?isr\_recoil}, \ttt{?isr\_keep\_energy}, \ttt{isr\_log\_order})'))
     call var_list%append_int (var_str ("isr_log_order"), 0, &
           intrinsic=.true., &
           description=var_str ('For lepton collider initial-state QED ' // &
           'radiation (ISR), this integer parameters sets the logarithmic ' // &
           'order: 0 (default) is LL, 1 is NLL. (cf. ' // &
           'also \ttt{isr}, \ttt{isr\_q\_max}, \ttt{isr\_mass}, \ttt{isr\_alpha}, ' // &
           '\ttt{?isr\_recoil}, \ttt{?isr\_keep\_energy}, \ttt{isr\_order})'))
     call var_list%append_real (var_str ("isr_q_in"), -1._default, &
           intrinsic=.true., &
           description=var_str ('This is the starting scale for the running ' // &
           'of the QED coupling alpha. If negative, the electron mass is taken. ' // &
           '(cf. also \ttt{isr}, ' // &
           '\ttt{isr\_q\_max}, \ttt{isr\_alpha}, \ttt{isr\_order}, \ttt{?isr\_recoil}, ' // &
           '\ttt{?isr\_keep\_energy}, \ttt{isr\_log\_order})'))
     call var_list%append_log (var_str ("?isr_recoil"), .false., &
           intrinsic=.true., &
           description=var_str ('Flag to switch on recoil, i.e. a non-vanishing ' // &
           '$p_T$-kick for the lepton collider initial-state QED radiation ' // &
           '(ISR).  (cf. also \ttt{isr}, \ttt{isr}, \ttt{isr\_alpha}, \ttt{isr\_mass}, ' // &
           '\ttt{isr\_order}, \ttt{isr\_q\_max}, \ttt{isr\_log\_order})'))
     call var_list%append_log (var_str ("?isr_keep_energy"), .false., &
           intrinsic=.true., &
           description=var_str ('As the splitting kinematics for the ISR ' // &
           'structure function violates Lorentz invariance when the recoil ' // &
           'is switched on, this flag forces energy conservation when set ' // &
           'to true, otherwise violating energy conservation.  (cf. also ' // &
           '\ttt{isr}, \ttt{isr\_q\_max}, \ttt{isr\_mass}, \ttt{isr\_order}, ' // &
           '\ttt{?isr\_recoil}, \ttt{?isr\_alpha})'))
     call var_list%append_log (var_str ("?isr_handler"), .false., &
           intrinsic=.true., &
           description=var_str ('Activate ISR ' // &
           'handler for event generation (no effect on integration). ' // &
           'Requires \ttt{isr\_recoil = false}'))
     call var_list%append_string (var_str ("$isr_handler_mode"), &
           var_str ("trivial"), &
           intrinsic=.true., &
           description=var_str ('Operation mode for the ISR ' // &
           'event handler.  Allowed values: \ttt{trivial} (no effect), ' // &
           '\ttt{recoil} (recoil kinematics with two photons)'))
     call var_list%append_log (var_str ("?isr_handler_keep_mass"), .true., &
           intrinsic=.true., &
           description=var_str ('If \ttt{true} (default), force the incoming ' // &
           'partons of the hard process (after radiation) on their mass ' // &
           'shell.  Otherwise, insert massless on-shell momenta.  This ' // &
           'applies only for event generation (no effect on integration, ' // &
           'cf.\ also \ttt{?isr\_handler})'))
     call var_list%append_string (var_str ("$epa_mode"), &
           var_str ("default"), intrinsic=.true., &
           description=var_str ('For the equivalent photon approximation ' // &
           '(EPA), this string variable defines the mode, i.e. the explicit ' // &
           'formula for the EPA distribution. For more details cf. the manual. ' // &
           'Possible are \ttt{default} (\ttt{Budnev\_617}), \ttt{Budnev\_616e}, ' // &
           '\ttt{log\_power}, \ttt{log\_simple}, and \ttt{log}. ' // &
           '(cf. also \ttt{epa}, \ttt{epa\_x\_min}, \ttt{epa\_mass}, \ttt{epa\_e\_max}, ' // &
           '\ttt{epa\_q\_min}, \ttt{?epa\_recoil}, \ttt{?epa\_keep\_energy}, ' // &
           '\ttt{?epa\_handler}, \ttt{\$epa\_handler\_mode})'))
     call var_list%append_real (var_str ("epa_alpha"), 0._default, &
           intrinsic=.true., &
           description=var_str ('For the equivalent photon approximation ' // &
           '(EPA), this real parameter sets the value of $\alpha_{em}$ ' // &
           'used in the structure function. If not set, it is taken from ' // &
           'the parameter set of the physics model in use (cf. also \ttt{epa}, ' // &
           '\ttt{epa\_x\_min}, \ttt{epa\_mass}, \ttt{epa\_e\_max}, \ttt{epa\_q\_min}, ' // &
           '\ttt{?epa\_recoil}, \ttt{?epa\_keep\_energy}, \ttt{\$epa\_mode}, ' // &
           '\ttt{?epa\_handler}, \ttt{\$epa\_handler\_mode})'))
     call var_list%append_real (var_str ("epa_x_min"), 0._default, &
           intrinsic=.true., &
           description=var_str ('Real parameter that sets the lower cutoff ' // &
           'for the energy fraction in the splitting for the equivalent-photon ' // &
           'approximation (EPA). This parameter has to be set by the user ' // &
           'to a non-zero value smaller than one. (cf. also \ttt{epa}, ' // &
           '\ttt{epa\_e\_max}, \ttt{epa\_mass}, \ttt{epa\_alpha}, \ttt{epa\_q\_min}, ' // &
           '\ttt{?epa\_recoil}, \ttt{?epa\_keep\_energy}, \ttt{\$epa\_mode}, ' // &
                     '\ttt{?epa\_handler}, \ttt{\$epa\_handler\_mode})'))
     call var_list%append_real (var_str ("epa_q_min"), 0._default, &
           intrinsic=.true., &
           description=var_str ('In the equivalent-photon approximation ' // &
           '(EPA), this real parameters sets the minimal value for the ' // &
           'transferred momentum. Either this parameter or the mass of ' // &
           'the beam particle has to be non-zero.  (cf. also \ttt{epa}, ' // &
           '\ttt{epa\_x\_min}, \ttt{epa\_mass}, \ttt{epa\_alpha}, \ttt{epa\_q\_max}, ' // &
           '\ttt{?epa\_recoil}, \ttt{?epa\_keep\_energy}, \ttt{\$epa\_mode}, ' // &
           '\ttt{?epa\_handler}, \ttt{\$epa\_handler\_mode})'))
     call var_list%append_real (var_str ("epa_q_max"), 0._default, &
           intrinsic=.true., &
           description=var_str ('This real parameter allows to set the ' // &
           'upper energy cutoff for the equivalent-photon approximation ' // &
           '(EPA). If not set, \whizard\ simply takes the collider energy, ' // &
           '$\sqrt{s}$. (cf. also \ttt{epa}, \ttt{epa\_x\_min}, \ttt{epa\_mass}, ' // &
           '\ttt{epa\_alpha}, \ttt{epa\_q\_min}, \ttt{?epa\_recoil}, \ttt{\$epa\_mode}, ' // &
           '\ttt{?epa\_keep\_energy}, \ttt{?epa\_handler}, \ttt{\$epa\_handler\_mode})'))
     call var_list%append_real (var_str ("epa_mass"), 0._default, &
           intrinsic=.true., &
           description=var_str ('This real parameter allows to set by hand ' // &
           'the mass of the incoming particle for the equivalent-photon ' // &
           'approximation (EPA). If not set, the mass for the initial beam ' // &
           'particle is taken from the model in use. (cf. also \ttt{epa}, ' // &
           '\ttt{epa\_x\_min}, \ttt{epa\_e\_max}, \ttt{epa\_alpha}, \ttt{epa\_q\_min}, ' // &
           '\ttt{?epa\_recoil}, \ttt{?epa\_keep\_energy}, \ttt{\$epa\_mode}. ' // &
           '\ttt{?epa\_handler}, \ttt{\$epa\_handler\_mode})'))
     call var_list%append_log (var_str ("?epa_recoil"), .false., &
           intrinsic=.true., &
           description=var_str ('Flag to switch on recoil, i.e. a non-vanishing ' // &
           '$p_T$-kick for the equivalent-photon approximation (EPA).  ' // &
           '(cf. also \ttt{epa}, \ttt{epa\_x\_min}, \ttt{epa\_mass}, \ttt{epa\_alpha}, ' // &
           '\ttt{epa\_e\_max}, \ttt{epa\_q\_min}, \ttt{?epa\_keep\_energy}, ' // &
           '\ttt{\$epa\_mode}, \ttt{?epa\_handler}, \ttt{\$epa\_handler\_mode})'))
     call var_list%append_log (var_str ("?epa_keep_energy"), .false., &
           intrinsic=.true., &
           description=var_str ('As the splitting kinematics for the EPA ' // &
           'structure function violates Lorentz invariance when the recoil ' // &
           'is switched on, this flag forces energy conservation when set ' // &
           'to true, otherwise violating energy conservation. (cf. also ' // &
           '\ttt{epa}, \ttt{epa\_x\_min}, \ttt{epa\_mass}, \ttt{epa\_alpha}, ' // &
           '\ttt{epa\_q\_min}, \ttt{?epa\_recoil}, \ttt{\$epa\_mode}, ' // &
           '\ttt{?epa\_handler}, \ttt{\$epa\_handler\_mode})'))
     call var_list%append_log (var_str ("?epa_handler"), .false., &
           intrinsic=.true., &
           description=var_str ('Activate EPA ' // &
           'handler for event generation (no effect on integration). ' // &
           'Requires \ttt{epa\_recoil = false}'))
     call var_list%append_string (var_str ("$epa_handler_mode"), &
           var_str ("trivial"), &
           intrinsic=.true., &
           description=var_str ('Operation mode for the EPA ' // &
           'event handler.  Allowed values: \ttt{trivial} (no effect), ' // &
           '\ttt{recoil} (recoil kinematics with two beams)'))
     call var_list%append_real (var_str ("ewa_x_min"), 0._default, &
           intrinsic=.true., &
           description=var_str ('Real parameter that sets the lower cutoff ' // &
           'for the energy fraction in the splitting for the equivalent ' // &
           '$W$ approximation (EWA). This parameter has to be set by the ' // &
           'user to a non-zero value smaller than one. (cf. also \ttt{ewa}, ' // &
           '\ttt{ewa\_pt\_max}, \ttt{ewa\_mass}, \ttt{?ewa\_keep\_energy}, ' // &
           '\ttt{?ewa\_recoil})'))
     call var_list%append_real (var_str ("ewa_pt_max"), 0._default, &
           intrinsic=.true., &
           description=var_str ('This real parameter allows to set the ' // &
           'upper $p_T$ cutoff for the equivalent $W$ approximation (EWA). ' // &
           'If not set, \whizard\ simply takes the collider energy, $\sqrt{s}$. ' // &
           '(cf. also \ttt{ewa}, \ttt{ewa\_x\_min}, \ttt{ewa\_mass}, \ttt{?ewa\_keep\_energy}, ' // &
           '\ttt{?ewa\_recoil})'))
     call var_list%append_real (var_str ("ewa_mass"), 0._default, &
           intrinsic=.true., &
           description=var_str ('This real parameter allows to set by hand ' // &
           'the mass of the incoming particle for the equivalent $W$ approximation ' // &
           '(EWA). If not set, the mass for the initial beam particle is ' // &
           'taken from the model in use. (cf. also \ttt{ewa}, \ttt{ewa\_x\_min}, ' // &
           '\ttt{ewa\_pt\_max}, \ttt{?ewa\_keep\_energy}, \ttt{?ewa\_recoil})'))
     call var_list%append_log (var_str ("?ewa_recoil"), .false., &
          intrinsic=.true., &
          description=var_str ('For the equivalent $W$ approximation (EWA), ' // &
          'this flag switches on recoil, i.e. non-collinear splitting.  ' // &
          '(cf. also \ttt{ewa}, \ttt{ewa\_x\_min}, \ttt{ewa\_pt\_max},  ' // &
          '\ttt{ewa\_mass}, \ttt{?ewa\_keep\_energy})'))
     call var_list%append_log (var_str ("?ewa_keep_energy"), .false., &
           intrinsic=.true., &
           description=var_str ('As the splitting kinematics for the equivalent ' // &
           '$W$ approximation (EWA) violates Lorentz invariance when the ' // &
           'recoil is switched on, this flag forces energy conservation ' // &
           'when set to true, otherwise violating energy conservation. ' // &
           '(cf. also \ttt{ewa}, \ttt{ewa\_x\_min}, \ttt{ewa\_pt\_max},  ' // &
           '\ttt{ewa\_mass}, \ttt{?ewa\_recoil})'))
     call var_list%append_log (var_str ("?circe1_photon1"), .false., &
           intrinsic=.true., &
           description=var_str ('Flag to tell \whizard\ to use the photon ' // &
           'of the \circeone\ beamstrahlung structure function as initiator ' // &
           'for the hard scattering process in the first beam. (cf. also ' // &
           '\ttt{circe1}, \ttt{?circe1\_photon2}, \ttt{circe1\_sqrts},  ' // &
           '\ttt{?circe1\_generate}, \ttt{?circe1\_map}, \ttt{circe1\_eps}, ' // &
           '\newline \ttt{circe1\_mapping\_slope}, \ttt{circe1\_ver}, ' // &
           '\ttt{circe1\_rev}, \ttt{\$circe1\_acc}, \ttt{circe1\_chat}, \newline' // &
           '\ttt{?circe1\_with\_radiation})'))
     call var_list%append_log (var_str ("?circe1_photon2"), .false., &
           intrinsic=.true., &
           description=var_str ('Flag to tell \whizard\ to use the photon ' // &
           'of the \circeone\ beamstrahlung structure function as initiator ' // &
           'for the hard scattering process in the second beam. (cf. also ' // &
           '\ttt{circe1}, \ttt{?circe1\_photon1}, \ttt{circe1\_sqrts},  ' // &
           '\ttt{?circe1\_generate}, \ttt{?circe1\_map}, \ttt{circe1\_eps}, ' // &
           '\newline \ttt{circe1\_mapping\_slope}, \ttt{circe1\_ver}, ' // &
           '\ttt{circe1\_rev}, \ttt{\$circe1\_acc}, \ttt{circe1\_chat}, ' // &
           '\newline\ttt{?circe1\_with\_radiation})'))
     call var_list%append_real (var_str ("circe1_sqrts"), &
           intrinsic=.true., &
           description=var_str ('Real parameter that allows to set the ' // &
           'value of the collider energy for the lepton collider beamstrahlung ' // &
           'structure function \circeone. If not set, $\sqrt{s}$ is taken. ' // &
           '(cf. also \ttt{circe1}, \ttt{?circe1\_photon1}, \ttt{?circe1\_photon2},  ' // &
           '\ttt{?circe1\_generate}, \ttt{?circe1\_map}, \ttt{circe1\_eps}, ' // &
           '\newline \ttt{circe1\_mapping\_slope}, \ttt{circe1\_ver}, ' // &
           '\ttt{circe1\_rev}, \ttt{\$circe1\_acc}, \ttt{circe1\_chat}, \newline' // &
           '\ttt{?circe1\_with\_radiation})'))
     call var_list%append_log (var_str ("?circe1_generate"), .true., &
           intrinsic=.true., &
           description=var_str ('Flag that determines whether the \circeone\ ' // &
           'structure function for lepton collider beamstrahlung uses the ' // &
           'generator mode for the spectrum, or a pre-defined (semi-)analytical ' // &
           'parameterization. Default is the generator mode. (cf. also ' // &
           '\ttt{circe1}, \ttt{?circe1\_photon1}, \newline \ttt{?circe1\_photon2},  ' // &
           '\ttt{circe1\_sqrts}, \ttt{?circe1\_map}, \ttt{circe1\_mapping\_slope}, ' // &
           '\ttt{circe1\_eps}, \newline \ttt{circe1\_ver}, \ttt{circe1\_rev}, ' // &
           '\ttt{\$circe1\_acc}, \ttt{circe1\_chat}, \ttt{?circe1\_with\_radiation})'))
     call var_list%append_log (var_str ("?circe1_map"), .true., &
           intrinsic=.true., &
           description=var_str ('Flag that determines whether the \circeone\ ' // &
           'structure function for lepton collider beamstrahlung uses special ' // &
           'mappings for $s$-channel resonances. (cf. also \ttt{circe1}, ' // &
           '\ttt{?circe1\_photon1}, \newline \ttt{?circe1\_photon2},  ' // &
           '\ttt{circe1\_sqrts}, \ttt{?circe1\_generate}, ' // &
           '\ttt{circe1\_mapping\_slope}, \ttt{circe1\_eps}, \newline ' // &
           '\ttt{circe1\_ver}, \ttt{circe1\_rev}, \ttt{\$circe1\_acc}, ' // &
           '\ttt{circe1\_chat}, \ttt{?circe1\_with\_radiation})'))
     call var_list%append_real (var_str ("circe1_mapping_slope"), 2._default, &
           intrinsic=.true., &
           description=var_str ('Real parameter that allows to vary the ' // &
           'slope of the mapping function for the \circeone\ structure ' // &
           'function for lepton collider beamstrahlung from the default ' // &
           'value \ttt{2.}. (cf. also \ttt{circe1}, \ttt{?circe1\_photon1}, ' // &
           '\ttt{?circe1\_photon2}, \ttt{circe1\_sqrts},  \ttt{?circe1\_generate}, ' // &
           '\ttt{?circe1\_map}, \ttt{circe1\_eps}, \ttt{circe1\_ver}, ' // &
           '\ttt{circe1\_rev}, \ttt{\$circe1\_acc}, \ttt{circe1\_chat}, \newline' // &
           '\ttt{?circe1\_with\_radiation})'))
     call var_list%append_real (var_str ("circe1_eps"), 1e-5_default, &
           intrinsic=.true., &
           description=var_str ('Real parameter, that takes care of the ' // &
           'mapping of the peak in the lepton collider beamstrahlung structure ' // &
           'function spectrum of \circeone.  (cf. also \ttt{circe1}, \ttt{?circe1\_photons}, ' // &
           '\ttt{?circe1\_photon2}, \ttt{circe1\_sqrts}, \ttt{?circe1\_generate}, ' // &
           '\ttt{?circe1\_map}, \ttt{circe1\_eps}, \newline ' // &
           '\ttt{circe1\_mapping\_slope}, \ttt{circe1\_ver}, \ttt{circe1\_rev}, ' // &
           '\ttt{\$circe1\_acc}, \ttt{circe1\_chat}, \newline\ttt{?circe1\_with\_radiation})'))
     call var_list%append_int (var_str ("circe1_ver"), 0, intrinsic=.true., &
          description=var_str ('Integer parameter that sets the internal ' // &
          'versioning number of the \circeone\ structure function for lepton-collider ' // &
          'beamstrahlung. It has to be set by the user explicitly, it takes ' // &
          'values from one to ten.  (cf. also \ttt{circe1}, \ttt{?circe1\_photon1}, ' // &
          '\ttt{?circe1\_photon2},  \ttt{?circe1\_generate}, \ttt{?circe1\_map}, ' // &
          '\ttt{circe1\_eps}, \ttt{circe1\_mapping\_slope}, \ttt{circe1\_sqrts}, ' // &
          '\ttt{circe1\_rev}, \ttt{\$circe1\_acc}, \ttt{circe1\_chat}, ' // &
          '\ttt{?circe1\_with\_radiation})'))
     call var_list%append_int (var_str ("circe1_rev"), 0, intrinsic=.true., &
          description=var_str ('Integer parameter that sets the internal ' // &
          'revision number of the \circeone\ structure function for lepton-collider ' // &
          'beamstrahlung. The default \ttt{0} translates always into the ' // &
          'most recent version; older versions have to be accessed through ' // &
          'the explicit revision date. For more details cf.~the \circeone ' // &
          'manual.  (cf. also \ttt{circe1}, \ttt{?circe1\_photon1}, \ttt{?circe1\_photon2},  ' // &
          '\ttt{?circe1\_generate}, \ttt{?circe1\_map}, \ttt{circe1\_eps}, ' // &
          '\ttt{circe1\_mapping\_slope}, \ttt{circe1\_sqrts}, \ttt{circe1\_ver}, ' // &
          '\ttt{\$circe1\_acc}, \ttt{circe1\_chat}, \ttt{?circe1\_with\_radiation})'))
     call var_list%append_string (var_str ("$circe1_acc"), var_str ("SBAND"), &
           intrinsic=.true., &
           description=var_str ('String variable that specifies the accelerator ' // &
           'type for the \circeone\ structure function for lepton-collider ' // &
           'beamstrahlung.  (\ttt{?circe1\_photons}, \ttt{?circe1\_photon2}, ' // &
           '\ttt{circe1\_sqrts}, \ttt{?circe1\_generate}, \ttt{?circe1\_map}, ' // &
           '\ttt{circe1\_eps}, \ttt{circe1\_mapping\_slope}, \ttt{circe1\_ver}, ' // &
           '\newline \ttt{circe1\_rev}, \ttt{circe1\_chat}, \ttt{?circe1\_with\_radiation})'))
     call var_list%append_int (var_str ("circe1_chat"), 0, intrinsic=.true., &
          description=var_str ('Chattiness of the \circeone\ structure ' // &
          'function for lepton-collider beamstrahlung. The higher the integer ' // &
          'value, the more information will be given out by the \circeone\ ' // &
          'package. (\ttt{?circe1\_photons}, \ttt{?circe1\_photon2}, ' // &
          '\ttt{circe1\_sqrts}, \ttt{?circe1\_generate}, \ttt{?circe1\_map}, ' // &
          '\ttt{circe1\_eps}, \ttt{circe1\_mapping\_slope}, \ttt{circe1\_ver}, ' // &
          '\newline \ttt{circe1\_rev}, \ttt{\$circe1\_acc}, \ttt{?circe1\_with\_radiation})'))
     call var_list%append_log (var_str ("?circe1_with_radiation"), .false., &
          intrinsic=.true., &
          description=var_str ('This logical decides whether the additional photon ' // &
          'or electron ("beam remnant") will be considered in the event record or ' // &
          'not. (\ttt{?circe1\_photons}, \ttt{?circe1\_photon2}, ' // &
          '\ttt{circe1\_sqrts}, \ttt{?circe1\_generate}, \ttt{?circe1\_map}, ' // &
          '\ttt{circe1\_eps}, \ttt{circe1\_mapping\_slope}, \ttt{circe1\_ver}, ' // &
          '\newline \ttt{circe1\_rev}, \ttt{\$circe1\_acc})'))
     call var_list%append_log (var_str ("?circe2_polarized"), .true., &
           intrinsic=.true., &
           description=var_str ('Flag whether the photon spectra from the ' // &
           '\circetwo\ structure function for lepton colliders should be ' // &
           'treated polarized. (cf. also \ttt{circe2}, \ttt{\$circe2\_file}, ' // &
           '\ttt{\$circe2\_design})'))
     call var_list%append_string (var_str ("$circe2_file"), &
           intrinsic=.true., &
           description=var_str ('String variable by which the corresponding ' // &
           'photon collider spectrum for the \circetwo\ structure function ' // &
           'can be selected. (cf. also \ttt{circe2}, \ttt{?circe2\_polarized}, ' // &
           '\ttt{\$circe2\_design})'))
     call var_list%append_string (var_str ("$circe2_design"), var_str ("*"), &
           intrinsic=.true., &
           description=var_str ('String variable that sets the collider ' // &
           'design for the \circetwo\ structure function for photon collider ' // &
           'spectra. (cf. also \ttt{circe2}, \ttt{\$circe2\_file}, \ttt{?circe2\_polarized})'))
     call var_list%append_real (var_str ("gaussian_spread1"), 0._default, &
           intrinsic=.true., &
           description=var_str ('Parameter that sets the energy spread ' // &
           '($\sigma$ value) of the first beam for a Gaussian spectrum.  ' // &
           '(cf. \ttt{gaussian})'))
      call var_list%append_real (var_str ("gaussian_spread2"), 0._default, &
           intrinsic=.true., &
           description=var_str ('Ditto, for the second beam.'))
     call var_list%append_string (var_str ("$beam_events_file"), &
           intrinsic=.true., &
           description=var_str ('String variable that allows to set the ' // &
           "name of the external file from which a beamstrahlung's spectrum " // &
           'for lepton colliders as pairs of energy fractions is read in. ' // &
           '(cf. also \ttt{beam\_events}, \ttt{?beam\_events\_warn\_eof})'))
     call var_list%append_log (var_str ("?beam_events_warn_eof"), .true., &
           intrinsic=.true., &
           description=var_str ('Flag that tells \whizard\ to ' // &
           'issue a warning when in a simulation the end of an external ' // &
           "file for beamstrahlung's spectra for lepton colliders are reached, " // &
           'and energy fractions from the beginning of the file are reused. ' // &
           '(cf. also \ttt{beam\_events}, \ttt{\$beam\_events\_file})'))
     call var_list%append_log (var_str ("?energy_scan_normalize"), .false., &
           intrinsic=.true., &
           description=var_str ('Normalization flag for the energy scan ' // &
           'structure function: if set the total cross section is normalized ' // &
           'to unity. (cf. also \ttt{energy\_scan})'))
     call var_list%append_string (var_str ("$negative_sf"), var_str ("default"), &
           intrinsic=.true., &
           description=var_str ('String variable to set the behavior to either ' // &
           'keep negative structure function/PDF values or set them to zero. ' // &
           'The default (\ttt{"default"}) takes the first option for NLO and the ' // &
           'second for LO processes. Explicit behavior can be set with ' // &
           '\ttt{"positive"} or \ttt{"negative"}.'))
   end subroutine var_list_set_beams_defaults
 
 @ %def var_list_set_beams_defaults
 @
 <<Variables: var list: TBP>>=
   procedure :: set_core_defaults => var_list_set_core_defaults
 <<Variables: sub interfaces>>=
     module subroutine var_list_set_core_defaults (var_list, seed)
       class(var_list_t), intent(inout) :: var_list
       integer, intent(in) :: seed
     end subroutine var_list_set_core_defaults
 <<Variables: procedures>>=
   module subroutine var_list_set_core_defaults (var_list, seed)
     class(var_list_t), intent(inout) :: var_list
     integer, intent(in) :: seed
     logical, target, save :: known = .true.     !!! ??????
     real(default), parameter :: real_specimen = 1.
     call var_list_append_log_ptr &
          (var_list, var_str ("?logging"), logging, known, &
          intrinsic=.true., &
          description=var_str ('This logical -- when set to \ttt{false} ' // &
          '-- suppresses writing out a logfile (default: \ttt{whizard.log}) ' // &
          'for the whole \whizard\ run, or when \whizard\ is run with the ' // &
          '\ttt{--no-logging} option, to suppress parts of the logging ' // &
          'when setting it to \ttt{true} again at a later part of the ' // &
          '\sindarin\ input file. Mainly for debugging purposes.  ' // &
          '(cf. also \ttt{?openmp\_logging}, \ttt{?mpi\_logging})'))
     call var_list%append_string (var_str ("$job_id"), &
          intrinsic=.true., &
          description=var_str ('Arbitrary string that can be used for ' // &
          'creating unique names.  The variable is initialized with the ' // &
          'value of the \ttt{job\_id} option on startup. (cf. also ' // &
          '\ttt{\$compile\_workspace}, \ttt{\$run\_id})'))
     call var_list%append_string (var_str ("$compile_workspace"), &
          intrinsic=.true., &
          description=var_str ('If set, create process source code ' // &
          'and process-driver library code in a subdirectory with this ' // &
          'name.  If non-existent, the directory will be created. (cf. ' // &
          'also \ttt{\$job\_id}, \ttt{\$run\_id}, \ttt{\$integrate\_workspace})'))
     call var_list%append_int (var_str ("seed"), seed, &
           intrinsic=.true., &
           description=var_str ('Integer variable \ttt{seed = {\em <num>}} ' // &
           'that allows to set a specific random seed \ttt{num}. If not ' // &
           'set, \whizard\ takes the time from the system clock to determine ' // &
           'the random seed.'))
     call var_list%append_string (var_str ("$model_name"), &
           intrinsic=.true., &
           description=var_str ('This variable makes the locally used physics ' // &
           'model available as a string, e.g. as \ttt{show (\$model\_name)}. ' // &
           'However, the user is not able to change the current model by ' // &
           'setting this variable to a different string. (cf. also \ttt{model}, ' // &
           '\ttt{\$library\_name}, \ttt{printf}, \ttt{show})'))
     call var_list%append_int (var_str ("process_num_id"), &
          intrinsic=.true., &
          description=var_str ('Using the integer \ttt{process\_num\_id ' // &
          '= {\em <int\_var>}} one can set a numerical identifier for processes ' // &
          'within a process library. This can be set either just before ' // &
          'the corresponding \ttt{process} definition or as an optional ' // &
          'local argument of the latter. (cf. also \ttt{process}, ' // &
          '\ttt{?proc\_as\_run\_id}, \ttt{lcio\_run\_id})'))
     call var_list%append_log (var_str ("?proc_as_run_id"), .true., &
          intrinsic=.true., &
          description=var_str ('Normally, for LCIO the process ID (cf. ' // &
          '\ttt{process\_num\_id}) is used as run ID, unless this flag is ' // &
          'set to \ttt{false}, cf. also \ttt{process}, \ttt{lcio\_run\_id}.'))
     call var_list%append_int (var_str ("lcio_run_id"), 0, &
          intrinsic=.true., &
          description=var_str ('Allows to set an integer run ID for the LCIO ' // &
          'event format. Normally, the process ID is taken as run ID, unless ' // &
          'the flag (cf.) \ttt{?proc\_as\_run\_id} is set to \ttt{false}, ' // &
          'cf. also \ttt{process}.'))
     call var_list%append_string (var_str ("$method"), var_str ("omega"), &
          intrinsic=.true., &
          description=var_str ('This string variable specifies the method ' // &
          'for the matrix elements to be used in the evaluation. The default ' // &
          "is the intrinsic \oMega\ matrix element generator " // &
          '(\ttt{"omega"}), other options are: \ttt{"ovm"}, \ttt{"unit\_test"}, ' // &
          '\ttt{"template\_unity"}, \ttt{"threshold"}. For processes defined ' // &
          '\ttt{"template"}, with \ttt{nlo\_calculation = ...}, please refer to ' // &
          '\ttt{\$born\_me\_method}, \ttt{\$real\_tree\_me\_method}, ' // &
          '\ttt{\$loop\_me\_method} and \ttt{\$correlation\_me\_method}.'))
     call var_list%append_log (var_str ("?report_progress"), .true., &
          intrinsic=.true., &
          description=var_str ('Flag for the \oMega\ matrix element generator ' // &
          'whether to print out status messages about progress during ' // &
          'matrix element generation. (cf. also \ttt{\$method}, \ttt{\$omega\_flags})'))
     call var_list%append_log (var_str ("?me_verbose"), .false., &
          description=var_str ("Flag determining whether " // &
          "the makefile command for generating and compiling the \oMega\ matrix " // &
          "element code is silent or verbose. Default is silent."))
     call var_list%append_string (var_str ("$restrictions"), var_str (""), &
          intrinsic=.true., &
          description=var_str ('This is an optional argument for process ' // &
          'definitions for the matrix element method \ttt{"omega"}. Using ' // &
          'the following construction, it defines a string variable, \ttt{process ' // &
          '\newline {\em <process\_name>} = {\em <particle1>}, {\em <particle2>} ' // &
          '=> {\em <particle3>}, {\em <particle4>}, ... \{ \$restrictions ' // &
          '= "{\em <restriction\_def>}" \}}. The string argument \ttt{{\em ' // &
          '<restriction\_def>}} is directly transferred during the code ' // &
          'generation to the ME generator \oMega. It has to be of the form ' // &
          '\ttt{n1 + n2 + ...  \url{~} {\em <particle (list)>}}, where ' // &
          '\ttt{n1} and so on are the numbers of the particles above in ' // &
          'the process definition. The tilde specifies a certain intermediate ' // &
          'state to be equal to the particle(s) in \ttt{particle (list)}. ' // &
          'An example is \ttt{process eemm\_z =     e1, E1  =>  e2, E2 ' // &
          '\{ \$restrictions = "1+2 \url{~} Z" \} } restricts the code ' // &
          'to be generated for the process $e^- e^+ \to \mu^- \mu^+$ to ' // &
          'the $s$-channel $Z$-boson exchange. For more details see Sec.~\ref{sec:omega_me} ' // &
          '(cf. also \ttt{process})'))
     call var_list%append_log (var_str ("?omega_write_phs_output"), .false., &
          intrinsic=.true., &
          description=var_str ('This flag decides whether a the phase-space ' // &
          'output is produced by the \oMega\ matrix element generator. This ' // &
          'output is written to file(s) and contains the Feynman diagrams ' // &
          'which belong to the process(es) under consideration. The file is ' // &
          'mandatory whenever the variable \ttt{\$phs\_method} has the value ' // &
          '\ttt{fast\_wood}, i.e. if the phase-space file is provided by ' // &
          'cascades2.'))
     call var_list%append_string (var_str ("$omega_flags"), var_str (""), &
          intrinsic=.true., &
          description=var_str ('String variable that allows to pass flags ' // &
          'to the \oMega\ matrix element generator. Normally, \whizard\ ' // &
          'takes care of all flags automatically. Note that for restrictions ' // &
          'of intermediate states, there is a special string variable: ' // &
          '(cf. $\to$) \ttt{\$restrictions}.'))
     call var_list%append_log (var_str ("?read_color_factors"), .true., &
           intrinsic=.true., &
           description=var_str ('This flag decides whether to read QCD ' // &
           'color factors from the matrix element provided by each method, ' // &
           'or to try and calculate the color factors in \whizard\ internally.'))
     call var_list%append_log (var_str ("?slha_read_input"), .true., &
           intrinsic=.true., &
           description=var_str ('Flag which decides whether \whizard\ reads ' // &
           'in the SM and parameter information from the \ttt{SMINPUTS} ' // &
           'and \ttt{MINPAR} common blocks of the SUSY Les Houches Accord ' // &
           'files. (cf. also \ttt{read\_slha}, \ttt{write\_slha}, \ttt{?slha\_read\_spectrum}, ' // &
           '\ttt{?slha\_read\_decays})'))
     call var_list%append_log (var_str ("?slha_read_spectrum"), .true., &
           intrinsic=.true., &
           description=var_str ('Flag which decides whether \whizard\ reads ' // &
           'in the whole spectrum and mixing angle information from the ' // &
           'common blocks of the SUSY Les Houches Accord files. (cf. also ' // &
           '\ttt{read\_slha}, \ttt{write\_slha}, \ttt{?slha\_read\_decays}, ' // &
           '\ttt{?slha\_read\_input})'))
     call var_list%append_log (var_str ("?slha_read_decays"), .false., &
           intrinsic=.true., &
           description=var_str ('Flag which decides whether \whizard\ reads ' // &
           'in the widths and branching ratios from the \ttt{DCINFO} common ' // &
           'block of the SUSY Les Houches Accord files. (cf. also \ttt{read\_slha}, ' // &
           '\ttt{write\_slha}, \ttt{?slha\_read\_spectrum}, \ttt{?slha\_read\_input})'))
     call var_list%append_string (var_str ("$library_name"), &
           intrinsic=.true., &
           description=var_str ('Similar to \ttt{\$model\_name}, this string ' // &
           'variable is used solely to access the name of the active process ' // &
           'library, e.g. in \ttt{printf} statements. (cf. \ttt{compile}, ' // &
           '\ttt{library}, \ttt{printf}, \ttt{show}, \ttt{\$model\_name})'))
     call var_list%append_log (var_str ("?alphas_is_fixed"), .true., &
           intrinsic=.true., &
           description=var_str ('Flag that tells \whizard\ to use a non-running ' // &
           'QCD $\alpha_s$. Note that this has to be set explicitly to $\ttt{false}$ ' // &
           'if the user wants to use one of the running $\alpha_s$ options. ' // &
           '(cf. also \ttt{alphas\_order}, \ttt{?alphas\_from\_lhapdf}, ' // &
           '\ttt{?alphas\_from\_pdf\_builtin}, \ttt{alphas\_nf}, \ttt{?alphas\_from\_mz}, ' // &
           '\newline \ttt{?alphas\_from\_lambda\_qcd}, \ttt{lambda\_qcd})'))
     call var_list%append_log (var_str ("?alpha_is_fixed"), .true., &
           intrinsic=.true., &
           description=var_str ('Flag that tells \whizard\ to use a non-running ' // &
           'QED $\alpha$. Note that this has to be set explicitly to $\ttt{false}$ ' // &
           'if the user wants to use one of the running $\alpha$ options. ' // &
           '(cf. also \ttt{alpha\_order}, \ttt{alpha\_nf}, \ttt{alpha\_lep}, ' // &
           '\ttt{?alphas\_from\_me}'))
     call var_list%append_log (var_str ("?alphas_from_lhapdf"), .false., &
           intrinsic=.true., &
           description=var_str ('Flag that tells \whizard\ to use a running ' // &
           '$\alpha_s$ from the \lhapdf\ library (which has to be correctly ' // &
           'linked). Note that \ttt{?alphas\_is\_fixed} has to be set ' // &
           'explicitly to $\ttt{false}$. (cf. also \ttt{alphas\_order}, ' // &
           '\ttt{?alphas\_is\_fixed}, \ttt{?alphas\_from\_pdf\_builtin}, ' // &
           '\ttt{alphas\_nf}, \ttt{?alphas\_from\_mz}, \ttt{?alphas\_from\_lambda\_qcd}, ' // &
           '\ttt{lambda\_qcd})'))
     call var_list%append_log (var_str ("?alphas_from_pdf_builtin"), .false., &
           intrinsic=.true., &
           description=var_str ('Flag that tells \whizard\ to use a running ' // &
           '$\alpha_s$ from the internal PDFs. Note that in that case \ttt{?alphas\_is\_fixed} ' // &
           'has to be set explicitly to $\ttt{false}$. (cf. also ' // &
           '\ttt{alphas\_order}, \ttt{?alphas\_is\_fixed}, \ttt{?alphas\_from\_lhapdf}, ' // &
           '\ttt{alphas\_nf}, \ttt{?alphas\_from\_mz}, \newline \ttt{?alphas\_from\_lambda\_qcd}, ' // &
           '\ttt{lambda\_qcd})'))
     call var_list%append_log (var_str ("?alpha_evolve_analytic"), .true., &
           intrinsic=.true., &
           description=var_str ('Flag that tells \whizard\ to use analytic running ' // &
           'formulae for $\alpha$ instead of a numeric Runge-Kutta. ' // &
           '(cf. also \ttt{alpha\_order}, \ttt{?alpha\_is\_fixed}, ' // &
           '\ttt{alpha\_nf}, \ttt{alpha\_nlep}, \ttt{?alpha\_from\_me}) '))
     call var_list%append_int (var_str ("alphas_order"), 0, &
           intrinsic=.true., &
           description=var_str ('Integer parameter that sets the order ' // &
           'of the internal evolution for running $\alpha_s$ in \whizard: ' // &
           'the default, \ttt{0}, is LO running, \ttt{1} is NLO, \ttt{2} ' // &
           'is NNLO. (cf. also \ttt{alphas\_is\_fixed}, \ttt{?alphas\_from\_lhapdf}, ' // &
           '\ttt{?alphas\_from\_pdf\_builtin}, \ttt{alphas\_nf}, \ttt{?alphas\_from\_mz}, ' // &
           '\newline \ttt{?alphas\_from\_lambda\_qcd}, \ttt{lambda\_qcd})'))
     call var_list%append_int (var_str ("alpha_order"), 0, &
           intrinsic=.true., &
           description=var_str ('Integer parameter that sets the order ' // &
           'of the internal evolution for running $\alpha$ in \whizard: ' // &
           'the default, \ttt{0}, is LO running, \ttt{1} is NLO. ' // &
           '(cf. also \ttt{alpha\_is\_fixed}, \ttt{alpha\_nf}, \ttt{alphas\_lep}, ' // &
           '\ttt{?alpha\_from\_me})'))
     call var_list%append_int (var_str ("alphas_nf"), 5, &
           intrinsic=.true., &
           description=var_str ('Integer parameter that sets the number ' // &
           'of active quark flavors for the internal evolution for running ' // &
           '$\alpha_s$ in \whizard. (cf. also ' // &
           '\ttt{alphas\_is\_fixed}, \ttt{?alphas\_from\_lhapdf}, \ttt{?alphas\_from\_pdf\_builtin}, ' // &
           '\ttt{alphas\_order}, \ttt{?alphas\_from\_mz}, \newline ' // &
           '\ttt{?alphas\_from\_lambda\_qcd}, \ttt{lambda\_qcd})'))
     call var_list%append_int (var_str ("alpha_nf"), -1, &
           intrinsic=.true., &
           description=var_str ('Integer parameter that sets the number ' // &
           'of active quark flavors for the internal evolution for running ' // &
           '$\alpha$ in \whizard. The default, \ttt{-1}, keeps it equal to \ttt{alphas\_nf} ' // &
           '\ttt{alpha\_is\_fixed}, \ttt{alphas\_order}, \ttt{?alpha\_from\_me}, ' // &
           '\ttt{?alpha\_evolve\_analytic}'))
     call var_list%append_int (var_str ("alpha_nlep"), 1, &
           intrinsic=.true., &
           description=var_str ('Integer parameter that sets the number ' // &
           'of active leptons in the running of $\alpha$ in \whizard. The deffault is' // &
           'one, with only the electron considered massless (cf. also ' // &
           '\ttt{alpha\_is\_fixed}, \ttt{alpha\_nf}, ' // &
           '\ttt{alpha\_order}, \ttt{?alpha\_from\_me}, \ttt{?alpha\_evolve\_analytic})'))
     call var_list%append_log (var_str ("?alphas_from_mz"), .false., &
           intrinsic=.true., &
           description=var_str ('Flag that tells \whizard\ to use its internal ' // &
           'running $\alpha_s$ from $\alpha_s(M_Z)$. Note that in that ' // &
           'case \ttt{?alphas\_is\_fixed} has to be set explicitly to ' // &
           '$\ttt{false}$. (cf. also \ttt{alphas\_order}, \ttt{?alphas\_is\_fixed}, ' // &
           '\ttt{?alphas\_from\_lhapdf}, \ttt{alphas\_nf}, \ttt{?alphas\_from\_pdf\_builtin}, ' // &
           '\newline \ttt{?alphas\_from\_lambda\_qcd}, \ttt{lambda\_qcd})'))
     call var_list%append_log (var_str ("?alphas_from_lambda_qcd"), .false., &
           intrinsic=.true., &
           description=var_str ('Flag that tells \whizard\ to use its internal ' // &
           'running $\alpha_s$ from $\alpha_s(\Lambda_{QCD})$. Note that ' // &
           'in that case \ttt{?alphas\_is\_fixed} has  to be set explicitly ' // &
           'to $\ttt{false}$. (cf. also \ttt{alphas\_order}, \ttt{?alphas\_is\_fixed}, ' // &
           '\ttt{?alphas\_from\_lhapdf}, \ttt{alphas\_nf}, \ttt{?alphas\_from\_pdf\_builtin}, ' // &
           '\newline \ttt{?alphas\_from\_mz}, \ttt{lambda\_qcd})'))
     call var_list%append_real (var_str ("lambda_qcd"), 200.e-3_default, &
           intrinsic=.true., &
           description=var_str ('Real parameter that sets the value for ' // &
           '$\Lambda_{QCD}$ used in the internal evolution for running ' // &
           '$\alpha_s$ in \whizard. (cf. also \ttt{alphas\_is\_fixed}, ' // &
           '\ttt{?alphas\_from\_lhapdf}, \ttt{alphas\_nf}, ' // &
           '\newline \ttt{?alphas\_from\_pdf\_builtin}, ' // &
           '\ttt{?alphas\_from\_mz}, \ttt{?alphas\_from\_lambda\_qcd}, ' // &
           '\ttt{alphas\_order})'))
     call var_list%append_log (var_str ("?fatal_beam_decay"), .true., &
           intrinsic=.true., &
           description=var_str ('Logical variable that let the user decide ' // &
           'whether the possibility of a beam decay is treated as a fatal ' // &
           'error or only as a warning. An example is a process $b t \to ' // &
           'X$, where the bottom quark as an inital state particle appears ' // &
           'as a possible decay product of the second incoming particle, ' // &
           'the top quark. This might trigger inconsistencies or instabilities ' // &
           'in the phase space set-up.'))
     call var_list%append_log (var_str ("?helicity_selection_active"), .true., &
           intrinsic=.true., &
           description=var_str ('Flag that decides whether \whizard\ uses ' // &
           'a numerical selection rule for vanishing helicities: if active, ' // &
           'then, if a certain helicity combination yields an absolute ' // &
           '(\oMega) matrix element smaller than a certain threshold ($\to$ ' // &
           '\ttt{helicity\_selection\_threshold}) more often than a certain ' // &
           'cutoff ($\to$ \ttt{helicity\_selection\_cutoff}), it will be dropped.'))
     call var_list%append_real (var_str ("helicity_selection_threshold"), &
           1E10_default, &
           intrinsic=.true., &
           description=var_str ('Real parameter that gives the threshold ' // &
           'for the absolute value of a certain helicity combination of ' // &
           'an (\oMega) amplitude. If a certain number ($\to$ ' // &
           '\ttt{helicity\_selection\_cutoff}) of calls stays below this ' // &
           'threshold, that combination will be dropped from then on. (cf. ' // &
           'also \ttt{?helicity\_selection\_active})'))
     call var_list%append_int (var_str ("helicity_selection_cutoff"), 1000, &
           intrinsic=.true., &
           description=var_str ('Integer parameter that gives the number ' // &
           "a certain helicity combination of an (\oMega) amplitude has " // &
           'to be below a certain threshold ($\to$ \ttt{helicity\_selection\_threshold}) ' // &
           'in order to be dropped from then on. (cf. also \ttt{?helicity\_selection\_active})'))
     call var_list%append_string (var_str ("$rng_method"), var_str ("tao"), &
           intrinsic=.true., &
           description=var_str ('String variable that allows to set the ' // &
           'method for the random number generation. Default is Donald ' // &
           "Knuth' RNG method \ttt{TAO}."))
     call var_list%append_log (var_str ("?vis_diags"), .false., &
           intrinsic=.true., &
           description=var_str ('Logical variable that allows to give out ' // &
           "a Postscript or PDF file for the Feynman diagrams for a \oMega\ " // &
           'process.  (cf. \ttt{?vis\_diags\_color}).'))
     call var_list%append_log (var_str ("?vis_diags_color"), .false., &
           intrinsic=.true., &
           description=var_str ('Same as \ttt{?vis\_diags}, but switches ' // &
           'on color flow instead of Feynman diagram generation. (cf. \ttt{?vis\_diags}).'))
     call var_list%append_log (var_str ("?check_event_file"), .true., &
           intrinsic=.true., &
           description=var_str ('Setting this to false turns off all sanity ' // &
           'checks when reading a raw event file with previously generated ' // &
           'events.  Use this at your own risk; the program may return ' // &
           'wrong results or crash if data do not match. (cf. also \ttt{?check\_grid\_file}, ' // &
           '\ttt{?check\_phs\_file})'))
     call var_list%append_string (var_str ("$event_file_version"), var_str (""), &
           intrinsic=.true., &
           description=var_str ('String variable that allows to set the ' // &
           'format version of the \whizard\ internal binary event format.'))
     call var_list%append_int (var_str ("n_events"), 0, &
           intrinsic=.true., &
           description=var_str ('This specifier \ttt{n\_events = {\em <num>}} ' // &
           'sets the number of events for the event generation of the processes ' // &
           'in the \sindarin\ input files. Note that WHIZARD itself chooses ' // &
           'the number from the \ttt{n\_events} or from the \ttt{luminosity} ' // &
           'specifier, whichever would give the larger number of events. ' // &
           'As this depends on the cross section under consideration, it ' // &
           'might be different for different processes in the process list.  ' // &
           '(cf. \ttt{luminosity}, \ttt{\$sample}, \ttt{sample\_format}, ' // &
           '\ttt{?unweighted}, \ttt{event\_index\_offset})'))
     call var_list%append_int (var_str ("event_index_offset"), 0, &
           intrinsic=.true., &
           description=var_str ('The value ' // &
           '\ttt{event\_index\_offset = {\em <num>}} ' // &
           'initializes the event counter for a subsequent ' // &
           'event sample.  By default (value 0), the first event ' // &
           'gets index value 1, incrementing by one for each generated event ' // &
           'within a sample.  The event counter is initialized again ' // &
           'for each new sample (i.e., \ttt{integrate} command). ' // &
           'If events are read from file, and the ' // &
           'event file format supports event numbering, the event numbers ' // &
           'will be taken from file instead, and the value of ' // &
           '\ttt{event\_index\_offset} has no effect. ' // &
           '(cf. \ttt{luminosity}, \ttt{\$sample}, \ttt{sample\_format}, ' // &
           '\ttt{?unweighted}, \ttt{n\_events})'))
     call var_list%append_log (var_str ("?unweighted"), .true., &
           intrinsic=.true., &
           description=var_str ('Flag that distinguishes between unweighted ' // &
           'and weighted event generation. (cf. also \ttt{simulate}, \ttt{n\_events}, ' // &
           '\ttt{luminosity}, \ttt{event\_index\_offset})'))
     call var_list%append_real (var_str ("safety_factor"), 1._default, &
           intrinsic=.true., &
           description=var_str ('This real variable \ttt{safety\_factor ' // &
           '= {\em <num>}} reduces the acceptance probability for unweighting.  ' // &
           'If greater than one, excess events become less likely, but ' // &
           'the reweighting efficiency also drops. (cf. \ttt{simulate}, \ttt{?unweighted})'))
     call var_list%append_log (var_str ("?negative_weights"), .false., &
           intrinsic=.true., &
           description=var_str ('Flag that tells \whizard\ to allow negative ' // &
           'weights in integration and simulation. (cf. also \ttt{simulate}, ' // &
           '\ttt{?unweighted})'))
     call var_list%append_log (var_str ("?resonance_history"), .false., &
           intrinsic=.true., &
           description=var_str ( &
           'The logical variable \texttt{?resonance\_history ' // &
           '= true/false} specifies whether during a simulation pass, ' // &
           'the event generator should try to reconstruct intermediate ' // &
           'resonances.  If activated, appropriate resonant subprocess ' // &
           'matrix element code will be automatically generated. '))
     call var_list%append_real (var_str ("resonance_on_shell_limit"), &
           4._default, &
           intrinsic=.true., &
           description=var_str ( &
           'The real variable \texttt{resonance\_on\_shell\_limit ' // &
           '= {\em <num>}} specifies the maximum relative distance from a ' // &
           'resonance peak, such that the kinematical configuration ' // &
           'can still be considered on-shell.  This is relevant only if ' // &
           '\texttt{?resonance\_history = true}.'))
     call var_list%append_real (var_str ("resonance_on_shell_turnoff"), &
           0._default, &
           intrinsic=.true., &
           description=var_str ( &
           'The real variable \texttt{resonance\_on\_shell\_turnoff ' // &
           '= {\em <num>}}, if positive, ' // &
           'controls the smooth transition from resonance-like ' // &
           'to background-like events.  The relative strength of a ' // &
           'resonance is reduced by a Gaussian with width given by this ' // &
           'variable.  In any case, events are treated as background-like ' // &
           'when the off-shellness is greater than ' // &
           '\texttt{resonance\_on\_shell\_limit}.  All of this applies ' // &
           'only if \texttt{?resonance\_history = true}.'))
     call var_list%append_real (var_str ("resonance_background_factor"), &
           1._default, &
           intrinsic=.true., &
           description=var_str ( &
           'The real variable \texttt{resonance\_background\_factor} ' // &
           'controls resonance insertion if a resonance ' // &
           'history applies to a particular event.  In determining '// &
           'whether event kinematics qualifies as resonant or non-resonant, ' //&
           'the non-resonant probability is multiplied by this factor ' // &
           'Setting the factor to zero removes the background ' // &
           'configuration as long as the kinematics qualifies as on-shell ' // &
           'as qualified by \texttt{resonance\_on\_shell\_limit}.'))
      call var_list%append_log (var_str ("?keep_beams"), .false., &
           intrinsic=.true., &
           description=var_str ('The logical variable \ttt{?keep\_beams ' // &
           '= true/false} specifies whether beam particles and beam remnants ' // &
           'are included when writing event files.  For example, in order ' // &
           'to read Les Houches accord event files into \pythia, no beam ' // &
           'particles are allowed.'))
     call var_list%append_log (var_str ("?keep_remnants"), .true., &
           intrinsic=.true., &
           description=var_str ('The logical variable \ttt{?keep\_beams ' // &
           '= true/false} is respected only if \ttt{?keep\_beams} is set.  ' // &
           'If \ttt{true}, beam remnants are tagged as outgoing particles ' // &
           'if they have been neither showered nor hadronized, i.e., have ' // &
           'no children.  If \ttt{false}, beam remnants are also included ' // &
           'in the event record, but tagged as unphysical.  Note that for ' // &
           'ISR and/or beamstrahlung spectra, the radiated photons are ' // &
           'considered as beam remnants.'))
     call var_list%append_log (var_str ("?rescan_force"), .false., &
           intrinsic=.true., &
           description=var_str ('Flag that allows to bypass essential ' // &
           'checks on the particle set when reading event/rescanning files ' // &
           'into \whizard. (cf. \ttt{rescan}, \ttt{?update\_event}, \ttt{?update\_sqme}, ' // &
           '\newline \ttt{?update\_weight})'))
     call var_list%append_log (var_str ("?recover_beams"), .true., &
           intrinsic=.true., &
           description=var_str ('Flag that decides whether the beam particles ' // &
           'should be reconstructed when reading event/rescanning files ' // &
           'into \whizard. (cf. \ttt{rescan}, \ttt{?update\_event}, \ttt{?update\_sqme}, ' // &
           '\newline \ttt{?update\_weight})'))
     call var_list%append_log (var_str ("?update_event"), .false., &
           intrinsic=.true., &
           description=var_str ('Flag that decides whether the events in ' // &
           'an event file should be rebuilt from the hard process when ' // &
           'reading event/rescanning files into \whizard. (cf. \ttt{rescan}, ' // &
           '\ttt{?recover\_beams}, \ttt{?update\_sqme}, \ttt{?update\_weight})'))
     call var_list%append_log (var_str ("?update_sqme"), .false., &
           intrinsic=.true., &
           description=var_str ('Flag that decides whether the squared ' // &
           'matrix element in an event file should be updated/recalculated ' // &
           'when reading event/rescanning files into \whizard. (cf. \ttt{rescan}, ' // &
           '\newline \ttt{?recover\_beams}, \ttt{?update\_event}, \ttt{?update\_weight})'))
     call var_list%append_log (var_str ("?update_weight"), .false., &
           intrinsic=.true., &
           description=var_str ('Flag that decides whether the weights ' // &
           'in an event file should be updated/recalculated when reading ' // &
           'event/rescanning files into \whizard. (cf. \ttt{rescan}, \ttt{?recover\_beams}, ' // &
           '\newline \ttt{?update\_event}, \ttt{?update\_sqme})'))
     call var_list%append_log (var_str ("?use_alphas_from_file"), .false., &
           intrinsic=.true., &
           description=var_str ('Flag that decides whether the current ' // &
           '$\alpha_s$ definition should be used when recalculating matrix ' // &
           'elements for events read from file, or the value that is stored ' // &
           'in the file for that event. (cf. \ttt{rescan}, \ttt{?update\_sqme}, ' // &
           '\ttt{?use\_scale\_from\_file})'))
     call var_list%append_log (var_str ("?use_scale_from_file"), .false., &
           intrinsic=.true., &
           description=var_str ('Flag that decides whether the current ' // &
           'energy-scale expression should be used when recalculating matrix ' // &
           'elements for events read from file, or the value that is stored ' // &
           'in the file for that event. (cf. \ttt{rescan}, \ttt{?update\_sqme}, ' // &
           '\ttt{?use\_alphas\_from\_file})'))
     call var_list%append_log (var_str ("?allow_decays"), .true., &
           intrinsic=.true., &
           description=var_str ('Master flag to switch on cascade decays ' // &
           'for final state particles as an event transform. As a default, ' // &
           'it is switched on. (cf. also \ttt{?auto\_decays}, ' // &
           '\ttt{auto\_decays\_multiplicity}, \ttt{?auto\_decays\_radiative}, ' // &
           '\ttt{?decay\_rest\_frame})'))
     call var_list%append_log (var_str ("?auto_decays"), .false., &
           intrinsic=.true., &
           description=var_str ('Flag, particularly as optional argument of the ($\to$) ' // &
           '\ttt{unstable} command, that tells \whizard\ to automatically ' // &
           'determine the decays of that particle up to the final state ' // &
           'multplicity ($\to$) \ttt{auto\_decays\_multiplicity}. Depending ' // &
           'on the flag ($\to$) \ttt{?auto\_decays\_radiative}, radiative ' // &
           'decays will be taken into account or not. (cf. also \ttt{unstable}, ' // &
           '\ttt{?isotropic\_decay}, \ttt{?diagonal\_decay})'))
     call var_list%append_int (var_str ("auto_decays_multiplicity"), 2, &
           intrinsic=.true., &
           description=var_str ('Integer parameter, that sets -- ' // &
           'for the ($\to$) \ttt{?auto\_decays} option to let \whizard\ ' // &
           'automatically determine the decays of a particle set as ($\to$) ' // &
           '\ttt{unstable} -- the maximal final state multiplicity that ' // &
           'is taken into account. The default is \ttt{2}. The flag \ttt{?auto\_decays\_radiative} ' // &
           'decides whether radiative decays are taken into account. (cf.\ ' // &
           'also \ttt{unstable}, \ttt{?auto\_decays})'))
     call var_list%append_log (var_str ("?auto_decays_radiative"), .false., &
           intrinsic=.true., &
           description=var_str ("If \whizard's automatic detection " // &
           'of decay channels are switched on ($\to$ \ttt{?auto\_decays} ' // &
           'for the ($\to$) \ttt{unstable} command, this flags decides ' // &
           'whether radiative decays (e.g. containing additional photon(s)/gluon(s)) ' // &
           'are taken into account or not. (cf. also \ttt{unstable}, \ttt{auto\_decays\_multiplicity})'))
     call var_list%append_log (var_str ("?decay_rest_frame"), .false., &
           intrinsic=.true., &
           description=var_str ('Flag that allows to force a particle decay ' // &
           'to be simulated in its rest frame.  This simplifies the calculation ' // &
           'for decays as stand-alone processes, but makes the process ' // &
           'unsuitable for use in a decay chain.'))
     call var_list%append_log (var_str ("?isotropic_decay"), .false., &
           intrinsic=.true., &
           description=var_str ('Flag that -- in case of using factorized ' // &
           'production and decays using the ($\to$) \ttt{unstable} command ' // &
           '-- tells \whizard\ to switch off spin correlations completely ' // &
           '(isotropic decay). (cf. also \ttt{unstable}, \ttt{?auto\_decays}, ' // &
           '\ttt{decay\_helicity}, \ttt{?diagonal\_decay})'))
     call var_list%append_log (var_str ("?diagonal_decay"), .false., &
           intrinsic=.true., &
           description=var_str ('Flag that -- in case of using factorized ' // &
           'production and decays using the ($\to$) \ttt{unstable} command ' // &
           '-- tells \whizard\ instead of full spin correlations to take ' // &
           'only the diagonal entries in the spin-density matrix (i.e. ' // &
           'classical spin correlations). (cf. also \ttt{unstable}, \ttt{?auto\_decays}, ' // &
           '\ttt{decay\_helicity}, \ttt{?isotropic\_decay})'))
     call var_list%append_int (var_str ("decay_helicity"), &
           intrinsic=.true., &
           description=var_str ('If this parameter is given an integer ' // &
           'value, any particle decay triggered by a subsequent \ttt{unstable} ' // &
           'declaration will receive a projection on the given helicity ' // &
           'state for the unstable particle.  (cf. also \ttt{unstable}, ' // &
           '\ttt{?isotropic\_decay}, \ttt{?diagonal\_decay}.  The latter ' // &
           'parameters, if true, take precdence over any \ttt{?decay\_helicity} setting.)'))
     call var_list%append_log (var_str ("?polarized_events"), .false., &
             intrinsic=.true., &
             description=var_str ('Flag that allows to select certain helicity ' // &
             'combinations in final state particles in the event files, ' // &
             'and perform analysis on polarized event samples. (cf. also ' // &
             '\ttt{simulate}, \ttt{polarized}, \ttt{unpolarized})'))
     call var_list%append_string (var_str ("$polarization_mode"), &
          var_str ("helicity"), &
          intrinsic=.true., &
          description=var_str ('String variable that specifies the mode in ' // &
          'which the polarization of particles is handled when polarized events ' // &
          'are written out. Possible options are \ttt{"ignore"}, \ttt{"helicity"}, ' // &
          '\ttt{"factorized"}, and \ttt{"correlated"}. For more details cf. the ' // &
          'detailed section.'))
     call var_list%append_log (var_str ("?colorize_subevt"), .false., &
             intrinsic=.true., &
             description=var_str ('Flag that enables color-index tracking ' // &
             'in the subevent (\ttt{subevt}) objects that are used for ' // &
             'internal event analysis.'))
     call var_list%append_real (var_str ("tolerance"), 0._default, &
           intrinsic=.true., &
           description=var_str ('Real variable that defines the absolute ' // &
           'tolerance with which the (logical) function \ttt{expect} accepts ' // &
           'equality or inequality: \ttt{tolerance = {\em <num>}}. This ' // &
           'can e.g. be used for cross-section tests and backwards compatibility ' // &
           'checks.  (cf. also \ttt{expect})'))
     call var_list%append_int (var_str ("checkpoint"), 0, &
          intrinsic = .true., &
          description=var_str ('Setting this integer variable to a positive ' // &
          'integer $n$ instructs simulate to print out a progress summary ' // &
          'every $n$ events.'))
     call var_list%append_int (var_str ("event_callback_interval"), 0, &
          intrinsic = .true., &
          description=var_str ('Setting this integer variable to a positive ' // &
          'integer $n$ instructs simulate to print out a progress summary ' // &
          'every $n$ events.'))
     call var_list%append_log (var_str ("?pacify"), .false., &
          intrinsic=.true., &
          description=var_str ('Flag that allows to suppress numerical ' // &
          'noise and give screen and log file output with a lower number ' // &
          'of significant digits. Mainly for debugging purposes. (cf. also ' // &
          '\ttt{?sample\_pacify})'))
     call var_list%append_string (var_str ("$out_file"), var_str (""), &
           intrinsic=.true., &
           description=var_str ('This character variable allows to specify ' // &
           'the name of the data file to which the histogram and plot data ' // &
           'are written (cf. also \ttt{write\_analysis}, \ttt{open\_out}, ' // &
           '\ttt{close\_out})'))
     call var_list%append_log (var_str ("?out_advance"), .true., &
           intrinsic=.true., &
           description=var_str ('Flag that sets advancing in the \ttt{printf} ' // &
           'output commands, i.e. continuous printing with no line feed ' // &
           'etc. (cf. also \ttt{printf})'))
     call var_list%append_int (var_str ("real_range"), &
          range (real_specimen), intrinsic = .true., locked = .true., &
          description=var_str ('This integer gives the decimal exponent ' // &
          'range of the numeric model for the real float type in use. It cannot ' // &
          'be set by the user. (cf. also \ttt{real\_precision}, ' // &
          '\ttt{real\_epsilon}, \ttt{real\_tiny}).'))
     call var_list%append_int (var_str ("real_precision"), &
          precision (real_specimen), intrinsic = .true., locked = .true., &
          description=var_str ('This integer gives the precision of ' // &
          'the numeric model for the real float type in use. It cannot ' // &
          'be set by the user. (cf. also \ttt{real\_range}, ' // &
          '\ttt{real\_epsilon}, \ttt{real\_tiny}).'))
     call var_list%append_real (var_str ("real_epsilon"), &
          epsilon (real_specimen), intrinsic = .true., locked = .true., &
          description=var_str ('This gives the smallest number $E$ ' // &
          'of the same kind as the float type for which $1 + E > 1$. ' // &
          'It cannot be set by the user. (cf. also \ttt{real\_range}, ' // &
          '\ttt{real\_tiny}, \ttt{real\_precision}).'))
     call var_list%append_real (var_str ("real_tiny"), &
          tiny (real_specimen), intrinsic = .true., locked = .true., &
          description=var_str ('This gives the smallest positive (non-zero) ' // &
          'number in the numeric model for the real float type in use. ' // &
          'It cannot be set by the user. (cf. also \ttt{real\_range}, ' // &
          '\ttt{real\_epsilon}, \ttt{real\_precision}).'))
   end subroutine var_list_set_core_defaults
 
 @ %def var_list_set_core_defaults
 @
 <<Variables: var list: TBP>>=
   procedure :: set_integration_defaults => var_list_set_integration_defaults
 <<Variables: sub interfaces>>=
     module subroutine var_list_set_integration_defaults (var_list)
       class(var_list_t), intent(inout) :: var_list
     end subroutine var_list_set_integration_defaults
 <<Variables: procedures>>=
   module subroutine var_list_set_integration_defaults (var_list)
     class(var_list_t), intent(inout) :: var_list
     call var_list%append_string (var_str ("$integration_method"), var_str ("vamp"), &
           intrinsic=.true., &
           description=var_str ('This string variable specifies the method ' // &
           'for performing the multi-dimensional phase-space integration. ' // &
           'The default is the \vamp\ algorithm (\ttt{"vamp"}), other options ' // &
           'are via the numerical midpoint rule (\ttt{"midpoint"}) or an ' // &
           'alternate \vamptwo\ implementation that is MPI-parallelizable ' // &
           '(\ttt{"vamp2"}).'))
     call var_list%append_int (var_str ("threshold_calls"), 10, &
           intrinsic=.true., &
           description=var_str ('This integer variable gives a limit for ' // &
           'the number of calls in a given channel which acts as a lower ' // &
           'threshold for the channel weight. If the number of calls in ' // &
           'that channel falls below this threshold, the weight is not ' // &
           'lowered further but kept at this threshold. (cf. also ' // &
           '\ttt{channel\_weights\_power})'))
     call var_list%append_int (var_str ("min_calls_per_channel"), 10, &
           intrinsic=.true., &
           description=var_str ('Integer parameter that modifies the settings ' // &
           "of the \vamp\ integrator's grid parameters. It sets the minimal " // &
           'number every channel must be called. If the number of calls ' // &
           'from the iterations is too small, \whizard\ will automatically ' // &
           'increase the number of calls. (cf. \ttt{iterations}, \ttt{min\_calls\_per\_bin}, ' // &
           '\ttt{min\_bins}, \ttt{max\_bins})'))
     call var_list%append_int (var_str ("min_calls_per_bin"), 10, &
           intrinsic=.true., &
           description=var_str ('Integer parameter that modifies the settings ' // &
           "of the \vamp\ integrator's grid parameters. It sets the minimal " // &
           'number every bin in an integration dimension must be called. ' // &
           'If the number of calls from the iterations is too small, \whizard\ ' // &
           'will automatically increase the number of calls. (cf. \ttt{iterations}, ' // &
           '\ttt{min\_calls\_per\_channel}, \ttt{min\_bins}, \ttt{max\_bins})'))
     call var_list%append_int (var_str ("min_bins"), 3, &
           intrinsic=.true., &
           description=var_str ('Integer parameter that modifies the settings ' // &
           "of the \vamp\ integrator's grid parameters. It sets the minimal " // &
           'number of bins per integration dimension. (cf. \ttt{iterations}, ' // &
           '\ttt{max\_bins}, \ttt{min\_calls\_per\_channel}, \ttt{min\_calls\_per\_bin})'))
     call var_list%append_int (var_str ("max_bins"), 20, &
           intrinsic=.true., &
           description=var_str ('Integer parameter that modifies the settings ' // &
           "of the \vamp\ integrator's grid parameters. It sets the maximal " // &
           'number of bins per integration dimension. (cf. \ttt{iterations}, ' // &
           '\ttt{min\_bins}, \ttt{min\_calls\_per\_channel}, \ttt{min\_calls\_per\_bin})'))
     call var_list%append_log (var_str ("?stratified"), .true., &
           intrinsic=.true., &
           description=var_str ('Flag that switches between stratified ' // &
           'and importance sampling for the \vamp\ integration method.'))
     call var_list%append_log (var_str ("?use_vamp_equivalences"), .true., &
           intrinsic=.true., &
           description=var_str ('Flag that decides whether equivalence ' // &
           'relations (symmetries) between different integration channels ' // &
           'are used by the \vamp\ integrator.'))
     call var_list%append_log (var_str ("?vamp_verbose"), .false., &
          intrinsic=.true., &
          description=var_str ('Flag that sets the chattiness of the \vamp\ ' // &
          'integrator. If set, not only errors, but also all warnings and ' // &
          'messages will be written out (not the default). (cf. also \newline ' // &
          '\ttt{?vamp\_history\_global}, \ttt{?vamp\_history\_global\_verbose}, ' // &
          '\ttt{?vamp\_history\_channels}, \newline \ttt{?vamp\_history\_channels\_verbose})'))
     call var_list%append_log (var_str ("?vamp_history_global"), &
          .true., intrinsic=.true., &
          description=var_str ('Flag that decides whether the global history ' // &
          'of the grid adaptation of the \vamp\ integrator are written ' // &
          'into the process logfiles.  (cf. also \ttt{?vamp\_history\_global\_verbose}, ' // &
          '\ttt{?vamp\_history\_channels}, \ttt{?vamp\_history\_channels\_verbose}, ' // &
          '\ttt{?vamp\_verbose})'))
     call var_list%append_log (var_str ("?vamp_history_global_verbose"), &
          .false., intrinsic=.true., &
          description=var_str ('Flag that decides whether the global history ' // &
          'of the grid adaptation of the \vamp\ integrator are written ' // &
          'into the process logfiles in an extended version. Only for debugging ' // &
          'purposes.  (cf. also \ttt{?vamp\_history\_global}, \ttt{?vamp\_history\_channels}, ' // &
          '\ttt{?vamp\_verbose}, \ttt{?vamp\_history\_channels\_verbose})'))
     call var_list%append_log (var_str ("?vamp_history_channels"), &
          .false., intrinsic=.true., &
          description=var_str ('Flag that decides whether the history of ' // &
          'the grid adaptation of the \vamp\ integrator for every single ' // &
          'channel are written into the process logfiles. Only for debugging ' // &
          'purposes.  (cf. also \ttt{?vamp\_history\_global\_verbose}, ' // &
          '\ttt{?vamp\_history\_global}, \ttt{?vamp\_verbose}, \newline ' // &
          '\ttt{?vamp\_history\_channels\_verbose})'))
     call var_list%append_log (var_str ("?vamp_history_channels_verbose"), &
          .false., intrinsic=.true., &
          description=var_str ('Flag that decides whether the history of ' // &
          'the grid adaptation of the \vamp\ integrator for every single ' // &
          'channel are written into the process logfiles in an extended ' // &
          'version. Only for debugging purposes.  (cf. also \ttt{?vamp\_history\_global}, ' // &
          '\ttt{?vamp\_history\_channels}, \ttt{?vamp\_verbose}, \ttt{?vamp\_history\_global\_verbose})'))
     call var_list%append_string (var_str ("$run_id"), var_str (""), &
           intrinsic=.true., &
           description=var_str ('String variable \ttt{\$run\_id = "{\em ' // &
           '<id>}"} that allows to set a special ID for a particular process ' // &
           'run, e.g. in a scan. The run ID is then attached to the process ' // &
           'log file: \newline \ttt{{\em <proc\_name>}\_{\em <proc\_comp>}.{\em ' // &
           '<id>}.log}, the \vamp\ grid file: \newline \ttt{{\em <proc\_name>}\_{\em ' // &
           '<proc\_comp>}.{\em <id>}.vg}, and the phase space file: \newline ' // &
           '\ttt{{\em <proc\_name>}\_{\em <proc\_comp>}.{\em <id>}.phs}. ' // &
           'The run ID string distinguishes among several runs for the ' // &
           'same process.  It identifies process instances with respect ' // &
           'to adapted integration grids and similar run-specific data.  ' // &
           'The run ID is kept when copying processes for creating instances, ' // &
           'however, so it does not distinguish event samples. (cf.\ also ' // &
           '\ttt{\$job\_id}, \ttt{\$compile\_workspace}'))
     call var_list%append_int (var_str ("n_calls_test"), 0, &
           intrinsic=.true., &
           description=var_str ('Integer variable that allows to set a ' // &
           'certain number of matrix element sampling test calls without ' // &
           'actually integrating the process under consideration. (cf. ' // &
           '\ttt{integrate})'))
     call var_list%append_log (var_str ("?integration_timer"), .true., &
           intrinsic=.true., &
           description=var_str ('This flag switches the integration timer ' // &
           'on and off, that gives the estimate for the duration of the ' // &
           'generation of 10,000 unweighted events for each integrated ' // &
           'process.'))
     call var_list%append_log (var_str ("?check_grid_file"), .true., &
           intrinsic=.true., &
           description=var_str ('Setting this to false turns off all sanity ' // &
           'checks when reading a grid file with previous integration data.  ' // &
           'Use this at your own risk; the program may return wrong results ' // &
           'or crash if data do not match. (cf. also \ttt{?check\_event\_file}, \ttt{?check\_phs\_file}) '))
     call var_list%append_real (var_str ("accuracy_goal"), 0._default, &
           intrinsic=.true., &
           description=var_str ('Real parameter that allows the user to ' // &
           'set a minimal accuracy that should be achieved in the Monte-Carlo ' // &
           'integration of a certain process. If that goal is reached, ' // &
           'grid and weight adapation stop, and this result is used for ' // &
           'simulation. (cf. also \ttt{integrate}, \ttt{iterations}, ' // &
           '\ttt{error\_goal}, \ttt{relative\_error\_goal}, ' // &
           '\ttt{error\_threshold})'))
     call var_list%append_real (var_str ("error_goal"), 0._default, &
           intrinsic=.true., &
           description=var_str ('Real parameter that allows the user to ' // &
           'set a minimal absolute error that should be achieved in the ' // &
           'Monte-Carlo integration of a certain process. If that goal ' // &
           'is reached, grid and weight adapation stop, and this result ' // &
           'is used for simulation. (cf. also \ttt{integrate}, \ttt{iterations}, ' // &
           '\ttt{accuracy\_goal}, \ttt{relative\_error\_goal}, \ttt{error\_threshold})'))
     call var_list%append_real (var_str ("relative_error_goal"), 0._default, &
           intrinsic=.true., &
           description=var_str ('Real parameter that allows the user to ' // &
           'set a minimal relative error that should be achieved in the ' // &
           'Monte-Carlo integration of a certain process. If that goal ' // &
           'is reached, grid and weight adaptation stop, and this result ' // &
           'is used for simulation. (cf. also \ttt{integrate}, \ttt{iterations}, ' // &
           '\ttt{accuracy\_goal}, \ttt{error\_goal}, \ttt{error\_threshold})'))
     call var_list%append_int (var_str ("integration_results_verbosity"), 1, &
           intrinsic=.true., &
           description=var_str ('Integer parameter for the verbosity of ' // &
           'the integration results in the process-specific logfile.'))
     call var_list%append_real (var_str ("error_threshold"), &
          0._default, intrinsic=.true., &
          description=var_str ('The real parameter \ttt{error\_threshold ' // &
          '= {\em <num>}} declares that any error value (in absolute numbers) ' // &
          'smaller than \ttt{{\em <num>}} is to be considered zero. The ' // &
          'units are \ttt{fb} for scatterings and \ttt{GeV} for decays. ' // &
          '(cf. also \ttt{integrate}, \ttt{iterations}, \ttt{accuracy\_goal}, ' // &
          '\ttt{error\_goal}, \ttt{relative\_error\_goal})'))
     call var_list%append_real (var_str ("channel_weights_power"), 0.25_default, &
           intrinsic=.true., &
           description=var_str ('Real parameter that allows to vary the ' // &
           'exponent of the channel weights for the \vamp\ integrator.'))
     call var_list%append_string (var_str ("$integrate_workspace"), &
           intrinsic=.true., &
           description=var_str ('Character string that tells \whizard\ ' // &
           'the subdirectory where to find the run-specific phase-space ' // &
           'configuration and the \vamp\ and \vamptwo\ grid files. ' // &
           'If undefined (as per default), \whizard\ creates them and ' // &
           'searches for them in the ' // &
           'current directory.  (cf. also  \ttt{\$job\_id}, ' // &
           '\ttt{\$run\_id}, \ttt{\$compile\_workspace})'))
     call var_list%append_int (var_str ("vamp_grid_checkpoint"), 1, &
           intrinsic=.true., &
           description=var_str ('Integer parameter for setting checkpoints to save ' // &
           'the current state of the grids and the results so far of the integration. ' // &
           'Allowed are all positive integer. Zero values corresponds to a checkpoint ' // &
           'after each integration pass, a one value to a checkpoint after each iteration ' // &
           '(default) and an \(N\) value correspond to a checkpoint after \(N\) iterations ' // &
           ' or after each pass, respectively.'))
     call var_list%append_string (var_str ("$vamp_grid_format"), var_str ("ascii"), &
          intrinsic=.true., &
          description=var_str ('Character string that tells \whizard\ ' // &
          'the file format for \ttt{vamp2} to use for writing and reading ' // &
          'the configuration for the multi-channel integration setup and the ' // &
          '\vamptwo\ (only) grid data. The values can be \ttt{ascii} for a single ' // &
          'human-readable grid file with ending \ttt{.vg2} or \ttt{binary} for two files, ' // &
          'a human-readable header file with ending \ttt{.vg2} and binary file with ending ' // &
          '\ttt{.vgx2} storing the grid data.' // &
          'The main purpose of the binary format is to perform faster I/O, e.g. for HPC runs.' // &
          '\whizard\ can convert between the different file formats automatically.'))
     call var_list%append_string (var_str ("$vamp_parallel_method"), var_str ("simple"), &
          intrinsic=.true., &
          description=var_str ('Character string that tells \whizard\ ' // &
          'the parallel method to use for parallel integration within \ttt{vamp2}.' // &
          ' (i) \ttt{simple} (default) is a local work sharing approach without the need of communication ' // &
          'between all workers except for the communication during result collection.' // &
          ' (ii) \ttt{load} is a global queue approach where the master worker acts as a' // &
          'governor listening and providing work for each worker. The queue is filled and assigned with workers ' // &
          'a-priori with respect to the assumed computational impact of each channel.' // &
          'Both approaches use the same mechanism for result collection using non-blocking ' // &
          'communication allowing for a efficient usage of the computing resources.'))
   end subroutine var_list_set_integration_defaults
 
 @ %def var_list_set_integration_defaults
 @
 <<Variables: var list: TBP>>=
   procedure :: set_phase_space_defaults => var_list_set_phase_space_defaults
 <<Variables: sub interfaces>>=
     module subroutine var_list_set_phase_space_defaults (var_list)
       class(var_list_t), intent(inout) :: var_list
     end subroutine var_list_set_phase_space_defaults
 <<Variables: procedures>>=
   module subroutine var_list_set_phase_space_defaults (var_list)
     class(var_list_t), intent(inout) :: var_list
     call var_list%append_string (var_str ("$phs_method"), var_str ("default"), &
           intrinsic=.true., &
           description=var_str ('String variable that allows to choose ' // &
           'the phase-space parameterization method. The default is the ' // &
           '\ttt{"wood"} method that takes into account electroweak/BSM ' // &
           'resonances. Note that this might not be the best choice for ' // &
           '(pure) QCD amplitudes. (cf. also \ttt{\$phs\_file})'))
     call var_list%append_log (var_str ("?vis_channels"), .false., &
           intrinsic=.true., &
           description=var_str ('Optional logical argument for the \ttt{integrate} ' // &
           'command that demands \whizard\ to generate a PDF or postscript ' // &
           'output showing the classification of the found phase space ' // &
           'channels (if the phase space method \ttt{wood} has been used) ' // &
           'according to their properties: \ttt{integrate (foo) \{ iterations=3:10000 ' // &
           '?vis\_channels = true \}}. The default is \ttt{false}.  (cf. ' // &
           'also \ttt{integrate}, \ttt{?vis\_history})'))
     call var_list%append_log (var_str ("?check_phs_file"), .true., &
           intrinsic=.true., &
           description=var_str ('Setting this to false turns off all sanity ' // &
           'checks when reading a previously generated phase-space configuration ' // &
           'file.  Use this at your own risk; the program may return wrong ' // &
           'results or crash if data do not match. (cf. also \ttt{?check\_event\_file}, ' // &
           '\ttt{?check\_grid\_file})'))
     call var_list%append_string (var_str ("$phs_file"), var_str (""), &
           intrinsic=.true., &
           description=var_str ('This string variable allows the user to ' // &
           'set an individual file name for the phase space parameterization ' // &
           'for a particular process: \ttt{\$phs\_file = "{\em <file\_name>}"}. ' // &
           'If not set, the default is \ttt{{\em <proc\_name>}\_{\em <proc\_comp>}.{\em ' // &
           '<run\_id>}.phs}. (cf. also \ttt{\$phs\_method})'))
     call var_list%append_log (var_str ("?phs_only"), .false., &
           intrinsic=.true., &
           description=var_str ('Flag (particularly as optional argument ' // &
           'of the $\to$ \ttt{integrate} command) that allows to only generate ' // &
           'the phase space file, but not perform the integration. (cf. ' // &
           'also \ttt{\$phs\_method}, \ttt{\$phs\_file})'))
     call var_list%append_real (var_str ("phs_threshold_s"), 50._default, &
           intrinsic=.true., &
           description=var_str ('For the phase space method \ttt{wood}, ' // &
           'this real parameter sets the threshold below which particles ' // &
           'are assumed to be massless in the $s$-channel like kinematic ' // &
           'regions. (cf. also \ttt{phs\_threshold\_t}, \ttt{phs\_off\_shell}, ' // &
           '\ttt{phs\_t\_channel}, \ttt{phs\_e\_scale}, \ttt{phs\_m\_scale}, ' // &
           '\newline \ttt{phs\_q\_scale}, \ttt{?phs\_keep\_resonant}, \ttt{?phs\_step\_mapping}, ' // &
           '\ttt{?phs\_step\_mapping\_exp}, \newline \ttt{?phs\_s\_mapping})'))
     call var_list%append_real (var_str ("phs_threshold_t"), 100._default, &
           intrinsic=.true., &
           description=var_str ('For the phase space method \ttt{wood}, ' // &
           'this real parameter sets the threshold below which particles ' // &
           'are assumed to be massless in the $t$-channel like kinematic ' // &
           'regions. (cf. also \ttt{phs\_threshold\_s}, \ttt{phs\_off\_shell}, ' // &
           '\ttt{phs\_t\_channel}, \ttt{phs\_e\_scale}, \ttt{phs\_m\_scale}, ' // &
           '\newline \ttt{phs\_q\_scale}, \ttt{?phs\_keep\_resonant}, \ttt{?phs\_step\_mapping}, ' // &
           '\ttt{?phs\_step\_mapping\_exp}, \newline \ttt{?phs\_s\_mapping})'))
     call var_list%append_int (var_str ("phs_off_shell"), 2, &
           intrinsic=.true., &
           description=var_str ('Integer parameter that sets the number ' // &
           'of off-shell (not $t$-channel-like, non-resonant) lines that ' // &
           'are taken into account to find a valid phase-space setup in ' // &
           'the \ttt{wood} phase-space method.  (cf. also \ttt{phs\_threshold\_t}, ' // &
           '\ttt{phs\_threshold\_s}, \ttt{phs\_t\_channel}, \ttt{phs\_e\_scale}, ' // &
           '\ttt{phs\_m\_scale}, \ttt{phs\_q\_scale}, \ttt{?phs\_keep\_resonant}, ' // &
           '\ttt{?phs\_step\_mapping}, \newline \ttt{?phs\_step\_mapping\_exp}, ' // &
           '\ttt{?phs\_s\_mapping})'))
     call var_list%append_int (var_str ("phs_t_channel"), 6, &
           intrinsic=.true., &
           description=var_str ('Integer parameter that sets the number ' // &
           'of $t$-channel propagators in multi-peripheral diagrams that ' // &
           'are taken into account to find a valid phase-space setup in ' // &
           'the \ttt{wood} phase-space method.  (cf. also \ttt{phs\_threshold\_t}, ' // &
           '\ttt{phs\_threshold\_s}, \ttt{phs\_off\_shell}, \ttt{phs\_e\_scale}, ' // &
           '\ttt{phs\_m\_scale}, \ttt{phs\_q\_scale}, \ttt{?phs\_keep\_resonant}, ' // &
           '\ttt{?phs\_step\_mapping}, \newline \ttt{?phs\_step\_mapping\_exp}, ' // &
           '\ttt{?phs\_s\_mapping})'))
     call var_list%append_real (var_str ("phs_e_scale"), 10._default, &
           intrinsic=.true., &
           description=var_str ('Real parameter that sets the energy scale ' // &
           'that acts as a cutoff for parameterizing radiation-like kinematics ' // &
           'in the \ttt{wood} phase space method. \whizard\ takes the maximum ' // &
           'of this value and the width of the propagating particle as ' // &
           'a cutoff. (cf. also \ttt{phs\_threshold\_t}, \ttt{phs\_threshold\_s}, ' // &
           '\ttt{phs\_t\_channel}, \ttt{phs\_off\_shell}, \ttt{phs\_m\_scale}, ' // &
           '\ttt{phs\_q\_scale}, \newline \ttt{?phs\_keep\_resonant}, \ttt{?phs\_step\_mapping}, ' // &
           '\ttt{?phs\_step\_mapping\_exp}, \ttt{?phs\_s\_mapping})'))
     call var_list%append_real (var_str ("phs_m_scale"), 10._default, &
           intrinsic=.true., &
           description=var_str ('Real parameter that sets the mass scale ' // &
           'that acts as a cutoff for parameterizing collinear and infrared ' // &
           'kinematics in the \ttt{wood} phase space method. \whizard\ ' // &
           'takes the maximum of this value and the mass of the propagating ' // &
           'particle as a cutoff. (cf. also \ttt{phs\_threshold\_t}, \ttt{phs\_threshold\_s}, ' // &
           '\ttt{phs\_t\_channel}, \ttt{phs\_off\_shell},  \ttt{phs\_e\_scale}, ' // &
           '\ttt{phs\_q\_scale}, \newline \ttt{?phs\_keep\_resonant}, \ttt{?phs\_step\_mapping}, ' // &
           '\ttt{?phs\_step\_mapping\_exp}, \ttt{?phs\_s\_mapping})'))
     call var_list%append_real (var_str ("phs_q_scale"), 10._default, &
           intrinsic=.true., &
           description=var_str ('Real parameter that sets the momentum ' // &
           'transfer scale that acts as a cutoff for parameterizing $t$- ' // &
           'and $u$-channel like kinematics in the \ttt{wood} phase space ' // &
           'method. \whizard\ takes the maximum of this value and the mass ' // &
           'of the propagating particle as a cutoff. (cf. also \ttt{phs\_threshold\_t}, ' // &
           '\ttt{phs\_threshold\_s}, \ttt{phs\_t\_channel}, \ttt{phs\_off\_shell},  ' // &
           '\ttt{phs\_e\_scale}, \ttt{phs\_m\_scale}, \ttt{?phs\_keep\_resonant}, ' // &
           '\ttt{?phs\_step\_mapping}, \ttt{?phs\_step\_mapping\_exp}, ' // &
           '\newline \ttt{?phs\_s\_mapping})'))
     call var_list%append_log (var_str ("?phs_keep_nonresonant"), .true., &
           intrinsic=.true., &
           description=var_str ('Flag that decides whether the \ttt{wood} ' // &
           'phase space method takes into account also non-resonant contributions.  ' // &
           '(cf. also \ttt{phs\_threshold\_t}, \ttt{phs\_threshold\_s}, ' // &
           '\ttt{phs\_t\_channel}, \ttt{phs\_off\_shell}, \ttt{phs\_m\_scale}, ' // &
           '\ttt{phs\_q\_scale}, \ttt{phs\_e\_scale}, \ttt{?phs\_step\_mapping}, ' // &
           '\newline \ttt{?phs\_step\_mapping\_exp}, \ttt{?phs\_s\_mapping})'))
     call var_list%append_log (var_str ("?phs_step_mapping"), .true., &
           intrinsic=.true., &
           description=var_str ('Flag that switches on (or off) a particular ' // &
           'phase space mapping for resonances, where the mass and width ' // &
           'of the resonance are explicitly set as channel cutoffs. (cf. ' // &
           'also \ttt{phs\_threshold\_t}, \ttt{phs\_threshold\_s}, \ttt{phs\_t\_channel}, ' // &
           '\ttt{phs\_off\_shell},  \ttt{phs\_e\_scale}, \newline \ttt{phs\_m\_scale}, ' // &
           '\ttt{?phs\_keep\_resonant}, \ttt{?phs\_q\_scale}, \ttt{?phs\_step\_mapping\_exp}, ' // &
           '\newline \ttt{?phs\_s\_mapping})'))
     call var_list%append_log (var_str ("?phs_step_mapping_exp"), .true., &
           intrinsic=.true., &
           description=var_str ('Flag that switches on (or off) a particular ' // &
           'phase space mapping for resonances, where the mass and width ' // &
           'of the resonance are explicitly set as channel cutoffs. This ' // &
           'is an exponential mapping in contrast to ($\to$) \ttt{?phs\_step\_mapping}. ' // &
           '(cf. also \ttt{phs\_threshold\_t}, \ttt{phs\_threshold\_s}, ' // &
           '\ttt{phs\_t\_channel}, \ttt{phs\_off\_shell},  \ttt{phs\_e\_scale}, ' // &
           '\ttt{phs\_m\_scale}, \newline \ttt{?phs\_q\_scale}, \ttt{?phs\_keep\_resonant}, ' // &
           '\ttt{?phs\_step\_mapping}, \ttt{?phs\_s\_mapping})'))
     call var_list%append_log (var_str ("?phs_s_mapping"), .true., &
           intrinsic=.true., &
           description=var_str ('Flag that allows special mapping for $s$-channel ' // &
           'resonances.  (cf. also \ttt{phs\_threshold\_t}, \ttt{phs\_threshold\_s}, ' // &
           '\ttt{phs\_t\_channel}, \ttt{phs\_off\_shell},  \ttt{phs\_e\_scale}, ' // &
           '\ttt{phs\_m\_scale}, \newline \ttt{?phs\_keep\_resonant}, \ttt{?phs\_q\_scale}, ' // &
           '\ttt{?phs\_step\_mapping}, \ttt{?phs\_step\_mapping\_exp})'))
     call var_list%append_log (var_str ("?vis_history"), .false., &
           intrinsic=.true., &
           description=var_str ('Optional logical argument for the \ttt{integrate} ' // &
           'command that demands \whizard\ to generate a PDF or postscript ' // &
           'output showing the adaptation history of the Monte-Carlo integration ' // &
           'of the process under consideration. (cf. also \ttt{integrate}, ' // &
           '\ttt{?vis\_channels})'))
   end subroutine var_list_set_phase_space_defaults
 
 @ %def var_list_set_phase_space_defaults
 @
 <<Variables: var list: TBP>>=
   procedure :: set_gamelan_defaults => var_list_set_gamelan_defaults
 <<Variables: sub interfaces>>=
     module subroutine var_list_set_gamelan_defaults (var_list)
       class(var_list_t), intent(inout) :: var_list
     end subroutine var_list_set_gamelan_defaults
 <<Variables: procedures>>=
   module subroutine var_list_set_gamelan_defaults (var_list)
     class(var_list_t), intent(inout) :: var_list
     call var_list%append_int (&
          var_str ("n_bins"), 20, &
          intrinsic=.true., &
          description=var_str ("Settings for \whizard's internal graphics " // &
          'output: integer value that sets the number of bins in histograms. ' // &
          '(cf. also \ttt{?normalize\_bins}, \ttt{\$obs\_label}, \ttt{\$obs\_unit}, ' // &
          '\ttt{\$title}, \ttt{\$description}, \ttt{\$x\_label}, \ttt{\$y\_label}, ' // &
          '\ttt{graph\_width\_mm}, \ttt{graph\_height\_mm}, \ttt{?y\_log}, ' // &
          '\ttt{?x\_log}, \ttt{x\_min}, \ttt{x\_max}, \ttt{y\_min}, \ttt{y\_max}, ' // &
          '\ttt{\$gmlcode\_bg}, \ttt{\$gmlcode\_fg}, \ttt{?draw\_histogram}, ' // &
          '\ttt{?draw\_base}, \ttt{?draw\_piecewise}, \ttt{?fill\_curve}, ' // &
          '\ttt{?draw\_curve}, \ttt{?draw\_errors}, \ttt{?draw\_symbols}, ' // &
          '\newline \ttt{\$fill\_options}, \ttt{\$draw\_options}, \ttt{\$err\_options}, ' // &
          '\ttt{\$symbol})'))
     call var_list%append_log (&
          var_str ("?normalize_bins"), .false., &
          intrinsic=.true., &
          description=var_str ("Settings for \whizard's internal graphics " // &
          'output: flag that determines whether the weights shall be normalized ' // &
          'to the bin width or not. (cf. also \ttt{n\_bins}, \ttt{\$obs\_label}, ' // &
          '\ttt{\$obs\_unit}, \ttt{\$title}, \ttt{\$description}, \ttt{\$x\_label}, ' // &
          '\ttt{\$y\_label}, \ttt{graph\_width\_mm}, \ttt{graph\_height\_mm}, ' // &
          '\ttt{?y\_log}, \ttt{?x\_log}, \ttt{x\_min}, \ttt{x\_max}, \ttt{y\_min}, ' // &
          '\ttt{y\_max}, \ttt{\$gmlcode\_bg}, \ttt{\$gmlcode\_fg}, \ttt{?draw\_histogram}, ' // &
          '\newline \ttt{?draw\_base}, \ttt{?draw\_piecewise}, \ttt{?fill\_curve}, ' // &
          '\ttt{?draw\_curve}, \ttt{?draw\_errors}, \ttt{\$symbol}, \newline ' // &
          '\ttt{?draw\_symbols}, \ttt{\$fill\_options}, \ttt{\$draw\_options}, ' // &
          '\ttt{\$err\_options})'))
     call var_list%append_string (var_str ("$obs_label"), var_str (""), &
          intrinsic=.true., &
          description=var_str ("Settings for \whizard's internal graphics " // &
          'output: this is a string variable \ttt{\$obs\_label = "{\em ' // &
          '<LaTeX\_Code>}"} that allows to attach a label to a plotted ' // &
          'or histogrammed observable. (cf. also \ttt{n\_bins}, \ttt{?normalize\_bins}, ' // &
          '\ttt{\$obs\_unit}, \ttt{\$title}, \ttt{\$description}, \ttt{\$x\_label}, ' // &
          '\ttt{\$y\_label}, \ttt{?y\_log}, \ttt{?x\_log}, \ttt{graph\_width\_mm}, ' // &
          '\ttt{graph\_height\_mm}, \ttt{x\_min}, \ttt{x\_max}, \ttt{y\_min}, ' // &
          '\ttt{y\_max}, \ttt{\$gmlcode\_bg}, \ttt{\$gmlcode\_fg}, \ttt{?draw\_base}, ' // &
          '\ttt{?draw\_histogram}, \ttt{?draw\_piecewise}, \newline \ttt{?fill\_curve}, ' // &
          '\ttt{?draw\_curve}, \ttt{?draw\_errors}, \ttt{\$symbol}, \ttt{?draw\_symbols}, ' // &
          '\ttt{\$fill\_options}, \ttt{\$draw\_options}, \ttt{\$err\_options})'))
     call var_list%append_string (var_str ("$obs_unit"), var_str (""), &
           intrinsic=.true., &
           description=var_str ("Settings for \whizard's internal graphics " // &
           'output: this is a string variable \ttt{\$obs\_unit = "{\em ' // &
           '<LaTeX\_Code>}"} that allows to attach a \LaTeX\ physical unit ' // &
           'to a plotted or histogrammed observable. (cf. also \ttt{n\_bins}, ' // &
           '\ttt{?normalize\_bins}, \ttt{\$obs\_unit}, \ttt{\$title}, \ttt{\$description}, ' // &
           '\ttt{\$x\_label}, \ttt{\$y\_label}, \ttt{?y\_log}, \ttt{?x\_log}, ' // &
           '\ttt{graph\_width\_mm}, \ttt{graph\_height\_mm}, \ttt{x\_min}, ' // &
           '\ttt{x\_max}, \ttt{y\_min}, \ttt{y\_max}, \ttt{\$gmlcode\_bg}, ' // &
           '\ttt{\$gmlcode\_fg}, \ttt{?draw\_base}, \ttt{?draw\_histogram}, ' // &
           '\ttt{?fill\_curve}, \ttt{?draw\_piecewise}, \ttt{?draw\_curve}, ' // &
           '\ttt{?draw\_errors}, \ttt{\$symbol}, \ttt{?draw\_symbols}, ' // &
           '\ttt{\$fill\_options}, \ttt{\$draw\_options}, \ttt{\$err\_options})'))
     call var_list%append_string (var_str ("$title"), var_str (""), &
           intrinsic=.true., &
           description=var_str ('This string variable sets the title of ' // &
           'a plot in a \whizard\ analysis setup, e.g. a histogram or an ' // &
           'observable. The syntax is \ttt{\$title = "{\em <your title>}"}. ' // &
           'This title appears as a section header in the analysis file, ' // &
           'but not in the screen output of the analysis.  (cf. also \ttt{n\_bins}, ' // &
           '\ttt{?normalize\_bins}, \ttt{\$obs\_unit}, \ttt{\$description}, ' // &
           '\ttt{\$x\_label}, \ttt{\$y\_label}, \ttt{?y\_log}, \ttt{?x\_log}, ' // &
           '\ttt{graph\_width\_mm}, \ttt{graph\_height\_mm}, \ttt{x\_min}, ' // &
           '\ttt{x\_max}, \ttt{y\_min}, \ttt{y\_max}, \ttt{\$gmlcode\_bg}, ' // &
           '\ttt{\$gmlcode\_fg}, \ttt{?draw\_base}, \ttt{?draw\_histogram}, ' // &
           '\ttt{?fill\_curve}, \ttt{?draw\_piecewise}, \newline \ttt{?draw\_curve}, ' // &
           '\ttt{?draw\_errors}, \ttt{\$symbol}, \ttt{?draw\_symbols}, ' // &
           '\ttt{\$fill\_options}, \ttt{\$draw\_options}, \ttt{\$err\_options})'))
     call var_list%append_string (var_str ("$description"), var_str (""), &
           intrinsic=.true., &
           description=var_str ('String variable that allows to specify ' // &
           'a description text for the analysis, \ttt{\$description = "{\em ' // &
           '<LaTeX analysis descr.>}"}.  This line appears below the title ' // &
           'of a corresponding analysis, on top of the respective plot.  ' // &
           '(cf. also \ttt{analysis}, \ttt{n\_bins}, \ttt{?normalize\_bins}, ' // &
           '\ttt{\$obs\_unit}, \ttt{\$x\_label}, \ttt{\$y\_label}, \ttt{?y\_log}, ' // &
           '\ttt{?x\_log}, \ttt{graph\_width\_mm}, \ttt{graph\_height\_mm}, ' // &
           '\ttt{x\_min}, \ttt{x\_max}, \ttt{y\_min}, \ttt{y\_max}, \ttt{\$gmlcode\_bg}, ' // &
           '\ttt{\$gmlcode\_fg}, \ttt{?draw\_base}, \ttt{?draw\_histogram}, ' // &
           '\ttt{?fill\_curve}, \ttt{?draw\_piecewise}, \ttt{?draw\_curve}, ' // &
           '\ttt{?draw\_errors}, \ttt{\$symbol}, \ttt{?draw\_symbols}, ' // &
           '\ttt{\$fill\_options}, \ttt{\$draw\_options}, \ttt{\$err\_options})'))
     call var_list%append_string (var_str ("$x_label"), var_str (""), &
           intrinsic=.true., &
           description=var_str ('String variable, \ttt{\$x\_label = "{\em ' // &
           '<LaTeX code>}"}, that sets the $x$ axis label in a plot or ' // &
           'histogram in a \whizard\ analysis.  (cf. also \ttt{analysis}, ' // &
           '\ttt{n\_bins}, \ttt{?normalize\_bins}, \ttt{\$obs\_unit}, \ttt{\$y\_label}, ' // &
           '\ttt{?y\_log}, \ttt{?x\_log}, \ttt{graph\_width\_mm}, \ttt{graph\_height\_mm}, ' // &
           '\ttt{x\_min}, \ttt{x\_max}, \ttt{y\_min}, \ttt{y\_max}, \newline ' // &
           '\ttt{\$gmlcode\_bg}, \ttt{\$gmlcode\_fg}, \ttt{?draw\_base}, ' // &
           '\ttt{?draw\_histogram}, \ttt{?fill\_curve}, \newline \ttt{?draw\_piecewise}, ' // &
           '\ttt{?draw\_curve}, \ttt{?draw\_errors}, \ttt{\$symbol}, \ttt{?draw\_symbols}, ' // &
           '\ttt{\$fill\_options}, \ttt{\$draw\_options}, \ttt{\$err\_options})'))
     call var_list%append_string (var_str ("$y_label"), var_str (""), &
           intrinsic=.true., &
           description=var_str ('String variable, \ttt{\$y\_label = "{\em ' // &
           '<LaTeX\_code>}"}, that sets the $y$ axis label in a plot or ' // &
           'histogram in a \whizard\ analysis.  (cf. also \ttt{analysis}, ' // &
           '\ttt{n\_bins}, \ttt{?normalize\_bins}, \ttt{\$obs\_unit}, \ttt{?y\_log}, ' // &
           '\ttt{?x\_log}, \ttt{graph\_width\_mm}, \ttt{graph\_height\_mm}, ' // &
           '\ttt{x\_min}, \ttt{x\_max}, \ttt{y\_min}, \ttt{y\_max}, \newline ' // &
           '\ttt{\$gmlcode\_bg}, \ttt{\$gmlcode\_fg}, \ttt{?draw\_base}, ' // &
           '\ttt{?draw\_histogram}, \ttt{?fill\_curve}, \newline \ttt{?draw\_piecewise}, ' // &
           '\ttt{?draw\_curve}, \ttt{?draw\_errors}, \ttt{\$symbol}, \ttt{?draw\_symbols}, ' // &
           '\newline \ttt{\$fill\_options}, \ttt{\$draw\_options}, \ttt{\$err\_options})'))
     call var_list%append_int (var_str ("graph_width_mm"), 130, &
           intrinsic=.true., &
           description=var_str ("Settings for \whizard's internal graphics " // &
           'output: integer value that sets the width of a graph or histogram ' // &
           'in millimeters. (cf. also \ttt{?normalize\_bins}, \ttt{\$obs\_label}, ' // &
           '\ttt{\$obs\_unit}, \ttt{\$title}, \ttt{\$description}, \ttt{\$x\_label}, ' // &
           '\ttt{\$y\_label}, \ttt{graph\_height\_mm}, \ttt{?y\_log}, \ttt{?x\_log}, ' // &
           '\ttt{x\_min}, \ttt{x\_max}, \ttt{y\_min}, \ttt{y\_max}, \ttt{\$gmlcode\_bg}, ' // &
           '\ttt{\$gmlcode\_fg}, \ttt{?draw\_histogram}, \ttt{?draw\_base}, ' // &
           '\newline \ttt{?draw\_piecewise}, \ttt{?fill\_curve}, \ttt{?draw\_curve}, ' // &
           '\ttt{?draw\_errors}, \ttt{?draw\_symbols}, \newline \ttt{\$fill\_options}, ' // &
           '\ttt{\$draw\_options}, \ttt{\$err\_options}, \ttt{\$symbol})'))
     call var_list%append_int (var_str ("graph_height_mm"), 90, &
           intrinsic=.true., &
           description=var_str ("Settings for \whizard's internal graphics " // &
           'output: integer value that sets the height of a graph or histogram ' // &
           'in millimeters. (cf. also \ttt{?normalize\_bins}, \ttt{\$obs\_label}, ' // &
           '\ttt{\$obs\_unit}, \ttt{\$title}, \ttt{\$description}, \ttt{\$x\_label}, ' // &
           '\ttt{\$y\_label}, \ttt{graph\_width\_mm}, \ttt{?y\_log}, \ttt{?x\_log}, ' // &
           '\ttt{x\_min}, \ttt{x\_max}, \ttt{y\_min}, \ttt{y\_max}, \ttt{\$gmlcode\_bg}, ' // &
           '\ttt{\$gmlcode\_fg}, \ttt{?draw\_histogram}, \ttt{?draw\_base}, ' // &
           '\newline \ttt{?draw\_piecewise}, \ttt{?fill\_curve}, \ttt{?draw\_curve}, ' // &
           '\ttt{?draw\_errors}, \ttt{?draw\_symbols}, \newline \ttt{\$fill\_options}, ' // &
           '\ttt{\$draw\_options}, \ttt{\$err\_options}, \ttt{\$symbol})'))
     call var_list%append_log (var_str ("?y_log"), .false., &
           intrinsic=.true., &
           description=var_str ("Settings for \whizard's internal graphics " // &
           'output: flag that makes the $y$ axis logarithmic. (cf. also ' // &
           '\ttt{?normalize\_bins}, \ttt{\$obs\_label}, \ttt{\$obs\_unit}, ' // &
           '\ttt{\$title}, \ttt{\$description}, \ttt{\$x\_label}, \ttt{\$y\_label}, ' // &
           '\ttt{graph\_height\_mm}, \ttt{graph\_width\_mm}, \ttt{?y\_log}, ' // &
           '\ttt{x\_min}, \ttt{x\_max}, \ttt{y\_min}, \ttt{y\_max}, \newline ' // &
           '\ttt{\$gmlcode\_bg}, \ttt{\$gmlcode\_fg}, \ttt{?draw\_histogram}, ' // &
           '\ttt{?draw\_base}, \ttt{?draw\_piecewise}, \newline \ttt{?fill\_curve}, ' // &
           '\ttt{?draw\_curve}, \ttt{?draw\_errors}, \ttt{?draw\_symbols}, ' // &
           '\ttt{\$fill\_options}, \newline \ttt{\$draw\_options}, \ttt{\$err\_options}, ' // &
           '\ttt{\$symbol})'))
     call var_list%append_log (var_str ("?x_log"), .false., &
           intrinsic=.true., &
           description=var_str ("Settings for \whizard's internal graphics " // &
           'output: flag that makes the $x$ axis logarithmic. (cf. also ' // &
           '\ttt{?normalize\_bins}, \ttt{\$obs\_label}, \ttt{\$obs\_unit}, ' // &
           '\ttt{\$title}, \ttt{\$description}, \ttt{\$x\_label}, \ttt{\$y\_label}, ' // &
           '\ttt{graph\_height\_mm}, \ttt{graph\_width\_mm}, \ttt{?y\_log}, ' // &
           '\ttt{x\_min}, \ttt{x\_max}, \ttt{y\_min}, \ttt{y\_max}, \newline ' // &
           '\ttt{\$gmlcode\_bg}, \ttt{\$gmlcode\_fg}, \ttt{?draw\_histogram}, ' // &
           '\ttt{?draw\_base}, \ttt{?draw\_piecewise}, \newline \ttt{?fill\_curve}, ' // &
           '\ttt{?draw\_curve}, \ttt{?draw\_errors}, \ttt{?draw\_symbols}, ' // &
           '\ttt{\$fill\_options}, \newline \ttt{\$draw\_options}, \ttt{\$err\_options}, ' // &
           '\ttt{\$symbol})'))
     call var_list%append_real (var_str ("x_min"),  &
           intrinsic=.true., &
           description=var_str ("Settings for \whizard's internal graphics " // &
           'output: real parameter that sets the lower limit of the $x$ ' // &
           'axis plotting or histogram interval. (cf. also \ttt{?normalize\_bins}, ' // &
           '\ttt{\$obs\_label}, \ttt{\$obs\_unit}, \ttt{\$title}, \ttt{\$description}, ' // &
           '\ttt{\$x\_label}, \ttt{\$y\_label}, \ttt{graph\_height\_mm}, ' // &
           '\ttt{?y\_log}, \newline \ttt{?x\_log}, \ttt{graph\_width\_mm}, ' // &
           '\ttt{x\_max}, \ttt{y\_min}, \ttt{y\_max}, \ttt{\$gmlcode\_bg}, ' // &
           '\ttt{\$gmlcode\_fg}, \ttt{?draw\_base}, \newline \ttt{?draw\_histogram}, ' // &
           '\ttt{?draw\_piecewise}, \ttt{?fill\_curve}, \ttt{?draw\_curve}, ' // &
           '\ttt{?draw\_errors}, \newline \ttt{?draw\_symbols}, \ttt{\$fill\_options}, ' // &
           '\ttt{\$draw\_options}, \ttt{\$err\_options}, \ttt{\$symbol})'))
     call var_list%append_real (var_str ("x_max"),  &
           intrinsic=.true., &
           description=var_str ("Settings for \whizard's internal graphics " // &
           'output: real parameter that sets the upper limit of the $x$ ' // &
           'axis plotting or histogram interval. (cf. also \ttt{?normalize\_bins}, ' // &
           '\ttt{\$obs\_label}, \ttt{\$obs\_unit}, \ttt{\$title}, \ttt{\$description}, ' // &
           '\ttt{\$x\_label}, \ttt{\$y\_label}, \ttt{graph\_height\_mm}, ' // &
           '\ttt{?y\_log}, \newline \ttt{?x\_log}, \ttt{graph\_width\_mm}, ' // &
           '\ttt{x\_min}, \ttt{y\_min}, \ttt{y\_max}, \ttt{\$gmlcode\_bg}, ' // &
           '\ttt{\$gmlcode\_fg}, \ttt{?draw\_base}, \newline \ttt{?draw\_histogram}, ' // &
           '\ttt{?draw\_piecewise}, \ttt{?fill\_curve}, \ttt{?draw\_curve}, ' // &
           '\ttt{?draw\_errors}, \newline \ttt{?draw\_symbols}, \ttt{\$fill\_options}, ' // &
           '\ttt{\$draw\_options}, \ttt{\$err\_options}, \ttt{\$symbol})'))
     call var_list%append_real (var_str ("y_min"),  &
           intrinsic=.true., &
           description=var_str ("Settings for \whizard's internal graphics " // &
           'output: real parameter that sets the lower limit of the $y$ ' // &
           'axis plotting or histogram interval. (cf. also \ttt{?normalize\_bins}, ' // &
           '\ttt{\$obs\_label}, \ttt{\$obs\_unit}, \ttt{\$title}, \ttt{\$description}, ' // &
           '\ttt{\$x\_label}, \ttt{\$y\_label}, \ttt{graph\_height\_mm}, ' // &
           '\ttt{?y\_log}, \newline \ttt{?x\_log}, \ttt{graph\_width\_mm}, ' // &
           '\ttt{x\_max}, \ttt{y\_max}, \ttt{x\_min}, \ttt{\$gmlcode\_bg}, ' // &
           '\ttt{\$gmlcode\_fg}, \ttt{?draw\_base}, \newline \ttt{?draw\_histogram}, ' // &
           '\ttt{?draw\_piecewise}, \ttt{?fill\_curve}, \ttt{?draw\_curve}, ' // &
           '\ttt{?draw\_errors}, \newline \ttt{?draw\_symbols}, \ttt{\$fill\_options}, ' // &
           '\ttt{\$draw\_options}, \ttt{\$err\_options}, \ttt{\$symbol})'))
     call var_list%append_real (var_str ("y_max"),  &
           intrinsic=.true., &
           description=var_str ("Settings for \whizard's internal graphics " // &
           'output: real parameter that sets the upper limit of the $y$ ' // &
           'axis plotting or histogram interval. (cf. also \ttt{?normalize\_bins}, ' // &
           '\ttt{\$obs\_label}, \ttt{\$obs\_unit}, \ttt{\$title}, \ttt{\$description}, ' // &
           '\ttt{\$x\_label}, \ttt{\$y\_label}, \ttt{graph\_height\_mm}, ' // &
           '\ttt{?y\_log}, \newline \ttt{?x\_log}, \ttt{graph\_width\_mm}, ' // &
           '\ttt{x\_max}, \ttt{x\_min}, \ttt{y\_max}, \ttt{\$gmlcode\_bg}, ' // &
           '\ttt{\$gmlcode\_fg}, \ttt{?draw\_base}, \newline \ttt{?draw\_histogram}, ' // &
           '\ttt{?draw\_piecewise}, \ttt{?fill\_curve}, \ttt{?draw\_curve}, ' // &
           '\ttt{?draw\_errors}, \newline \ttt{?draw\_symbols}, \ttt{\$fill\_options}, ' // &
           '\ttt{\$draw\_options}, \ttt{\$err\_options}, \ttt{\$symbol})'))
     call var_list%append_string (var_str ("$gmlcode_bg"), var_str (""), &
           intrinsic=.true., &
           description=var_str ("Settings for \whizard's internal graphics " // &
           'output: string variable that allows to define a background ' // &
           'for plots and histograms (i.e. it is overwritten by the plot/histogram), ' // &
           'e.g. a grid: \ttt{\$gmlcode\_bg = "standardgrid.lr(5);"}. For ' // &
           'more details, see the \gamelan\ manual. (cf. also \ttt{?normalize\_bins}, ' // &
           '\ttt{\$obs\_label}, \ttt{\$obs\_unit}, \ttt{\$title}, \ttt{\$description}, ' // &
           '\ttt{\$x\_label}, \ttt{\$y\_label}, \ttt{graph\_width\_mm}, ' // &
           '\ttt{graph\_height\_mm}, \ttt{?y\_log}, \ttt{?x\_log}, \ttt{x\_min}, ' // &
           '\ttt{x\_max}, \ttt{y\_min}, \ttt{y\_max}, \ttt{\$gmlcode\_fg}, ' // &
           '\ttt{?draw\_histogram}, \ttt{?draw\_base}, \ttt{?draw\_piecewise}, ' // &
           '\newline \ttt{?fill\_curve}, \ttt{?draw\_curve}, \ttt{?draw\_errors}, ' // &
           '\ttt{?draw\_symbols}, \ttt{\$fill\_options}, \newline \ttt{\$draw\_options}, ' // &
           '\ttt{\$err\_options}, \ttt{\$symbol})'))
     call var_list%append_string (var_str ("$gmlcode_fg"), var_str (""), &
           intrinsic=.true., &
           description=var_str ("Settings for \whizard's internal graphics " // &
           'output: string variable that allows to define a foreground ' // &
           'for plots and histograms (i.e. it overwrites the plot/histogram), ' // &
           'e.g. a grid: \ttt{\$gmlcode\_bg = "standardgrid.lr(5);"}. For ' // &
           'more details, see the \gamelan\ manual. (cf. also \ttt{?normalize\_bins}, ' // &
           '\ttt{\$obs\_label}, \ttt{\$obs\_unit}, \ttt{\$title}, \ttt{\$description}, ' // &
           '\ttt{\$x\_label}, \ttt{\$y\_label}, \ttt{graph\_width\_mm}, ' // &
           '\ttt{graph\_height\_mm}, \ttt{?y\_log}, \ttt{?x\_log}, \ttt{x\_min}, ' // &
           '\ttt{x\_max}, \ttt{y\_min}, \ttt{y\_max}, \ttt{\$gmlcode\_bg}, ' // &
           '\ttt{?draw\_histogram}, \ttt{?draw\_base}, \ttt{?draw\_piecewise}, ' // &
           '\newline \ttt{?fill\_curve}, \ttt{?draw\_curve}, \ttt{?draw\_errors}, ' // &
           '\ttt{?draw\_symbols}, \ttt{\$fill\_options}, \newline \ttt{\$draw\_options}, ' // &
           '\ttt{\$err\_options}, \ttt{\$symbol})'))
     call var_list%append_log (var_str ("?draw_histogram"), &
           intrinsic=.true., &
           description=var_str ("Settings for \whizard's internal graphics " // &
           'output: flag that tells \whizard\ to either plot data as a ' // &
           'histogram or as a continuous line (if $\to$ \ttt{?draw\_curve} ' // &
           'is set \ttt{true}). (cf. also \ttt{?normalize\_bins}, \ttt{\$obs\_label}, ' // &
           '\ttt{\$obs\_unit}, \ttt{\$title}, \ttt{\$description}, \ttt{\$x\_label}, ' // &
           '\ttt{\$y\_label}, \ttt{graph\_width\_mm}, \ttt{graph\_height\_mm}, ' // &
           '\ttt{?y\_log}, \ttt{?x\_log}, \ttt{x\_min}, \ttt{x\_max}, \ttt{y\_min}, ' // &
           '\ttt{y\_max}, \newline \ttt{\$gmlcode\_fg}, \ttt{\$gmlcode\_bg}, ' // &
           '\ttt{?draw\_base}, \ttt{?draw\_piecewise}, \ttt{?fill\_curve}, ' // &
           '\ttt{?draw\_curve}, \ttt{?draw\_errors}, \ttt{?draw\_symbols}, ' // &
           '\ttt{\$fill\_options}, \ttt{\$draw\_options}, \ttt{\$err\_options}, ' // &
           '\ttt{\$symbol})'))
     call var_list%append_log (var_str ("?draw_base"), &
           intrinsic=.true., &
           description=var_str ("Settings for \whizard's internal graphics " // &
           'output: flag that tells \whizard\ to insert a \ttt{base} statement ' // &
           'in the analysis code to calculate the plot data from a data ' // &
           'set. (cf. also \ttt{?normalize\_bins}, \ttt{\$obs\_label}, ' // &
           '\ttt{\$obs\_unit}, \ttt{\$title}, \ttt{\$description}, \ttt{\$x\_label}, ' // &
           '\ttt{\$y\_label}, \ttt{graph\_width\_mm}, \ttt{graph\_height\_mm}, ' // &
           '\ttt{?y\_log}, \ttt{?x\_log}, \ttt{x\_min}, \ttt{x\_max}, \ttt{y\_min}, ' // &
           '\ttt{y\_max}, \newline \ttt{\$gmlcode\_fg}, \ttt{\$gmlcode\_bg}, ' // &
           '\ttt{?draw\_curve}, \ttt{?draw\_piecewise}, \ttt{?fill\_curve}, ' // &
           '\ttt{\$symbol}, \newline \ttt{?draw\_histogram}, \ttt{?draw\_errors}, ' // &
           '\ttt{?draw\_symbols}, \ttt{\$fill\_options}, \ttt{\$draw\_options}, ' // &
           '\newline \ttt{\$err\_options})'))
     call var_list%append_log (var_str ("?draw_piecewise"), &
           intrinsic=.true., &
           description=var_str ("Settings for \whizard's internal graphics " // &
           'output: flag that tells \whizard\ to data from a data set piecewise, ' // &
           'i.e. histogram style. (cf. also \ttt{?normalize\_bins}, \ttt{\$obs\_label}, ' // &
           '\ttt{\$obs\_unit},  \ttt{\$title}, \ttt{\$description}, \ttt{\$x\_label}, ' // &
           '\ttt{\$y\_label}, \ttt{graph\_width\_mm}, \ttt{graph\_height\_mm}, ' // &
           '\ttt{?y\_log}, \ttt{?x\_log}, \ttt{x\_min}, \ttt{x\_max},  ' // &
           '\ttt{y\_min}, \ttt{y\_max}, \ttt{\$gmlcode\_fg}, \ttt{\$gmlcode\_bg},  ' // &
           '\ttt{?draw\_curve}, \ttt{?draw\_base}, \ttt{?fill\_curve}, ' // &
           '\ttt{\$symbol}, \ttt{?draw\_histogram}, \ttt{?draw\_errors}, ' // &
           '\ttt{?draw\_symbols}, \ttt{\$fill\_options}, \ttt{\$draw\_options}, ' // &
           '\ttt{\$err\_options})'))
     call var_list%append_log (var_str ("?fill_curve"), &
           intrinsic=.true., &
           description=var_str ("Settings for \whizard's internal graphics " // &
           'output: flag that tells \whizard\ to fill data curves (e.g. ' // &
           'as a histogram). The style can be set with $\to$ \ttt{\$fill\_options ' // &
           '= "{\em <LaTeX\_code>}"}. (cf. also \ttt{?normalize\_bins}, ' // &
           '\ttt{\$obs\_label}, \ttt{\$obs\_unit}, \ttt{\$title}, \ttt{\$description}, ' // &
           '\ttt{\$x\_label}, \ttt{\$y\_label}, \ttt{graph\_width\_mm}, ' // &
           '\ttt{graph\_height\_mm}, \ttt{?y\_log}, \ttt{?x\_log}, \ttt{x\_min}, ' // &
           '\ttt{x\_max}, \ttt{y\_min}, \ttt{y\_max}, \newline \ttt{\$gmlcode\_fg}, ' // &
           '\ttt{\$gmlcode\_bg}, \ttt{?draw\_base}, \ttt{?draw\_piecewise}, ' // &
           '\ttt{?draw\_curve}, \ttt{?draw\_histogram}, \ttt{?draw\_errors}, ' // &
           '\ttt{?draw\_symbols}, \ttt{\$fill\_options}, \ttt{\$draw\_options}, ' // &
           '\ttt{\$err\_options}, \ttt{\$symbol})'))
     call var_list%append_log (var_str ("?draw_curve"), &
           intrinsic=.true., &
           description=var_str ("Settings for \whizard's internal graphics " // &
           'output: flag that tells \whizard\ to either plot data as a ' // &
           'continuous line or as a histogram (if $\to$ \ttt{?draw\_histogram} ' // &
           'is set \ttt{true}). (cf. also \ttt{?normalize\_bins}, \ttt{\$obs\_label}, ' // &
           '\ttt{\$obs\_unit}, \ttt{\$title}, \ttt{\$description}, \ttt{\$x\_label}, ' // &
           '\ttt{\$y\_label}, \ttt{graph\_width\_mm}, \ttt{graph\_height\_mm}, ' // &
           '\ttt{?y\_log}, \ttt{?x\_log}, \ttt{x\_min}, \ttt{x\_max}, \ttt{y\_min}, ' // &
           '\ttt{y\_max}, \newline \ttt{\$gmlcode\_fg}, \ttt{\$gmlcode\_bg}, ' // &
           '\ttt{?draw\_base}, \ttt{?draw\_piecewise}, \ttt{?fill\_curve}, ' // &
           '\ttt{?draw\_histogram}, \ttt{?draw\_errors}, \ttt{?draw\_symbols}, ' // &
           '\ttt{\$fill\_options}, \ttt{\$draw\_options}, \ttt{\$err\_options}, ' // &
           '\ttt{\$symbol})'))
     call var_list%append_log (var_str ("?draw_errors"), &
           intrinsic=.true., &
           description=var_str ("Settings for \whizard's internal graphics " // &
           'output: flag that determines whether error bars should be drawn ' // &
           'or not. (cf. also \ttt{?normalize\_bins}, \ttt{\$obs\_label}, ' // &
           '\ttt{\$obs\_unit}, \ttt{\$title}, \ttt{\$description}, \ttt{\$x\_label}, ' // &
           '\ttt{\$y\_label}, \ttt{graph\_width\_mm}, \ttt{graph\_height\_mm}, ' // &
           '\ttt{?y\_log}, \ttt{?x\_log}, \ttt{x\_min}, \ttt{x\_max}, \ttt{y\_min}, ' // &
           '\ttt{y\_max}, \ttt{\$gmlcode\_fg}, \ttt{\$gmlcode\_bg}, \ttt{?draw\_base}, ' // &
           '\ttt{?draw\_piecewise}, \ttt{?fill\_curve}, \ttt{?draw\_histogram}, ' // &
           '\ttt{?draw\_curve}, \ttt{?draw\_symbols}, \ttt{\$fill\_options}, ' // &
           '\newline \ttt{\$draw\_options}, \ttt{\$err\_options}, \ttt{\$symbol})'))
     call var_list%append_log (var_str ("?draw_symbols"), &
           intrinsic=.true., &
           description=var_str ("Settings for \whizard's internal graphics " // &
           'output: flag that determines whether particular symbols (specified ' // &
           'by $\to$ \ttt{\$symbol = "{\em <LaTeX\_code>}"}) should be ' // &
           'used for plotting data points  (cf. also \ttt{?normalize\_bins}, ' // &
           '\ttt{\$obs\_label}, \ttt{\$obs\_unit}, \ttt{\$title}, \ttt{\$description}, ' // &
           '\ttt{\$x\_label}, \ttt{\$y\_label}, \ttt{graph\_width\_mm}, ' // &
           '\ttt{graph\_height\_mm}, \ttt{?y\_log}, \ttt{?x\_log}, \ttt{x\_min}, ' // &
           '\ttt{x\_max}, \ttt{y\_min}, \ttt{y\_max}, \ttt{\$gmlcode\_fg}, ' // &
           '\ttt{\$gmlcode\_bg}, \ttt{?draw\_base}, \ttt{?draw\_piecewise}, ' // &
           '\ttt{?fill\_curve}, \ttt{?draw\_histogram}, \ttt{?draw\_curve}, ' // &
           '\ttt{?draw\_errors}, \ttt{\$fill\_options}, \ttt{\$draw\_options}, ' // &
           '\newline \ttt{\$err\_options}, \ttt{\$symbol})'))
     call var_list%append_string (var_str ("$fill_options"), &
           intrinsic=.true., &
           description=var_str ("Settings for \whizard's internal graphics " // &
           'output: \ttt{\$fill\_options = "{\em <LaTeX\_code>}"} is a ' // &
           'string variable that allows to set fill options when plotting ' // &
           'data as filled curves with the $\to$ \ttt{?fill\_curve} flag. ' // &
           'For more details see the \gamelan\ manual. (cf. also \ttt{?normalize\_bins}, ' // &
           '\ttt{\$obs\_label}, \ttt{\$obs\_unit}, \ttt{\$title}, \ttt{\$description}, ' // &
           '\ttt{\$x\_label}, \ttt{\$y\_label}, \ttt{graph\_width\_mm}, ' // &
           '\ttt{graph\_height\_mm}, \ttt{?y\_log}, \ttt{?x\_log}, \ttt{x\_min}, ' // &
           '\ttt{x\_max}, \ttt{y\_min}, \ttt{y\_max}, \ttt{\$gmlcode\_fg}, ' // &
           '\ttt{\$gmlcode\_bg}, \ttt{?draw\_base}, \ttt{?draw\_piecewise}, ' // &
           '\ttt{?draw\_curve}, \ttt{?draw\_histogram}, \ttt{?draw\_errors}, ' // &
           '\newline \ttt{?draw\_symbols}, \ttt{?fill\_curve}, \ttt{\$draw\_options}, ' // &
           '\ttt{\$err\_options}, \ttt{\$symbol})'))
     call var_list%append_string (var_str ("$draw_options"), &
           intrinsic=.true., &
           description=var_str ("Settings for \whizard's internal graphics " // &
           'output: \ttt{\$draw\_options = "{\em <LaTeX\_code>}"} is a ' // &
           'string variable that allows to set specific drawing options ' // &
           'for plots and histograms. For more details see the \gamelan\ ' // &
           'manual. (cf. also \ttt{?normalize\_bins}, \ttt{\$obs\_label}, ' // &
           '\ttt{\$obs\_unit}, \ttt{\$title}, \ttt{\$description}, \ttt{\$x\_label}, ' // &
           '\ttt{\$y\_label}, \ttt{graph\_width\_mm}, \ttt{graph\_height\_mm}, ' // &
           '\ttt{?y\_log}, \ttt{?x\_log}, \ttt{x\_min}, \ttt{x\_max}, \ttt{y\_min}, ' // &
           '\ttt{y\_max}, \ttt{\$gmlcode\_fg}, \ttt{\$gmlcode\_bg}, \ttt{?draw\_base}, ' // &
           '\newline \ttt{?draw\_piecewise}, \ttt{?fill\_curve}, \ttt{?draw\_histogram}, ' // &
           '\ttt{?draw\_errors}, \ttt{?draw\_symbols}, \newline \ttt{\$fill\_options}, ' // &
           '\ttt{?draw\_histogram}, \ttt{\$err\_options}, \ttt{\$symbol})'))
     call var_list%append_string (var_str ("$err_options"), &
           intrinsic=.true., &
           description=var_str ("Settings for \whizard's internal graphics " // &
           'output: \ttt{\$err\_options = "{\em <LaTeX\_code>}"} is a string ' // &
           'variable that allows to set specific drawing options for errors ' // &
           'in plots and histograms. For more details see the \gamelan\ ' // &
           'manual. (cf. also \ttt{?normalize\_bins}, \ttt{\$obs\_label}, ' // &
           '\ttt{\$obs\_unit}, \ttt{\$title}, \ttt{\$description}, \ttt{\$x\_label}, ' // &
           '\ttt{\$y\_label}, \ttt{graph\_width\_mm}, \ttt{graph\_height\_mm}, ' // &
           '\ttt{?y\_log}, \ttt{?x\_log}, \ttt{x\_min}, \ttt{x\_max}, \ttt{y\_min}, ' // &
           '\ttt{y\_max}, \ttt{\$gmlcode\_fg}, \ttt{\$gmlcode\_bg}, \ttt{?draw\_base}, ' // &
           '\ttt{?draw\_piecewise}, \ttt{?fill\_curve}, \ttt{?draw\_histogram}, ' // &
           '\ttt{?draw\_errors}, \newline \ttt{?draw\_symbols}, \ttt{\$fill\_options}, ' // &
           '\ttt{?draw\_histogram}, \ttt{\$draw\_options}, \ttt{\$symbol})'))
     call var_list%append_string (var_str ("$symbol"), &
           intrinsic=.true., &
           description=var_str ("Settings for \whizard's internal graphics " // &
           'output: \ttt{\$symbol = "{\em <LaTeX\_code>}"} is a string ' // &
           'variable for the symbols that should be used for plotting data ' // &
           'points.  (cf. also \ttt{\$obs\_label}, \ttt{?normalize\_bins}, ' // &
           '\ttt{\$obs\_unit}, \ttt{\$title}, \ttt{\$description}, \ttt{\$x\_label}, ' // &
           '\ttt{\$y\_label}, \newline \ttt{graph\_width\_mm}, \ttt{graph\_height\_mm}, ' // &
           '\ttt{?y\_log}, \ttt{?x\_log}, \ttt{x\_min}, \ttt{x\_max}, \ttt{y\_min}, ' // &
           '\ttt{y\_max}, \newline \ttt{\$gmlcode\_fg}, \ttt{\$gmlcode\_bg}, ' // &
           '\ttt{?draw\_base}, \ttt{?draw\_piecewise}, \ttt{?fill\_curve}, ' // &
           '\newline \ttt{?draw\_histogram}, \ttt{?draw\_curve}, \ttt{?draw\_errors}, ' // &
           '\ttt{\$fill\_options}, \ttt{\$draw\_options}, \newline \ttt{\$err\_options}, ' // &
           '\ttt{?draw\_symbols})'))
     call var_list%append_log (&
          var_str ("?analysis_file_only"), .false., &
          intrinsic=.true., &
          description=var_str ('Allows to specify that only \LaTeX\ files ' // &
          "for \whizard's graphical analysis are written out, but not processed. " // &
          '(cf. \ttt{compile\_analysis}, \ttt{write\_analysis})'))
   end subroutine var_list_set_gamelan_defaults
 
 @ %def var_list_set_gamelan_defaults
 @ FastJet parameters and friends
 <<Variables: var list: TBP>>=
   procedure :: set_clustering_defaults => var_list_set_clustering_defaults
 <<Variables: sub interfaces>>=
     module subroutine var_list_set_clustering_defaults (var_list)
       class(var_list_t), intent(inout) :: var_list
     end subroutine var_list_set_clustering_defaults
 <<Variables: procedures>>=
   module subroutine var_list_set_clustering_defaults (var_list)
     class(var_list_t), intent(inout) :: var_list
     call var_list%append_int (&
          var_str ("kt_algorithm"), &
          kt_algorithm, &
          intrinsic = .true., locked = .true., &
          description=var_str ('Specifies a jet algorithm for the ($\to$) ' // &
          '\ttt{jet\_algorithm} command, used in the ($\to$) \ttt{cluster} ' // &
          'subevent function. At the moment only available for the ' // &
          'interfaced external \fastjet\ package.  (cf. also ' // &
          '\ttt{cambridge\_[for\_passive\_]algorithm}, ' // &
          '\ttt{plugin\_algorithm}, ' // &
          '\newline\ttt{genkt\_[for\_passive\_]algorithm}, ' // &
          '\ttt{ee\_[gen]kt\_algorithm}, \ttt{jet\_r})'))
     call var_list%append_int (&
          var_str ("cambridge_algorithm"), &
          cambridge_algorithm, intrinsic = .true., locked = .true., &
          description=var_str ('Specifies a jet algorithm for the ($\to$) ' // &
          '\ttt{jet\_algorithm} command, used in the ($\to$) \ttt{cluster} ' // &
          'subevent function. At the moment only available for the interfaced ' // &
          'external \fastjet\ package.  (cf. also \ttt{kt\_algorithm}, ' // &
          '\ttt{cambridge\_for\_passive\_algorithm}, \ttt{plugin\_algorithm}, ' // &
          '\ttt{genkt\_[for\_passive\_]algorithm}, \ttt{ee\_[gen]kt\_algorithm}, ' // &
          '\ttt{jet\_r})'))
     call var_list%append_int (&
          var_str ("antikt_algorithm"), &
          antikt_algorithm, &
          intrinsic = .true., locked = .true., &
          description=var_str ('Specifies a jet algorithm for the ($\to$) ' // &
          '\ttt{jet\_algorithm} command, used in the ($\to$) \ttt{cluster} ' // &
          'subevent function. At the moment only available for the interfaced ' // &
          'external \fastjet\ package.  (cf. also \ttt{kt\_algorithm}, ' // &
          '\ttt{cambridge\_[for\_passive\_]algorithm}, \ttt{plugin\_algorithm}, ' // &
          '\ttt{genkt\_[for\_passive\_]algorithm}, \ttt{ee\_[gen]kt\_algorithm}, ' // &
          '\ttt{jet\_r})'))
     call var_list%append_int (&
          var_str ("genkt_algorithm"), &
          genkt_algorithm, &
          intrinsic = .true., locked = .true., &
          description=var_str ('Specifies a jet algorithm for the ($\to$) ' // &
          '\ttt{jet\_algorithm} command, used in the ($\to$) \ttt{cluster} ' // &
          'subevent function. At the moment only available for the interfaced ' // &
          'external \fastjet\ package.  (cf. also \ttt{kt\_algorithm}, ' // &
          '\ttt{cambridge\_for\_passive\_algorithm}, \ttt{plugin\_algorithm}, ' // &
          '\ttt{genkt\_for\_passive\_algorithm}, \ttt{ee\_[gen]kt\_algorithm}, ' // &
          '\ttt{jet\_r}), \ttt{jet\_p}'))
     call var_list%append_int (&
          var_str ("cambridge_for_passive_algorithm"), &
          cambridge_for_passive_algorithm, &
          intrinsic = .true., locked = .true., &
          description=var_str ('Specifies a jet algorithm for the ($\to$) ' // &
          '\ttt{jet\_algorithm} command, used in the ($\to$) \ttt{cluster} ' // &
          'subevent function. At the moment only available for the interfaced ' // &
          'external \fastjet\ package.  (cf. also \ttt{kt\_algorithm}, ' // &
          '\ttt{cambridge\_algorithm}, \ttt{plugin\_algorithm}, \newline ' // &
          '\ttt{genkt\_[for\_passive\_]algorithm}, \ttt{ee\_[gen]kt\_algorithm}, ' // &
          '\ttt{jet\_r})'))
     call var_list%append_int (&
          var_str ("genkt_for_passive_algorithm"), &
          genkt_for_passive_algorithm, &
          intrinsic = .true., locked = .true., &
          description=var_str ('Specifies a jet algorithm for the ($\to$) ' // &
          '\ttt{jet\_algorithm} command, used in the ($\to$) \ttt{cluster} ' // &
          'subevent function. At the moment only available for the interfaced ' // &
          'external \fastjet\ package.  (cf. also \ttt{kt\_algorithm}, ' // &
          '\ttt{cambridge\_for\_passive\_algorithm}, \ttt{plugin\_algorithm}, ' // &
          '\ttt{genkt\_algorithm}, \ttt{ee\_[gen]kt\_algorithm}, \ttt{jet\_r})'))
     call var_list%append_int (&
          var_str ("ee_kt_algorithm"), &
          ee_kt_algorithm, &
          intrinsic = .true., locked = .true., &
          description=var_str ('Specifies a jet algorithm for the ($\to$) ' // &
          '\ttt{jet\_algorithm} command, used in the ($\to$) \ttt{cluster} ' // &
          'subevent function. At the moment only available for the interfaced ' // &
          'external \fastjet\ package.  (cf. also \ttt{kt\_algorithm}, ' // &
          '\ttt{cambridge\_[for\_passive\_]algorithm}, \ttt{plugin\_algorithm}, ' // &
          '\ttt{genkt\_[for\_passive\_]algorithm}, \ttt{ee\_genkt\_algorithm}, ' // &
          '\ttt{jet\_r})'))
     call var_list%append_int (&
          var_str ("ee_genkt_algorithm"), &
          ee_genkt_algorithm, &
          intrinsic = .true., locked = .true., &
          description=var_str ('Specifies a jet algorithm for the ($\to$) ' // &
          '\ttt{jet\_algorithm} command, used in the ($\to$) \ttt{cluster} ' // &
          'subevent function. At the moment only available for the interfaced ' // &
          'external \fastjet\ package.  (cf. also \ttt{kt\_algorithm}, ' // &
          '\ttt{cambridge\_[for\_passive\_]algorithm}, \ttt{plugin\_algorithm}, ' // &
          '\ttt{genkt\_[for\_passive\_]algorithm}, \ttt{ee\_kt\_algorithm}, ' // &
          '\ttt{jet\_r}), \ttt{jet\_p})'))
     call var_list%append_int (&
          var_str ("plugin_algorithm"), &
          plugin_algorithm, &
          intrinsic = .true., locked = .true., &
          description=var_str ('Specifies a jet algorithm for the ($\to$) ' // &
          '\ttt{jet\_algorithm} command, used in the ($\to$) \ttt{cluster} ' // &
          'subevent function. At the moment only available for the interfaced ' // &
          'external \fastjet\ package.  (cf. also \ttt{kt\_algorithm}, ' // &
          '\ttt{cambridge\_for\_passive\_algorithm}, \newline ' // &
          '\ttt{genkt\_[for\_passive\_]algorithm}, \ttt{ee\_[gen]kt\_algorithm}, ' // &
          '\ttt{jet\_r})'))
     call var_list%append_int (&
          var_str ("undefined_jet_algorithm"), &
          undefined_jet_algorithm, &
          intrinsic = .true., locked = .true., &
          description=var_str ('This is just a place holder for any kind of jet ' // &
          'jet algorithm that is not further specified.  (cf. also \ttt{kt\_algorithm}, ' // &
          '\ttt{cambridge\_for\_passive\_algorithm}, \newline ' // &
          '\ttt{genkt\_[for\_passive\_]algorithm}, \ttt{ee\_[gen]kt\_algorithm}, ' // &
          '\ttt{jet\_r}, \ttt{plugin\_algorithm})'))
     call var_list%append_int (&
          var_str ("jet_algorithm"), undefined_jet_algorithm, &
          intrinsic = .true., &
          description=var_str ('Variable that allows to set the type of ' // &
          'jet algorithm when using the external \fastjet\ library. It ' // &
          'accepts one of the following algorithms: ($\to$) \ttt{kt\_algorithm}, ' // &
          '\newline ($\to$) \ttt{cambridge\_[for\_passive\_]algorithm}, ' // &
          '($\to$) \ttt{antikt\_algorithm}, ($\to$) \ttt{plugin\_algorithm}, ' // &
          '($\to$) \ttt{genkt\_[for\_passive\_]algorithm}, ($\to$) ' // &
          '\ttt{ee\_[gen]kt\_algorithm}).  (cf. also \ttt{cluster}, ' // &
          '\ttt{jet\_p}, \ttt{jet\_r}, \ttt{jet\_ycut})'))
     call var_list%append_real (&
          var_str ("jet_r"), 0._default, &
          intrinsic = .true., &
          description=var_str ('Value for the distance measure $R$ used in ' // &
          'some algorithms that are available via the interface ' // &
          'to the \fastjet\ package.  (cf. also \ttt{cluster}, \ttt{combine}, ' // &
          '\ttt{jet\_algorithm}, \ttt{kt\_algorithm}, ' // &
          '\ttt{cambridge\_[for\_passive\_]algorithm}, \ttt{antikt\_algorithm}, ' // &
          '\newline \ttt{plugin\_algorithm}, \ttt{genkt\_[for\_passive\_]algorithm}, ' // &
          '\ttt{ee\_[gen]kt\_algorithm}, \ttt{jet\_p}, \newline\ttt{jet\_ycut})'))
     call var_list%append_real (&
          var_str ("jet_p"), 0._default, &
          intrinsic = .true., &
          description=var_str ('Value for the exponent of the distance measure $R$ in ' // &
          'the generalized $k_T$ algorithms that are available via the interface ' // &
          'to the \fastjet\ package.  (cf. also \ttt{cluster}, \ttt{combine}, ' // &
          '\ttt{jet\_algorithm}, \ttt{kt\_algorithm}, ' // &
          '\ttt{cambridge\_[for\_passive\_]algorithm}, \ttt{antikt\_algorithm}, ' // &
          '\newline \ttt{plugin\_algorithm}, \ttt{genkt\_[for\_passive\_]algorithm}, ' // &
          '\ttt{ee\_[gen]kt\_algorithm}, \ttt{jet\_r}, \newline\ttt{jet\_ycut})'))
     call var_list%append_real (&
          var_str ("jet_ycut"), 0._default, &
          intrinsic = .true., &
          description=var_str ('Value for the $y$ separation measure used in ' // &
          'the Cambridge-Aachen algorithms that are available via the interface ' // &
          'to the \fastjet\ package.  (cf. also \ttt{cluster}, \ttt{combine}, ' // &
          '\ttt{kt\_algorithm}, \ttt{jet\_algorithm}, ' // &
          '\ttt{cambridge\_[for\_passive\_]algorithm}, \ttt{antikt\_algorithm}, ' // &
          '\newline \ttt{plugin\_algorithm}, \ttt{genkt\_[for\_passive\_]algorithm}, ' // &
          '\ttt{ee\_[gen]kt\_algorithm}, \ttt{jet\_p}, \newline\ttt{jet\_r})'))
     call var_list%append_real (&
          var_str ("jet_dcut"), 0._default, &
          intrinsic = .true., &
          description=var_str ('Value for the $d_{ij}$ separation measure used in ' // &
          'the $e^+e^- k_T$ algorithms that are available via the interface ' // &
          'to the \fastjet\ package.  (cf. also \ttt{cluster}, \ttt{combine}, ' // &
          '\ttt{kt\_algorithm}, \ttt{jet\_algorithm}, ' // &
          '\ttt{cambridge\_[for\_passive\_]algorithm}, \ttt{antikt\_algorithm}, ' // &
          '\newline \ttt{plugin\_algorithm}, \ttt{genkt\_[for\_passive\_]algorithm}, ' // &
          '\ttt{ee\_[gen]kt\_algorithm}, \ttt{jet\_p}, \newline\ttt{jet\_r})'))
     call var_list%append_log (&
          var_str ("?keep_flavors_when_clustering"), .false., &
          intrinsic = .true., &
          description=var_str ('The logical variable \ttt{?keep\_flavors\_when\_clustering ' // &
          '= true/false} specifies whether the flavor of a jet should be ' // &
          'kept during \ttt{cluster} when a jet consists of one quark and ' // &
          'zero or more gluons. Especially useful for cuts on b-tagged ' // &
          'jets (cf. also \ttt{cluster}).'))
   end subroutine var_list_set_clustering_defaults
 
 @ %def var_list_set_clustering_defaults
 @ Frixione isolation and photon recombination parameters and all that:
 <<Variables: var list: TBP>>=
   procedure :: set_isolation_recomb_defaults => &
        var_list_set_isolation_recomb_defaults
 <<Variables: sub interfaces>>=
     module subroutine var_list_set_isolation_recomb_defaults (var_list)
       class(var_list_t), intent(inout) :: var_list
     end subroutine var_list_set_isolation_recomb_defaults
 <<Variables: procedures>>=
   module subroutine var_list_set_isolation_recomb_defaults (var_list)
     class(var_list_t), intent(inout) :: var_list
     call var_list%append_real (var_str ("photon_iso_eps"), 1._default, &
          intrinsic=.true., &
          description=var_str ('Photon isolation parameter $\epsilon_\gamma$ ' // &
          '(energy fraction) from hep-ph/9801442 (cf. also ' // &
          '\ttt{photon\_iso\_n}, \ttt{photon\_iso\_r0})'))
     call var_list%append_real (var_str ("photon_iso_n"), 1._default, &
          intrinsic=.true., &
          description=var_str ('Photon isolation parameter $n$ ' // &
          '(cone function exponent) from hep-ph/9801442 (cf. also ' // &
          '\ttt{photon\_iso\_eps}, \ttt{photon\_iso\_r0})'))
     call var_list%append_real (var_str ("photon_iso_r0"), 0.4_default, &
          intrinsic=.true., &
          description=var_str ('Photon isolation parameter $R_0^\gamma$ ' // &
          '(isolation cone radius) from hep-ph/9801442 (cf. also ' // &
          '\ttt{photon\_iso\_eps}, \ttt{photon\_iso\_n})'))
     call var_list%append_real (var_str ("photon_rec_r0"), 0.1_default, &
          intrinsic=.true., &
          description=var_str ('Photon recombination parameter $R_0^\gamma$ ' // &
          'for photon recombination in NLO EW calculations'))
     call var_list%append_log (&
          var_str ("?keep_flavors_when_recombining"), .true., &
          intrinsic = .true., &
          description=var_str ('The logical variable \ttt{?keep\_flavors\_when\_recombining ' // &
          '= true/false} specifies whether the flavor of a particle should be ' // &
          'kept during \ttt{photon\_recombination} when a jet/lepton consists of one lepton/quark ' // &
          'and zero or more photons (cf. also \ttt{photon\_recombination}).'))
   end subroutine var_list_set_isolation_recomb_defaults
 
 @ %def var_list_set_isolation_recomb_defaults
 <<Variables: var list: TBP>>=
   procedure :: set_eio_defaults => var_list_set_eio_defaults
 <<Variables: sub interfaces>>=
     module subroutine var_list_set_eio_defaults (var_list)
       class(var_list_t), intent(inout) :: var_list
     end subroutine var_list_set_eio_defaults
 <<Variables: procedures>>=
   module subroutine var_list_set_eio_defaults (var_list)
     class(var_list_t), intent(inout) :: var_list
     call var_list%append_string (var_str ("$sample"), var_str (""), &
           intrinsic=.true., &
           description=var_str ('String variable to set the (base) name ' // &
           'of the event output format, e.g. \ttt{\$sample = "foo"} will ' // &
           'result in an intrinsic binary format event file \ttt{foo.evx}. ' // &
           '(cf. also \ttt{sample\_format}, \ttt{simulate}, \ttt{hepevt}, ' // &
           '\ttt{ascii}, \ttt{athena}, \ttt{debug}, \ttt{long}, \ttt{short}, ' // &
           '\ttt{hepmc}, \ttt{lhef}, \ttt{lha}, \ttt{stdhep}, \ttt{stdhep\_up}, ' // &
           '\ttt{\$sample\_normalization}, \ttt{?sample\_pacify}, \ttt{sample\_max\_tries})'))
     call var_list%append_string (var_str ("$sample_normalization"), var_str ("auto"),&
           intrinsic=.true., &
           description=var_str ('String variable that allows to set the ' // &
           'normalization of generated events. There are four options: ' // &
           'option \ttt{"1"} (events normalized to one), \ttt{"1/n"} (sum ' // &
           'of all events in a sample normalized to one), \ttt{"sigma"} ' // &
           '(events normalized to the cross section of the process), and ' // &
           '\ttt{"sigma/n"} (sum of all events normalized to the cross ' // &
           'section). The default is \ttt{"auto"} where unweighted events ' // &
           'are normalized to one, and weighted ones to the cross section. ' // &
           '(cf. also \ttt{simulate}, \ttt{\$sample}, \ttt{sample\_format}, ' // &
           '\ttt{?sample\_pacify}, \ttt{sample\_max\_tries}, \ttt{sample\_split\_n\_evt}, ' // &
           '\ttt{sample\_split\_n\_kbytes})'))
     call var_list%append_log (var_str ("?sample_pacify"), .false., &
           intrinsic=.true., &
           description=var_str ('Flag, mainly for debugging purposes: suppresses ' // &
           'numerical noise in the output of a simulation. (cf. also \ttt{simulate}, ' // &
           '\ttt{\$sample}, \ttt{sample\_format}, \ttt{\$sample\_normalization}, ' // &
           '\ttt{sample\_max\_tries}, \ttt{sample\_split\_n\_evt}, ' // &
           '\ttt{sample\_split\_n\_kbytes})'))
     call var_list%append_log (var_str ("?sample_select"), .true., &
           intrinsic=.true., &
           description=var_str ('Logical that determines whether a selection should ' // &
           'be applied to the output event format or not. If set to \ttt{false} a ' // &
           'selection is only considered for the evaluation of observables. (cf. ' // &
           '\ttt{select}, \ttt{selection}, \ttt{analysis})'))
     call var_list%append_int (var_str ("sample_max_tries"), 10000, &
          intrinsic = .true., &
          description=var_str ('Integer variable that sets the maximal ' // &
          'number of tries for generating a single event. The event might ' // &
          'be vetoed because of a very low unweighting efficiency, errors ' // &
          'in the event transforms like decays, shower, matching, hadronization ' // &
          'etc. (cf. also \ttt{simulate}, \ttt{\$sample}, \ttt{sample\_format}, ' // &
          '\ttt{?sample\_pacify}, \ttt{\$sample\_normalization}, ' // &
          '\ttt{sample\_split\_n\_evt}, \newline\ttt{sample\_split\_n\_kbytes})'))
     call var_list%append_int (var_str ("sample_split_n_evt"), 0, &
          intrinsic = .true., &
          description=var_str ('When generating events, this integer parameter ' // &
          '\ttt{sample\_split\_n\_evt = {\em <num>}} gives the number \ttt{{\em ' // &
          '<num>}} of breakpoints in the event files, i.e. it splits the ' // &
          'event files into \ttt{{\em <num>} + 1} parts. The parts are ' // &
          'denoted by \ttt{{\em <proc\_name>}.{\em <split\_index>}.{\em ' // &
          '<evt\_extension>}}. Here, \ttt{{\em <split\_index>}} is an integer ' // &
          'running from \ttt{0} to \ttt{{\em <num>}}. The start can be ' // &
          'reset by ($\to$) \ttt{sample\_split\_index}. (cf. also \ttt{simulate}, ' // &
          '\ttt{\$sample}, \ttt{sample\_format}, \ttt{sample\_max\_tries}, ' // &
          '\ttt{\$sample\_normalization}, \ttt{?sample\_pacify}, ' // &
          '\ttt{sample\_split\_n\_kbytes})'))
     call var_list%append_int (var_str ("sample_split_n_kbytes"), 0, &
          intrinsic = .true., &
          description=var_str ('When generating events, this integer parameter ' // &
          '\ttt{sample\_split\_n\_kbytes = {\em <num>}} limits the file ' // &
          'size of event files.  Whenever an event file has exceeded this ' // &
          'size, counted in kilobytes, the following events will be written ' // &
          'to a new file.  The naming conventions are the same as for ' // &
          '\ttt{sample\_split\_n\_evt}. (cf. also \ttt{simulate}, \ttt{\$sample}, ' // &
          '\ttt{sample\_format}, \ttt{sample\_max\_tries}, \ttt{\$sample\_normalization}, ' // &
          '\ttt{?sample\_pacify})'))
     call var_list%append_int (var_str ("sample_split_index"), 0, &
          intrinsic = .true., &
          description=var_str ('Integer number that gives the starting ' // &
          'index \ttt{sample\_split\_index = {\em <split\_index>}} for ' // &
          'the numbering of event samples \ttt{{\em <proc\_name>}.{\em ' // &
          '<split\_index>}.{\em <evt\_extension>}} split by the \ttt{sample\_split\_n\_evt ' // &
          '= {\em <num>}}. The index runs from \ttt{{\em <split\_index>}} ' // &
          'to \newline \ttt{{\em <split\_index>} + {\em <num>}}. (cf. also \ttt{simulate}, ' // &
          '\ttt{\$sample}, \ttt{sample\_format}, \newline\ttt{\$sample\_normalization}, ' // &
          '\ttt{sample\_max\_tries}, \ttt{?sample\_pacify})'))
     call var_list%append_string (var_str ("$rescan_input_format"), var_str ("raw"), &
           intrinsic=.true., &
           description=var_str ('String variable that allows to set the ' // &
           'event format of the event file that is to be rescanned by the ' // &
           '($\to$) \ttt{rescan} command.'))
     call var_list%append_log (var_str ("?read_raw"), .true., &
           intrinsic=.true., &
           description=var_str ('This flag demands \whizard\ to (try to) ' // &
           'read events (from the internal binary format) first before ' // &
           'generating new ones. (cf. \ttt{simulate}, \ttt{?write\_raw}, ' // &
           '\ttt{\$sample}, \ttt{sample\_format})'))
     call var_list%append_log (var_str ("?write_raw"), .true., &
           intrinsic=.true., &
           description=var_str ("Flag to write out events in \whizard's " // &
           'internal binary format. (cf. \ttt{simulate}, \ttt{?read\_raw}, ' // &
           '\ttt{sample\_format}, \ttt{\$sample})'))
     call var_list%append_string (var_str ("$extension_raw"), var_str ("evx"), &
          intrinsic=.true., &
          description=var_str ('String variable that allows via \ttt{\$extension\_raw ' // &
          '= "{\em <suffix>}"} to specify the suffix for the file \ttt{name.suffix} ' // &
          "to which events in \whizard's internal format are written. If " // &
          'not set, the default file name and suffix is \ttt{{\em <process\_name>}.evx}. ' // &
          '(cf. also \ttt{sample\_format}, \ttt{\$sample})'))
     call var_list%append_string (var_str ("$extension_default"), var_str ("evt"), &
          intrinsic=.true., &
          description=var_str ('String variable that allows via \ttt{\$extension\_default ' // &
          '= "{\em <suffix>}"} to specify the suffix for the file \ttt{name.suffix} ' // &
          'to which events in a the standard \whizard\ verbose ASCII format ' // &
          'are written. If not set, the default file name and suffix is ' // &
          '\ttt{{\em <process\_name>}.evt}. (cf. also \ttt{sample\_format}, ' // &
          '\ttt{\$sample})'))
     call var_list%append_string (var_str ("$debug_extension"), var_str ("debug"), &
           intrinsic=.true., &
           description=var_str ('String variable that allows via \ttt{\$debug\_extension ' // &
           '= "{\em <suffix>}"} to specify the suffix for the file \ttt{name.suffix} ' // &
           'to which events in a long verbose format with debugging information ' // &
           'are written. If not set, the default file name and suffix is ' // &
           '\ttt{{\em <process\_name>}.debug}. (cf. also \ttt{sample\_format}, ' // &
           '\ttt{\$sample}, \ttt{?debug\_process}, \ttt{?debug\_transforms}, ' // &
           '\ttt{?debug\_decay}, \ttt{?debug\_verbose})'))
     call var_list%append_log (var_str ("?debug_process"), .true., &
           intrinsic=.true., &
           description=var_str ('Flag that decides whether process information ' // &
           'will be displayed in the ASCII debug event format ($\to$) \ttt{debug}. ' // &
           '(cf. also \ttt{sample\_format}, \ttt{\$sample}, \ttt{\$debug\_extension}, ' // &
           '\ttt{?debug\_decay}, \ttt{?debug\_transforms}, \ttt{?debug\_verbose})'))
     call var_list%append_log (var_str ("?debug_transforms"), .true., &
           intrinsic=.true., &
           description=var_str ('Flag that decides whether information ' // &
           'about event transforms will be displayed in the ASCII debug ' // &
           'event format ($\to$) \ttt{debug}. (cf. also \ttt{sample\_format}, ' // &
           '\ttt{\$sample}, \ttt{?debug\_decay}, \ttt{\$debug\_extension}, ' // &
           '\ttt{?debug\_process}, \ttt{?debug\_verbose})'))
     call var_list%append_log (var_str ("?debug_decay"), .true., &
           intrinsic=.true., &
           description=var_str ('Flag that decides whether decay information ' // &
           'will be displayed in the ASCII debug event format ($\to$) \ttt{debug}. ' // &
           '(cf. also \ttt{sample\_format}, \ttt{\$sample}, \ttt{\$debug\_extension}, ' // &
           '\ttt{?debug\_process}, \ttt{?debug\_transforms}, \ttt{?debug\_verbose})'))
     call var_list%append_log (var_str ("?debug_verbose"), .true., &
           intrinsic=.true., &
           description=var_str ('Flag that decides whether extensive verbose ' // &
           'information will be included in the ASCII debug event format ' // &
           '($\to$) \ttt{debug}. (cf. also \ttt{sample\_format}, \ttt{\$sample}, ' // &
           '\ttt{\$debug\_extension}, \ttt{?debug\_decay}, \ttt{?debug\_transforms}, ' // &
           '\ttt{?debug\_process})'))
     call var_list%append_string (var_str ("$dump_extension"), var_str ("pset.dat"), &
           intrinsic=.true., &
           description=var_str ('String variable that allows via \ttt{\$dump\_extension ' // &
           '= "{\em <suffix>}"} to specify the suffix for the file \ttt{name.suffix} ' // &
           "to which events in \whizard's internal particle set format " // &
           'are written. If not set, the default file name and suffix is ' // &
           '\ttt{{\em <process\_name>}.pset.dat}. (cf. also \ttt{sample\_format}, ' // &
           '\ttt{\$sample}, \ttt{dump}, \ttt{?dump\_compressed}, ' // &
           '\ttt{?dump\_screen}, \ttt{?dump\_summary}, \ttt{?dump\_weights})'))
     call var_list%append_log (var_str ("?dump_compressed"), .false., &
           intrinsic=.true., &
           description=var_str ('Flag that, if set to \ttt{true}, issues ' // &
           'a very compressed and clear version of the \ttt{dump} ($\to$) ' // &
           'event format. (cf. also \ttt{sample\_format}, ' // &
           '\ttt{\$sample}, \ttt{dump}, \ttt{\$dump\_extension},  ' // &
           '\ttt{?dump\_screen}, \ttt{?dump\_summary}, \ttt{?dump\_weights})'))
     call var_list%append_log (var_str ("?dump_weights"), .false., &
           intrinsic=.true., &
           description=var_str ('Flag that, if set to \ttt{true}, includes ' // &
           'cross sections, weights and excess in the \ttt{dump} ($\to$) ' // &
           'event format. (cf. also \ttt{sample\_format}, ' // &
           '\ttt{\$sample}, \ttt{dump}, \ttt{?dump\_compressed}, ' // &
           '\ttt{\$dump\_extension}, \ttt{?dump\_screen}, \ttt{?dump\_summary})'))
     call var_list%append_log (var_str ("?dump_summary"), .false., &
           intrinsic=.true., &
           description=var_str ('Flag that, if set to \ttt{true}, includes ' // &
           'a summary with momentum sums for incoming and outgoing particles ' // &
           'as well as for beam remnants in the \ttt{dump} ($\to$) ' // &
           'event format. (cf. also \ttt{sample\_format}, ' // &
           '\ttt{\$sample}, \ttt{dump}, \ttt{?dump\_compressed}, ' // &
           '\ttt{\$dump\_extension}, \ttt{?dump\_screen}, \ttt{?dump\_weights})'))
     call var_list%append_log (var_str ("?dump_screen"), .false., &
           intrinsic=.true., &
           description=var_str ('Flag that, if set to \ttt{true}, outputs ' // &
           'events for the \ttt{dump} ($\to$) event format on screen ' // &
           ' instead of to a file. (cf. also \ttt{sample\_format}, ' // &
           '\ttt{\$sample}, \ttt{dump}, \ttt{?dump\_compressed}, ' // &
           '\ttt{\$dump\_extension}, \ttt{?dump\_summary}, \ttt{?dump\_weights})'))
     call var_list%append_log (var_str ("?hepevt_ensure_order"), .false., &
           intrinsic=.true., &
           description=var_str ('Flag to ensure that the particle set confirms ' // &
           'the HEPEVT standard. This involves some copying and reordering ' // &
           'to guarantee that mothers and daughters are always next to ' // &
           'each other. Usually this is not necessary.'))
     call var_list%append_string (var_str ("$extension_hepevt"), var_str ("hepevt"), &
           intrinsic=.true., &
           description=var_str ('String variable that allows via \ttt{\$extension\_hepevt ' // &
           '= "{\em <suffix>}"} to specify the suffix for the file \ttt{name.suffix} ' // &
           'to which events in the \whizard\ version 1 style HEPEVT ASCII ' // &
           'format are written. If not set, the default file name and suffix ' // &
           'is \ttt{{\em <process\_name>}.hepevt}. (cf. also \ttt{sample\_format}, ' // &
           '\ttt{\$sample})'))
     call var_list%append_string (var_str ("$extension_ascii_short"), &
           var_str ("short.evt"), intrinsic=.true., &
           description=var_str ('String variable that allows via \ttt{\$extension\_ascii\_short ' // &
           '= "{\em <suffix>}"} to specify the suffix for the file \ttt{name.suffix} ' // &
           'to which events in the so called short variant of the \whizard\ ' // &
           'version 1 style HEPEVT ASCII format are written. If not set, ' // &
           'the default file name and suffix is \ttt{{\em <process\_name>}.short.evt}. ' // &
           '(cf. also \ttt{sample\_format}, \ttt{\$sample})'))
     call var_list%append_string (var_str ("$extension_ascii_long"), &
           var_str ("long.evt"), intrinsic=.true., &
           description=var_str ('String variable that allows via \ttt{\$extension\_ascii\_long ' // &
           '= "{\em <suffix>}"} to specify the suffix for the file \ttt{name.suffix} ' // &
           'to which events in the so called long variant of the \whizard\ ' // &
           'version 1 style HEPEVT ASCII format are written. If not set, ' // &
           'the default file name and suffix is \ttt{{\em <process\_name>}.long.evt}. ' // &
           '(cf. also \ttt{sample\_format}, \ttt{\$sample})'))
     call var_list%append_string (var_str ("$extension_athena"), &
           var_str ("athena.evt"), intrinsic=.true., &
           description=var_str ('String variable that allows via \ttt{\$extension\_athena ' // &
           '= "{\em <suffix>}"} to specify the suffix for the file \ttt{name.suffix} ' // &
           'to which events in the ATHENA file format are written. If not ' // &
           'set, the default file name and suffix is \ttt{{\em <process\_name>}.athena.evt}. ' // &
           '(cf. also \ttt{sample\_format}, \ttt{\$sample})'))
     call var_list%append_string (var_str ("$extension_mokka"), &
            var_str ("mokka.evt"), intrinsic=.true., &
            description=var_str ('String variable that allows via \ttt{\$extension\_mokka ' // &
            '= "{\em <suffix>}"} to specify the suffix for the file \ttt{name.suffix} ' // &
            'to which events in the MOKKA format are written. If not set, ' // &
            'the default file name and suffix is \ttt{{\em <process\_name>}.mokka.evt}. ' // &
            '(cf. also \ttt{sample\_format}, \ttt{\$sample})'))
     call var_list%append_string (var_str ("$lhef_version"), var_str ("2.0"), &
          intrinsic = .true., &
          description=var_str ('Specifier for the Les Houches Accord (LHEF) ' // &
          'event format files with XML headers to discriminate among different ' // &
          'versions of this format.  (cf. also \ttt{\$sample}, \ttt{sample\_format}, ' // &
          '\ttt{lhef}, \ttt{\$lhef\_extension}, \ttt{\$lhef\_extension}, ' // &
          '\ttt{?lhef\_write\_sqme\_prc}, \ttt{?lhef\_write\_sqme\_ref}, ' // &
          '\ttt{?lhef\_write\_sqme\_alt})'))
     call var_list%append_string (var_str ("$lhef_extension"), var_str ("lhe"), &
           intrinsic=.true., &
           description=var_str ('String variable that allows via \ttt{\$lhef\_extension ' // &
           '= "{\em <suffix>}"} to specify the suffix for the file \ttt{name.suffix} ' // &
           'to which events in the LHEF format are written. If not set, ' // &
           'the default file name and suffix is \ttt{{\em <process\_name>}.lhe}. ' // &
           '(cf. also \ttt{sample\_format}, \ttt{\$sample}, \ttt{lhef}, ' // &
           '\ttt{\$lhef\_extension}, \ttt{\$lhef\_version}, \ttt{?lhef\_write\_sqme\_prc}, ' // &
           '\ttt{?lhef\_write\_sqme\_ref}, \ttt{?lhef\_write\_sqme\_alt})'))
     call var_list%append_log (var_str ("?lhef_write_sqme_prc"), .true., &
          intrinsic = .true., &
          description=var_str ('Flag that decides whether in the ($\to$) ' // &
          '\ttt{lhef} event format the weights of the squared matrix element ' // &
          'of the corresponding process shall be written in the LHE file. ' // &
          '(cf. also \ttt{\$sample}, \ttt{sample\_format}, \ttt{lhef}, ' // &
          '\ttt{\$lhef\_extension}, \ttt{\$lhef\_extension}, \ttt{?lhef\_write\_sqme\_ref}, ' // &
          '\newline \ttt{?lhef\_write\_sqme\_alt})'))
     call var_list%append_log (var_str ("?lhef_write_sqme_ref"), .false., &
          intrinsic = .true., &
          description=var_str ('Flag that decides whether in the ($\to$) ' // &
          '\ttt{lhef} event format reference weights of the squared matrix ' // &
          'element shall be written in the LHE file. (cf. also \ttt{\$sample}, ' // &
          '\ttt{sample\_format}, \ttt{lhef}, \ttt{\$lhef\_extension}, \ttt{\$lhef\_extension}, ' // &
          '\ttt{?lhef\_write\_sqme\_prc}, \ttt{?lhef\_write\_sqme\_alt})'))
     call var_list%append_log (var_str ("?lhef_write_sqme_alt"), .true., &
          intrinsic = .true., &
          description=var_str ('Flag that decides whether in the ($\to$) ' // &
          '\ttt{lhef} event format alternative weights of the squared matrix ' // &
          'element shall be written in the LHE file. (cf. also \ttt{\$sample}, ' // &
          '\ttt{sample\_format}, \ttt{lhef}, \ttt{\$lhef\_extension}, \ttt{\$lhef\_extension}, ' // &
          '\ttt{?lhef\_write\_sqme\_prc}, \ttt{?lhef\_write\_sqme\_ref})'))
     call var_list%append_string (var_str ("$extension_lha"), var_str ("lha"), &
           intrinsic=.true., &
           description=var_str ('String variable that allows via \ttt{\$extension\_lha ' // &
           '= "{\em <suffix>}"} to specify the suffix for the file \ttt{name.suffix} ' // &
           'to which events in the (deprecated) LHA format are written. ' // &
           'If not set, the default file name and suffix is \ttt{{\em <process\_name>}.lha}. ' // &
           '(cf. also \ttt{sample\_format}, \ttt{\$sample})'))
     call var_list%append_string (var_str ("$extension_hepmc"), var_str ("hepmc"), &
           intrinsic=.true., &
           description=var_str ('String variable that allows via \ttt{\$extension\_hepmc ' // &
           '= "{\em <suffix>}"} to specify the suffix for the file \ttt{name.suffix} ' // &
           'to which events in the HepMC format are written. If not set, ' // &
           'the default file name and suffix is \ttt{{\em <process\_name>}.hepmc}. ' // &
           '(cf. also \ttt{sample\_format}, \ttt{\$sample})'))
     call var_list%append_log (var_str ("?hepmc_output_cross_section"), .false., &
          intrinsic = .true., &
          description=var_str ('Flag for the HepMC event format that allows ' // &
          'to write out the cross section (and error) from the integration ' // &
          'together with each HepMC event. This can be used by programs ' // &
          'like Rivet to scale histograms according to the cross section. ' // &
          '(cf.  also \ttt{hepmc})'))
     call var_list%append_log (var_str ("?hepmc3_write_flows"), .false., &
          intrinsic = .true., &
          description=var_str ('Flag for the HepMC3 event format that decides' // &
          'whether to write out color flows. The default is \ttt{false}. ' // &
          '(cf.  also \ttt{hepmc})'))
     call var_list%append_string (var_str ("$hepmc3_mode"), var_str ("HepMC3"), &
          intrinsic = .true., &
          description=var_str ('This specifies the writer mode for HepMC3. ' // &
          'Possible values are \ttt{HepMC2}, \ttt{HepMC3} (default),  ' // &
          '\ttt{HepEVT}, \ttt{Root}. and \ttt{RootTree} (cf. also \ttt{hepmc})'))
     call var_list%append_string (var_str ("$extension_lcio"), var_str ("slcio"), &
           intrinsic=.true., &
           description=var_str ('String variable that allows via \ttt{\$extension\_lcio ' // &
           '= "{\em <suffix>}"} to specify the suffix for the file \ttt{name.suffix} ' // &
           'to which events in the LCIO format are written. If not set, ' // &
           'the default file name and suffix is \ttt{{\em <process\_name>}.slcio}. ' // &
           '(cf. also \ttt{sample\_format}, \ttt{\$sample})'))
     call var_list%append_string (var_str ("$extension_stdhep"), var_str ("hep"), &
           intrinsic=.true., &
           description=var_str ('String variable that allows via \ttt{\$extension\_stdhep ' // &
           '= "{\em <suffix>}"} to specify the suffix for the file \ttt{name.suffix} ' // &
           'to which events in the StdHEP format via the HEPEVT common ' // &
           'block are written. If not set, the default file name and suffix ' // &
           'is \ttt{{\em <process\_name>}.hep}. (cf. also \ttt{sample\_format}, ' // &
           '\ttt{\$sample})'))
     call var_list%append_string (var_str ("$extension_stdhep_up"), &
           var_str ("up.hep"), intrinsic=.true., &
           description=var_str ('String variable that allows via \ttt{\$extension\_stdhep\_up ' // &
           '= "{\em <suffix>}"} to specify the suffix for the file \ttt{name.suffix} ' // &
           'to which events in the StdHEP format via the HEPRUP/HEPEUP ' // &
           'common blocks are written. \ttt{{\em <process\_name>}.up.hep} ' // &
           'is the default file name and suffix, if this variable not set. ' // &
           '(cf. also \ttt{sample\_format}, \ttt{\$sample})'))
     call var_list%append_string (var_str ("$extension_stdhep_ev4"), &
           var_str ("ev4.hep"), intrinsic=.true., &
           description=var_str ('String variable that allows via \ttt{\$extension\_stdhep\_ev4 ' // &
           '= "{\em <suffix>}"} to specify the suffix for the file \ttt{name.suffix} ' // &
           'to which events in the StdHEP format via the HEPEVT/HEPEV4 ' // &
           'common blocks are written. \ttt{{\em <process\_name>}.up.hep} ' // &
           'is the default file name and suffix, if this variable not set. ' // &
           '(cf. also \ttt{sample\_format}, \ttt{\$sample})'))
     call var_list%append_string (var_str ("$extension_hepevt_verb"), &
           var_str ("hepevt.verb"), intrinsic=.true., &
           description=var_str ('String variable that allows via \ttt{\$extension\_hepevt\_verb ' // &
           '= "{\em <suffix>}"} to specify the suffix for the file \ttt{name.suffix} ' // &
           'to which events in the \whizard\ version 1 style extended or ' // &
           'verbose HEPEVT ASCII format are written. If not set, the default ' // &
           'file name and suffix is \ttt{{\em <process\_name>}.hepevt.verb}. ' // &
           '(cf. also \ttt{sample\_format}, \ttt{\$sample})'))
     call var_list%append_string (var_str ("$extension_lha_verb"), &
           var_str ("lha.verb"), intrinsic=.true., &
           description=var_str ('String variable that allows via \ttt{\$extension\_lha\_verb ' // &
           '= "{\em <suffix>}"} to specify the suffix for the file \ttt{name.suffix} ' // &
           'to which events in the (deprecated) extended or verbose LHA ' // &
           'format are written. If not set, the default file name and suffix ' // &
           'is \ttt{{\em <process\_name>}.lha.verb}. (cf. also \ttt{sample\_format}, ' // &
           '\ttt{\$sample})'))
   end subroutine var_list_set_eio_defaults
 
 @ %def var_list_set_eio_defaults
 @
 <<Variables: var list: TBP>>=
   procedure :: set_shower_defaults => var_list_set_shower_defaults
 <<Variables: sub interfaces>>=
     module subroutine var_list_set_shower_defaults (var_list)
       class(var_list_t), intent(inout) :: var_list
     end subroutine var_list_set_shower_defaults
 <<Variables: procedures>>=
   module subroutine var_list_set_shower_defaults (var_list)
     class(var_list_t), intent(inout) :: var_list
     call var_list%append_log (var_str ("?allow_shower"), .true., &
          intrinsic=.true., &
          description=var_str ('Master flag to switch on (initial and ' // &
          'final state) parton shower, matching/merging as an event ' // &
          'transform. As a default, it is switched on. (cf. also \ttt{?ps\_ ' // &
          '....}, \ttt{\$ps\_ ...}, \ttt{?mlm\_ ...}, \ttt{?hadronization\_active})'))
     call var_list%append_log (var_str ("?ps_fsr_active"), .false., &
          intrinsic=.true., &
          description=var_str ('Flag that switches final-state QCD radiation ' // &
          '(FSR) on.  (cf. also \ttt{?allow\_shower}, \ttt{?ps\_ ...}, ' // &
          '\ttt{\$ps\_ ...}, \ttt{?mlm\_ ...}, \ttt{?hadronization\_active})'))
     call var_list%append_log (var_str ("?ps_isr_active"), .false., &
          intrinsic=.true., &
          description=var_str ('Flag that switches initial-state QCD ' // &
          'radiation (ISR) on.  (cf. also \ttt{?allow\_shower}, \ttt{?ps\_ ' // &
          '...}, \ttt{\$ps\_ ...}, \ttt{?mlm\_ ...}, \ttt{?hadronization\_active})'))
     call var_list%append_log (var_str ("?ps_taudec_active"), .false., &
             intrinsic=.true., &
             description=var_str ('Flag to switch on $\tau$ decays, at ' // &
             'the moment only via the included external package \ttt{TAUOLA} ' // &
             'and \ttt{PHOTOS}.  (cf. also \ttt{?allow\_shower}, \ttt{?ps\_ ' // &
             '...}, \ttt{\$ps\_ ...}, \ttt{?mlm\_ ...}, \ttt{?hadronization\_active})'))
     call var_list%append_log (var_str ("?muli_active"), .false., &
             intrinsic=.true., &
             description=var_str ("Master flag that switches on \whizard's " // &
             'module for multiple interaction with interleaved QCD parton ' // &
             'showers for hadron colliders. Note that this feature is still ' // &
             'experimental. (cf. also \ttt{?allow\_shower}, \ttt{?ps\_ ' // &
             '...}, \ttt{\$ps\_ ...}, \ttt{?mlm\_ ...})'))
     call var_list%append_string (var_str ("$shower_method"), var_str ("WHIZARD"), &
             intrinsic=.true., &
             description=var_str ('String variable that allows to specify ' // &
             'which parton shower is being used, the default, \ttt{"WHIZARD"}, ' // &
             'is one of the in-house showers of \whizard. Other possibilities ' // &
             'at the moment are only \ttt{"PYTHIA6"}.'))
     call var_list%append_log (var_str ("?shower_verbose"), .false., &
             intrinsic=.true., &
             description=var_str ('Flag to switch on verbose messages when ' // &
             'using shower and/or hadronization. (cf. also \ttt{?allow\_shower}, ' // &
             '\ttt{?ps\_ ...}, \ttt{\$ps\_ ...}, \ttt{?mlm\_ ...},'))
     call var_list%append_string (var_str ("$ps_PYTHIA_PYGIVE"), var_str (""), &
           intrinsic=.true., &
           description=var_str ('String variable that allows to pass options ' // &
           'for tunes etc. to the attached \pythia\ parton shower or hadronization, ' // &
           'e.g.: \ttt{\$ps\_PYTHIA\_PYGIVE = "MSTJ(41)=1"}.  (cf. also ' // &
           '\newline \ttt{?allow\_shower}, \ttt{?ps\_ ...}, \ttt{\$ps\_ ' // &
           '...}, \ttt{?mlm\_ ...}, \ttt{?hadronization\_active})'))
     call var_list%append_string (var_str ("$ps_PYTHIA8_config"), var_str (""), &
          intrinsic=.true., &
          description=var_str ('String variable that allows to pass options ' // &
          'for tunes etc. to the attached \pythia\ttt{8} parton shower or hadronization, ' // &
          'e.g.: \ttt{\$ps\_PYTHIA8\_config = "PartonLevel:MPI = off"}.  (cf. also ' // &
          '\newline \ttt{?allow\_shower}, \ttt{?ps\_ ...}, \ttt{\$ps\_ ' // &
          '...}, \ttt{?mlm\_ ...}, \ttt{?hadronization\_active})'))
     call var_list%append_string (var_str ("$ps_PYTHIA8_config_file"), var_str (""), &
          intrinsic=.true., &
          description=var_str ('String variable that allows to pass a filename to a ' // &
          '\pythia\ttt{8} configuration file.'))
     call var_list%append_real (&
          var_str ("ps_mass_cutoff"), 1._default, intrinsic = .true., &
          description=var_str ('Real value that sets the QCD parton shower ' // &
          'lower cutoff scale, where hadronization sets in. (cf. also \ttt{?allow\_shower}, ' // &
          '\ttt{?ps\_ ...}, \ttt{\$ps\_ ...}, \ttt{?mlm\_ ...}, \ttt{?hadronization\_active})'))
     call var_list%append_real (&
          var_str ("ps_fsr_lambda"), 0.29_default, intrinsic = .true., &
          description=var_str ('By this real parameter, the value of $\Lambda_{QCD}$ ' // &
          'used in running $\alpha_s$ for time-like showers is set (except ' // &
          'for showers in the decay of a resonance). (cf. also \ttt{?allow\_shower}, ' // &
          '\ttt{?ps\_ ...}, \ttt{\$ps\_ ...}, \ttt{?mlm\_ ...}, \ttt{?hadronization\_active})'))
     call var_list%append_real (&
          var_str ("ps_isr_lambda"), 0.29_default, intrinsic = .true., &
          description=var_str ('By this real parameter, the value of $\Lambda_{QCD}$ ' // &
          'used in running $\alpha_s$ for space-like showers is set. (cf. ' // &
          'also \ttt{?allow\_shower}, \ttt{?ps\_   ...}, \ttt{\$ps\_ ...}, ' // &
          '\ttt{?mlm\_ ...}, \ttt{?hadronization\_active})'))
     call var_list%append_int (&
          var_str ("ps_max_n_flavors"), 5, intrinsic = .true., &
          description=var_str ('This integer parameter sets the maxmimum ' // &
          'number of flavors that can be produced in a QCD shower $g\to ' // &
          'q\bar q$. It is also used as the maximal number of active flavors ' // &
          'for the running of $\alpha_s$ in the shower (with a minimum ' // &
          'of 3). (cf. also \ttt{?allow\_shower}, \ttt{?ps\_ ...}, \ttt{\$ps\_ ' // &
          '...}, \ttt{?mlm\_ ...}, \ttt{?hadronization\_active})'))
     call var_list%append_log (var_str ("?ps_isr_alphas_running"), .true., &
             intrinsic=.true., &
             description=var_str ('Flag that decides whether a running ' // &
             '$\alpha_s$ is taken in space-like QCD parton showers. (cf. ' // &
             'also \ttt{?allow\_shower}, \ttt{?ps\_ ...}, \ttt{\$ps\_ ...}, ' // &
             '\ttt{?mlm\_ ...}, \ttt{?hadronization\_active})'))
     call var_list%append_log (var_str ("?ps_fsr_alphas_running"), .true., &
             intrinsic=.true., &
             description=var_str ('Flag that decides whether a running ' // &
             '$\alpha_s$ is taken in time-like QCD parton showers. (cf. ' // &
             'also \ttt{?allow\_shower}, \ttt{?ps\_ ...}, \ttt{\$ps\_ ...}, ' // &
             '\ttt{?mlm\_ ...}, \ttt{?hadronization\_active})'))
     call var_list%append_real (var_str ("ps_fixed_alphas"), &
          0._default, intrinsic = .true., &
          description=var_str ('This real parameter sets the value of $\alpha_s$ ' // &
          'if it is (cf. $\to$ \ttt{?ps\_isr\_alphas\_running}, \newline ' // &
          '\ttt{?ps\_fsr\_alphas\_running}) not running in initial and/or ' // &
          'final-state QCD showers.  (cf. also \ttt{?allow\_shower}, \ttt{?ps\_ ' // &
          '...}, \ttt{\$ps\_ ...}, \ttt{?mlm\_ ...}, \ttt{?hadronization\_active})'))
     call var_list%append_log (var_str ("?ps_isr_pt_ordered"), .false., &
             intrinsic=.true., &
             description=var_str ('By this flag, it can be switched between ' // &
             'the analytic QCD ISR shower (\ttt{false}, default) and the ' // &
             '$p_T$ ISR QCD shower (\ttt{true}). (cf. also \ttt{?allow\_shower}, ' // &
             '\ttt{?ps\_   ...}, \ttt{\$ps\_ ...}, \ttt{?mlm\_ ...}, \ttt{?hadronization\_active})'))
     call var_list%append_log (var_str ("?ps_isr_angular_ordered"), .true., &
             intrinsic=.true., &
             description=var_str ('If switched one, this flag forces opening ' // &
             'angles of emitted partons in the QCD ISR shower to be strictly ' // &
             'ordered, i.e. increasing towards the hard interaction.  (cf. ' // &
             'also \ttt{?allow\_shower}, \ttt{?ps\_ ...}, \ttt{\$ps\_ ...}, ' // &
             '\ttt{?mlm\_ ...}, \ttt{?hadronization\_active})'))
     call var_list%append_real (var_str &
          ("ps_isr_primordial_kt_width"), 0._default, intrinsic = .true., &
          description=var_str ('This real parameter sets the width $\sigma ' // &
          '= \braket{k_T^2}$ for the Gaussian primordial $k_T$ distribution ' // &
          'inside the hadron, given by: $\exp[-k_T^2/\sigma^2] k_T dk_T$.  ' // &
          '(cf. also \ttt{?allow\_shower}, \ttt{?ps\_   ...}, \ttt{\$ps\_ ' // &
          '...}, \ttt{?mlm\_ ...}, \ttt{?hadronization\_active})'))
     call var_list%append_real (var_str &
          ("ps_isr_primordial_kt_cutoff"), 5._default, intrinsic = .true., &
          description=var_str ('Real parameter that sets the upper cutoff ' // &
          'for the primordial $k_T$ distribution inside a hadron.  (cf. ' // &
          'also \ttt{?allow\_shower}, \ttt{?ps\_   ...}, \ttt{\$ps\_ ...}, ' // &
          '\ttt{?hadronization\_active}, \ttt{?mlm\_ ...})'))
     call var_list%append_real (var_str &
          ("ps_isr_z_cutoff"), 0.999_default, intrinsic = .true., &
          description=var_str ('This real parameter allows to set the upper ' // &
          'cutoff on the splitting variable $z$ in space-like QCD parton ' // &
          'showers. (cf. also \ttt{?allow\_shower}, \ttt{?ps\_   ...}, ' // &
          '\ttt{\$ps\_ ...}, \ttt{?mlm\_ ...}, \ttt{?hadronization\_active})'))
     call var_list%append_real (var_str &
          ("ps_isr_minenergy"), 1._default, intrinsic = .true., &
          description=var_str ('By this real parameter, the minimal effective ' // &
          'energy (in the c.m. frame) of a time-like or on-shell-emitted ' // &
          'parton in a space-like QCD shower is set. For a hard subprocess ' // &
          'that is not in the rest frame, this number is roughly reduced ' // &
          'by a boost factor $1/\gamma$ to the rest frame of the hard scattering ' // &
          'process.  (cf. also \ttt{?allow\_shower}, \ttt{?ps\_   ...}, ' // &
          '\ttt{\$ps\_ ...}, \ttt{?mlm\_ ...}, \ttt{?hadronization\_active})'))
     call var_list%append_real (var_str &
          ("ps_isr_tscalefactor"), 1._default, intrinsic = .true., &
          description=var_str ('The $Q^2$ scale of the hard scattering ' // &
          'process is multiplied by this real factor to define the maximum ' // &
          'parton virtuality allowed in time-like QCD showers. This does ' // &
          'only apply to $t$- and $u$-channels, while for $s$-channel resonances ' // &
          'the maximum virtuality is set by $m^2$.  (cf. also \ttt{?allow\_shower}, ' // &
          '\ttt{?ps\_   ...}, \ttt{\$ps\_ ...}, \ttt{?mlm\_ ...}, \ttt{?hadronization\_active})'))
     call var_list%append_log (var_str &
          ("?ps_isr_only_onshell_emitted_partons"), .false., intrinsic=.true., &
          description=var_str ('This flag if set true sets all emitted ' // &
          'partons off space-like showers on-shell, i.e. it would not allow ' // &
          'associated time-like showers.  (cf. also \ttt{?allow\_shower}, ' // &
          '\ttt{?ps\_   ...}, \ttt{\$ps\_ ...}, \ttt{?mlm\_ ...}, \ttt{?hadronization\_active})'))
   end subroutine var_list_set_shower_defaults
 
 @ %def var_list_set_shower_defaults
 @
 <<Variables: var list: TBP>>=
   procedure :: set_hadronization_defaults => var_list_set_hadronization_defaults
 <<Variables: sub interfaces>>=
     module subroutine var_list_set_hadronization_defaults (var_list)
       class(var_list_t), intent(inout) :: var_list
     end subroutine var_list_set_hadronization_defaults
 <<Variables: procedures>>=
   module subroutine var_list_set_hadronization_defaults (var_list)
     class(var_list_t), intent(inout) :: var_list
     call var_list%append_log &
          (var_str ("?allow_hadronization"), .true., intrinsic=.true., &
          description=var_str ('Master flag to switch on hadronization ' // &
          'as an event transform. As a default, it is switched on. (cf. ' // &
          'also \ttt{?ps\_ ....}, \ttt{\$ps\_ ...}, \ttt{?mlm\_ ...}, ' // &
          '\ttt{?hadronization\_active})'))
     call var_list%append_log &
          (var_str ("?hadronization_active"), .false., intrinsic=.true., &
          description=var_str ('Master flag to switch hadronization (through ' // &
          'the attached \pythia\ package) on or off. As a default, it is ' // &
          'off. (cf. also \ttt{?allow\_shower}, \ttt{?ps\_ ...}, \ttt{\$ps\_ ' // &
          '...}, \ttt{?mlm\_ ...})'))
     call var_list%append_string &
          (var_str ("$hadronization_method"), var_str ("PYTHIA6"), intrinsic = .true., &
          description=var_str ("Determines whether \whizard's own " // &
          "hadronization or the (internally included) \pythiasix\ should be used."))
     call var_list%append_real &
          (var_str ("hadron_enhanced_fraction"), 0.01_default, intrinsic = .true., &
          description=var_str ('Fraction of Lund strings that break with enhanced ' // &
          'width. [not yet active]'))
     call var_list%append_real &
          (var_str ("hadron_enhanced_width"), 2.0_default, intrinsic = .true., &
          description=var_str ('Enhancement factor for the width of breaking ' // &
          'Lund strings. [not yet active]'))
   end subroutine var_list_set_hadronization_defaults
 
 @ %def var_list_set_hadronization_defaults
 @
 <<Variables: var list: TBP>>=
   procedure :: set_tauola_defaults => var_list_set_tauola_defaults
 <<Variables: sub interfaces>>=
     module subroutine var_list_set_tauola_defaults (var_list)
       class(var_list_t), intent(inout) :: var_list
     end subroutine var_list_set_tauola_defaults
 <<Variables: procedures>>=
   module subroutine var_list_set_tauola_defaults (var_list)
     class(var_list_t), intent(inout) :: var_list
     call var_list%append_log (&
          var_str ("?ps_tauola_photos"), .false., intrinsic=.true., &
          description=var_str ('Flag to switch on \ttt{PHOTOS} for photon ' // &
          'showering inside the \ttt{TAUOLA} package.  (cf. also \ttt{?allow\_shower}, ' // &
          '\ttt{?ps\_ ...}, \ttt{\$ps\_ ...}, \ttt{?mlm\_ ...}, \ttt{?ps\_taudec\_active})'))
     call var_list%append_log (&
          var_str ("?ps_tauola_transverse"), .false., intrinsic=.true., &
          description=var_str ('Flag to switch transverse $\tau$ polarization ' // &
          'on or off for Higgs decays into $\tau$ leptons.  (cf. also \ttt{?allow\_shower}, ' // &
          '\ttt{?ps\_ ...}, \ttt{\$ps\_ ...}, \ttt{?mlm\_ ...}, \ttt{?ps\_taudec\_active})'))
     call var_list%append_log (&
          var_str ("?ps_tauola_dec_rad_cor"), .true., intrinsic=.true., &
          description=var_str ('Flag to switch radiative corrections for ' // &
          '$\tau$ decays in \ttt{TAUOLA} on or off.  (cf. also \ttt{?allow\_shower}, ' // &
          '\ttt{?ps\_ ...}, \ttt{\$ps\_ ...}, \ttt{?mlm\_ ...}, \ttt{?ps\_taudec\_active})'))
     call var_list%append_int (&
          var_str ("ps_tauola_dec_mode1"), 0, intrinsic = .true., &
          description=var_str ('Integer code to request a specific $\tau$ ' // &
          'decay within \ttt{TAUOLA} for the decaying $\tau$, and -- ' // &
          'in correlated decays -- for the second $\tau$. For more information ' // &
          'cf. the comments in the code or the \ttt{TAUOLA} manual.  ' // &
          '(cf. also \ttt{?allow\_shower}, \ttt{?ps\_ ...}, \ttt{\$ps\_ ' // &
          '...}, \ttt{?mlm\_ ...}, \ttt{?ps\_taudec\_active})'))
     call var_list%append_int (&
          var_str ("ps_tauola_dec_mode2"), 0, intrinsic = .true., &
          description=var_str ('Integer code to request a specific $\tau$ ' // &
          'decay within \ttt{TAUOLA} for the decaying $\tau$, and -- ' // &
          'in correlated decays -- for the second $\tau$. For more information ' // &
          'cf. the comments in the code or the \ttt{TAUOLA} manual.  ' // &
          '(cf. also \ttt{?allow\_shower}, \ttt{?ps\_ ...}, \ttt{\$ps\_ ' // &
          '...}, \ttt{?mlm\_ ...}, \ttt{?ps\_taudec\_active})'))
     call var_list%append_real (&
          var_str ("ps_tauola_mh"), 125._default, intrinsic = .true., &
          description=var_str ('Real option to set the Higgs mass for Higgs ' // &
          'decays into $\tau$ leptons in the interface to \ttt{TAUOLA}.  ' // &
          '(cf. also \ttt{?allow\_shower}, \ttt{?ps\_ ...}, \ttt{\$ps\_ ' // &
          '...}, \ttt{?mlm\_ ...}, \ttt{?ps\_taudec\_active})'))
     call var_list%append_real (&
          var_str ("ps_tauola_mix_angle"), 90._default, intrinsic = .true., &
          description=var_str ('Option to set the mixing angle between ' // &
          'scalar and pseudoscalar Higgs bosons for Higgs decays into $\tau$ ' // &
          'leptons in the interface to \ttt{TAUOLA}.  (cf. also \ttt{?allow\_shower}, ' // &
          '\ttt{?ps\_ ...}, \ttt{\$ps\_ ...}, \ttt{?mlm\_ ...}, \ttt{?ps\_taudec\_active})'))
     call var_list%append_log (&
          var_str ("?ps_tauola_pol_vector"), .false., intrinsic = .true., &
          description=var_str ('Flag to decide whether for transverse $\tau$ ' // &
          'polarization, polarization information should be taken from ' // &
          '\ttt{TAUOLA} or not.  The default is just based on random numbers.  ' // &
          '(cf. also \ttt{?allow\_shower}, \ttt{?ps\_ ...}, \ttt{\$ps\_ ' // &
          '...}, \ttt{?mlm\_ ...}, \ttt{?ps\_taudec\_active})'))
   end subroutine var_list_set_tauola_defaults
 
 @ %def var_list_set_tauola_defaults
 @
 <<Variables: var list: TBP>>=
   procedure :: set_mlm_matching_defaults => var_list_set_mlm_matching_defaults
 <<Variables: sub interfaces>>=
     module subroutine var_list_set_mlm_matching_defaults (var_list)
       class(var_list_t), intent(inout) :: var_list
     end subroutine var_list_set_mlm_matching_defaults
 <<Variables: procedures>>=
   module subroutine var_list_set_mlm_matching_defaults (var_list)
     class(var_list_t), intent(inout) :: var_list
     call var_list%append_log (var_str ("?mlm_matching"), .false., &
             intrinsic=.true., &
             description=var_str ('Master flag to switch on MLM (LO) jet ' // &
             'matching between hard matrix elements and the QCD parton ' // &
             'shower. (cf. also \ttt{?allow\_shower}, \ttt{?ps\_ ...}, ' // &
             '\ttt{\$ps\_ ...}, \ttt{mlm\_ ...}, \ttt{?hadronization\_active})'))
     call var_list%append_real (var_str &
          ("mlm_Qcut_ME"), 0._default, intrinsic = .true., &
          description=var_str ('Real parameter that in the MLM jet matching ' // &
          'between hard matrix elements and QCD parton shower sets a possible ' // &
          'virtuality cut on jets from the hard matrix element. (cf. also ' // &
          '\ttt{?allow\_shower}, \ttt{?ps\_ ...}, \ttt{\$ps\_ ...}, \ttt{mlm\_ ' // &
          '...}, \ttt{?hadronization\_active})'))
     call var_list%append_real (var_str &
          ("mlm_Qcut_PS"), 0._default, intrinsic = .true., &
          description=var_str ('Real parameter that in the MLM jet matching ' // &
          'between hard matrix elements and QCD parton shower sets a possible ' // &
          'virtuality cut on jets from the parton shower. (cf. also \ttt{?allow\_shower}, ' // &
          '\ttt{?ps\_ ...}, \ttt{\$ps\_ ...}, \ttt{mlm\_ ...}, \ttt{?hadronization\_active})'))
     call var_list%append_real (var_str &
          ("mlm_ptmin"), 0._default, intrinsic = .true., &
          description=var_str ('This real parameter sets a minimal $p_T$ ' // &
          'that enters the $y_{cut}$ jet clustering measure in the MLM ' // &
          'jet matching between hard matrix elements and QCD parton showers.  ' // &
          '(cf. also \ttt{?allow\_shower}, \ttt{?ps\_ ...}, \ttt{\$ps\_ ' // &
          '...}, \ttt{mlm\_ ...}, \ttt{?hadronization\_active})'))
     call var_list%append_real (var_str &
          ("mlm_etamax"), 0._default, intrinsic = .true., &
          description=var_str ('This real parameter sets a maximal pseudorapidity ' // &
          'that enters the MLM jet matching between hard matrix elements ' // &
          'and QCD parton showers.  (cf. also \ttt{?allow\_shower}, \ttt{?ps\_ ' // &
          '...}, \ttt{\$ps\_ ...}, \ttt{mlm\_ ...}, \ttt{?hadronization\_active})'))
     call var_list%append_real (var_str &
          ("mlm_Rmin"), 0._default, intrinsic = .true., &
          description=var_str ('Real parameter that sets a minimal $R$ ' // &
          'distance value that enters the $y_{cut}$ jet clustering measure ' // &
          'in the MLM jet matching between hard matrix elements and QCD ' // &
          'parton showers.  (cf. also \ttt{?allow\_shower}, \ttt{?ps\_ ' // &
          '...}, \ttt{\$ps\_ ...}, \ttt{mlm\_ ...}, \ttt{?hadronization\_active})'))
     call var_list%append_real (var_str &
          ("mlm_Emin"), 0._default, intrinsic = .true., &
          description=var_str ('Real parameter that sets a minimal energy ' // &
          '$E_{min}$ value as an infrared cutoff in the MLM jet matching ' // &
          'between hard matrix elements and QCD parton showers.  (cf. also ' // &
          '\ttt{?allow\_shower}, \ttt{?ps\_ ...}, \ttt{\$ps\_ ...}, \ttt{mlm\_ ' // &
          '...}, \ttt{?hadronization\_active})'))
     call var_list%append_int (var_str &
          ("mlm_nmaxMEjets"), 0, intrinsic = .true., &
          description=var_str ('This integer sets the maximal number of ' // &
          'jets that are available from hard matrix elements in the MLM ' // &
          'jet matching between hard matrix elements and QCD parton shower. ' // &
          '(cf. also \ttt{?allow\_shower}, \ttt{?ps\_ ...}, \ttt{\$ps\_ ' // &
          '...}, \ttt{mlm\_ ...}, \ttt{?hadronization\_active})'))
     call var_list%append_real (var_str &
          ("mlm_ETclusfactor"), 0.2_default, intrinsic = .true., &
          description=var_str ('This real parameter is a factor that enters ' // &
          'the calculation of the $y_{cut}$ measure for jet clustering ' // &
          'after the parton shower in the MLM jet matching between hard ' // &
          'matrix elements and QCD parton showers.  (cf. also \ttt{?allow\_shower}, ' // &
          '\ttt{?ps\_ ...}, \ttt{\$ps\_ ...}, \ttt{mlm\_ ...}, \ttt{?hadronization\_active})'))
     call var_list%append_real (var_str &
          ("mlm_ETclusminE"), 5._default, intrinsic = .true., &
          description=var_str ('This real parameter is a minimal energy ' // &
          'that enters the calculation of the $y_{cut}$ measure for jet ' // &
          'clustering after the parton shower in the MLM jet matching between ' // &
          'hard matrix elements and QCD parton showers.  (cf. also \ttt{?allow\_shower}, ' // &
          '\ttt{?ps\_ ...}, \ttt{\$ps\_ ...}, \ttt{mlm\_ ...}, \ttt{?hadronization\_active})'))
     call var_list%append_real (var_str &
          ("mlm_etaclusfactor"), 1._default, intrinsic = .true., &
          description=var_str ('This real parameter is a factor that enters ' // &
          'the calculation of the $y_{cut}$ measure for jet clustering ' // &
          'after the parton shower in the MLM jet matching between hard ' // &
          'matrix elements and QCD parton showers.  (cf. also \ttt{?allow\_shower}, ' // &
          '\ttt{?ps\_ ...}, \ttt{\$ps\_ ...}, \ttt{mlm\_ ...}, \ttt{?hadronization\_active})'))
     call var_list%append_real (var_str &
          ("mlm_Rclusfactor"), 1._default, intrinsic = .true., &
          description=var_str ('This real parameter is a factor that enters ' // &
          'the calculation of the $y_{cut}$ measure for jet clustering ' // &
          'after the parton shower in the MLM jet matching between hard ' // &
          'matrix elements and QCD parton showers.  (cf. also \ttt{?allow\_shower}, ' // &
          '\ttt{?ps\_ ...}, \ttt{\$ps\_ ...}, \ttt{mlm\_ ...}, \ttt{?hadronization\_active})'))
     call var_list%append_real (var_str &
          ("mlm_Eclusfactor"), 1._default, intrinsic = .true., &
          description=var_str ('This real parameter is a factor that enters ' // &
          'the calculation of the $y_{cut}$ measure for jet clustering ' // &
          'after the parton shower in the MLM jet matching between hard ' // &
          'matrix elements and QCD parton showers.  (cf. also \ttt{?allow\_shower}, ' // &
          '\ttt{?ps\_ ...}, \ttt{\$ps\_ ...}, \ttt{mlm\_ ...}, \ttt{?hadronization\_active})'))
 
   end subroutine var_list_set_mlm_matching_defaults
 
 @ %def var_list_set_mlm_matching_defaults
 @
 <<Variables: var list: TBP>>=
   procedure :: set_powheg_matching_defaults => &
        var_list_set_powheg_matching_defaults
 <<Variables: sub interfaces>>=
     module subroutine var_list_set_powheg_matching_defaults (var_list)
       class(var_list_t), intent(inout) :: var_list
     end subroutine var_list_set_powheg_matching_defaults
 <<Variables: procedures>>=
   module subroutine var_list_set_powheg_matching_defaults (var_list)
     class(var_list_t), intent(inout) :: var_list
     call var_list%append_log (var_str ("?powheg_matching"), &
          .false., intrinsic = .true., &
          description=var_str ('Activates Powheg matching. Needs to be ' // &
          'combined with the \ttt{?combined\_nlo\_integration}-method.'))
     call var_list%append_log (var_str ("?powheg_use_singular_jacobian"), &
          .false., intrinsic = .true., &
          description=var_str ('This allows to give a different ' // &
          'normalization of the Jacobian, resulting in an alternative ' // &
          'POWHEG damping in the singular regions.'))
     call var_list%append_int (var_str ("powheg_grid_size_xi"), &
          5, intrinsic = .true., &
          description=var_str ('Number of $\xi$ points in the POWHEG grid.'))
     call var_list%append_int (var_str ("powheg_grid_size_y"), &
          5, intrinsic = .true., &
          description=var_str ('Number of $y$ points in the POWHEG grid.'))
     call var_list%append_real (var_str ("powheg_pt_min"), &
           1._default, intrinsic = .true., &
           description=var_str ('Lower $p_T$-cut-off for the POWHEG ' // &
           'hardest emission.'))
     call var_list%append_real (var_str ("powheg_lambda"), &
           LAMBDA_QCD_REF, intrinsic = .true., &
           description=var_str ('Reference scale of the $\alpha_s$ evolution ' // &
           'in the POWHEG matching algorithm.'))
     call var_list%append_log (var_str ("?powheg_test_sudakov"), &
           .false., intrinsic = .true., &
           description=var_str ('Performs an internal consistency check ' // &
           'on the POWHEG event generation.'))
     call var_list%append_log (var_str ("?powheg_disable_sudakov"), &
           .false., intrinsic = .true., &
           description=var_str ('This flag allows to set the Sudakov form ' // &
           'factor to one. This effectively results in a version of ' // &
           'the matrix-element method (MEM) at NLO.'))
   end subroutine var_list_set_powheg_matching_defaults
 
 @ %def var_list_set_powheg_matching_defaults
 @
 <<Variables: var list: TBP>>=
   procedure :: set_openmp_defaults => var_list_set_openmp_defaults
 <<Variables: sub interfaces>>=
     module subroutine var_list_set_openmp_defaults (var_list)
       class(var_list_t), intent(inout) :: var_list
     end subroutine var_list_set_openmp_defaults
 <<Variables: procedures>>=
   module subroutine var_list_set_openmp_defaults (var_list)
     class(var_list_t), intent(inout) :: var_list
     call var_list%append_log (var_str ("?omega_openmp"), &
          openmp_is_active (), &
          intrinsic=.true., &
          description=var_str ('Flag to switch on or off OpenMP multi-threading ' // &
          "for \oMega\ matrix elements. (cf. also \ttt{\$method}, \ttt{\$omega\_flag})"))
     call var_list%append_log (var_str ("?openmp_is_active"), &
          openmp_is_active (), &
          locked=.true., intrinsic=.true., &
          description=var_str ('Flag to switch on or off OpenMP multi-threading ' // &
          'for \whizard. (cf. also \ttt{?openmp\_logging}, \ttt{openmp\_num\_threads}, ' // &
          '\ttt{openmp\_num\_threads\_default}, \ttt{?omega\_openmp})'))
     call var_list%append_int (var_str ("openmp_num_threads_default"), &
          openmp_get_default_max_threads (), &
          locked=.true., intrinsic=.true., &
          description=var_str ('Integer parameter that shows the number ' // &
          'of default OpenMP threads for multi-threading. Note that this ' // &
          'parameter can only be accessed, but not reset by the user. (cf. ' // &
          'also \ttt{?openmp\_logging}, \ttt{openmp\_num\_threads}, \ttt{?omega\_openmp})'))
     call var_list%append_int (var_str ("openmp_num_threads"), &
          openmp_get_max_threads (), &
          intrinsic=.true., &
          description=var_str ('Integer parameter that sets the number ' // &
          'of OpenMP threads for multi-threading.  (cf. also \ttt{?openmp\_logging}, ' // &
          '\ttt{openmp\_num\_threads\_default}, \ttt{?omega\_openmp})'))
     call var_list%append_log (var_str ("?openmp_logging"), &
          .true., intrinsic=.true., &
          description=var_str ('This logical -- when set to \ttt{false} ' // &
          '-- suppresses writing out messages about OpenMP parallelization ' // &
          '(number of used threads etc.) on screen and into the logfile ' // &
          '(default name \ttt{whizard.log}) for the whole \whizard\ run. ' // &
          'Mainly for debugging purposes.  (cf. also \ttt{?logging}, ' // &
          '\ttt{?mpi\_logging})'))
   end subroutine var_list_set_openmp_defaults
 
 @ %def var_list_set_openmp_defaults
 @
 <<Variables: var list: TBP>>=
   procedure :: set_mpi_defaults => var_list_set_mpi_defaults
 <<Variables: sub interfaces>>=
     module subroutine var_list_set_mpi_defaults (var_list)
       class(var_list_t), intent(inout) :: var_list
     end subroutine var_list_set_mpi_defaults
 <<Variables: procedures>>=
   module subroutine var_list_set_mpi_defaults (var_list)
     class(var_list_t), intent(inout) :: var_list
     call var_list%append_log (var_str ("?mpi_logging"), &
          .false., intrinsic=.true., &
          description=var_str('This logical -- when set to \ttt{false} ' // &
          '-- suppresses writing out messages about MPI parallelization ' // &
          '(number of used workers etc.) on screen and into the logfile ' // &
          '(default name \ttt{whizard.log}) for the whole \whizard\ run. ' // &
          'Mainly for debugging purposes.  (cf. also \ttt{?logging}, ' // &
          '\ttt{?openmp\_logging})'))
   end subroutine var_list_set_mpi_defaults
 
 @ %def var_list_set_mpi_defaults
 @
 <<Variables: var list: TBP>>=
   procedure :: set_nlo_defaults => var_list_set_nlo_defaults
 <<Variables: sub interfaces>>=
     module subroutine var_list_set_nlo_defaults (var_list)
       class(var_list_t), intent(inout) :: var_list
     end subroutine var_list_set_nlo_defaults
 <<Variables: procedures>>=
   module subroutine var_list_set_nlo_defaults (var_list)
     class(var_list_t), intent(inout) :: var_list
     call var_list%append_string (var_str ("$born_me_method"), &
          var_str (""), intrinsic = .true., &
          description=var_str ("This string variable specifies the method " // &
          "for the matrix elements to be used in the evaluation of the " // &
          "Born part of the NLO computation. The default is the empty string, " // &
          "i.e. the \ttt{\$method} being the intrinsic \oMega\ matrix element " // &
          'generator (\ttt{"omega"}), other options ' // &
          'are: \ttt{"ovm"}, \ttt{"unit\_test"}, \ttt{"template"}, ' // &
          '\ttt{"template\_unity"}, \ttt{"threshold"}, \ttt{"gosam"}, ' // &
          '\ttt{"openloops"}. Note that this option is inoperative if ' // &
          'no NLO calculation is specified in the process definition. ' // &
          'If you want ot use different matrix element methods in a LO ' // &
          'computation, use the usual \ttt{method} command. (cf. also ' // &
          '\ttt{\$correlation\_me\_method}, ' // &
          '\ttt{\$dglap\_me\_method}, \ttt{\$loop\_me\_method} and ' // &
          '\ttt{\$real\_tree\_me\_method}.)'))
     call var_list%append_string (var_str ("$loop_me_method"), &
          var_str (""), intrinsic = .true., &
          description=var_str ('This string variable specifies the method ' // &
          'for the matrix elements to be used in the evaluation of the ' // &
          'virtual part of the NLO computation. The default is the empty string, ' // &
          'i.e. the same as \ttt{\$method}. Working options are: ' // &
          '\ttt{"threshold"}, \ttt{"openloops"}, \ttt{"recola"}, \ttt{"gosam"}. ' // &
          '(cf. also \ttt{\$real\_tree\_me\_method}, \ttt{\$correlation\_me\_method} ' // &
          'and \ttt{\$born\_me\_method}.)'))
     call var_list%append_string (var_str ("$correlation_me_method"), &
          var_str (""), intrinsic = .true., &
          description=var_str ('This string variable specifies ' // &
          'the method for the matrix elements to be used in the evaluation ' // &
          'of the color (and helicity) correlated part of the NLO computation. ' // &
          "The default is the same as the \ttt{\$method}, i.e. the intrinsic " // &
          "\oMega\ matrix element generator " // &
          '(\ttt{"omega"}), other options are: \ttt{"ovm"}, \ttt{"unit\_test"}, ' // &
          '\ttt{"template"}, \ttt{"template\_unity"}, \ttt{"threshold"}, ' // &
          '\ttt{"gosam"}, \ttt{"openloops"}. (cf. also ' // &
          '\ttt{\$born\_me\_method}, \ttt{\$dglap\_me\_method}, ' // &
          '\ttt{\$loop\_me\_method} and \newline' // &
          '\ttt{\$real\_tree\_me\_method}.)'))
     call var_list%append_string (var_str ("$real_tree_me_method"), &
          var_str (""), intrinsic = .true., &
          description=var_str ('This string variable specifies the method ' // &
          'for the matrix elements to be used in the evaluation of the ' // &
          'real part of the NLO computation. The default is the same as ' // &
          'the \ttt{\$method}, i.e. the intrinsic ' // &
          "\oMega\ matrix element generator " // &
          '(\ttt{"omega"}), other options ' // &
          'are: \ttt{"ovm"}, \ttt{"unit\_test"}, \ttt{"template"}, \ttt{"template\_unity"}, ' // &
          '\ttt{"threshold"}, \ttt{"gosam"}, \ttt{"openloops"}. (cf. also ' // &
          '\ttt{\$born\_me\_method}, \ttt{\$correlation\_me\_method}, ' // &
          '\ttt{\$dglap\_me\_method} and \ttt{\$loop\_me\_method}.)'))
     call var_list%append_string (var_str ("$dglap_me_method"), &
          var_str (""), intrinsic = .true., &
          description=var_str ('This string variable specifies the method ' // &
          'for the matrix elements to be used in the evaluation of the ' // &
          'DGLAP remnants of the NLO computation. The default is the same as ' // &
          "\ttt{\$method}, i.e. the \oMega\ matrix element generator " // &
          '(\ttt{"omega"}), other options ' // &
          'are: \ttt{"ovm"}, \ttt{"unit\_test"}, \ttt{"template"}, \ttt{"template\_unity"}, ' // &
          '\ttt{"threshold"}, \ttt{"gosam"}, \ttt{"openloops"}. (cf. also \newline' // &
          '\ttt{\$born\_me\_method}, \ttt{\$correlation\_me\_method}, ' // &
          '\ttt{\$loop\_me\_method} and \ttt{\$real\_tree\_me\_method}.)'))
     call var_list%append_log (&
          var_str ("?test_soft_limit"), .false., intrinsic = .true., &
          description=var_str ('Sets the fixed values $\tilde{\xi} = 0.00001$ ' // &
          'and $y = 0.5$ as radiation variables.  This way, only soft, ' // &
          'but non-collinear phase space points are generated, which allows ' // &
          'for testing subtraction in this region.'))
     call var_list%append_log (&
          var_str ("?test_coll_limit"), .false., intrinsic = .true., &
          description=var_str ('Sets the fixed values $\tilde{\xi} = 0.5$ ' // &
          'and $y = 0.9999999$ as radiation variables.  This way, only collinear, ' // &
          'but non-soft phase space points are generated, which allows ' // &
          'for testing subtraction in this region. Can be combined with ' // &
          '\ttt{?test\_soft\_limit} to probe soft-collinear regions.'))
     call var_list%append_log (&
          var_str ("?test_anti_coll_limit"), .false., intrinsic = .true., &
          description=var_str ('Sets the fixed values $\tilde{\xi} = 0.5$ ' // &
          'and $y = -0.9999999$ as radiation variables.  This way, only anti-collinear, ' // &
          'but non-soft phase space points are generated, which allows ' // &
          'for testing subtraction in this region. Can be combined with ' // &
          '\ttt{?test\_soft\_limit} to probe soft-collinear regions.'))
     call var_list%append_string (var_str ("$select_alpha_regions"), &
          var_str (""), intrinsic = .true., &
          description=var_str ('Fixes the $\alpha_r$ in the real ' // &
          'subtraction as well as the DGLAP component. Allows for ' // &
          'testing in a list of selected singular regions.'))
     call var_list%append_string (var_str ("$virtual_selection"), &
          var_str ("Full"), intrinsic = .true., &
          description=var_str ('String variable to select either the full ' // &
          'or only parts of the virtual components of an NLO calculation. ' // &
          'Possible modes are \ttt{"Full"}, \ttt{"OLP"} and ' // &
          '\ttt{"Subtraction."}. Mainly for debugging purposes.'))
     call var_list%append_log (var_str ("?virtual_collinear_resonance_aware"), &
          .true., intrinsic = .true., &
          description=var_str ('This flag allows to switch between two ' // &
          'different implementations of the collinear subtraction in the ' // &
          'resonance-aware FKS setup.'))
     call var_list%append_real (&
          var_str ("blha_top_yukawa"), -1._default, intrinsic = .true., &
          description=var_str ('If this value is set, the given value will ' // &
          'be used as the top Yukawa coupling instead of the top mass. ' // &
          'Note that having different values for $y_t$ and $m_t$ must be ' // &
          'supported by your OLP-library and yield errors if this is not the case.'))
     call var_list%append_string (var_str ("$blha_ew_scheme"), &
          var_str ("alpha_internal"), intrinsic = .true., &
          description=var_str ('String variable that transfers the electroweak ' // &
          'renormalization scheme via BLHA to the one-loop provider. Possible ' // &
          'values are \ttt{GF} or \ttt{Gmu} for the $G_\mu$ scheme, ' // &
          '\ttt{alpha\_internal} (default, $G_\mu$ scheme, but value of ' // &
          '$\alpha_S$ calculated internally by \whizard), \ttt{alpha\_mz} ' // &
          'and \ttt{alpha\_0} (or \ttt{alpha\_thompson}) for different schemes ' // &
          'with $\alpha$ as input.'))
     call var_list%append_int (var_str ("openloops_verbosity"), 1, &
          intrinsic = .true., &
          description=var_str ('Decides how much \openloops\ output is printed. ' // &
          'Can have values 0, 1 and 2, where 2 is the highest verbosity level.'))
     call var_list%append_log (var_str ("?openloops_use_cms"), &
          .true., intrinsic = .true., &
          description=var_str ('Activates the complex mass scheme in ' // &
          '\openloops. (cf. also ' // &
          '\ttt{openloos\_verbosity}, \ttt{\$method}, ' // &
          '\ttt{?openloops\_switch\_off\_muon\_yukawa}, ' // &
          '\ttt{openloops\_stability\_log}, \newline' // &
          '\ttt{\$openloops\_extra\_cmd})'))
     call var_list%append_int (var_str ("openloops_phs_tolerance"), 7, &
          intrinsic = .true., &
          description=var_str ('This integer parameter gives via ' // &
          '\ttt{openloops\_phs\_tolerance = <n>} the relative numerical ' // &
          'tolerance $10^{-n}$ for the momentum conservation of the ' // &
          'external particles within \openloops. (cf. also ' // &
          '\ttt{openloos\_verbosity}, \ttt{\$method}, ' // &
          '\ttt{?openloops\_switch\_off\_muon\_yukawa}, ' // &
          '\newline\ttt{openloops\_stability\_log}, ' // &
          '\ttt{\$openloops\_extra\_cmd})'))
     call var_list%append_int (var_str ("openloops_stability_log"), 0, &
          intrinsic = .true., &
          description=var_str ('Creates the directory \ttt{stability\_log} ' // &
          'containing information about the performance of the \openloops ' // &
          'matrix elements. Possible values are 0 (No output), 1 (On ' // &
          '\ttt{finish()}-call), 2 (Adaptive) and 3 (Always).'))
     call var_list%append_log (var_str ("?openloops_switch_off_muon_yukawa"), &
          .false., intrinsic = .true., &
          description=var_str ('Sets the Yukawa coupling of muons for ' // &
          '\openloops\ to zero. (cf. also ' // &
          '\ttt{openloos\_verbosity}, \ttt{\$method}, ' // &
          '\ttt{?openloops\_use\_cms}, \ttt{openloops\_stability\_log}, ' // &
          '\ttt{\$openloops\_extra\_cmd})'))
     call var_list%append_string (var_str ("$openloops_extra_cmd"), &
          var_str (""), intrinsic = .true., &
          description=var_str ('String variable to transfer customized ' // &
          'special commands to \openloops. The three supported examples ' // &
          '\ttt{\$openloops\_extra\_command = "extra approx top/stop/not"} ' // &
          'are for selection of subdiagrams in top production. (cf. also ' // &
          '\ttt{\$method}, \ttt{openloos\_verbosity}, ' // &
          '\ttt{?openloops\_use\_cms}, \ttt{openloops\_stability\_log}, ' // &
          '\ttt{?openloops\_switch\_off\_muon\_yukawa})'))
+    call var_list%append_string (var_str ("$openloops_allowed_libs"), &
+         var_str (""), intrinsic = .true., &
+         description=var_str ('String variable to restrict the ' // &
+         'allowed \openloops process libraries for a process. ' // &
+         '(cf. also \ttt{\$method}, \ttt{openloos\_verbosity}, ' // &
+         '\ttt{?openloops\_use\_cms}, \ttt{openloops\_stability\_log}, ' // &
+         '\ttt{?openloops\_switch\_off\_muon\_yukawa})'))
     call var_list%append_real (var_str ("ellis_sexton_scale"), &
          -1._default, intrinsic = .true., &
          description = var_str ('Real positive paramter for the Ellis-Sexton scale' // &
          '$\mathcal{Q}$ used both in the finite one-loop contribution provided by' // &
          'the OLP and in the virtual counter terms. The NLO cross section is' // &
          'independent of $\mathcal{Q}$. Therefore, this allows for debugging of' // &
          'the implemention of the virtual counter terms. As the default' // &
          '$\mathcal{Q} = \mu_{\rm{R}}$ is chosen. So far, setting this parameter' // &
          'only works for OpenLoops2, otherwise the default behaviour is invoked.'))
     call var_list%append_log (var_str ("?disable_subtraction"), &
          .false., intrinsic = .true., &
          description=var_str ('Disables the subtraction of soft and collinear ' // &
          'divergences from the real matrix element.'))
     call var_list%append_real (var_str ("fks_dij_exp1"), &
          1._default, intrinsic = .true., &
          description=var_str ('Fine-tuning parameters of the FKS ' // &
          'final state partition functions. The exact meaning depends ' // &
          'on the mapping implementation. (cf. also \ttt{fks\_dij\_exp2}, ' // &
          '\ttt{\$fks\_mapping\_type}, \ttt{fks\_xi\_min}, \ttt{fks\_y\_max})'))
     call var_list%append_real (var_str ("fks_dij_exp2"), &
          1._default, intrinsic = .true., &
          description=var_str ('Fine-tuning parameters of the FKS ' // &
          'initial state partition functions. The exact meaning depends ' // &
          'on the mapping implementation. (cf. also \ttt{fks\_dij\_exp1}, ' // &
          '\ttt{\$fks\_mapping\_type}, \ttt{fks\_xi\_min}, \ttt{fks\_y\_max})'))
     call var_list%append_real (var_str ("fks_xi_min"), &
          0._default, intrinsic = .true., &
          description=var_str ('Real parameter for the FKS ' // &
          'phase space that sets the numerical lower value of the $\xi$ ' // &
          'variable. Valid for the value range $[\texttt{tiny\_07},1]$, where ' // &
          'value inputs out of bounds will take the value of the closest bound. ' // &
          'Here, $\texttt{tiny\_07} = \texttt{1E0\_default * epsilon (0.\_default)}$, where ' // &
          '\ttt{epsilon} is an intrinsic Fortran function. (cf. also \ttt{fks\_dij\_exp1}, ' // &
          '\ttt{fks\_dij\_exp2}, \ttt{\$fks\_mapping\_type}, \ttt{fks\_y\_max})'))
     call var_list%append_real (var_str ("fks_y_max"), &
          1._default, intrinsic = .true., &
          description=var_str ('Real parameter for the FKS ' // &
          'phase space that sets the numerical upper value of the $\left|y\right|$ ' // &
          'variable. Valid for ranges $[0,1]$, where value inputs out of bounds will take ' // &
          'the value of the closest bound. Only supported for massless FSR. ' // &
          '(cf. also \ttt{fks\_dij\_exp1}, \ttt{\$fks\_mapping\_type}, \ttt{fks\_dij\_exp2})'))
     call var_list%append_log (var_str ("?vis_fks_regions"), &
          .false., intrinsic = .true., &
          description=var_str ('Logical variable that, if set to ' // &
          '\ttt{true}, generates \LaTeX\ code and executes it into a PDF ' // &
          ' to produce a table of all singular FKS regions and their ' // &
          ' flavor structures. The default is \ttt{false}.'))
     call var_list%append_real (var_str ("fks_xi_cut"), &
          1.0_default, intrinsic = .true., &
          description = var_str ('(Experimental) Real parameter for the FKS ' // &
          'phase space that applies a cut to $\xi$ variable with $0 < \xi_{\text{cut}}' // &
          '\leq \xi_{\text{max}}$. The dependence on the parameter vanishes between ' // &
          'real subtraction and integrated subtraction term. Could thus be used for debugging. ' // &
          'This is not implemented properly, use at your own risk!'))
     call var_list%append_real (var_str ("fks_delta_o"), &
          2._default, intrinsic = .true., &
          description = var_str ('Real parameter for the FKS ' // &
          'phase space that applies a cut to the $y$ variable with $0 < \delta_o \leq 2$ ' // &
          'for final state singularities only. ' // &
          'The dependence on the parameter vanishes between real subtraction and integrated ' // &
          'subtraction term. For debugging purposes.'))
     call var_list%append_real (var_str ("fks_delta_i"), &
          2._default, intrinsic = .true., &
          description = var_str ('Real parameter for the FKS ' // &
          'phase space that applies a cut to the $y$ variable with ' // &
          '$0 < \delta_{\mathrm{I}} \leq 2$ '// &
          'for initial state singularities only. ' // &
          'The dependence on the parameter vanishes between real subtraction and integrated ' // &
          'subtraction term. For debugging purposes.'))
     call var_list%append_string (var_str ("$fks_mapping_type"), &
          var_str ("default"), intrinsic = .true., &
          description=var_str ('Sets the FKS mapping type. Possible values ' // &
          'are \ttt{"default"} and \ttt{"resonances"}. The latter option ' // &
          'activates the resonance-aware subtraction mode and induces the ' // &
          'generation of a soft mismatch component. (cf. also ' // &
          '\ttt{fks\_dij\_exp1}, \ttt{fks\_dij\_exp2}, \ttt{fks\_xi\_min}, ' // &
          '\ttt{fks\_y\_max})'))
     call var_list%append_string (var_str ("$resonances_exclude_particles"), &
          var_str ("default"), intrinsic = .true., &
          description=var_str ('Accepts a string of particle names. These ' // &
          'particles will be ignored when the resonance histories are generated. ' // &
          'If \ttt{\$fks\_mapping\_type} is not \ttt{"resonances"}, this ' // &
          'option does nothing.'))
     call var_list%append_int (var_str ("alpha_power"), &
          2, intrinsic = .true., &
          description=var_str ('Fixes the electroweak coupling ' // &
          'powers used by BLHA matrix element generators. Setting these ' // &
          'values is necessary for the correct generation of OLP-files. ' // &
          'Having inconsistent values yields to error messages by the corresponding ' // &
          'OLP-providers.'))
     call var_list%append_int (var_str ("alphas_power"), &
          0, intrinsic = .true., &
          description=var_str ('Fixes the strong coupling ' // &
          'powers used by BLHA matrix element generators. Setting these ' // &
          'values is necessary for the correct generation of OLP-files. ' // &
          'Having inconsistent values yields to error messages by the corresponding ' // &
          'OLP-providers.'))
     call var_list%append_log (var_str ("?combined_nlo_integration"), &
          .false., intrinsic = .true., &
          description=var_str ('When this option is set to \ttt{true}, ' // &
          'the NLO integration will not be performed in the separate components, ' // &
          'but instead the sum of all components will be integrated directly. ' // &
          'When fixed-order NLO events are requested, this integration ' // &
          'mode is possible, but not necessary.  However, it is necessary ' // &
          'for POWHEG events.'))
     call var_list%append_log (var_str ("?fixed_order_nlo_events"), &
          .false., intrinsic = .true., &
          description=var_str ('Induces the generation of fixed-order ' // &
          'NLO events.'))
     call var_list%append_log (var_str ("?check_event_weights_against_xsection"), &
          .false., intrinsic = .true., &
          description=var_str ('Activates an internal recording of event ' // &
          'weights when unweighted events are generated.  At the end of ' // &
          'the simulation, the mean value of the weights and its standard ' // &
          'deviation are displayed. This allows to cross-check event generation ' // &
          'and integration, because the value displayed must be equal to ' // &
          'the integration result.'))
     call var_list%append_log (var_str ("?keep_failed_events"), &
          .false., intrinsic = .true., &
          description=var_str ('In the context of weighted event generation, ' // &
          'if set to \ttt{true}, events with failed kinematics will be ' // &
          'written to the event output with an associated weight of zero. ' // &
          'This way, the total cross section can be reconstructed from the event output.'))
     call var_list%append_int (var_str ("gks_multiplicity"), &
          0, intrinsic = .true., &
          description=var_str ('Jet multiplicity for the GKS merging scheme.'))
     call var_list%append_string (var_str ("$gosam_filter_lo"), &
          var_str (""), intrinsic = .true., &
          description=var_str ('The filter string given to \gosam\ in order to ' // &
          'filter out tree-level diagrams. (cf. also \ttt{\$gosam\_filter\_nlo}, ' // &
          '\ttt{\$gosam\_symmetries})'))
     call var_list%append_string (var_str ("$gosam_filter_nlo"), &
          var_str (""), intrinsic = .true., &
          description=var_str ('The same as \ttt{\$gosam\_filter\_lo}, but for ' // &
          'loop matrix elements. (cf. also \ttt{\$gosam\_filter\_nlo}, ' // &
          '\ttt{\$gosam\_symmetries})'))
     call var_list%append_string (var_str ("$gosam_symmetries"), &
          var_str ("family,generation"), intrinsic = .true., &
          description=var_str ('String variable that is transferred to \gosam\ ' // &
          'configuration file to determine whether certain helicity configurations ' // &
          'are considered to be equal. Possible values are \ttt{flavour}, ' // &
          '\ttt{family} etc. For more info see the \gosam\ manual.'))
     call var_list%append_int (var_str ("form_threads"), &
          2, intrinsic = .true., &
          description=var_str ('The number of threads used by \gosam\ when ' // &
          'matrix elements are evaluated using \ttt{FORM}'))
     call var_list%append_int (var_str ("form_workspace"), &
          1000, intrinsic = .true., &
          description=var_str ('The size of the workspace \gosam\ requires ' // &
          'from \ttt{FORM}. Inside \ttt{FORM}, it corresponds to the heap ' // &
          'size used by the algebra processor.'))
     call var_list%append_string (var_str ("$gosam_fc"), &
          var_str (""), intrinsic = .true., &
          description=var_str ('The Fortran compiler used by \gosam.'))
     call var_list%append_real (&
          var_str ("mult_call_real"), 1._default, &
          intrinsic = .true., &
          description=var_str ('(Real-valued) multiplier for the number ' // &
          'of calls used in the integration of the real subtraction ' // &
          'NLO component. This way, a higher accuracy can be achieved for ' // &
          'the real component, while simultaneously avoiding redundant ' // &
          'integration calls for the other components. (cf. also ' // &
          '\ttt{mult\_call\_dglap}, \ttt{mult\_call\_virt})'))
     call var_list%append_real (&
          var_str ("mult_call_virt"), 1._default, &
          intrinsic = .true., &
          description=var_str ('(Real-valued) multiplier for the number ' // &
          'of calls used in the integration of the virtual NLO ' // &
          'component. This way, a higher accuracy can be achieved for ' // &
          'this component, while simultaneously avoiding redundant ' // &
          'integration calls for the other components. (cf. also ' // &
          '\ttt{mult\_call\_dglap}, \ttt{mult\_call\_real})'))
     call var_list%append_real (&
          var_str ("mult_call_dglap"), 1._default, &
          intrinsic = .true., &
          description=var_str ('(Real-valued) multiplier for the number ' // &
          'of calls used in the integration of the DGLAP remnant NLO ' // &
          'component. This way, a higher accuracy can be achieved for ' // &
          'this component, while simultaneously avoiding redundant ' // &
          'integration calls for the other components. (cf. also ' // &
          '\ttt{mult\_call\_real}, \ttt{mult\_call\_virt})'))
     call var_list%append_string (var_str ("$dalitz_plot"), &
          var_str (''), intrinsic = .true., &
          description=var_str ('This string variable has two purposes: ' // &
          'when different from the empty string, it switches on generation ' // &
          'of the Dalitz plot file (ASCII tables) for the real emitters. ' // &
          'The string variable itself provides the file name.'))
     call var_list%append_string (var_str ("$nlo_correction_type"), &
          var_str ("QCD"), intrinsic = .true., &
          description=var_str ('String variable which sets the NLO correction ' // &
          'type via \ttt{nlo\_correction\_type = "{\em <type>}"} to either ' // &
          '\ttt{"QCD"}, \ttt{"EW"}, or to all with \ttt{\em{<type>}} ' // &
          'set to \ttt{"Full"}. Must be set before the \texttt{process} statement.'))
     call var_list%append_string (var_str ("$exclude_gauge_splittings"), &
          var_str ("c:b:t:e2:e3"), intrinsic = .true., &
          description=var_str ('String variable that allows via ' // &
          '\ttt{\$exclude\_gauge\_splittings = "{\em <prt1>:<prt2>:\dots}"} ' // &
          'to exclude fermion flavors from gluon/photon splitting into ' // &
          'fermion pairs beyond LO. For example \ttt{\$exclude\_gauge\_splittings ' // &
          '= "c:s:b:t"} would lead to \ttt{gl => u U} and \ttt{gl => d ' // &
          'D} as possible splittings in QCD. It is important to keep in ' // &
          'mind that only the particles listed in the string are excluded! ' // &
          'In QED this string would additionally allow for all splittings into ' // &
          'lepton pairs \ttt{A => l L}. Therefore, once set the variable ' // &
          'acts as a replacement of the default value, not as an addition!  ' // &
          'Note: \ttt{"\em <prt>"} can be both particle or antiparticle. It ' // &
          'will always exclude the corresponding fermion pair. An empty ' // &
          'string allows for all fermion flavors to take part in the splitting! ' // &
          'Also, particles included in an \ttt{alias} are not excluded by ' // &
          '\ttt{\$exclude\_gauge\_splittings}!'))
     call var_list%append_log (var_str ("?nlo_use_born_scale"), &
          .false., intrinsic = .true., &
          description=var_str ('Flag that decides whether a scale expression ' // &
          'defined for the Born component of an NLO process shall be applied ' // &
          'to all other components as well or not. ' // &
          '(cf. also \ttt{?nlo\_cut\_all\_real\_sqmes})'))
     call var_list%append_log (var_str ("?nlo_cut_all_real_sqmes"), &
          .false., intrinsic = .true., &
          description=var_str ('Flag that decides whether in the case that ' // &
          'the real component does not pass a cut, its subtraction term ' // &
          'shall be discarded for that phase space point as well or not. ' // &
          '(cf. also \ttt{?nlo\_use\_born\_scale})'))
     call var_list%append_string (var_str ("$real_partition_mode"), var_str ("default"), &
          intrinsic=.true., &
          description=var_str ('String variable to choose which parts of the real cross ' // &
          'section are to be integrated. With the default value (\ttt{"default"}) ' // &
          'or \ttt{"off"} the real cross section is integrated as usual without partition. ' // &
          'If set to \ttt{"on"} or \ttt{"all"}, the real cross section is split into singular ' // &
          'and finite part using a partition function $F$, such that $\mathcal{R} ' // &
          '= [1-F(p_T^2)]\mathcal{R} + F(p_T^2)\mathcal{R} = \mathcal{R}_{\text{fin}} ' // &
          '+ \mathcal{R}_{\text{sing}}$. The emission generation is then performed ' // &
          'using $\mathcal{R}_{\text{sing}}$, whereas $\mathcal{R}_{\text{fin}}$ ' // &
          'is treated separately. If set to \ttt{"singular"} (\ttt{"finite"}), ' // &
          'only the singular (finite) real component is integrated.' // &
          '(cf. also \ttt{real\_partition\_scale})'))
     call var_list%append_real (var_str ("real_partition_scale"), &
          10._default, intrinsic = .true., &
          description=var_str ('This real variable sets the invariant mass ' // &
          'of the FKS pair used as a separator between the singular and the ' // &
          'finite part of the real subtraction terms in an NLO calculation, ' // &
          'e.g. in $e^+e^- \to t\bar tj$. (cf. also \ttt{\$real\_partition\_mode})'))
     call var_list%append_log (var_str ("?nlo_reuse_amplitudes_fks"), &
          .false., intrinsic = .true., &
          description=var_str ('Only compute real and virtual amplitudes for ' // &
          'subprocesses that give a different amplitude and reuse the result ' // &
          'for equivalent subprocesses. ' // &
          'Might give a speed-up for some processes. Might ' // &
          'break others, especially in cases where resonance histories are needed. ' // &
          'Experimental feature, use at your own risk!'))
   end subroutine var_list_set_nlo_defaults
 
 @ %def var_list_set_nlo_defaults
 @
 \clearpage
 %%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
 \section{Observables}
 
 In this module we define concrete variables and operators (observables)
 that we want to support in expressions.
 <<[[observables.f90]]>>=
 <<File header>>
 
 module observables
 
 <<Use kinds>>
 <<Use strings>>
   use subevents
   use variables
 
 <<Standard module head>>
 
 <<Observables: public>>
 
   interface
 <<Observables: sub interfaces>>
   end interface
 
 end module observables
 @ %def observables
 @
 <<[[observables_sub.f90]]>>=
 <<File header>>
 
 submodule (observables) observables_s
 
   use io_units
   use diagnostics
   use lorentz
 
   implicit none
 
 contains
 
 <<Observables: procedures>>
 
 end submodule observables_s
 
 @ %def observables_s
 @
 \subsection{Observables}
 These are analogous to the unary and binary numeric functions listed
 above.  An observable takes the [[pval]] component(s) of its one or
 two argument nodes and produces an integer or real value.
 
 \subsubsection{Integer-valued unary observables}
 The PDG code
 <<Observables: procedures>>=
   integer function obs_pdg1 (prt1) result (pdg)
     type(prt_t), intent(in) :: prt1
     pdg = prt_get_pdg (prt1)
   end function obs_pdg1
 
 @ %def obs_pdg
 @ The helicity.  The return value is meaningful only if the particle
 is polarized, otherwise an invalid value is returned (-9).
 <<Observables: procedures>>=
   integer function obs_helicity1 (prt1) result (h)
     type(prt_t), intent(in) :: prt1
     if (prt_is_polarized (prt1)) then
        h = prt_get_helicity (prt1)
     else
        h = -9
     end if
   end function obs_helicity1
 
 @ %def obs_helicity1
 @ The number of open color (anticolor) lines.  The return value is meaningful
 only if the particle is colorized (i.e., the subevent has been given color
 information), otherwise the function returns zero.
 <<Observables: procedures>>=
   integer function obs_n_col1 (prt1) result (n)
     type(prt_t), intent(in) :: prt1
     if (prt_is_colorized (prt1)) then
        n = prt_get_n_col (prt1)
     else
        n = 0
     end if
   end function obs_n_col1
 
   integer function obs_n_acl1 (prt1) result (n)
     type(prt_t), intent(in) :: prt1
     if (prt_is_colorized (prt1)) then
        n = prt_get_n_acl (prt1)
     else
        n = 0
     end if
   end function obs_n_acl1
 
 @ %def obs_n_col1
 @ %def obs_n_acl1
 @
 \subsubsection{Real-valued unary observables}
 The invariant mass squared, obtained from the separately stored value.
 <<Observables: procedures>>=
   real(default) function obs_mass_squared1 (prt1) result (p2)
     type(prt_t), intent(in) :: prt1
     p2 = prt_get_msq (prt1)
   end function obs_mass_squared1
 
 @ %def obs_mass_squared1
 @ The signed invariant mass, which is the signed square root of the
 previous observable.
 <<Observables: procedures>>=
   real(default) function obs_signed_mass1 (prt1) result (m)
     type(prt_t), intent(in) :: prt1
     real(default) :: msq
     msq = prt_get_msq (prt1)
     m = sign (sqrt (abs (msq)), msq)
   end function obs_signed_mass1
 
 @ %def obs_signed_mass1
 @ The particle energy
 <<Observables: procedures>>=
   real(default) function obs_energy1 (prt1) result (e)
     type(prt_t), intent(in) :: prt1
     e = energy (prt_get_momentum (prt1))
   end function obs_energy1
 
 @ %def obs_energy1
 @ Particle momentum (components)
 <<Observables: procedures>>=
   real(default) function obs_px1 (prt1) result (p)
     type(prt_t), intent(in) :: prt1
     p = vector4_get_component (prt_get_momentum (prt1), 1)
   end function obs_px1
 
   real(default) function obs_py1 (prt1) result (p)
     type(prt_t), intent(in) :: prt1
     p = vector4_get_component (prt_get_momentum (prt1), 2)
   end function obs_py1
 
   real(default) function obs_pz1 (prt1) result (p)
     type(prt_t), intent(in) :: prt1
     p = vector4_get_component (prt_get_momentum (prt1), 3)
   end function obs_pz1
 
   real(default) function obs_p1 (prt1) result (p)
     type(prt_t), intent(in) :: prt1
     p = space_part_norm (prt_get_momentum (prt1))
   end function obs_p1
 
   real(default) function obs_pl1 (prt1) result (p)
     type(prt_t), intent(in) :: prt1
     p = longitudinal_part (prt_get_momentum (prt1))
   end function obs_pl1
 
   real(default) function obs_pt1 (prt1) result (p)
     type(prt_t), intent(in) :: prt1
     p = transverse_part (prt_get_momentum (prt1))
   end function obs_pt1
 
 @ %def obs_px1 obs_py1 obs_pz1
 @ %def obs_p1 obs_pl1 obs_pt1
 @ Polar and azimuthal angle (lab frame).
 <<Observables: procedures>>=
   real(default) function obs_theta1 (prt1) result (p)
     type(prt_t), intent(in) :: prt1
     p = polar_angle (prt_get_momentum (prt1))
   end function obs_theta1
 
   real(default) function obs_phi1 (prt1) result (p)
     type(prt_t), intent(in) :: prt1
     p = azimuthal_angle (prt_get_momentum (prt1))
   end function obs_phi1
 
 @ %def obs_theta1 obs_phi1
 @ Rapidity and pseudorapidity
 <<Observables: procedures>>=
   real(default) function obs_rap1 (prt1) result (p)
     type(prt_t), intent(in) :: prt1
     p = rapidity (prt_get_momentum (prt1))
   end function obs_rap1
 
   real(default) function obs_eta1 (prt1) result (p)
     type(prt_t), intent(in) :: prt1
     p = pseudorapidity (prt_get_momentum (prt1))
   end function obs_eta1
 
 @ %def obs_rap1 obs_eta1
 @ Meaningless: Polar angle in the rest frame of the two arguments
 combined.
 <<Observables: procedures>>=
   real(default) function obs_theta_star1 (prt1) result (dist)
     type(prt_t), intent(in) :: prt1
     call msg_fatal (" 'Theta_star' is undefined as unary observable")
     dist = 0
   end function obs_theta_star1
 
 @ %def obs_theta_star1
 @ [Obsolete] Meaningless: Polar angle in the rest frame of the 2nd argument.
 <<XXX Observables: procedures>>=
   real(default) function obs_theta_rf1 (prt1) result (dist)
     type(prt_t), intent(in) :: prt1
     call msg_fatal (" 'Theta_RF' is undefined as unary observable")
     dist = 0
   end function obs_theta_rf1
 
 @ %def obs_theta_rf1
 @ Meaningless: Distance on the $\eta$-$\phi$ cylinder.
 <<Observables: procedures>>=
   real(default) function obs_dist1 (prt1) result (dist)
     type(prt_t), intent(in) :: prt1
     call msg_fatal (" 'Dist' is undefined as unary observable")
     dist = 0
   end function obs_dist1
 
 @ %def obs_dist1
 @
 \subsubsection{Integer-valued binary observables}
 These observables are meaningless as binary functions.
 <<Observables: procedures>>=
   integer function obs_pdg2 (prt1, prt2) result (pdg)
     type(prt_t), intent(in) :: prt1, prt2
     call msg_fatal (" PDG_Code is undefined as binary observable")
     pdg = 0
   end function obs_pdg2
 
   integer function obs_helicity2 (prt1, prt2) result (h)
     type(prt_t), intent(in) :: prt1, prt2
     call msg_fatal (" Helicity is undefined as binary observable")
     h = 0
   end function obs_helicity2
 
   integer function obs_n_col2 (prt1, prt2) result (n)
     type(prt_t), intent(in) :: prt1, prt2
     call msg_fatal (" Ncol is undefined as binary observable")
     n = 0
   end function obs_n_col2
 
   integer function obs_n_acl2 (prt1, prt2) result (n)
     type(prt_t), intent(in) :: prt1, prt2
     call msg_fatal (" Nacl is undefined as binary observable")
     n = 0
   end function obs_n_acl2
 
 @ %def obs_pdg2
 @ %def obs_helicity2
 @ %def obs_n_col2
 @ %def obs_n_acl2
 @
 \subsubsection{Real-valued binary observables}
 The invariant mass squared, obtained from the separately stored value.
 <<Observables: procedures>>=
   real(default) function obs_mass_squared2 (prt1, prt2) result (p2)
     type(prt_t), intent(in) :: prt1, prt2
     type(prt_t) :: prt
     call prt_init_combine (prt, prt1, prt2)
     p2 = prt_get_msq (prt)
   end function obs_mass_squared2
 
 @ %def obs_mass_squared2
 @ The signed invariant mass, which is the signed square root of the
 previous observable.
 <<Observables: procedures>>=
   real(default) function obs_signed_mass2 (prt1, prt2) result (m)
     type(prt_t), intent(in) :: prt1, prt2
     type(prt_t) :: prt
     real(default) :: msq
     call prt_init_combine (prt, prt1, prt2)
     msq = prt_get_msq (prt)
     m = sign (sqrt (abs (msq)), msq)
   end function obs_signed_mass2
 
 @ %def obs_signed_mass2
 @ The particle energy
 <<Observables: procedures>>=
   real(default) function obs_energy2 (prt1, prt2) result (e)
     type(prt_t), intent(in) :: prt1, prt2
     type(prt_t) :: prt
     call prt_init_combine (prt, prt1, prt2)
     e = energy (prt_get_momentum (prt))
   end function obs_energy2
 
 @ %def obs_energy2
 @ Particle momentum (components)
 <<Observables: procedures>>=
   real(default) function obs_px2 (prt1, prt2) result (p)
     type(prt_t), intent(in) :: prt1, prt2
     type(prt_t) :: prt
     call prt_init_combine (prt, prt1, prt2)
     p = vector4_get_component (prt_get_momentum (prt), 1)
   end function obs_px2
 
   real(default) function obs_py2 (prt1, prt2) result (p)
     type(prt_t), intent(in) :: prt1, prt2
     type(prt_t) :: prt
     call prt_init_combine (prt, prt1, prt2)
     p = vector4_get_component (prt_get_momentum (prt), 2)
   end function obs_py2
 
   real(default) function obs_pz2 (prt1, prt2) result (p)
     type(prt_t), intent(in) :: prt1, prt2
     type(prt_t) :: prt
     call prt_init_combine (prt, prt1, prt2)
     p = vector4_get_component (prt_get_momentum (prt), 3)
   end function obs_pz2
 
   real(default) function obs_p2 (prt1, prt2) result (p)
     type(prt_t), intent(in) :: prt1, prt2
     type(prt_t) :: prt
     call prt_init_combine (prt, prt1, prt2)
     p = space_part_norm (prt_get_momentum (prt))
   end function obs_p2
 
   real(default) function obs_pl2 (prt1, prt2) result (p)
     type(prt_t), intent(in) :: prt1, prt2
     type(prt_t) :: prt
     call prt_init_combine (prt, prt1, prt2)
     p = longitudinal_part (prt_get_momentum (prt))
   end function obs_pl2
 
   real(default) function obs_pt2 (prt1, prt2) result (p)
     type(prt_t), intent(in) :: prt1, prt2
     type(prt_t) :: prt
     call prt_init_combine (prt, prt1, prt2)
     p = transverse_part (prt_get_momentum (prt))
   end function obs_pt2
 
 @ %def obs_px2 obs_py2 obs_pz2
 @ %def obs_p2 obs_pl2 obs_pt2
 @ Enclosed angle and azimuthal distance (lab frame).
 <<Observables: procedures>>=
   real(default) function obs_theta2 (prt1, prt2) result (p)
     type(prt_t), intent(in) :: prt1, prt2
     p = enclosed_angle (prt_get_momentum (prt1), prt_get_momentum (prt2))
   end function obs_theta2
 
   real(default) function obs_phi2 (prt1, prt2) result (p)
     type(prt_t), intent(in) :: prt1, prt2
     type(prt_t) :: prt
     call prt_init_combine (prt, prt1, prt2)
     p = azimuthal_distance (prt_get_momentum (prt1), prt_get_momentum (prt2))
   end function obs_phi2
 
 @ %def obs_theta2 obs_phi2
 @ Rapidity and pseudorapidity distance
 <<Observables: procedures>>=
   real(default) function obs_rap2 (prt1, prt2) result (p)
     type(prt_t), intent(in) :: prt1, prt2
     p = rapidity_distance &
          (prt_get_momentum (prt1), prt_get_momentum (prt2))
   end function obs_rap2
 
   real(default) function obs_eta2 (prt1, prt2) result (p)
     type(prt_t), intent(in) :: prt1, prt2
     type(prt_t) :: prt
     call prt_init_combine (prt, prt1, prt2)
     p = pseudorapidity_distance &
          (prt_get_momentum (prt1), prt_get_momentum (prt2))
   end function obs_eta2
 
 @ %def obs_rap2 obs_eta2
 @ [This doesn't work!  The principle of no common particle for momentum
   combination prohibits us from combining a decay particle with the momentum
   of its parent.] Polar angle in the rest frame of the 2nd argument.
 <<XXX Observables: procedures>>=
   real(default) function obs_theta_rf2 (prt1, prt2) result (theta)
     type(prt_t), intent(in) :: prt1, prt2
     theta = enclosed_angle_rest_frame &
          (prt_get_momentum (prt1), prt_get_momentum (prt2))
   end function obs_theta_rf2
 
 @ %def obs_theta_rf2
 @ Polar angle of the first particle in the rest frame of the two particles
 combined.
 <<Observables: procedures>>=
   real(default) function obs_theta_star2 (prt1, prt2) result (theta)
     type(prt_t), intent(in) :: prt1, prt2
     theta = enclosed_angle_rest_frame &
          (prt_get_momentum (prt1), &
          prt_get_momentum (prt1) + prt_get_momentum (prt2))
   end function obs_theta_star2
 
 @ %def obs_theta_star2
 @ Distance on the $\eta$-$\phi$ cylinder.
 <<Observables: procedures>>=
   real(default) function obs_dist2 (prt1, prt2) result (dist)
     type(prt_t), intent(in) :: prt1, prt2
     dist = eta_phi_distance &
          (prt_get_momentum (prt1), prt_get_momentum (prt2))
   end function obs_dist2
 
 @ %def obs_dist2
 @ Durham kT measure.
 <<Observables: procedures>>=
   real(default) function obs_ktmeasure (prt1, prt2) result (kt)
     type(prt_t), intent(in) :: prt1, prt2
     real (default) :: q2, e1, e2
     ! Normalized scale to one for now! (#67)
     q2 = 1
     e1 = energy (prt_get_momentum (prt1))
     e2 = energy (prt_get_momentum (prt2))
     kt = (2/q2) * min(e1**2,e2**2) *  &
          (1 - enclosed_angle_ct(prt_get_momentum (prt1), &
          prt_get_momentum (prt2)))
   end function obs_ktmeasure
 
 @ %def obs_ktmeasure
 @ Subeventary observables, e.g. the transverse mass $H_T$.
 <<Observables: procedures>>=
   real(default) function obs_ht (sev) result (ht)
     type(subevt_t), intent(in) :: sev
     integer :: i, n
     type(prt_t) :: prt
     n = sev%get_length ()
     ht = 0
     do i = 1, n
        prt = sev%get_prt (i)
        ht = ht + &
             sqrt (obs_pt1(prt)**2 + obs_mass_squared1(prt))
     end do
   end function obs_ht
 
 @ %def obs_ht
 \subsection{Process-specific variables}
 We allow the user to set a numeric process ID for each declared process.
 <<Observables: public>>=
   public :: var_list_init_num_id
 <<Observables: sub interfaces>>=
     module subroutine var_list_init_num_id (var_list, proc_id, num_id)
       type(var_list_t), intent(inout) :: var_list
       type(string_t), intent(in) :: proc_id
       integer, intent(in), optional :: num_id
     end subroutine var_list_init_num_id
 <<Observables: procedures>>=
   module subroutine var_list_init_num_id (var_list, proc_id, num_id)
     type(var_list_t), intent(inout) :: var_list
     type(string_t), intent(in) :: proc_id
     integer, intent(in), optional :: num_id
     call var_list%set_procvar_int (proc_id, var_str ("num_id"), num_id)
   end subroutine var_list_init_num_id
 
 @ %def var_list_init_num_id
 @
 Integration results are stored in special variables.  They are
 initialized by this subroutine.  The values may or may not already
 known.
 
 Note: the values which are accessible are those that are unique for a
 process with multiple MCI records. The rest has been discarded.
 <<Observables: public>>=
   public :: var_list_init_process_results
 <<Observables: sub interfaces>>=
     module subroutine var_list_init_process_results (var_list, proc_id, &
          n_calls, integral, error, accuracy, chi2, efficiency)
       type(var_list_t), intent(inout) :: var_list
       type(string_t), intent(in) :: proc_id
       integer, intent(in), optional :: n_calls
       real(default), intent(in), optional :: integral, error, accuracy
       real(default), intent(in), optional :: chi2, efficiency
     end subroutine var_list_init_process_results
 <<Observables: procedures>>=
   module subroutine var_list_init_process_results (var_list, proc_id, &
        n_calls, integral, error, accuracy, chi2, efficiency)
     type(var_list_t), intent(inout) :: var_list
     type(string_t), intent(in) :: proc_id
     integer, intent(in), optional :: n_calls
     real(default), intent(in), optional :: integral, error, accuracy
     real(default), intent(in), optional :: chi2, efficiency
     call var_list%set_procvar_real (proc_id, var_str ("integral"), integral)
     call var_list%set_procvar_real (proc_id, var_str ("error"), error)
   end subroutine var_list_init_process_results
 
 @ %def var_list_init_process_results
 @
 \subsection{Observables as Pseudo-Variables}
 Unary and binary observables are different.  Most unary observables
 can be equally well evaluated for particle pairs.  Binary observables
 cannot be evaluated for single particles.
 <<Observables: public>>=
   public :: var_list_set_observables_unary
   public :: var_list_set_observables_binary
   public :: var_list_set_observables_sev
 <<Observables: sub interfaces>>=
     module subroutine var_list_set_observables_unary (var_list, prt1)
       type(var_list_t), intent(inout) :: var_list
       type(prt_t), intent(in), target :: prt1
     end subroutine var_list_set_observables_unary
     module subroutine var_list_set_observables_binary (var_list, prt1, prt2)
       type(var_list_t), intent(inout) :: var_list
       type(prt_t), intent(in), target :: prt1
       type(prt_t), intent(in), optional, target :: prt2
     end subroutine var_list_set_observables_binary
     module subroutine var_list_set_observables_sev (var_list, pval)
       type(var_list_t), intent(inout) :: var_list
       type(subevt_t), intent(in), target:: pval
     end subroutine var_list_set_observables_sev
 <<Observables: procedures>>=
   module subroutine var_list_set_observables_unary (var_list, prt1)
     type(var_list_t), intent(inout) :: var_list
     type(prt_t), intent(in), target :: prt1
     call var_list%append_obs1_iptr (var_str ("PDG"), obs_pdg1, prt1)
     call var_list%append_obs1_iptr (var_str ("Hel"), obs_helicity1, prt1)
     call var_list%append_obs1_iptr (var_str ("Ncol"), obs_n_col1, prt1)
     call var_list%append_obs1_iptr (var_str ("Nacl"), obs_n_acl1, prt1)
     call var_list%append_obs1_rptr &
          (var_str ("M"), obs_signed_mass1, prt1)
     call var_list%append_obs1_rptr &
          (var_str ("M2"), obs_mass_squared1, prt1)
     call var_list%append_obs1_rptr (var_str ("E"), obs_energy1, prt1)
     call var_list%append_obs1_rptr (var_str ("Px"), obs_px1, prt1)
     call var_list%append_obs1_rptr (var_str ("Py"), obs_py1, prt1)
     call var_list%append_obs1_rptr (var_str ("Pz"), obs_pz1, prt1)
     call var_list%append_obs1_rptr (var_str ("P"), obs_p1, prt1)
     call var_list%append_obs1_rptr (var_str ("Pl"), obs_pl1, prt1)
     call var_list%append_obs1_rptr (var_str ("Pt"), obs_pt1, prt1)
     call var_list%append_obs1_rptr (var_str ("Theta"), obs_theta1, prt1)
     call var_list%append_obs1_rptr (var_str ("Phi"), obs_phi1, prt1)
     call var_list%append_obs1_rptr (var_str ("Rap"), obs_rap1, prt1)
     call var_list%append_obs1_rptr (var_str ("Eta"), obs_eta1, prt1)
     call var_list%append_obs1_rptr &
          (var_str ("Theta_star"), obs_theta_star1, prt1)
     call var_list%append_obs1_rptr (var_str ("Dist"), obs_dist1, prt1)
     call var_list%append_uobs_real (var_str ("_User_obs_real"), prt1)
     call var_list%append_uobs_int (var_str ("_User_obs_int"), prt1)
   end subroutine var_list_set_observables_unary
 
   module subroutine var_list_set_observables_binary (var_list, prt1, prt2)
     type(var_list_t), intent(inout) :: var_list
     type(prt_t), intent(in), target :: prt1
     type(prt_t), intent(in), optional, target :: prt2
     call var_list%append_obs2_iptr (var_str ("PDG"), obs_pdg2, prt1, prt2)
     call var_list%append_obs2_iptr (var_str ("Hel"), obs_helicity2, prt1, prt2)
     call var_list%append_obs2_iptr (var_str ("Ncol"), obs_n_col2, prt1, prt2)
     call var_list%append_obs2_iptr (var_str ("Nacl"), obs_n_acl2, prt1, prt2)
     call var_list%append_obs2_rptr (var_str ("M"), obs_signed_mass2, prt1, prt2)
     call var_list%append_obs2_rptr &
          (var_str ("M2"), obs_mass_squared2, prt1, prt2)
     call var_list%append_obs2_rptr (var_str ("E"), obs_energy2, prt1, prt2)
     call var_list%append_obs2_rptr (var_str ("Px"), obs_px2, prt1, prt2)
     call var_list%append_obs2_rptr (var_str ("Py"), obs_py2, prt1, prt2)
     call var_list%append_obs2_rptr (var_str ("Pz"), obs_pz2, prt1, prt2)
     call var_list%append_obs2_rptr (var_str ("P"), obs_p2, prt1, prt2)
     call var_list%append_obs2_rptr (var_str ("Pl"), obs_pl2, prt1, prt2)
     call var_list%append_obs2_rptr (var_str ("Pt"), obs_pt2, prt1, prt2)
     call var_list%append_obs2_rptr (var_str ("Theta"), obs_theta2, prt1, prt2)
     call var_list%append_obs2_rptr (var_str ("Phi"), obs_phi2, prt1, prt2)
     call var_list%append_obs2_rptr (var_str ("Rap"), obs_rap2, prt1, prt2)
     call var_list%append_obs2_rptr (var_str ("Eta"), obs_eta2, prt1, prt2)
     call var_list%append_obs2_rptr &
          (var_str ("Theta_star"), obs_theta_star2, prt1, prt2)
     call var_list%append_obs2_rptr (var_str ("Dist"), obs_dist2, prt1, prt2)
     call var_list%append_obs2_rptr (var_str ("kT"), obs_ktmeasure, prt1, prt2)
     call var_list%append_uobs_real (var_str ("_User_obs_real"), prt1, prt2)
     call var_list%append_uobs_int (var_str ("_User_obs_int"), prt1, prt2)
   end subroutine var_list_set_observables_binary
 
   module subroutine var_list_set_observables_sev (var_list, pval)
     type(var_list_t), intent(inout) :: var_list
     type(subevt_t), intent(in), target:: pval
     call var_list%append_obsev_rptr (var_str ("Ht"), obs_ht, pval)
   end subroutine var_list_set_observables_sev
 
 @ %def var_list_set_observables_unary var_list_set_observables_binary
 @ %def var_list_set_observables_nary
 \subsection{Checks}
 <<Observables: public>>=
   public :: var_list_check_observable
 <<Observables: sub interfaces>>=
     module subroutine var_list_check_observable (var_list, name, type)
       class(var_list_t), intent(in), target :: var_list
       type(string_t), intent(in) :: name
       integer, intent(inout) :: type
     end subroutine var_list_check_observable
 <<Observables: procedures>>=
   module subroutine var_list_check_observable (var_list, name, type)
     class(var_list_t), intent(in), target :: var_list
     type(string_t), intent(in) :: name
     integer, intent(inout) :: type
     if (string_is_observable_id (name)) then
        call msg_fatal ("Variable name '" // char (name) &
             // "' is reserved for an observable")
        type = V_NONE
        return
     end if
   end subroutine var_list_check_observable
 
 @ %def var_list_check_observable
 @
 Check if a variable name is defined as an observable:
 <<Observables: procedures>>=
   function string_is_observable_id (string) result (flag)
     logical :: flag
     type(string_t), intent(in) :: string
     select case (char (string))
     case ("PDG", "Hel", "Ncol", "Nacl", &
          "M", "M2", "E", "Px", "Py", "Pz", "P", "Pl", "Pt", &
          "Theta", "Phi", "Rap", "Eta", "Theta_star", "Dist", "kT", &
          "Ht")
        flag = .true.
     case default
        flag = .false.
     end select
   end function string_is_observable_id
 
 @ %def string_is_observable_id
 @ Check for result and process variables.
 <<Observables: public>>=
   public :: var_list_check_result_var
 <<Observables: sub interfaces>>=
     module subroutine var_list_check_result_var (var_list, name, type)
       class(var_list_t), intent(in), target :: var_list
       type(string_t), intent(in) :: name
       integer, intent(inout) :: type
     end subroutine var_list_check_result_var
 <<Observables: procedures>>=
   module subroutine var_list_check_result_var (var_list, name, type)
     class(var_list_t), intent(in), target :: var_list
     type(string_t), intent(in) :: name
     integer, intent(inout) :: type
     if (string_is_integer_result_var (name))  type = V_INT
     if (.not. var_list%contains (name)) then
        if (string_is_result_var (name)) then
           call msg_fatal ("Result variable '" // char (name) // "' " &
                // "set without prior integration")
           type = V_NONE
           return
        else if (string_is_num_id (name)) then
           call msg_fatal ("Numeric process ID '" // char (name) // "' " &
                // "set without process declaration")
           type = V_NONE
           return
        end if
     end if
   end subroutine var_list_check_result_var
 
 @ %def var_list_check_result_var
 @
 Check if a variable name is a result variable of integer type:
 <<Observables: procedures>>=
   function string_is_integer_result_var (string) result (flag)
     logical :: flag
     type(string_t), intent(in) :: string
     type(string_t) :: buffer, name, separator
     buffer = string
     call split (buffer, name, "(", separator=separator)  ! ")"
     if (separator == "(") then
        select case (char (name))
        case ("num_id", "n_calls")
           flag = .true.
        case default
           flag = .false.
        end select
     else
        flag = .false.
     end if
   end function string_is_integer_result_var
 
 @ %def string_is_integer_result_var
 @
 Check if a variable name is an integration-result variable:
 <<Observables: procedures>>=
   function string_is_result_var (string) result (flag)
     logical :: flag
     type(string_t), intent(in) :: string
     type(string_t) :: buffer, name, separator
     buffer = string
     call split (buffer, name, "(", separator=separator)  ! ")"
     if (separator == "(") then
        select case (char (name))
        case ("integral", "error")
           flag = .true.
        case default
           flag = .false.
        end select
     else
        flag = .false.
     end if
   end function string_is_result_var
 
 @ %def string_is_result_var
 @
 Check if a variable name is a numeric process ID:
 <<Observables: procedures>>=
   function string_is_num_id (string) result (flag)
     logical :: flag
     type(string_t), intent(in) :: string
     type(string_t) :: buffer, name, separator
     buffer = string
     call split (buffer, name, "(", separator=separator)  ! ")"
     if (separator == "(") then
        select case (char (name))
        case ("num_id")
           flag = .true.
        case default
           flag = .false.
        end select
     else
        flag = .false.
     end if
   end function string_is_num_id
 
 @ %def string_is_num_id
 @
Index: trunk/src/process_integration/process_integration.nw
===================================================================
--- trunk/src/process_integration/process_integration.nw	(revision 8818)
+++ trunk/src/process_integration/process_integration.nw	(revision 8819)
@@ -1,23889 +1,23892 @@
 % -*- ess-noweb-default-code-mode: f90-mode; noweb-default-code-mode: f90-mode; -*-
 % WHIZARD code as NOWEB source: integration and process objects and such
 %%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
 \chapter{Integration and Process Objects}
 \includemodulegraph{process_integration}
 
 This is the central part of the \whizard\ package.  It provides the
 functionality for evaluating structure functions, kinematics and matrix
 elements, integration and event generation.  It combines the various
 parts that deal with those tasks individually and organizes the data
 transfer between them.
 
 \begin{description}
 \item[subevt\_expr]
   This enables process observables as (abstract) expressions, to be
   evaluated for each process call.
 \item[parton\_states]
   A [[parton_state_t]] object represents an elementary partonic
   interaction.  There are two versions: one for the isolated
   elementary process, one for the elementary process convoluted with
   the structure-function chain.  The parton state is an effective
   state.  It needs not coincide with the seed-kinematics state which is
   used in evaluating phase space.
 \item[process]
   Here, all pieces are combined for the purpose of evaluating the
   elementary processes.  The whole algorithm is coded in terms of
   abstract data types as defined in the appropriate modules: [[prc_core]]
   for matrix-element evaluation, [[prc_core_def]] for the associated
   configuration and driver, [[sf_base]] for beams and structure-functions,
   [[phs_base]] for phase space, and [[mci_base]] for integration and event
   generation.
 \item[process\_config]
 \item[process\_counter]
   Very simple object for statistics
 \item[process\_mci]
 \item[pcm]
 \item[kinematics]
 \item[instances]
   While the above modules set up all static information, the instances
   have the changing event data. There are term and process instances but
   no component instances.
 \item[process\_stacks]
   Process stacks collect process objects.
 \end{description}
 
 We combine here hard interactions, phase space, and (for scatterings)
 structure functions and interfaces them to the integration module.
 
 The process object implements the combination of a fixed beam and
 structure-function setup with a number of elementary processes.  The
 latter are called process components.  The process object
 represents an entity which is supposedly observable.  It should
 be meaningful to talk about the cross section of a process.
 
 The individual components of a process are, technically, processes
 themselves, but they may have unphysical cross sections which have to
 be added for a physical result.  Process components may be exclusive
 tree-level elementary processes, dipole subtraction term, loop
 corrections, etc.
 
 The beam and structure function setup is common to all process
 components.  Thus, there is only one instance of this part.
 
 The process may be a scattering process or a decay process.  In the
 latter case, there are no structure functions, and the beam setup
 consists of a single particle.  Otherwise, the two classes are treated
 on the same footing.
 
 Once a sampling point has been chosen, a process determines a set of
 partons with a correlated density matrix of quantum numbers.  In
 general, each sampling point will generate, for each process component,
 one or more distinct parton configurations.  This is the [[computed]]
 state.  The computed state is the subject of the multi-channel
 integration algorithm.
 
 For NLO computations, it is necessary to project the computed states
 onto another set of parton configurations (e.g., by recombining
 certain pairs).  This is the [[observed]] state.  When computing
 partonic observables, the information is taken from the observed
 state.
 
 For the purpose of event generation, we will later select one parton
 configuration from the observed state and collapse the correlated
 quantum state.  This configuration is then dressed by applying parton
 shower, decays and hadronization.  The decay chain, in particular,
 combines a scattering process with possible subsequent decay processes
 on the parton level, which are full-fledged process objects themselves.
 
 %%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
 \section{Process observables}
 We define an abstract [[subevt_expr_t]] object as an extension of the
 [[subevt_t]] type.  The object contains a local variable list, variable
 instances (as targets for pointers in the variable list), and evaluation
 trees.  The evaluation trees reference both the variables and the [[subevt]].
 
 There are two instances of the abstract type: one for process instances, one
 for physical events.  Both have a common logical expression [[selection]]
 which determines whether the object passes user-defined cuts.
 
 The intention is that we fill the [[subevt_t]] base object and compute the
 variables once we have evaluated a kinematical phase space point (or a
 complete event).  We then evaluate the expressions and can use the results in
 further calculations.
 
 The [[process_expr_t]] extension contains furthermore scale and weight
 expressions.  The [[event_expr_t]] extension contains a reweighting-factor
 expression and a logical expression for event analysis.  In practice, we will
 link the variable list of the [[event_obs]] object to the variable list of the
 currently active [[process_obs]] object, such that the process variables are
 available to both objects.  Event variables are meaningful only for physical
 events.
 
 Note that there are unit tests, but they are deferred to the
 [[expr_tests]] module.
 <<[[subevt_expr.f90]]>>=
 <<File header>>
 module subevt_expr
 
 <<Use kinds>>
 <<Use strings>>
   use lorentz
   use subevents
   use variables
   use flavors
   use quantum_numbers
   use interactions
   use particles
   use expr_base
 
 <<Standard module head>>
 
 <<Subevt expr: public>>
 
 <<Subevt expr: types>>
 
 <<Subevt expr: interfaces>>
 
   interface
 <<Subevt expr: sub interfaces>>
   end interface
 
 end module subevt_expr
 @ %def subevt_expr
 @
 <<[[subevt_expr_sub.f90]]>>=
 <<File header>>
 
 submodule (subevt_expr) subevt_expr_s
 
   use constants, only: zero, one
   use io_units
   use format_utils, only: write_separator
   use diagnostics
 
   implicit none
 
 contains
 
 <<Subevt expr: procedures>>
 
 end submodule subevt_expr_s
 
 @ %def subevt_expr_s
 @
 \subsection{Abstract base type}
 <<Subevt expr: types>>=
   type, extends (subevt_t), abstract :: subevt_expr_t
      logical :: subevt_filled = .false.
      type(var_list_t) :: var_list
      real(default) :: sqrts_hat = 0
      integer :: n_in = 0
      integer :: n_out = 0
      integer :: n_tot = 0
      logical :: has_selection = .false.
      class(expr_t), allocatable :: selection
      logical :: colorize_subevt = .false.
    contains
    <<Subevt expr: subevt expr: TBP>>
   end type subevt_expr_t
 
 @ %def subevt_expr_t
 @ Output: Base and extended version.  We already have a [[write]] routine for
 the [[subevt_t]] parent type.
 <<Subevt expr: subevt expr: TBP>>=
   procedure :: base_write => subevt_expr_write
 <<Subevt expr: sub interfaces>>=
     module subroutine subevt_expr_write (object, unit, pacified)
       class(subevt_expr_t), intent(in) :: object
       integer, intent(in), optional :: unit
       logical, intent(in), optional :: pacified
     end subroutine subevt_expr_write
 <<Subevt expr: procedures>>=
   module subroutine subevt_expr_write (object, unit, pacified)
     class(subevt_expr_t), intent(in) :: object
     integer, intent(in), optional :: unit
     logical, intent(in), optional :: pacified
     integer :: u
     u = given_output_unit (unit)
     write (u, "(1x,A)")  "Local variables:"
     call write_separator (u)
     call object%var_list%write (u, follow_link=.false., &
          pacified = pacified)
     call write_separator (u)
     if (object%subevt_filled) then
        call object%subevt_t%write (u, pacified = pacified)
        if (object%has_selection) then
           call write_separator (u)
           write (u, "(1x,A)")  "Selection expression:"
           call write_separator (u)
           call object%selection%write (u)
        end if
     else
        write (u, "(1x,A)")  "subevt: [undefined]"
     end if
   end subroutine subevt_expr_write
 
 @ %def subevt_expr_write
 @ Finalizer.
 <<Subevt expr: subevt expr: TBP>>=
   procedure (subevt_expr_final), deferred :: final
   procedure :: base_final => subevt_expr_final
 <<Subevt expr: sub interfaces>>=
     module subroutine subevt_expr_final (object)
       class(subevt_expr_t), intent(inout) :: object
     end subroutine subevt_expr_final
 <<Subevt expr: procedures>>=
   module subroutine subevt_expr_final (object)
     class(subevt_expr_t), intent(inout) :: object
     call object%var_list%final ()
     if (object%has_selection) then
        call object%selection%final ()
     end if
   end subroutine subevt_expr_final
 
 @ %def subevt_expr_final
 @
 \subsection{Initialization}
 Initialization: define local variables and establish pointers.
 
 The common variables are [[sqrts]] (the nominal beam energy, fixed),
 [[sqrts_hat]] (the actual energy), [[n_in]], [[n_out]], and [[n_tot]] for
 the [[subevt]].  With the exception of [[sqrts]], all are implemented as
 pointers to subobjects.
 <<Subevt expr: subevt expr: TBP>>=
   procedure (subevt_expr_setup_vars), deferred :: setup_vars
   procedure :: base_setup_vars => subevt_expr_setup_vars
 <<Subevt expr: sub interfaces>>=
     module subroutine subevt_expr_setup_vars (expr, sqrts)
       class(subevt_expr_t), intent(inout), target :: expr
       real(default), intent(in) :: sqrts
     end subroutine subevt_expr_setup_vars
 <<Subevt expr: procedures>>=
   module subroutine subevt_expr_setup_vars (expr, sqrts)
     class(subevt_expr_t), intent(inout), target :: expr
     real(default), intent(in) :: sqrts
     call expr%var_list%final ()
     call expr%var_list%append_real (var_str ("sqrts"), sqrts, &
          locked = .true., verbose = .false., intrinsic = .true.)
     call expr%var_list%append_real_ptr (var_str ("sqrts_hat"), &
          expr%sqrts_hat, is_known = expr%subevt_filled, &
          locked = .true., verbose = .false., intrinsic = .true.)
     call expr%var_list%append_int_ptr (var_str ("n_in"), expr%n_in, &
          is_known = expr%subevt_filled, &
          locked = .true., verbose = .false., intrinsic = .true.)
     call expr%var_list%append_int_ptr (var_str ("n_out"), expr%n_out, &
          is_known = expr%subevt_filled, &
          locked = .true., verbose = .false., intrinsic = .true.)
     call expr%var_list%append_int_ptr (var_str ("n_tot"), expr%n_tot, &
          is_known = expr%subevt_filled, &
          locked = .true., verbose = .false., intrinsic = .true.)
   end subroutine subevt_expr_setup_vars
 
 @ %def subevt_expr_setup_vars
 @ Append the subevent expr (its base-type core) itself to the variable
 list, if it is not yet present.
 <<Subevt expr: subevt expr: TBP>>=
   procedure :: setup_var_self => subevt_expr_setup_var_self
 <<Subevt expr: sub interfaces>>=
     module subroutine subevt_expr_setup_var_self (expr)
       class(subevt_expr_t), intent(inout), target :: expr
     end subroutine subevt_expr_setup_var_self
 <<Subevt expr: procedures>>=
   module subroutine subevt_expr_setup_var_self (expr)
     class(subevt_expr_t), intent(inout), target :: expr
     if (.not. expr%var_list%contains (var_str ("@evt"))) then
        call expr%var_list%append_subevt_ptr &
             (var_str ("@evt"), expr%subevt_t, &
             is_known = expr%subevt_filled, &
             locked = .true., verbose = .false., intrinsic=.true.)
     end if
   end subroutine subevt_expr_setup_var_self
 
 @ %def subevt_expr_setup_var_self
 @ Link a variable list to the local one.  This could be done event by event,
 but before evaluating expressions.
 <<Subevt expr: subevt expr: TBP>>=
   procedure :: link_var_list => subevt_expr_link_var_list
 <<Subevt expr: sub interfaces>>=
     module subroutine subevt_expr_link_var_list (expr, var_list)
       class(subevt_expr_t), intent(inout) :: expr
       type(var_list_t), intent(in), target :: var_list
     end subroutine subevt_expr_link_var_list
 <<Subevt expr: procedures>>=
   module subroutine subevt_expr_link_var_list (expr, var_list)
     class(subevt_expr_t), intent(inout) :: expr
     type(var_list_t), intent(in), target :: var_list
     call expr%var_list%link (var_list)
   end subroutine subevt_expr_link_var_list
 
 @ %def subevt_expr_link_var_list
 @ Compile the selection expression.  If there is no expression, the build
 method will not allocate the expression object.
 <<Subevt expr: subevt expr: TBP>>=
   procedure :: setup_selection => subevt_expr_setup_selection
 <<Subevt expr: sub interfaces>>=
     module subroutine subevt_expr_setup_selection (expr, ef_cuts)
       class(subevt_expr_t), intent(inout), target :: expr
       class(expr_factory_t), intent(in) :: ef_cuts
     end subroutine subevt_expr_setup_selection
 <<Subevt expr: procedures>>=
   module subroutine subevt_expr_setup_selection (expr, ef_cuts)
     class(subevt_expr_t), intent(inout), target :: expr
     class(expr_factory_t), intent(in) :: ef_cuts
     call ef_cuts%build (expr%selection)
     if (allocated (expr%selection)) then
        call expr%setup_var_self ()
        call expr%selection%setup_lexpr (expr%var_list)
        expr%has_selection = .true.
     end if
   end subroutine subevt_expr_setup_selection
 
 @ %def subevt_expr_setup_selection
 @ (De)activate color storage and evaluation for the expression.  The subevent
 particles will have color information.
 <<Subevt expr: subevt expr: TBP>>=
   procedure :: colorize => subevt_expr_colorize
 <<Subevt expr: sub interfaces>>=
     module subroutine subevt_expr_colorize (expr, colorize_subevt)
       class(subevt_expr_t), intent(inout), target :: expr
       logical, intent(in) :: colorize_subevt
     end subroutine subevt_expr_colorize
 <<Subevt expr: procedures>>=
   module subroutine subevt_expr_colorize (expr, colorize_subevt)
     class(subevt_expr_t), intent(inout), target :: expr
     logical, intent(in) :: colorize_subevt
     expr%colorize_subevt = colorize_subevt
   end subroutine subevt_expr_colorize
 
 @ %def subevt_expr_colorize
 @
 \subsection{Evaluation}
 Reset to initial state, i.e., mark the [[subevt]] as invalid.
 <<Subevt expr: subevt expr: TBP>>=
   procedure :: reset_contents => subevt_expr_reset_contents
   procedure :: base_reset_contents => subevt_expr_reset_contents
 <<Subevt expr: sub interfaces>>=
     module subroutine subevt_expr_reset_contents (expr)
       class(subevt_expr_t), intent(inout) :: expr
     end subroutine subevt_expr_reset_contents  
 <<Subevt expr: procedures>>=
   module subroutine subevt_expr_reset_contents (expr)
     class(subevt_expr_t), intent(inout) :: expr
     expr%subevt_filled = .false.
   end subroutine subevt_expr_reset_contents
 
 @ %def subevt_expr_reset_contents
 @ Evaluate the selection expression and return the result.  There is also a
 deferred version: this should evaluate the remaining expressions if the event
 has passed.
 <<Subevt expr: subevt expr: TBP>>=
   procedure :: base_evaluate => subevt_expr_evaluate
 <<Subevt expr: sub interfaces>>=
     module subroutine subevt_expr_evaluate (expr, passed)
       class(subevt_expr_t), intent(inout) :: expr
       logical, intent(out) :: passed
     end subroutine subevt_expr_evaluate
 <<Subevt expr: procedures>>=
   module subroutine subevt_expr_evaluate (expr, passed)
     class(subevt_expr_t), intent(inout) :: expr
     logical, intent(out) :: passed
     if (expr%has_selection) then
        call expr%selection%evaluate ()
        if (expr%selection%is_known ()) then
           passed = expr%selection%get_log ()
        else
           call msg_error ("Evaluate selection expression: result undefined")
           passed = .false.
        end if
     else
        passed = .true.
     end if
   end subroutine subevt_expr_evaluate
 
 @ %def subevt_expr_evaluate
 @
 \subsection{Implementation for partonic events}
 This implementation contains the expressions that we can evaluate for the
 partonic process during integration.
 <<Subevt expr: public>>=
   public :: parton_expr_t
 <<Subevt expr: types>>=
   type, extends (subevt_expr_t) :: parton_expr_t
      integer, dimension(:), allocatable :: i_beam
      integer, dimension(:), allocatable :: i_in
      integer, dimension(:), allocatable :: i_out
      logical :: has_scale = .false.
      logical :: has_fac_scale = .false.
      logical :: has_ren_scale = .false.
      logical :: has_weight = .false.
      class(expr_t), allocatable :: scale
      class(expr_t), allocatable :: fac_scale
      class(expr_t), allocatable :: ren_scale
      class(expr_t), allocatable :: weight
    contains
    <<Subevt expr: parton expr: TBP>>
   end type parton_expr_t
 
 @ %def parton_expr_t
 @ Finalizer.
 <<Subevt expr: parton expr: TBP>>=
   procedure :: final => parton_expr_final
 <<Subevt expr: sub interfaces>>=
     module subroutine parton_expr_final (object)
       class(parton_expr_t), intent(inout) :: object
     end subroutine parton_expr_final
 <<Subevt expr: procedures>>=
   module subroutine parton_expr_final (object)
     class(parton_expr_t), intent(inout) :: object
     call object%base_final ()
     if (object%has_scale) then
        call object%scale%final ()
     end if
     if (object%has_fac_scale) then
        call object%fac_scale%final ()
     end if
     if (object%has_ren_scale) then
        call object%ren_scale%final ()
     end if
     if (object%has_weight) then
        call object%weight%final ()
     end if
   end subroutine parton_expr_final
 
 @ %def parton_expr_final
 @ Output: continue writing the active expressions, after the common selection
 expression.
 
 Note: the [[prefix]] argument is declared in the [[write]] method of the
 [[subevt_t]] base type.  Here, it is unused.
 <<Subevt expr: parton expr: TBP>>=
   procedure :: write => parton_expr_write
 <<Subevt expr: sub interfaces>>=  
     module subroutine parton_expr_write (object, unit, prefix, pacified)
       class(parton_expr_t), intent(in) :: object
       integer, intent(in), optional :: unit
       character(*), intent(in), optional :: prefix
       logical, intent(in), optional :: pacified
     end subroutine parton_expr_write
 <<Subevt expr: procedures>>=
   module subroutine parton_expr_write (object, unit, prefix, pacified)
     class(parton_expr_t), intent(in) :: object
     integer, intent(in), optional :: unit
     character(*), intent(in), optional :: prefix
     logical, intent(in), optional :: pacified
     integer :: u
     u = given_output_unit (unit)
     call object%base_write (u, pacified = pacified)
     if (object%subevt_filled) then
        if (object%has_scale) then
           call write_separator (u)
           write (u, "(1x,A)")  "Scale expression:"
           call write_separator (u)
           call object%scale%write (u)
        end if
        if (object%has_fac_scale) then
           call write_separator (u)
           write (u, "(1x,A)")  "Factorization scale expression:"
           call write_separator (u)
           call object%fac_scale%write (u)
        end if
        if (object%has_ren_scale) then
           call write_separator (u)
           write (u, "(1x,A)")  "Renormalization scale expression:"
           call write_separator (u)
           call object%ren_scale%write (u)
        end if
        if (object%has_weight) then
           call write_separator (u)
           write (u, "(1x,A)")  "Weight expression:"
           call write_separator (u)
           call object%weight%write (u)
        end if
     end if
   end subroutine parton_expr_write
 
 @ %def parton_expr_write
 @ Define variables.
 <<Subevt expr: parton expr: TBP>>=
   procedure :: setup_vars => parton_expr_setup_vars
 <<Subevt expr: sub interfaces>>=
     module subroutine parton_expr_setup_vars (expr, sqrts)
       class(parton_expr_t), intent(inout), target :: expr
       real(default), intent(in) :: sqrts
     end subroutine parton_expr_setup_vars
 <<Subevt expr: procedures>>=
   module subroutine parton_expr_setup_vars (expr, sqrts)
     class(parton_expr_t), intent(inout), target :: expr
     real(default), intent(in) :: sqrts
     call expr%base_setup_vars (sqrts)
   end subroutine parton_expr_setup_vars
 
 @ %def parton_expr_setup_vars
 @ Compile the scale expressions.  If a pointer is disassociated, there is
 no expression.
 <<Subevt expr: parton expr: TBP>>=
   procedure :: setup_scale => parton_expr_setup_scale
   procedure :: setup_fac_scale => parton_expr_setup_fac_scale
   procedure :: setup_ren_scale => parton_expr_setup_ren_scale
 <<Subevt expr: sub interfaces>>=
     module subroutine parton_expr_setup_scale (expr, ef_scale)
       class(parton_expr_t), intent(inout), target :: expr
       class(expr_factory_t), intent(in) :: ef_scale   
     end subroutine parton_expr_setup_scale
     module subroutine parton_expr_setup_fac_scale (expr, ef_fac_scale)
       class(parton_expr_t), intent(inout), target :: expr
       class(expr_factory_t), intent(in) :: ef_fac_scale
     end subroutine parton_expr_setup_fac_scale
     module subroutine parton_expr_setup_ren_scale (expr, ef_ren_scale)
       class(parton_expr_t), intent(inout), target :: expr
       class(expr_factory_t), intent(in) :: ef_ren_scale
     end subroutine parton_expr_setup_ren_scale
 <<Subevt expr: procedures>>=
   module subroutine parton_expr_setup_scale (expr, ef_scale)
     class(parton_expr_t), intent(inout), target :: expr
     class(expr_factory_t), intent(in) :: ef_scale
     call ef_scale%build (expr%scale)
     if (allocated (expr%scale)) then
        call expr%setup_var_self ()
        call expr%scale%setup_expr (expr%var_list)
        expr%has_scale = .true.
     end if
   end subroutine parton_expr_setup_scale
 
   module subroutine parton_expr_setup_fac_scale (expr, ef_fac_scale)
     class(parton_expr_t), intent(inout), target :: expr
     class(expr_factory_t), intent(in) :: ef_fac_scale
     call ef_fac_scale%build (expr%fac_scale)
     if (allocated (expr%fac_scale)) then
        call expr%setup_var_self ()
        call expr%fac_scale%setup_expr (expr%var_list)
        expr%has_fac_scale = .true.
     end if
   end subroutine parton_expr_setup_fac_scale
 
   module subroutine parton_expr_setup_ren_scale (expr, ef_ren_scale)
     class(parton_expr_t), intent(inout), target :: expr
     class(expr_factory_t), intent(in) :: ef_ren_scale
     call ef_ren_scale%build (expr%ren_scale)
     if (allocated (expr%ren_scale)) then
        call expr%setup_var_self ()
        call expr%ren_scale%setup_expr (expr%var_list)
        expr%has_ren_scale = .true.
     end if
   end subroutine parton_expr_setup_ren_scale
 
 @ %def parton_expr_setup_scale
 @ %def parton_expr_setup_fac_scale
 @ %def parton_expr_setup_ren_scale
 @ Compile the weight expression.
 <<Subevt expr: parton expr: TBP>>=
   procedure :: setup_weight => parton_expr_setup_weight
 <<Subevt expr: sub interfaces>>=
     module subroutine parton_expr_setup_weight (expr, ef_weight)
       class(parton_expr_t), intent(inout), target :: expr
       class(expr_factory_t), intent(in) :: ef_weight
     end subroutine parton_expr_setup_weight
 <<Subevt expr: procedures>>=
   module subroutine parton_expr_setup_weight (expr, ef_weight)
     class(parton_expr_t), intent(inout), target :: expr
     class(expr_factory_t), intent(in) :: ef_weight
     call ef_weight%build (expr%weight)
     if (allocated (expr%weight)) then
        call expr%setup_var_self ()
        call expr%weight%setup_expr (expr%var_list)
        expr%has_weight = .true.
     end if
   end subroutine parton_expr_setup_weight
 
 @ %def parton_expr_setup_weight
 @ Filling the partonic state consists of two parts.  The first routine
 prepares the subevt without assigning momenta.  It takes the particles from an
 [[interaction_t]].  It needs the indices and flavors for the beam,
 incoming, and outgoing particles.
 
 We can assume that the particle content of the subevt does not change.
 Therefore, we set the event variables [[n_in]], [[n_out]], [[n_tot]] already
 in this initialization step.
 <<Subevt expr: parton expr: TBP>>=
   procedure :: setup_subevt => parton_expr_setup_subevt
 <<Subevt expr: sub interfaces>>=
     module subroutine parton_expr_setup_subevt (expr, int, &
          i_beam, i_in, i_out, f_beam, f_in, f_out)
       class(parton_expr_t), intent(inout) :: expr
       type(interaction_t), intent(in), target :: int
       integer, dimension(:), intent(in) :: i_beam, i_in, i_out
       type(flavor_t), dimension(:), intent(in) :: f_beam, f_in, f_out
     end subroutine parton_expr_setup_subevt
 <<Subevt expr: procedures>>=
   module subroutine parton_expr_setup_subevt (expr, int, &
        i_beam, i_in, i_out, f_beam, f_in, f_out)
     class(parton_expr_t), intent(inout) :: expr
     type(interaction_t), intent(in), target :: int
     integer, dimension(:), intent(in) :: i_beam, i_in, i_out
     type(flavor_t), dimension(:), intent(in) :: f_beam, f_in, f_out
     allocate (expr%i_beam (size (i_beam)))
     allocate (expr%i_in (size (i_in)))
     allocate (expr%i_out (size (i_out)))
     expr%i_beam = i_beam
     expr%i_in = i_in
     expr%i_out = i_out
     call interaction_to_subevt (int, &
          expr%i_beam, expr%i_in, expr%i_out, expr%subevt_t)
     call expr%set_pdg_beam (f_beam%get_pdg ())
     call expr%set_pdg_incoming (f_in%get_pdg ())
     call expr%set_pdg_outgoing (f_out%get_pdg ())
     call expr%set_p2_beam     (f_beam%get_mass () ** 2)
     call expr%set_p2_incoming (f_in%get_mass ()   ** 2)
     call expr%set_p2_outgoing (f_out%get_mass ()  ** 2)
     expr%n_in  = size (i_in)
     expr%n_out = size (i_out)
     expr%n_tot = expr%n_in + expr%n_out
   end subroutine parton_expr_setup_subevt
 
 @ %def parton_expr_setup_subevt
 <<Subevt expr: parton expr: TBP>>=
   procedure :: renew_flv_content_subevt => parton_expr_renew_flv_content_subevt
 <<Subevt expr: sub interfaces>>=
     module subroutine parton_expr_renew_flv_content_subevt (expr, int, &
          i_beam, i_in, i_out, f_beam, f_in, f_out)
       class(parton_expr_t), intent(inout) :: expr
       type(interaction_t), intent(in), target :: int
       integer, dimension(:), intent(in) :: i_beam, i_in, i_out
       type(flavor_t), dimension(:), intent(in) :: f_beam, f_in, f_out
     end subroutine parton_expr_renew_flv_content_subevt
 <<Subevt expr: procedures>>=
   module subroutine parton_expr_renew_flv_content_subevt (expr, int, &
        i_beam, i_in, i_out, f_beam, f_in, f_out)
     class(parton_expr_t), intent(inout) :: expr
     type(interaction_t), intent(in), target :: int
     integer, dimension(:), intent(in) :: i_beam, i_in, i_out
     type(flavor_t), dimension(:), intent(in) :: f_beam, f_in, f_out
     expr%i_beam = i_beam
     expr%i_in = i_in
     expr%i_out = i_out
     call expr%set_pdg_beam (f_beam%get_pdg ())
     call expr%set_pdg_incoming (f_in%get_pdg ())
     call expr%set_pdg_outgoing (f_out%get_pdg ())
     expr%n_in  = size (i_in)
     expr%n_out = size (i_out)
     expr%n_tot = expr%n_in + expr%n_out
   end subroutine parton_expr_renew_flv_content_subevt
 
 @ %def parton_expr_renew_flv_content_subevt
 @ Transfer PDG codes, masses (initalization) and momenta to a
 predefined subevent.  We use the flavor assignment of the first
 branch in the interaction state matrix.  Only incoming and outgoing
 particles are transferred.  Switch momentum sign for incoming
 particles.
 <<Subevt expr: interfaces>>=
   interface interaction_momenta_to_subevt
      module procedure interaction_momenta_to_subevt_id
      module procedure interaction_momenta_to_subevt_tr
   end interface
 
 <<Subevt expr: sub interfaces>>=
     module subroutine interaction_momenta_to_subevt_id &
          (int, j_beam, j_in, j_out, subevt)
       type(interaction_t), intent(in) :: int
       integer, dimension(:), intent(in) :: j_beam, j_in, j_out
       type(subevt_t), intent(inout) :: subevt
     end subroutine interaction_momenta_to_subevt_id
     module subroutine interaction_momenta_to_subevt_tr &
          (int, j_beam, j_in, j_out, lt, subevt)
       type(interaction_t), intent(in) :: int
       integer, dimension(:), intent(in) :: j_beam, j_in, j_out
       type(subevt_t), intent(inout) :: subevt
       type(lorentz_transformation_t), intent(in) :: lt
     end subroutine interaction_momenta_to_subevt_tr
 <<Subevt expr: procedures>>=
   subroutine interaction_to_subevt (int, j_beam, j_in, j_out, subevt)
     type(interaction_t), intent(in), target :: int
     integer, dimension(:), intent(in) :: j_beam, j_in, j_out
     type(subevt_t), intent(out) :: subevt
     type(flavor_t), dimension(:), allocatable :: flv
     integer :: n_beam, n_in, n_out, i, j
     allocate (flv (int%get_n_tot ()))
     flv = quantum_numbers_get_flavor (int%get_quantum_numbers (1))
     n_beam = size (j_beam)
     n_in = size (j_in)
     n_out = size (j_out)
     call subevt_init (subevt, n_beam + n_in + n_out)
     do i = 1, n_beam
        j = j_beam(i)
        call subevt%set_beam (i, flv(j)%get_pdg (), &
             vector4_null, flv(j)%get_mass () ** 2)
     end do
     do i = 1, n_in
        j = j_in(i)
        call subevt%set_incoming (n_beam + i, flv(j)%get_pdg (), &
             vector4_null, flv(j)%get_mass () ** 2)
     end do
     do i = 1, n_out
        j = j_out(i)
        call subevt%set_outgoing (n_beam + n_in + i, &
             flv(j)%get_pdg (), vector4_null, &
             flv(j)%get_mass () ** 2)
     end do
   end subroutine interaction_to_subevt
 
   module subroutine interaction_momenta_to_subevt_id &
        (int, j_beam, j_in, j_out, subevt)
     type(interaction_t), intent(in) :: int
     integer, dimension(:), intent(in) :: j_beam, j_in, j_out
     type(subevt_t), intent(inout) :: subevt
     call subevt%set_p_beam (- int%get_momenta (j_beam))
     call subevt%set_p_incoming (- int%get_momenta (j_in))
     call subevt%set_p_outgoing (int%get_momenta (j_out))
   end subroutine interaction_momenta_to_subevt_id
 
   module subroutine interaction_momenta_to_subevt_tr &
        (int, j_beam, j_in, j_out, lt, subevt)
     type(interaction_t), intent(in) :: int
     integer, dimension(:), intent(in) :: j_beam, j_in, j_out
     type(subevt_t), intent(inout) :: subevt
     type(lorentz_transformation_t), intent(in) :: lt
     call subevt%set_p_beam (- lt * int%get_momenta (j_beam))
     call subevt%set_p_incoming (- lt * int%get_momenta (j_in))
     call subevt%set_p_outgoing (lt * int%get_momenta (j_out))
   end subroutine interaction_momenta_to_subevt_tr
 
 @ %def interaction_momenta_to_subevt
 @ The second part takes the momenta from the interaction object and thus
 completes the subevt.  The partonic energy can then be computed.
 <<Subevt expr: parton expr: TBP>>=
   procedure :: fill_subevt => parton_expr_fill_subevt
 <<Subevt expr: sub interfaces>>=
     module subroutine parton_expr_fill_subevt (expr, int)
       class(parton_expr_t), intent(inout) :: expr
       type(interaction_t), intent(in), target :: int
     end subroutine parton_expr_fill_subevt
 <<Subevt expr: procedures>>=
   module subroutine parton_expr_fill_subevt (expr, int)
     class(parton_expr_t), intent(inout) :: expr
     type(interaction_t), intent(in), target :: int
     call interaction_momenta_to_subevt (int, &
          expr%i_beam, expr%i_in, expr%i_out, expr%subevt_t)
     expr%sqrts_hat = expr%get_sqrts_hat ()
     expr%subevt_filled = .true.
   end subroutine parton_expr_fill_subevt
 
 @ %def parton_expr_fill_subevt
 @ Evaluate, if the event passes the selection.  For absent expressions we take
 default values.
 <<Subevt expr: parton expr: TBP>>=
   procedure :: evaluate => parton_expr_evaluate
 <<Subevt expr: sub interfaces>>=
     module subroutine parton_expr_evaluate (expr, passed, scale, fac_scale, &
          ren_scale, weight, scale_forced, force_evaluation)
       class(parton_expr_t), intent(inout) :: expr
       logical, intent(out) :: passed
       real(default), intent(out) :: scale
       real(default), allocatable, intent(out) :: fac_scale
       real(default), allocatable, intent(out) :: ren_scale
       real(default), intent(out) :: weight
       real(default), intent(in), allocatable, optional :: scale_forced
       logical, intent(in), optional :: force_evaluation
     end subroutine parton_expr_evaluate
 <<Subevt expr: procedures>>=
   module subroutine parton_expr_evaluate (expr, passed, scale, fac_scale, &
        ren_scale, weight, scale_forced, force_evaluation)
     class(parton_expr_t), intent(inout) :: expr
     logical, intent(out) :: passed
     real(default), intent(out) :: scale
     real(default), allocatable, intent(out) :: fac_scale
     real(default), allocatable, intent(out) :: ren_scale
     real(default), intent(out) :: weight
     real(default), intent(in), allocatable, optional :: scale_forced
     logical, intent(in), optional :: force_evaluation
     logical :: force_scale, force_eval
     force_scale = .false.; force_eval = .false.
     if (present (scale_forced))  force_scale = allocated (scale_forced)
     if (present (force_evaluation)) force_eval = force_evaluation
     call expr%base_evaluate (passed)
     if (passed .or. force_eval) then
        if (force_scale) then
           scale = scale_forced
        else if (expr%has_scale) then
           call expr%scale%evaluate ()
           if (expr%scale%is_known ()) then
              scale = expr%scale%get_real ()
           else
              call msg_error ("Evaluate scale expression: result undefined")
              scale = zero
           end if
        else
           scale = expr%sqrts_hat
        end if
        if (expr%has_fac_scale) then
           call expr%fac_scale%evaluate ()
           if (expr%fac_scale%is_known ()) then
              if (.not. allocated (fac_scale)) then
                 allocate (fac_scale, source = expr%fac_scale%get_real ())
              else
                 fac_scale = expr%fac_scale%get_real ()
              end if
           else
              call msg_error ("Evaluate factorization scale expression: &
                   &result undefined")
           end if
        end if
        if (expr%has_ren_scale) then
           call expr%ren_scale%evaluate ()
           if (expr%ren_scale%is_known ()) then
              if (.not. allocated (ren_scale)) then
                 allocate (ren_scale, source = expr%ren_scale%get_real ())
              else
                 ren_scale = expr%ren_scale%get_real ()
              end if
           else
              call msg_error ("Evaluate renormalization scale expression: &
                   &result undefined")
           end if
        end if
        if (expr%has_weight) then
           call expr%weight%evaluate ()
           if (expr%weight%is_known ()) then
              weight = expr%weight%get_real ()
           else
              call msg_error ("Evaluate weight expression: result undefined")
              weight = zero
           end if
        else
           weight = one
        end if
     else
        weight = zero
     end if
   end subroutine parton_expr_evaluate
 
 @ %def parton_expr_evaluate
 @ Return the beam/incoming parton indices.
 <<Subevt expr: parton expr: TBP>>=
   procedure :: get_beam_index => parton_expr_get_beam_index
   procedure :: get_in_index => parton_expr_get_in_index
 <<Subevt expr: sub interfaces>>=
     module subroutine parton_expr_get_beam_index (expr, i_beam)
       class(parton_expr_t), intent(in) :: expr
       integer, dimension(:), intent(out) :: i_beam
     end subroutine parton_expr_get_beam_index
     module subroutine parton_expr_get_in_index (expr, i_in)
       class(parton_expr_t), intent(in) :: expr
       integer, dimension(:), intent(out) :: i_in
     end subroutine parton_expr_get_in_index
 <<Subevt expr: procedures>>=
   module subroutine parton_expr_get_beam_index (expr, i_beam)
     class(parton_expr_t), intent(in) :: expr
     integer, dimension(:), intent(out) :: i_beam
     i_beam = expr%i_beam
   end subroutine parton_expr_get_beam_index
 
   module subroutine parton_expr_get_in_index (expr, i_in)
     class(parton_expr_t), intent(in) :: expr
     integer, dimension(:), intent(out) :: i_in
     i_in = expr%i_in
   end subroutine parton_expr_get_in_index
 
 @ %def parton_expr_get_beam_index
 @ %def parton_expr_get_in_index
 @
 \subsection{Implementation for full events}
 This implementation contains the expressions that we can evaluate for the
 full event.  It also contains data that pertain to the event, suitable
 for communication with external event formats.  These data
 simultaneously serve as pointer targets for the variable lists hidden
 in the expressions (eval trees).
 
 Squared matrix element and weight values: when reading events from
 file, the [[ref]] value is the number in the file, while the [[prc]]
 value is the number that we calculate from the momenta in the file,
 possibly with different parameters.  When generating events the first
 time, or if we do not recalculate, the numbers should coincide.
 Furthermore, the array of [[alt]] values is copied from an array of
 alternative event records.  These values should represent calculated
 values.
 <<Subevt expr: public>>=
   public :: event_expr_t
 <<Subevt expr: types>>=
   type, extends (subevt_expr_t) :: event_expr_t
      logical :: has_reweight = .false.
      logical :: has_analysis = .false.
      class(expr_t), allocatable :: reweight
      class(expr_t), allocatable :: analysis
      logical :: has_id = .false.
      type(string_t) :: id
      logical :: has_num_id = .false.
      integer :: num_id = 0
      logical :: has_index = .false.
      integer :: index = 0
      logical :: has_sqme_ref = .false.
      real(default) :: sqme_ref = 0
      logical :: has_sqme_prc = .false.
      real(default) :: sqme_prc = 0
      logical :: has_weight_ref = .false.
      real(default) :: weight_ref = 0
      logical :: has_weight_prc = .false.
      real(default) :: weight_prc = 0
      logical :: has_excess_prc = .false.
      real(default) :: excess_prc = 0
      integer :: n_alt = 0
      logical :: has_sqme_alt = .false.
      real(default), dimension(:), allocatable :: sqme_alt
      logical :: has_weight_alt = .false.
      real(default), dimension(:), allocatable :: weight_alt
    contains
    <<Subevt expr: event expr: TBP>>
   end type event_expr_t
 
 @ %def event_expr_t
 @ Finalizer for the expressions.
 <<Subevt expr: event expr: TBP>>=
   procedure :: final => event_expr_final
 <<Subevt expr: sub interfaces>>=
     module subroutine event_expr_final (object)
       class(event_expr_t), intent(inout) :: object
     end subroutine event_expr_final
 <<Subevt expr: procedures>>=
   module subroutine event_expr_final (object)
     class(event_expr_t), intent(inout) :: object
     call object%base_final ()
     if (object%has_reweight) then
        call object%reweight%final ()
     end if
     if (object%has_analysis) then
        call object%analysis%final ()
     end if
   end subroutine event_expr_final
 
 @ %def event_expr_final
 @ Output: continue writing the active expressions, after the common selection
 expression.
 
 Note: the [[prefix]] argument is declared in the [[write]] method of the
 [[subevt_t]] base type.  Here, it is unused.
 <<Subevt expr: event expr: TBP>>=
   procedure :: write => event_expr_write
 <<Subevt expr: sub interfaces>>=
     module subroutine event_expr_write (object, unit, prefix, pacified)
       class(event_expr_t), intent(in) :: object
       integer, intent(in), optional :: unit
       character(*), intent(in), optional :: prefix
       logical, intent(in), optional :: pacified
     end subroutine event_expr_write
 <<Subevt expr: procedures>>=
   module subroutine event_expr_write (object, unit, prefix, pacified)
     class(event_expr_t), intent(in) :: object
     integer, intent(in), optional :: unit
     character(*), intent(in), optional :: prefix
     logical, intent(in), optional :: pacified
     integer :: u
     u = given_output_unit (unit)
     call object%base_write (u, pacified = pacified)
     if (object%subevt_filled) then
        if (object%has_reweight) then
           call write_separator (u)
           write (u, "(1x,A)")  "Reweighting expression:"
           call write_separator (u)
           call object%reweight%write (u)
        end if
        if (object%has_analysis) then
           call write_separator (u)
           write (u, "(1x,A)")  "Analysis expression:"
           call write_separator (u)
           call object%analysis%write (u)
        end if
     end if
   end subroutine event_expr_write
 
 @ %def event_expr_write
 @ Initializer.  This is required only for the [[sqme_alt]] and
 [[weight_alt]] arrays.
 <<Subevt expr: event expr: TBP>>=
   procedure :: init => event_expr_init
 <<Subevt expr: sub interfaces>>=
     module subroutine event_expr_init (expr, n_alt)
       class(event_expr_t), intent(out) :: expr
       integer, intent(in), optional :: n_alt
     end subroutine event_expr_init
 <<Subevt expr: procedures>>=
   module subroutine event_expr_init (expr, n_alt)
     class(event_expr_t), intent(out) :: expr
     integer, intent(in), optional :: n_alt
     if (present (n_alt)) then
        expr%n_alt = n_alt
        allocate (expr%sqme_alt (n_alt), source = 0._default)
        allocate (expr%weight_alt (n_alt), source = 0._default)
     end if
   end subroutine event_expr_init
 
 @ %def event_expr_init
 @ Define variables.  We have the variables of the base type plus
 specific variables for full events.  There is the event index.
 <<Subevt expr: event expr: TBP>>=
   procedure :: setup_vars => event_expr_setup_vars
 <<Subevt expr: sub interfaces>>=
     module subroutine event_expr_setup_vars (expr, sqrts)
       class(event_expr_t), intent(inout), target :: expr
       real(default), intent(in) :: sqrts
     end subroutine event_expr_setup_vars
 <<Subevt expr: procedures>>=
   module subroutine event_expr_setup_vars (expr, sqrts)
     class(event_expr_t), intent(inout), target :: expr
     real(default), intent(in) :: sqrts
     call expr%base_setup_vars (sqrts)
     call expr%var_list%append_string_ptr (var_str ("$process_id"), &
          expr%id, is_known = expr%has_id, &
          locked = .true., verbose = .false., intrinsic = .true.)
     call expr%var_list%append_int_ptr (var_str ("process_num_id"), &
          expr%num_id, is_known = expr%has_num_id, &
          locked = .true., verbose = .false., intrinsic = .true.)
     call expr%var_list%append_real_ptr (var_str ("sqme"), &
          expr%sqme_prc, is_known = expr%has_sqme_prc, &
          locked = .true., verbose = .false., intrinsic = .true.)
     call expr%var_list%append_real_ptr (var_str ("sqme_ref"), &
          expr%sqme_ref, is_known = expr%has_sqme_ref, &
          locked = .true., verbose = .false., intrinsic = .true.)
     call expr%var_list%append_int_ptr (var_str ("event_index"), &
          expr%index, is_known = expr%has_index, &
          locked = .true., verbose = .false., intrinsic = .true.)
     call expr%var_list%append_real_ptr (var_str ("event_weight"), &
          expr%weight_prc, is_known = expr%has_weight_prc, &
          locked = .true., verbose = .false., intrinsic = .true.)
     call expr%var_list%append_real_ptr (var_str ("event_weight_ref"), &
          expr%weight_ref, is_known = expr%has_weight_ref, &
          locked = .true., verbose = .false., intrinsic = .true.)
     call expr%var_list%append_real_ptr (var_str ("event_excess"), &
          expr%excess_prc, is_known = expr%has_excess_prc, &
          locked = .true., verbose = .false., intrinsic = .true.)
   end subroutine event_expr_setup_vars
 
 @ %def event_expr_setup_vars
 @ Compile the analysis expression.  If the pointer is disassociated, there is
 no expression.
 <<Subevt expr: event expr: TBP>>=
   procedure :: setup_analysis => event_expr_setup_analysis
 <<Subevt expr: sub interfaces>>=
     module subroutine event_expr_setup_analysis (expr, ef_analysis)
       class(event_expr_t), intent(inout), target :: expr
       class(expr_factory_t), intent(in) :: ef_analysis
     end subroutine event_expr_setup_analysis
 <<Subevt expr: procedures>>=
   module subroutine event_expr_setup_analysis (expr, ef_analysis)
     class(event_expr_t), intent(inout), target :: expr
     class(expr_factory_t), intent(in) :: ef_analysis
     call ef_analysis%build (expr%analysis)
     if (allocated (expr%analysis)) then
        call expr%setup_var_self ()
        call expr%analysis%setup_lexpr (expr%var_list)
        expr%has_analysis = .true.
     end if
   end subroutine event_expr_setup_analysis
 
 @ %def event_expr_setup_analysis
 @ Compile the reweight expression.
 <<Subevt expr: event expr: TBP>>=
   procedure :: setup_reweight => event_expr_setup_reweight
 <<Subevt expr: sub interfaces>>=
     module subroutine event_expr_setup_reweight (expr, ef_reweight)
       class(event_expr_t), intent(inout), target :: expr
       class(expr_factory_t), intent(in) :: ef_reweight
     end subroutine event_expr_setup_reweight
 <<Subevt expr: procedures>>=
   module subroutine event_expr_setup_reweight (expr, ef_reweight)
     class(event_expr_t), intent(inout), target :: expr
     class(expr_factory_t), intent(in) :: ef_reweight
     call ef_reweight%build (expr%reweight)
     if (allocated (expr%reweight)) then
        call expr%setup_var_self ()
        call expr%reweight%setup_expr (expr%var_list)
        expr%has_reweight = .true.
     end if
   end subroutine event_expr_setup_reweight
 
 @ %def event_expr_setup_reweight
 @ Store the string or numeric process ID.  This should be done during
 initialization.
 <<Subevt expr: event expr: TBP>>=
   procedure :: set_process_id => event_expr_set_process_id
   procedure :: set_process_num_id => event_expr_set_process_num_id
 <<Subevt expr: sub interfaces>>=
     module subroutine event_expr_set_process_id (expr, id)
       class(event_expr_t), intent(inout) :: expr
       type(string_t), intent(in) :: id
     end subroutine event_expr_set_process_id
     module subroutine event_expr_set_process_num_id (expr, num_id)
       class(event_expr_t), intent(inout) :: expr
       integer, intent(in) :: num_id
     end subroutine event_expr_set_process_num_id
 <<Subevt expr: procedures>>=
   module subroutine event_expr_set_process_id (expr, id)
     class(event_expr_t), intent(inout) :: expr
     type(string_t), intent(in) :: id
     expr%id = id
     expr%has_id = .true.
   end subroutine event_expr_set_process_id
 
   module subroutine event_expr_set_process_num_id (expr, num_id)
     class(event_expr_t), intent(inout) :: expr
     integer, intent(in) :: num_id
     expr%num_id = num_id
     expr%has_num_id = .true.
   end subroutine event_expr_set_process_num_id
 
 @ %def event_expr_set_process_id
 @ %def event_expr_set_process_num_id
 @ Reset / set the data that pertain to a particular event.  The event
 index is reset unless explicitly told to keep it.
 <<Subevt expr: event expr: TBP>>=
   procedure :: reset_contents => event_expr_reset_contents
   procedure :: set => event_expr_set
 <<Subevt expr: sub interfaces>>=
     module subroutine event_expr_reset_contents (expr)
       class(event_expr_t), intent(inout) :: expr
     end subroutine event_expr_reset_contents
     module subroutine event_expr_set (expr, &
          weight_ref, weight_prc, weight_alt, &
          excess_prc, &
          sqme_ref, sqme_prc, sqme_alt)
       class(event_expr_t), intent(inout) :: expr
       real(default), intent(in), optional :: weight_ref, weight_prc
       real(default), intent(in), optional :: excess_prc
       real(default), intent(in), optional :: sqme_ref, sqme_prc
       real(default), dimension(:), intent(in), optional :: sqme_alt, weight_alt
     end subroutine event_expr_set
 <<Subevt expr: procedures>>=
   module subroutine event_expr_reset_contents (expr)
     class(event_expr_t), intent(inout) :: expr
     call expr%base_reset_contents ()
     expr%has_sqme_ref = .false.
     expr%has_sqme_prc = .false.
     expr%has_sqme_alt = .false.
     expr%has_weight_ref = .false.
     expr%has_weight_prc = .false.
     expr%has_weight_alt = .false.
     expr%has_excess_prc = .false.
   end subroutine event_expr_reset_contents
 
   module subroutine event_expr_set (expr, &
        weight_ref, weight_prc, weight_alt, &
        excess_prc, &
        sqme_ref, sqme_prc, sqme_alt)
     class(event_expr_t), intent(inout) :: expr
     real(default), intent(in), optional :: weight_ref, weight_prc
     real(default), intent(in), optional :: excess_prc
     real(default), intent(in), optional :: sqme_ref, sqme_prc
     real(default), dimension(:), intent(in), optional :: sqme_alt, weight_alt
     if (present (sqme_ref)) then
        expr%has_sqme_ref = .true.
        expr%sqme_ref = sqme_ref
     end if
     if (present (sqme_prc)) then
        expr%has_sqme_prc = .true.
        expr%sqme_prc = sqme_prc
     end if
     if (present (sqme_alt)) then
        expr%has_sqme_alt = .true.
        expr%sqme_alt = sqme_alt
     end if
     if (present (weight_ref)) then
        expr%has_weight_ref = .true.
        expr%weight_ref = weight_ref
     end if
     if (present (weight_prc)) then
        expr%has_weight_prc = .true.
        expr%weight_prc = weight_prc
     end if
     if (present (weight_alt)) then
        expr%has_weight_alt = .true.
        expr%weight_alt = weight_alt
     end if
     if (present (excess_prc)) then
        expr%has_excess_prc = .true.
        expr%excess_prc = excess_prc
     end if
   end subroutine event_expr_set
 
 @ %def event_expr_reset_contents event_expr_set
 @ Access the subevent index.
 <<Subevt expr: event expr: TBP>>=
   procedure :: has_event_index => event_expr_has_event_index
   procedure :: get_event_index => event_expr_get_event_index
 <<Subevt expr: sub interfaces>>=
     module function event_expr_has_event_index (expr) result (flag)
       class(event_expr_t), intent(in) :: expr
       logical :: flag
     end function event_expr_has_event_index
     module function event_expr_get_event_index (expr) result (index)
       class(event_expr_t), intent(in) :: expr
       integer :: index
     end function event_expr_get_event_index
 <<Subevt expr: procedures>>=
   module function event_expr_has_event_index (expr) result (flag)
     class(event_expr_t), intent(in) :: expr
     logical :: flag
     flag = expr%has_index
   end function event_expr_has_event_index
 
   module function event_expr_get_event_index (expr) result (index)
     class(event_expr_t), intent(in) :: expr
     integer :: index
     if (expr%has_index) then
        index = expr%index
     else
        index = 0
     end if
   end function event_expr_get_event_index
 
 @ %def event_expr_has_event_index
 @ %def event_expr_get_event_index
 @ Set/increment the subevent index.  Initialize it if necessary.
 <<Subevt expr: event expr: TBP>>=
   procedure :: set_event_index => event_expr_set_event_index
   procedure :: reset_event_index => event_expr_reset_event_index
   procedure :: increment_event_index => event_expr_increment_event_index
 <<Subevt expr: sub interfaces>>=
     module subroutine event_expr_set_event_index (expr, index)
       class(event_expr_t), intent(inout) :: expr
       integer, intent(in) :: index
     end subroutine event_expr_set_event_index
     module subroutine event_expr_reset_event_index (expr)
       class(event_expr_t), intent(inout) :: expr
     end subroutine event_expr_reset_event_index
     module subroutine event_expr_increment_event_index (expr, offset)
       class(event_expr_t), intent(inout) :: expr
       integer, intent(in), optional :: offset
     end subroutine event_expr_increment_event_index
 <<Subevt expr: procedures>>=
   module subroutine event_expr_set_event_index (expr, index)
     class(event_expr_t), intent(inout) :: expr
     integer, intent(in) :: index
     expr%index = index
     expr%has_index = .true.
   end subroutine event_expr_set_event_index
 
   module subroutine event_expr_reset_event_index (expr)
     class(event_expr_t), intent(inout) :: expr
     expr%has_index = .false.
   end subroutine event_expr_reset_event_index
 
   module subroutine event_expr_increment_event_index (expr, offset)
     class(event_expr_t), intent(inout) :: expr
     integer, intent(in), optional :: offset
     if (expr%has_index) then
        expr%index = expr%index + 1
     else if (present (offset)) then
        call expr%set_event_index (offset + 1)
     else
        call expr%set_event_index (1)
     end if
   end subroutine event_expr_increment_event_index
 
 @ %def event_expr_set_event_index
 @ %def event_expr_increment_event_index
 @ Fill the event expression: take the particle data and kinematics
 from a [[particle_set]] object.
 
 We allow the particle content to change for each event.  Therefore, we set the
 event variables each time.
 
 Also increment the event index; initialize it if necessary.
 <<Subevt expr: event expr: TBP>>=
   procedure :: fill_subevt => event_expr_fill_subevt
 <<Subevt expr: sub interfaces>>=
     module subroutine event_expr_fill_subevt (expr, particle_set)
       class(event_expr_t), intent(inout) :: expr
       type(particle_set_t), intent(in) :: particle_set
     end subroutine event_expr_fill_subevt
 <<Subevt expr: procedures>>=
   module subroutine event_expr_fill_subevt (expr, particle_set)
     class(event_expr_t), intent(inout) :: expr
     type(particle_set_t), intent(in) :: particle_set
     call particle_set%to_subevt (expr%subevt_t, expr%colorize_subevt)
     expr%sqrts_hat = expr%get_sqrts_hat ()
     expr%n_in  = expr%get_n_in  ()
     expr%n_out = expr%get_n_out ()
     expr%n_tot = expr%n_in + expr%n_out
     expr%subevt_filled = .true.
   end subroutine event_expr_fill_subevt
 
 @ %def event_expr_fill_subevt
 @ Evaluate, if the event passes the selection.  For absent expressions we take
 default values.
 <<Subevt expr: event expr: TBP>>=
   procedure :: evaluate => event_expr_evaluate
 <<Subevt expr: sub interfaces>>=
     module subroutine event_expr_evaluate &
          (expr, passed, reweight, analysis_flag)
       class(event_expr_t), intent(inout) :: expr
       logical, intent(out) :: passed
       real(default), intent(out) :: reweight
       logical, intent(out) :: analysis_flag
     end subroutine event_expr_evaluate
 <<Subevt expr: procedures>>=
   module subroutine event_expr_evaluate (expr, passed, reweight, analysis_flag)
     class(event_expr_t), intent(inout) :: expr
     logical, intent(out) :: passed
     real(default), intent(out) :: reweight
     logical, intent(out) :: analysis_flag
     call expr%base_evaluate (passed)
     if (passed) then
        if (expr%has_reweight) then
           call expr%reweight%evaluate ()
           if (expr%reweight%is_known ()) then
              reweight = expr%reweight%get_real ()
           else
              call msg_error ("Evaluate reweight expression: &
                   &result undefined")
              reweight = 0
           end if
        else
           reweight = 1
        end if
        if (expr%has_analysis) then
           call expr%analysis%evaluate ()
           if (expr%analysis%is_known ()) then
              analysis_flag = expr%analysis%get_log ()
           else
              call msg_error ("Evaluate analysis expression: &
                   &result undefined")
              analysis_flag = .false.
           end if
        else
           analysis_flag = .true.
        end if
     end if
   end subroutine event_expr_evaluate
 
 @ %def event_expr_evaluate
 @
 %%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
 \section{Parton states}
 A [[parton_state_t]] object contains the effective kinematics and
 dynamics of an elementary partonic interaction, with or without the
 beam/structure function state included.  The type is abstract and has
 two distinct extensions.  The [[isolated_state_t]] extension describes
 the isolated elementary interaction where the [[int_eff]] subobject
 contains the complex transition amplitude, exclusive in all quantum
 numbers.  The particle content and kinematics describe the effective
 partonic state.  The [[connected_state_t]] extension contains the
 partonic [[subevt]] and the expressions for cuts and scales which use
 it.
 
 In the isolated state, the effective partonic interaction may either
 be identical to the hard interaction, in which case it is just a
 pointer to the latter.  Or it may involve a rearrangement of partons,
 in which case we allocate it explicitly and flag this by
 [[int_is_allocated]].
 
 The [[trace]] evaluator contains the absolute square of the effective
 transition amplitude matrix, summed over final states.  It is also summed over
 initial states, depending on the the beam setup allows.  The result is used for
 integration.
 
 The [[matrix]] evaluator is the counterpart of [[trace]] which is kept
 exclusive in all observable quantum numbers.  The [[flows]] evaluator is
 furthermore exclusive in colors, but neglecting all color interference.  The
 [[matrix]] and [[flows]] evaluators are filled only for sampling points that
 become part of physical events.
 
 Note: It would be natural to make the evaluators allocatable. The extra
 [[has_XXX]] flags indicate whether evaluators are active, instead.
 
 This module contains no unit tests.  The tests are covered by the
 [[processes]] module below.
 <<[[parton_states.f90]]>>=
 <<File header>>
 module parton_states
 
 <<Use kinds>>
   use variables
   use expr_base
   use model_data
   use flavors
   use quantum_numbers
   use state_matrices
   use interactions
   use evaluators
 
   use beams
   use sf_base
   use prc_core
   use subevt_expr
 
 <<Standard module head>>
 
 <<Parton states: public>>
 
 <<Parton states: types>>
 
   interface
 <<Parton states: sub interfaces>>
   end interface
 
 end module parton_states
 @ %def parton_states
 @
 <<[[parton_states_sub.f90]]>>=
 <<File header>>
 
 submodule (parton_states) parton_states_s
 
 <<Use debug>>
   use io_units
   use format_utils, only: write_separator
   use diagnostics
   use lorentz
   use subevents
   use helicities
   use colors
   use polarizations
   use process_constants
 
   implicit none
 
 contains
 
 <<Parton states: procedures>>
 
 end submodule parton_states_s
 
 @ %def parton_states_s
 @
 \subsection{Abstract base type}
 The common part are the evaluators, one for the trace (summed over all
 quantum numbers), one for the transition matrix (summed only over
 unobservable quantum numbers), and one for the flow distribution
 (transition matrix without interferences, exclusive in color flow).
 <<Parton states: types>>=
   type, abstract :: parton_state_t
      logical :: has_trace = .false.
      logical :: has_matrix = .false.
      logical :: has_flows = .false.
      type(evaluator_t) :: trace
      type(evaluator_t) :: matrix
      type(evaluator_t) :: flows
    contains
    <<Parton states: parton state: TBP>>
   end type parton_state_t
 
 @ %def parton_state_t
 @ The [[isolated_state_t]] extension contains the [[sf_chain_eff]] object
 and the (hard) effective interaction [[int_eff]], separately, both are
 implemented as a pointer.  The evaluators (trace, matrix, flows) apply
 to the hard interaction only.
 
 If the effective interaction differs from the hard interaction, the
 pointer is allocated explicitly.  Analogously for [[sf_chain_eff]].
 <<Parton states: public>>=
   public :: isolated_state_t
 <<Parton states: types>>=
   type, extends (parton_state_t) :: isolated_state_t
      logical :: sf_chain_is_allocated = .false.
      type(sf_chain_instance_t), pointer :: sf_chain_eff => null ()
      logical :: int_is_allocated = .false.
      type(interaction_t), pointer :: int_eff => null ()
    contains
    <<Parton states: isolated state: TBP>>
   end type isolated_state_t
 
 @ %def isolated_state_t
 @ The [[connected_state_t]] extension contains all data that enable
 the evaluation of observables for the effective connected state.  The
 evaluators connect the (effective) structure-function chain and hard
 interaction that were kept separate in the [[isolated_state_t]].
 
 The [[flows_sf]] evaluator is an extended copy of the
 structure-function
 
 The [[expr]] subobject consists of the [[subevt]], a simple event record,
 expressions for cuts etc.\ which refer to this record, and a [[var_list]]
 which contains event-specific variables, linked to the process variable
 list.  Variables used within the expressions are looked up in [[var_list]].
 <<Parton states: public>>=
   public :: connected_state_t
 <<Parton states: types>>=
   type, extends (parton_state_t) :: connected_state_t
      type(state_flv_content_t) :: state_flv
      logical :: has_flows_sf = .false.
      type(evaluator_t) :: flows_sf
      logical :: has_expr = .false.
      type(parton_expr_t) :: expr
    contains
    <<Parton states: connected state: TBP>>
   end type connected_state_t
 
 @ %def connected_state_t
 @ Output: each evaluator is written only when it is active.  The
 [[sf_chain]] is only written if it is explicitly allocated.
 <<Parton states: parton state: TBP>>=
   procedure :: write => parton_state_write
 <<Parton states: sub interfaces>>=
     module subroutine parton_state_write (state, unit, testflag)
       class(parton_state_t), intent(in) :: state
       integer, intent(in), optional :: unit
       logical, intent(in), optional :: testflag
     end subroutine parton_state_write
 <<Parton states: procedures>>=
   module subroutine parton_state_write (state, unit, testflag)
     class(parton_state_t), intent(in) :: state
     integer, intent(in), optional :: unit
     logical, intent(in), optional :: testflag
     integer :: u
     u = given_output_unit (unit)
     select type (state)
     class is (isolated_state_t)
        if (state%sf_chain_is_allocated) then
           call write_separator (u)
           call state%sf_chain_eff%write (u)
        end if
        if (state%int_is_allocated) then
           call write_separator (u)
           write (u, "(1x,A)") &
                "Effective interaction:"
           call write_separator (u)
           call state%int_eff%basic_write (u, testflag = testflag)
        end if
     class is (connected_state_t)
        if (state%has_flows_sf) then
           call write_separator (u)
           write (u, "(1x,A)") &
                "Evaluator (extension of the beam evaluator &
                &with color contractions):"
           call write_separator (u)
           call state%flows_sf%write (u, testflag = testflag)
        end if
     end select
     if (state%has_trace) then
        call write_separator (u)
        write (u, "(1x,A)") &
             "Evaluator (trace of the squared transition matrix):"
        call write_separator (u)
        call state%trace%write (u, testflag = testflag)
     end if
     if (state%has_matrix) then
        call write_separator (u)
        write (u, "(1x,A)") &
             "Evaluator (squared transition matrix):"
        call write_separator (u)
        call state%matrix%write (u, testflag = testflag)
     end if
     if (state%has_flows) then
        call write_separator (u)
        write (u, "(1x,A)") &
             "Evaluator (squared color-flow matrix):"
        call write_separator (u)
        call state%flows%write (u, testflag = testflag)
     end if
     select type (state)
     class is (connected_state_t)
        if (state%has_expr) then
           call write_separator (u)
           call state%expr%write (u)
        end if
     end select
   end subroutine parton_state_write
 
 @ %def parton_state_write
 @ Finalize interaction and evaluators, but only if allocated.
 <<Parton states: parton state: TBP>>=
   procedure :: final => parton_state_final
 <<Parton states: sub interfaces>>=
     module subroutine parton_state_final (state)
       class(parton_state_t), intent(inout) :: state
     end subroutine parton_state_final
 <<Parton states: procedures>>=
   module subroutine parton_state_final (state)
     class(parton_state_t), intent(inout) :: state
     if (state%has_flows) then
        call state%flows%final ()
        state%has_flows = .false.
     end if
     if (state%has_matrix) then
        call state%matrix%final ()
        state%has_matrix = .false.
     end if
     if (state%has_trace) then
        call state%trace%final ()
        state%has_trace = .false.
     end if
     select type (state)
     class is (connected_state_t)
        if (state%has_flows_sf) then
           call state%flows_sf%final ()
           state%has_flows_sf = .false.
        end if
        call state%expr%final ()
     class is (isolated_state_t)
        if (state%int_is_allocated) then
           call state%int_eff%final ()
           deallocate (state%int_eff)
           state%int_is_allocated = .false.
        end if
        if (state%sf_chain_is_allocated) then
           call state%sf_chain_eff%final ()
        end if
     end select
   end subroutine parton_state_final
 
 @ %def parton_state_final
 @
 \subsection{Common Initialization}
 Initialize the isolated parton state.  In this version, the
 effective structure-function chain [[sf_chain_eff]] and the effective
 interaction [[int_eff]] both are trivial pointers to the seed
 structure-function chain and to the hard interaction, respectively.
 <<Parton states: isolated state: TBP>>=
   procedure :: init => isolated_state_init
 <<Parton states: sub interfaces>>=
     module subroutine isolated_state_init (state, sf_chain, int)
       class(isolated_state_t), intent(out) :: state
       type(sf_chain_instance_t), intent(in), target :: sf_chain
       type(interaction_t), intent(in), target :: int
     end subroutine isolated_state_init
 <<Parton states: procedures>>=
   module subroutine isolated_state_init (state, sf_chain, int)
     class(isolated_state_t), intent(out) :: state
     type(sf_chain_instance_t), intent(in), target :: sf_chain
     type(interaction_t), intent(in), target :: int
     state%sf_chain_eff => sf_chain
     state%int_eff => int
   end subroutine isolated_state_init
 
 @ %def isolated_state_init
 @
 \subsection{Evaluator initialization: isolated state}
 Create an evaluator for the trace of the squared transition matrix.
 The trace goes over all outgoing quantum numbers.  Whether we trace
 over incoming quantum numbers other than color, depends on the given
 [[qn_mask_in]].
 
 There are two options: explicitly computing the color factor table
 ([[use_cf]] false; [[nc]] defined), or taking the color factor
 table from the hard matrix element data.
 <<Parton states: isolated state: TBP>>=
   procedure :: setup_square_trace => isolated_state_setup_square_trace
 <<Parton states: sub interfaces>>=
     module subroutine isolated_state_setup_square_trace (state, core, &
          qn_mask_in, col, keep_fs_flavor)
       class(isolated_state_t), intent(inout), target :: state
       class(prc_core_t), intent(in) :: core
       type(quantum_numbers_mask_t), intent(in), dimension(:) :: qn_mask_in
       integer, intent(in), dimension(:), allocatable :: col
       logical, intent(in) :: keep_fs_flavor
     end subroutine isolated_state_setup_square_trace
 <<Parton states: procedures>>=
   module subroutine isolated_state_setup_square_trace (state, core, &
        qn_mask_in, col, keep_fs_flavor)
     class(isolated_state_t), intent(inout), target :: state
     class(prc_core_t), intent(in) :: core
     type(quantum_numbers_mask_t), intent(in), dimension(:) :: qn_mask_in
     !!! Actually need allocatable attribute here for once because col might
     !!! enter the subroutine non-allocated.
     integer, intent(in), dimension(:), allocatable :: col
     logical, intent(in) :: keep_fs_flavor
     type(quantum_numbers_mask_t), dimension(:), allocatable :: qn_mask
     associate (data => core%data)
       allocate (qn_mask (data%n_in + data%n_out))
       qn_mask( : data%n_in) = &
               quantum_numbers_mask (.false., .true., .false.) &
               .or. qn_mask_in
       qn_mask(data%n_in + 1 : ) = &
               quantum_numbers_mask (.not. keep_fs_flavor, .true., .true.)
       if (core%use_color_factors) then
          call state%trace%init_square (state%int_eff, qn_mask, &
               col_flow_index = data%cf_index, &
               col_factor = data%color_factors, &
               col_index_hi = col, &
               nc = core%nc)
       else
          call state%trace%init_square (state%int_eff, qn_mask, nc = core%nc)
       end if
     end associate
     state%has_trace = .true.
   end subroutine isolated_state_setup_square_trace
 
 @ %def isolated_state_setup_square_trace
 @ Set up an identity-evaluator for the trace. This implies that [[me]]
 is considered to be a squared amplitude, as for example for BLHA matrix
 elements.
 <<Parton states: isolated state: TBP>>=
   procedure :: setup_identity_trace => isolated_state_setup_identity_trace
 <<Parton states: sub interfaces>>=
     module subroutine isolated_state_setup_identity_trace (state, core, &
          qn_mask_in, keep_fs_flavors, keep_colors)
       class(isolated_state_t), intent(inout), target :: state
       class(prc_core_t), intent(in) :: core
       type(quantum_numbers_mask_t), intent(in), dimension(:) :: qn_mask_in
       logical, intent(in), optional :: keep_fs_flavors, keep_colors
     end subroutine isolated_state_setup_identity_trace
 <<Parton states: procedures>>=
   module subroutine isolated_state_setup_identity_trace (state, core, &
        qn_mask_in, keep_fs_flavors, keep_colors)
     class(isolated_state_t), intent(inout), target :: state
     class(prc_core_t), intent(in) :: core
     type(quantum_numbers_mask_t), intent(in), dimension(:) :: qn_mask_in
     logical, intent(in), optional :: keep_fs_flavors, keep_colors
     type(quantum_numbers_mask_t), dimension(:), allocatable :: qn_mask
     logical :: fs_flv_flag, col_flag
     fs_flv_flag = .true.; col_flag = .true.
     if (present(keep_fs_flavors)) fs_flv_flag = .not. keep_fs_flavors
     if (present(keep_colors)) col_flag = .not. keep_colors
     associate (data => core%data)
       allocate (qn_mask (data%n_in + data%n_out))
       qn_mask( : data%n_in) = &
            quantum_numbers_mask (.false., col_flag, .false.) .or. qn_mask_in
       qn_mask(data%n_in + 1 : ) = &
            quantum_numbers_mask (fs_flv_flag, col_flag, .true.)
     end associate
     call state%int_eff%set_mask (qn_mask)
     call state%trace%init_identity (state%int_eff)
     state%has_trace = .true.
   end subroutine isolated_state_setup_identity_trace
 
 @ %def isolated_state_setup_identity_trace
 @ Set up the evaluator for the transition matrix, exclusive in
 helicities where this is requested.
 
 For all unstable final-state particles we keep polarization according to the
 applicable decay options.  If the process is a decay itself, this applies also
 to the initial state.
 
 For all polarized final-state particles, we keep polarization including
 off-diagonal entries.  We drop helicity completely for unpolarized final-state
 particles.
 
 For the initial state, if the particle has not been handled yet, we
 apply the provided [[qn_mask_in]] which communicates the beam properties.
 <<Parton states: isolated state: TBP>>=
   procedure :: setup_square_matrix => isolated_state_setup_square_matrix
 <<Parton states: sub interfaces>>=
     module subroutine isolated_state_setup_square_matrix &
          (state, core, model, qn_mask_in, col)
       class(isolated_state_t), intent(inout), target :: state
       class(prc_core_t), intent(in) :: core
       class(model_data_t), intent(in), target :: model
       type(quantum_numbers_mask_t), dimension(:), intent(in) :: qn_mask_in
       integer, dimension(:), intent(in) :: col
     end subroutine isolated_state_setup_square_matrix
 <<Parton states: procedures>>=
   module subroutine isolated_state_setup_square_matrix &
        (state, core, model, qn_mask_in, col)
     class(isolated_state_t), intent(inout), target :: state
     class(prc_core_t), intent(in) :: core
     class(model_data_t), intent(in), target :: model
     type(quantum_numbers_mask_t), dimension(:), intent(in) :: qn_mask_in
     integer, dimension(:), intent(in) :: col
     type(quantum_numbers_mask_t), dimension(:), allocatable :: qn_mask
     type(flavor_t), dimension(:), allocatable :: flv
     integer :: i
     logical :: helmask, helmask_hd
     associate (data => core%data)
       allocate (qn_mask (data%n_in + data%n_out))
       allocate (flv (data%n_flv))
       do i = 1, data%n_in + data%n_out
          call flv%init (data%flv_state(i,:), model)
          if ((data%n_in == 1 .or. i > data%n_in) &
               .and. any (.not. flv%is_stable ())) then
             helmask = all (flv%decays_isotropically ())
             helmask_hd = all (flv%decays_diagonal ())
             qn_mask(i) = quantum_numbers_mask (.false., .true., helmask, &
                  mask_hd = helmask_hd)
          else if (i > data%n_in) then
             helmask = all (.not. flv%is_polarized ())
             qn_mask(i) = quantum_numbers_mask (.false., .true., helmask)
          else
             qn_mask(i) = quantum_numbers_mask (.false., .true., .false.) &
               .or. qn_mask_in(i)
          end if
       end do
       if (core%use_color_factors) then
          call state%matrix%init_square (state%int_eff, qn_mask, &
               col_flow_index = data%cf_index, &
               col_factor = data%color_factors, &
               col_index_hi = col, &
               nc = core%nc)
       else
          call state%matrix%init_square (state%int_eff, &
               qn_mask, &
               nc = core%nc)
       end if
     end associate
     state%has_matrix = .true.
   end subroutine isolated_state_setup_square_matrix
 
 @ %def isolated_state_setup_square_matrix
 @ This procedure initializes the evaluator that computes the
 contributions to color flows, neglecting color interference.
 The incoming-particle mask can be used to sum over incoming flavor.
 
 Helicity handling: see above.
 <<Parton states: isolated state: TBP>>=
   procedure :: setup_square_flows => isolated_state_setup_square_flows
 <<Parton states: sub interfaces>>=
     module subroutine isolated_state_setup_square_flows &
          (state, core, model, qn_mask_in)
       class(isolated_state_t), intent(inout), target :: state
       class(prc_core_t), intent(in) :: core
       class(model_data_t), intent(in), target :: model
       type(quantum_numbers_mask_t), dimension(:), intent(in) :: qn_mask_in
     end subroutine isolated_state_setup_square_flows
 <<Parton states: procedures>>=
   module subroutine isolated_state_setup_square_flows &
        (state, core, model, qn_mask_in)
     class(isolated_state_t), intent(inout), target :: state
     class(prc_core_t), intent(in) :: core
     class(model_data_t), intent(in), target :: model
     type(quantum_numbers_mask_t), dimension(:), intent(in) :: qn_mask_in
     type(quantum_numbers_mask_t), dimension(:), allocatable :: qn_mask
     type(flavor_t), dimension(:), allocatable :: flv
     integer :: i
     logical :: helmask, helmask_hd
     associate (data => core%data)
       allocate (qn_mask (data%n_in + data%n_out))
       allocate (flv (data%n_flv))
       do i = 1, data%n_in + data%n_out
          call flv%init (data%flv_state(i,:), model)
          if ((data%n_in == 1 .or. i > data%n_in) &
               .and. any (.not. flv%is_stable ())) then
             helmask = all (flv%decays_isotropically ())
             helmask_hd = all (flv%decays_diagonal ())
             qn_mask(i) = quantum_numbers_mask (.false., .false., helmask, &
                  mask_hd = helmask_hd)
          else if (i > data%n_in) then
             helmask = all (.not. flv%is_polarized ())
             qn_mask(i) = quantum_numbers_mask (.false., .false., helmask)
          else
             qn_mask(i) = quantum_numbers_mask (.false., .false., .false.) &
               .or. qn_mask_in(i)
          end if
       end do
       call state%flows%init_square (state%int_eff, qn_mask, &
            expand_color_flows = .true.)
     end associate
     state%has_flows = .true.
   end subroutine isolated_state_setup_square_flows
 
 @ %def isolated_state_setup_square_flows
 @
 \subsection{Evaluator initialization: connected state}
 Set up a trace evaluator as a product of two evaluators (incoming state,
 effective interaction).  In the result, all quantum numbers are summed over.
 
 If the optional [[int]] interaction is provided, use this for the
 first factor in the convolution.  Otherwise, use the final interaction
 of the stored [[sf_chain]].
 
 The [[resonant]] flag applies if we want to construct
 a decay chain.  The resonance property can propagate to the final
 event output.
 
 If an extended structure function is required [[requires_extended_sf]],
 we have to not consider [[sub]] as a quantum number.
 <<Parton states: connected state: TBP>>=
   procedure :: setup_connected_trace => connected_state_setup_connected_trace
 <<Parton states: sub interfaces>>=
     module subroutine connected_state_setup_connected_trace &
          (state, isolated, int, resonant, undo_helicities, &
           keep_fs_flavors, requires_extended_sf)
       class(connected_state_t), intent(inout), target :: state
       type(isolated_state_t), intent(in), target :: isolated
       type(interaction_t), intent(in), optional, target :: int
       logical, intent(in), optional :: resonant
       logical, intent(in), optional :: undo_helicities
       logical, intent(in), optional :: keep_fs_flavors
       logical, intent(in), optional :: requires_extended_sf
     end subroutine connected_state_setup_connected_trace
 <<Parton states: procedures>>=
   module subroutine connected_state_setup_connected_trace &
        (state, isolated, int, resonant, undo_helicities, &
         keep_fs_flavors, requires_extended_sf)
     class(connected_state_t), intent(inout), target :: state
     type(isolated_state_t), intent(in), target :: isolated
     type(interaction_t), intent(in), optional, target :: int
     logical, intent(in), optional :: resonant
     logical, intent(in), optional :: undo_helicities
     logical, intent(in), optional :: keep_fs_flavors
     logical, intent(in), optional :: requires_extended_sf
     type(quantum_numbers_mask_t) :: mask
     type(interaction_t), pointer :: src_int, beam_int
     logical :: reduce, fs_flv_flag
     if (debug_on) call msg_debug (D_PROCESS_INTEGRATION, &
          "connected_state_setup_connected_trace")
     reduce = .false.; fs_flv_flag = .true.
     if (present (undo_helicities)) reduce = undo_helicities
     if (present (keep_fs_flavors)) fs_flv_flag = .not. keep_fs_flavors
     mask = quantum_numbers_mask (fs_flv_flag, .true., .true.)
     if (present (int)) then
        src_int => int
     else
        src_int => isolated%sf_chain_eff%get_out_int_ptr ()
     end if
 
     if (debug2_active (D_PROCESS_INTEGRATION)) then
        call src_int%basic_write ()
     end if
 
     call state%trace%init_product (src_int, isolated%trace, &
          qn_mask_conn = mask, &
          qn_mask_rest = mask, &
          connections_are_resonant = resonant, &
          ignore_sub_for_qn = requires_extended_sf)
 
     if (reduce) then
        beam_int => isolated%sf_chain_eff%get_beam_int_ptr ()
        call undo_qn_hel (beam_int, mask, beam_int%get_n_tot ())
        call undo_qn_hel (src_int, mask, src_int%get_n_tot ())
        call beam_int%set_matrix_element (cmplx (1, 0, default))
        call src_int%set_matrix_element (cmplx (1, 0, default))
     end if
 
     state%has_trace = .true.
   contains
     subroutine undo_qn_hel (int_in, mask, n_tot)
       type(interaction_t), intent(inout) :: int_in
       type(quantum_numbers_mask_t), intent(in) :: mask
       integer, intent(in) :: n_tot
       type(quantum_numbers_mask_t), dimension(n_tot) :: mask_in
       mask_in = mask
       call int_in%set_mask (mask_in)
     end subroutine undo_qn_hel
   end subroutine connected_state_setup_connected_trace
 
 @ %def connected_state_setup_connected_trace
 @ Set up a matrix evaluator as a product of two evaluators (incoming
 state, effective interation).  In the intermediate state, color and
 helicity is summed over.  In the final state, we keep the quantum
 numbers which are present in the original evaluators.
 <<Parton states: connected state: TBP>>=
   procedure :: setup_connected_matrix => connected_state_setup_connected_matrix
 <<Parton states: sub interfaces>>=
     module subroutine connected_state_setup_connected_matrix &
          (state, isolated, int, resonant, qn_filter_conn)
       class(connected_state_t), intent(inout), target :: state
       type(isolated_state_t), intent(in), target :: isolated
       type(interaction_t), intent(in), optional, target :: int
       logical, intent(in), optional :: resonant
       type(quantum_numbers_t), intent(in), optional :: qn_filter_conn
     end subroutine connected_state_setup_connected_matrix
 <<Parton states: procedures>>=
   module subroutine connected_state_setup_connected_matrix &
        (state, isolated, int, resonant, qn_filter_conn)
     class(connected_state_t), intent(inout), target :: state
     type(isolated_state_t), intent(in), target :: isolated
     type(interaction_t), intent(in), optional, target :: int
     logical, intent(in), optional :: resonant
     type(quantum_numbers_t), intent(in), optional :: qn_filter_conn
     type(quantum_numbers_mask_t) :: mask
     type(interaction_t), pointer :: src_int
     mask = quantum_numbers_mask (.false., .true., .true.)
     if (present (int)) then
        src_int => int
     else
        src_int => isolated%sf_chain_eff%get_out_int_ptr ()
     end if
     call state%matrix%init_product &
          (src_int, isolated%matrix, mask, &
           qn_filter_conn = qn_filter_conn, &
           connections_are_resonant = resonant)
     state%has_matrix = .true.
   end subroutine connected_state_setup_connected_matrix
 
 @ %def connected_state_setup_connected_matrix
 @ Set up a matrix evaluator as a product of two evaluators (incoming
 state, effective interation).  In the intermediate state, only
 helicity is summed over.  In the final state, we keep the quantum
 numbers which are present in the original evaluators.
 
 
 If the optional [[int]] interaction is provided, use this for the
 first factor in the convolution.  Otherwise, use the final interaction
 of the stored [[sf_chain]], after creating an intermediate interaction
 that includes a correlated color state.  We assume that for a
 caller-provided [[int]], this is not necessary.
 
 For fixed-order NLO differential distribution, we are interested at
 the partonic level, no parton showering takes place as this would
 demand for a proper matching. So, the flows in the [[connected_state]]
 are not needed, and the color part will be masked for the interaction
 coming from the [[sf_chain]]. The squared matrix elements coming from
 the OLP provider at the moment do not come with flows anyhow. This
 needs to be revised once the matching to the shower is completed.
 <<Parton states: connected state: TBP>>=
   procedure :: setup_connected_flows => connected_state_setup_connected_flows
 <<Parton states: sub interfaces>>=
     module subroutine connected_state_setup_connected_flows &
          (state, isolated, int, resonant, qn_filter_conn, mask_color)
       class(connected_state_t), intent(inout), target :: state
       type(isolated_state_t), intent(in), target :: isolated
       type(interaction_t), intent(in), optional, target :: int
       logical, intent(in), optional :: resonant, mask_color
       type(quantum_numbers_t), intent(in), optional :: qn_filter_conn
     end subroutine connected_state_setup_connected_flows
 <<Parton states: procedures>>=
   module subroutine connected_state_setup_connected_flows &
        (state, isolated, int, resonant, qn_filter_conn, mask_color)
     class(connected_state_t), intent(inout), target :: state
     type(isolated_state_t), intent(in), target :: isolated
     type(interaction_t), intent(in), optional, target :: int
     logical, intent(in), optional :: resonant, mask_color
     type(quantum_numbers_t), intent(in), optional :: qn_filter_conn
     type(quantum_numbers_mask_t) :: mask
     type(quantum_numbers_mask_t), dimension(:), allocatable :: mask_sf
     type(interaction_t), pointer :: src_int
     logical :: mask_c
     mask_c = .false.
     if (present (mask_color))  mask_c = mask_color
     mask = quantum_numbers_mask (.false., .false., .true.)
     if (present (int)) then
        src_int => int
     else
        src_int => isolated%sf_chain_eff%get_out_int_ptr ()
        call state%flows_sf%init_color_contractions (src_int)
        state%has_flows_sf = .true.
        src_int => state%flows_sf%interaction_t
        if (mask_c) then
           allocate (mask_sf (src_int%get_n_tot ()))
           mask_sf = quantum_numbers_mask (.false., .true., .false.)
           call src_int%reduce_state_matrix (mask_sf, keep_order = .true.)
        end if
     end if
     call state%flows%init_product (src_int, isolated%flows, mask, &
          qn_filter_conn = qn_filter_conn, &
          connections_are_resonant = resonant)
     state%has_flows = .true.
   end subroutine connected_state_setup_connected_flows
 
 @ %def connected_state_setup_connected_flows
 @ Determine and store the flavor content for the connected state.
 This queries the [[matrix]] evaluator component, which should hold the
 requested flavor information.
 <<Parton states: connected state: TBP>>=
   procedure :: setup_state_flv => connected_state_setup_state_flv
 <<Parton states: sub interfaces>>=
     module subroutine connected_state_setup_state_flv (state, n_out_hard)
       class(connected_state_t), intent(inout), target :: state
       integer, intent(in) :: n_out_hard
     end subroutine connected_state_setup_state_flv
 <<Parton states: procedures>>=
   module subroutine connected_state_setup_state_flv (state, n_out_hard)
     class(connected_state_t), intent(inout), target :: state
     integer, intent(in) :: n_out_hard
     call state%matrix%get_flv_content (state%state_flv, n_out_hard)
   end subroutine connected_state_setup_state_flv
 
 @ %def connected_state_setup_state_flv
 @ Return the current flavor state object.
 <<Parton states: connected state: TBP>>=
   procedure :: get_state_flv => connected_state_get_state_flv
 <<Parton states: sub interfaces>>=
     module function connected_state_get_state_flv (state) result (state_flv)
       class(connected_state_t), intent(in) :: state
       type(state_flv_content_t) :: state_flv
     end function connected_state_get_state_flv
 <<Parton states: procedures>>=
   module function connected_state_get_state_flv (state) result (state_flv)
     class(connected_state_t), intent(in) :: state
     type(state_flv_content_t) :: state_flv
     state_flv = state%state_flv
   end function connected_state_get_state_flv
 
 @ %def connected_state_get_state_flv
 @
 \subsection{Cuts and expressions}
 Set up the [[subevt]] that corresponds to the connected interaction.
 The index arrays refer to the interaction.
 
 We assign the particles as follows: the beam particles are the first
 two (decay process: one) entries in the trace evaluator.  The incoming
 partons are identified by their link to the outgoing partons of the
 structure-function chain.  The outgoing partons are those of the trace
 evaluator, which include radiated partons during the
 structure-function chain.
 <<Parton states: connected state: TBP>>=
   procedure :: setup_subevt => connected_state_setup_subevt
 <<Parton states: sub interfaces>>=
     module subroutine connected_state_setup_subevt &
          (state, sf_chain, f_beam, f_in, f_out)
       class(connected_state_t), intent(inout), target :: state
       type(sf_chain_instance_t), intent(in), target :: sf_chain
       type(flavor_t), dimension(:), intent(in) :: f_beam, f_in, f_out
     end subroutine connected_state_setup_subevt
 <<Parton states: procedures>>=
   module subroutine connected_state_setup_subevt &
        (state, sf_chain, f_beam, f_in, f_out)
     class(connected_state_t), intent(inout), target :: state
     type(sf_chain_instance_t), intent(in), target :: sf_chain
     type(flavor_t), dimension(:), intent(in) :: f_beam, f_in, f_out
     integer :: n_beam, n_in, n_out, n_vir, n_tot, i, j
     integer, dimension(:), allocatable :: i_beam, i_in, i_out
     integer :: sf_out_i
     type(interaction_t), pointer :: sf_int
     sf_int => sf_chain%get_out_int_ptr ()
     n_beam = size (f_beam)
     n_in = size (f_in)
     n_out = size (f_out)
     n_vir = state%trace%get_n_vir ()
     n_tot = state%trace%get_n_tot ()
     allocate (i_beam (n_beam), i_in (n_in), i_out (n_out))
     i_beam = [(i, i = 1, n_beam)]
     do j = 1, n_in
        sf_out_i = sf_chain%get_out_i (j)
        i_in(j) = interaction_find_link &
             (state%trace%interaction_t, sf_int, sf_out_i)
     end do
     i_out = [(i, i = n_vir + 1, n_tot)]
     call state%expr%setup_subevt (state%trace%interaction_t, &
          i_beam, i_in, i_out, f_beam, f_in, f_out)
     state%has_expr = .true.
   end subroutine connected_state_setup_subevt
 
 @ %def connected_state_setup_subevt
 <<Parton states: connected state: TBP>>=
   procedure :: renew_flv_content_subevt => &
        connected_state_renew_flv_content_subevt
 <<Parton states: sub interfaces>>=
     module subroutine connected_state_renew_flv_content_subevt &
          (state, sf_chain, f_beam, f_in, f_out)
       class(connected_state_t), intent(inout), target :: state
       type(sf_chain_instance_t), intent(in), target :: sf_chain
       type(flavor_t), dimension(:), intent(in) :: f_beam, f_in, f_out
     end subroutine connected_state_renew_flv_content_subevt
 <<Parton states: procedures>>=
   module subroutine connected_state_renew_flv_content_subevt &
        (state, sf_chain, f_beam, f_in, f_out)
     class(connected_state_t), intent(inout), target :: state
     type(sf_chain_instance_t), intent(in), target :: sf_chain
     type(flavor_t), dimension(:), intent(in) :: f_beam, f_in, f_out
     integer :: n_beam, n_in, n_out, n_vir, n_tot, i, j
     integer, dimension(:), allocatable :: i_beam, i_in, i_out
     integer :: sf_out_i
     type(interaction_t), pointer :: sf_int
     sf_int => sf_chain%get_out_int_ptr ()
     n_beam = size (f_beam)
     n_in = size (f_in)
     n_out = size (f_out)
     n_vir = state%trace%get_n_vir ()
     n_tot = state%trace%get_n_tot ()
     allocate (i_beam (n_beam), i_in (n_in), i_out (n_out))
     i_beam = [(i, i = 1, n_beam)]
     do j = 1, n_in
        sf_out_i = sf_chain%get_out_i (j)
        i_in(j) = interaction_find_link &
             (state%trace%interaction_t, sf_int, sf_out_i)
     end do
     i_out = [(i, i = n_vir + 1, n_tot)]
     call state%expr%renew_flv_content_subevt (state%trace%interaction_t, &
          i_beam, i_in, i_out, f_beam, f_in, f_out)
     state%has_expr = .true.
   end subroutine connected_state_renew_flv_content_subevt
 
 @ %def connected_state_setup_subevt
 @ Initialize the variable list specific for this state/term.  We insert event
 variables ([[sqrts_hat]]) and link the process variable list.  The variable
 list acquires pointers to subobjects of [[state]], which must therefore have a
 [[target]] attribute.
 <<Parton states: connected state: TBP>>=
   procedure :: setup_var_list => connected_state_setup_var_list
 <<Parton states: sub interfaces>>=
     module subroutine connected_state_setup_var_list &
          (state, process_var_list, beam_data)
       class(connected_state_t), intent(inout), target :: state
       type(var_list_t), intent(in), target :: process_var_list
       type(beam_data_t), intent(in) :: beam_data
     end subroutine connected_state_setup_var_list
 <<Parton states: procedures>>=
   module subroutine connected_state_setup_var_list &
        (state, process_var_list, beam_data)
     class(connected_state_t), intent(inout), target :: state
     type(var_list_t), intent(in), target :: process_var_list
     type(beam_data_t), intent(in) :: beam_data
     call state%expr%setup_vars (beam_data%get_sqrts ())
     call state%expr%link_var_list (process_var_list)
   end subroutine connected_state_setup_var_list
 
 @ %def connected_state_setup_var_list
 @ Allocate the cut expression etc.
 <<Parton states: connected state: TBP>>=
   procedure :: setup_cuts => connected_state_setup_cuts
   procedure :: setup_scale => connected_state_setup_scale
   procedure :: setup_fac_scale => connected_state_setup_fac_scale
   procedure :: setup_ren_scale => connected_state_setup_ren_scale
   procedure :: setup_weight => connected_state_setup_weight
 <<Parton states: sub interfaces>>=
     module subroutine connected_state_setup_cuts (state, ef_cuts)
       class(connected_state_t), intent(inout), target :: state
       class(expr_factory_t), intent(in) :: ef_cuts
     end subroutine connected_state_setup_cuts
     module subroutine connected_state_setup_scale (state, ef_scale)
       class(connected_state_t), intent(inout), target :: state
       class(expr_factory_t), intent(in) :: ef_scale
     end subroutine connected_state_setup_scale
     module subroutine connected_state_setup_fac_scale (state, ef_fac_scale)
       class(connected_state_t), intent(inout), target :: state
       class(expr_factory_t), intent(in) :: ef_fac_scale
     end subroutine connected_state_setup_fac_scale
     module subroutine connected_state_setup_ren_scale (state, ef_ren_scale)
       class(connected_state_t), intent(inout), target :: state
       class(expr_factory_t), intent(in) :: ef_ren_scale
     end subroutine connected_state_setup_ren_scale
     module subroutine connected_state_setup_weight (state, ef_weight)
       class(connected_state_t), intent(inout), target :: state
       class(expr_factory_t), intent(in) :: ef_weight
     end subroutine connected_state_setup_weight
 <<Parton states: procedures>>=
   module subroutine connected_state_setup_cuts (state, ef_cuts)
     class(connected_state_t), intent(inout), target :: state
     class(expr_factory_t), intent(in) :: ef_cuts
     call state%expr%setup_selection (ef_cuts)
   end subroutine connected_state_setup_cuts
 
   module subroutine connected_state_setup_scale (state, ef_scale)
     class(connected_state_t), intent(inout), target :: state
     class(expr_factory_t), intent(in) :: ef_scale
     call state%expr%setup_scale (ef_scale)
   end subroutine connected_state_setup_scale
 
   module subroutine connected_state_setup_fac_scale (state, ef_fac_scale)
     class(connected_state_t), intent(inout), target :: state
     class(expr_factory_t), intent(in) :: ef_fac_scale
     call state%expr%setup_fac_scale (ef_fac_scale)
   end subroutine connected_state_setup_fac_scale
 
   module subroutine connected_state_setup_ren_scale (state, ef_ren_scale)
     class(connected_state_t), intent(inout), target :: state
     class(expr_factory_t), intent(in) :: ef_ren_scale
     call state%expr%setup_ren_scale (ef_ren_scale)
   end subroutine connected_state_setup_ren_scale
 
   module subroutine connected_state_setup_weight (state, ef_weight)
     class(connected_state_t), intent(inout), target :: state
     class(expr_factory_t), intent(in) :: ef_weight
     call state%expr%setup_weight (ef_weight)
   end subroutine connected_state_setup_weight
 
 @ %def connected_state_setup_expressions
 @ Reset the expression object: invalidate the subevt.
 <<Parton states: connected state: TBP>>=
   procedure :: reset_expressions => connected_state_reset_expressions
 <<Parton states: sub interfaces>>=
     module subroutine connected_state_reset_expressions (state)
       class(connected_state_t), intent(inout) :: state
     end subroutine connected_state_reset_expressions
 <<Parton states: procedures>>=
   module subroutine connected_state_reset_expressions (state)
     class(connected_state_t), intent(inout) :: state
     if (state%has_expr)  call state%expr%reset_contents ()
   end subroutine connected_state_reset_expressions
 
 @ %def connected_state_reset_expressions
 @
 \subsection{Evaluation}
 Transfer momenta to the trace evaluator and fill the [[subevt]] with
 this effective kinematics, if applicable.
 
 Note: we may want to apply a boost for the [[subevt]].
 <<Parton states: parton state: TBP>>=
   procedure :: receive_kinematics => parton_state_receive_kinematics
 <<Parton states: sub interfaces>>=
     module subroutine parton_state_receive_kinematics (state)
       class(parton_state_t), intent(inout), target :: state
     end subroutine parton_state_receive_kinematics
 <<Parton states: procedures>>=
   module subroutine parton_state_receive_kinematics (state)
     class(parton_state_t), intent(inout), target :: state
     if (state%has_trace) then
        call state%trace%receive_momenta ()
        select type (state)
        class is (connected_state_t)
           if (state%has_expr) then
              call state%expr%fill_subevt (state%trace%interaction_t)
           end if
        end select
     end if
   end subroutine parton_state_receive_kinematics
 
 @ %def parton_state_receive_kinematics
 @ Recover kinematics: We assume that the trace evaluator is filled
 with momenta.  Send those momenta back to the sources, then fill the
 variables and subevent as above.
 
 The incoming momenta of the connected state are not connected to the
 isolated state but to the beam interaction.  Therefore, the incoming
 momenta within the isolated state do not become defined, yet.
 Instead, we reconstruct the beam (and ISR) momentum configuration.
 <<Parton states: parton state: TBP>>=
   procedure :: send_kinematics => parton_state_send_kinematics
 <<Parton states: sub interfaces>>=
     module subroutine parton_state_send_kinematics (state)
       class(parton_state_t), intent(inout), target :: state
     end subroutine parton_state_send_kinematics
 <<Parton states: procedures>>=
   module subroutine parton_state_send_kinematics (state)
     class(parton_state_t), intent(inout), target :: state
     if (state%has_trace) then
        call state%trace%send_momenta ()
        select type (state)
        class is (connected_state_t)
           call state%expr%fill_subevt (state%trace%interaction_t)
        end select
     end if
   end subroutine parton_state_send_kinematics
 
 @ %def parton_state_send_kinematics
 @ Evaluate the expressions.  The routine evaluates first the cut expression.
 If the event passes, it evaluates the other expressions.  Where no expressions
 are defined, default values are inserted.
 <<Parton states: connected state: TBP>>=
   procedure :: evaluate_expressions => connected_state_evaluate_expressions
 <<Parton states: sub interfaces>>=
     module subroutine connected_state_evaluate_expressions (state, passed, &
          scale, fac_scale, ren_scale, weight, scale_forced, force_evaluation)
       class(connected_state_t), intent(inout) :: state
       logical, intent(out) :: passed
       real(default), intent(out) :: scale, weight
       real(default), intent(out), allocatable :: fac_scale, ren_scale
       real(default), intent(in), allocatable, optional :: scale_forced
       logical, intent(in), optional :: force_evaluation
     end subroutine connected_state_evaluate_expressions
 <<Parton states: procedures>>=
   module subroutine connected_state_evaluate_expressions (state, passed, &
        scale, fac_scale, ren_scale, weight, scale_forced, force_evaluation)
     class(connected_state_t), intent(inout) :: state
     logical, intent(out) :: passed
     real(default), intent(out) :: scale, weight
     real(default), intent(out), allocatable :: fac_scale, ren_scale
     real(default), intent(in), allocatable, optional :: scale_forced
     logical, intent(in), optional :: force_evaluation
     if (state%has_expr) then
        call state%expr%evaluate (passed, scale, fac_scale, ren_scale, weight, &
             scale_forced, force_evaluation)
     end if
   end subroutine connected_state_evaluate_expressions
 
 @ %def connected_state_evaluate_expressions
 @ Evaluate the structure-function chain, if it is allocated
 explicitly.  The argument is the factorization scale.
 
 If the chain is merely a pointer, the chain should already be
 evaluated at this point.
 <<Parton states: isolated state: TBP>>=
   procedure :: evaluate_sf_chain => isolated_state_evaluate_sf_chain
 <<Parton states: sub interfaces>>=
     module subroutine isolated_state_evaluate_sf_chain (state, fac_scale)
       class(isolated_state_t), intent(inout) :: state
       real(default), intent(in) :: fac_scale
     end subroutine isolated_state_evaluate_sf_chain
 <<Parton states: procedures>>=
   module subroutine isolated_state_evaluate_sf_chain (state, fac_scale)
     class(isolated_state_t), intent(inout) :: state
     real(default), intent(in) :: fac_scale
     if (state%sf_chain_is_allocated)  &
          call state%sf_chain_eff%evaluate (fac_scale)
   end subroutine isolated_state_evaluate_sf_chain
 
 @ %def isolated_state_evaluate_sf_chain
 @ Evaluate the trace.
 <<Parton states: parton state: TBP>>=
   procedure :: evaluate_trace => parton_state_evaluate_trace
 <<Parton states: sub interfaces>>=
     module subroutine parton_state_evaluate_trace (state)
       class(parton_state_t), intent(inout) :: state
     end subroutine parton_state_evaluate_trace
 <<Parton states: procedures>>=
   module subroutine parton_state_evaluate_trace (state)
     class(parton_state_t), intent(inout) :: state
     if (state%has_trace) call state%trace%evaluate ()
   end subroutine parton_state_evaluate_trace
 
 @ %def parton_state_evaluate_trace
 <<Parton states: parton state: TBP>>=
   procedure :: evaluate_matrix => parton_state_evaluate_matrix
 <<Parton states: sub interfaces>>=
     module subroutine parton_state_evaluate_matrix (state)
       class(parton_state_t), intent(inout) :: state
     end subroutine parton_state_evaluate_matrix
 <<Parton states: procedures>>=
   module subroutine parton_state_evaluate_matrix (state)
     class(parton_state_t), intent(inout) :: state
     if (state%has_matrix) call state%matrix%evaluate ()
   end subroutine parton_state_evaluate_matrix
 
 @ %def parton_state_evaluate_matrix
 @ Evaluate the extra evaluators that we need for physical events.
 <<Parton states: parton state: TBP>>=
   procedure :: evaluate_event_data => parton_state_evaluate_event_data
 <<Parton states: sub interfaces>>=
     module subroutine parton_state_evaluate_event_data (state, only_momenta)
       class(parton_state_t), intent(inout) :: state
       logical, intent(in), optional :: only_momenta
     end subroutine parton_state_evaluate_event_data
 <<Parton states: procedures>>=
   module subroutine parton_state_evaluate_event_data (state, only_momenta)
     class(parton_state_t), intent(inout) :: state
     logical, intent(in), optional :: only_momenta
     logical :: only_mom
     only_mom = .false.; if (present (only_momenta)) only_mom = only_momenta
     select type (state)
     type is (connected_state_t)
        if (state%has_flows_sf) then
           call state%flows_sf%receive_momenta ()
           if (.not. only_mom) call state%flows_sf%evaluate ()
        end if
     end select
     if (state%has_matrix) then
        call state%matrix%receive_momenta ()
        if (.not. only_mom) call state%matrix%evaluate ()
     end if
     if (state%has_flows) then
        call state%flows%receive_momenta ()
        if (.not. only_mom) call state%flows%evaluate ()
     end if
   end subroutine parton_state_evaluate_event_data
 
 @ %def parton_state_evaluate_event_data
 @ Normalize the helicity density matrix by its trace, i.e., factor out
 the trace and put it into an overall normalization factor.  The trace
 and flow evaluators are unchanged.
 <<Parton states: parton state: TBP>>=
   procedure :: normalize_matrix_by_trace => &
        parton_state_normalize_matrix_by_trace
 <<Parton states: sub interfaces>>=
     module subroutine parton_state_normalize_matrix_by_trace (state)
       class(parton_state_t), intent(inout) :: state
     end subroutine parton_state_normalize_matrix_by_trace
 <<Parton states: procedures>>=
   module subroutine parton_state_normalize_matrix_by_trace (state)
     class(parton_state_t), intent(inout) :: state
     if (state%has_matrix) call state%matrix%normalize_by_trace ()
   end subroutine parton_state_normalize_matrix_by_trace
 
 @ %def parton_state_normalize_matrix_by_trace
 @
 \subsection{Accessing the state}
 Three functions return a pointer to the event-relevant interactions.
 <<Parton states: parton state: TBP>>=
   procedure :: get_trace_int_ptr => parton_state_get_trace_int_ptr
   procedure :: get_matrix_int_ptr => parton_state_get_matrix_int_ptr
   procedure :: get_flows_int_ptr => parton_state_get_flows_int_ptr
 <<Parton states: sub interfaces>>=
     module function parton_state_get_trace_int_ptr (state) result (ptr)
       class(parton_state_t), intent(in), target :: state
       type(interaction_t), pointer :: ptr
     end function parton_state_get_trace_int_ptr
     module function parton_state_get_matrix_int_ptr (state) result (ptr)
       class(parton_state_t), intent(in), target :: state
       type(interaction_t), pointer :: ptr
     end function parton_state_get_matrix_int_ptr
     module function parton_state_get_flows_int_ptr (state) result (ptr)
       class(parton_state_t), intent(in), target :: state
       type(interaction_t), pointer :: ptr
     end function parton_state_get_flows_int_ptr
 <<Parton states: procedures>>=
   module function parton_state_get_trace_int_ptr (state) result (ptr)
     class(parton_state_t), intent(in), target :: state
     type(interaction_t), pointer :: ptr
     if (state%has_trace) then
        ptr => state%trace%interaction_t
     else
        ptr => null ()
     end if
   end function parton_state_get_trace_int_ptr
 
   module function parton_state_get_matrix_int_ptr (state) result (ptr)
     class(parton_state_t), intent(in), target :: state
     type(interaction_t), pointer :: ptr
     if (state%has_matrix) then
        ptr => state%matrix%interaction_t
     else
        ptr => null ()
     end if
   end function parton_state_get_matrix_int_ptr
 
   module function parton_state_get_flows_int_ptr (state) result (ptr)
     class(parton_state_t), intent(in), target :: state
     type(interaction_t), pointer :: ptr
     if (state%has_flows) then
        ptr => state%flows%interaction_t
     else
        ptr => null ()
     end if
   end function parton_state_get_flows_int_ptr
 
 @ %def parton_state_get_trace_int_ptr
 @ %def parton_state_get_matrix_int_ptr
 @ %def parton_state_get_flows_int_ptr
 @ Return the indices of the beam particles and the outgoing particles within
 the trace (and thus, matrix and flows) evaluator, respectively.
 <<Parton states: connected state: TBP>>=
   procedure :: get_beam_index => connected_state_get_beam_index
   procedure :: get_in_index => connected_state_get_in_index
 <<Parton states: sub interfaces>>=
     module subroutine connected_state_get_beam_index (state, i_beam)
       class(connected_state_t), intent(in) :: state
       integer, dimension(:), intent(out) :: i_beam
     end subroutine connected_state_get_beam_index
     module subroutine connected_state_get_in_index (state, i_in)
       class(connected_state_t), intent(in) :: state
       integer, dimension(:), intent(out) :: i_in
     end subroutine connected_state_get_in_index
 <<Parton states: procedures>>=
   module subroutine connected_state_get_beam_index (state, i_beam)
     class(connected_state_t), intent(in) :: state
     integer, dimension(:), intent(out) :: i_beam
     call state%expr%get_beam_index (i_beam)
   end subroutine connected_state_get_beam_index
 
   module subroutine connected_state_get_in_index (state, i_in)
     class(connected_state_t), intent(in) :: state
     integer, dimension(:), intent(out) :: i_in
     call state%expr%get_in_index (i_in)
   end subroutine connected_state_get_in_index
 
 @ %def connected_state_get_beam_index
 @ %def connected_state_get_in_index
 @
 <<Parton states: public>>=
   public :: refill_evaluator
 <<Parton states: sub interfaces>>=
     module subroutine refill_evaluator (sqme, qn, flv_index, evaluator)
       complex(default), intent(in), dimension(:) :: sqme
       type(quantum_numbers_t), intent(in), dimension(:,:) :: qn
       integer, intent(in), dimension(:), optional :: flv_index
       type(evaluator_t), intent(inout) :: evaluator
     end subroutine refill_evaluator
 <<Parton states: procedures>>=
   module subroutine refill_evaluator (sqme, qn, flv_index, evaluator)
     complex(default), intent(in), dimension(:) :: sqme
     type(quantum_numbers_t), intent(in), dimension(:,:) :: qn
     integer, intent(in), dimension(:), optional :: flv_index
     type(evaluator_t), intent(inout) :: evaluator
     integer :: i, i_flv
     do i = 1, size (sqme)
        if (present (flv_index)) then
           i_flv = flv_index(i)
        else
           i_flv = i
        end if
        call evaluator%add_to_matrix_element (qn(:,i_flv), sqme(i), &
             match_only_flavor = .true.)
     end do
   end subroutine refill_evaluator
 
 @ %def refill_evaluator
 @ Return the number of outgoing (hard) particles for the state.
 <<Parton states: parton state: TBP>>=
   procedure :: get_n_out => parton_state_get_n_out
 <<Parton states: sub interfaces>>=
     module function parton_state_get_n_out (state) result (n)
       class(parton_state_t), intent(in), target :: state
       integer :: n
     end function parton_state_get_n_out
 <<Parton states: procedures>>=
   module function parton_state_get_n_out (state) result (n)
     class(parton_state_t), intent(in), target :: state
     integer :: n
     n = state%trace%get_n_out ()
   end function parton_state_get_n_out
 
 @ %def parton_state_get_n_out
 @
 \subsection{Unit tests}
 <<[[parton_states_ut.f90]]>>=
 <<File header>>
 
 module parton_states_ut
   use unit_tests
   use parton_states_uti
 
 <<Standard module head>>
 
 <<Parton states: public test>>
 
 contains
 
 <<Parton states: test driver>>
 
 end module parton_states_ut
 @ %def parton_states_ut
 <<[[parton_states_uti.f90]]>>=
 <<File header>>
 
 module parton_states_uti
 
 <<Use kinds>>
 <<Use strings>>
   use constants, only: zero
   use numeric_utils
   use flavors
   use colors
   use helicities
   use quantum_numbers
   use sf_base, only: sf_chain_instance_t
   use state_matrices, only: state_matrix_t
   use prc_template_me, only: prc_template_me_t
   use interactions, only: interaction_t
   use models, only: model_t, create_test_model
   use parton_states
 
 <<Standard module head>>
 
 <<Parton states: test declarations>>
 
 contains
 
 <<Parton states: tests>>
 
 end module parton_states_uti
 @ %def parton_states_uti
 @
 <<Parton states: public test>>=
   public :: parton_states_test
 <<Parton states: test driver>>=
   subroutine parton_states_test (u, results)
     integer, intent(in) :: u
     type(test_results_t), intent(inout) :: results
   <<Parton states: execute tests>>
   end subroutine parton_states_test
 
 @ %def parton_states_test
 @
 \subsubsection{Test a simple isolated state}
 <<Parton states: execute tests>>=
   call test (parton_states_1, "parton_states_1", &
        "Create a 2 -> 2 isolated state and compute trace", &
        u, results)
 <<Parton states: test declarations>>=
   public :: parton_states_1
 <<Parton states: tests>>=
   subroutine parton_states_1 (u)
     integer, intent(in) :: u
     type(state_matrix_t), allocatable :: state
     type(flavor_t), dimension(2) :: flv_in
     type(flavor_t), dimension(2) :: flv_out1, flv_out2
     type(flavor_t), dimension(4) :: flv_tot
     type(helicity_t), dimension(4) :: hel
     type(color_t), dimension(4) :: col
     integer :: h1, h2, h3, h4
     integer :: f
     integer :: i
     type(quantum_numbers_t), dimension(4) :: qn
     type(prc_template_me_t) :: core
     type(sf_chain_instance_t), target :: sf_chain
     type(interaction_t), target :: int
     type(isolated_state_t) :: isolated_state
     integer :: n_states = 0
     integer, dimension(:), allocatable :: col_flow_index
     type(quantum_numbers_mask_t), dimension(2) :: qn_mask
     integer, dimension(8) :: i_allowed_states
     complex(default), dimension(8) :: me
     complex(default) :: me_check_tot, me_check_1, me_check_2, me2
     logical :: tmp1, tmp2
     type(model_t), pointer :: test_model => null ()
 
     write (u, "(A)") "* Test output: parton_states_1"
     write (u, "(A)") "* Purpose: Test the standard parton states"
     write (u, "(A)")
 
     call flv_in%init ([11, -11])
     call flv_out1%init ([1, -1])
     call flv_out2%init ([2, -2])
 
     write (u, "(A)") "* Using incoming flavors: "
     call flavor_write_array (flv_in, u)
     write (u, "(A)") "* Two outgoing flavor structures: "
     call flavor_write_array (flv_out1, u)
     call flavor_write_array (flv_out2, u)
 
 
     write (u, "(A)") "* Initialize state matrix"
     allocate (state)
     call state%init ()
 
     write (u, "(A)") "* Fill state matrix"
     call col(3)%init ([1])
     call col(4)%init ([-1])
     do f = 1, 2
        do h1 = -1, 1, 2
           do h2 = -1, 1, 2
              do h3 = -1, 1, 2
                 do h4 = -1, 1, 2
                    n_states = n_states + 1
                    call hel%init ([h1, h2, h3, h4], [h1, h2, h3, h4])
                    if (f == 1) then
                       flv_tot = [flv_in, flv_out1]
                    else
                       flv_tot = [flv_in, flv_out2]
                    end if
                    call qn%init (flv_tot, col, hel)
                    call state%add_state (qn)
                 end do
              end do
           end do
        end do
     end do
 
     !!! Two flavors, one color flow, 2 x 2 x 2 x 2 helicity configurations
     !!! -> 32 states.
     write (u, "(A)")
     write (u, "(A,I2)") "* Generated number of states: ", n_states
 
     call state%freeze ()
 
     !!! Indices of the helicity configurations which are non-zero
     i_allowed_states = [6, 7, 10, 11, 22, 23, 26, 27]
     me = [cmplx (-1.89448E-5_default,  9.94456E-7_default, default), &
           cmplx (-8.37887E-2_default,  4.30842E-3_default, default), &
           cmplx (-1.99997E-1_default, -1.01985E-2_default, default), &
           cmplx ( 1.79717E-5_default,  9.27038E-7_default, default), &
           cmplx (-1.74859E-5_default,  8.78819E-7_default, default), &
           cmplx ( 1.67577E-1_default, -8.61683E-3_default, default), &
           cmplx ( 2.41331E-1_default,  1.23306E-2_default, default), &
           cmplx (-3.59435E-5_default, -1.85407E-6_default, default)]
     me_check_tot = cmplx (zero, zero, default)
     me_check_1 = cmplx (zero, zero, default)
     me_check_2 = cmplx (zero, zero, default)
     do i = 1, 8
        me2 = me(i) * conjg (me(i))
        me_check_tot = me_check_tot + me2
        if (i < 5) then
           me_check_1 = me_check_1 + me2
        else
           me_check_2 = me_check_2 + me2
        end if
        call state%set_matrix_element (i_allowed_states(i), me(i))
     end do
 
     !!! Do not forget the color factor
     me_check_tot = 3._default * me_check_tot
     me_check_1 = 3._default * me_check_1
     me_check_2 = 3._default * me_check_2
     write (u, "(A)")
 
     write (u, "(A)") "* Setup interaction"
     call int%basic_init (2, 0, 2, set_relations = .true.)
     call int%set_state_matrix (state)
 
     core%data%n_in = 2; core%data%n_out = 2
     core%data%n_flv = 2
     allocate (core%data%flv_state (4, 2))
     core%data%flv_state (1, :) = [11, 11]
     core%data%flv_state (2, :) = [-11, -11]
     core%data%flv_state (3, :) = [1, 2]
     core%data%flv_state (4, :) = [-1, -2]
     core%use_color_factors = .false.
     core%nc = 3
 
     write (u, "(A)") "* Init isolated state"
     call isolated_state%init (sf_chain, int)
     !!! There is only one color flow.
     allocate (col_flow_index (n_states)); col_flow_index = 1
     call qn_mask%init (.false., .false., .true., mask_cg = .false.)
     write (u, "(A)") "* Give a trace to the isolated state"
     call isolated_state%setup_square_trace (core, qn_mask, col_flow_index, .false.)
     call isolated_state%evaluate_trace ()
     write (u, "(A)")
     write (u, "(A)", advance = "no") "* Squared matrix element correct: "
     write (u, "(L1)") nearly_equal (me_check_tot, &
        isolated_state%trace%get_matrix_element (1), rel_smallness = 0.00001_default)
 
 
     write (u, "(A)") "* Give a matrix to the isolated state"
     call create_test_model (var_str ("SM"), test_model)
     call isolated_state%setup_square_matrix (core, test_model, qn_mask, col_flow_index)
     call isolated_state%evaluate_matrix ()
 
     write (u, "(A)") "* Sub-matrixelements correct: "
     tmp1 = nearly_equal (me_check_1, &
        isolated_state%matrix%get_matrix_element (1), rel_smallness = 0.00001_default)
     tmp2 = nearly_equal (me_check_2, &
        isolated_state%matrix%get_matrix_element (2), rel_smallness = 0.00001_default)
     write (u, "(A,L1,A,L1)") "* 1: ", tmp1, ", 2: ", tmp2
 
     write (u, "(A)") "* Test output end: parton_states_1"
   end subroutine parton_states_1
 
 @ %def parton_states_1
 @
 %%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
 \section{Process component management}
 This module contains tools for managing and combining process
 components and matrix-element code and values, acting at a level below
 the actual process definition.
 
 \subsection{Abstract base type}
 The types introduced here are abstract base types.
 <<[[pcm_base.f90]]>>=
 <<File header>>
 
 module pcm_base
 
 <<Use kinds>>
 <<Use strings>>
   use os_interface, only: os_data_t
 
   use process_libraries, only: process_library_t
 
   use prc_core_def
   use prc_core
 
   use variables, only: var_list_t
   use mappings, only: mapping_defaults_t
   use phs_base, only: phs_config_t
   use phs_forests, only: phs_parameters_t
   use mci_base, only: mci_t
   use model_data, only: model_data_t
   use models, only: model_t
 
   use blha_config, only: blha_master_t
   use blha_olp_interfaces, only: blha_template_t
   use process_config
   use process_mci, only: process_mci_entry_t
 
 <<Standard module head>>
 
 <<PCM base: public>>
 
 <<PCM base: parameters>>
 
 <<PCM base: types>>
 
 <<PCM base: interfaces>>
 
   interface
 <<PCM base: sub interfaces>>
   end interface
 
 end module pcm_base
 @ %def pcm_base
 @
 <<[[pcm_base_sub.f90]]>>=
 <<File header>>
 
 submodule (pcm_base) pcm_base_s
 
   use io_units
   use diagnostics
   use format_utils, only: write_integer_array
   use format_utils, only: write_separator
   use physics_defs, only: BORN, NLO_REAL
 
   implicit none
 
 contains
 
 <<PCM base: procedures>>
 
 end submodule pcm_base_s
 
 @ %def pcm_base_s
 @
 \subsection{Core management}
 This object holds information about the cores used by the components
 and allocates the corresponding manager instance.
 
 [[i_component]] is the index of the process component which this core belongs
 to.  The pointer to the core definition is a convenient help in configuring
 the core itself.
 
 We allow for a [[blha_config]] configuration object that covers BLHA cores.
 The BLHA standard is suitable generic to warrant support outside of specific
 type extension (i.e., applies to LO and NLO if requested).  The BLHA
 configuration is allocated only if the core requires it.
 <<PCM base: public>>=
   public :: core_entry_t
 <<PCM base: types>>=
   type :: core_entry_t
      integer :: i_component = 0
      logical :: active = .false.
      class(prc_core_def_t), pointer :: core_def => null ()
      type(blha_template_t), allocatable :: blha_config
      class(prc_core_t), allocatable :: core
    contains
    <<PCM base: core entry: TBP>>
   end type core_entry_t
 
 @ %def core_entry_t
 @
 <<PCM base: core entry: TBP>>=
   procedure :: get_core_ptr => core_entry_get_core_ptr
 <<PCM base: sub interfaces>>=
     module function core_entry_get_core_ptr (core_entry) result (core)
       class(core_entry_t), intent(in), target :: core_entry
       class(prc_core_t), pointer :: core
     end function core_entry_get_core_ptr
 <<PCM base: procedures>>=
   module function core_entry_get_core_ptr (core_entry) result (core)
     class(core_entry_t), intent(in), target :: core_entry
     class(prc_core_t), pointer :: core
     if (allocated (core_entry%core)) then
        core => core_entry%core
     else
        core => null ()
     end if
   end function core_entry_get_core_ptr
 
 @ %def core_entry_get_core_ptr
 @ Configure the core object after allocation with correct type.  The
 [[core_def]] object pointer and the index [[i_component]] of the associated
 process component are already there.
 <<PCM base: core entry: TBP>>=
   procedure :: configure => core_entry_configure
 <<PCM base: sub interfaces>>=
     module subroutine core_entry_configure (core_entry, lib, id)
       class(core_entry_t), intent(inout) :: core_entry
       type(process_library_t), intent(in), target :: lib
       type(string_t), intent(in) :: id
     end subroutine core_entry_configure
 <<PCM base: procedures>>=
   module subroutine core_entry_configure (core_entry, lib, id)
     class(core_entry_t), intent(inout) :: core_entry
     type(process_library_t), intent(in), target :: lib
     type(string_t), intent(in) :: id
     call core_entry%core%init &
          (core_entry%core_def, lib, id, core_entry%i_component)
   end subroutine core_entry_configure
 
 @ %def core_entry_configure
 @
 \subsection{Process component manager}
 The process-component manager [[pcm]] is the master component of the
 [[process_t]] object.  It serves two purposes:
 \begin{enumerate}
 \item
   It holds configuration data which allow us to centrally manage the
   components, terms, etc.\ of the process object.
 \item
   It implements the methods that realize the algorithm for constructing
   the process object and computing an integral.  This algorithm makes
   use of the data stored within [[pcm]].
 \end{enumerate}
 To this end, the object is abstract and polymorphic.  The two
 extensions that we support, implement (a) default tree-level
 calculation, optionally including a sum over sub-processes with
 different particle content, or (b) the FKS-NLO subtraction algorithm for
 QCD-corrected processes.  In both cases, the type extensions may hold
 suitable further data.
 
 Data included in the base type:
 
 The number of components determines the [[component_selected]] array.
 
 [[i_phs_config]] is a lookup table that holds the PHS configuration index
 for a given component index.
 
 [[i_core]] is a lookup table that holds the core-entry index for a
 given component index.
 
 [[i_mci]] is a lookup table that holds the integrator (MCI) index for
 a given component index.
 <<PCM base: public>>=
   public :: pcm_t
 <<PCM base: types>>=
   type, abstract :: pcm_t
      logical :: initialized = .false.
      logical :: has_pdfs = .false.
      integer :: n_components = 0
      integer :: n_cores = 0
      integer :: n_mci = 0
      logical, dimension(:), allocatable :: component_selected
      logical, dimension(:), allocatable :: component_active
      integer, dimension(:), allocatable :: i_phs_config
      integer, dimension(:), allocatable :: i_core
      integer, dimension(:), allocatable :: i_mci
      type(blha_template_t) :: blha_defaults
      logical :: uses_blha = .false.
      type(os_data_t) :: os_data
   contains
   <<PCM base: pcm: TBP>>
   end type pcm_t
 
 @ %def pcm_t
 @ The factory method.  We use the [[inout]] intent, so calling this
 again is an error.
 <<PCM base: pcm: TBP>>=
   procedure(pcm_allocate_workspace), deferred :: allocate_workspace
 <<PCM base: interfaces>>=
   abstract interface
      subroutine pcm_allocate_workspace (pcm, work)
        import
        class(pcm_t), intent(in) :: pcm
        class(pcm_workspace_t), intent(inout), allocatable :: work
      end subroutine pcm_allocate_workspace
   end interface
 
 @ %def pcm_allocate_workspace
 @
 <<PCM base: pcm: TBP>>=
   procedure(pcm_is_nlo), deferred :: is_nlo
 <<PCM base: interfaces>>=
   abstract interface
      function pcm_is_nlo (pcm) result (is_nlo)
         import
         logical :: is_nlo
         class(pcm_t), intent(in) :: pcm
      end function pcm_is_nlo
   end interface
 
 @ %def pcm_is_nlo
 @
 <<PCM base: pcm: TBP>>=
   procedure(pcm_final), deferred :: final
 <<PCM base: interfaces>>=
   abstract interface
      subroutine pcm_final (pcm)
         import
         class(pcm_t), intent(inout) :: pcm
      end subroutine pcm_final
   end interface
 
 @ %def pcm_final
 @
 \subsection{Initialization methods}
 The PCM has the duty to coordinate and configure the process-object
 components.
 
 Initialize the PCM configuration itself, using environment data.
 <<PCM base: pcm: TBP>>=
   procedure(pcm_init), deferred :: init
 <<PCM base: interfaces>>=
   abstract interface
      subroutine pcm_init (pcm, env, meta)
        import
        class(pcm_t), intent(out) :: pcm
        type(process_environment_t), intent(in) :: env
        type(process_metadata_t), intent(in) :: meta
      end subroutine pcm_init
   end interface
 
 @ %def pcm_init
 @
 Initialize the BLHA configuration block, the component-independent default
 settings.  This is to be called by [[pcm_init]].  We use the provided variable
 list.
 
 This block is filled regardless of whether BLHA is actually used, because why
 not?  We use a default value for the scheme (not set in unit tests).
 <<PCM base: pcm: TBP>>=
   procedure :: set_blha_defaults => pcm_set_blha_defaults
 <<PCM base: sub interfaces>>=
     module subroutine pcm_set_blha_defaults (pcm, polarized_beams, var_list)
       class(pcm_t), intent(inout) :: pcm
       type(var_list_t), intent(in) :: var_list
       logical, intent(in) :: polarized_beams
     end subroutine pcm_set_blha_defaults
 <<PCM base: procedures>>=
   module subroutine pcm_set_blha_defaults (pcm, polarized_beams, var_list)
     class(pcm_t), intent(inout) :: pcm
     type(var_list_t), intent(in) :: var_list
     logical, intent(in) :: polarized_beams
     logical :: muon_yukawa_off
     real(default) :: top_yukawa
     type(string_t) :: ew_scheme
     muon_yukawa_off = &
          var_list%get_lval (var_str ("?openloops_switch_off_muon_yukawa"))
     top_yukawa = &
          var_list%get_rval (var_str ("blha_top_yukawa"))
     ew_scheme = &
          var_list%get_sval (var_str ("$blha_ew_scheme"))
     if (ew_scheme == "")  ew_scheme = "Gmu"
     call pcm%blha_defaults%init &
          (polarized_beams, muon_yukawa_off, top_yukawa, ew_scheme)
   end subroutine pcm_set_blha_defaults
 
 @ %def pcm_set_blha_defaults
 @ Read the method settings from the variable list and store them in the BLHA
 master.  The details depend on the [[pcm]] concrete type.
 <<PCM base: pcm: TBP>>=
   procedure(pcm_set_blha_methods), deferred :: set_blha_methods
 <<PCM base: interfaces>>=
   abstract interface
      subroutine pcm_set_blha_methods (pcm, blha_master, var_list)
        import
        class(pcm_t), intent(inout) :: pcm
        type(blha_master_t), intent(inout) :: blha_master
        type(var_list_t), intent(in) :: var_list
      end subroutine pcm_set_blha_methods
   end interface
 
 @ %def pcm_set_blha_methods
 @ Produce the LO and NLO flavor-state tables (as far as available), as
 appropriate for BLHA configuration.  We may inspect either the PCM itself or
 the array of process cores.
 <<PCM base: pcm: TBP>>=
   procedure(pcm_get_blha_flv_states), deferred :: get_blha_flv_states
 <<PCM base: interfaces>>=
   abstract interface
      subroutine pcm_get_blha_flv_states (pcm, core_entry, flv_born, flv_real)
        import
        class(pcm_t), intent(in) :: pcm
        type(core_entry_t), dimension(:), intent(in) :: core_entry
        integer, dimension(:,:), allocatable, intent(out) :: flv_born
        integer, dimension(:,:), allocatable, intent(out) :: flv_real
      end subroutine pcm_get_blha_flv_states
   end interface
 
 @ %def pcm_get_blha_flv_states
 @
 Allocate the right number of process components.  The number is also stored in
 the process meta.  Initially, all components are active but none are
 selected.
 <<PCM base: pcm: TBP>>=
   procedure :: allocate_components => pcm_allocate_components
 <<PCM base: sub interfaces>>=
     module subroutine pcm_allocate_components (pcm, comp, meta)
       class(pcm_t), intent(inout) :: pcm
       type(process_component_t), dimension(:), allocatable, intent(out) :: comp
       type(process_metadata_t), intent(in) :: meta
     end subroutine pcm_allocate_components
 <<PCM base: procedures>>=
   module subroutine pcm_allocate_components (pcm, comp, meta)
     class(pcm_t), intent(inout) :: pcm
     type(process_component_t), dimension(:), allocatable, intent(out) :: comp
     type(process_metadata_t), intent(in) :: meta
     pcm%n_components = meta%n_components
     allocate (comp (pcm%n_components))
     allocate (pcm%component_selected (pcm%n_components), source = .false.)
     allocate (pcm%component_active (pcm%n_components), source = .true.)
   end subroutine pcm_allocate_components
 
 @ %def pcm_allocate_components
 @ Each process component belongs to a category/type, which we identify by a
 universal integer constant.  The categories can be taken from the process
 definition.  For easy lookup, we store the categories in an array.
 <<PCM base: pcm: TBP>>=
   procedure(pcm_categorize_components), deferred :: categorize_components
 <<PCM base: interfaces>>=
   abstract interface
      subroutine pcm_categorize_components (pcm, config)
        import
        class(pcm_t), intent(inout) :: pcm
        type(process_config_data_t), intent(in) :: config
      end subroutine pcm_categorize_components
   end interface
 
 @ %def pcm_categorize_components
 @
 Allocate the right number and type(s) of process-core
 objects, i.e., the interface object between the process and matrix-element
 code.
 
 Within the [[pcm]] block, also associate cores with components and store
 relevant configuration data, including the [[i_core]] lookup table.
 <<PCM base: pcm: TBP>>=
   procedure(pcm_allocate_cores), deferred :: allocate_cores
 <<PCM base: interfaces>>=
   abstract interface
      subroutine pcm_allocate_cores (pcm, config, core_entry)
        import
        class(pcm_t), intent(inout) :: pcm
        type(process_config_data_t), intent(in) :: config
        type(core_entry_t), dimension(:), allocatable, intent(out) :: core_entry
      end subroutine pcm_allocate_cores
   end interface
 
 @ %def pcm_allocate_cores
 @ Generate and interface external code for a single core, if this is
 required.
 <<PCM base: pcm: TBP>>=
   procedure(pcm_prepare_any_external_code), deferred :: &
        prepare_any_external_code
 <<PCM base: interfaces>>=
   abstract interface
      subroutine pcm_prepare_any_external_code &
           (pcm, core_entry, i_core, libname, model, var_list)
        import
        class(pcm_t), intent(in) :: pcm
        type(core_entry_t), intent(inout) :: core_entry
        integer, intent(in) :: i_core
        type(string_t), intent(in) :: libname
        type(model_data_t), intent(in), target :: model
        type(var_list_t), intent(in) :: var_list
      end subroutine pcm_prepare_any_external_code
   end interface
 
 @ %def pcm_prepare_any_external_code
 @ Prepare the BLHA configuration for a core object that requires it.  This
 does not affect the core object, which may not yet be allocated.
 <<PCM base: pcm: TBP>>=
   procedure(pcm_setup_blha), deferred :: setup_blha
 <<PCM base: interfaces>>=
   abstract interface
      subroutine pcm_setup_blha (pcm, core_entry)
        import
        class(pcm_t), intent(in) :: pcm
        type(core_entry_t), intent(inout) :: core_entry
      end subroutine pcm_setup_blha
   end interface
 
 @ %def pcm_setup_blha
 @ Configure the BLHA interface for a core object that requires it.  This is
 separate from the previous method, assuming that the [[pcm]] has to allocate
 the actual cores and acquire some data in-between.
 <<PCM base: pcm: TBP>>=
   procedure(pcm_prepare_blha_core), deferred :: prepare_blha_core
 <<PCM base: interfaces>>=
   abstract interface
      subroutine pcm_prepare_blha_core (pcm, core_entry, model)
        import
        class(pcm_t), intent(in) :: pcm
        type(core_entry_t), intent(inout) :: core_entry
        class(model_data_t), intent(in), target :: model
      end subroutine pcm_prepare_blha_core
   end interface
 
 @ %def pcm_prepare_blha_core
 @ Allocate and configure the MCI (multi-channel integrator) records and their
 relation to process components, appropriate for the algorithm implemented by
 [[pcm]].
 
 Create a [[mci_t]] template: the procedure [[dispatch_mci]] is called as a
 factory method for allocating the [[mci_t]] object with a specific concrete
 type.  The call may depend on the concrete [[pcm]] type.
 <<PCM base: public>>=
   public :: dispatch_mci_proc
 <<PCM base: interfaces>>=
   abstract interface
      subroutine dispatch_mci_proc (mci, var_list, process_id, is_nlo)
        import
        class(mci_t), allocatable, intent(out) :: mci
        type(var_list_t), intent(in) :: var_list
        type(string_t), intent(in) :: process_id
        logical, intent(in), optional :: is_nlo
      end subroutine dispatch_mci_proc
   end interface
 
 @ %def dispatch_mci_proc
 <<PCM base: pcm: TBP>>=
   procedure(pcm_setup_mci), deferred :: setup_mci
   procedure(pcm_call_dispatch_mci), deferred :: call_dispatch_mci
 <<PCM base: interfaces>>=
   abstract interface
      subroutine pcm_setup_mci (pcm, mci_entry)
        import
        class(pcm_t), intent(inout) :: pcm
        type(process_mci_entry_t), &
             dimension(:), allocatable, intent(out) :: mci_entry
      end subroutine pcm_setup_mci
   end interface
 
   abstract interface
      subroutine pcm_call_dispatch_mci (pcm, &
           dispatch_mci, var_list, process_id, mci_template)
        import
        class(pcm_t), intent(inout) :: pcm
        procedure(dispatch_mci_proc) :: dispatch_mci
        type(var_list_t), intent(in) :: var_list
        type(string_t), intent(in) :: process_id
        class(mci_t), intent(out), allocatable :: mci_template
      end subroutine pcm_call_dispatch_mci
   end interface
 
 @ %def pcm_setup_mci
 @ %def pcm_call_dispatch_mci
 @ Proceed with PCM configuration based on the core and component
 configuration data.  Base version is empty.
 <<PCM base: pcm: TBP>>=
   procedure(pcm_complete_setup), deferred :: complete_setup
 <<PCM base: interfaces>>=
   abstract interface
      subroutine pcm_complete_setup (pcm, core_entry, component, model)
        import
        class(pcm_t), intent(inout) :: pcm
        type(core_entry_t), dimension(:), intent(in) :: core_entry
        type(process_component_t), dimension(:), intent(inout) :: component
        type(model_t), intent(in), target :: model
      end subroutine pcm_complete_setup
   end interface
 
 @ %def pcm_complete_setup
 @
 \subsubsection{Retrieve information}
 Return the core index that belongs to a particular component.
 <<PCM base: pcm: TBP>>=
   procedure :: get_i_core => pcm_get_i_core
 <<PCM base: sub interfaces>>=
     module function pcm_get_i_core (pcm, i_component) result (i_core)
       class(pcm_t), intent(in) :: pcm
       integer, intent(in) :: i_component
       integer :: i_core
     end function pcm_get_i_core
 <<PCM base: procedures>>=
   module function pcm_get_i_core (pcm, i_component) result (i_core)
     class(pcm_t), intent(in) :: pcm
     integer, intent(in) :: i_component
     integer :: i_core
     if (allocated (pcm%i_core)) then
        i_core = pcm%i_core(i_component)
     else
        i_core = 0
     end if
   end function pcm_get_i_core
 
 @ %def pcm_get_i_core
 @
 \subsubsection{Phase-space configuration}
 Allocate and initialize the right number and type(s) of phase-space
 configuration entries.  The [[i_phs_config]] lookup table must be set
 accordingly.
 <<PCM base: pcm: TBP>>=
   procedure(pcm_init_phs_config), deferred :: init_phs_config
 <<PCM base: interfaces>>=
   abstract interface
      subroutine pcm_init_phs_config &
           (pcm, phs_entry, meta, env, phs_par, mapping_defs)
        import
        class(pcm_t), intent(inout) :: pcm
        type(process_phs_config_t), &
             dimension(:), allocatable, intent(out) :: phs_entry
        type(process_metadata_t), intent(in) :: meta
        type(process_environment_t), intent(in) :: env
        type(mapping_defaults_t), intent(in) :: mapping_defs
        type(phs_parameters_t), intent(in) :: phs_par
      end subroutine pcm_init_phs_config
   end interface
 
 @ %def pcm_init_phs_config
 @
 Initialize a single component.  We require all process-configuration blocks,
 and specific templates for the phase-space and integrator configuration.
 
 We also provide the current component index [[i]] and the [[active]] flag.
 <<PCM base: pcm: TBP>>=
   procedure(pcm_init_component), deferred :: init_component
 <<PCM base: interfaces>>=
   abstract interface
      subroutine pcm_init_component &
           (pcm, component, i, active, phs_config, env, meta, config)
        import
        class(pcm_t), intent(in) :: pcm
        type(process_component_t), intent(out) :: component
        integer, intent(in) :: i
        logical, intent(in) :: active
        class(phs_config_t), allocatable, intent(in) :: phs_config
        type(process_environment_t), intent(in) :: env
        type(process_metadata_t), intent(in) :: meta
        type(process_config_data_t), intent(in) :: config
      end subroutine pcm_init_component
   end interface
 
 @ %def pcm_init_component
 @
 Record components in the process [[meta]] data if they have turned
 out to be inactive.
 <<PCM base: pcm: TBP>>=
   procedure :: record_inactive_components => pcm_record_inactive_components
 <<PCM base: sub interfaces>>=
     module subroutine pcm_record_inactive_components (pcm, component, meta)
       class(pcm_t), intent(inout) :: pcm
       type(process_component_t), dimension(:), intent(in) :: component
       type(process_metadata_t), intent(inout) :: meta
     end subroutine pcm_record_inactive_components
 <<PCM base: procedures>>=
   module subroutine pcm_record_inactive_components (pcm, component, meta)
     class(pcm_t), intent(inout) :: pcm
     type(process_component_t), dimension(:), intent(in) :: component
     type(process_metadata_t), intent(inout) :: meta
     integer :: i
     pcm%component_active = component%active
     do i = 1, pcm%n_components
        if (.not. component(i)%active)  call meta%deactivate_component (i)
     end do
   end subroutine pcm_record_inactive_components
 
 @ %def pcm_record_inactive_components
 @
 \subsection{Manager workspace}
 This object deals with the actual (squared) matrix element values.  It
 holds any central data that are generated and/or used when calculating
 a particular phase-space point.
 
 Since phase-space points are associated with an integrator, we expect the
 instances of this type to correspond to MCI instances.
 <<PCM base: public>>=
   public :: pcm_workspace_t
 <<PCM base: types>>=
   type, abstract :: pcm_workspace_t
 !     class(pcm_t), pointer :: config => null ()
     logical :: bad_point = .false.
   contains
   <<PCM base: pcm instance: TBP>>
   end type pcm_workspace_t
 
 @ %def pcm_workspace_t
 @
 <<PCM base: pcm instance: TBP>>=
   procedure(pcm_work_final), deferred :: final
 <<PCM base: interfaces>>=
   abstract interface
      subroutine pcm_work_final (pcm_work)
         import
         class(pcm_workspace_t), intent(inout) :: pcm_work
      end subroutine pcm_work_final
   end interface
 
 @ %def pcm_work_final
 @
 <<PCM base: pcm instance: TBP>>=
   procedure(pcm_work_is_nlo), deferred :: is_nlo
 <<PCM base: interfaces>>=
   abstract interface
      function pcm_work_is_nlo (pcm_work) result (is_nlo)
         import
         logical :: is_nlo
         class(pcm_workspace_t), intent(inout) :: pcm_work
       end function pcm_work_is_nlo
   end interface
 
 @ %def pcm_work_is_nlo
 @
 <<XXX PCM base: pcm instance: TBP>>=
   procedure :: link_config => pcm_work_link_config
 <<XXX PCM base: procedures>>=
   subroutine pcm_work_link_config (pcm_work, config)
      class(pcm_workspace_t), intent(inout) :: pcm_work
      class(pcm_t), intent(in), target :: config
      pcm_work%config => config
   end subroutine pcm_work_link_config
 
 @ %def pcm_work_link_config
 @
 <<PCM base: pcm instance: TBP>>=
   procedure :: is_valid => pcm_work_is_valid
 <<PCM base: sub interfaces>>=
     module function pcm_work_is_valid (pcm_work) result (valid)
       logical :: valid
       class(pcm_workspace_t), intent(in) :: pcm_work
     end function pcm_work_is_valid
 <<PCM base: procedures>>=
   module function pcm_work_is_valid (pcm_work) result (valid)
     logical :: valid
     class(pcm_workspace_t), intent(in) :: pcm_work
     valid = .not. pcm_work%bad_point
   end function pcm_work_is_valid
 
 @ %def pcm_work_is_valid
 @
 <<PCM base: pcm instance: TBP>>=
   procedure :: set_bad_point => pcm_work_set_bad_point
 <<PCM base: sub interfaces>>=
     pure module subroutine pcm_work_set_bad_point (pcm_work, bad_point)
       class(pcm_workspace_t), intent(inout) :: pcm_work
       logical, intent(in) :: bad_point
     end subroutine pcm_work_set_bad_point
 <<PCM base: procedures>>=
   pure module subroutine pcm_work_set_bad_point (pcm_work, bad_point)
     class(pcm_workspace_t), intent(inout) :: pcm_work
     logical, intent(in) :: bad_point
     pcm_work%bad_point = pcm_work%bad_point .or. bad_point
   end subroutine pcm_work_set_bad_point
 
 @ %def pcm_work_set_bad_point
 @
 %%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
 \section{The process object}
 <<[[process.f90]]>>=
 <<File header>>
 
 module process
 
 <<Use kinds>>
 <<Use strings>>
 <<Use debug>>
   use diagnostics
   use lorentz
   use rng_base
   use dispatch_rng, only: dispatch_rng_factory
   use dispatch_rng, only: update_rng_seed_in_var_list
   use os_interface
   use sm_qcd
   use mci_base
   use flavors
   use model_data
   use models
   use process_libraries
   use process_constants
   use variables
   use beam_structures
   use beams
   use pdg_arrays
   use expr_base
   use sf_base
   use sf_mappings
   use resonances, only: resonance_history_t, resonance_history_set_t
 
   use prc_test_core, only: test_t
   use prc_core_def, only: prc_core_def_t
   use prc_core, only: prc_core_t, helicity_selection_t
   use phs_base
 
   use parton_states, only: connected_state_t
   use pcm_base
   use pcm
   use process_counter
   use process_config
   use process_mci
 
 <<Standard module head>>
 
 <<Process: public>>
 
 <<Process: types>>
 
 <<Process: interfaces>>
 
   interface
 <<Process: sub interfaces>>
   end interface
 
 contains
 
 <<Process: main procedures>>
 
 end module process
 @ %def process
 @
 <<[[process_sub.f90]]>>=
 <<File header>>
 
 submodule (process) process_s
 
   use io_units
   use format_utils, only: write_separator
   use constants
   use numeric_utils
   use cputime
   use md5
   use integration_results
   use physics_defs
   use interactions
   use particles
   use dispatch_phase_space, only: dispatch_phs
   use prc_external, only: prc_external_t
   use prc_recola, only: prc_recola_t
   use blha_olp_interfaces, only: prc_blha_t, blha_template_t
   use prc_threshold, only: prc_threshold_t
   use phs_fks, only: phs_fks_config_t
   use mappings, only: mapping_defaults_t
   use phs_forests, only: phs_parameters_t
   use phs_wood, only: phs_wood_config_t
   use blha_config, only: blha_master_t
 
   implicit none
 
 contains
 
 <<Process: procedures>>
 
 end submodule process_s
 
 @ %def process_s
 @
 \subsection{Process status}
 Store counter and status information in a process object.
 <<Process: types>>=
   type :: process_status_t
      private
   end type process_status_t
 
 @ %def process_status_t
 @
 \subsection{Process status}
 Store integration results in a process object.
 <<Process: types>>=
   type :: process_results_t
      private
   end type process_results_t
 
 @ %def process_results_t
 @
 \subsection{The process type}
 NOTE: The description below represents the intended structure after
 refactoring and disentangling the FKS-NLO vs. LO algorithm dependencies.
 
 A [[process]] object is the internal representation of integration-run
 methods and data, as they are controlled by the user via a Sindarin
 script.  The process object provides access to matrix elements (the
 actual ``process'' definitions that the user has provided before), it
 defines the separation into individually integrable components, and it
 manages phase-space construction, the actual integration over phase
 space, and the accumulation of results.
 
 As a workspace for individual sampling calls, we introduce an
 associated [[process_instance]] object type elsewhere.  The
 [[process]] object contains data that either define the configuration
 or accumulate results from a complete integration pass.
 
 After successful phase-space integration, subsequent event generation
 is not actually represented by the [[process]] object.  However, any
 event generation refers to an existing [[process]] object which
 represents a specific integration pass, and it uses a fresh
 [[process_instance]] workspace for calculations.
 
 The process object consists of several subobjects with their specific
 purposes.  The corresponding types are defined below.  (Technically,
 the subobject type definitions have to come before the process type
 definition, but with NOWEB magic we reverse this order here.)
 
 The [[meta]] object describes the process globally.  All
 contents become fixed when the object is initialized.  Similarly, the
 [[env]] component captures the (Sindarin) environment at the point
 where the process object is initialized.
 
 The [[config]] object holds physical and technical configuration data
 that are collected and derived from the environment during process
 initialization, and which are common to all process components.
 
 The [[pcm]] object (process-component manager) is polymorphic.  This
 is an object which holds data which represent the process-object
 structure and breakdown, and it contains the methods that implement
 the algorithm of managing this structure, accumulating partial
 results, and finally collecting the pieces.  Depending on the generic
 process type, the contents of [[pcm]] do vary.  In particular, there
 is some base-type data content and a simple (default) extension which
 is designed for traditional \oMega\ matrix elements and tree-level
 integration, possibly with several sub-processes to sum over.  The
 second extension is designed for the FKS phase-space and subtraction
 algorithm for NLO QCD, which interfaces external one-loop providers.
 
 The [[component]] subobjects are, first of all, interfaces to the
 original process-component definitions that have been provided by the
 user, which the program has already taken to produce matrix-element
 code and interfaces.  The management of those components is deferred
 by [[pcm]], which contains the information that defines the role of
 each component.  In particular, in the default (LO) version, process
 components correspond to distinct particle combinations which have
 been included in the original process definition.  In the FKS-NLO
 version, the breakdown of a NLO process into Born, real, virtual,
 etc.\ components determines the setup.
 
 The [[phs_config]] subobjects hold data that allow and implement the
 construction of phase-space configurations.  The type
 [[process_phs_config_t]] is a wrapper type around the concrete
 polymorphic [[phs_config_t]] object type, which manages phase-space
 construction, including some bookkeeping required for setting up
 multi-channel integration.  In the LO case, we expect a separate entry
 for each independent sub-process.  For the FKS-NLO algorithm, we
 expect several entries: a default-type entry which implements the
 underlying Born phase space, and additional entries which enable
 the construction of various real-radiation and subtraction kinematics
 configurations.
 
 A [[core_entry]] is the interface to existing matrix-element and
 interaction code.  Depending on the process and its components, there
 may be various distinct matrix elements to compute.
 
 The [[mci_entry]] objects configure distinct MC input parameter sets
 and their associated (multi-channel) integrators.
 
 The [[rng_factory]] object is a single objects which constructs
 individual random-number generators for various tasks, in a uniform
 and well-defined way.
 
 The [[beam_config]] object describes the incoming particles, either the
 decay mother or the scattering beams.  It also contains the spectrum-
 and structure-function setup, which has to interact with the
 phase-space and integrator facilities.
 
 The [[term]] subobjects break down the process in its smallest parts
 which appear in the calculation.  For LO processes, the correspondence
 between terms and components is one-to-one.  The FKS-NLO algorithm
 requires not just separation of Born, real, and virtual components but
 also subtraction terms, and a decomposition of the real phase space
 into singular regions.  The general idea is that the integration
 results of distinct sets of terms are summed over to provide the
 results of individual components.  This is also controlled by the
 [[pcm]] subobject.
 
 The [[process_status]] object is a bookkeeping device that allows us
 to query the status of an ongoing calculation.
 
 The [[process_results]] object collects the integration results for
 external use, including integration history information.
 <<Process: public>>=
   public :: process_t
 <<Process: types>>=
   type :: process_t
      private
      type(process_metadata_t) :: &
           meta
      type(process_environment_t) :: &
           env
      type(process_config_data_t) :: &
           config
      class(pcm_t), allocatable :: &
           pcm
      type(process_component_t), dimension(:), allocatable :: &
           component
      type(process_phs_config_t), dimension(:), allocatable :: &
           phs_entry
      type(core_entry_t), dimension(:), allocatable :: &
           core_entry
      type(process_mci_entry_t), dimension(:), allocatable :: &
           mci_entry
      class(rng_factory_t), allocatable :: &
           rng_factory
      type(process_beam_config_t) :: &
           beam_config
      type(process_term_t), dimension(:), allocatable :: &
           term
      type(process_status_t) :: &
           status
      type(process_results_t) :: &
           result
    contains
    <<Process: process: TBP>>
   end type process_t
 
 @ %def process_t
 @
 \subsection{Process pointer}
 Wrapper type for storing pointers to process objects in arrays.
 <<Process: public>>=
   public :: process_ptr_t
 <<Process: types>>=
   type :: process_ptr_t
      type(process_t), pointer :: p => null ()
   end type process_ptr_t
 
 @ %def process_ptr_t
 @
 \subsection{Output}
 This procedure is an important debugging and inspection tool; it is
 not used during normal operation.  The process object is written
 to a file (identified by unit, which may also be standard output).
 Optional flags determine whether we show everything or just the
 interesting parts.
 
 The shorthand as a traditional TBP.
 <<Process: process: TBP>>=
   procedure :: write => process_write
 <<Process: sub interfaces>>=
     module subroutine process_write (process, screen, unit, &
          show_os_data, show_var_list, show_rng, show_expressions, pacify)
       class(process_t), intent(in) :: process
       logical, intent(in) :: screen
       integer, intent(in), optional :: unit
       logical, intent(in), optional :: show_os_data
       logical, intent(in), optional :: show_var_list
       logical, intent(in), optional :: show_rng
       logical, intent(in), optional :: show_expressions
       logical, intent(in), optional :: pacify
     end subroutine process_write
 <<Process: procedures>>=
   module subroutine process_write (process, screen, unit, &
        show_os_data, show_var_list, show_rng, show_expressions, pacify)
     class(process_t), intent(in) :: process
     logical, intent(in) :: screen
     integer, intent(in), optional :: unit
     logical, intent(in), optional :: show_os_data
     logical, intent(in), optional :: show_var_list
     logical, intent(in), optional :: show_rng
     logical, intent(in), optional :: show_expressions
     logical, intent(in), optional :: pacify
     integer :: u, iostat
     character(0) :: iomsg
     integer, dimension(:), allocatable :: v_list
     u = given_output_unit (unit)
     allocate (v_list (0))
     call set_flag (v_list, F_SHOW_OS_DATA, show_os_data)
     call set_flag (v_list, F_SHOW_VAR_LIST, show_var_list)
     call set_flag (v_list, F_SHOW_RNG, show_rng)
     call set_flag (v_list, F_SHOW_EXPRESSIONS, show_expressions)
     call set_flag (v_list, F_PACIFY, pacify)
     if (screen) then
        call process%write_formatted (u, "LISTDIRECTED", v_list, iostat, iomsg)
     else
        call process%write_formatted (u, "DT", v_list, iostat, iomsg)
     end if
   end subroutine process_write
 
 @ %def process_write
 @ Standard DTIO procedure with binding.
 
 For the particular application, the screen format is triggered by the
 [[LISTDIRECTED]] option for the [[iotype]] format editor string.  The
 other options activate when the particular parameter value is found in
 [[v_list]].
 
 NOTE: The DTIO [[generic]] binding is supported by gfortran since 7.0.
 
 TODO wk 2018: The default could be to show everything, and we should have separate
 switches for all major parts.  Currently, there are only a few.
 <<Process: process: TBP>>=
   ! generic :: write (formatted) => write_formatted
   procedure :: write_formatted => process_write_formatted
 <<Process: sub interfaces>>=
     module subroutine process_write_formatted (dtv, unit, iotype, &
          v_list, iostat, iomsg)
       class(process_t), intent(in) :: dtv
       integer, intent(in) :: unit
       character(*), intent(in) :: iotype
       integer, dimension(:), intent(in) :: v_list
       integer, intent(out) :: iostat
       character(*), intent(inout) :: iomsg
     end subroutine process_write_formatted
 <<Process: procedures>>=
   module subroutine process_write_formatted (dtv, unit, iotype, &
        v_list, iostat, iomsg)
     class(process_t), intent(in) :: dtv
     integer, intent(in) :: unit
     character(*), intent(in) :: iotype
     integer, dimension(:), intent(in) :: v_list
     integer, intent(out) :: iostat
     character(*), intent(inout) :: iomsg
     integer :: u
     logical :: screen
     logical :: var_list
     logical :: rng_factory
     logical :: expressions
     logical :: counters
     logical :: os_data
     logical :: model
     logical :: pacify
     integer :: i
     u = unit
     select case (iotype)
     case ("LISTDIRECTED")
        screen = .true.
     case default
        screen = .false.
     end select
     var_list = flagged (v_list, F_SHOW_VAR_LIST)
     rng_factory = flagged (v_list, F_SHOW_RNG, .true.)
     expressions = flagged (v_list, F_SHOW_EXPRESSIONS)
     counters = .true.
     os_data = flagged (v_list, F_SHOW_OS_DATA)
     model = .false.
     pacify = flagged (v_list, F_PACIFY)
     associate (process => dtv)
       if (screen) then
          write (msg_buffer, "(A)")  repeat ("-", 72)
          call msg_message ()
       else
          call write_separator (u, 2)
       end if
       call process%meta%write (u, screen)
       if (var_list) then
          call process%env%write (u, show_var_list=var_list, &
               show_model=.false., show_lib=.false., &
               show_os_data=os_data)
       else if (.not. screen) then
          write (u, "(1x,A)")  "Variable list: [not shown]"
       end if
       if (process%meta%type == PRC_UNKNOWN) then
          call write_separator (u, 2)
          return
       else if (screen) then
          return
       end if
       call write_separator (u)
       call process%config%write (u, counters, model, expressions)
       if (rng_factory) then
          if (allocated (process%rng_factory)) then
             call write_separator (u)
             call process%rng_factory%write (u)
          end if
       end if
       call write_separator (u, 2)
       if (allocated (process%component)) then
          write (u, "(1x,A)") "Process component configuration:"
          do i = 1, size (process%component)
             call write_separator (u)
             call process%component(i)%write (u)
          end do
       else
          write (u, "(1x,A)") "Process component configuration: [undefined]"
       end if
       call write_separator (u, 2)
       if (allocated (process%term)) then
          write (u, "(1x,A)") "Process term configuration:"
          do i = 1, size (process%term)
             call write_separator (u)
             call process%term(i)%write (u)
          end do
       else
          write (u, "(1x,A)") "Process term configuration: [undefined]"
       end if
       call write_separator (u, 2)
       call process%beam_config%write (u)
       call write_separator (u, 2)
       if (allocated (process%mci_entry)) then
          write (u, "(1x,A)") "Multi-channel integrator configurations:"
          do i = 1, size (process%mci_entry)
             call write_separator (u)
             write (u, "(1x,A,I0,A)")  "MCI #", i, ":"
             call process%mci_entry(i)%write (u, pacify)
          end do
       end if
       call write_separator (u, 2)
     end associate
     iostat = 0
     iomsg = ""
   end subroutine process_write_formatted
 
 @ %def process_write_formatted
 @
 <<Process: process: TBP>>=
   procedure :: write_meta => process_write_meta
 <<Process: sub interfaces>>=
     module subroutine process_write_meta (process, unit, testflag)
       class(process_t), intent(in) :: process
       integer, intent(in), optional :: unit
       logical, intent(in), optional :: testflag
     end subroutine process_write_meta
 <<Process: procedures>>=
   module subroutine process_write_meta (process, unit, testflag)
     class(process_t), intent(in) :: process
     integer, intent(in), optional :: unit
     logical, intent(in), optional :: testflag
     integer :: u, i
     u = given_output_unit (unit)
     select case (process%meta%type)
     case (PRC_UNKNOWN)
        write (u, "(1x,A)") "Process instance [undefined]"
        return
     case (PRC_DECAY)
        write (u, "(1x,A)", advance="no") "Process instance [decay]:"
     case (PRC_SCATTERING)
        write (u, "(1x,A)", advance="no") "Process instance [scattering]:"
     case default
        call msg_bug ("process_instance_write: undefined process type")
     end select
     write (u, "(1x,A,A,A)") "'", char (process%meta%id), "'"
     write (u, "(3x,A,A,A)") "Run ID = '", char (process%meta%run_id), "'"
     if (allocated (process%meta%component_id)) then
        write (u, "(3x,A)")  "Process components:"
        do i = 1, size (process%meta%component_id)
           if (process%pcm%component_selected(i)) then
              write (u, "(3x,'*')", advance="no")
           else
              write (u, "(4x)", advance="no")
           end if
           write (u, "(1x,I0,9A)")  i, ": '", &
                char (process%meta%component_id (i)), "':   ", &
                char (process%meta%component_description (i))
        end do
     end if
   end subroutine process_write_meta
 
 @ %def process_write_meta
 @ Screen output.  Write a short account of the process configuration
 and the current results.  The verbose version lists the components,
 the short version just the results.
 <<Process: process: TBP>>=
   procedure :: show => process_show
 <<Process: sub interfaces>>=
     module subroutine process_show (object, unit, verbose)
       class(process_t), intent(in) :: object
       integer, intent(in), optional :: unit
       logical, intent(in), optional :: verbose
     end subroutine process_show
 <<Process: procedures>>=
   module subroutine process_show (object, unit, verbose)
     class(process_t), intent(in) :: object
     integer, intent(in), optional :: unit
     logical, intent(in), optional :: verbose
     integer :: u
     logical :: verb
     real(default) :: err_percent
     u = given_output_unit (unit)
     verb = .true.;  if (present (verbose)) verb = verbose
     if (verb) then
        call object%meta%show (u, object%config%model%get_name ())
        select case (object%meta%type)
        case (PRC_DECAY)
           write (u, "(2x,A)", advance="no")  "Computed width ="
        case (PRC_SCATTERING)
           write (u, "(2x,A)", advance="no")  "Computed cross section ="
        case default;  return
        end select
     else
        if (object%meta%run_id /= "") then
           write (u, "('Run',1x,A,':',1x)", advance="no") &
                char (object%meta%run_id)
        end if
        write (u, "(A)", advance="no") char (object%meta%id)
        select case (object%meta%num_id)
        case (0)
           write (u, "(':')")
        case default
           write (u, "(1x,'(',I0,')',':')") object%meta%num_id
        end select
        write (u, "(2x)", advance="no")
     end if
     if (object%has_integral_tot ()) then
        write (u, "(ES14.7,1x,'+-',ES9.2)", advance="no") &
             object%get_integral_tot (), object%get_error_tot ()
        select case (object%meta%type)
        case (PRC_DECAY)
           write (u, "(1x,A)", advance="no")  "GeV"
        case (PRC_SCATTERING)
           write (u, "(1x,A)", advance="no")  "fb "
        case default
           write (u, "(1x,A)", advance="no")  "   "
        end select
        if (object%get_integral_tot () /= 0) then
           err_percent = abs (100 &
                * object%get_error_tot () / object%get_integral_tot ())
        else
           err_percent = 0
        end if
        if (err_percent == 0) then
           write (u, "(1x,'(',F4.0,4x,'%)')")  err_percent
        else if (err_percent < 0.1) then
           write (u, "(1x,'(',F7.3,1x,'%)')")  err_percent
        else if (err_percent < 1) then
           write (u, "(1x,'(',F6.2,2x,'%)')")  err_percent
        else if (err_percent < 10) then
           write (u, "(1x,'(',F5.1,3x,'%)')")  err_percent
        else
           write (u, "(1x,'(',F4.0,4x,'%)')")  err_percent
        end if
     else
        write (u, "(A)")  "[integral undefined]"
     end if
   end subroutine process_show
 
 @ %def process_show
 @ Finalizer.  Explicitly iterate over all subobjects that may contain
 allocated pointers.
 
 TODO wk 2018 (workaround): The finalizer for the [[config_data]] component is not
 called.  The reason is that this deletes model data local to the process,
 but these could be referenced by pointers (flavor objects) from some
 persistent event record.  Obviously, such side effects should be avoided, but
 this requires refactoring the event-handling procedures.
 <<Process: process: TBP>>=
   procedure :: final => process_final
 <<Process: sub interfaces>>=
     module subroutine process_final (process)
       class(process_t), intent(inout) :: process
     end subroutine process_final
 <<Process: procedures>>=
   module subroutine process_final (process)
     class(process_t), intent(inout) :: process
     integer :: i
     ! call process%meta%final ()
     call process%env%final ()
     ! call process%config%final ()
     if (allocated (process%component)) then
        do i = 1, size (process%component)
           call process%component(i)%final ()
        end do
     end if
     if (allocated (process%term)) then
        do i = 1, size (process%term)
           call process%term(i)%final ()
        end do
     end if
     call process%beam_config%final ()
     if (allocated (process%mci_entry)) then
        do i = 1, size (process%mci_entry)
           call process%mci_entry(i)%final ()
        end do
     end if
     if (allocated (process%pcm)) then
        call process%pcm%final ()
        deallocate (process%pcm)
     end if
   end subroutine process_final
 
 @ %def process_final
 @
 \subsubsection{Process setup}
 Initialize a process.  We need a process library [[lib]] and the process
 identifier [[proc_id]] (string).  We will fetch the current run ID from the
 variable list [[var_list]].
 
 We collect all important data from the environment and store them in the
 appropriate places.  OS data, model, and variable list are copied
 into [[env]] (true snapshot), also the process library (pointer only).
 
 The [[meta]] subobject is initialized with process ID and attributes taken
 from the process library.
 
 We initialize the [[config]] subobject with all data that are relevant for
 this run, using the settings from [[env]].  These data determine the MD5 sum
 for this run, which allows us to identify the setup and possibly skips in a
 later re-run.
 
 We also allocate and initialize the embedded RNG factory.  We take the seed
 from the [[var_list]], and we should return the [[var_list]] to the caller
 with a new seed.
 
 Finally, we allocate the process component manager [[pcm]], which implements
 the chosen algorithm for process integration.  The first task of the manager
 is to allocate the component array and to determine the component categories
 (e.g., Born/Virtual etc.).
 
 TODO wk 2018: The [[pcm]] dispatcher should be provided by the caller, if we
 eventually want to eliminate dependencies on concrete [[pcm_t]] extensions.
 
 Gfortran 7/8/9 bug, has to remain in the main module:
 <<Process: process: TBP>>=
   procedure :: init => process_init
 <<Process: main procedures>>=
   subroutine process_init &
        (process, proc_id, lib, os_data, model, var_list, beam_structure)
     class(process_t), intent(out) :: process
     type(string_t), intent(in) :: proc_id
     type(process_library_t), intent(in), target :: lib
     type(os_data_t), intent(in) :: os_data
     class(model_t), intent(in), target :: model
     type(var_list_t), intent(inout), target, optional :: var_list
     type(beam_structure_t), intent(in), optional :: beam_structure
     integer :: next_rng_seed
     if (debug_on) call msg_debug (D_PROCESS_INTEGRATION, "process_init")
     associate &
          (meta => process%meta, env => process%env, config => process%config)
       call env%init &
            (model, lib, os_data, var_list, beam_structure)
       call meta%init &
            (proc_id, lib, env%get_var_list_ptr ())
       call config%init &
            (meta, env)
       call dispatch_rng_factory &
            (process%rng_factory, env%get_var_list_ptr (), next_rng_seed)
       call update_rng_seed_in_var_list (var_list, next_rng_seed)
       call dispatch_pcm &
            (process%pcm, config%process_def%is_nlo ())
       associate (pcm => process%pcm)
         call pcm%init (env, meta)
         call pcm%allocate_components (process%component, meta)
         call pcm%categorize_components (config)
       end associate
     end associate
   end subroutine process_init
 
 @ %def process_init
 @
 \subsection{Process component manager}
 The [[pcm]] (read: process-component manager) takes the responsibility of
 steering the actual algorithm of configuration and integration.  Depending on
 the concrete type, different algorithms can be implemented.
 
 The first version of this supports just two implementations: leading-order
 (tree-level) integration and event generation, and NLO (QCD/FKS subtraction).
 We thus can start with a single logical for steering the dispatcher.
 
 TODO wk 2018: Eventually, we may eliminate all references to the extensions of
 [[pcm_t]] from this module and therefore move this outside the module as well.
 Gfortran 7/8/9 bug, has to be in the main module:
 <<Process: main procedures>>=
   subroutine dispatch_pcm (pcm, is_nlo)
     class(pcm_t), allocatable, intent(out) :: pcm
     logical, intent(in) :: is_nlo
     if (.not. is_nlo) then
        allocate (pcm_default_t :: pcm)
     else
        allocate (pcm_nlo_t :: pcm)
     end if
   end subroutine dispatch_pcm
 
 @ %def dispatch_pcm
 @ This step is performed after phase-space and core objects are done: collect
 all missing information and prepare the process component manager for the
 appropriate integration algorithm.
 <<Process: process: TBP>>=
   procedure :: complete_pcm_setup => process_complete_pcm_setup
 <<Process: sub interfaces>>=
     module subroutine process_complete_pcm_setup (process)
       class(process_t), intent(inout) :: process
     end subroutine process_complete_pcm_setup
 <<Process: procedures>>=
   module subroutine process_complete_pcm_setup (process)
     class(process_t), intent(inout) :: process
     call process%pcm%complete_setup &
          (process%core_entry, process%component, process%env%get_model_ptr ())
   end subroutine process_complete_pcm_setup
 
 @ %def process_complete_pcm_setup
 @
 \subsection{Core management}
 Allocate cores (interface objects to matrix-element code).
 
 The [[dispatch_core]] procedure is taken as an argument, so we do not depend on
 the implementation, and thus on the specific core types.
 
 The [[helicity_selection]] object collects data that the matrix-element
 code needs for configuring the appropriate behavior.
 
 After the cores have been allocated, and assuming the phs initial
 configuration has been done before, we proceed with computing the [[pcm]]
 internal data.
 <<Process: process: TBP>>=
   procedure :: setup_cores => process_setup_cores
 <<Process: sub interfaces>>=
     module subroutine process_setup_cores (process, dispatch_core, &
          helicity_selection, use_color_factors, has_beam_pol)
       class(process_t), intent(inout) :: process
       procedure(dispatch_core_proc) :: dispatch_core
       type(helicity_selection_t), intent(in), optional :: helicity_selection
       logical, intent(in), optional :: use_color_factors
       logical, intent(in), optional :: has_beam_pol
     end subroutine process_setup_cores
 <<Process: procedures>>=
   module subroutine process_setup_cores (process, dispatch_core, &
        helicity_selection, use_color_factors, has_beam_pol)
     class(process_t), intent(inout) :: process
     procedure(dispatch_core_proc) :: dispatch_core
     type(helicity_selection_t), intent(in), optional :: helicity_selection
     logical, intent(in), optional :: use_color_factors
     logical, intent(in), optional :: has_beam_pol
     integer :: i
     associate (pcm => process%pcm)
       call pcm%allocate_cores (process%config, process%core_entry)
       do i = 1, size (process%core_entry)
          call dispatch_core (process%core_entry(i)%core, &
               process%core_entry(i)%core_def, &
               process%config%model, &
               helicity_selection, &
               process%config%qcd, &
               use_color_factors, &
               has_beam_pol)
          call process%core_entry(i)%configure &
               (process%env%get_lib_ptr (), process%meta%id)
          if (process%core_entry(i)%core%uses_blha ()) then
             call pcm%setup_blha (process%core_entry(i))
          end if
       end do
     end associate
   end subroutine process_setup_cores
 
 @ %def process_setup_cores
 <<Process: interfaces>>=
   abstract interface
      subroutine dispatch_core_proc (core, core_def, model, &
           helicity_selection, qcd, use_color_factors, has_beam_pol)
        import
        class(prc_core_t), allocatable, intent(inout) :: core
        class(prc_core_def_t), intent(in) :: core_def
        class(model_data_t), intent(in), target, optional :: model
        type(helicity_selection_t), intent(in), optional :: helicity_selection
        type(qcd_t), intent(in), optional :: qcd
        logical, intent(in), optional :: use_color_factors
        logical, intent(in), optional :: has_beam_pol
      end subroutine dispatch_core_proc
   end interface
 
 @ %def dispatch_core_proc
 @ Use the [[pcm]] to initialize the BLHA interface for each core which
 requires it.
 <<Process: process: TBP>>=
   procedure :: prepare_blha_cores => process_prepare_blha_cores
 <<Process: sub interfaces>>=
     module subroutine process_prepare_blha_cores (process)
       class(process_t), intent(inout), target :: process
     end subroutine process_prepare_blha_cores
 <<Process: procedures>>=
   module subroutine process_prepare_blha_cores (process)
     class(process_t), intent(inout), target :: process
     integer :: i
     associate (pcm => process%pcm)
       do i = 1, size (process%core_entry)
          associate (core_entry => process%core_entry(i))
            if (core_entry%core%uses_blha ()) then
               pcm%uses_blha = .true.
               call pcm%prepare_blha_core (core_entry, process%config%model)
            end if
          end associate
       end do
     end associate
   end subroutine process_prepare_blha_cores
 
 @ %def process_prepare_blha_cores
 @ Create the BLHA interface data, using PCM for specific data, and write the
 BLHA contract file(s).
 
 We take various configuration data and copy them to the [[blha_master]]
 record, which then creates and writes the contracts.
 
 For assigning the QCD/EW coupling powers, we inspect the first process
 component only.  The other parameters are taken as-is from the process
 environment variables.
 <<Process: process: TBP>>=
   procedure :: create_blha_interface => process_create_blha_interface
 <<Process: sub interfaces>>=
     module subroutine process_create_blha_interface (process)
       class(process_t), intent(inout) :: process
     end subroutine process_create_blha_interface
 <<Process: procedures>>=
   module subroutine process_create_blha_interface (process)
     class(process_t), intent(inout) :: process
     integer :: alpha_power, alphas_power
     integer :: openloops_phs_tolerance, openloops_stability_log
     logical :: use_cms
     type(string_t) :: ew_scheme, correction_type
-    type(string_t) :: openloops_extra_cmd
+    type(string_t) :: openloops_extra_cmd, openloops_allowed_libs
     type(blha_master_t) :: blha_master
     integer, dimension(:,:), allocatable :: flv_born, flv_real
     if (process%pcm%uses_blha) then
        call collect_configuration_parameters (process%get_var_list_ptr ())
        call process%component(1)%config%get_coupling_powers &
             (alpha_power, alphas_power)
        associate (pcm => process%pcm)
          call pcm%set_blha_methods (blha_master, process%get_var_list_ptr ())
          call blha_master%set_ew_scheme (ew_scheme)
          call blha_master%allocate_config_files ()
          call blha_master%set_correction_type (correction_type)
          call blha_master%setup_additional_features ( &
               openloops_phs_tolerance, &
               use_cms, &
               openloops_stability_log, &
               extra_cmd = openloops_extra_cmd, &
+              allowed_libs = openloops_allowed_libs, &
               beam_structure = process%env%get_beam_structure ())
          call pcm%get_blha_flv_states (process%core_entry, flv_born, flv_real)
          call blha_master%set_photon_characteristics (flv_born, process%config%n_in)
          call blha_master%generate (process%meta%id, &
               process%config%model, process%config%n_in, &
               alpha_power, alphas_power, &
               flv_born, flv_real)
          call blha_master%write_olp (process%meta%id)
        end associate
     end if
   contains
     subroutine collect_configuration_parameters (var_list)
       type(var_list_t), intent(in) :: var_list
       openloops_phs_tolerance = &
            var_list%get_ival (var_str ("openloops_phs_tolerance"))
       openloops_stability_log = &
            var_list%get_ival (var_str ("openloops_stability_log"))
       use_cms = &
            var_list%get_lval (var_str ("?openloops_use_cms"))
       ew_scheme = &
            var_list%get_sval (var_str ("$blha_ew_scheme"))
       correction_type = &
            var_list%get_sval (var_str ("$nlo_correction_type"))
       openloops_extra_cmd = &
            var_list%get_sval (var_str ("$openloops_extra_cmd"))
+      openloops_allowed_libs = &
+           var_list%get_sval (var_str ("$openloops_allowed_libs"))
     end subroutine collect_configuration_parameters
   end subroutine process_create_blha_interface
 
 @ %def process_create_blha_interface
 @ Initialize the process components, one by one.  We require templates for the
 [[mci]] (integrator) and [[phs_config]] (phase-space) configuration data.
 
 The [[active]] flag is set if the component has an associated matrix
 element, so we can compute it.  The case of no core is a unit-test case.
 
 The specifics depend on the algorithm and are delegated to the [[pcm]]
 process-component manager.
 
 The optional [[phs_config]] overrides a pre-generated config array (for unit
 test).
 <<Process: process: TBP>>=
   procedure :: init_components => process_init_components
 <<Process: sub interfaces>>=
     module subroutine process_init_components (process, phs_config)
       class(process_t), intent(inout), target :: process
       class(phs_config_t), allocatable, intent(in), optional :: phs_config
     end subroutine process_init_components
 <<Process: procedures>>=
   module subroutine process_init_components (process, phs_config)
     class(process_t), intent(inout), target :: process
     class(phs_config_t), allocatable, intent(in), optional :: phs_config
     integer :: i, i_core
     class(prc_core_t), pointer :: core
     logical :: active
     associate (pcm => process%pcm)
       do i = 1, pcm%n_components
          i_core = pcm%get_i_core(i)
          if (i_core > 0) then
             core => process%get_core_ptr (i_core)
             active = core%has_matrix_element ()
          else
             active = .true.
          end if
          select type (pcm => process%pcm)
          type is (pcm_nlo_t)
             if (pcm%use_real_partition .and. .not. pcm%use_real_singular) then
                if (pcm%component_type(i) == COMP_REAL_SING) then
                   active = .false.
                end if
             end if
          end select
          if (present (phs_config)) then
             call pcm%init_component (process%component(i), &
               i, &
               active, &
               phs_config, &
               process%env, process%meta, process%config)
          else
             call pcm%init_component (process%component(i), &
               i, &
               active, &
               process%phs_entry(pcm%i_phs_config(i))%phs_config, &
               process%env, process%meta, process%config)
          end if
       end do
     end associate
   end subroutine process_init_components
 
 @ %def process_init_components
 @ If process components have turned out to be inactive, this has to be
 recorded in the [[meta]] block.  Delegate to the [[pcm]].
 <<Process: process: TBP>>=
   procedure :: record_inactive_components => process_record_inactive_components
 <<Process: sub interfaces>>=
     module subroutine process_record_inactive_components (process)
       class(process_t), intent(inout) :: process
     end subroutine process_record_inactive_components
 <<Process: procedures>>=
   module subroutine process_record_inactive_components (process)
     class(process_t), intent(inout) :: process
     associate (pcm => process%pcm)
       call pcm%record_inactive_components (process%component, process%meta)
     end associate
   end subroutine process_record_inactive_components
 
 @ %def process_record_inactive_components
 @ Determine the process terms for each process component.
 <<Process: process: TBP>>=
   procedure :: setup_terms => process_setup_terms
 <<Process: sub interfaces>>=
     module subroutine process_setup_terms (process, with_beams)
       class(process_t), intent(inout), target :: process
       logical, intent(in), optional :: with_beams
     end subroutine process_setup_terms
 <<Process: procedures>>=
   module subroutine process_setup_terms (process, with_beams)
     class(process_t), intent(inout), target :: process
     logical, intent(in), optional :: with_beams
     class(model_data_t), pointer :: model
     integer :: i, j, k, i_term
     integer, dimension(:), allocatable :: n_entry
     integer :: n_components, n_tot
     integer :: i_sub
     type(string_t) :: subtraction_method
     class(prc_core_t), pointer :: core => null ()
     logical :: setup_subtraction_component, singular_real
     logical :: requires_spin_correlations
     integer :: nlo_type_to_fetch, n_emitters
     i_sub = 0
     model => process%config%model
     n_components = process%meta%n_components
     allocate (n_entry (n_components), source = 0)
     do i = 1, n_components
        associate (component => process%component(i))
          if (component%active) then
             n_entry(i) = 1
             if (component%get_nlo_type () == NLO_REAL) then
                select type (pcm => process%pcm)
                type is (pcm_nlo_t)
                   if (pcm%component_type(i) /= COMP_REAL_FIN) &
                        n_entry(i) = n_entry(i) + pcm%region_data%get_n_phs ()
                end select
             end if
          end if
        end associate
     end do
     n_tot = sum (n_entry)
     allocate (process%term (n_tot))
     k = 0
     if (process%is_nlo_calculation ()) then
        i_sub = process%component(1)%config%get_associated_subtraction ()
        subtraction_method = process%component(i_sub)%config%get_me_method ()
        if (debug_on) call msg_debug2 &
             (D_PROCESS_INTEGRATION, "process_setup_terms: ", subtraction_method)
     end if
 
     do i = 1, n_components
        associate (component => process%component(i))
          if (.not. component%active)  cycle
            allocate (component%i_term (n_entry(i)))
            do j = 1, n_entry(i)
               select type (pcm => process%pcm)
               type is (pcm_nlo_t)
                  singular_real = component%get_nlo_type () == NLO_REAL &
                       .and. pcm%component_type(i) /= COMP_REAL_FIN
               class default
                  singular_real = .false.
               end select
               setup_subtraction_component = singular_real .and. j == n_entry(i)
               i_term = k + j
               component%i_term(j) = i_term
               if (singular_real) then
                  process%term(i_term)%i_sub = k + n_entry(i)
               else
                  process%term(i_term)%i_sub = 0
               end if
               if (setup_subtraction_component) then
                  select type (pcm => process%pcm)
                  class is (pcm_nlo_t)
                     process%term(i_term)%i_core = pcm%i_core(pcm%i_sub)
                  end select
               else
                  process%term(i_term)%i_core = process%pcm%get_i_core(i)
               end if
 
               if (process%term(i_term)%i_core == 0) then
                  call msg_bug ("Process '" // char (process%get_id ()) &
                       // "': core not found!")
               end if
               core => process%get_core_term (i_term)
               if (i_sub > 0) then
                  select type (pcm => process%pcm)
                  type is (pcm_nlo_t)
                     requires_spin_correlations = &
                          pcm%region_data%requires_spin_correlations ()
                     n_emitters = pcm%region_data%get_n_emitters_sc ()
                  class default
                     requires_spin_correlations = .false.
                     n_emitters = 0
                  end select
                  if (requires_spin_correlations) then
                     call process%term(i_term)%init ( &
                          i_term, i, j, core, model, &
                          nlo_type = component%config%get_nlo_type (), &
                          use_beam_pol = with_beams, &
                          subtraction_method = subtraction_method, &
                          has_pdfs = process%pcm%has_pdfs, &
                          n_emitters = n_emitters)
                  else
                     call process%term(i_term)%init ( &
                          i_term, i, j, core, model, &
                          nlo_type = component%config%get_nlo_type (), &
                          use_beam_pol = with_beams, &
                          subtraction_method = subtraction_method, &
                          has_pdfs = process%pcm%has_pdfs)
                  end if
               else
                  call process%term(i_term)%init ( &
                       i_term, i, j, core, model, &
                       nlo_type = component%config%get_nlo_type (), &
                       use_beam_pol = with_beams, &
                       has_pdfs = process%pcm%has_pdfs)
               end if
            end do
        end associate
        k = k + n_entry(i)
     end do
     process%config%n_terms = n_tot
   end subroutine process_setup_terms
 
 @ %def process_setup_terms
 @ Initialize the beam setup.  This is the trivial version where the
 incoming state of the matrix element coincides with the initial state
 of the process.  For a scattering process, we need the c.m. energy,
 all other variables are set to their default values (no polarization,
 lab frame and c.m.\ frame coincide, etc.)
 
 We assume that all components consistently describe a scattering
 process, i.e., two incoming particles.
 
 Note: The current layout of the [[beam_data_t]] record requires that the
 flavor for each beam is unique.  For processes with multiple
 flavors in the initial state, one has to set up beams explicitly.
 This restriction could be removed by extending the code in the
 [[beams]] module.
 <<Process: process: TBP>>=
   procedure :: setup_beams_sqrts => process_setup_beams_sqrts
 <<Process: sub interfaces>>=
     module subroutine process_setup_beams_sqrts &
          (process, sqrts, beam_structure, i_core)
       class(process_t), intent(inout) :: process
       real(default), intent(in) :: sqrts
       type(beam_structure_t), intent(in), optional :: beam_structure
       integer, intent(in), optional :: i_core
     end subroutine process_setup_beams_sqrts
 <<Process: procedures>>=
   module subroutine process_setup_beams_sqrts &
        (process, sqrts, beam_structure, i_core)
     class(process_t), intent(inout) :: process
     real(default), intent(in) :: sqrts
     type(beam_structure_t), intent(in), optional :: beam_structure
     integer, intent(in), optional :: i_core
     type(pdg_array_t), dimension(:,:), allocatable :: pdg_in
     integer, dimension(2) :: pdg_scattering
     type(flavor_t), dimension(2) :: flv_in
     integer :: i, i0, ic
     allocate (pdg_in (2, process%meta%n_components))
     i0 = 0
     do i = 1, process%meta%n_components
        if (process%component(i)%active) then
           if (present (i_core)) then
              ic = i_core
           else
              ic = process%pcm%get_i_core (i)
           end if
           associate (core => process%core_entry(ic)%core)
             pdg_in(:,i) = core%data%get_pdg_in ()
           end associate
           if (i0 == 0)  i0 = i
        end if
     end do
     do i = 1, process%meta%n_components
        if (.not. process%component(i)%active) then
           pdg_in(:,i) = pdg_in(:,i0)
        end if
     end do
     if (all (pdg_in%get_length () == 1) .and. &
          all (pdg_in(1,:) == pdg_in(1,i0)) .and. &
          all (pdg_in(2,:) == pdg_in(2,i0))) then
        pdg_scattering(:) = pdg_in(:,i0)%get (1)
        call flv_in%init (pdg_scattering, process%config%model)
        call process%beam_config%init_scattering (flv_in, sqrts, beam_structure)
     else
        call msg_fatal ("Setting up process '" // char (process%meta%id) // "':", &
            [var_str ("   --------------------------------------------"), &
             var_str ("Inconsistent initial state. This happens if either "), &
             var_str ("several processes with non-matching initial states "), &
             var_str ("have been added, or for a single process with an "), &
             var_str ("initial state flavor sum. In that case, please set beams "), &
             var_str ("explicitly [singling out a flavor / structure function.]")])
     end if
   end subroutine process_setup_beams_sqrts
 
 @ %def process_setup_beams_sqrts
 @ This is the version that applies to decay processes.  The energy is the
 particle mass, hence no extra argument.
 <<Process: process: TBP>>=
   procedure :: setup_beams_decay => process_setup_beams_decay
 <<Process: sub interfaces>>=
     module subroutine process_setup_beams_decay &
          (process, rest_frame, beam_structure, i_core)
       class(process_t), intent(inout), target :: process
       logical, intent(in), optional :: rest_frame
       type(beam_structure_t), intent(in), optional :: beam_structure
       integer, intent(in), optional :: i_core
     end subroutine process_setup_beams_decay
 <<Process: procedures>>=
   module subroutine process_setup_beams_decay &
        (process, rest_frame, beam_structure, i_core)
     class(process_t), intent(inout), target :: process
     logical, intent(in), optional :: rest_frame
     type(beam_structure_t), intent(in), optional :: beam_structure
     integer, intent(in), optional :: i_core
     type(pdg_array_t), dimension(:,:), allocatable :: pdg_in
     integer, dimension(1) :: pdg_decay
     type(flavor_t), dimension(1) :: flv_in
     integer :: i, i0, ic
     allocate (pdg_in (1, process%meta%n_components))
     i0 = 0
     do i = 1, process%meta%n_components
        if (process%component(i)%active) then
           if (present (i_core)) then
              ic = i_core
           else
              ic = process%pcm%get_i_core (i)
           end if
           associate (core => process%core_entry(ic)%core)
             pdg_in(:,i) = core%data%get_pdg_in ()
           end associate
           if (i0 == 0)  i0 = i
        end if
     end do
     do i = 1, process%meta%n_components
        if (.not. process%component(i)%active) then
           pdg_in(:,i) = pdg_in(:,i0)
        end if
     end do
     if (all (pdg_in%get_length () == 1) &
          .and. all (pdg_in(1,:) == pdg_in(1,i0))) then
        pdg_decay(:) = pdg_in(:,i0)%get (1)
        call flv_in%init (pdg_decay, process%config%model)
        call process%beam_config%init_decay (flv_in, rest_frame, beam_structure)
     else
        call msg_fatal ("Setting up decay '" &
             // char (process%meta%id) // "': decaying particle not unique")
     end if
   end subroutine process_setup_beams_decay
 
 @ %def process_setup_beams_decay
 @ We have to make sure that the masses of the various flavors
 in a given position in the particle string coincide.
 <<Process: process: TBP>>=
   procedure :: check_masses => process_check_masses
 <<Process: sub interfaces>>=
     module subroutine process_check_masses (process)
       class(process_t), intent(in) :: process
     end subroutine process_check_masses
 <<Process: procedures>>=
   module subroutine process_check_masses (process)
     class(process_t), intent(in) :: process
     type(flavor_t), dimension(:), allocatable :: flv
     real(default), dimension(:), allocatable :: mass
     integer :: i, j
     integer :: i_component
     class(prc_core_t), pointer :: core
     do i = 1, process%get_n_terms ()
        i_component = process%term(i)%i_component
        if (.not. process%component(i_component)%active)  cycle
        core => process%get_core_term (i)
        associate (data => core%data)
          allocate (flv (data%n_flv), mass (data%n_flv))
          do j = 1, data%n_in + data%n_out
             call flv%init (data%flv_state(j,:), process%config%model)
             mass = flv%get_mass ()
             if (any (.not. nearly_equal(mass, mass(1)))) then
                call msg_fatal ("Process '" // char (process%meta%id) // "': " &
                     // "mass values in flavor combination do not coincide. ")
             end if
          end do
          deallocate (flv, mass)
        end associate
     end do
   end subroutine process_check_masses
 
 @ %def process_check_masses
 @ Set up index mapping for [[region_data]] for singular regions
 equivalent w.r.t. their amplitudes. Has to be called after
 [[region_data]] AND the [[core]] are fully set up. For processes with
 structure function, subprocesses which lead to the same amplitude for
 the hard interaction can differ if structure functions are applied. In
 this case we remap flavor structures to themselves if the eqvivalent
 hard interaction flavor structure has no identical initial state.
 <<Process: process: TBP>>=
   procedure :: optimize_nlo_singular_regions => &
        process_optimize_nlo_singular_regions
 <<Process: sub interfaces>>=
     module subroutine process_optimize_nlo_singular_regions (process)
       class(process_t), intent(inout) :: process
     end subroutine process_optimize_nlo_singular_regions
 <<Process: procedures>>=
   module subroutine process_optimize_nlo_singular_regions (process)
     class(process_t), intent(inout) :: process
     class(prc_core_t), pointer :: core, core_sub
     integer, dimension(:), allocatable :: eqv_flv_index_born
     integer, dimension(:), allocatable :: eqv_flv_index_real
     integer, dimension(:,:), allocatable :: flv_born, flv_real
     integer :: i_flv, i_flv2, n_in, i
     integer :: i_component, i_core, i_core_sub
     logical :: fetched_born, fetched_real
     logical :: optimize
     fetched_born = .false.; fetched_real = .false.
     select type (pcm => process%pcm)
     type is (pcm_nlo_t)
        optimize = pcm%settings%reuse_amplitudes_fks
        if (optimize) then
           do i_component = 1, pcm%n_components
              i_core = pcm%get_i_core(i_component)
              core => process%get_core_ptr (i_core)
              if (.not. core%data_known) cycle
              associate (data => core%data)
                 if (pcm%nlo_type_core(i_core) == NLO_REAL .and. &
                      .not. pcm%component_type(i_component) == COMP_SUB) then
                    if (allocated (core%data%eqv_flv_index)) then
                       eqv_flv_index_real = core%get_equivalent_flv_index ()
                       fetched_real = .true.
                    end if
                    i_core_sub = pcm%get_i_core (pcm%i_sub)
                    core_sub => process%get_core_ptr (i_core_sub)
                    if (allocated (core_sub%data%eqv_flv_index)) then
                       eqv_flv_index_born = core_sub%get_equivalent_flv_index ()
                       fetched_born = .true.
                    end if
                    if (fetched_born .and. fetched_real) exit
                 end if
              end associate
           end do
           if (.not. fetched_born .or. .not. fetched_real) then
              call msg_warning('Failed to fetch flavor equivalence indices. &
                   &Disabling singular region optimization')
              optimize = .false.
              eqv_flv_index_born = [(i, i = 1, pcm%region_data%n_flv_born)]
              eqv_flv_index_real = [(i, i = 1, pcm%region_data%n_flv_real)]
           end if
           if (optimize .and. pcm%has_pdfs) then
              flv_born = pcm%region_data%get_flv_states_born ()
              flv_real = pcm%region_data%get_flv_states_real ()
              n_in = pcm%region_data%n_in
              do i_flv = 1, size (eqv_flv_index_born)
                 do i_flv2 = 1, i_flv
                    if (any (flv_born(1:n_in, eqv_flv_index_born(i_flv)) /= &
                         flv_born(1:n_in, i_flv))) then
                       eqv_flv_index_born(i_flv) = i_flv
                       exit
                    end if
                 end do
              end do
              do i_flv = 1, size (eqv_flv_index_real)
                 do i_flv2 = 1, i_flv
                    if (any (flv_real(1:n_in, eqv_flv_index_real(i_flv)) /= &
                         flv_real(1:n_in, i_flv))) then
                       eqv_flv_index_real(i_flv) = i_flv
                       exit
                    end if
                 end do
              end do
           end if
        else
           eqv_flv_index_born = [(i, i = 1, pcm%region_data%n_flv_born)]
           eqv_flv_index_real = [(i, i = 1, pcm%region_data%n_flv_real)]
        end if
        pcm%region_data%eqv_flv_index_born = eqv_flv_index_born
        pcm%region_data%eqv_flv_index_real = eqv_flv_index_real
        call pcm%region_data%find_eqv_regions (optimize)
     end select
   end subroutine process_optimize_nlo_singular_regions
 
 @ %def process_optimize_nlo_singular_regions
 @ For some structure functions we need to get the list of initial
 state flavors.  This is a two-dimensional array.  The first index is
 the beam index, the second index is the component index.  Each array
 element is itself a PDG array object, which consists of the list of
 incoming PDG values for this beam and component.
 <<Process: process: TBP>>=
   procedure :: get_pdg_in => process_get_pdg_in
 <<Process: sub interfaces>>=
     module subroutine process_get_pdg_in (process, pdg_in)
       class(process_t), intent(in), target :: process
       type(pdg_array_t), dimension(:,:), allocatable, intent(out) :: pdg_in
     end subroutine process_get_pdg_in
 <<Process: procedures>>=
   module subroutine process_get_pdg_in (process, pdg_in)
     class(process_t), intent(in), target :: process
     type(pdg_array_t), dimension(:,:), allocatable, intent(out) :: pdg_in
     integer :: i, i_core
     allocate (pdg_in (process%config%n_in, process%meta%n_components))
     do i = 1, process%meta%n_components
        if (process%component(i)%active) then
           i_core = process%pcm%get_i_core (i)
           associate (core => process%core_entry(i_core)%core)
             pdg_in(:,i) = core%data%get_pdg_in ()
           end associate
        end if
     end do
   end subroutine process_get_pdg_in
 
 @ %def process_get_pdg_in
 @ The phase-space configuration object, in case we need it separately.
 <<Process: process: TBP>>=
   procedure :: get_phs_config => process_get_phs_config
 <<Process: sub interfaces>>=
     module function process_get_phs_config &
          (process, i_component) result (phs_config)
       class(phs_config_t), pointer :: phs_config
       class(process_t), intent(in), target :: process
       integer, intent(in) :: i_component
     end function process_get_phs_config
 <<Process: procedures>>=
   module function process_get_phs_config &
        (process, i_component) result (phs_config)
     class(phs_config_t), pointer :: phs_config
     class(process_t), intent(in), target :: process
     integer, intent(in) :: i_component
     if (allocated (process%component)) then
        phs_config => process%component(i_component)%phs_config
     else
        phs_config => null ()
     end if
   end function process_get_phs_config
 
 @ %def process_get_phs_config
 @ The resonance history set can be extracted from the phase-space
 configuration.  However, this is only possible if the default phase-space
 method (wood) has been chosen.  If [[include_trivial]] is set, we include the
 resonance history with no resonances in the set.
 <<Process: process: TBP>>=
   procedure :: extract_resonance_history_set &
        => process_extract_resonance_history_set
 <<Process: sub interfaces>>=
     module subroutine process_extract_resonance_history_set &
          (process, res_set, include_trivial, i_component)
       class(process_t), intent(in), target :: process
       type(resonance_history_set_t), intent(out) :: res_set
       logical, intent(in), optional :: include_trivial
       integer, intent(in), optional :: i_component
     end subroutine process_extract_resonance_history_set
 <<Process: procedures>>=
   module subroutine process_extract_resonance_history_set &
        (process, res_set, include_trivial, i_component)
     class(process_t), intent(in), target :: process
     type(resonance_history_set_t), intent(out) :: res_set
     logical, intent(in), optional :: include_trivial
     integer, intent(in), optional :: i_component
     integer :: i
     i = 1;  if (present (i_component))  i = i_component
     select type (phs_config => process%get_phs_config (i))
     class is (phs_wood_config_t)
        call phs_config%extract_resonance_history_set (res_set, include_trivial)
     class default
        call msg_error ("process '" // char (process%get_id ()) &
             // "': extract resonance histories: phase-space method must be &
             &'wood'.  No resonances can be determined.")
     end select
   end subroutine process_extract_resonance_history_set
 
 @ %def process_extract_resonance_history_set
 @ Initialize from a complete beam setup.  If the beam setup does not
 apply directly to the process, choose a fallback option as a straight
 scattering or decay process.
 <<Process: process: TBP>>=
   procedure :: setup_beams_beam_structure => process_setup_beams_beam_structure
 <<Process: sub interfaces>>=
     module subroutine process_setup_beams_beam_structure &
          (process, beam_structure, sqrts, decay_rest_frame)
       class(process_t), intent(inout) :: process
       type(beam_structure_t), intent(in) :: beam_structure
       real(default), intent(in) :: sqrts
       logical, intent(in), optional :: decay_rest_frame
     end subroutine process_setup_beams_beam_structure
 <<Process: procedures>>=
   module subroutine process_setup_beams_beam_structure &
        (process, beam_structure, sqrts, decay_rest_frame)
     class(process_t), intent(inout) :: process
     type(beam_structure_t), intent(in) :: beam_structure
     real(default), intent(in) :: sqrts
     logical, intent(in), optional :: decay_rest_frame
     integer :: n_in
     logical :: applies
     n_in = process%get_n_in ()
     call beam_structure%check_against_n_in (process%get_n_in (), applies)
     if (applies) then
        call process%beam_config%init_beam_structure &
             (beam_structure, sqrts, process%get_model_ptr (), decay_rest_frame)
     else if (n_in == 2) then
        call process%setup_beams_sqrts (sqrts, beam_structure)
     else
        call process%setup_beams_decay (decay_rest_frame, beam_structure)
     end if
   end subroutine process_setup_beams_beam_structure
 
 @ %def process_setup_beams_beam_structure
 @ Notify the user about beam setup.
 <<Process: process: TBP>>=
   procedure :: beams_startup_message => process_beams_startup_message
 <<Process: sub interfaces>>=
     module subroutine process_beams_startup_message &
          (process, unit, beam_structure)
       class(process_t), intent(in) :: process
       integer, intent(in), optional :: unit
       type(beam_structure_t), intent(in), optional :: beam_structure
     end subroutine process_beams_startup_message
 <<Process: procedures>>=
   module subroutine process_beams_startup_message &
        (process, unit, beam_structure)
     class(process_t), intent(in) :: process
     integer, intent(in), optional :: unit
     type(beam_structure_t), intent(in), optional :: beam_structure
     call process%beam_config%startup_message (unit, beam_structure)
   end subroutine process_beams_startup_message
 
 @ %def process_beams_startup_message
 @ Initialize phase-space configuration by reading out the environment
 variables.  We return the rebuild flags and store parameters in the blocks
 [[phs_par]] and [[mapping_defs]].
 
 The phase-space configuration object(s) are allocated by [[pcm]].
 <<Process: process: TBP>>=
   procedure :: init_phs_config => process_init_phs_config
 <<Process: sub interfaces>>=
     module subroutine process_init_phs_config (process)
       class(process_t), intent(inout) :: process
     end subroutine process_init_phs_config
 <<Process: procedures>>=
   module subroutine process_init_phs_config (process)
     class(process_t), intent(inout) :: process
 
     type(var_list_t), pointer :: var_list
     type(phs_parameters_t) :: phs_par
     type(mapping_defaults_t) :: mapping_defs
 
     var_list => process%env%get_var_list_ptr ()
 
     phs_par%m_threshold_s = &
          var_list%get_rval (var_str ("phs_threshold_s"))
     phs_par%m_threshold_t = &
          var_list%get_rval (var_str ("phs_threshold_t"))
     phs_par%off_shell = &
          var_list%get_ival (var_str ("phs_off_shell"))
     phs_par%keep_nonresonant = &
          var_list%get_lval (var_str ("?phs_keep_nonresonant"))
     phs_par%t_channel = &
          var_list%get_ival (var_str ("phs_t_channel"))
 
     mapping_defs%energy_scale = &
          var_list%get_rval (var_str ("phs_e_scale"))
     mapping_defs%invariant_mass_scale = &
          var_list%get_rval (var_str ("phs_m_scale"))
     mapping_defs%momentum_transfer_scale = &
          var_list%get_rval (var_str ("phs_q_scale"))
     mapping_defs%step_mapping = &
          var_list%get_lval (var_str ("?phs_step_mapping"))
     mapping_defs%step_mapping_exp = &
          var_list%get_lval (var_str ("?phs_step_mapping_exp"))
     mapping_defs%enable_s_mapping = &
          var_list%get_lval (var_str ("?phs_s_mapping"))
 
     associate (pcm => process%pcm)
       call pcm%init_phs_config (process%phs_entry, &
            process%meta, process%env, phs_par, mapping_defs)
     end associate
 
   end subroutine process_init_phs_config
 
 @ %def process_init_phs_config
 @ We complete the kinematics configuration after the beam setup, but before we
 configure the chain of structure functions.  The reason is that we need the
 total energy [[sqrts]] for the kinematics, but the structure-function setup
 requires the number of channels, which depends on the kinematics
 configuration.  For instance, the kinematics module may return the need for
 parameterizing an s-channel resonance.
 <<Process: process: TBP>>=
   procedure :: configure_phs => process_configure_phs
 <<Process: sub interfaces>>=
     module subroutine process_configure_phs (process, rebuild, &
          ignore_mismatch, combined_integration, subdir)
       class(process_t), intent(inout) :: process
       logical, intent(in), optional :: rebuild
       logical, intent(in), optional :: ignore_mismatch
       logical, intent(in), optional :: combined_integration
       type(string_t), intent(in), optional :: subdir
     end subroutine process_configure_phs
 <<Process: procedures>>=
   module subroutine process_configure_phs (process, rebuild, &
        ignore_mismatch, combined_integration, subdir)
     class(process_t), intent(inout) :: process
     logical, intent(in), optional :: rebuild
     logical, intent(in), optional :: ignore_mismatch
     logical, intent(in), optional :: combined_integration
     type(string_t), intent(in), optional :: subdir
     real(default) :: sqrts
     integer :: i, i_born, nlo_type
     class(phs_config_t), pointer :: phs_config_born
     sqrts = process%get_sqrts ()
     do i = 1, process%meta%n_components
        associate (component => process%component(i))
          if (component%active) then
             select type (pcm => process%pcm)
             type is (pcm_default_t)
                call component%configure_phs (sqrts, process%beam_config, &
                     rebuild, ignore_mismatch, subdir)
             class is (pcm_nlo_t)
                nlo_type = component%config%get_nlo_type ()
                select case (nlo_type)
                case (BORN, NLO_VIRTUAL, NLO_SUBTRACTION)
                   call component%configure_phs (sqrts, process%beam_config, &
                        rebuild, ignore_mismatch, subdir)
                   call check_and_extend_phs (component)
                case (NLO_REAL, NLO_MISMATCH, NLO_DGLAP)
                   i_born = component%config%get_associated_born ()
                   if (pcm%component_type(i) /= COMP_REAL_FIN) &
                        call check_and_extend_phs (component)
                   call process%component(i_born)%get_phs_config &
                        (phs_config_born)
                   select type (config => component%phs_config)
                   type is (phs_fks_config_t)
                      select type (phs_config_born)
                      type is (phs_wood_config_t)
                         config%md5sum_born_config = &
                              phs_config_born%md5sum_phs_config
                         call config%set_born_config (phs_config_born)
                         call config%set_mode (component%config%get_nlo_type ())
                      end select
                   end select
                   call component%configure_phs (sqrts, &
                        process%beam_config, rebuild, ignore_mismatch, subdir)
                end select
             class default
                call msg_bug ("process_configure_phs: unsupported PCM type")
             end select
          end if
        end associate
     end do
   contains
     subroutine check_and_extend_phs (component)
       type(process_component_t), intent(inout) :: component
       if (combined_integration) then
          select type (phs_config => component%phs_config)
          class is (phs_wood_config_t)
             phs_config%is_combined_integration = .true.
             call phs_config%increase_n_par ()
          end select
       end if
     end subroutine check_and_extend_phs
   end subroutine process_configure_phs
 
 @ %def process_configure_phs
 @
 <<Process: process: TBP>>=
   procedure :: print_phs_startup_message => process_print_phs_startup_message
 <<Process: sub interfaces>>=
     module subroutine process_print_phs_startup_message (process)
       class(process_t), intent(in) :: process
     end subroutine process_print_phs_startup_message
 <<Process: procedures>>=
   module subroutine process_print_phs_startup_message (process)
     class(process_t), intent(in) :: process
     integer :: i_component
     do i_component = 1, process%meta%n_components
        associate (component => process%component(i_component))
           if (component%active) then
              call component%phs_config%startup_message ()
           end if
        end associate
     end do
   end subroutine process_print_phs_startup_message
 
 @ %def process_print_phs_startup_message
 @ Insert the structure-function configuration data.  First allocate the
 storage, then insert data one by one.  The third procedure declares a
 mapping (of the MC input parameters) for a specific channel and
 structure-function combination.
 
 We take the number of channels from the corresponding entry in the
 [[config_data]] section.
 
 Otherwise, these a simple wrapper routines.  The extra level in the
 call tree may allow for simple addressing of multiple concurrent beam
 configurations, not implemented currently.
 
 If we do not want structure functions, we simply do not call those procedures.
 <<Process: process: TBP>>=
   procedure :: init_sf_chain => process_init_sf_chain
   generic :: set_sf_channel => set_sf_channel_single
   procedure :: set_sf_channel_single => process_set_sf_channel
   generic :: set_sf_channel => set_sf_channel_array
   procedure :: set_sf_channel_array => process_set_sf_channel_array
 <<Process: sub interfaces>>=
     module subroutine process_init_sf_chain (process, sf_config, sf_trace_file)
       class(process_t), intent(inout) :: process
       type(sf_config_t), dimension(:), intent(in) :: sf_config
       type(string_t), intent(in), optional :: sf_trace_file
     end subroutine process_init_sf_chain
     module subroutine process_set_sf_channel (process, c, sf_channel)
       class(process_t), intent(inout) :: process
       integer, intent(in) :: c
       type(sf_channel_t), intent(in) :: sf_channel
     end subroutine process_set_sf_channel
     module subroutine process_set_sf_channel_array (process, sf_channel)
       class(process_t), intent(inout) :: process
       type(sf_channel_t), dimension(:), intent(in) :: sf_channel
     end subroutine process_set_sf_channel_array
 <<Process: procedures>>=
   module subroutine process_init_sf_chain (process, sf_config, sf_trace_file)
     class(process_t), intent(inout) :: process
     type(sf_config_t), dimension(:), intent(in) :: sf_config
     type(string_t), intent(in), optional :: sf_trace_file
     type(string_t) :: file
     if (present (sf_trace_file)) then
        if (sf_trace_file /= "") then
           file = sf_trace_file
        else
           file = process%get_id () // "_sftrace.dat"
        end if
        call process%beam_config%init_sf_chain (sf_config, file)
     else
        call process%beam_config%init_sf_chain (sf_config)
     end if
   end subroutine process_init_sf_chain
 
   module subroutine process_set_sf_channel (process, c, sf_channel)
     class(process_t), intent(inout) :: process
     integer, intent(in) :: c
     type(sf_channel_t), intent(in) :: sf_channel
     call process%beam_config%set_sf_channel (c, sf_channel)
   end subroutine process_set_sf_channel
 
   module subroutine process_set_sf_channel_array (process, sf_channel)
     class(process_t), intent(inout) :: process
     type(sf_channel_t), dimension(:), intent(in) :: sf_channel
     integer :: c
     call process%beam_config%allocate_sf_channels (size (sf_channel))
     do c = 1, size (sf_channel)
        call process%beam_config%set_sf_channel (c, sf_channel(c))
     end do
   end subroutine process_set_sf_channel_array
 
 @ %def process_init_sf_chain
 @ %def process_set_sf_channel
 @ Notify about the structure-function setup.
 <<Process: process: TBP>>=
   procedure :: sf_startup_message => process_sf_startup_message
 <<Process: sub interfaces>>=
     module subroutine process_sf_startup_message (process, sf_string, unit)
       class(process_t), intent(in) :: process
       type(string_t), intent(in) :: sf_string
       integer, intent(in), optional :: unit
     end subroutine process_sf_startup_message
 <<Process: procedures>>=
   module subroutine process_sf_startup_message (process, sf_string, unit)
     class(process_t), intent(in) :: process
     type(string_t), intent(in) :: sf_string
     integer, intent(in), optional :: unit
     call process%beam_config%sf_startup_message (sf_string, unit)
   end subroutine process_sf_startup_message
 
 @ %def process_sf_startup_message
 @ As soon as both the kinematics configuration and the
 structure-function setup are complete, we match parameterizations
 (channels) for both.  The matching entries are (re)set in the
 [[component]] phase-space configuration, while the structure-function
 configuration is left intact.
 <<Process: process: TBP>>=
   procedure :: collect_channels => process_collect_channels
 <<Process: sub interfaces>>=
     module subroutine process_collect_channels (process, coll)
       class(process_t), intent(inout) :: process
       type(phs_channel_collection_t), intent(inout) :: coll
     end subroutine process_collect_channels
 <<Process: procedures>>=
   module subroutine process_collect_channels (process, coll)
     class(process_t), intent(inout) :: process
     type(phs_channel_collection_t), intent(inout) :: coll
     integer :: i
     do i = 1, process%meta%n_components
        associate (component => process%component(i))
          if (component%active) &
             call component%collect_channels (coll)
        end associate
     end do
   end subroutine process_collect_channels
 
 @ %def process_collect_channels
 @ Independently, we should be able to check if any component does not
 contain phase-space parameters.  Such a process can only be integrated
 if there are structure functions.
 <<Process: process: TBP>>=
   procedure :: contains_trivial_component => process_contains_trivial_component
 <<Process: sub interfaces>>=
     module function process_contains_trivial_component (process) result (flag)
       class(process_t), intent(in) :: process
       logical :: flag
     end function process_contains_trivial_component
 <<Process: procedures>>=
   module function process_contains_trivial_component (process) result (flag)
     class(process_t), intent(in) :: process
     logical :: flag
     integer :: i
     flag = .true.
     do i = 1, process%meta%n_components
        associate (component => process%component(i))
          if (component%active) then
             if (component%get_n_phs_par () == 0)  return
          end if
        end associate
     end do
     flag = .false.
   end function process_contains_trivial_component
 
 @ %def process_contains_trivial_component
 @
 <<Process: process: TBP>>=
   procedure :: get_master_component => process_get_master_component
 <<Process: sub interfaces>>=
     module function process_get_master_component &
          (process, i_mci) result (i_component)
       integer :: i_component
       class(process_t), intent(in) :: process
       integer, intent(in) :: i_mci
     end function process_get_master_component
 <<Process: procedures>>=
   module function process_get_master_component &
        (process, i_mci) result (i_component)
     integer :: i_component
     class(process_t), intent(in) :: process
     integer, intent(in) :: i_mci
     integer :: i
     i_component = 0
     do i = 1, size (process%component)
        if (process%component(i)%i_mci == i_mci) then
           i_component = i
           return
        end if
     end do
   end function process_get_master_component
 
 @ %def process_get_master_component
 @ Determine the MC parameter set structure and the MCI configuration for each
 process component.  We need data from the structure-function and phase-space
 setup, so those should be complete before this is called.  We also
 make a random-number generator instance for each MCI group.
 <<Process: process: TBP>>=
   procedure :: setup_mci => process_setup_mci
 <<Process: sub interfaces>>=
     module subroutine process_setup_mci (process, dispatch_mci)
       class(process_t), intent(inout) :: process
       procedure(dispatch_mci_proc) :: dispatch_mci
     end subroutine process_setup_mci
 <<Process: procedures>>=
   module subroutine process_setup_mci (process, dispatch_mci)
     class(process_t), intent(inout) :: process
     procedure(dispatch_mci_proc) :: dispatch_mci
     class(mci_t), allocatable :: mci_template
     integer :: i, i_mci
     if (debug_on) call msg_debug (D_PROCESS_INTEGRATION, "process_setup_mci")
     associate (pcm => process%pcm)
       call pcm%call_dispatch_mci (dispatch_mci, &
            process%get_var_list_ptr (), process%meta%id, mci_template)
       call pcm%setup_mci (process%mci_entry)
       process%config%n_mci = pcm%n_mci
       process%component(:)%i_mci = pcm%i_mci(:)
       do i = 1, pcm%n_components
          i_mci = process%pcm%i_mci(i)
          if (i_mci > 0) then
             associate (component => process%component(i), &
                  mci_entry => process%mci_entry(i_mci))
               call mci_entry%configure (mci_template, &
                    process%meta%type, &
                    i_mci, i, component, process%beam_config%n_sfpar, &
                    process%rng_factory)
               call mci_entry%set_parameters (process%get_var_list_ptr ())
             end associate
          end if
       end do
     end associate
   end subroutine process_setup_mci
 
 @ %def process_setup_mci
 @ Set cuts.  This is a parse node, namely the right-hand side of the [[cut]]
 assignment.  When creating an instance, we compile this into an evaluation
 tree.  The parse node may be null.
 <<Process: process: TBP>>=
   procedure :: set_cuts => process_set_cuts
 <<Process: sub interfaces>>=
     module subroutine process_set_cuts (process, ef_cuts)
       class(process_t), intent(inout) :: process
       class(expr_factory_t), intent(in) :: ef_cuts
     end subroutine process_set_cuts
 <<Process: procedures>>=
   module subroutine process_set_cuts (process, ef_cuts)
     class(process_t), intent(inout) :: process
     class(expr_factory_t), intent(in) :: ef_cuts
     allocate (process%config%ef_cuts, source = ef_cuts)
   end subroutine process_set_cuts
 
 @ %def process_set_cuts
 @ Analogously for the other expressions.
 <<Process: process: TBP>>=
   procedure :: set_scale => process_set_scale
   procedure :: set_fac_scale => process_set_fac_scale
   procedure :: set_ren_scale => process_set_ren_scale
   procedure :: set_weight => process_set_weight
 <<Process: sub interfaces>>=
     module subroutine process_set_scale (process, ef_scale)
       class(process_t), intent(inout) :: process
       class(expr_factory_t), intent(in) :: ef_scale
     end subroutine process_set_scale
     module subroutine process_set_weight (process, ef_weight)
       class(process_t), intent(inout) :: process
       class(expr_factory_t), intent(in) :: ef_weight
     end subroutine process_set_weight
     module subroutine process_set_fac_scale (process, ef_fac_scale)
       class(process_t), intent(inout) :: process
       class(expr_factory_t), intent(in) :: ef_fac_scale
     end subroutine process_set_fac_scale
     module subroutine process_set_ren_scale (process, ef_ren_scale)
       class(process_t), intent(inout) :: process
       class(expr_factory_t), intent(in) :: ef_ren_scale
     end subroutine process_set_ren_scale
 <<Process: procedures>>=
   module subroutine process_set_scale (process, ef_scale)
     class(process_t), intent(inout) :: process
     class(expr_factory_t), intent(in) :: ef_scale
     allocate (process%config%ef_scale, source = ef_scale)
   end subroutine process_set_scale
 
   module subroutine process_set_fac_scale (process, ef_fac_scale)
     class(process_t), intent(inout) :: process
     class(expr_factory_t), intent(in) :: ef_fac_scale
     allocate (process%config%ef_fac_scale, source = ef_fac_scale)
   end subroutine process_set_fac_scale
 
   module subroutine process_set_ren_scale (process, ef_ren_scale)
     class(process_t), intent(inout) :: process
     class(expr_factory_t), intent(in) :: ef_ren_scale
     allocate (process%config%ef_ren_scale, source = ef_ren_scale)
   end subroutine process_set_ren_scale
 
   module subroutine process_set_weight (process, ef_weight)
     class(process_t), intent(inout) :: process
     class(expr_factory_t), intent(in) :: ef_weight
     allocate (process%config%ef_weight, source = ef_weight)
   end subroutine process_set_weight
 
 @ %def process_set_scale
 @ %def process_set_fac_scale
 @ %def process_set_ren_scale
 @ %def process_set_weight
 @
 \subsubsection{MD5 sum}
 The MD5 sum of the process object should reflect the state completely,
 including integration results.  It is used for checking the integrity
 of event files.  This global checksum includes checksums for the
 various parts.  In particular, the MCI object receives a checksum that
 includes the configuration of all configuration parts relevant for an
 individual integration.  This checksum is used for checking the
 integrity of integration grids.
 
 We do not need MD5 sums for the process terms, since these are
 generated from the component definitions.
 <<Process: process: TBP>>=
   procedure :: compute_md5sum => process_compute_md5sum
 <<Process: sub interfaces>>=
     module subroutine process_compute_md5sum (process)
       class(process_t), intent(inout) :: process
     end subroutine process_compute_md5sum
 <<Process: procedures>>=
   module subroutine process_compute_md5sum (process)
     class(process_t), intent(inout) :: process
     integer :: i
     call process%config%compute_md5sum ()
     do i = 1, process%config%n_components
        associate (component => process%component(i))
          if (component%active) then
             call component%compute_md5sum ()
          end if
        end associate
     end do
     call process%beam_config%compute_md5sum ()
     do i = 1, process%config%n_mci
        call process%mci_entry(i)%compute_md5sum &
             (process%config, process%component, process%beam_config)
     end do
   end subroutine process_compute_md5sum
 
 @ %def process_compute_md5sum
 @
 <<Process: process: TBP>>=
   procedure :: sampler_test => process_sampler_test
 <<Process: sub interfaces>>=
     module subroutine process_sampler_test (process, sampler, n_calls, i_mci)
       class(process_t), intent(inout) :: process
       class(mci_sampler_t), intent(inout) :: sampler
       integer, intent(in) :: n_calls, i_mci
     end subroutine process_sampler_test
 <<Process: procedures>>=
   module subroutine process_sampler_test (process, sampler, n_calls, i_mci)
     class(process_t), intent(inout) :: process
     class(mci_sampler_t), intent(inout) :: sampler
     integer, intent(in) :: n_calls, i_mci
     call process%mci_entry(i_mci)%sampler_test (sampler, n_calls)
   end subroutine process_sampler_test
 
 @ %def process_sampler_test
 @ The finalizer should be called after all integration passes have been
 completed.  It will, for instance, write a summary of the integration
 results.
 
 [[integrate_dummy]] does a ``dummy'' integration in the sense that
 nothing is done but just empty integration results appended.
 <<Process: process: TBP>>=
   procedure :: final_integration => process_final_integration
   procedure :: integrate_dummy => process_integrate_dummy
 <<Process: sub interfaces>>=
     module subroutine process_final_integration (process, i_mci)
       class(process_t), intent(inout) :: process
       integer, intent(in) :: i_mci
     end subroutine process_final_integration
     module subroutine process_integrate_dummy (process)
       class(process_t), intent(inout) :: process
     end subroutine process_integrate_dummy
 <<Process: procedures>>=
   module subroutine process_final_integration (process, i_mci)
     class(process_t), intent(inout) :: process
     integer, intent(in) :: i_mci
     call process%mci_entry(i_mci)%final_integration ()
   end subroutine process_final_integration
 
   module subroutine process_integrate_dummy (process)
     class(process_t), intent(inout) :: process
     type(integration_results_t) :: results
     integer :: u_log
     u_log = logfile_unit ()
     call results%init (process%meta%type)
     call results%display_init (screen = .true., unit = u_log)
     call results%new_pass ()
     call results%record (1, 0, 0._default, 0._default, 0._default)
     call results%display_final ()
   end subroutine process_integrate_dummy
 
 @ %def process_final_integration
 @ %def process_integrate_dummy
 @
 <<Process: process: TBP>>=
   procedure :: integrate => process_integrate
 <<Process: sub interfaces>>=
     module subroutine process_integrate (process, i_mci, mci_work, &
        mci_sampler, n_it, n_calls, adapt_grids, adapt_weights, final, &
        pacify, nlo_type)
       class(process_t), intent(inout) :: process
       integer, intent(in) :: i_mci
       type(mci_work_t), intent(inout) :: mci_work
       class(mci_sampler_t), intent(inout) :: mci_sampler
       integer, intent(in) :: n_it, n_calls
       logical, intent(in), optional :: adapt_grids, adapt_weights
       logical, intent(in), optional :: final
       logical, intent(in), optional :: pacify
       integer, intent(in), optional :: nlo_type
     end subroutine process_integrate
 <<Process: procedures>>=
   module subroutine process_integrate (process, i_mci, mci_work, &
      mci_sampler, n_it, n_calls, adapt_grids, adapt_weights, final, &
      pacify, nlo_type)
     class(process_t), intent(inout) :: process
     integer, intent(in) :: i_mci
     type(mci_work_t), intent(inout) :: mci_work
     class(mci_sampler_t), intent(inout) :: mci_sampler
     integer, intent(in) :: n_it, n_calls
     logical, intent(in), optional :: adapt_grids, adapt_weights
     logical, intent(in), optional :: final
     logical, intent(in), optional :: pacify
     integer, intent(in), optional :: nlo_type
     associate (mci_entry => process%mci_entry(i_mci))
        call mci_entry%integrate (mci_work%mci, mci_sampler, n_it, n_calls, &
             adapt_grids, adapt_weights, final, pacify, &
             nlo_type = nlo_type)
        call mci_entry%results%display_pass (pacify)
     end associate
   end subroutine process_integrate
 
 @ %def process_integrate
 @
 <<Process: process: TBP>>=
   procedure :: generate_weighted_event => process_generate_weighted_event
 <<Process: sub interfaces>>=
     module subroutine process_generate_weighted_event (process, i_mci, &
          mci_work, mci_sampler, keep_failed_events)
       class(process_t), intent(inout) :: process
       integer, intent(in) :: i_mci
       type(mci_work_t), intent(inout) :: mci_work
       class(mci_sampler_t), intent(inout) :: mci_sampler
       logical, intent(in) :: keep_failed_events
     end subroutine process_generate_weighted_event
 <<Process: procedures>>=
   module subroutine process_generate_weighted_event (process, i_mci, &
        mci_work, mci_sampler, keep_failed_events)
     class(process_t), intent(inout) :: process
     integer, intent(in) :: i_mci
     type(mci_work_t), intent(inout) :: mci_work
     class(mci_sampler_t), intent(inout) :: mci_sampler
     logical, intent(in) :: keep_failed_events
     associate (mci_entry => process%mci_entry(i_mci))
        call mci_entry%generate_weighted_event (mci_work%mci, &
             mci_sampler, keep_failed_events)
     end associate
   end subroutine process_generate_weighted_event
 
 @ %def process_generate_weighted_event
 <<Process: process: TBP>>=
   procedure :: generate_unweighted_event => process_generate_unweighted_event
 <<Process: sub interfaces>>=
     module subroutine process_generate_unweighted_event (process, i_mci, &
        mci_work, mci_sampler)
       class(process_t), intent(inout) :: process
       integer, intent(in) :: i_mci
       type(mci_work_t), intent(inout) :: mci_work
       class(mci_sampler_t), intent(inout) :: mci_sampler
     end subroutine process_generate_unweighted_event
 <<Process: procedures>>=
   module subroutine process_generate_unweighted_event (process, i_mci, &
      mci_work, mci_sampler)
     class(process_t), intent(inout) :: process
     integer, intent(in) :: i_mci
     type(mci_work_t), intent(inout) :: mci_work
     class(mci_sampler_t), intent(inout) :: mci_sampler
     associate (mci_entry => process%mci_entry(i_mci))
        call mci_entry%generate_unweighted_event &
           (mci_work%mci, mci_sampler)
     end associate
   end subroutine process_generate_unweighted_event
 
 @ %def process_generate_unweighted_event
 @ Display the final results for the sum of all components. This is useful,
 obviously, only if there is more than one component and not if a combined
 integration of all components together has been performed.
 <<Process: process: TBP>>=
   procedure :: display_summed_results => process_display_summed_results
 <<Process: sub interfaces>>=
     module subroutine process_display_summed_results (process, pacify)
       class(process_t), intent(inout) :: process
       logical, intent(in) :: pacify
     end subroutine process_display_summed_results
 <<Process: procedures>>=
   module subroutine process_display_summed_results (process, pacify)
     class(process_t), intent(inout) :: process
     logical, intent(in) :: pacify
     type(integration_results_t) :: results
     integer :: u_log
     u_log = logfile_unit ()
     call results%init (process%meta%type)
     call results%display_init (screen = .true., unit = u_log)
     call results%new_pass ()
     call results%record (1, 0, &
          process%get_integral (), &
          process%get_error (), &
          process%get_efficiency (), suppress = pacify)
     select type (pcm => process%pcm)
     class is (pcm_nlo_t)
        !!! Check that Born integral is there
        if (.not. pcm%settings%combined_integration .and. &
             process%component_can_be_integrated (1)) then
           call results%record_correction (process%get_correction (), &
                process%get_correction_error ())
        end if
     end select
     call results%display_final ()
   end subroutine process_display_summed_results
 
 @ %def process_display_summed_results
 @ Run LaTeX/Metapost to generate a ps/pdf file for the integration
 history.  We (re)write the driver file -- just in case it has been
 missed before -- then we compile it.
 <<Process: process: TBP>>=
   procedure :: display_integration_history => &
        process_display_integration_history
 <<Process: sub interfaces>>=
     module subroutine process_display_integration_history &
          (process, i_mci, filename, os_data, eff_reset)
       class(process_t), intent(inout) :: process
       integer, intent(in) :: i_mci
       type(string_t), intent(in) :: filename
       type(os_data_t), intent(in) :: os_data
       logical, intent(in), optional :: eff_reset
     end subroutine process_display_integration_history
 <<Process: procedures>>=
   module subroutine process_display_integration_history &
        (process, i_mci, filename, os_data, eff_reset)
     class(process_t), intent(inout) :: process
     integer, intent(in) :: i_mci
     type(string_t), intent(in) :: filename
     type(os_data_t), intent(in) :: os_data
     logical, intent(in), optional :: eff_reset
     call integration_results_write_driver &
          (process%mci_entry(i_mci)%results, filename, eff_reset)
     call integration_results_compile_driver &
          (process%mci_entry(i_mci)%results, filename, os_data)
   end subroutine process_display_integration_history
 
 @ %def subroutine process_display_integration_history
 @ Write a complete logfile (with hardcoded name based on the process ID).
 We do not write internal data.
 <<Process: process: TBP>>=
   procedure :: write_logfile => process_write_logfile
 <<Process: sub interfaces>>=
     module subroutine process_write_logfile (process, i_mci, filename)
       class(process_t), intent(inout) :: process
       integer, intent(in) :: i_mci
       type(string_t), intent(in) :: filename
     end subroutine process_write_logfile
 <<Process: procedures>>=
   module subroutine process_write_logfile (process, i_mci, filename)
     class(process_t), intent(inout) :: process
     integer, intent(in) :: i_mci
     type(string_t), intent(in) :: filename
     type(time_t) :: time
     integer :: unit, u
     unit = free_unit ()
     open (unit = unit, file = char (filename), action = "write", &
           status = "replace")
     u = given_output_unit (unit)
     write (u, "(A)")  repeat ("#", 79)
     call process%meta%write (u, .false.)
     write (u, "(A)")  repeat ("#", 79)
     write (u, "(3x,A,ES17.10)")  "Integral   = ", &
          process%mci_entry(i_mci)%get_integral ()
     write (u, "(3x,A,ES17.10)")  "Error      = ", &
          process%mci_entry(i_mci)%get_error ()
     write (u, "(3x,A,ES17.10)")  "Accuracy   = ", &
          process%mci_entry(i_mci)%get_accuracy ()
     write (u, "(3x,A,ES17.10)")  "Chi2       = ", &
          process%mci_entry(i_mci)%get_chi2 ()
     write (u, "(3x,A,ES17.10)")  "Efficiency = ", &
          process%mci_entry(i_mci)%get_efficiency ()
     call process%mci_entry(i_mci)%get_time (time, 10000)
     if (time%is_known ()) then
        write (u, "(3x,A,1x,A)")  "T(10k evt) = ", char (time%to_string_dhms ())
     else
        write (u, "(3x,A)")  "T(10k evt) =  [undefined]"
     end if
     call process%mci_entry(i_mci)%results%write (u)
     write (u, "(A)")  repeat ("#", 79)
     call process%mci_entry(i_mci)%results%write_chain_weights (u)
     write (u, "(A)")  repeat ("#", 79)
     call process%mci_entry(i_mci)%counter%write (u)
     write (u, "(A)")  repeat ("#", 79)
     call process%mci_entry(i_mci)%mci%write_log_entry (u)
     write (u, "(A)")  repeat ("#", 79)
     call process%beam_config%data%write (u)
     write (u, "(A)")  repeat ("#", 79)
     if (allocated (process%config%ef_cuts)) then
        write (u, "(3x,A)") "Cut expression:"
        call process%config%ef_cuts%write (u)
     else
        write (u, "(3x,A)") "No cuts used."
     end if
     call write_separator (u)
     if (allocated (process%config%ef_scale)) then
        write (u, "(3x,A)") "Scale expression:"
        call process%config%ef_scale%write (u)
     else
        write (u, "(3x,A)") "No scale expression was given."
     end if
     call write_separator (u)
     if (allocated (process%config%ef_fac_scale)) then
        write (u, "(3x,A)") "Factorization scale expression:"
        call process%config%ef_fac_scale%write (u)
     else
        write (u, "(3x,A)") "No factorization scale expression was given."
     end if
     call write_separator (u)
     if (allocated (process%config%ef_ren_scale)) then
        write (u, "(3x,A)") "Renormalization scale expression:"
        call process%config%ef_ren_scale%write (u)
     else
        write (u, "(3x,A)") "No renormalization scale expression was given."
     end if
     call write_separator (u)
     if (allocated (process%config%ef_weight)) then
        call write_separator (u)
        write (u, "(3x,A)") "Weight expression:"
        call process%config%ef_weight%write (u)
     else
        write (u, "(3x,A)") "No weight expression was given."
     end if
     write (u, "(A)")  repeat ("#", 79)
     write (u, "(1x,A)") "Summary of quantum-number states:"
     write (u, "(1x,A)")  " + sign: allowed and contributing"
     write (u, "(1x,A)")  " no +  : switched off at runtime"
     call process%write_state_summary (u)
     write (u, "(A)")  repeat ("#", 79)
     call process%env%write (u, show_var_list=.true., &
               show_model=.false., show_lib=.false., show_os_data=.false.)
     write (u, "(A)")  repeat ("#", 79)
     close (u)
   end subroutine process_write_logfile
 
 @ %def process_write_logfile
 @ Display the quantum-number combinations of the process components, and their
 current status (allowed or switched off).
 <<Process: process: TBP>>=
   procedure :: write_state_summary => process_write_state_summary
 <<Process: sub interfaces>>=
     module subroutine process_write_state_summary (process, unit)
       class(process_t), intent(in) :: process
       integer, intent(in), optional :: unit
     end subroutine process_write_state_summary
 <<Process: procedures>>=
   module subroutine process_write_state_summary (process, unit)
     class(process_t), intent(in) :: process
     integer, intent(in), optional :: unit
     integer :: i, i_component, u
     u = given_output_unit (unit)
     do i = 1, size (process%term)
        call write_separator (u)
        i_component = process%term(i)%i_component
        if (i_component /= 0) then
           call process%term(i)%write_state_summary &
                (process%get_core_term(i), unit)
        end if
     end do
   end subroutine process_write_state_summary
 
 @ %def process_write_state_summary
 @ Prepare event generation for the specified MCI entry.  This implies, in
 particular, checking the phase-space file.
 <<Process: process: TBP>>=
   procedure :: prepare_simulation => process_prepare_simulation
 <<Process: sub interfaces>>=
     module subroutine process_prepare_simulation (process, i_mci)
       class(process_t), intent(inout) :: process
       integer, intent(in) :: i_mci
     end subroutine process_prepare_simulation
 <<Process: procedures>>=
   module subroutine process_prepare_simulation (process, i_mci)
     class(process_t), intent(inout) :: process
     integer, intent(in) :: i_mci
     call process%mci_entry(i_mci)%prepare_simulation ()
   end subroutine process_prepare_simulation
 
 @ %def process_prepare_simulation
 @
 \subsubsection{Retrieve process data}
 Tell whether integral (and error) are known.
 <<Process: process: TBP>>=
   generic :: has_integral => has_integral_tot, has_integral_mci
   procedure :: has_integral_tot => process_has_integral_tot
   procedure :: has_integral_mci => process_has_integral_mci
 <<Process: sub interfaces>>=
     module function process_has_integral_tot (process) result (flag)
       logical :: flag
       class(process_t), intent(in) :: process
     end function process_has_integral_tot
     module function process_has_integral_mci (process, i_mci) result (flag)
       logical :: flag
       class(process_t), intent(in) :: process
       integer, intent(in) :: i_mci
     end function process_has_integral_mci
 <<Process: procedures>>=
   module function process_has_integral_mci (process, i_mci) result (flag)
     logical :: flag
     class(process_t), intent(in) :: process
     integer, intent(in) :: i_mci
     if (allocated (process%mci_entry)) then
        flag = process%mci_entry(i_mci)%has_integral ()
     else
        flag = .false.
     end if
   end function process_has_integral_mci
 
   module function process_has_integral_tot (process) result (flag)
     logical :: flag
     class(process_t), intent(in) :: process
     integer :: i, j, i_component
     if (allocated (process%mci_entry)) then
        flag = .true.
        do i = 1, size (process%mci_entry)
           do j = 1, size (process%mci_entry(i)%i_component)
              i_component = process%mci_entry(i)%i_component(j)
              if (process%component_can_be_integrated (i_component)) &
                 flag = flag .and. process%mci_entry(i)%has_integral ()
           end do
        end do
     else
        flag = .false.
     end if
   end function process_has_integral_tot
 
 @ %def process_has_integral
 @
 Return the current integral and error obtained by the integrator [[i_mci]].
 <<Process: process: TBP>>=
   generic :: get_integral => get_integral_tot, get_integral_mci
   generic :: get_error => get_error_tot, get_error_mci
   generic :: get_efficiency => get_efficiency_tot, get_efficiency_mci
   procedure :: get_integral_tot => process_get_integral_tot
   procedure :: get_integral_mci => process_get_integral_mci
   procedure :: get_error_tot => process_get_error_tot
   procedure :: get_error_mci => process_get_error_mci
   procedure :: get_efficiency_tot => process_get_efficiency_tot
   procedure :: get_efficiency_mci => process_get_efficiency_mci
 <<Process: sub interfaces>>=
     module function process_get_integral_mci (process, i_mci) result (integral)
       real(default) :: integral
       class(process_t), intent(in) :: process
       integer, intent(in) :: i_mci
     end function process_get_integral_mci
     module function process_get_error_mci (process, i_mci) result (error)
       real(default) :: error
       class(process_t), intent(in) :: process
       integer, intent(in) :: i_mci
     end function process_get_error_mci
     module function process_get_efficiency_mci &
          (process, i_mci) result (efficiency)
       real(default) :: efficiency
       class(process_t), intent(in) :: process
       integer, intent(in) :: i_mci
     end function process_get_efficiency_mci
     module function process_get_integral_tot (process) result (integral)
       real(default) :: integral
       class(process_t), intent(in) :: process
     end function process_get_integral_tot
     module function process_get_error_tot (process) result (error)
       real(default) :: variance
       class(process_t), intent(in) :: process
       real(default) :: error
     end function process_get_error_tot
     module function process_get_efficiency_tot (process) result (efficiency)
       real(default) :: efficiency
       class(process_t), intent(in) :: process
     end function process_get_efficiency_tot
 <<Process: procedures>>=
   module function process_get_integral_mci (process, i_mci) result (integral)
     real(default) :: integral
     class(process_t), intent(in) :: process
     integer, intent(in) :: i_mci
     integral = process%mci_entry(i_mci)%get_integral ()
   end function process_get_integral_mci
 
   module function process_get_error_mci (process, i_mci) result (error)
     real(default) :: error
     class(process_t), intent(in) :: process
     integer, intent(in) :: i_mci
     error = process%mci_entry(i_mci)%get_error ()
   end function process_get_error_mci
 
   module function process_get_efficiency_mci &
        (process, i_mci) result (efficiency)
     real(default) :: efficiency
     class(process_t), intent(in) :: process
     integer, intent(in) :: i_mci
     efficiency = process%mci_entry(i_mci)%get_efficiency ()
   end function process_get_efficiency_mci
 
   module function process_get_integral_tot (process) result (integral)
     real(default) :: integral
     class(process_t), intent(in) :: process
     integer :: i, j, i_component
     integral = zero
     if (allocated (process%mci_entry)) then
        do i = 1, size (process%mci_entry)
           do j = 1, size (process%mci_entry(i)%i_component)
              i_component = process%mci_entry(i)%i_component(j)
              if (process%component_can_be_integrated(i_component)) &
                   integral = integral + process%mci_entry(i)%get_integral ()
           end do
        end do
     end if
   end function process_get_integral_tot
 
   module function process_get_error_tot (process) result (error)
     real(default) :: variance
     class(process_t), intent(in) :: process
     real(default) :: error
     integer :: i, j, i_component
     variance = zero
     if (allocated (process%mci_entry)) then
        do i = 1, size (process%mci_entry)
           do j = 1, size (process%mci_entry(i)%i_component)
              i_component = process%mci_entry(i)%i_component(j)
              if (process%component_can_be_integrated(i_component)) &
                   variance = variance + process%mci_entry(i)%get_error () ** 2
           end do
        end do
     end if
     error = sqrt (variance)
   end function process_get_error_tot
 
   module function process_get_efficiency_tot (process) result (efficiency)
     real(default) :: efficiency
     class(process_t), intent(in) :: process
     real(default) :: den, eff, int
     integer :: i, j, i_component
     den = zero
     if (allocated (process%mci_entry)) then
        do i = 1, size (process%mci_entry)
           do j = 1, size (process%mci_entry(i)%i_component)
              i_component = process%mci_entry(i)%i_component(j)
              if (process%component_can_be_integrated(i_component)) then
                 int = process%get_integral (i)
                 if (int > 0) then
                    eff = process%mci_entry(i)%get_efficiency ()
                    if (eff > 0) then
                       den = den + int / eff
                    else
                       efficiency = 0
                       return
                    end if
                 end if
              end if
           end do
        end do
     end if
     if (den > 0) then
        efficiency = process%get_integral () / den
     else
        efficiency = 0
     end if
   end function process_get_efficiency_tot
 
 @ %def process_get_integral process_get_efficiency
 @ Let us call the ratio of the NLO and the LO result $\iota = I_{NLO}
 / I_{LO}$. Then usual error propagation gives
 \begin{equation*}
   \sigma_{\iota}^2 = \left(\frac{\partial \iota}{\partial
     I_{LO}}\right)^2 \sigma_{I_{LO}}^2
                    + \left(\frac{\partial \iota}{\partial
                      I_{NLO}}\right)^2 \sigma_{I_{NLO}}^2
                    = \frac{I_{NLO}^2\sigma_{I_{LO}}^2}{I_{LO}^4} +
                    \frac{\sigma_{I_{NLO}}^2}{I_{LO}^2}.
 \end{equation*}
 <<Process: process: TBP>>=
   procedure :: get_correction => process_get_correction
   procedure :: get_correction_error => process_get_correction_error
 <<Process: sub interfaces>>=
     module function process_get_correction (process) result (ratio)
       real(default) :: ratio
       class(process_t), intent(in) :: process
     end function process_get_correction
     module function process_get_correction_error (process) result (error)
       real(default) :: error
       class(process_t), intent(in) :: process
     end function process_get_correction_error
 <<Process: procedures>>=
   module function process_get_correction (process) result (ratio)
     real(default) :: ratio
     class(process_t), intent(in) :: process
     integer :: i_mci, i_component
     real(default) :: int_born, int_nlo
     int_nlo = zero
     int_born = process%mci_entry(1)%get_integral ()
     i_mci = 2
     do i_component = 2, size (process%component)
        if (process%component_can_be_integrated (i_component)) then
           int_nlo = int_nlo + process%mci_entry(i_mci)%get_integral ()
           i_mci = i_mci + 1
        end if
     end do
     ratio = int_nlo / int_born * 100
   end function process_get_correction
 
   module function process_get_correction_error (process) result (error)
     real(default) :: error
     class(process_t), intent(in) :: process
     real(default) :: int_born, sum_int_nlo
     real(default) :: err_born, err2
     integer :: i_mci, i_component
     sum_int_nlo = zero; err2 = zero
     int_born = process%mci_entry(1)%get_integral ()
     err_born = process%mci_entry(1)%get_error ()
     i_mci = 2
     do i_component = 2, size (process%component)
        if (process%component_can_be_integrated (i_component)) then
           sum_int_nlo = sum_int_nlo + process%mci_entry(i_mci)%get_integral ()
           err2 = err2 + process%mci_entry(i_mci)%get_error()**2
           i_mci = i_mci + 1
        end if
     end do
     error = sqrt (err2 / int_born**2 + sum_int_nlo**2 * err_born**2 / int_born**4) * 100
   end function process_get_correction_error
 
 @ %def process_get_correction process_get_correction_error
 @ This routine asks [[beam_config]] for the frame.
 <<Process: process: TBP>>=
   procedure :: lab_is_cm => process_lab_is_cm
 <<Process: sub interfaces>>=
     pure module function process_lab_is_cm (process) result (lab_is_cm)
       logical :: lab_is_cm
       class(process_t), intent(in) :: process
     end function process_lab_is_cm
 <<Process: procedures>>=
   pure module function process_lab_is_cm (process) result (lab_is_cm)
     logical :: lab_is_cm
     class(process_t), intent(in) :: process
     lab_is_cm = process%beam_config%lab_is_cm
   end function process_lab_is_cm
 
 @ %def process_lab_is_cm
 @
 <<Process: process: TBP>>=
   procedure :: get_component_ptr => process_get_component_ptr
 <<Process: sub interfaces>>=
     module function process_get_component_ptr (process, i) result (component)
       type(process_component_t), pointer :: component
       class(process_t), intent(in), target :: process
       integer, intent(in) :: i
     end function process_get_component_ptr
 <<Process: procedures>>=
   module function process_get_component_ptr (process, i) result (component)
     type(process_component_t), pointer :: component
     class(process_t), intent(in), target :: process
     integer, intent(in) :: i
     component => process%component(i)
   end function process_get_component_ptr
 
 @ %def process_get_component_ptr
 @
 <<Process: process: TBP>>=
   procedure :: get_qcd => process_get_qcd
 <<Process: sub interfaces>>=
     module function process_get_qcd (process) result (qcd)
       type(qcd_t) :: qcd
       class(process_t), intent(in) :: process
     end function process_get_qcd
 <<Process: procedures>>=
   module function process_get_qcd (process) result (qcd)
     type(qcd_t) :: qcd
     class(process_t), intent(in) :: process
     qcd = process%config%get_qcd ()
   end function process_get_qcd
 
 @ %def process_get_qcd
 @
 <<Process: process: TBP>>=
   generic :: get_component_type => get_component_type_single
   procedure :: get_component_type_single => process_get_component_type_single
 <<Process: sub interfaces>>=
     elemental module function process_get_component_type_single &
        (process, i_component) result (comp_type)
       integer :: comp_type
       class(process_t), intent(in) :: process
       integer, intent(in) :: i_component
     end function process_get_component_type_single
 <<Process: procedures>>=
   elemental module function process_get_component_type_single &
      (process, i_component) result (comp_type)
     integer :: comp_type
     class(process_t), intent(in) :: process
     integer, intent(in) :: i_component
     comp_type = process%component(i_component)%component_type
   end function process_get_component_type_single
 
 @ %def process_get_component_type_single
 @
 <<Process: process: TBP>>=
   generic :: get_component_type => get_component_type_all
   procedure :: get_component_type_all => process_get_component_type_all
 <<Process: sub interfaces>>=
     module function process_get_component_type_all &
        (process) result (comp_type)
       integer, dimension(:), allocatable :: comp_type
       class(process_t), intent(in) :: process
     end function process_get_component_type_all
 <<Process: procedures>>=
   module function process_get_component_type_all &
      (process) result (comp_type)
     integer, dimension(:), allocatable :: comp_type
     class(process_t), intent(in) :: process
     allocate (comp_type (size (process%component)))
     comp_type = process%component%component_type
   end function process_get_component_type_all
 
 @ %def process_get_component_type_all
 @
 <<Process: process: TBP>>=
   procedure :: get_component_i_terms => process_get_component_i_terms
 <<Process: sub interfaces>>=
     module function process_get_component_i_terms &
          (process, i_component) result (i_term)
        integer, dimension(:), allocatable :: i_term
        class(process_t), intent(in) :: process
        integer, intent(in) :: i_component
     end function process_get_component_i_terms
 <<Process: procedures>>=
   module function process_get_component_i_terms &
        (process, i_component) result (i_term)
      integer, dimension(:), allocatable :: i_term
      class(process_t), intent(in) :: process
      integer, intent(in) :: i_component
      allocate (i_term (size (process%component(i_component)%i_term)))
      i_term = process%component(i_component)%i_term
   end function process_get_component_i_terms
 
 @ %def process_get_component_i_terms
 @
 <<Process: process: TBP>>=
   procedure :: get_n_allowed_born => process_get_n_allowed_born
 <<Process: sub interfaces>>=
     module function process_get_n_allowed_born (process, i_born) result (n_born)
       class(process_t), intent(inout) :: process
       integer, intent(in) :: i_born
       integer :: n_born
     end function process_get_n_allowed_born
 <<Process: procedures>>=
   module function process_get_n_allowed_born (process, i_born) result (n_born)
     class(process_t), intent(inout) :: process
     integer, intent(in) :: i_born
     integer :: n_born
     n_born = process%term(i_born)%n_allowed
   end function process_get_n_allowed_born
 
 @ %def process_get_n_allowed_born
 @ Workaround getter. Would be better to remove this.
 <<Process: process: TBP>>=
   procedure :: get_pcm_ptr => process_get_pcm_ptr
 <<Process: sub interfaces>>=
     module function process_get_pcm_ptr (process) result (pcm)
       class(pcm_t), pointer :: pcm
       class(process_t), intent(in), target :: process
     end function process_get_pcm_ptr
 <<Process: procedures>>=
   module function process_get_pcm_ptr (process) result (pcm)
     class(pcm_t), pointer :: pcm
     class(process_t), intent(in), target :: process
     pcm => process%pcm
   end function process_get_pcm_ptr
 
 @ %def process_get_pcm_ptr
 <<Process: process: TBP>>=
   generic :: component_can_be_integrated => component_can_be_integrated_single
   generic :: component_can_be_integrated => component_can_be_integrated_all
   procedure :: component_can_be_integrated_single => &
        process_component_can_be_integrated_single
 <<Process: sub interfaces>>=
     module function process_component_can_be_integrated_single &
          (process, i_component) result (active)
       logical :: active
       class(process_t), intent(in) :: process
       integer, intent(in) :: i_component
     end function process_component_can_be_integrated_single
 <<Process: procedures>>=
   module function process_component_can_be_integrated_single &
        (process, i_component) result (active)
     logical :: active
     class(process_t), intent(in) :: process
     integer, intent(in) :: i_component
     logical :: combined_integration
     select type (pcm => process%pcm)
     type is (pcm_nlo_t)
        combined_integration = pcm%settings%combined_integration
     class default
        combined_integration = .false.
     end select
     associate (component => process%component(i_component))
        active = component%can_be_integrated ()
        if (combined_integration) &
             active = active .and. component%component_type <= COMP_MASTER
     end associate
   end function process_component_can_be_integrated_single
 
 @ %def process_component_can_be_integrated_single
 @
 <<Process: process: TBP>>=
   procedure :: component_can_be_integrated_all => &
        process_component_can_be_integrated_all
 <<Process: sub interfaces>>=
     module function process_component_can_be_integrated_all &
          (process) result (val)
       logical, dimension(:), allocatable :: val
       class(process_t), intent(in) :: process
     end function process_component_can_be_integrated_all
 <<Process: procedures>>=
   module function process_component_can_be_integrated_all (process) result (val)
     logical, dimension(:), allocatable :: val
     class(process_t), intent(in) :: process
     integer :: i
     allocate (val (size (process%component)))
     do i = 1, size (process%component)
        val(i) = process%component_can_be_integrated (i)
     end do
   end function process_component_can_be_integrated_all
 
 @ %def process_component_can_be_integrated_all
 @
 <<Process: process: TBP>>=
   procedure :: reset_selected_cores => process_reset_selected_cores
 <<Process: sub interfaces>>=
     pure module subroutine process_reset_selected_cores (process)
       class(process_t), intent(inout) :: process
     end subroutine process_reset_selected_cores
 <<Process: procedures>>=
   pure module subroutine process_reset_selected_cores (process)
     class(process_t), intent(inout) :: process
     process%pcm%component_selected = .false.
   end subroutine process_reset_selected_cores
 
 @ %def process_reset_selected_cores
 @
 <<Process: process: TBP>>=
   procedure :: select_components => process_select_components
 <<Process: sub interfaces>>=
     pure module subroutine process_select_components (process, indices)
       class(process_t), intent(inout) :: process
       integer, dimension(:), intent(in) :: indices
     end subroutine process_select_components
 <<Process: procedures>>=
   pure module subroutine process_select_components (process, indices)
     class(process_t), intent(inout) :: process
     integer, dimension(:), intent(in) :: indices
     associate (pcm => process%pcm)
       pcm%component_selected(indices) = .true.
     end associate
   end subroutine process_select_components
 
 @ %def process_select_components
 @
 <<Process: process: TBP>>=
   procedure :: component_is_selected => process_component_is_selected
 <<Process: sub interfaces>>=
     pure module function process_component_is_selected &
          (process, index) result (val)
       logical :: val
       class(process_t), intent(in) :: process
       integer, intent(in) :: index
     end function process_component_is_selected
 <<Process: procedures>>=
   pure module function process_component_is_selected &
        (process, index) result (val)
     logical :: val
     class(process_t), intent(in) :: process
     integer, intent(in) :: index
     associate (pcm => process%pcm)
       val = pcm%component_selected(index)
     end associate
   end function process_component_is_selected
 
 @ %def process_component_is_selected
 @
 <<Process: process: TBP>>=
   procedure :: get_coupling_powers => process_get_coupling_powers
 <<Process: sub interfaces>>=
     pure module subroutine process_get_coupling_powers &
          (process, alpha_power, alphas_power)
       class(process_t), intent(in) :: process
       integer, intent(out) :: alpha_power, alphas_power
     end subroutine process_get_coupling_powers
 <<Process: procedures>>=
   pure module subroutine process_get_coupling_powers &
        (process, alpha_power, alphas_power)
     class(process_t), intent(in) :: process
     integer, intent(out) :: alpha_power, alphas_power
     call process%component(1)%config%get_coupling_powers &
          (alpha_power, alphas_power)
   end subroutine process_get_coupling_powers
 
 @ %def process_get_coupling_powers
 @
 <<Process: process: TBP>>=
   procedure :: get_real_component => process_get_real_component
 <<Process: sub interfaces>>=
     module function process_get_real_component (process) result (i_real)
       integer :: i_real
       class(process_t), intent(in) :: process
     end function process_get_real_component
 <<Process: procedures>>=
   module function process_get_real_component (process) result (i_real)
     integer :: i_real
     class(process_t), intent(in) :: process
     integer :: i_component
     type(process_component_def_t), pointer :: config => null ()
     i_real = 0
     do i_component = 1, size (process%component)
        config => process%get_component_def_ptr (i_component)
        if (config%get_nlo_type () == NLO_REAL) then
           i_real = i_component
           exit
        end if
     end do
   end function process_get_real_component
 
 @ %def process_get_real_component
 @
 <<Process: process: TBP>>=
   procedure :: extract_active_component_mci => &
        process_extract_active_component_mci
 <<Process: sub interfaces>>=
     module function process_extract_active_component_mci &
          (process) result (i_active)
       integer :: i_active
       class(process_t), intent(in) :: process
     end function process_extract_active_component_mci
 <<Process: procedures>>=
   module function process_extract_active_component_mci &
        (process) result (i_active)
     integer :: i_active
     class(process_t), intent(in) :: process
     integer :: i_mci, j, i_component, n_active
     call count_n_active ()
     if (n_active /= 1) i_active = 0
   contains
     subroutine count_n_active ()
        n_active = 0
        do i_mci = 1, size (process%mci_entry)
           associate (mci_entry => process%mci_entry(i_mci))
              do j = 1, size (mci_entry%i_component)
                 i_component = mci_entry%i_component(j)
                 associate (component => process%component (i_component))
                    if (component%can_be_integrated ()) then
                       i_active = i_mci
                       n_active = n_active + 1
                    end if
                 end associate
              end do
           end associate
        end do
     end subroutine count_n_active
   end function process_extract_active_component_mci
 
 @ %def process_extract_active_component_mci
 @
 <<Process: process: TBP>>=
   procedure :: uses_real_partition => process_uses_real_partition
 <<Process: sub interfaces>>=
     module function process_uses_real_partition (process) result (val)
       logical :: val
       class(process_t), intent(in) :: process
     end function process_uses_real_partition
 <<Process: procedures>>=
   module function process_uses_real_partition (process) result (val)
     logical :: val
     class(process_t), intent(in) :: process
     val = any (process%mci_entry%real_partition_type /= REAL_FULL)
   end function process_uses_real_partition
 
 @ %def process_uses_real_partition
 @ Return the MD5 sums that summarize the process component
 definitions.  These values should be independent of parameters, beam
 details, expressions, etc.  They can be used for checking the
 integrity of a process when reusing an old event file.
 <<Process: process: TBP>>=
   procedure :: get_md5sum_prc => process_get_md5sum_prc
 <<Process: sub interfaces>>=
     module function process_get_md5sum_prc &
          (process, i_component) result (md5sum)
       character(32) :: md5sum
       class(process_t), intent(in) :: process
       integer, intent(in) :: i_component
     end function process_get_md5sum_prc
 <<Process: procedures>>=
   module function process_get_md5sum_prc (process, i_component) result (md5sum)
     character(32) :: md5sum
     class(process_t), intent(in) :: process
     integer, intent(in) :: i_component
     if (process%component(i_component)%active) then
        md5sum = process%component(i_component)%config%get_md5sum ()
     else
        md5sum = ""
     end if
   end function process_get_md5sum_prc
 
 @ %def process_get_md5sum_prc
 @ Return the MD5 sums that summarize the state of the MCI integrators.
 These values should encode all process data, integration and phase
 space configuration, etc., and the integration results.  They can thus
 be used for checking the integrity of an event-generation setup when
 reusing an old event file.
 <<Process: process: TBP>>=
   procedure :: get_md5sum_mci => process_get_md5sum_mci
 <<Process: sub interfaces>>=
     module function process_get_md5sum_mci (process, i_mci) result (md5sum)
       character(32) :: md5sum
       class(process_t), intent(in) :: process
       integer, intent(in) :: i_mci
     end function process_get_md5sum_mci
 <<Process: procedures>>=
   module function process_get_md5sum_mci (process, i_mci) result (md5sum)
     character(32) :: md5sum
     class(process_t), intent(in) :: process
     integer, intent(in) :: i_mci
     md5sum = process%mci_entry(i_mci)%get_md5sum ()
   end function process_get_md5sum_mci
 
 @ %def process_get_md5sum_mci
 @ Return the MD5 sum of the process configuration.  This should encode
 the process setup, data, and expressions, but no integration results.
 <<Process: process: TBP>>=
   procedure :: get_md5sum_cfg => process_get_md5sum_cfg
 <<Process: sub interfaces>>=
     module function process_get_md5sum_cfg (process) result (md5sum)
       character(32) :: md5sum
       class(process_t), intent(in) :: process
     end function process_get_md5sum_cfg
 <<Process: procedures>>=
   module function process_get_md5sum_cfg (process) result (md5sum)
     character(32) :: md5sum
     class(process_t), intent(in) :: process
     md5sum = process%config%md5sum
   end function process_get_md5sum_cfg
 
 @ %def process_get_md5sum_cfg
 @
 <<Process: process: TBP>>=
   procedure :: get_n_cores => process_get_n_cores
 <<Process: sub interfaces>>=
     module function process_get_n_cores (process) result (n)
       integer :: n
       class(process_t), intent(in) :: process
     end function process_get_n_cores
 <<Process: procedures>>=
   module function process_get_n_cores (process) result (n)
     integer :: n
     class(process_t), intent(in) :: process
     n = process%pcm%n_cores
   end function process_get_n_cores
 
 @ %def process_get_n_cores
 @
 <<Process: process: TBP>>=
   procedure :: get_base_i_term => process_get_base_i_term
 <<Process: sub interfaces>>=
     module function process_get_base_i_term &
          (process, i_component) result (i_term)
       integer :: i_term
       class(process_t), intent(in) :: process
       integer, intent(in) :: i_component
     end function process_get_base_i_term
 <<Process: procedures>>=
   module function process_get_base_i_term (process, i_component) result (i_term)
     integer :: i_term
     class(process_t), intent(in) :: process
     integer, intent(in) :: i_component
     i_term = process%component(i_component)%i_term(1)
   end function process_get_base_i_term
 
 @ %def process_get_base_i_term
 @
 <<Process: process: TBP>>=
   procedure :: get_core_term => process_get_core_term
 <<Process: sub interfaces>>=
     module function process_get_core_term (process, i_term) result (core)
       class(prc_core_t), pointer :: core
       class(process_t), intent(in), target :: process
       integer, intent(in) :: i_term
     end function process_get_core_term
 <<Process: procedures>>=
   module function process_get_core_term (process, i_term) result (core)
     class(prc_core_t), pointer :: core
     class(process_t), intent(in), target :: process
     integer, intent(in) :: i_term
     integer :: i_core
     i_core = process%term(i_term)%i_core
     core => process%core_entry(i_core)%get_core_ptr ()
   end function process_get_core_term
 
 @ %def process_get_core_term
 @
 <<Process: process: TBP>>=
   procedure :: get_core_ptr => process_get_core_ptr
 <<Process: sub interfaces>>=
     module function process_get_core_ptr (process, i_core) result (core)
       class(prc_core_t), pointer :: core
       class(process_t), intent(in), target :: process
       integer, intent(in) :: i_core
     end function process_get_core_ptr
 <<Process: procedures>>=
   module function process_get_core_ptr (process, i_core) result (core)
     class(prc_core_t), pointer :: core
     class(process_t), intent(in), target :: process
     integer, intent(in) :: i_core
     if (allocated (process%core_entry)) then
        core => process%core_entry(i_core)%get_core_ptr ()
     else
        core => null ()
     end if
   end function process_get_core_ptr
 
 @ %def process_get_core_ptr
 @
 <<Process: process: TBP>>=
   procedure :: get_term_ptr => process_get_term_ptr
 <<Process: sub interfaces>>=
     module function process_get_term_ptr (process, i) result (term)
       type(process_term_t), pointer :: term
       class(process_t), intent(in), target :: process
       integer, intent(in) :: i
     end function process_get_term_ptr
 <<Process: procedures>>=
   module function process_get_term_ptr (process, i) result (term)
     type(process_term_t), pointer :: term
     class(process_t), intent(in), target :: process
     integer, intent(in) :: i
     term => process%term(i)
   end function process_get_term_ptr
 
 @ %def process_get_term_ptr
 @
 <<Process: process: TBP>>=
   procedure :: get_i_term => process_get_i_term
 <<Process: sub interfaces>>=
     module function process_get_i_term (process, i_core) result (i_term)
       integer :: i_term
       class(process_t), intent(in) :: process
       integer, intent(in) :: i_core
     end function process_get_i_term
 <<Process: procedures>>=
   module function process_get_i_term (process, i_core) result (i_term)
     integer :: i_term
     class(process_t), intent(in) :: process
     integer, intent(in) :: i_core
     do i_term = 1, process%get_n_terms ()
        if (process%term(i_term)%i_core == i_core) return
     end do
     i_term = -1
   end function process_get_i_term
 
 @ %def process_get_i_term
 @
 <<Process: process: TBP>>=
   procedure :: get_i_core => process_get_i_core
 <<Process: sub interfaces>>=
     module function process_get_i_core (process, i_term) result (i_core)
       class(process_t), intent(in) :: process
       integer, intent(in) :: i_term
       integer :: i_core
     end function process_get_i_core
 <<Process: procedures>>=
   module function process_get_i_core (process, i_term) result (i_core)
     class(process_t), intent(in) :: process
     integer, intent(in) :: i_term
     integer :: i_core
     i_core = process%term(i_term)%i_core
   end function process_get_i_core
 
 @ %def process_get_i_core
 @
 <<Process: process: TBP>>=
   procedure :: set_i_mci_work => process_set_i_mci_work
 <<Process: sub interfaces>>=
     module subroutine process_set_i_mci_work (process, i_mci)
       class(process_t), intent(inout) :: process
       integer, intent(in) :: i_mci
     end subroutine process_set_i_mci_work
 <<Process: procedures>>=
   module subroutine process_set_i_mci_work (process, i_mci)
     class(process_t), intent(inout) :: process
     integer, intent(in) :: i_mci
     process%mci_entry(i_mci)%i_mci = i_mci
   end subroutine process_set_i_mci_work
 
 @ %def process_set_i_mci_work
 @
 <<Process: process: TBP>>=
   procedure :: get_i_mci_work => process_get_i_mci_work
 <<Process: sub interfaces>>=
     pure module function process_get_i_mci_work &
          (process, i_mci) result (i_mci_work)
       integer :: i_mci_work
       class(process_t), intent(in) :: process
       integer, intent(in) :: i_mci
     end function process_get_i_mci_work
 <<Process: procedures>>=
   pure module function process_get_i_mci_work &
        (process, i_mci) result (i_mci_work)
     integer :: i_mci_work
     class(process_t), intent(in) :: process
     integer, intent(in) :: i_mci
     i_mci_work = process%mci_entry(i_mci)%i_mci
   end function process_get_i_mci_work
 
 @ %def process_get_i_mci_work
 @
 <<Process: process: TBP>>=
   procedure :: get_i_sub => process_get_i_sub
 <<Process: sub interfaces>>=
     elemental module function process_get_i_sub (process, i_term) result (i_sub)
       integer :: i_sub
       class(process_t), intent(in) :: process
       integer, intent(in) :: i_term
     end function process_get_i_sub
 <<Process: procedures>>=
   elemental module function process_get_i_sub (process, i_term) result (i_sub)
     integer :: i_sub
     class(process_t), intent(in) :: process
     integer, intent(in) :: i_term
     i_sub = process%term(i_term)%i_sub
   end function process_get_i_sub
 
 @ %def process_get_i_sub
 @
 <<Process: process: TBP>>=
   procedure :: get_i_term_virtual => process_get_i_term_virtual
 <<Process: sub interfaces>>=
     elemental module function process_get_i_term_virtual &
          (process) result (i_term)
       integer :: i_term
       class(process_t), intent(in) :: process
     end function process_get_i_term_virtual
 <<Process: procedures>>=
   elemental module function process_get_i_term_virtual (process) result (i_term)
     integer :: i_term
     class(process_t), intent(in) :: process
     integer :: i_component
     i_term = 0
     do i_component = 1, size (process%component)
        if (process%component(i_component)%get_nlo_type () == NLO_VIRTUAL) &
             i_term = process%component(i_component)%i_term(1)
     end do
   end function process_get_i_term_virtual
 
 @ %def process_get_i_term_virtual
 @
 <<Process: process: TBP>>=
   generic :: component_is_active => component_is_active_single
   procedure :: component_is_active_single => process_component_is_active_single
 <<Process: sub interfaces>>=
     elemental module function process_component_is_active_single &
          (process, i_comp) result (val)
       logical :: val
       class(process_t), intent(in) :: process
       integer, intent(in) :: i_comp
     end function process_component_is_active_single
 <<Process: procedures>>=
   elemental module function process_component_is_active_single &
        (process, i_comp) result (val)
     logical :: val
     class(process_t), intent(in) :: process
     integer, intent(in) :: i_comp
     val = process%component(i_comp)%is_active ()
   end function process_component_is_active_single
 
 @ %def process_component_is_active_single
 @
 <<Process: process: TBP>>=
   generic :: component_is_active => component_is_active_all
   procedure :: component_is_active_all => process_component_is_active_all
 <<Process: sub interfaces>>=
     pure module function process_component_is_active_all (process) result (val)
       logical, dimension(:), allocatable :: val
       class(process_t), intent(in) :: process
     end function process_component_is_active_all
 <<Process: procedures>>=
   pure module function process_component_is_active_all (process) result (val)
     logical, dimension(:), allocatable :: val
     class(process_t), intent(in) :: process
     allocate (val (size (process%component)))
     val = process%component%is_active ()
   end function process_component_is_active_all
 
 @ %def process_component_is_active_all
 @
 \subsection{Default iterations}
 If the user does not specify the passes and iterations for
 integration, we should be able to give reasonable defaults.  These
 depend on the process, therefore we implement the following procedures
 as methods of the process object.  The algorithm is not very
 sophisticated yet, it may be improved by looking at the process in
 more detail.
 
 We investigate only the first process component, assuming that it
 characterizes the complexity of the process reasonable well.
 
 The number of passes is limited to two: one for adaption, one for
 integration.
 <<Process: process: TBP>>=
   procedure :: get_n_pass_default => process_get_n_pass_default
   procedure :: adapt_grids_default => process_adapt_grids_default
   procedure :: adapt_weights_default => process_adapt_weights_default
 <<Process: sub interfaces>>=
     module function process_get_n_pass_default (process) result (n_pass)
       class(process_t), intent(in) :: process
       integer :: n_pass
     end function process_get_n_pass_default
     module function process_adapt_grids_default (process, pass) result (flag)
       class(process_t), intent(in) :: process
       integer, intent(in) :: pass
       logical :: flag
     end function process_adapt_grids_default
     module function process_adapt_weights_default (process, pass) result (flag)
       class(process_t), intent(in) :: process
       integer, intent(in) :: pass
       logical :: flag
     end function process_adapt_weights_default
 <<Process: procedures>>=
   module function process_get_n_pass_default (process) result (n_pass)
     class(process_t), intent(in) :: process
     integer :: n_pass
     integer :: n_eff
     type(process_component_def_t), pointer :: config
     config => process%component(1)%config
     n_eff = config%get_n_tot () - 2
     select case (n_eff)
     case (1)
        n_pass = 1
     case default
        n_pass = 2
     end select
   end function process_get_n_pass_default
 
   module function process_adapt_grids_default (process, pass) result (flag)
     class(process_t), intent(in) :: process
     integer, intent(in) :: pass
     logical :: flag
     integer :: n_eff
     type(process_component_def_t), pointer :: config
     config => process%component(1)%config
     n_eff = config%get_n_tot () - 2
     select case (n_eff)
     case (1)
        flag = .false.
     case default
        select case (pass)
        case (1);  flag = .true.
        case (2);  flag = .false.
        case default
           call msg_bug ("adapt grids default: impossible pass index")
        end select
     end select
   end function process_adapt_grids_default
 
   module function process_adapt_weights_default (process, pass) result (flag)
     class(process_t), intent(in) :: process
     integer, intent(in) :: pass
     logical :: flag
     integer :: n_eff
     type(process_component_def_t), pointer :: config
     config => process%component(1)%config
     n_eff = config%get_n_tot () - 2
     select case (n_eff)
     case (1)
        flag = .false.
     case default
        select case (pass)
        case (1);  flag = .true.
        case (2);  flag = .false.
        case default
           call msg_bug ("adapt weights default: impossible pass index")
        end select
     end select
   end function process_adapt_weights_default
 
 @ %def process_get_n_pass_default
 @ %def process_adapt_grids_default
 @ %def process_adapt_weights_default
 @ The number of iterations and calls per iteration depends on the
 number of outgoing particles.
 <<Process: process: TBP>>=
   procedure :: get_n_it_default => process_get_n_it_default
   procedure :: get_n_calls_default => process_get_n_calls_default
 <<Process: sub interfaces>>=
     module function process_get_n_it_default (process, pass) result (n_it)
       class(process_t), intent(in) :: process
       integer, intent(in) :: pass
       integer :: n_it
     end function process_get_n_it_default
     module function process_get_n_calls_default (process, pass) result (n_calls)
       class(process_t), intent(in) :: process
       integer, intent(in) :: pass
       integer :: n_calls
     end function process_get_n_calls_default
 <<Process: procedures>>=
   module function process_get_n_it_default (process, pass) result (n_it)
     class(process_t), intent(in) :: process
     integer, intent(in) :: pass
     integer :: n_it
     integer :: n_eff
     type(process_component_def_t), pointer :: config
     config => process%component(1)%config
     n_eff = config%get_n_tot () - 2
     select case (pass)
     case (1)
        select case (n_eff)
        case (1);   n_it = 1
        case (2);   n_it = 3
        case (3);   n_it = 5
        case (4:5); n_it = 10
        case (6);   n_it = 15
        case (7:);  n_it = 20
        end select
     case (2)
        select case (n_eff)
        case (:3);   n_it = 3
        case (4:);   n_it = 5
        end select
     end select
   end function process_get_n_it_default
 
   module function process_get_n_calls_default (process, pass) result (n_calls)
     class(process_t), intent(in) :: process
     integer, intent(in) :: pass
     integer :: n_calls
     integer :: n_eff
     type(process_component_def_t), pointer :: config
     config => process%component(1)%config
     n_eff = config%get_n_tot () - 2
     select case (pass)
     case (1)
        select case (n_eff)
        case (1);   n_calls =   100
        case (2);   n_calls =  1000
        case (3);   n_calls =  5000
        case (4);   n_calls = 10000
        case (5);   n_calls = 20000
        case (6:);  n_calls = 50000
        end select
     case (2)
        select case (n_eff)
        case (:3);  n_calls =  10000
        case (4);   n_calls =  20000
        case (5);   n_calls =  50000
        case (6);   n_calls = 100000
        case (7:);  n_calls = 200000
        end select
     end select
   end function process_get_n_calls_default
 
 @ %def process_get_n_it_default
 @ %def process_get_n_calls_default
 @
 \subsection{Constant process data}
 Manually set the Run ID (unit test only).
 <<Process: process: TBP>>=
   procedure :: set_run_id => process_set_run_id
 <<Process: sub interfaces>>=
     module subroutine process_set_run_id (process, run_id)
       class(process_t), intent(inout) :: process
       type(string_t), intent(in) :: run_id
     end subroutine process_set_run_id
 <<Process: procedures>>=
   module subroutine process_set_run_id (process, run_id)
     class(process_t), intent(inout) :: process
     type(string_t), intent(in) :: run_id
     process%meta%run_id = run_id
   end subroutine process_set_run_id
 
 @ %def process_set_run_id
 @
 The following methods return basic process data that stay constant
 after initialization.
 
 The process and IDs.
 <<Process: process: TBP>>=
   procedure :: get_id => process_get_id
   procedure :: get_num_id => process_get_num_id
   procedure :: get_run_id => process_get_run_id
   procedure :: get_library_name => process_get_library_name
 <<Process: sub interfaces>>=
     module function process_get_id (process) result (id)
       class(process_t), intent(in) :: process
       type(string_t) :: id
     end function process_get_id
     module function process_get_num_id (process) result (id)
       class(process_t), intent(in) :: process
       integer :: id
     end function process_get_num_id
     module function process_get_run_id (process) result (id)
       class(process_t), intent(in) :: process
       type(string_t) :: id
     end function process_get_run_id
     module function process_get_library_name (process) result (id)
       class(process_t), intent(in) :: process
       type(string_t) :: id
     end function process_get_library_name
 <<Process: procedures>>=
   module function process_get_id (process) result (id)
     class(process_t), intent(in) :: process
     type(string_t) :: id
     id = process%meta%id
   end function process_get_id
 
   module function process_get_num_id (process) result (id)
     class(process_t), intent(in) :: process
     integer :: id
     id = process%meta%num_id
   end function process_get_num_id
 
   module function process_get_run_id (process) result (id)
     class(process_t), intent(in) :: process
     type(string_t) :: id
     id = process%meta%run_id
   end function process_get_run_id
 
   module function process_get_library_name (process) result (id)
     class(process_t), intent(in) :: process
     type(string_t) :: id
     id = process%meta%lib_name
   end function process_get_library_name
 
 @ %def process_get_id process_get_num_id
 @ %def process_get_run_id process_get_library_name
 @ The number of incoming particles.
 <<Process: process: TBP>>=
   procedure :: get_n_in => process_get_n_in
 <<Process: sub interfaces>>=
     module function process_get_n_in (process) result (n)
       class(process_t), intent(in) :: process
       integer :: n
     end function process_get_n_in
 <<Process: procedures>>=
   module function process_get_n_in (process) result (n)
     class(process_t), intent(in) :: process
     integer :: n
     n = process%config%n_in
   end function process_get_n_in
 
 @ %def process_get_n_in
 @ The number of MCI data sets.
 <<Process: process: TBP>>=
   procedure :: get_n_mci => process_get_n_mci
 <<Process: sub interfaces>>=
     module function process_get_n_mci (process) result (n)
       class(process_t), intent(in) :: process
       integer :: n
     end function process_get_n_mci
 <<Process: procedures>>=
   module function process_get_n_mci (process) result (n)
     class(process_t), intent(in) :: process
     integer :: n
     n = process%config%n_mci
   end function process_get_n_mci
 
 @ %def process_get_n_mci
 @ The number of process components, total.
 <<Process: process: TBP>>=
   procedure :: get_n_components => process_get_n_components
 <<Process: sub interfaces>>=
     module function process_get_n_components (process) result (n)
       class(process_t), intent(in) :: process
       integer :: n
     end function process_get_n_components
 <<Process: procedures>>=
   module function process_get_n_components (process) result (n)
     class(process_t), intent(in) :: process
     integer :: n
     n = process%meta%n_components
   end function process_get_n_components
 
 @ %def process_get_n_components
 @ The number of process terms, total.
 <<Process: process: TBP>>=
   procedure :: get_n_terms => process_get_n_terms
 <<Process: sub interfaces>>=
     module function process_get_n_terms (process) result (n)
       class(process_t), intent(in) :: process
       integer :: n
     end function process_get_n_terms
 <<Process: procedures>>=
   module function process_get_n_terms (process) result (n)
     class(process_t), intent(in) :: process
     integer :: n
     n = process%config%n_terms
   end function process_get_n_terms
 
 @ %def process_get_n_terms
 @ Return the indices of the components that belong to a
 specific MCI entry.
 <<Process: process: TBP>>=
   procedure :: get_i_component => process_get_i_component
 <<Process: sub interfaces>>=
     module subroutine process_get_i_component (process, i_mci, i_component)
       class(process_t), intent(in) :: process
       integer, intent(in) :: i_mci
       integer, dimension(:), intent(out), allocatable :: i_component
     end subroutine process_get_i_component
 <<Process: procedures>>=
   module subroutine process_get_i_component (process, i_mci, i_component)
     class(process_t), intent(in) :: process
     integer, intent(in) :: i_mci
     integer, dimension(:), intent(out), allocatable :: i_component
     associate (mci_entry => process%mci_entry(i_mci))
       allocate (i_component (size (mci_entry%i_component)))
       i_component = mci_entry%i_component
     end associate
   end subroutine process_get_i_component
 
 @ %def process_get_i_component
 @ Return the ID of a specific component.
 <<Process: process: TBP>>=
   procedure :: get_component_id => process_get_component_id
 <<Process: sub interfaces>>=
     module function process_get_component_id (process, i_component) result (id)
       class(process_t), intent(in) :: process
       integer, intent(in) :: i_component
       type(string_t) :: id
     end function process_get_component_id
 <<Process: procedures>>=
   module function process_get_component_id (process, i_component) result (id)
     class(process_t), intent(in) :: process
     integer, intent(in) :: i_component
     type(string_t) :: id
     id = process%meta%component_id(i_component)
   end function process_get_component_id
 
 @ %def process_get_component_id
 @ Return a pointer to the definition of a specific component.
 <<Process: process: TBP>>=
   procedure :: get_component_def_ptr => process_get_component_def_ptr
 <<Process: sub interfaces>>=
     module function process_get_component_def_ptr &
          (process, i_component) result (ptr)
       type(process_component_def_t), pointer :: ptr
       class(process_t), intent(in) :: process
       integer, intent(in) :: i_component
     end function process_get_component_def_ptr
 <<Process: procedures>>=
   module function process_get_component_def_ptr &
        (process, i_component) result (ptr)
     type(process_component_def_t), pointer :: ptr
     class(process_t), intent(in) :: process
     integer, intent(in) :: i_component
     ptr => process%config%process_def%get_component_def_ptr (i_component)
   end function process_get_component_def_ptr
 
 @ %def process_get_component_def_ptr
 @ These procedures extract and restore (by transferring the
 allocation) the process core.  This is useful for changing process
 parameters from outside this module.
 <<Process: process: TBP>>=
   procedure :: extract_core => process_extract_core
   procedure :: restore_core => process_restore_core
 <<Process: sub interfaces>>=
     module subroutine process_extract_core (process, i_term, core)
       class(process_t), intent(inout) :: process
       integer, intent(in) :: i_term
       class(prc_core_t), intent(inout), allocatable :: core
     end subroutine process_extract_core
     module subroutine process_restore_core (process, i_term, core)
       class(process_t), intent(inout) :: process
       integer, intent(in) :: i_term
       class(prc_core_t), intent(inout), allocatable :: core
     end subroutine process_restore_core
 <<Process: procedures>>=
   module subroutine process_extract_core (process, i_term, core)
     class(process_t), intent(inout) :: process
     integer, intent(in) :: i_term
     class(prc_core_t), intent(inout), allocatable :: core
     integer :: i_core
     i_core = process%term(i_term)%i_core
     call move_alloc (from = process%core_entry(i_core)%core, to = core)
   end subroutine process_extract_core
 
   module subroutine process_restore_core (process, i_term, core)
     class(process_t), intent(inout) :: process
     integer, intent(in) :: i_term
     class(prc_core_t), intent(inout), allocatable :: core
     integer :: i_core
     i_core = process%term(i_term)%i_core
     call move_alloc (from = core, to = process%core_entry(i_core)%core)
   end subroutine process_restore_core
 
 @ %def process_extract_core
 @ %def process_restore_core
 @ The block of process constants.
 <<Process: process: TBP>>=
   procedure :: get_constants => process_get_constants
 <<Process: sub interfaces>>=
     module function process_get_constants (process, i_core) result (data)
       type(process_constants_t) :: data
       class(process_t), intent(in) :: process
       integer, intent(in) :: i_core
     end function process_get_constants
 <<Process: procedures>>=
   module function process_get_constants (process, i_core) result (data)
     type(process_constants_t) :: data
     class(process_t), intent(in) :: process
     integer, intent(in) :: i_core
     data = process%core_entry(i_core)%core%data
   end function process_get_constants
 
 @ %def process_get_constants
 @
 <<Process: process: TBP>>=
   procedure :: get_config => process_get_config
 <<Process: sub interfaces>>=
     module function process_get_config (process) result (config)
       type(process_config_data_t) :: config
       class(process_t), intent(in) :: process
     end function process_get_config
 <<Process: procedures>>=
   module function process_get_config (process) result (config)
     type(process_config_data_t) :: config
     class(process_t), intent(in) :: process
     config = process%config
   end function process_get_config
 
 @ %def process_get_config
 @
 Construct an MD5 sum for the constant data, including the NLO type.
 
 For the NLO type [[NLO_MISMATCH]], we pretend that this was
 [[NLO_SUBTRACTION]] instead.
 
 TODO wk 2018: should not depend explicitly on NLO data.
 <<Process: process: TBP>>=
   procedure :: get_md5sum_constants => process_get_md5sum_constants
 <<Process: sub interfaces>>=
     module function process_get_md5sum_constants (process, i_component, &
        type_string, nlo_type) result (this_md5sum)
       character(32) :: this_md5sum
       class(process_t), intent(in) :: process
       integer, intent(in) :: i_component
       type(string_t), intent(in) :: type_string
       integer, intent(in) :: nlo_type
     end function process_get_md5sum_constants
 <<Process: procedures>>=
   module function process_get_md5sum_constants (process, i_component, &
      type_string, nlo_type) result (this_md5sum)
     character(32) :: this_md5sum
     class(process_t), intent(in) :: process
     integer, intent(in) :: i_component
     type(string_t), intent(in) :: type_string
     integer, intent(in) :: nlo_type
     type(process_constants_t) :: data
     integer :: unit
     call process%env%fill_process_constants (process%meta%id, i_component, data)
     unit = data%fill_unit_for_md5sum (.false.)
     write (unit, '(A)') char(type_string)
     select case (nlo_type)
     case (NLO_MISMATCH)
        write (unit, '(I0)')  NLO_SUBTRACTION
     case default
        write (unit, '(I0)')  nlo_type
     end select
     rewind (unit)
     this_md5sum = md5sum (unit)
     close (unit)
   end function process_get_md5sum_constants
 
 @ %def process_get_md5sum_constants
 @ Return the set of outgoing flavors that are associated with a particular
 term. We deduce this from the effective interaction.
 <<Process: process: TBP>>=
   procedure :: get_term_flv_out => process_get_term_flv_out
 <<Process: sub interfaces>>=
     module subroutine process_get_term_flv_out (process, i_term, flv)
       class(process_t), intent(in), target :: process
       integer, intent(in) :: i_term
       type(flavor_t), dimension(:,:), allocatable, intent(out) :: flv
     end subroutine process_get_term_flv_out
 <<Process: procedures>>=
   module subroutine process_get_term_flv_out (process, i_term, flv)
     class(process_t), intent(in), target :: process
     integer, intent(in) :: i_term
     type(flavor_t), dimension(:,:), allocatable, intent(out) :: flv
     type(interaction_t), pointer :: int
     int => process%term(i_term)%int_eff
     if (.not. associated (int))  int => process%term(i_term)%int
     call int%get_flv_out (flv)
   end subroutine process_get_term_flv_out
 
 @ %def process_get_term_flv_out
 @ Return true if there is any unstable particle in any of the process
 terms.  We decide this based on the provided model instance, not the
 one that is stored in the process object.
 <<Process: process: TBP>>=
   procedure :: contains_unstable => process_contains_unstable
 <<Process: sub interfaces>>=
     module function process_contains_unstable (process, model) result (flag)
       class(process_t), intent(in) :: process
       class(model_data_t), intent(in), target :: model
       logical :: flag
     end function process_contains_unstable
 <<Process: procedures>>=
   module function process_contains_unstable (process, model) result (flag)
     class(process_t), intent(in) :: process
     class(model_data_t), intent(in), target :: model
     logical :: flag
     integer :: i_term
     type(flavor_t), dimension(:,:), allocatable :: flv
     flag = .false.
     do i_term = 1, process%get_n_terms ()
        call process%get_term_flv_out (i_term, flv)
        call flv%set_model (model)
        flag = .not. all (flv%is_stable ())
        deallocate (flv)
        if (flag)  return
     end do
   end function process_contains_unstable
 
 @ %def process_contains_unstable
 @ The nominal process energy.
 <<Process: process: TBP>>=
   procedure :: get_sqrts => process_get_sqrts
 <<Process: sub interfaces>>=
     module function process_get_sqrts (process) result (sqrts)
       class(process_t), intent(in) :: process
       real(default) :: sqrts
     end function process_get_sqrts
 <<Process: procedures>>=
   module function process_get_sqrts (process) result (sqrts)
     class(process_t), intent(in) :: process
     real(default) :: sqrts
     sqrts = process%beam_config%data%get_sqrts ()
   end function process_get_sqrts
 
 @ %def process_get_sqrts
 @ The lab-frame beam energy/energies..
 <<Process: process: TBP>>=
   procedure :: get_energy => process_get_energy
 <<Process: sub interfaces>>=
     module function process_get_energy (process) result (e)
       class(process_t), intent(in) :: process
       real(default), dimension(:), allocatable :: e
     end function process_get_energy
 <<Process: procedures>>=
   module function process_get_energy (process) result (e)
     class(process_t), intent(in) :: process
     real(default), dimension(:), allocatable :: e
     e = process%beam_config%data%get_energy ()
   end function process_get_energy
 
 @ %def process_get_energy
 @ The beam polarization in case of simple degrees.
 <<Process: process: TBP>>=
   procedure :: get_polarization => process_get_polarization
 <<Process: sub interfaces>>=
     module function process_get_polarization (process) result (pol)
       class(process_t), intent(in) :: process
       real(default), dimension(process%beam_config%data%n) :: pol
     end function process_get_polarization
 <<Process: procedures>>=
   module function process_get_polarization (process) result (pol)
     class(process_t), intent(in) :: process
     real(default), dimension(process%beam_config%data%n) :: pol
     pol = process%beam_config%data%get_polarization ()
   end function process_get_polarization
 
 @ %def process_get_polarization
 @
 <<Process: process: TBP>>=
   procedure :: get_meta => process_get_meta
 <<Process: sub interfaces>>=
     module function process_get_meta (process) result (meta)
       type(process_metadata_t) :: meta
       class(process_t), intent(in) :: process
     end function process_get_meta
 <<Process: procedures>>=
   module function process_get_meta (process) result (meta)
     type(process_metadata_t) :: meta
     class(process_t), intent(in) :: process
     meta = process%meta
   end function process_get_meta
 
 @ %def process_get_meta
 <<Process: process: TBP>>=
   procedure :: has_matrix_element => process_has_matrix_element
 <<Process: sub interfaces>>=
     module function process_has_matrix_element &
          (process, i, is_term_index) result (active)
       logical :: active
       class(process_t), intent(in) :: process
       integer, intent(in), optional :: i
       logical, intent(in), optional :: is_term_index
     end function process_has_matrix_element
 <<Process: procedures>>=
   module function process_has_matrix_element &
        (process, i, is_term_index) result (active)
     logical :: active
     class(process_t), intent(in) :: process
     integer, intent(in), optional :: i
     logical, intent(in), optional :: is_term_index
     integer :: i_component
     logical :: is_term
     is_term = .false.
     if (present (i)) then
        if (present (is_term_index)) is_term = is_term_index
        if (is_term) then
           i_component = process%term(i)%i_component
        else
           i_component = i
        end if
        active = process%component(i_component)%active
     else
        active = any (process%component%active)
     end if
   end function process_has_matrix_element
 
 @ %def process_has_matrix_element
 @ Pointer to the beam data object.
 <<Process: process: TBP>>=
   procedure :: get_beam_data_ptr => process_get_beam_data_ptr
 <<Process: sub interfaces>>=
     module function process_get_beam_data_ptr (process) result (beam_data)
       class(process_t), intent(in), target :: process
       type(beam_data_t), pointer :: beam_data
     end function process_get_beam_data_ptr
 <<Process: procedures>>=
   module function process_get_beam_data_ptr (process) result (beam_data)
     class(process_t), intent(in), target :: process
     type(beam_data_t), pointer :: beam_data
     beam_data => process%beam_config%data
   end function process_get_beam_data_ptr
 
 @ %def process_get_beam_data_ptr
 @
 <<Process: process: TBP>>=
   procedure :: get_beam_config => process_get_beam_config
 <<Process: sub interfaces>>=
     module function process_get_beam_config (process) result (beam_config)
       type(process_beam_config_t) :: beam_config
       class(process_t), intent(in) :: process
     end function process_get_beam_config
 <<Process: procedures>>=
   module function process_get_beam_config (process) result (beam_config)
     type(process_beam_config_t) :: beam_config
     class(process_t), intent(in) :: process
     beam_config = process%beam_config
   end function process_get_beam_config
 
 @ %def process_get_beam_config
 @
 <<Process: process: TBP>>=
   procedure :: get_beam_config_ptr => process_get_beam_config_ptr
 <<Process: sub interfaces>>=
     module function process_get_beam_config_ptr (process) result (beam_config)
       type(process_beam_config_t), pointer :: beam_config
       class(process_t), intent(in), target :: process
     end function process_get_beam_config_ptr
 <<Process: procedures>>=
   module function process_get_beam_config_ptr (process) result (beam_config)
     type(process_beam_config_t), pointer :: beam_config
     class(process_t), intent(in), target :: process
     beam_config => process%beam_config
   end function process_get_beam_config_ptr
 
 @ %def process_get_beam_config_ptr
 @ Get the PDF set currently in use, if any.
 <<Process: process: TBP>>=
   procedure :: get_pdf_set => process_get_pdf_set
 <<Process: sub interfaces>>=
     module function process_get_pdf_set (process) result (pdf_set)
       class(process_t), intent(in) :: process
       integer :: pdf_set
     end function process_get_pdf_set
 <<Process: procedures>>=
   module function process_get_pdf_set (process) result (pdf_set)
     class(process_t), intent(in) :: process
     integer :: pdf_set
     pdf_set = process%beam_config%get_pdf_set ()
   end function process_get_pdf_set
 
 @ %def process_get_pdf_set
 @
 <<Process: process: TBP>>=
   procedure :: pcm_contains_pdfs => process_pcm_contains_pdfs
 <<Process: sub interfaces>>=
     module function process_pcm_contains_pdfs (process) result (has_pdfs)
       logical :: has_pdfs
       class(process_t), intent(in) :: process
     end function process_pcm_contains_pdfs
 <<Process: procedures>>=
   module function process_pcm_contains_pdfs (process) result (has_pdfs)
     logical :: has_pdfs
     class(process_t), intent(in) :: process
     has_pdfs = process%pcm%has_pdfs
   end function process_pcm_contains_pdfs
 
 @ %def process_pcm_contains_pdfs
 @ Get the beam spectrum file currently in use, if any.
 <<Process: process: TBP>>=
   procedure :: get_beam_file => process_get_beam_file
 <<Process: sub interfaces>>=
     module function process_get_beam_file (process) result (file)
       class(process_t), intent(in) :: process
       type(string_t) :: file
     end function process_get_beam_file
 <<Process: procedures>>=
   module function process_get_beam_file (process) result (file)
     class(process_t), intent(in) :: process
     type(string_t) :: file
     file = process%beam_config%get_beam_file ()
   end function process_get_beam_file
 
 @ %def process_get_beam_file
 @ Pointer to the process variable list.
 <<Process: process: TBP>>=
   procedure :: get_var_list_ptr => process_get_var_list_ptr
 <<Process: sub interfaces>>=
     module function process_get_var_list_ptr (process) result (ptr)
       class(process_t), intent(in), target :: process
       type(var_list_t), pointer :: ptr
     end function process_get_var_list_ptr
 <<Process: procedures>>=
   module function process_get_var_list_ptr (process) result (ptr)
     class(process_t), intent(in), target :: process
     type(var_list_t), pointer :: ptr
     ptr => process%env%get_var_list_ptr ()
   end function process_get_var_list_ptr
 
 @ %def process_get_var_list_ptr
 @ Pointer to the common model.
 <<Process: process: TBP>>=
   procedure :: get_model_ptr => process_get_model_ptr
 <<Process: sub interfaces>>=
     module function process_get_model_ptr (process) result (ptr)
       class(process_t), intent(in) :: process
       class(model_data_t), pointer :: ptr
     end function process_get_model_ptr
 <<Process: procedures>>=
   module function process_get_model_ptr (process) result (ptr)
     class(process_t), intent(in) :: process
     class(model_data_t), pointer :: ptr
     ptr => process%config%model
   end function process_get_model_ptr
 
 @ %def process_get_model_ptr
 @ Use the embedded RNG factory to spawn a new random-number generator
 instance.  (This modifies the state of the factory.)
 <<Process: process: TBP>>=
   procedure :: make_rng => process_make_rng
 <<Process: sub interfaces>>=
     module subroutine process_make_rng (process, rng)
       class(process_t), intent(inout) :: process
       class(rng_t), intent(out), allocatable :: rng
     end subroutine process_make_rng
 <<Process: procedures>>=
   module subroutine process_make_rng (process, rng)
     class(process_t), intent(inout) :: process
     class(rng_t), intent(out), allocatable :: rng
     if (allocated (process%rng_factory)) then
        call process%rng_factory%make (rng)
     else
        call msg_bug ("Process: make rng: factory not allocated")
     end if
   end subroutine process_make_rng
 
 @ %def process_make_rng
 @
 \subsection{Compute an amplitude}
 Each process variant should allow for computing an amplitude value
 directly, without generating a process instance.
 
 The process component is selected by the index [[i]].  The term within the
 process component is selected by [[j]].  The momentum
 combination is transferred as the array [[p]].  The function sets the specific
 quantum state via the indices of a flavor [[f]], helicity [[h]], and color
 [[c]] combination.  Each index refers to the list of flavor, helicity, and
 color states, respectively, as stored in the process data.
 
 Optionally, we may set factorization and renormalization scale.  If unset, the
 partonic c.m.\ energy is inserted.
 
 The function checks arguments for validity.
 For invalid arguments (quantum states), we return zero.
 <<Process: process: TBP>>=
   procedure :: compute_amplitude => process_compute_amplitude
 <<Process: sub interfaces>>=
     module function process_compute_amplitude (process, i_core, i, j, p, &
          f, h, c, fac_scale, ren_scale, alpha_qcd_forced) result (amp)
       class(process_t), intent(in), target :: process
       integer, intent(in) :: i_core
       integer, intent(in) :: i, j
       type(vector4_t), dimension(:), intent(in) :: p
       integer, intent(in) :: f, h, c
       real(default), intent(in), optional :: fac_scale, ren_scale
       real(default), intent(in), allocatable, optional :: alpha_qcd_forced
       complex(default) :: amp
     end function process_compute_amplitude
 <<Process: procedures>>=
   module function process_compute_amplitude (process, i_core, i, j, p, &
        f, h, c, fac_scale, ren_scale, alpha_qcd_forced) result (amp)
     class(process_t), intent(in), target :: process
     integer, intent(in) :: i_core
     integer, intent(in) :: i, j
     type(vector4_t), dimension(:), intent(in) :: p
     integer, intent(in) :: f, h, c
     real(default), intent(in), optional :: fac_scale, ren_scale
     real(default), intent(in), allocatable, optional :: alpha_qcd_forced
     real(default) :: fscale, rscale
     real(default), allocatable :: aqcd_forced
     complex(default) :: amp
     class(prc_core_t), pointer :: core
     amp = 0
     if (0 < i .and. i <= process%meta%n_components) then
        if (process%component(i)%active) then
           associate (core => process%core_entry(i_core)%core)
             associate (data => core%data)
               if (size (p) == data%n_in + data%n_out &
                    .and. 0 < f .and. f <= data%n_flv &
                    .and. 0 < h .and. h <= data%n_hel &
                    .and. 0 < c .and. c <= data%n_col) then
                  if (present (fac_scale)) then
                     fscale = fac_scale
                  else
                     fscale = sum (p(data%n_in+1:)) ** 1
                  end if
                  if (present (ren_scale)) then
                     rscale = ren_scale
                  else
                     rscale = fscale
                  end if
                  if (present (alpha_qcd_forced)) then
                     if (allocated (alpha_qcd_forced)) &
                          allocate (aqcd_forced, source = alpha_qcd_forced)
                  end if
                  amp = core%compute_amplitude (j, p, f, h, c, &
                       fscale, rscale, aqcd_forced)
               end if
             end associate
           end associate
        else
           amp = 0
        end if
     end if
   end function process_compute_amplitude
 
 @ %def process_compute_amplitude
 @ Sanity check for the process library.  We abort the program if it
 has changed after process initialization.
 <<Process: process: TBP>>=
   procedure :: check_library_sanity => process_check_library_sanity
 <<Process: sub interfaces>>=
     module subroutine process_check_library_sanity (process)
       class(process_t), intent(in) :: process
     end subroutine process_check_library_sanity
 <<Process: procedures>>=
   module subroutine process_check_library_sanity (process)
     class(process_t), intent(in) :: process
     call process%env%check_lib_sanity (process%meta)
   end subroutine process_check_library_sanity
 
 @ %def process_check_library_sanity
 @ Reset the association to a process library.
 <<Process: process: TBP>>=
   procedure :: reset_library_ptr => process_reset_library_ptr
 <<Process: sub interfaces>>=
     module subroutine process_reset_library_ptr (process)
       class(process_t), intent(inout) :: process
     end subroutine process_reset_library_ptr
 <<Process: procedures>>=
   module subroutine process_reset_library_ptr (process)
     class(process_t), intent(inout) :: process
     call process%env%reset_lib_ptr ()
   end subroutine process_reset_library_ptr
 
 @ %def process_reset_library_ptr
 @
 <<Process: process: TBP>>=
   procedure :: set_counter_mci_entry => process_set_counter_mci_entry
 <<Process: sub interfaces>>=
     module subroutine process_set_counter_mci_entry (process, i_mci, counter)
       class(process_t), intent(inout) :: process
       integer, intent(in) :: i_mci
       type(process_counter_t), intent(in) :: counter
     end subroutine process_set_counter_mci_entry
 <<Process: procedures>>=
   module subroutine process_set_counter_mci_entry (process, i_mci, counter)
     class(process_t), intent(inout) :: process
     integer, intent(in) :: i_mci
     type(process_counter_t), intent(in) :: counter
     process%mci_entry(i_mci)%counter = counter
   end subroutine process_set_counter_mci_entry
 
 @ %def process_set_counter_mci_entry
 @ This is for suppression of numerical noise in the integration results
 stored in the [[process_mci_entry]] type. As the error and efficiency
 enter the MD5 sum, we recompute it.
 <<Process: process: TBP>>=
   procedure :: pacify => process_pacify
 <<Process: sub interfaces>>=
     module subroutine process_pacify (process, efficiency_reset, error_reset)
       class(process_t), intent(inout) :: process
       logical, intent(in), optional :: efficiency_reset, error_reset
     end subroutine process_pacify
 <<Process: procedures>>=
   module subroutine process_pacify (process, efficiency_reset, error_reset)
     class(process_t), intent(inout) :: process
     logical, intent(in), optional :: efficiency_reset, error_reset
     logical :: eff_reset, err_reset
     integer :: i
     eff_reset = .false.
     err_reset = .false.
     if (present (efficiency_reset))  eff_reset = efficiency_reset
     if (present (error_reset))  err_reset = error_reset
     if (allocated (process%mci_entry)) then
        do i = 1, size (process%mci_entry)
           call process%mci_entry(i)%results%pacify (efficiency_reset)
           if (allocated (process%mci_entry(i)%mci)) then
              associate (mci => process%mci_entry(i)%mci)
                if (process%mci_entry(i)%mci%error_known &
                     .and. err_reset) &
                     mci%error = 0
                if (process%mci_entry(i)%mci%efficiency_known &
                     .and. eff_reset)  &
                     mci%efficiency = 1
                call mci%pacify (efficiency_reset, error_reset)
                call mci%compute_md5sum ()
              end associate
           end if
        end do
     end if
   end subroutine process_pacify
 
 @ %def process_pacify
 @ The following methods are used only in the unit tests; the access
 process internals directly that would otherwise be hidden.
 <<Process: process: TBP>>=
   procedure :: test_allocate_sf_channels
   procedure :: test_set_component_sf_channel
   procedure :: test_get_mci_ptr
 <<Process: sub interfaces>>=
     module subroutine test_allocate_sf_channels (process, n)
       class(process_t), intent(inout) :: process
       integer, intent(in) :: n
     end subroutine test_allocate_sf_channels
     module subroutine test_set_component_sf_channel (process, c)
       class(process_t), intent(inout) :: process
       integer, dimension(:), intent(in) :: c
     end subroutine test_set_component_sf_channel
     module subroutine test_get_mci_ptr (process, mci)
       class(process_t), intent(in), target :: process
       class(mci_t), intent(out), pointer :: mci
     end subroutine test_get_mci_ptr
 <<Process: procedures>>=
   module subroutine test_allocate_sf_channels (process, n)
     class(process_t), intent(inout) :: process
     integer, intent(in) :: n
     call process%beam_config%allocate_sf_channels (n)
   end subroutine test_allocate_sf_channels
 
   module subroutine test_set_component_sf_channel (process, c)
     class(process_t), intent(inout) :: process
     integer, dimension(:), intent(in) :: c
     call process%component(1)%phs_config%set_sf_channel (c)
   end subroutine test_set_component_sf_channel
 
   module subroutine test_get_mci_ptr (process, mci)
     class(process_t), intent(in), target :: process
     class(mci_t), intent(out), pointer :: mci
     mci => process%mci_entry(1)%mci
   end subroutine test_get_mci_ptr
 
 @ %def test_allocate_sf_channels
 @ %def test_set_component_sf_channel
 @ %def test_get_mci_ptr
 @
 <<Process: process: TBP>>=
   procedure :: init_mci_work => process_init_mci_work
 <<Process: sub interfaces>>=
     module subroutine process_init_mci_work (process, mci_work, i)
       class(process_t), intent(in), target :: process
       type(mci_work_t), intent(out) :: mci_work
       integer, intent(in) :: i
     end subroutine process_init_mci_work
 <<Process: procedures>>=
   module subroutine process_init_mci_work (process, mci_work, i)
     class(process_t), intent(in), target :: process
     type(mci_work_t), intent(out) :: mci_work
     integer, intent(in) :: i
     call mci_work%init (process%mci_entry(i))
   end subroutine process_init_mci_work
 
 @ %def process_init_mci_work
 @
 Prepare the process core with type [[test_me]], or otherwise the externally
 provided [[type_string]] version.  The toy dispatchers as a procedure
 argument come handy, knowing that we need to support only the [[test_me]] and
 [[template]] matrix-element types.
 Gfortran 7/8/9 bug, has to remain in the main module:
 <<Process: process: TBP>>=
   procedure :: setup_test_cores => process_setup_test_cores
 <<Process: main procedures>>=
   subroutine dispatch_test_me_core (core, core_def, model, &
        helicity_selection, qcd, use_color_factors, has_beam_pol)
     use prc_test_core, only: test_t
     class(prc_core_t), allocatable, intent(inout) :: core
     class(prc_core_def_t), intent(in) :: core_def
     class(model_data_t), intent(in), target, optional :: model
     type(helicity_selection_t), intent(in), optional :: helicity_selection
     type(qcd_t), intent(in), optional :: qcd
     logical, intent(in), optional :: use_color_factors
     logical, intent(in), optional :: has_beam_pol
     allocate (test_t :: core)
   end subroutine dispatch_test_me_core
 
   subroutine dispatch_template_core (core, core_def, model, &
        helicity_selection, qcd, use_color_factors, has_beam_pol)
     use prc_template_me, only: prc_template_me_t
     class(prc_core_t), allocatable, intent(inout) :: core
     class(prc_core_def_t), intent(in) :: core_def
     class(model_data_t), intent(in), target, optional :: model
     type(helicity_selection_t), intent(in), optional :: helicity_selection
     type(qcd_t), intent(in), optional :: qcd
     logical, intent(in), optional :: use_color_factors
     logical, intent(in), optional :: has_beam_pol
     allocate (prc_template_me_t :: core)
     select type (core)
     type is (prc_template_me_t)
        call core%set_parameters (model)
     end select
   end subroutine dispatch_template_core
 
   subroutine process_setup_test_cores (process, type_string)
     class(process_t), intent(inout) :: process
     class(prc_core_t), allocatable :: core
     type(string_t), intent(in), optional :: type_string
     if (present (type_string)) then
        select case (char (type_string))
        case ("template")
           call process%setup_cores (dispatch_template_core)
        case ("test_me")
           call process%setup_cores (dispatch_test_me_core)
        case default
           call msg_bug ("process setup test cores: unsupported type string")
        end select
     else
        call process%setup_cores (dispatch_test_me_core)
     end if
   end subroutine process_setup_test_cores
 
 @ %def process_setup_test_cores
 @
 <<Process: process: TBP>>=
   procedure :: get_connected_states => process_get_connected_states
 <<Process: sub interfaces>>=
     module function process_get_connected_states (process, i_component, &
          connected_terms) result (connected)
       type(connected_state_t), dimension(:), allocatable :: connected
       class(process_t), intent(in) :: process
       integer, intent(in) :: i_component
       type(connected_state_t), dimension(:), intent(in) :: connected_terms
     end function process_get_connected_states
 <<Process: procedures>>=
   module function process_get_connected_states (process, i_component, &
        connected_terms) result (connected)
     type(connected_state_t), dimension(:), allocatable :: connected
     class(process_t), intent(in) :: process
     integer, intent(in) :: i_component
     type(connected_state_t), dimension(:), intent(in) :: connected_terms
     integer :: i, i_conn
     integer :: n_conn
     n_conn = 0
     do i = 1, process%get_n_terms ()
        if (process%term(i)%i_component == i_component) then
           n_conn = n_conn + 1
        end if
     end do
     allocate (connected (n_conn))
     i_conn = 1
     do i = 1, process%get_n_terms ()
        if (process%term(i)%i_component == i_component) then
           connected (i_conn) = connected_terms(i)
           i_conn = i_conn + 1
        end if
     end do
   end function process_get_connected_states
 
 @ %def process_get_connected_states
 @
 \subsection{NLO specifics}
 These subroutines (and the NLO specific properties they work on) could
 potentially be moved to [[pcm_nlo_t]] and used more generically in
 [[process_t]] with an appropriate interface in [[pcm_t]]
 
 TODO wk 2018: This is used only by event initialization, which deals
 with an incomplete process object.
 <<Process: process: TBP>>=
   procedure :: init_nlo_settings => process_init_nlo_settings
 <<Process: sub interfaces>>=
     module subroutine process_init_nlo_settings (process, var_list)
       class(process_t), intent(inout) :: process
       type(var_list_t), intent(in), target :: var_list
     end subroutine process_init_nlo_settings
 <<Process: procedures>>=
   module subroutine process_init_nlo_settings (process, var_list)
     class(process_t), intent(inout) :: process
     type(var_list_t), intent(in), target :: var_list
     select type (pcm => process%pcm)
     type is (pcm_nlo_t)
        call pcm%init_nlo_settings (var_list)
        if (debug_active (D_SUBTRACTION) .or. debug_active (D_VIRTUAL)) &
               call pcm%settings%write ()
     class default
        call msg_fatal ("Attempt to set nlo_settings with a non-NLO pcm!")
     end select
   end subroutine process_init_nlo_settings
 
 @ %def process_init_nlo_settings
 @
 <<Process: process: TBP>>=
   generic :: get_nlo_type_component => get_nlo_type_component_single
   procedure :: get_nlo_type_component_single => &
        process_get_nlo_type_component_single
 <<Process: sub interfaces>>=
     elemental module function process_get_nlo_type_component_single &
          (process, i_component) result (val)
       integer :: val
       class(process_t), intent(in) :: process
       integer, intent(in) :: i_component
     end function process_get_nlo_type_component_single
 <<Process: procedures>>=
   elemental module function process_get_nlo_type_component_single &
        (process, i_component) result (val)
     integer :: val
     class(process_t), intent(in) :: process
     integer, intent(in) :: i_component
     val = process%component(i_component)%get_nlo_type ()
   end function process_get_nlo_type_component_single
 
 @ %def process_get_nlo_type_component_single
 @
 <<Process: process: TBP>>=
   generic :: get_nlo_type_component => get_nlo_type_component_all
   procedure :: get_nlo_type_component_all => process_get_nlo_type_component_all
 <<Process: sub interfaces>>=
     pure module function process_get_nlo_type_component_all &
          (process) result (val)
       integer, dimension(:), allocatable :: val
       class(process_t), intent(in) :: process
     end function process_get_nlo_type_component_all
 <<Process: procedures>>=
   pure module function process_get_nlo_type_component_all (process) result (val)
     integer, dimension(:), allocatable :: val
     class(process_t), intent(in) :: process
     allocate (val (size (process%component)))
     val = process%component%get_nlo_type ()
   end function process_get_nlo_type_component_all
 
 @ %def process_get_nlo_type_component_all
 @
 <<Process: process: TBP>>=
   procedure :: is_nlo_calculation => process_is_nlo_calculation
 <<Process: sub interfaces>>=
     module function process_is_nlo_calculation (process) result (nlo)
       logical :: nlo
       class(process_t), intent(in) :: process
     end function process_is_nlo_calculation
 <<Process: procedures>>=
   module function process_is_nlo_calculation (process) result (nlo)
     logical :: nlo
     class(process_t), intent(in) :: process
     select type (pcm => process%pcm)
     type is (pcm_nlo_t)
        nlo = .true.
     class default
        nlo = .false.
     end select
   end function process_is_nlo_calculation
 
 @ %def process_is_nlo_calculation
 @
 <<Process: process: TBP>>=
   procedure :: get_negative_sf => process_get_negative_sf
 <<Process: sub interfaces>>=
     module function process_get_negative_sf (process) result (neg_sf)
       logical :: neg_sf
       class(process_t), intent(in) :: process
     end function process_get_negative_sf
 <<Process: procedures>>=
   module function process_get_negative_sf (process) result (neg_sf)
     logical :: neg_sf
     class(process_t), intent(in) :: process
     neg_sf = process%config%process_def%get_negative_sf ()
   end function process_get_negative_sf
 
 @ %def process_get_negative_sf
 @
 <<Process: process: TBP>>=
   procedure :: is_combined_nlo_integration &
        => process_is_combined_nlo_integration
 <<Process: sub interfaces>>=
     module function process_is_combined_nlo_integration &
          (process) result (combined)
       logical :: combined
       class(process_t), intent(in) :: process
     end function process_is_combined_nlo_integration
 <<Process: procedures>>=
   module function process_is_combined_nlo_integration &
        (process) result (combined)
     logical :: combined
     class(process_t), intent(in) :: process
     select type (pcm => process%pcm)
     type is (pcm_nlo_t)
        combined = pcm%settings%combined_integration
     class default
        combined = .false.
     end select
   end function process_is_combined_nlo_integration
 
 @ %def process_is_combined_nlo_integration
 @
 <<Process: process: TBP>>=
   procedure :: component_is_real_finite => process_component_is_real_finite
 <<Process: sub interfaces>>=
     pure module function process_component_is_real_finite &
          (process, i_component) result (val)
       logical :: val
       class(process_t), intent(in) :: process
       integer, intent(in) :: i_component
     end function process_component_is_real_finite
 <<Process: procedures>>=
   pure module function process_component_is_real_finite &
        (process, i_component) result (val)
     logical :: val
     class(process_t), intent(in) :: process
     integer, intent(in) :: i_component
     val = process%component(i_component)%component_type == COMP_REAL_FIN
   end function process_component_is_real_finite
 
 @ %def process_component_is_real_finite
 @ Return nlo data of a process component
 <<Process: process: TBP>>=
   procedure :: get_component_nlo_type => process_get_component_nlo_type
 <<Process: sub interfaces>>=
     elemental module function process_get_component_nlo_type &
          (process, i_component) result (nlo_type)
       integer :: nlo_type
       class(process_t), intent(in) :: process
       integer, intent(in) :: i_component
     end function process_get_component_nlo_type
 <<Process: procedures>>=
   elemental module function process_get_component_nlo_type &
        (process, i_component) result (nlo_type)
     integer :: nlo_type
     class(process_t), intent(in) :: process
     integer, intent(in) :: i_component
     nlo_type = process%component(i_component)%config%get_nlo_type ()
   end function process_get_component_nlo_type
 
 @ %def process_get_component_nlo_type
 @ Return a pointer to the core that belongs to a component.
 <<Process: process: TBP>>=
   procedure :: get_component_core_ptr => process_get_component_core_ptr
 <<Process: sub interfaces>>=
     module function process_get_component_core_ptr &
          (process, i_component) result (core)
       class(process_t), intent(in), target :: process
       integer, intent(in) :: i_component
       class(prc_core_t), pointer :: core
     end function process_get_component_core_ptr
 <<Process: procedures>>=
   module function process_get_component_core_ptr &
        (process, i_component) result (core)
     class(process_t), intent(in), target :: process
     integer, intent(in) :: i_component
     class(prc_core_t), pointer :: core
     integer :: i_core
     i_core = process%pcm%get_i_core(i_component)
     core => process%core_entry(i_core)%core
   end function process_get_component_core_ptr
 
 @ %def process_get_component_core_ptr
 @
 <<Process: process: TBP>>=
   procedure :: get_component_associated_born &
             => process_get_component_associated_born
 <<Process: sub interfaces>>=
     module function process_get_component_associated_born &
          (process, i_component) result (i_born)
       class(process_t), intent(in) :: process
       integer, intent(in) :: i_component
       integer :: i_born
     end function process_get_component_associated_born
 <<Process: procedures>>=
   module function process_get_component_associated_born &
        (process, i_component) result (i_born)
     class(process_t), intent(in) :: process
     integer, intent(in) :: i_component
     integer :: i_born
     i_born = process%component(i_component)%config%get_associated_born ()
   end function process_get_component_associated_born
 
 @ %def process_get_component_associated_born
 @
 <<Process: process: TBP>>=
   procedure :: get_first_real_component => process_get_first_real_component
 <<Process: sub interfaces>>=
     module function process_get_first_real_component (process) result (i_real)
       integer :: i_real
       class(process_t), intent(in) :: process
     end function process_get_first_real_component
 <<Process: procedures>>=
   module function process_get_first_real_component (process) result (i_real)
     integer :: i_real
     class(process_t), intent(in) :: process
     i_real = process%component(1)%config%get_associated_real ()
   end function process_get_first_real_component
 
 @ %def process_get_first_real_component
 @
 <<Process: process: TBP>>=
   procedure :: get_first_real_term => process_get_first_real_term
 <<Process: sub interfaces>>=
     module function process_get_first_real_term (process) result (i_real)
       integer :: i_real
       class(process_t), intent(in) :: process
       integer :: i_component, i_term
     end function process_get_first_real_term
 <<Process: procedures>>=
   module function process_get_first_real_term (process) result (i_real)
     integer :: i_real
     class(process_t), intent(in) :: process
     integer :: i_component, i_term
     i_component = process%component(1)%config%get_associated_real ()
     i_real = 0
     do i_term = 1, size (process%term)
        if (process%term(i_term)%i_component == i_component) then
           i_real = i_term
           exit
        end if
     end do
     if (i_real == 0) call msg_fatal ("Did not find associated real term!")
   end function process_get_first_real_term
 
 @ %def process_get_first_real_term
 @
 <<Process: process: TBP>>=
   procedure :: get_associated_real_fin => process_get_associated_real_fin
 <<Process: sub interfaces>>=
     elemental module function process_get_associated_real_fin &
          (process, i_component) result (i_real)
        integer :: i_real
        class(process_t), intent(in) :: process
        integer, intent(in) :: i_component
     end function process_get_associated_real_fin
 <<Process: procedures>>=
   elemental module function process_get_associated_real_fin &
        (process, i_component) result (i_real)
      integer :: i_real
      class(process_t), intent(in) :: process
      integer, intent(in) :: i_component
      i_real = process%component(i_component)%config%get_associated_real_fin ()
   end function process_get_associated_real_fin
 
 @ %def process_get_associated_real_fin
 @
 <<Process: process: TBP>>=
   procedure :: select_i_term => process_select_i_term
 <<Process: sub interfaces>>=
     pure module function process_select_i_term (process, i_mci) result (i_term)
       integer :: i_term
       class(process_t), intent(in) :: process
       integer, intent(in) :: i_mci
     end function process_select_i_term
 <<Process: procedures>>=
   pure module function process_select_i_term (process, i_mci) result (i_term)
     integer :: i_term
     class(process_t), intent(in) :: process
     integer, intent(in) :: i_mci
     integer :: i_component, i_sub
     i_component = process%mci_entry(i_mci)%i_component(1)
     i_term = process%component(i_component)%i_term(1)
     i_sub = process%term(i_term)%i_sub
     if (i_sub > 0) &
        i_term = process%term(i_sub)%i_term_global
   end function process_select_i_term
 
 @ %def process_select_i_term
 @ Would be better to do this at the level of the writer of the core but
 one has to bring NLO information there.
 <<Process: process: TBP>>=
   procedure :: prepare_any_external_code &
      => process_prepare_any_external_code
 <<Process: sub interfaces>>=
     module subroutine process_prepare_any_external_code (process)
       class(process_t), intent(inout), target :: process
     end subroutine process_prepare_any_external_code
 <<Process: procedures>>=
   module subroutine process_prepare_any_external_code (process)
     class(process_t), intent(inout), target :: process
     integer :: i
     if (debug_on) call msg_debug2 (D_PROCESS_INTEGRATION, &
          "process_prepare_external_code")
     associate (pcm => process%pcm)
       do i = 1, pcm%n_cores
          call pcm%prepare_any_external_code ( &
               process%core_entry(i), i, &
               process%get_library_name (), &
               process%config%model, &
               process%env%get_var_list_ptr ())
       end do
     end associate
   end subroutine process_prepare_any_external_code
 
 @ %def process_prepare_any_external_code
 @
 %%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
 \section{Process config}
 <<[[process_config.f90]]>>=
 <<File header>>
 
 module process_config
 
 <<Use kinds>>
 <<Use strings>>
   use os_interface
   use sf_base
   use sf_mappings
   use mappings, only: mapping_defaults_t
   use phs_forests, only: phs_parameters_t
   use sm_qcd
   use integration_results
   use flavors
   use interactions
   use model_data
   use models
   use process_libraries
   use process_constants
   use prc_core
   use beams
   use mci_base
   use beam_structures
   use dispatch_beams, only: dispatch_qcd
   use phs_base
   use expr_base
   use variables
 
 <<Standard module head>>
 
 <<Process config: public>>
 
 <<Process config: parameters>>
 
 <<Process config: types>>
 
   interface
 <<Process config: sub interfaces>>
   end interface
 
 contains
 
 <<Process config: main procedures>>
 
 end module process_config
 @ %def process_config
 @
 <<[[process_config_sub.f90]]>>=
 <<File header>>
 
 submodule (process_config) process_config_s
 
   use format_utils, only: write_separator
   use io_units
   use diagnostics
   use md5
   use physics_defs
   use helicities
   use colors
   use quantum_numbers
   use state_matrices
   use prc_external
   use prc_openloops, only: prc_openloops_t
   use prc_threshold, only: prc_threshold_t
   use blha_olp_interfaces, only: prc_blha_t
 
   implicit none
 
 contains
 
 <<Process config: procedures>>
 
 end submodule process_config_s
 
 @ %def process_config_s
 @ Identifiers for the NLO setup.
 <<Process config: parameters>>=
   integer, parameter, public :: COMP_DEFAULT = 0
   integer, parameter, public :: COMP_REAL_FIN = 1
   integer, parameter, public :: COMP_MASTER = 2
   integer, parameter, public :: COMP_VIRT = 3
   integer, parameter, public :: COMP_REAL = 4
   integer, parameter, public :: COMP_REAL_SING = 5
   integer, parameter, public :: COMP_MISMATCH = 6
   integer, parameter, public :: COMP_PDF = 7
   integer, parameter, public :: COMP_SUB = 8
   integer, parameter, public :: COMP_RESUM = 9
 
 @
 \subsection{Output selection flags}
 We declare a number of identifiers for write methods, so they only
 displays selected parts.  The identifiers can be supplied to the [[vlist]]
 array argument of the standard F2008 derived-type writer call.
 <<Process config: parameters>>=
   integer, parameter, public :: F_PACIFY = 1
   integer, parameter, public :: F_SHOW_VAR_LIST = 11
   integer, parameter, public :: F_SHOW_EXPRESSIONS = 12
   integer, parameter, public :: F_SHOW_LIB = 13
   integer, parameter, public :: F_SHOW_MODEL = 14
   integer, parameter, public :: F_SHOW_QCD = 15
   integer, parameter, public :: F_SHOW_OS_DATA = 16
   integer, parameter, public :: F_SHOW_RNG = 17
   integer, parameter, public :: F_SHOW_BEAMS = 18
 @ %def SHOW_VAR_LIST
 @ %def SHOW_EXPRESSIONS
 @
 This is a simple function that returns true if a flag value is present in
 [[v_list]], but not its negative.  If neither is present, it returns
 [[default]].
 <<Process config: public>>=
   public :: flagged
 <<Process config: sub interfaces>>=
     module function flagged (v_list, id, def) result (flag)
       logical :: flag
       integer, dimension(:), intent(in) :: v_list
       integer, intent(in) :: id
       logical, intent(in), optional :: def
     end function flagged
 <<Process config: procedures>>=
   module function flagged (v_list, id, def) result (flag)
     logical :: flag
     integer, dimension(:), intent(in) :: v_list
     integer, intent(in) :: id
     logical, intent(in), optional :: def
     logical :: default_result
     default_result = .false.;  if (present (def))  default_result = def
     if (default_result) then
        flag = all (v_list /= -id)
     else
        flag = all (v_list /= -id) .and. any (v_list == id)
     end if
   end function flagged
 
 @ %def flagged
 @
 Related: if flag is set (unset), append [[value]] (its negative) to the
 [[v_list]], respectively.  [[v_list]] must be allocated.
 <<Process config: public>>=
   public :: set_flag
 <<Process config: sub interfaces>>=
     module subroutine set_flag (v_list, value, flag)
       integer, dimension(:), intent(inout), allocatable :: v_list
       integer, intent(in) :: value
       logical, intent(in), optional :: flag
     end subroutine set_flag
 <<Process config: procedures>>=
   module subroutine set_flag (v_list, value, flag)
     integer, dimension(:), intent(inout), allocatable :: v_list
     integer, intent(in) :: value
     logical, intent(in), optional :: flag
     if (present (flag)) then
        if (flag) then
           v_list = [v_list, value]
        else
           v_list = [v_list, -value]
        end if
     end if
   end subroutine set_flag
 
 @ %def set_flag
 @
 \subsection{Generic configuration data}
 This information concerns physical and technical properties of the
 process.  It is fixed upon initialization, using data from the
 process specification and the variable list.
 
 The number [[n_in]] is the number of incoming beam particles,
 simultaneously the number of incoming partons, 1 for a decay and 2 for
 a scattering process. (The number of outgoing partons may depend on
 the process component.)
 
 The number [[n_components]] is the number of components that constitute
 the current process.
 
 The number [[n_terms]] is the number of distinct contributions to the
 scattering matrix that constitute the current process.  Each component
 may generate several terms.
 
 The number [[n_mci]] is the number of independent MC
 integration configurations that this process uses.  Distinct process
 components that share a MCI configuration may be combined pointwise.
 (Nevertheless, a given MC variable set may correspond to several
 ``nearby'' kinematical configurations.)  This is also the number of
 distinct sampling-function results that this process can generate.
 Process components that use distinct variable sets are added only once
 after an integration pass has completed.
 
 The [[model]] pointer identifies the physics model and its
 parameters.  This is a pointer to an external object.
 
 Various [[parse_node_t]] objects are taken from the SINDARIN input.
 They encode expressions for evaluating cuts and scales.  The
 workspaces for evaluating those expressions are set up in the
 [[effective_state]] subobjects.  Note that these are really pointers,
 so the actual nodes are not stored inside the process object.
 
 The [[md5sum]] is taken and used to verify the process configuration
 when re-reading data from file.
 <<Process config: public>>=
   public :: process_config_data_t
 <<Process config: types>>=
   type :: process_config_data_t
      class(process_def_t), pointer :: process_def => null ()
      integer :: n_in = 0
      integer :: n_components = 0
      integer :: n_terms = 0
      integer :: n_mci = 0
      type(string_t) :: model_name
      class(model_data_t), pointer :: model => null ()
      type(qcd_t) :: qcd
      class(expr_factory_t), allocatable :: ef_cuts
      class(expr_factory_t), allocatable :: ef_scale
      class(expr_factory_t), allocatable :: ef_fac_scale
      class(expr_factory_t), allocatable :: ef_ren_scale
      class(expr_factory_t), allocatable :: ef_weight
      character(32) :: md5sum = ""
    contains
    <<Process config: process config data: TBP>>
   end type process_config_data_t
 
 @ %def process_config_data_t
 @ Here, we may compress the expressions for cuts etc.
 <<Process config: process config data: TBP>>=
   procedure :: write => process_config_data_write
 <<Process config: sub interfaces>>=
     module subroutine process_config_data_write &
          (config, u, counters, model, expressions)
       class(process_config_data_t), intent(in) :: config
       integer, intent(in) :: u
       logical, intent(in) :: counters
       logical, intent(in) :: model
       logical, intent(in) :: expressions
     end subroutine process_config_data_write
 <<Process config: procedures>>=
   module subroutine process_config_data_write &
        (config, u, counters, model, expressions)
     class(process_config_data_t), intent(in) :: config
     integer, intent(in) :: u
     logical, intent(in) :: counters
     logical, intent(in) :: model
     logical, intent(in) :: expressions
     write (u, "(1x,A)") "Configuration data:"
     if (counters) then
        write (u, "(3x,A,I0)") "Number of incoming particles = ", &
             config%n_in
        write (u, "(3x,A,I0)") "Number of process components = ", &
             config%n_components
        write (u, "(3x,A,I0)") "Number of process terms      = ", &
             config%n_terms
        write (u, "(3x,A,I0)") "Number of MCI configurations = ", &
             config%n_mci
     end if
     if (associated (config%model)) then
        write (u, "(3x,A,A)")  "Model = ", char (config%model_name)
        if (model) then
           call write_separator (u)
           call config%model%write (u)
           call write_separator (u)
        end if
     else
        write (u, "(3x,A,A,A)")  "Model = ", char (config%model_name), &
             " [not associated]"
     end if
     call config%qcd%write (u, show_md5sum = .false.)
     call write_separator (u)
     if (expressions) then
        if (allocated (config%ef_cuts)) then
           call write_separator (u)
           write (u, "(3x,A)") "Cut expression:"
           call config%ef_cuts%write (u)
        end if
        if (allocated (config%ef_scale)) then
           call write_separator (u)
           write (u, "(3x,A)") "Scale expression:"
           call config%ef_scale%write (u)
        end if
        if (allocated (config%ef_fac_scale)) then
           call write_separator (u)
           write (u, "(3x,A)") "Factorization scale expression:"
           call config%ef_fac_scale%write (u)
        end if
        if (allocated (config%ef_ren_scale)) then
           call write_separator (u)
           write (u, "(3x,A)") "Renormalization scale expression:"
           call config%ef_ren_scale%write (u)
        end if
        if (allocated (config%ef_weight)) then
           call write_separator (u)
           write (u, "(3x,A)") "Weight expression:"
           call config%ef_weight%write (u)
        end if
     else
        call write_separator (u)
        write (u, "(3x,A)") "Expressions (cut, scales, weight): [not shown]"
     end if
     if (config%md5sum /= "") then
        call write_separator (u)
        write (u, "(3x,A,A,A)")  "MD5 sum (config)  = '", config%md5sum, "'"
     end if
   end subroutine process_config_data_write
 
 @ %def process_config_data_write
 @ Initialize.  We use information from the process metadata and from
 the process library, given the process ID.  We also store the
 currently active OS data set.
 
 The model pointer references the model data within the [[env]] record.  That
 should be an instance of the global model.
 
 We initialize the QCD object, unless the environment information is unavailable
 (unit tests).
 
 The RNG factory object is imported by moving the allocation.
 Gfortran 7/8/9 bug: has to remain in the main module:
 <<Process config: process config data: TBP>>=
   procedure :: init => process_config_data_init
 <<Process config: main procedures>>=
   subroutine process_config_data_init (config, meta, env)
     class(process_config_data_t), intent(out) :: config
     type(process_metadata_t), intent(in) :: meta
     type(process_environment_t), intent(in) :: env
     config%process_def => env%lib%get_process_def_ptr (meta%id)
     config%n_in = config%process_def%get_n_in ()
     config%n_components = size (meta%component_id)
     config%model => env%get_model_ptr ()
     config%model_name = config%model%get_name ()
     if (env%got_var_list ()) then
        call dispatch_qcd &
             (config%qcd, env%get_var_list_ptr (), env%get_os_data ())
     end if
   end subroutine process_config_data_init
 
 @ %def process_config_data_init
 @ Current implementation: nothing to finalize.
 <<Process config: process config data: TBP>>=
   procedure :: final => process_config_data_final
 <<Process config: sub interfaces>>=
     module subroutine process_config_data_final (config)
       class(process_config_data_t), intent(inout) :: config
     end subroutine process_config_data_final
 <<Process config: procedures>>=
   module subroutine process_config_data_final (config)
     class(process_config_data_t), intent(inout) :: config
   end subroutine process_config_data_final
 
 @ %def process_config_data_final
 @ Return a copy of the QCD data block.
 <<Process config: process config data: TBP>>=
   procedure :: get_qcd => process_config_data_get_qcd
 <<Process config: sub interfaces>>=
     module function process_config_data_get_qcd (config) result (qcd)
       class(process_config_data_t), intent(in) :: config
       type(qcd_t) :: qcd
     end function process_config_data_get_qcd
 <<Process config: procedures>>=
   module function process_config_data_get_qcd (config) result (qcd)
     class(process_config_data_t), intent(in) :: config
     type(qcd_t) :: qcd
     qcd = config%qcd
   end function process_config_data_get_qcd
 
 @ %def process_config_data_get_qcd
 @ Compute the MD5 sum of the configuration data.  This encodes, in
 particular, the model and the expressions for cut, scales, weight,
 etc.  It should not contain the IDs and number of components, etc.,
 since the MD5 sum should be useful for integrating individual
 components.
 
 This is done only once.  If the MD5 sum is nonempty, the calculation
 is skipped.
 <<Process config: process config data: TBP>>=
   procedure :: compute_md5sum => process_config_data_compute_md5sum
 <<Process config: sub interfaces>>=
     module subroutine process_config_data_compute_md5sum (config)
       class(process_config_data_t), intent(inout) :: config
     end subroutine process_config_data_compute_md5sum
 <<Process config: procedures>>=
   module subroutine process_config_data_compute_md5sum (config)
     class(process_config_data_t), intent(inout) :: config
     integer :: u
     if (config%md5sum == "") then
        u = free_unit ()
        open (u, status = "scratch", action = "readwrite")
        call config%write (u, counters = .false., &
             model = .true., expressions = .true.)
        rewind (u)
        config%md5sum = md5sum (u)
        close (u)
     end if
   end subroutine process_config_data_compute_md5sum
 
 @ %def process_config_data_compute_md5sum
 @
 <<Process config: process config data: TBP>>=
   procedure :: get_md5sum => process_config_data_get_md5sum
 <<Process config: sub interfaces>>=
     pure module function process_config_data_get_md5sum (config) result (md5)
       character(32) :: md5
       class(process_config_data_t), intent(in) :: config
     end function process_config_data_get_md5sum
 <<Process config: procedures>>=
   pure module function process_config_data_get_md5sum (config) result (md5)
     character(32) :: md5
     class(process_config_data_t), intent(in) :: config
     md5 = config%md5sum
   end function process_config_data_get_md5sum
 
 @ %def process_config_data_get_md5sum
 @
 \subsection{Environment}
 This record stores a snapshot of the process environment at the point where
 the process object is created.
 
 Model and variable list are implemented as pointer, so they always have the
 [[target]] attribute.
 
 For unit-testing purposes, setting the var list is optional.  If not set, the
 pointer is null.
 <<Process config: public>>=
   public :: process_environment_t
 <<Process config: types>>=
   type :: process_environment_t
      private
      type(model_t), pointer :: model => null ()
      type(var_list_t), pointer :: var_list => null ()
      logical :: var_list_is_set = .false.
      type(process_library_t), pointer :: lib => null ()
      type(beam_structure_t) :: beam_structure
      type(os_data_t) :: os_data
    contains
    <<Process config: process environment: TBP>>
   end type process_environment_t
 
 @ %def process_environment_t
 @ Model and local var list are snapshots and need a finalizer.
 <<Process config: process environment: TBP>>=
   procedure :: final => process_environment_final
 <<Process config: sub interfaces>>=
     module subroutine process_environment_final (env)
       class(process_environment_t), intent(inout) :: env
     end subroutine process_environment_final
 <<Process config: procedures>>=
   module subroutine process_environment_final (env)
     class(process_environment_t), intent(inout) :: env
     if (associated (env%model)) then
        call env%model%final ()
        deallocate (env%model)
     end if
     if (associated (env%var_list)) then
        call env%var_list%final (follow_link=.true.)
        deallocate (env%var_list)
     end if
   end subroutine process_environment_final
 
 @ %def process_environment_final
 @ Output, DTIO compatible.
 <<Process config: process environment: TBP>>=
   procedure :: write => process_environment_write
   procedure :: write_formatted => process_environment_write_formatted
   ! generic :: write (formatted) => write_formatted
 <<Process config: sub interfaces>>=
     module subroutine process_environment_write (env, unit, &
          show_var_list, show_model, show_lib, show_beams, show_os_data)
       class(process_environment_t), intent(in) :: env
       integer, intent(in), optional :: unit
       logical, intent(in), optional :: show_var_list
       logical, intent(in), optional :: show_model
       logical, intent(in), optional :: show_lib
       logical, intent(in), optional :: show_beams
       logical, intent(in), optional :: show_os_data
     end subroutine process_environment_write
 <<Process config: procedures>>=
   module subroutine process_environment_write (env, unit, &
        show_var_list, show_model, show_lib, show_beams, show_os_data)
     class(process_environment_t), intent(in) :: env
     integer, intent(in), optional :: unit
     logical, intent(in), optional :: show_var_list
     logical, intent(in), optional :: show_model
     logical, intent(in), optional :: show_lib
     logical, intent(in), optional :: show_beams
     logical, intent(in), optional :: show_os_data
     integer :: u, iostat
     integer, dimension(:), allocatable :: v_list
     character(0) :: iomsg
     u = given_output_unit (unit)
     allocate (v_list (0))
     call set_flag (v_list, F_SHOW_VAR_LIST, show_var_list)
     call set_flag (v_list, F_SHOW_MODEL, show_model)
     call set_flag (v_list, F_SHOW_LIB, show_lib)
     call set_flag (v_list, F_SHOW_BEAMS, show_beams)
     call set_flag (v_list, F_SHOW_OS_DATA, show_os_data)
     call env%write_formatted (u, "LISTDIRECTED", v_list, iostat, iomsg)
   end subroutine process_environment_write
 
 @ %def process_environment_write
 @ DTIO standard write.
 <<Process config: sub interfaces>>=
     module subroutine process_environment_write_formatted &
          (dtv, unit, iotype, v_list, iostat, iomsg)
       class(process_environment_t), intent(in) :: dtv
       integer, intent(in) :: unit
       character(*), intent(in) :: iotype
       integer, dimension(:), intent(in) :: v_list
       integer, intent(out) :: iostat
       character(*), intent(inout) :: iomsg
     end subroutine process_environment_write_formatted
 <<Process config: procedures>>=
   module subroutine process_environment_write_formatted &
        (dtv, unit, iotype, v_list, iostat, iomsg)
     class(process_environment_t), intent(in) :: dtv
     integer, intent(in) :: unit
     character(*), intent(in) :: iotype
     integer, dimension(:), intent(in) :: v_list
     integer, intent(out) :: iostat
     character(*), intent(inout) :: iomsg
     associate (env => dtv)
       if (flagged (v_list, F_SHOW_VAR_LIST, .true.)) then
          write (unit, "(1x,A)")  "Variable list:"
          if (associated (env%var_list)) then
             call write_separator (unit)
             call env%var_list%write (unit)
          else
             write (unit, "(3x,A)")  "[not allocated]"
          end if
          call write_separator (unit)
       end if
       if (flagged (v_list, F_SHOW_MODEL, .true.)) then
          write (unit, "(1x,A)")  "Model:"
          if (associated (env%model)) then
             call write_separator (unit)
             call env%model%write (unit)
          else
             write (unit, "(3x,A)")  "[not allocated]"
          end if
          call write_separator (unit)
       end if
       if (flagged (v_list, F_SHOW_LIB, .true.)) then
          write (unit, "(1x,A)")  "Process library:"
          if (associated (env%lib)) then
             call write_separator (unit)
             call env%lib%write (unit)
          else
             write (unit, "(3x,A)")  "[not allocated]"
          end if
       end if
       if (flagged (v_list, F_SHOW_BEAMS, .true.)) then
          call write_separator (unit)
          call env%beam_structure%write (unit)
       end if
       if (flagged (v_list, F_SHOW_OS_DATA, .true.)) then
          write (unit, "(1x,A)")  "Operating-system data:"
          call write_separator (unit)
          call env%os_data%write (unit)
       end if
     end associate
     iostat = 0
   end subroutine process_environment_write_formatted
 
 @ %def process_environment_write_formatted
 @ Initialize: Make a snapshot of the provided model.  Make a link to the
 current process library.
 
 Also make a snapshot of the variable list, if provided.  If none is
 provided, there is an empty variable list nevertheless, so a pointer
 lookup does not return null.
 
 If no beam structure is provided, the beam-structure member is empty and will
 yield a number of zero beams when queried.
 <<Process config: process environment: TBP>>=
   procedure :: init => process_environment_init
 <<Process config: sub interfaces>>=
     module subroutine process_environment_init &
          (env, model, lib, os_data, var_list, beam_structure)
       class(process_environment_t), intent(out) :: env
       type(model_t), intent(in), target :: model
       type(process_library_t), intent(in), target :: lib
       type(os_data_t), intent(in) :: os_data
       type(var_list_t), intent(in), target, optional :: var_list
       type(beam_structure_t), intent(in), optional :: beam_structure
     end subroutine process_environment_init
 <<Process config: procedures>>=
   module subroutine process_environment_init &
        (env, model, lib, os_data, var_list, beam_structure)
     class(process_environment_t), intent(out) :: env
     type(model_t), intent(in), target :: model
     type(process_library_t), intent(in), target :: lib
     type(os_data_t), intent(in) :: os_data
     type(var_list_t), intent(in), target, optional :: var_list
     type(beam_structure_t), intent(in), optional :: beam_structure
     allocate (env%model)
     call env%model%init_instance (model)
     env%lib => lib
     env%os_data = os_data
     allocate (env%var_list)
     if (present (var_list)) then
        call env%var_list%init_snapshot (var_list, follow_link=.true.)
        env%var_list_is_set = .true.
     end if
     if (present (beam_structure)) then
        env%beam_structure = beam_structure
     end if
   end subroutine process_environment_init
 
 @ %def process_environment_init
 @ Indicate whether a variable list has been provided upon initialization.
 <<Process config: process environment: TBP>>=
   procedure :: got_var_list => process_environment_got_var_list
 <<Process config: sub interfaces>>=
     module function process_environment_got_var_list (env) result (flag)
       class(process_environment_t), intent(in) :: env
       logical :: flag
     end function process_environment_got_var_list
 <<Process config: procedures>>=
   module function process_environment_got_var_list (env) result (flag)
     class(process_environment_t), intent(in) :: env
     logical :: flag
     flag = env%var_list_is_set
   end function process_environment_got_var_list
 
 @ %def process_environment_got_var_list
 @ Return a pointer to the variable list.
 <<Process config: process environment: TBP>>=
   procedure :: get_var_list_ptr => process_environment_get_var_list_ptr
 <<Process config: sub interfaces>>=
     module function process_environment_get_var_list_ptr (env) result (var_list)
       class(process_environment_t), intent(in) :: env
       type(var_list_t), pointer :: var_list
     end function process_environment_get_var_list_ptr
 <<Process config: procedures>>=
   module function process_environment_get_var_list_ptr (env) result (var_list)
     class(process_environment_t), intent(in) :: env
     type(var_list_t), pointer :: var_list
     var_list => env%var_list
   end function process_environment_get_var_list_ptr
 
 @ %def process_environment_get_var_list_ptr
 @ Return a pointer to the model, if it exists.
 <<Process config: process environment: TBP>>=
   procedure :: get_model_ptr => process_environment_get_model_ptr
 <<Process config: sub interfaces>>=
     module function process_environment_get_model_ptr (env) result (model)
       class(process_environment_t), intent(in) :: env
       type(model_t), pointer :: model
     end function process_environment_get_model_ptr
 <<Process config: procedures>>=
   module function process_environment_get_model_ptr (env) result (model)
     class(process_environment_t), intent(in) :: env
     type(model_t), pointer :: model
     model => env%model
   end function process_environment_get_model_ptr
 
 @ %def process_environment_get_model_ptr
 @ Return the process library pointer.
 <<Process config: process environment: TBP>>=
   procedure :: get_lib_ptr => process_environment_get_lib_ptr
 <<Process config: sub interfaces>>=
     module function process_environment_get_lib_ptr (env) result (lib)
       class(process_environment_t), intent(inout) :: env
       type(process_library_t), pointer :: lib
     end function process_environment_get_lib_ptr
 <<Process config: procedures>>=
   module function process_environment_get_lib_ptr (env) result (lib)
     class(process_environment_t), intent(inout) :: env
     type(process_library_t), pointer :: lib
     lib => env%lib
   end function process_environment_get_lib_ptr
 
 @ %def process_environment_get_lib_ptr
 @ Clear the process library pointer, in case the library is deleted.
 <<Process config: process environment: TBP>>=
   procedure :: reset_lib_ptr => process_environment_reset_lib_ptr
 <<Process config: sub interfaces>>=
     module subroutine process_environment_reset_lib_ptr (env)
       class(process_environment_t), intent(inout) :: env
     end subroutine process_environment_reset_lib_ptr
 <<Process config: procedures>>=
   module subroutine process_environment_reset_lib_ptr (env)
     class(process_environment_t), intent(inout) :: env
     env%lib => null ()
   end subroutine process_environment_reset_lib_ptr
 
 @ %def process_environment_reset_lib_ptr
 @ Check whether the process library has changed, in case the library is
 recompiled, etc.
 <<Process config: process environment: TBP>>=
   procedure :: check_lib_sanity => process_environment_check_lib_sanity
 <<Process config: sub interfaces>>=
     module subroutine process_environment_check_lib_sanity (env, meta)
       class(process_environment_t), intent(in) :: env
       type(process_metadata_t), intent(in) :: meta
     end subroutine process_environment_check_lib_sanity
 <<Process config: procedures>>=
   module subroutine process_environment_check_lib_sanity (env, meta)
     class(process_environment_t), intent(in) :: env
     type(process_metadata_t), intent(in) :: meta
     if (associated (env%lib)) then
        if (env%lib%get_update_counter () /= meta%lib_update_counter) then
           call msg_fatal ("Process '" // char (meta%id) &
                // "': library has been recompiled after integration")
        end if
     end if
   end subroutine process_environment_check_lib_sanity
 
 @ %def process_environment_check_lib_sanity
 @ Fill the [[data]] block using the appropriate process-library access entry.
 <<Process config: process environment: TBP>>=
   procedure :: fill_process_constants => &
        process_environment_fill_process_constants
 <<Process config: sub interfaces>>=
     module subroutine process_environment_fill_process_constants &
          (env, id, i_component, data)
       class(process_environment_t), intent(in) :: env
       type(string_t), intent(in) :: id
       integer, intent(in) :: i_component
       type(process_constants_t), intent(out) :: data
     end subroutine process_environment_fill_process_constants
 <<Process config: procedures>>=
   module subroutine process_environment_fill_process_constants &
        (env, id, i_component, data)
     class(process_environment_t), intent(in) :: env
     type(string_t), intent(in) :: id
     integer, intent(in) :: i_component
     type(process_constants_t), intent(out) :: data
     call env%lib%fill_constants (id, i_component, data)
   end subroutine process_environment_fill_process_constants
 
 @ %def process_environment_fill_process_constants
 @ Return the entire beam structure.
 <<Process config: process environment: TBP>>=
   procedure :: get_beam_structure => process_environment_get_beam_structure
 <<Process config: sub interfaces>>=
     module function process_environment_get_beam_structure &
          (env) result (beam_structure)
       class(process_environment_t), intent(in) :: env
       type(beam_structure_t) :: beam_structure
     end function process_environment_get_beam_structure
 <<Process config: procedures>>=
   module function process_environment_get_beam_structure &
        (env) result (beam_structure)
     class(process_environment_t), intent(in) :: env
     type(beam_structure_t) :: beam_structure
     beam_structure = env%beam_structure
   end function process_environment_get_beam_structure
 
 @ %def process_environment_get_beam_structure
 @ Check the beam structure for PDFs.
 <<Process config: process environment: TBP>>=
   procedure :: has_pdfs => process_environment_has_pdfs
 <<Process config: sub interfaces>>=
     module function process_environment_has_pdfs (env) result (flag)
       class(process_environment_t), intent(in) :: env
       logical :: flag
     end function process_environment_has_pdfs
 <<Process config: procedures>>=
   module function process_environment_has_pdfs (env) result (flag)
     class(process_environment_t), intent(in) :: env
     logical :: flag
     flag = env%beam_structure%has_pdf ()
   end function process_environment_has_pdfs
 
 @ %def process_environment_has_pdfs
 @ Check the beam structure for polarized beams.
 <<Process config: process environment: TBP>>=
   procedure :: has_polarized_beams => process_environment_has_polarized_beams
 <<Process config: sub interfaces>>=
     module function process_environment_has_polarized_beams (env) result (flag)
       class(process_environment_t), intent(in) :: env
       logical :: flag
     end function process_environment_has_polarized_beams
 <<Process config: procedures>>=
   module function process_environment_has_polarized_beams (env) result (flag)
     class(process_environment_t), intent(in) :: env
     logical :: flag
     flag = env%beam_structure%has_polarized_beams ()
   end function process_environment_has_polarized_beams
 
 @ %def process_environment_has_polarized_beams
 @ Return a copy of the OS data block.
 <<Process config: process environment: TBP>>=
   procedure :: get_os_data => process_environment_get_os_data
 <<Process config: sub interfaces>>=
     module function process_environment_get_os_data (env) result (os_data)
       class(process_environment_t), intent(in) :: env
       type(os_data_t) :: os_data
     end function process_environment_get_os_data
 <<Process config: procedures>>=
   module function process_environment_get_os_data (env) result (os_data)
     class(process_environment_t), intent(in) :: env
     type(os_data_t) :: os_data
     os_data = env%os_data
   end function process_environment_get_os_data
 
 @ %def process_environment_get_os_data
 @
 \subsection{Metadata}
 This information describes the process.  It is fixed upon initialization.
 
 The [[id]] string is the name of the process object, as given by the
 user.  The matrix element generator will use this string for naming
 Fortran procedures and types, so it should qualify as a Fortran name.
 
 The [[num_id]] is meaningful if nonzero.  It is used for communication
 with external programs or file standards which do not support string IDs.
 
 The [[run_id]] string distinguishes among several runs for the same
 process.  It identifies process instances with respect to adapted
 integration grids and similar run-specific data.  The run ID is kept
 when copying processes for creating instances, however, so it does not
 distinguish event samples.
 
 The [[lib_name]] identifies the process library where the process
 definition and the process driver are located.
 
 The [[lib_index]] is the index of entry in the process library that
 corresponds to the current process.
 
 The [[component_id]] array identifies the individual process components.
 
 The [[component_description]] is an array of human-readable strings
 that characterize the process components, for instance [[a, b => c, d]].
 
 The [[active]] mask array marks those components which are active.  The others
 are skipped.
 <<Process config: public>>=
   public :: process_metadata_t
 <<Process config: types>>=
   type :: process_metadata_t
      integer :: type = PRC_UNKNOWN
      type(string_t) :: id
      integer :: num_id = 0
      type(string_t) :: run_id
      type(string_t), allocatable :: lib_name
      integer :: lib_update_counter = 0
      integer :: lib_index = 0
      integer :: n_components = 0
      type(string_t), dimension(:), allocatable :: component_id
      type(string_t), dimension(:), allocatable :: component_description
      logical, dimension(:), allocatable :: active
    contains
    <<Process config: process metadata: TBP>>
   end type process_metadata_t
 
 @ %def process_metadata_t
 @ Output: ID and run ID.
 We write the variable list only upon request.
 <<Process config: process metadata: TBP>>=
   procedure :: write => process_metadata_write
 <<Process config: sub interfaces>>=
     module subroutine process_metadata_write (meta, u, screen)
       class(process_metadata_t), intent(in) :: meta
       integer, intent(in) :: u
       logical, intent(in) :: screen
     end subroutine process_metadata_write
 <<Process config: procedures>>=
   module subroutine process_metadata_write (meta, u, screen)
     class(process_metadata_t), intent(in) :: meta
     integer, intent(in) :: u
     logical, intent(in) :: screen
     integer :: i
     select case (meta%type)
     case (PRC_UNKNOWN)
        if (screen) then
           write (msg_buffer, "(A)") "Process [undefined]"
        else
           write (u, "(1x,A)") "Process [undefined]"
        end if
        return
     case (PRC_DECAY)
        if (screen) then
           write (msg_buffer, "(A,1x,A,A,A)") "Process [decay]:", &
                "'", char (meta%id), "'"
        else
           write (u, "(1x,A)", advance="no") "Process [decay]:"
        end if
     case (PRC_SCATTERING)
        if (screen) then
           write (msg_buffer, "(A,1x,A,A,A)") "Process [scattering]:", &
                "'", char (meta%id), "'"
        else
           write (u, "(1x,A)", advance="no") "Process [scattering]:"
        end if
     case default
        call msg_bug ("process_write: undefined process type")
     end select
     if (screen)  then
        call msg_message ()
     else
        write (u, "(1x,A,A,A)") "'", char (meta%id), "'"
     end if
     if (meta%num_id /= 0) then
        if (screen) then
           write (msg_buffer, "(2x,A,I0)") "ID (num)      = ", meta%num_id
           call msg_message ()
        else
           write (u, "(3x,A,I0)") "ID (num)      = ", meta%num_id
        end if
     end if
     if (screen) then
        if (meta%run_id /= "") then
           write (msg_buffer, "(2x,A,A,A)") "Run ID        = '", &
                char (meta%run_id), "'"
           call msg_message ()
        end if
     else
        write (u, "(3x,A,A,A)") "Run ID        = '", char (meta%run_id), "'"
     end if
     if (allocated (meta%lib_name)) then
        if (screen) then
           write (msg_buffer, "(2x,A,A,A)")  "Library name  = '", &
                char (meta%lib_name), "'"
           call msg_message ()
        else
           write (u, "(3x,A,A,A)")  "Library name  = '", &
                char (meta%lib_name), "'"
        end if
     else
        if (screen) then
           write (msg_buffer, "(2x,A)")  "Library name  = [not associated]"
           call msg_message ()
        else
           write (u, "(3x,A)")  "Library name  = [not associated]"
        end if
     end if
     if (screen) then
        write (msg_buffer, "(2x,A,I0)")  "Process index = ", meta%lib_index
        call msg_message ()
     else
        write (u, "(3x,A,I0)")  "Process index = ", meta%lib_index
     end if
     if (allocated (meta%component_id)) then
        if (screen) then
           if (any (meta%active)) then
              write (msg_buffer, "(2x,A)")  "Process components:"
           else
              write (msg_buffer, "(2x,A)")  "Process components: [none]"
           end if
           call msg_message ()
        else
           write (u, "(3x,A)")  "Process components:"
        end if
        do i = 1, size (meta%component_id)
           if (.not. meta%active(i))  cycle
           if (screen) then
              write (msg_buffer, "(4x,I0,9A)")  i, ": '", &
                   char (meta%component_id (i)), "':   ", &
                   char (meta%component_description (i))
              call msg_message ()
           else
              write (u, "(5x,I0,9A)")  i, ": '", &
                   char (meta%component_id (i)), "':   ", &
                   char (meta%component_description (i))
           end if
        end do
     end if
     if (screen) then
        write (msg_buffer, "(A)")  repeat ("-", 72)
        call msg_message ()
     else
        call write_separator (u)
     end if
   end subroutine process_metadata_write
 
 @ %def process_metadata_write
 @ Short output: list components.
 <<Process config: process metadata: TBP>>=
   procedure :: show => process_metadata_show
 <<Process config: sub interfaces>>=
     module subroutine process_metadata_show (meta, u, model_name)
       class(process_metadata_t), intent(in) :: meta
       integer, intent(in) :: u
       type(string_t), intent(in) :: model_name
     end subroutine process_metadata_show
 <<Process config: procedures>>=
   module subroutine process_metadata_show (meta, u, model_name)
     class(process_metadata_t), intent(in) :: meta
     integer, intent(in) :: u
     type(string_t), intent(in) :: model_name
     integer :: i
     select case (meta%type)
     case (PRC_UNKNOWN)
        write (u, "(A)") "Process: [undefined]"
        return
     case default
        write (u, "(A)", advance="no") "Process:"
     end select
     write (u, "(1x,A)", advance="no") char (meta%id)
     select case (meta%num_id)
     case (0)
     case default
        write (u, "(1x,'(',I0,')')", advance="no") meta%num_id
     end select
     select case (char (model_name))
     case ("")
     case default
        write (u, "(1x,'[',A,']')", advance="no")  char (model_name)
     end select
     write (u, *)
     if (allocated (meta%component_id)) then
        do i = 1, size (meta%component_id)
           if (meta%active(i)) then
              write (u, "(2x,I0,':',1x,A)")  i, &
                   char (meta%component_description (i))
           end if
        end do
     end if
   end subroutine process_metadata_show
 
 @ %def process_metadata_show
 @ Initialize.  Find process ID and run ID.
 
 Also find the process ID in the process library and retrieve some metadata from
 there.
 <<Process config: process metadata: TBP>>=
   procedure :: init => process_metadata_init
 <<Process config: sub interfaces>>=
     module subroutine process_metadata_init (meta, id, lib, var_list)
       class(process_metadata_t), intent(out) :: meta
       type(string_t), intent(in) :: id
       type(process_library_t), intent(in), target :: lib
       type(var_list_t), intent(in) :: var_list
     end subroutine process_metadata_init
 <<Process config: procedures>>=
   module subroutine process_metadata_init (meta, id, lib, var_list)
     class(process_metadata_t), intent(out) :: meta
     type(string_t), intent(in) :: id
     type(process_library_t), intent(in), target :: lib
     type(var_list_t), intent(in) :: var_list
     select case (lib%get_n_in (id))
     case (1);  meta%type = PRC_DECAY
     case (2);  meta%type = PRC_SCATTERING
     case default
        call msg_bug ("Process '" // char (id) // "': impossible n_in")
     end select
     meta%id = id
     meta%run_id = var_list%get_sval (var_str ("$run_id"))
     allocate (meta%lib_name)
     meta%lib_name = lib%get_name ()
     meta%lib_update_counter = lib%get_update_counter ()
     if (lib%contains (id)) then
        meta%lib_index = lib%get_entry_index (id)
        meta%num_id = lib%get_num_id (id)
        call lib%get_component_list (id, meta%component_id)
        meta%n_components = size (meta%component_id)
        call lib%get_component_description_list &
             (id, meta%component_description)
        allocate (meta%active (meta%n_components), source = .true.)
     else
        call msg_fatal ("Process library does not contain process '" &
             // char (id) // "'")
     end if
     if (.not. lib%is_active ()) then
        call msg_bug ("Process init: inactive library not handled yet")
     end if
   end subroutine process_metadata_init
 
 @ %def process_metadata_init
 @ Mark a component as inactive.
 <<Process config: process metadata: TBP>>=
   procedure :: deactivate_component => process_metadata_deactivate_component
 <<Process config: sub interfaces>>=
     module subroutine process_metadata_deactivate_component (meta, i)
       class(process_metadata_t), intent(inout) :: meta
       integer, intent(in) :: i
     end subroutine process_metadata_deactivate_component
 <<Process config: procedures>>=
   module subroutine process_metadata_deactivate_component (meta, i)
     class(process_metadata_t), intent(inout) :: meta
     integer, intent(in) :: i
     call msg_message ("Process component '" &
          // char (meta%component_id(i)) // "': matrix element vanishes")
     meta%active(i) = .false.
   end subroutine process_metadata_deactivate_component
 
 @ %def process_metadata_deactivate_component
 @
 \subsection{Phase-space configuration}
 A process can have a number of independent phase-space configuration entries,
 depending on the process definition and evaluation algorithm.  Each entry
 holds various configuration-parameter data and the actual [[phs_config_t]]
 record, which can vary in concrete type.
 <<Process config: public>>=
   public :: process_phs_config_t
 <<Process config: types>>=
   type :: process_phs_config_t
      type(phs_parameters_t) :: phs_par
      type(mapping_defaults_t) :: mapping_defs
      class(phs_config_t), allocatable :: phs_config
    contains
    <<Process config: process phs config: TBP>>
   end type process_phs_config_t
 
 @ %def process_phs_config_t
 @ Output, DTIO compatible.
 <<Process config: process phs config: TBP>>=
   procedure :: write => process_phs_config_write
   procedure :: write_formatted => process_phs_config_write_formatted
   ! generic :: write (formatted) => write_formatted
 <<Process config: sub interfaces>>=
     module subroutine process_phs_config_write (phs_config, unit)
       class(process_phs_config_t), intent(in) :: phs_config
       integer, intent(in), optional :: unit
     end subroutine process_phs_config_write
 <<Process config: procedures>>=
   module subroutine process_phs_config_write (phs_config, unit)
     class(process_phs_config_t), intent(in) :: phs_config
     integer, intent(in), optional :: unit
     integer :: u, iostat
     integer, dimension(:), allocatable :: v_list
     character(0) :: iomsg
     u = given_output_unit (unit)
     allocate (v_list (0))
     call phs_config%write_formatted (u, "LISTDIRECTED", v_list, iostat, iomsg)
   end subroutine process_phs_config_write
 
 @ %def process_phs_config_write
 @ DTIO standard write.
 <<Process config: sub interfaces>>=
     module subroutine process_phs_config_write_formatted &
          (dtv, unit, iotype, v_list, iostat, iomsg)
       class(process_phs_config_t), intent(in) :: dtv
       integer, intent(in) :: unit
       character(*), intent(in) :: iotype
       integer, dimension(:), intent(in) :: v_list
       integer, intent(out) :: iostat
       character(*), intent(inout) :: iomsg
     end subroutine process_phs_config_write_formatted
 <<Process config: procedures>>=
   module subroutine process_phs_config_write_formatted &
        (dtv, unit, iotype, v_list, iostat, iomsg)
     class(process_phs_config_t), intent(in) :: dtv
     integer, intent(in) :: unit
     character(*), intent(in) :: iotype
     integer, dimension(:), intent(in) :: v_list
     integer, intent(out) :: iostat
     character(*), intent(inout) :: iomsg
     associate (phs_config => dtv)
       write (unit, "(1x, A)")  "Phase-space configuration entry:"
       call phs_config%phs_par%write (unit)
       call phs_config%mapping_defs%write (unit)
     end associate
     iostat = 0
   end subroutine process_phs_config_write_formatted
 
 @ %def process_phs_config_write_formatted
 @
 \subsection{Beam configuration}
 The object [[data]] holds all details about the initial beam
 configuration.  The allocatable array [[sf]] holds the structure-function
 configuration blocks.  There are [[n_strfun]] entries in the
 structure-function chain (not counting the initial beam object).  We
 maintain [[n_channel]] independent parameterizations of this chain.
 If this is greater than zero, we need a multi-channel sampling
 algorithm, where for each point one channel is selected to generate
 kinematics.
 
 The number of parameters that are required for generating a
 structure-function chain is [[n_sfpar]].
 
 The flag [[azimuthal_dependence]] tells whether the process setup is
 symmetric about the beam axis in the c.m.\ system.  This implies that
 there is no transversal beam polarization.  The flag [[lab_is_cm]] is
 obvious.
 <<Process config: public>>=
   public :: process_beam_config_t
 <<Process config: types>>=
   type :: process_beam_config_t
      type(beam_data_t) :: data
      integer :: n_strfun = 0
      integer :: n_channel = 1
      integer :: n_sfpar = 0
      type(sf_config_t), dimension(:), allocatable :: sf
      type(sf_channel_t), dimension(:), allocatable :: sf_channel
      logical :: azimuthal_dependence = .false.
      logical :: lab_is_cm = .true.
      character(32) :: md5sum = ""
      logical :: sf_trace = .false.
      type(string_t) :: sf_trace_file
    contains
    <<Process config: process beam config: TBP>>
   end type process_beam_config_t
 
 @ %def process_beam_config_t
 @ Here we write beam data only if they are actually used.
 
 The [[verbose]] flag is passed to the beam-data writer.
 <<Process config: process beam config: TBP>>=
   procedure :: write => process_beam_config_write
 <<Process config: sub interfaces>>=
     module subroutine process_beam_config_write (object, unit, verbose)
       class(process_beam_config_t), intent(in) :: object
       integer, intent(in), optional :: unit
       logical, intent(in), optional :: verbose
     end subroutine process_beam_config_write
 <<Process config: procedures>>=
   module subroutine process_beam_config_write (object, unit, verbose)
     class(process_beam_config_t), intent(in) :: object
     integer, intent(in), optional :: unit
     logical, intent(in), optional :: verbose
     integer :: u, i, c
     u = given_output_unit (unit)
     call object%data%write (u, verbose = verbose)
     if (object%data%initialized) then
        write (u, "(3x,A,L1)")  "Azimuthal dependence    = ", &
             object%azimuthal_dependence
        write (u, "(3x,A,L1)")  "Lab frame is c.m. frame = ", &
             object%lab_is_cm
        if (object%md5sum /= "") then
           write (u, "(3x,A,A,A)")  "MD5 sum (beams/strf) = '", &
                object%md5sum, "'"
        end if
        if (allocated (object%sf)) then
           do i = 1, size (object%sf)
              call object%sf(i)%write (u)
           end do
           if (any_sf_channel_has_mapping (object%sf_channel)) then
              write (u, "(1x,A,L1)")  "Structure-function mappings per channel:"
              do c = 1, object%n_channel
                 write (u, "(3x,I0,':')", advance="no")  c
                 call object%sf_channel(c)%write (u)
              end do
           end if
        end if
     end if
   end subroutine process_beam_config_write
 
 @ %def process_beam_config_write
 @ The beam data have a finalizer.  We assume that there is none for the
 structure-function data.
 <<Process config: process beam config: TBP>>=
   procedure :: final => process_beam_config_final
 <<Process config: sub interfaces>>=
     module subroutine process_beam_config_final (object)
       class(process_beam_config_t), intent(inout) :: object
     end subroutine process_beam_config_final
 <<Process config: procedures>>=
   module subroutine process_beam_config_final (object)
     class(process_beam_config_t), intent(inout) :: object
     call object%data%final ()
   end subroutine process_beam_config_final
 
 @ %def process_beam_config_final
 @ Initialize the beam setup with a given beam structure object.
 <<Process config: process beam config: TBP>>=
   procedure :: init_beam_structure => process_beam_config_init_beam_structure
 <<Process config: sub interfaces>>=
     module subroutine process_beam_config_init_beam_structure &
          (beam_config, beam_structure, sqrts, model, decay_rest_frame)
       class(process_beam_config_t), intent(out) :: beam_config
       type(beam_structure_t), intent(in) :: beam_structure
       logical, intent(in), optional :: decay_rest_frame
       real(default), intent(in) :: sqrts
       class(model_data_t), intent(in), target :: model
     end subroutine process_beam_config_init_beam_structure
 <<Process config: procedures>>=
   module subroutine process_beam_config_init_beam_structure &
        (beam_config, beam_structure, sqrts, model, decay_rest_frame)
     class(process_beam_config_t), intent(out) :: beam_config
     type(beam_structure_t), intent(in) :: beam_structure
     logical, intent(in), optional :: decay_rest_frame
     real(default), intent(in) :: sqrts
     class(model_data_t), intent(in), target :: model
     call beam_config%data%init_structure (beam_structure, &
          sqrts, model, decay_rest_frame)
     beam_config%lab_is_cm = beam_config%data%lab_is_cm
   end subroutine process_beam_config_init_beam_structure
 
 @ %def process_beam_config_init_beam_structure
 @ Initialize the beam setup for a scattering process with specified
 flavor combination, other properties taken from the beam structure
 object (if any).
 <<Process config: process beam config: TBP>>=
   procedure :: init_scattering => process_beam_config_init_scattering
 <<Process config: sub interfaces>>=
     module subroutine process_beam_config_init_scattering &
          (beam_config, flv_in, sqrts, beam_structure)
       class(process_beam_config_t), intent(out) :: beam_config
       type(flavor_t), dimension(2), intent(in) :: flv_in
       real(default), intent(in) :: sqrts
       type(beam_structure_t), intent(in), optional :: beam_structure
     end subroutine process_beam_config_init_scattering
 <<Process config: procedures>>=
   module subroutine process_beam_config_init_scattering &
        (beam_config, flv_in, sqrts, beam_structure)
     class(process_beam_config_t), intent(out) :: beam_config
     type(flavor_t), dimension(2), intent(in) :: flv_in
     real(default), intent(in) :: sqrts
     type(beam_structure_t), intent(in), optional :: beam_structure
     if (present (beam_structure)) then
        if (beam_structure%polarized ()) then
           call beam_config%data%init_sqrts (sqrts, flv_in, &
                beam_structure%get_smatrix (), beam_structure%get_pol_f ())
        else
           call beam_config%data%init_sqrts (sqrts, flv_in)
        end if
     else
        call beam_config%data%init_sqrts (sqrts, flv_in)
     end if
   end subroutine process_beam_config_init_scattering
 
 @ %def process_beam_config_init_scattering
 @ Initialize the beam setup for a decay process with specified flavor,
 other properties taken from the beam structure object (if present).
 
 For a cascade decay, we set
 [[rest_frame]] to false, indicating a event-wise varying momentum.
 The beam data itself are initialized for the particle at rest.
 <<Process config: process beam config: TBP>>=
   procedure :: init_decay => process_beam_config_init_decay
 <<Process config: sub interfaces>>=
     module subroutine process_beam_config_init_decay &
          (beam_config, flv_in, rest_frame, beam_structure)
       class(process_beam_config_t), intent(out) :: beam_config
       type(flavor_t), dimension(1), intent(in) :: flv_in
       logical, intent(in), optional :: rest_frame
       type(beam_structure_t), intent(in), optional :: beam_structure
     end subroutine process_beam_config_init_decay
 <<Process config: procedures>>=
   module subroutine process_beam_config_init_decay &
        (beam_config, flv_in, rest_frame, beam_structure)
     class(process_beam_config_t), intent(out) :: beam_config
     type(flavor_t), dimension(1), intent(in) :: flv_in
     logical, intent(in), optional :: rest_frame
     type(beam_structure_t), intent(in), optional :: beam_structure
     if (present (beam_structure)) then
        if (beam_structure%polarized ()) then
           call beam_config%data%init_decay (flv_in, &
                beam_structure%get_smatrix (), beam_structure%get_pol_f (), &
                rest_frame = rest_frame)
        else
           call beam_config%data%init_decay (flv_in, rest_frame = rest_frame)
        end if
     else
        call beam_config%data%init_decay (flv_in, &
             rest_frame = rest_frame)
     end if
     beam_config%lab_is_cm = beam_config%data%lab_is_cm
   end subroutine process_beam_config_init_decay
 
 @ %def process_beam_config_init_decay
 @ Print an informative message.
 <<Process config: process beam config: TBP>>=
   procedure :: startup_message => process_beam_config_startup_message
 <<Process config: sub interfaces>>=
     module subroutine process_beam_config_startup_message &
          (beam_config, unit, beam_structure)
       class(process_beam_config_t), intent(in) :: beam_config
       integer, intent(in), optional :: unit
       type(beam_structure_t), intent(in), optional :: beam_structure
     end subroutine process_beam_config_startup_message
 <<Process config: procedures>>=
   module subroutine process_beam_config_startup_message &
        (beam_config, unit, beam_structure)
     class(process_beam_config_t), intent(in) :: beam_config
     integer, intent(in), optional :: unit
     type(beam_structure_t), intent(in), optional :: beam_structure
     integer :: u
     u = free_unit ()
     open (u, status="scratch", action="readwrite")
     if (present (beam_structure)) then
        call beam_structure%write (u)
     end if
     call beam_config%data%write (u)
     rewind (u)
     do
        read (u, "(1x,A)", end=1)  msg_buffer
        call msg_message ()
     end do
 1   continue
     close (u)
   end subroutine process_beam_config_startup_message
 
 @ %def process_beam_config_startup_message
 @ Allocate the structure-function array.
 <<Process config: process beam config: TBP>>=
   procedure :: init_sf_chain => process_beam_config_init_sf_chain
 <<Process config: sub interfaces>>=
     module subroutine process_beam_config_init_sf_chain &
          (beam_config, sf_config, sf_trace_file)
       class(process_beam_config_t), intent(inout) :: beam_config
       type(sf_config_t), dimension(:), intent(in) :: sf_config
       type(string_t), intent(in), optional :: sf_trace_file
     end subroutine process_beam_config_init_sf_chain
 <<Process config: procedures>>=
   module subroutine process_beam_config_init_sf_chain &
        (beam_config, sf_config, sf_trace_file)
     class(process_beam_config_t), intent(inout) :: beam_config
     type(sf_config_t), dimension(:), intent(in) :: sf_config
     type(string_t), intent(in), optional :: sf_trace_file
     integer :: i
     beam_config%n_strfun = size (sf_config)
     allocate (beam_config%sf (beam_config%n_strfun))
     do i = 1, beam_config%n_strfun
        associate (sf => sf_config(i))
          call beam_config%sf(i)%init (sf%i, sf%data)
          if (.not. sf%data%is_generator ()) then
             beam_config%n_sfpar = beam_config%n_sfpar + sf%data%get_n_par ()
          end if
        end associate
     end do
     if (present (sf_trace_file)) then
        beam_config%sf_trace = .true.
        beam_config%sf_trace_file = sf_trace_file
     end if
   end subroutine process_beam_config_init_sf_chain
 
 @ %def process_beam_config_init_sf_chain
 @ Allocate the structure-function mapping channel array, given the
 requested number of channels.
 <<Process config: process beam config: TBP>>=
   procedure :: allocate_sf_channels => process_beam_config_allocate_sf_channels
 <<Process config: sub interfaces>>=
     module subroutine process_beam_config_allocate_sf_channels &
          (beam_config, n_channel)
       class(process_beam_config_t), intent(inout) :: beam_config
       integer, intent(in) :: n_channel
     end subroutine process_beam_config_allocate_sf_channels
 <<Process config: procedures>>=
   module subroutine process_beam_config_allocate_sf_channels &
        (beam_config, n_channel)
     class(process_beam_config_t), intent(inout) :: beam_config
     integer, intent(in) :: n_channel
     beam_config%n_channel = n_channel
     call allocate_sf_channels (beam_config%sf_channel, &
          n_channel = n_channel, &
          n_strfun = beam_config%n_strfun)
   end subroutine process_beam_config_allocate_sf_channels
 
 @ %def process_beam_config_allocate_sf_channels
 @ Set a structure-function mapping channel for an array of
 structure-function entries, for a single channel.  (The default is no mapping.)
 <<Process config: process beam config: TBP>>=
   procedure :: set_sf_channel => process_beam_config_set_sf_channel
 <<Process config: sub interfaces>>=
     module subroutine process_beam_config_set_sf_channel &
          (beam_config, c, sf_channel)
       class(process_beam_config_t), intent(inout) :: beam_config
       integer, intent(in) :: c
       type(sf_channel_t), intent(in) :: sf_channel
     end subroutine process_beam_config_set_sf_channel
 <<Process config: procedures>>=
   module subroutine process_beam_config_set_sf_channel &
        (beam_config, c, sf_channel)
     class(process_beam_config_t), intent(inout) :: beam_config
     integer, intent(in) :: c
     type(sf_channel_t), intent(in) :: sf_channel
     beam_config%sf_channel(c) = sf_channel
   end subroutine process_beam_config_set_sf_channel
 
 @ %def process_beam_config_set_sf_channel
 @ Print an informative startup message.
 <<Process config: process beam config: TBP>>=
   procedure :: sf_startup_message => process_beam_config_sf_startup_message
 <<Process config: sub interfaces>>=
     module subroutine process_beam_config_sf_startup_message &
          (beam_config, sf_string, unit)
       class(process_beam_config_t), intent(in) :: beam_config
       type(string_t), intent(in) :: sf_string
       integer, intent(in), optional :: unit
     end subroutine process_beam_config_sf_startup_message
 <<Process config: procedures>>=
   module subroutine process_beam_config_sf_startup_message &
        (beam_config, sf_string, unit)
     class(process_beam_config_t), intent(in) :: beam_config
     type(string_t), intent(in) :: sf_string
     integer, intent(in), optional :: unit
     if (beam_config%n_strfun > 0) then
        call msg_message ("Beam structure: " // char (sf_string), unit = unit)
        write (msg_buffer, "(A,3(1x,I0,1x,A))") &
             "Beam structure:", &
             beam_config%n_channel, "channels,", &
             beam_config%n_sfpar, "dimensions"
        call msg_message (unit = unit)
        if (beam_config%sf_trace) then
           call msg_message ("Beam structure: tracing &
                &values in '" // char (beam_config%sf_trace_file) // "'")
        end if
     end if
   end subroutine process_beam_config_sf_startup_message
 
 @ %def process_beam_config_startup_message
 @ Return the PDF set currently in use, if any.  This should be unique,
 so we scan the structure functions until we get a nonzero number.
 
 (This implies that if the PDF set is not unique (e.g., proton and
 photon structure used together), this does not work correctly.)
 <<Process config: process beam config: TBP>>=
   procedure :: get_pdf_set => process_beam_config_get_pdf_set
 <<Process config: sub interfaces>>=
     module function process_beam_config_get_pdf_set &
          (beam_config) result (pdf_set)
       class(process_beam_config_t), intent(in) :: beam_config
       integer :: pdf_set
     end function process_beam_config_get_pdf_set
 <<Process config: procedures>>=
   module function process_beam_config_get_pdf_set (beam_config) result (pdf_set)
     class(process_beam_config_t), intent(in) :: beam_config
     integer :: pdf_set
     integer :: i
     pdf_set = 0
     if (allocated (beam_config%sf)) then
        do i = 1, size (beam_config%sf)
           pdf_set = beam_config%sf(i)%get_pdf_set ()
           if (pdf_set /= 0)  return
        end do
     end if
   end function process_beam_config_get_pdf_set
 
 @ %def process_beam_config_get_pdf_set
 @ Return the beam file.
 <<Process config: process beam config: TBP>>=
   procedure :: get_beam_file => process_beam_config_get_beam_file
 <<Process config: sub interfaces>>=
     module function process_beam_config_get_beam_file &
          (beam_config) result (file)
       class(process_beam_config_t), intent(in) :: beam_config
       type(string_t) :: file
     end function process_beam_config_get_beam_file
 <<Process config: procedures>>=
   module function process_beam_config_get_beam_file (beam_config) result (file)
     class(process_beam_config_t), intent(in) :: beam_config
     type(string_t) :: file
     integer :: i
     file = ""
     if (allocated (beam_config%sf)) then
        do i = 1, size (beam_config%sf)
           file = beam_config%sf(i)%get_beam_file ()
           if (file /= "")  return
        end do
     end if
   end function process_beam_config_get_beam_file
 
 @ %def process_beam_config_get_beam_file
 @ Compute the MD5 sum for the complete beam setup.  We rely on the
 default output of [[write]] to contain all relevant data.
 
 This is done only once, when the MD5 sum is still empty.
 <<Process config: process beam config: TBP>>=
   procedure :: compute_md5sum => process_beam_config_compute_md5sum
 <<Process config: sub interfaces>>=
     module subroutine process_beam_config_compute_md5sum (beam_config)
       class(process_beam_config_t), intent(inout) :: beam_config
     end subroutine process_beam_config_compute_md5sum
 <<Process config: procedures>>=
   module subroutine process_beam_config_compute_md5sum (beam_config)
     class(process_beam_config_t), intent(inout) :: beam_config
     integer :: u
     if (beam_config%md5sum == "") then
        u = free_unit ()
        open (u, status = "scratch", action = "readwrite")
        call beam_config%write (u, verbose=.true.)
        rewind (u)
        beam_config%md5sum = md5sum (u)
        close (u)
     end if
   end subroutine process_beam_config_compute_md5sum
 
 @ %def process_beam_config_compute_md5sum
 @
 <<Process config: process beam config: TBP>>=
   procedure :: get_md5sum => process_beam_config_get_md5sum
 <<Process config: sub interfaces>>=
     pure module function process_beam_config_get_md5sum &
          (beam_config) result (md5)
       character(32) :: md5
       class(process_beam_config_t), intent(in) :: beam_config
     end function process_beam_config_get_md5sum
 <<Process config: procedures>>=
   pure module function process_beam_config_get_md5sum (beam_config) result (md5)
     character(32) :: md5
     class(process_beam_config_t), intent(in) :: beam_config
     md5 = beam_config%md5sum
   end function process_beam_config_get_md5sum
 
 @ %def process_beam_config_get_md5sum
 @
 <<Process config: process beam config: TBP>>=
   procedure :: has_structure_function => &
        process_beam_config_has_structure_function
 <<Process config: sub interfaces>>=
     pure module function process_beam_config_has_structure_function &
          (beam_config) result (has_sf)
       logical :: has_sf
       class(process_beam_config_t), intent(in) :: beam_config
     end function process_beam_config_has_structure_function
 <<Process config: procedures>>=
   pure module function process_beam_config_has_structure_function &
        (beam_config) result (has_sf)
     logical :: has_sf
     class(process_beam_config_t), intent(in) :: beam_config
     has_sf = beam_config%n_strfun > 0
   end function process_beam_config_has_structure_function
 
 @ %def process_beam_config_has_structure_function
 @
 \subsection{Process components}
 A process component is an individual contribution to a process
 (scattering or decay) which needs not be physical.  The sum over all
 components should be physical.
 
 The [[index]] indentifies this component within its parent process.
 
 The actual process component is stored in the [[core]] subobject.  We
 use a polymorphic subobject instead of an extension of
 [[process_component_t]], because the individual entries in the array
 of process components can have different types.  In short,
 [[process_component_t]] is a wrapper for the actual process variants.
 
 If the [[active]] flag is false, we should skip this component.  This happens
 if the associated process has vanishing matrix element.
 
 The index array [[i_term]] points to the individual terms generated by
 this component.  The indices refer to the parent process.
 
 The index [[i_mci]] is the index of the MC integrator and parameter set which
 are associated to this process component.
 <<Process config: public>>=
   public :: process_component_t
 <<Process config: types>>=
   type :: process_component_t
      type(process_component_def_t), pointer :: config => null ()
      integer :: index = 0
      logical :: active = .false.
      integer, dimension(:), allocatable :: i_term
      integer :: i_mci = 0
      class(phs_config_t), allocatable :: phs_config
      character(32) :: md5sum_phs = ""
      integer :: component_type = COMP_DEFAULT
    contains
    <<Process config: process component: TBP>>
   end type process_component_t
 
 @ %def process_component_t
 @ Finalizer.  The MCI template may (potentially) need a finalizer.  The process
 configuration finalizer may include closing an open scratch file.
 <<Process config: process component: TBP>>=
   procedure :: final => process_component_final
 <<Process config: sub interfaces>>=
     module subroutine process_component_final (object)
       class(process_component_t), intent(inout) :: object
     end subroutine process_component_final
 <<Process config: procedures>>=
   module subroutine process_component_final (object)
     class(process_component_t), intent(inout) :: object
     if (allocated (object%phs_config)) then
        call object%phs_config%final ()
     end if
   end subroutine process_component_final
 
 @ %def process_component_final
 @ The meaning of [[verbose]] depends on the process variant.
 <<Process config: process component: TBP>>=
   procedure :: write => process_component_write
 <<Process config: sub interfaces>>=
     module subroutine process_component_write (object, unit)
       class(process_component_t), intent(in) :: object
       integer, intent(in), optional :: unit
     end subroutine process_component_write
 <<Process config: procedures>>=
   module subroutine process_component_write (object, unit)
     class(process_component_t), intent(in) :: object
     integer, intent(in), optional :: unit
     integer :: u
     u = given_output_unit (unit)
     if (associated (object%config)) then
        write (u, "(1x,A,I0)")  "Component #", object%index
        call object%config%write (u)
        if (object%md5sum_phs /= "") then
           write (u, "(3x,A,A,A)")  "MD5 sum (phs)       = '", &
                object%md5sum_phs, "'"
        end if
     else
        write (u, "(1x,A)") "Process component: [not allocated]"
     end if
     if (.not. object%active) then
        write (u, "(1x,A)") "[Inactive]"
        return
     end if
     write (u, "(1x,A)") "Referenced data:"
     if (allocated (object%i_term)) then
        write (u, "(3x,A,999(1x,I0))") "Terms                    =", &
             object%i_term
     else
        write (u, "(3x,A)") "Terms                    = [undefined]"
     end if
     if (object%i_mci /= 0) then
        write (u, "(3x,A,I0)") "MC dataset               = ", object%i_mci
     else
        write (u, "(3x,A)") "MC dataset               = [undefined]"
     end if
     if (allocated (object%phs_config)) then
        call object%phs_config%write (u)
     end if
   end subroutine process_component_write
 
 @ %def process_component_write
 @ Initialize the component.
 <<Process config: process component: TBP>>=
   procedure :: init => process_component_init
 <<Process config: sub interfaces>>=
     module subroutine process_component_init (component, &
          i_component, env, meta, config, &
          active, &
          phs_config_template)
       class(process_component_t), intent(out) :: component
       integer, intent(in) :: i_component
       type(process_environment_t), intent(in) :: env
       type(process_metadata_t), intent(in) :: meta
       type(process_config_data_t), intent(in) :: config
       logical, intent(in) :: active
       class(phs_config_t), intent(in), allocatable :: phs_config_template
     end subroutine process_component_init
 <<Process config: procedures>>=
   module subroutine process_component_init (component, &
        i_component, env, meta, config, &
        active, &
        phs_config_template)
     class(process_component_t), intent(out) :: component
     integer, intent(in) :: i_component
     type(process_environment_t), intent(in) :: env
     type(process_metadata_t), intent(in) :: meta
     type(process_config_data_t), intent(in) :: config
     logical, intent(in) :: active
     class(phs_config_t), intent(in), allocatable :: phs_config_template
 
     type(process_constants_t) :: data
 
     component%index = i_component
     component%config => &
          config%process_def%get_component_def_ptr (i_component)
 
     component%active = active
     if (component%active) then
        allocate (component%phs_config, source = phs_config_template)
        call env%fill_process_constants (meta%id, i_component, data)
        call component%phs_config%init (data, config%model)
     end if
   end subroutine process_component_init
 
 @ %def process_component_init
 @
 <<Process config: process component: TBP>>=
   procedure :: is_active => process_component_is_active
 <<Process config: sub interfaces>>=
     elemental module function process_component_is_active &
          (component) result (active)
       logical :: active
       class(process_component_t), intent(in) :: component
     end function process_component_is_active
 <<Process config: procedures>>=
   elemental module function process_component_is_active &
        (component) result (active)
     logical :: active
     class(process_component_t), intent(in) :: component
     active = component%active
   end function process_component_is_active
 
 @ %def process_component_is_active
 @ Finalize the phase-space configuration.
 <<Process config: process component: TBP>>=
   procedure :: configure_phs => process_component_configure_phs
 <<Process config: sub interfaces>>=
     module subroutine process_component_configure_phs &
          (component, sqrts, beam_config, rebuild, &
           ignore_mismatch, subdir)
       class(process_component_t), intent(inout) :: component
       real(default), intent(in) :: sqrts
       type(process_beam_config_t), intent(in) :: beam_config
       logical, intent(in), optional :: rebuild
       logical, intent(in), optional :: ignore_mismatch
       type(string_t), intent(in), optional :: subdir
     end subroutine process_component_configure_phs
 <<Process config: procedures>>=
   module subroutine process_component_configure_phs &
        (component, sqrts, beam_config, rebuild, &
         ignore_mismatch, subdir)
     class(process_component_t), intent(inout) :: component
     real(default), intent(in) :: sqrts
     type(process_beam_config_t), intent(in) :: beam_config
     logical, intent(in), optional :: rebuild
     logical, intent(in), optional :: ignore_mismatch
     type(string_t), intent(in), optional :: subdir
     logical :: no_strfun
     integer :: nlo_type
     no_strfun = beam_config%n_strfun == 0
     nlo_type = component%config%get_nlo_type ()
     call component%phs_config%configure (sqrts, &
          azimuthal_dependence = beam_config%azimuthal_dependence, &
          sqrts_fixed = no_strfun, &
          lab_is_cm = beam_config%lab_is_cm .and. no_strfun, &
          rebuild = rebuild, ignore_mismatch = ignore_mismatch, &
          nlo_type = nlo_type, &
          subdir = subdir)
   end subroutine process_component_configure_phs
 
 @ %def process_component_configure_phs
 @ The process component possesses two MD5 sums: the checksum of the
 component definition, which should be available when the component is
 initialized, and the phase-space MD5 sum, which is available after
 configuration.
 <<Process config: process component: TBP>>=
   procedure :: compute_md5sum => process_component_compute_md5sum
 <<Process config: sub interfaces>>=
     module subroutine process_component_compute_md5sum (component)
       class(process_component_t), intent(inout) :: component
     end subroutine process_component_compute_md5sum
 <<Process config: procedures>>=
   module subroutine process_component_compute_md5sum (component)
     class(process_component_t), intent(inout) :: component
     component%md5sum_phs = component%phs_config%get_md5sum ()
   end subroutine process_component_compute_md5sum
 
 @ %def process_component_compute_md5sum
 @ Match phase-space channels with structure-function channels, where
 applicable.
 
 This calls a method of the [[phs_config]] phase-space implementation.
 <<Process config: process component: TBP>>=
   procedure :: collect_channels => process_component_collect_channels
 <<Process config: sub interfaces>>=
     module subroutine process_component_collect_channels (component, coll)
       class(process_component_t), intent(inout) :: component
       type(phs_channel_collection_t), intent(inout) :: coll
     end subroutine process_component_collect_channels
 <<Process config: procedures>>=
   module subroutine process_component_collect_channels (component, coll)
     class(process_component_t), intent(inout) :: component
     type(phs_channel_collection_t), intent(inout) :: coll
     call component%phs_config%collect_channels (coll)
   end subroutine process_component_collect_channels
 
 @ %def process_component_collect_channels
 @
 <<Process config: process component: TBP>>=
   procedure :: get_config => process_component_get_config
 <<Process config: sub interfaces>>=
     module function process_component_get_config (component) &
            result (config)
       type(process_component_def_t) :: config
       class(process_component_t), intent(in) :: component
     end function process_component_get_config
 <<Process config: procedures>>=
   module function process_component_get_config (component) &
        result (config)
     type(process_component_def_t) :: config
     class(process_component_t), intent(in) :: component
     config = component%config
   end function process_component_get_config
 
 @ %def process_component_get_config
 @
 <<Process config: process component: TBP>>=
   procedure :: get_md5sum => process_component_get_md5sum
 <<Process config: sub interfaces>>=
     pure module function process_component_get_md5sum (component) result (md5)
       type(string_t) :: md5
       class(process_component_t), intent(in) :: component
     end function process_component_get_md5sum
 <<Process config: procedures>>=
   pure module function process_component_get_md5sum (component) result (md5)
     type(string_t) :: md5
     class(process_component_t), intent(in) :: component
     md5 = component%config%get_md5sum () // component%md5sum_phs
   end function process_component_get_md5sum
 
 @ %def process_component_get_md5sum
 @ Return the number of phase-space parameters.
 <<Process config: process component: TBP>>=
   procedure :: get_n_phs_par => process_component_get_n_phs_par
 <<Process config: sub interfaces>>=
     module function process_component_get_n_phs_par (component) result (n_par)
       class(process_component_t), intent(in) :: component
       integer :: n_par
     end function process_component_get_n_phs_par
 <<Process config: procedures>>=
   module function process_component_get_n_phs_par (component) result (n_par)
     class(process_component_t), intent(in) :: component
     integer :: n_par
     n_par = component%phs_config%get_n_par ()
   end function process_component_get_n_phs_par
 
 @ %def process_component_get_n_phs_par
 @
 <<Process config: process component: TBP>>=
   procedure :: get_phs_config => process_component_get_phs_config
 <<Process config: sub interfaces>>=
     module subroutine process_component_get_phs_config (component, phs_config)
       class(process_component_t), intent(in), target :: component
       class(phs_config_t), intent(out), pointer :: phs_config
     end subroutine process_component_get_phs_config
 <<Process config: procedures>>=
   module subroutine process_component_get_phs_config (component, phs_config)
     class(process_component_t), intent(in), target :: component
     class(phs_config_t), intent(out), pointer :: phs_config
     phs_config => component%phs_config
   end subroutine process_component_get_phs_config
 
 @ %def process_component_get_phs_config
 @
 <<Process config: process component: TBP>>=
   procedure :: get_nlo_type => process_component_get_nlo_type
 <<Process config: sub interfaces>>=
     elemental module function process_component_get_nlo_type &
          (component) result (nlo_type)
       integer :: nlo_type
       class(process_component_t), intent(in) :: component
     end function process_component_get_nlo_type
 <<Process config: procedures>>=
   elemental module function process_component_get_nlo_type &
        (component) result (nlo_type)
     integer :: nlo_type
     class(process_component_t), intent(in) :: component
     nlo_type = component%config%get_nlo_type ()
   end function process_component_get_nlo_type
 
 @ %def process_component_get_nlo_type
 @
 <<Process config: process component: TBP>>=
   procedure :: needs_mci_entry => process_component_needs_mci_entry
 <<Process config: sub interfaces>>=
     module function process_component_needs_mci_entry &
          (component, combined_integration) result (value)
       logical :: value
       class(process_component_t), intent(in) :: component
       logical, intent(in), optional :: combined_integration
     end function process_component_needs_mci_entry
 <<Process config: procedures>>=
   module function process_component_needs_mci_entry &
        (component, combined_integration) result (value)
     logical :: value
     class(process_component_t), intent(in) :: component
     logical, intent(in), optional :: combined_integration
     value = component%active
     if (present (combined_integration)) then
        if (combined_integration) &
             value = value .and. component%component_type <= COMP_MASTER
     end if
   end function process_component_needs_mci_entry
 
 @ %def process_component_needs_mci_entry
 @
 <<Process config: process component: TBP>>=
   procedure :: can_be_integrated => process_component_can_be_integrated
 <<Process config: sub interfaces>>=
     elemental module function process_component_can_be_integrated &
          (component) result (active)
       logical :: active
       class(process_component_t), intent(in) :: component
     end function process_component_can_be_integrated
 <<Process config: procedures>>=
   elemental module function process_component_can_be_integrated &
        (component) result (active)
     logical :: active
     class(process_component_t), intent(in) :: component
     active = component%config%can_be_integrated ()
   end function process_component_can_be_integrated
 
 @ %def process_component_can_be_integrated
 @
 \subsection{Process terms}
 For straightforward tree-level calculations, each process component
 corresponds to a unique elementary interaction.  However, in the case
 of NLO calculations with subtraction terms, a process component may
 split into several separate contributions to the scattering, which are
 qualified by interactions with distinct kinematics and particle
 content.  We represent their configuration as [[process_term_t]]
 objects, the actual instances will be introduced below as
 [[term_instance_t]].  In any case, the process term contains an
 elementary interaction with a definite quantum-number and momentum
 content.
 
 The index [[i_term_global]] identifies the term relative to the
 process.
 
 The index [[i_component]] identifies the process component which
 generates this term, relative to the parent process.
 
 The index [[i_term]] identifies the term relative to the process
 component (not the process).
 
 The [[data]] subobject holds all process constants.
 
 The number of allowed flavor/helicity/color combinations is stored as
 [[n_allowed]].  This is the total number of independent entries in the
 density matrix.  For each combination, the index of the flavor,
 helicity, and color state is stored in the arrays [[flv]], [[hel]],
 and [[col]], respectively.
 
 The flag [[rearrange]] is true if we need to rearrange the particles of the
 hard interaction, to obtain the effective parton state.
 
 The interaction [[int]] holds the quantum state for the (resolved) hard
 interaction, the parent-child relations of the particles, and their momenta.
 The momenta are not filled yet; this is postponed to copies of [[int]] which
 go into the process instances.
 
 If recombination is in effect, we should allocate [[int_eff]] to describe the
 rearranged partonic state.
 
 This type is public only for use in a unit test.
 <<Process config: public>>=
   public :: process_term_t
 <<Process config: types>>=
   type :: process_term_t
      integer :: i_term_global = 0
      integer :: i_component = 0
      integer :: i_term = 0
      integer :: i_sub = 0
      integer :: i_core = 0
      integer :: n_allowed = 0
      type(process_constants_t) :: data
      real(default) :: alpha_s = 0
      integer, dimension(:), allocatable :: flv, hel, col
      integer :: n_sub, n_sub_color, n_sub_spin
      type(interaction_t) :: int
      type(interaction_t), pointer :: int_eff => null ()
    contains
    <<Process config: process term: TBP>>
   end type process_term_t
 
 @ %def process_term_t
 @ For the output, we skip the process constants and the tables of
 allowed quantum numbers.  Those can also be read off from the
 interaction object.
 <<Process config: process term: TBP>>=
   procedure :: write => process_term_write
 <<Process config: sub interfaces>>=
     module subroutine process_term_write (term, unit)
       class(process_term_t), intent(in) :: term
       integer, intent(in), optional :: unit
     end subroutine process_term_write
 <<Process config: procedures>>=
   module subroutine process_term_write (term, unit)
     class(process_term_t), intent(in) :: term
     integer, intent(in), optional :: unit
     integer :: u
     u = given_output_unit (unit)
     write (u, "(1x,A,I0)")  "Term #", term%i_term_global
     write (u, "(3x,A,I0)")  "Process component index      = ", &
          term%i_component
     write (u, "(3x,A,I0)")  "Term index w.r.t. component  = ", &
          term%i_term
     call write_separator (u)
     write (u, "(1x,A)")  "Hard interaction:"
     call write_separator (u)
     call term%int%basic_write (u)
   end subroutine process_term_write
 
 @ %def process_term_write
 @ Write an account of all quantum number states and their current status.
 <<Process config: process term: TBP>>=
   procedure :: write_state_summary => process_term_write_state_summary
 <<Process config: sub interfaces>>=
     module subroutine process_term_write_state_summary (term, core, unit)
       class(process_term_t), intent(in) :: term
       class(prc_core_t), intent(in) :: core
       integer, intent(in), optional :: unit
     end subroutine process_term_write_state_summary
 <<Process config: procedures>>=
   module subroutine process_term_write_state_summary (term, core, unit)
     class(process_term_t), intent(in) :: term
     class(prc_core_t), intent(in) :: core
     integer, intent(in), optional :: unit
     integer :: u, i, f, h, c
     type(state_iterator_t) :: it
     character :: sgn
     u = given_output_unit (unit)
     write (u, "(1x,A,I0)")  "Term #", term%i_term_global
     call it%init (term%int%get_state_matrix_ptr ())
     do while (it%is_valid ())
        i = it%get_me_index ()
        f = term%flv(i)
        h = term%hel(i)
        if (allocated (term%col)) then
           c = term%col(i)
        else
           c = 1
        end if
        if (core%is_allowed (term%i_term, f, h, c)) then
           sgn = "+"
        else
           sgn = " "
        end if
        write (u, "(1x,A1,1x,I0,2x)", advance="no")  sgn, i
        call quantum_numbers_write (it%get_quantum_numbers (), u)
        write (u, *)
        call it%advance ()
     end do
   end subroutine process_term_write_state_summary
 
 @ %def process_term_write_state_summary
 @ Finalizer: the [[int]] and potentially [[int_eff]] components have a
 finalizer that we must call.
 <<Process config: process term: TBP>>=
   procedure :: final => process_term_final
 <<Process config: sub interfaces>>=
     module subroutine process_term_final (term)
       class(process_term_t), intent(inout) :: term
     end subroutine process_term_final
 <<Process config: procedures>>=
   module subroutine process_term_final (term)
     class(process_term_t), intent(inout) :: term
     call term%int%final ()
   end subroutine process_term_final
 
 @ %def process_term_final
 @ Initialize the term.  We copy the process constants from the [[core]]
 object and set up the [[int]] hard interaction accordingly.
 
 The [[alpha_s]] value is useful for writing external event records.  This is
 the constant value which may be overridden by an event-specific running value.
 If the model does not contain the strong coupling, the value is zero.
 
 The [[rearrange]] part is commented out; this or something equivalent
 could become relevant for NLO algorithms.
 <<Process config: process term: TBP>>=
   procedure :: init => process_term_init
 <<Process config: sub interfaces>>=
     module subroutine process_term_init &
          (term, i_term_global, i_component, i_term, core, model, &
           nlo_type, use_beam_pol, subtraction_method, &
           has_pdfs, n_emitters)
       class(process_term_t), intent(inout), target :: term
       integer, intent(in) :: i_term_global
       integer, intent(in) :: i_component
       integer, intent(in) :: i_term
       class(prc_core_t), intent(inout) :: core
       class(model_data_t), intent(in), target :: model
       integer, intent(in), optional :: nlo_type
       logical, intent(in), optional :: use_beam_pol
       type(string_t), intent(in), optional :: subtraction_method
       logical, intent(in), optional :: has_pdfs
       integer, intent(in), optional :: n_emitters
     end subroutine process_term_init
 <<Process config: procedures>>=
   module subroutine process_term_init &
        (term, i_term_global, i_component, i_term, core, model, &
         nlo_type, use_beam_pol, subtraction_method, &
         has_pdfs, n_emitters)
     class(process_term_t), intent(inout), target :: term
     integer, intent(in) :: i_term_global
     integer, intent(in) :: i_component
     integer, intent(in) :: i_term
     class(prc_core_t), intent(inout) :: core
     class(model_data_t), intent(in), target :: model
     integer, intent(in), optional :: nlo_type
     logical, intent(in), optional :: use_beam_pol
     type(string_t), intent(in), optional :: subtraction_method
     logical, intent(in), optional :: has_pdfs
     integer, intent(in), optional :: n_emitters
     class(modelpar_data_t), pointer :: alpha_s_ptr
     logical :: use_internal_color
     term%i_term_global = i_term_global
     term%i_component = i_component
     term%i_term = i_term
     call core%get_constants (term%data, i_term)
     alpha_s_ptr => model%get_par_data_ptr (var_str ("alphas"))
     if (associated (alpha_s_ptr)) then
        term%alpha_s = alpha_s_ptr%get_real ()
     else
        term%alpha_s = -1
     end if
     use_internal_color = .false.
     if (present (subtraction_method)) &
          use_internal_color = (char (subtraction_method) == 'omega') &
          .or. (char (subtraction_method) == 'threshold')
     call term%setup_interaction (core, model, nlo_type = nlo_type, &
          pol_beams = use_beam_pol, use_internal_color = use_internal_color, &
          has_pdfs = has_pdfs, n_emitters = n_emitters)
   end subroutine process_term_init
 
 @ %def process_term_init
 @ We fetch the process constants which determine the quantum numbers and
 use those to create the interaction.  The interaction contains
 incoming and outgoing particles, no virtuals.  The incoming particles
 are parents of the outgoing ones.
 
 Keeping previous \whizard\ conventions, we invert the color assignment
 (but not flavor or helicity) for the incoming particles.  When the
 color-flow square matrix is evaluated, this inversion is done again,
 so in the color-flow sequence we get the color assignments of the
 matrix element.
 
 \textbf{Why are these four subtraction entries for structure-function
 aware interactions?} Taking the soft or collinear limit of the real-emission
 matrix element, the behavior of the parton energy fractions has to be
 taken into account. In the pure real case, $x_\oplus$ and $x_\ominus$
 are given by
 \begin{equation*}
   x_\oplus = \frac{\bar{x}_\oplus}{\sqrt{1-\xi}}
              \sqrt{\frac{2 - \xi(1-y)}{2 - \xi(1+y)}},
   \quad
   x_\ominus = \frac{\bar{x}_\ominus}{\sqrt{1-\xi}}
              \sqrt{\frac{2 - \xi(1+y)}{2 - \xi(1-y)}}.
 \end{equation*}
 In the soft limit, $\xi \to 0$, this yields $x_\oplus = \bar{x}_\oplus$
 and $x_\ominus = \bar{x}_\ominus$. In the collinear limit, $y \to 1$,
 it is $x_\oplus = \bar{x}_\oplus / (1 - \xi)$ and $x_\ominus = \bar{x}_\ominus$.
 Likewise, in the anti-collinear limit $y \to -1$, the inverse relation holds.
 We therefore have to distinguish four cases with the PDF assignments
 $f(x_\oplus) \cdot f(x_\ominus)$, $f(\bar{x}_\oplus) \cdot f(\bar{x}_\ominus)$,
 $f\left(\bar{x}_\oplus / (1-\xi)\right) \cdot f(\bar{x}_\ominus)$ and
 $f(\bar{x}_\oplus) \cdot f\left(\bar{x}_\ominus / (1-\xi)\right)$.
 
 The [[n_emitters]] optional argument is provided by the caller if this term
 requires spin-correlated matrix elements, and thus involves additional
 subtractions.
 <<Process config: process term: TBP>>=
   procedure :: setup_interaction => process_term_setup_interaction
 <<Process config: sub interfaces>>=
     module subroutine process_term_setup_interaction (term, core, model, &
        nlo_type, pol_beams, has_pdfs, use_internal_color, n_emitters)
       class(process_term_t), intent(inout) :: term
       class(prc_core_t), intent(inout) :: core
       class(model_data_t), intent(in), target :: model
       logical, intent(in), optional :: pol_beams
       logical, intent(in), optional :: has_pdfs
       integer, intent(in), optional :: nlo_type
       logical, intent(in), optional :: use_internal_color
       integer, intent(in), optional :: n_emitters
     end subroutine process_term_setup_interaction
 <<Process config: procedures>>=
   module subroutine process_term_setup_interaction (term, core, model, &
      nlo_type, pol_beams, has_pdfs, use_internal_color, n_emitters)
     class(process_term_t), intent(inout) :: term
     class(prc_core_t), intent(inout) :: core
     class(model_data_t), intent(in), target :: model
     logical, intent(in), optional :: pol_beams
     logical, intent(in), optional :: has_pdfs
     integer, intent(in), optional :: nlo_type
     logical, intent(in), optional :: use_internal_color
     integer, intent(in), optional :: n_emitters
     integer :: n, n_tot
     type(flavor_t), dimension(:), allocatable :: flv
     type(color_t), dimension(:), allocatable :: col
     type(helicity_t), dimension(:), allocatable :: hel
     type(quantum_numbers_t), dimension(:), allocatable :: qn
     logical :: is_pol, use_color
     integer :: nlo_t, n_sub
     is_pol = .false.; if (present (pol_beams)) is_pol = pol_beams
     nlo_t = BORN; if (present (nlo_type)) nlo_t = nlo_type
     n_tot = term%data%n_in + term%data%n_out
     call count_number_of_states ()
     term%n_allowed = n
     call compute_n_sub (n_emitters, has_pdfs)
     call fill_quantum_numbers ()
     call term%int%basic_init &
          (term%data%n_in, 0, term%data%n_out, set_relations = .true.)
     select type (core)
     class is (prc_blha_t)
        call setup_states_blha_olp ()
     type is (prc_threshold_t)
        call setup_states_threshold ()
     class is (prc_external_t)
        call setup_states_other_prc_external ()
     class default
        call setup_states_omega ()
     end select
     call term%int%freeze ()
   contains
     subroutine count_number_of_states ()
       integer :: f, h, c
       n = 0
       select type (core)
       class is (prc_external_t)
          do f = 1, term%data%n_flv
             do h = 1, term%data%n_hel
                do c = 1, term%data%n_col
                   n = n + 1
                end do
             end do
          end do
       class default !!! Omega and all test cores
          do f = 1, term%data%n_flv
             do h = 1, term%data%n_hel
                do c = 1, term%data%n_col
                   if (core%is_allowed (term%i_term, f, h, c))  n = n + 1
                end do
             end do
          end do
       end select
     end subroutine count_number_of_states
 
     subroutine compute_n_sub (n_emitters, has_pdfs)
       integer, intent(in), optional :: n_emitters
       logical, intent(in), optional :: has_pdfs
       logical :: can_have_sub
       integer :: n_sub_color, n_sub_spin
       use_color = .false.; if (present (use_internal_color)) &
            use_color = use_internal_color
       can_have_sub = nlo_t == NLO_VIRTUAL .or. &
            (nlo_t == NLO_REAL .and. term%i_term_global == term%i_sub) .or. &
            nlo_t == NLO_MISMATCH .or. nlo_t == NLO_DGLAP
       n_sub_color = 0; n_sub_spin = 0
       if (can_have_sub) then
          if (.not. use_color) n_sub_color = n_tot * (n_tot - 1) / 2
          if (nlo_t == NLO_REAL) then
             if (present (n_emitters)) then
                n_sub_spin = 6 * n_emitters
             end if
          end if
       end if
       n_sub = n_sub_color + n_sub_spin
       !!! For the virtual subtraction we also need the finite virtual contribution
       !!! corresponding to the $\epsilon^0$-pole
       if (nlo_t == NLO_VIRTUAL)  n_sub = n_sub + 1
       if (present (has_pdfs)) then
          if (has_pdfs &
               .and. ((nlo_t == NLO_REAL .and. can_have_sub) &
               .or. nlo_t == NLO_DGLAP)) then
             !!! necessary dummy, needs refactoring,
             !!! c.f. [[term_instance_evaluate_interaction_external_tree]]
             n_sub = n_sub + n_beams_rescaled
          end if
       end if
       term%n_sub = n_sub
       term%n_sub_color = n_sub_color
       term%n_sub_spin = n_sub_spin
     end subroutine compute_n_sub
 
     subroutine fill_quantum_numbers ()
       integer :: nn
       logical :: can_have_sub
       select type (core)
       class is (prc_external_t)
          can_have_sub = nlo_t == NLO_VIRTUAL .or. &
               (nlo_t == NLO_REAL .and. term%i_term_global == term%i_sub) .or. &
               nlo_t == NLO_MISMATCH .or. nlo_t == NLO_DGLAP
          if (can_have_sub) then
             nn = (n_sub + 1) * n
          else
             nn = n
          end if
       class default
          nn = n
       end select
       allocate (term%flv (nn), term%col (nn), term%hel (nn))
       allocate (flv (n_tot), col (n_tot), hel (n_tot))
       allocate (qn (n_tot))
     end subroutine fill_quantum_numbers
 
     subroutine setup_states_blha_olp ()
       integer :: s, f, c, h, i
       i = 0
       associate (data => term%data)
          do s = 0, n_sub
              do f = 1, data%n_flv
                 do h = 1, data%n_hel
                    do c = 1, data%n_col
                       i = i + 1
                       term%flv(i) = f
                       term%hel(i) = h
                       !!! Dummy-initialization of color
                       term%col(i) = c
                       call flv%init (data%flv_state (:,f), model)
                       call color_init_from_array (col, &
                            data%col_state(:,:,c), data%ghost_flag(:,c))
                       call col(1:data%n_in)%invert ()
                       if (is_pol) then
                          select type (core)
                          type is (prc_openloops_t)
                             call hel%init (data%hel_state (:,h))
                             call qn%init (flv, hel, col, s)
                          class default
                             call msg_fatal ("Polarized beams only supported by OpenLoops")
                          end select
                       else
                          call qn%init (flv, col, s)
                       end if
                       call qn%tag_hard_process ()
                       call term%int%add_state (qn)
                   end do
                end do
              end do
          end do
       end associate
     end subroutine setup_states_blha_olp
 
     subroutine setup_states_threshold ()
       integer :: s, f, c, h, i
       i = 0
       n_sub = 0; if (nlo_t == NLO_VIRTUAL) n_sub = 1
       associate (data => term%data)
          do s = 0, n_sub
             do f = 1, term%data%n_flv
                do h = 1, data%n_hel
                   do c = 1, data%n_col
                      i = i + 1
                      term%flv(i) = f
                      term%hel(i) = h
                      !!! Dummy-initialization of color
                      term%col(i) = 1
                      call flv%init (term%data%flv_state (:,f), model)
                      if (is_pol) then
                         call hel%init (data%hel_state (:,h))
                         call qn%init (flv, hel, s)
                      else
                         call qn%init (flv, s)
                      end if
                      call qn%tag_hard_process ()
                      call term%int%add_state (qn)
                   end do
                end do
             end do
          end do
       end associate
     end subroutine setup_states_threshold
 
     subroutine setup_states_other_prc_external ()
       integer :: s, f, i, c, h
       if (is_pol) &
          call msg_fatal ("Polarized beams only supported by OpenLoops")
       i = 0
       !!! n_sub = 0; if (nlo_t == NLO_VIRTUAL) n_sub = 1
       associate (data => term%data)
         do s = 0, n_sub
            do f = 1, data%n_flv
               do h = 1, data%n_hel
                  do c = 1, data%n_col
                     i = i + 1
                     term%flv(i) = f
                     term%hel(i) = h
                     !!! Dummy-initialization of color
                     term%col(i) = c
                     call flv%init (data%flv_state (:,f), model)
                     call color_init_from_array (col, &
                          data%col_state(:,:,c), data%ghost_flag(:,c))
                     call col(1:data%n_in)%invert ()
                     call qn%init (flv, col, s)
                     call qn%tag_hard_process ()
                     call term%int%add_state (qn)
                  end do
               end do
            end do
         end do
       end associate
     end subroutine setup_states_other_prc_external
 
     subroutine setup_states_omega ()
       integer :: f, h, c, i
       i = 0
       associate (data => term%data)
          do f = 1, data%n_flv
             do h = 1, data%n_hel
               do c = 1, data%n_col
                  if (core%is_allowed (term%i_term, f, h, c)) then
                     i = i + 1
                     term%flv(i) = f
                     term%hel(i) = h
                     term%col(i) = c
                     call flv%init (data%flv_state(:,f), model)
                     call color_init_from_array (col, &
                          data%col_state(:,:,c), &
                          data%ghost_flag(:,c))
                     call col(:data%n_in)%invert ()
                     call hel%init (data%hel_state(:,h))
                     call qn%init (flv, col, hel)
                     call qn%tag_hard_process ()
                     call term%int%add_state (qn)
                  end if
               end do
             end do
          end do
       end associate
     end subroutine setup_states_omega
 
   end subroutine process_term_setup_interaction
 
 @ %def process_term_setup_interaction
 @
 <<Process config: process term: TBP>>=
   procedure :: get_process_constants => process_term_get_process_constants
 <<Process config: sub interfaces>>=
     module subroutine process_term_get_process_constants &
          (term, prc_constants)
       class(process_term_t), intent(inout) :: term
       type(process_constants_t), intent(out) :: prc_constants
     end subroutine process_term_get_process_constants
 <<Process config: procedures>>=
   module subroutine process_term_get_process_constants &
        (term, prc_constants)
     class(process_term_t), intent(inout) :: term
     type(process_constants_t), intent(out) :: prc_constants
     prc_constants = term%data
   end subroutine process_term_get_process_constants
 
 @ %def process_term_get_process_constants
 @
 %%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
 \section{Process call statistics}
 Very simple object for statistics.  Could be moved to a more basic chapter.
 <<[[process_counter.f90]]>>=
 <<File header>>
 
 module process_counter
 
 <<Standard module head>>
 
 <<Process counter: public>>
 
 <<Process counter: parameters>>
 
 <<Process counter: types>>
 
   interface
 <<Process counter: sub interfaces>>
   end interface
 
 end module process_counter
 @ %def process_counter
 @ This object can record process calls, categorized by evaluation
 status.  It is a part of the [[mci_entry]] component below.
 <<Process counter: public>>=
   public :: process_counter_t
 <<Process counter: types>>=
   type :: process_counter_t
      integer :: total = 0
      integer :: failed_kinematics = 0
      integer :: failed_cuts = 0
      integer :: has_passed = 0
      integer :: evaluated = 0
      integer :: complete = 0
    contains
    <<Process counter: process counter: TBP>>
   end type process_counter_t
 
 @ %def process_counter_t
 @ Here are the corresponding numeric codes:
 <<Process counter: parameters>>=
   integer, parameter, public :: STAT_UNDEFINED = 0
   integer, parameter, public :: STAT_INITIAL = 1
   integer, parameter, public :: STAT_ACTIVATED = 2
   integer, parameter, public :: STAT_BEAM_MOMENTA = 3
   integer, parameter, public :: STAT_FAILED_KINEMATICS = 4
   integer, parameter, public :: STAT_SEED_KINEMATICS = 5
   integer, parameter, public :: STAT_HARD_KINEMATICS = 6
   integer, parameter, public :: STAT_EFF_KINEMATICS = 7
   integer, parameter, public :: STAT_FAILED_CUTS = 8
   integer, parameter, public :: STAT_PASSED_CUTS = 9
   integer, parameter, public :: STAT_EVALUATED_TRACE = 10
   integer, parameter, public :: STAT_EVENT_COMPLETE = 11
 
 @ %def STAT_UNDEFINED STAT_INITIAL STAT_ACTIVATED
 @ %def STAT_BEAM_MOMENTA STAT_FAILED_KINEMATICS
 @ %def STAT_SEED_KINEMATICS STAT_HARD_KINEMATICS STAT_EFF_KINEMATICS
 @ %def STAT_EVALUATED_TRACE STAT_EVENT_COMPLETE
 @ Output.
 <<Process counter: process counter: TBP>>=
   procedure :: write => process_counter_write
 <<Process counter: sub interfaces>>=
     module subroutine process_counter_write (object, unit)
       class(process_counter_t), intent(in) :: object
       integer, intent(in), optional :: unit
     end subroutine process_counter_write
 <<Process counter: procedures>>=
   module subroutine process_counter_write (object, unit)
     class(process_counter_t), intent(in) :: object
     integer, intent(in), optional :: unit
     integer :: u
     u = given_output_unit (unit)
     if (object%total > 0) then
        write (u, "(1x,A)")  "Call statistics (current run):"
        write (u, "(3x,A,I0)")  "total       = ", object%total
        write (u, "(3x,A,I0)")  "failed kin. = ", object%failed_kinematics
        write (u, "(3x,A,I0)")  "failed cuts = ", object%failed_cuts
        write (u, "(3x,A,I0)")  "passed cuts = ", object%has_passed
        write (u, "(3x,A,I0)")  "evaluated   = ", object%evaluated
     else
        write (u, "(1x,A)")  "Call statistics (current run): [no calls]"
     end if
   end subroutine process_counter_write
 
 @ %def process_counter_write
 @
 <<[[process_counter_sub.f90]]>>=
 <<File header>>
 
 submodule (process_counter) process_counter_s
 
   use io_units
 
   implicit none
 
 contains
 
 <<Process counter: procedures>>
 
 end submodule process_counter_s
 
 @ %def process_counter_s
 @ Reset.  Just enforce default initialization.
 <<Process counter: process counter: TBP>>=
   procedure :: reset => process_counter_reset
 <<Process counter: sub interfaces>>=
     module subroutine process_counter_reset (counter)
       class(process_counter_t), intent(out) :: counter
     end subroutine process_counter_reset
 <<Process counter: procedures>>=
   module subroutine process_counter_reset (counter)
     class(process_counter_t), intent(out) :: counter
     counter%total = 0
     counter%failed_kinematics = 0
     counter%failed_cuts = 0
     counter%has_passed = 0
     counter%evaluated = 0
     counter%complete = 0
   end subroutine process_counter_reset
 
 @ %def process_counter_reset
 @ We record an event according to the lowest status code greater or
 equal to the actual status.  This is actually done by the process
 instance; the process object just copies the instance counter.
 <<Process counter: process counter: TBP>>=
   procedure :: record => process_counter_record
 <<Process counter: sub interfaces>>=
     module subroutine process_counter_record (counter, status)
       class(process_counter_t), intent(inout) :: counter
       integer, intent(in) :: status
     end subroutine process_counter_record
 <<Process counter: procedures>>=
   module subroutine process_counter_record (counter, status)
     class(process_counter_t), intent(inout) :: counter
     integer, intent(in) :: status
     if (status <= STAT_FAILED_KINEMATICS) then
        counter%failed_kinematics = counter%failed_kinematics + 1
     else if (status <= STAT_FAILED_CUTS) then
        counter%failed_cuts = counter%failed_cuts + 1
     else if (status <= STAT_PASSED_CUTS) then
        counter%has_passed = counter%has_passed + 1
     else
        counter%evaluated = counter%evaluated + 1
     end if
     counter%total = counter%total + 1
   end subroutine process_counter_record
 
 @ %def process_counter_record
 @
 %%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
 \section{Multi-channel integration}
 <<[[process_mci.f90]]>>=
 <<File header>>
 
 module process_mci
 
 <<Use kinds>>
 <<Use strings>>
   use cputime
   use rng_base
   use mci_base
   use variables
   use integration_results
   use process_libraries
   use phs_base
   use process_counter
   use process_config
 
 <<Standard module head>>
 
 <<Process mci: public>>
 
 <<Process mci: parameters>>
 
 <<Process mci: types>>
 
   interface
 <<Process mci: sub interfaces>>
   end interface
 
 end module process_mci
 @ %def process_mci
 @
 <<[[process_mci_sub.f90]]>>=
 <<File header>>
 
 submodule (process_mci) process_mci_s
 
 <<Use debug>>
   use io_units
   use diagnostics
   use physics_defs
   use md5
 
   implicit none
 
 contains
 
 <<Process mci: procedures>>
 
 end submodule process_mci_s
 
 @ %def process_mci_s
 \subsection{Process MCI entry}
 The [[process_mci_entry_t]] block contains, for each process component that is
 integrated independently, the configuration data for its MC input parameters.
 Each input parameter set is handled by a [[mci_t]] integrator.
 
 The MC input parameter set is broken down into the parameters required by the
 structure-function chain and the parameters required by the phase space of the
 elementary process.
 
 The MD5 sum collects all information about the associated processes
 that may affect the integration.  It does not contain the MCI object
 itself or integration results.
 
 MC integration is organized in passes.  Each pass may consist of
 several iterations, and for each iteration there is a number of
 calls.  We store explicitly the values that apply to the current
 pass.  Previous values are archived in the [[results]] object.
 
 The [[counter]] receives the counter statistics from the associated
 process instance, for diagnostics.
 
 The [[results]] object records results, broken down in passes and iterations.
 <<Process mci: public>>=
   public :: process_mci_entry_t
 <<Process mci: types>>=
   type :: process_mci_entry_t
      integer :: i_mci = 0
      integer, dimension(:), allocatable :: i_component
      integer :: process_type = PRC_UNKNOWN
      integer :: n_par = 0
      integer :: n_par_sf = 0
      integer :: n_par_phs = 0
      character(32) :: md5sum = ""
      integer :: pass = 0
      integer :: n_it = 0
      integer :: n_calls = 0
      logical :: activate_timer = .false.
      real(default) :: error_threshold = 0
      class(mci_t), allocatable :: mci
      type(process_counter_t) :: counter
      type(integration_results_t) :: results
      logical :: negative_weights = .false.
      logical :: combined_integration = .false.
      integer :: real_partition_type = REAL_FULL
    contains
    <<Process mci: process mci entry: TBP>>
   end type process_mci_entry_t
 
 @ %def process_mci_entry_t
 @ Finalizer for the [[mci]] component.
 <<Process mci: process mci entry: TBP>>=
   procedure :: final => process_mci_entry_final
 <<Process mci: sub interfaces>>=
     module subroutine process_mci_entry_final (object)
       class(process_mci_entry_t), intent(inout) :: object
     end subroutine process_mci_entry_final
 <<Process mci: procedures>>=
   module subroutine process_mci_entry_final (object)
     class(process_mci_entry_t), intent(inout) :: object
     if (allocated (object%mci))  call object%mci%final ()
   end subroutine process_mci_entry_final
 
 @ %def process_mci_entry_final
 @ Output.  Write pass/iteration information only if set (the pass
 index is nonzero).  Write the MCI block only if it exists (for some
 self-tests it does not).  Write results only if there are any.
 <<Process mci: process mci entry: TBP>>=
   procedure :: write => process_mci_entry_write
 <<Process mci: sub interfaces>>=
     module subroutine process_mci_entry_write (object, unit, pacify)
       class(process_mci_entry_t), intent(in) :: object
       integer, intent(in), optional :: unit
       logical, intent(in), optional :: pacify
     end subroutine process_mci_entry_write
 <<Process mci: procedures>>=
   module subroutine process_mci_entry_write (object, unit, pacify)
     class(process_mci_entry_t), intent(in) :: object
     integer, intent(in), optional :: unit
     logical, intent(in), optional :: pacify
     integer :: u
     u = given_output_unit (unit)
     write (u, "(3x,A,I0)")  "Associated components = ", object%i_component
     write (u, "(3x,A,I0)")  "MC input parameters   = ", object%n_par
     write (u, "(3x,A,I0)")  "MC parameters (SF)    = ", object%n_par_sf
     write (u, "(3x,A,I0)")  "MC parameters (PHS)   = ", object%n_par_phs
     if (object%pass > 0) then
        write (u, "(3x,A,I0)")  "Current pass          = ", object%pass
        write (u, "(3x,A,I0)")  "Number of iterations  = ", object%n_it
        write (u, "(3x,A,I0)")  "Number of calls       = ", object%n_calls
     end if
     if (object%md5sum /= "") then
        write (u, "(3x,A,A,A)") "MD5 sum (components)  = '", object%md5sum, "'"
     end if
     if (allocated (object%mci)) then
        call object%mci%write (u)
     end if
     call object%counter%write (u)
     if (object%results%exist ()) then
        call object%results%write (u, suppress = pacify)
        call object%results%write_chain_weights (u)
     end if
   end subroutine process_mci_entry_write
 
 @ %def process_mci_entry_write
 @ Configure the MCI entry.  This is intent(inout) since some specific settings
 may be done before this.  The actual [[mci_t]] object is an instance of the
 [[mci_template]] argument, which determines the concrete types.
 
 In a unit-test context, the [[mci_template]] argument may be unallocated.
 
 We obtain the number of channels and the number of parameters separately for
 the structure-function chain and for the associated process component.  We
 assume that the phase-space object has already been configured.
 
 We assume that there is only one process component directly associated with an
 MCI entry.
 <<Process mci: process mci entry: TBP>>=
   procedure :: configure => process_mci_entry_configure
 <<Process mci: sub interfaces>>=
     module subroutine process_mci_entry_configure (mci_entry, mci_template, &
          process_type, i_mci, i_component, component, &
          n_sfpar, rng_factory)
       class(process_mci_entry_t), intent(inout) :: mci_entry
       class(mci_t), intent(in), allocatable :: mci_template
       integer, intent(in) :: process_type
       integer, intent(in) :: i_mci
       integer, intent(in) :: i_component
       type(process_component_t), intent(in), target :: component
       integer, intent(in) :: n_sfpar
       class(rng_factory_t), intent(inout) :: rng_factory
     end subroutine process_mci_entry_configure
 <<Process mci: procedures>>=
   module subroutine process_mci_entry_configure (mci_entry, mci_template, &
        process_type, i_mci, i_component, component, &
        n_sfpar, rng_factory)
     class(process_mci_entry_t), intent(inout) :: mci_entry
     class(mci_t), intent(in), allocatable :: mci_template
     integer, intent(in) :: process_type
     integer, intent(in) :: i_mci
     integer, intent(in) :: i_component
     type(process_component_t), intent(in), target :: component
     integer, intent(in) :: n_sfpar
     class(rng_factory_t), intent(inout) :: rng_factory
     class(rng_t), allocatable :: rng
     associate (phs_config => component%phs_config)
       mci_entry%i_mci = i_mci
       call mci_entry%create_component_list (i_component, component%get_config ())
       mci_entry%n_par_sf = n_sfpar
       mci_entry%n_par_phs = phs_config%get_n_par ()
       mci_entry%n_par = mci_entry%n_par_sf + mci_entry%n_par_phs
       mci_entry%process_type = process_type
       if (allocated (mci_template)) then
          allocate (mci_entry%mci, source = mci_template)
          call mci_entry%mci%record_index (mci_entry%i_mci)
          call mci_entry%mci%set_dimensions &
               (mci_entry%n_par, phs_config%get_n_channel ())
          call mci_entry%mci%declare_flat_dimensions &
               (phs_config%get_flat_dimensions ())
          if (phs_config%provides_equivalences) then
             call mci_entry%mci%declare_equivalences &
                  (phs_config%channel, mci_entry%n_par_sf)
          end if
          if (phs_config%provides_chains) then
             call mci_entry%mci%declare_chains (phs_config%chain)
          end if
          call rng_factory%make (rng)
          call mci_entry%mci%import_rng (rng)
       end if
       call mci_entry%results%init (process_type)
     end associate
   end subroutine process_mci_entry_configure
 
 @ %def process_mci_entry_configure
 @
 <<Process mci: parameters>>=
   integer, parameter, public :: REAL_FULL = 0
   integer, parameter, public :: REAL_SINGULAR = 1
   integer, parameter, public :: REAL_FINITE = 2
 @
 <<Process mci: process mci entry: TBP>>=
   procedure :: create_component_list => &
      process_mci_entry_create_component_list
 <<Process mci: sub interfaces>>=
     module subroutine process_mci_entry_create_component_list (mci_entry, &
        i_component, component_config)
       class (process_mci_entry_t), intent(inout) :: mci_entry
       integer, intent(in) :: i_component
       type(process_component_def_t), intent(in) :: component_config
     end subroutine process_mci_entry_create_component_list
 <<Process mci: procedures>>=
   module subroutine process_mci_entry_create_component_list (mci_entry, &
      i_component, component_config)
     class (process_mci_entry_t), intent(inout) :: mci_entry
     integer, intent(in) :: i_component
     type(process_component_def_t), intent(in) :: component_config
     integer, dimension(:), allocatable :: i_list
     integer :: n
     integer, save :: i_rfin_offset = 0
     if (debug_on)  call msg_debug &
          (D_PROCESS_INTEGRATION, "process_mci_entry_create_component_list")
     if (mci_entry%combined_integration) then
        if (debug_on) call msg_debug (D_PROCESS_INTEGRATION, &
             "mci_entry%real_partition_type", mci_entry%real_partition_type)
        n = get_n_components (mci_entry%real_partition_type)
        allocate (i_list (n))
        select case (mci_entry%real_partition_type)
        case (REAL_FULL)
           i_list = component_config%get_association_list ()
           allocate (mci_entry%i_component (size (i_list)))
           mci_entry%i_component = i_list
        case (REAL_SINGULAR)
           i_list = component_config%get_association_list (ASSOCIATED_REAL_FIN)
           allocate (mci_entry%i_component (size(i_list)))
           mci_entry%i_component = i_list
        case (REAL_FINITE)
           allocate (mci_entry%i_component (1))
           mci_entry%i_component(1) = &
                component_config%get_associated_real_fin () + i_rfin_offset
           i_rfin_offset = i_rfin_offset + 1
        end select
     else
        allocate (mci_entry%i_component (1))
        mci_entry%i_component(1) = i_component
     end if
   contains
     function get_n_components (real_partition_type) result (n_components)
       integer :: n_components
       integer, intent(in) :: real_partition_type
       select case (real_partition_type)
       case (REAL_FULL)
          n_components = size (component_config%get_association_list ())
       case (REAL_SINGULAR)
          n_components = size (component_config%get_association_list &
             (ASSOCIATED_REAL_FIN))
       end select
       if (debug_on)  call msg_debug &
            (D_PROCESS_INTEGRATION, "n_components", n_components)
     end function get_n_components
   end subroutine process_mci_entry_create_component_list
 
 @ %def process_mci_entry_create_component_list
 @ Set some additional parameters.
 <<Process mci: process mci entry: TBP>>=
   procedure :: set_parameters => process_mci_entry_set_parameters
 <<Process mci: sub interfaces>>=
     module subroutine process_mci_entry_set_parameters (mci_entry, var_list)
       class(process_mci_entry_t), intent(inout) :: mci_entry
       type(var_list_t), intent(in) :: var_list
     end subroutine process_mci_entry_set_parameters
 <<Process mci: procedures>>=
   module subroutine process_mci_entry_set_parameters (mci_entry, var_list)
     class(process_mci_entry_t), intent(inout) :: mci_entry
     type(var_list_t), intent(in) :: var_list
     integer :: integration_results_verbosity
     real(default) :: error_threshold
     integration_results_verbosity = &
          var_list%get_ival (var_str ("integration_results_verbosity"))
     error_threshold = &
          var_list%get_rval (var_str ("error_threshold"))
     mci_entry%activate_timer = &
          var_list%get_lval (var_str ("?integration_timer"))
     call mci_entry%results%set_verbosity (integration_results_verbosity)
     call mci_entry%results%set_error_threshold (error_threshold)
   end subroutine process_mci_entry_set_parameters
 
 @ %def process_mci_entry_set_parameters
 @ Compute an MD5 sum that summarizes all information that could
 influence integration results, for the associated process components.
 We take the process-configuration MD5 sum which represents parameters,
 cuts, etc., the MD5 sums for the process component definitions and
 their phase space objects (which should be configured), and the beam
 configuration MD5 sum.  (The QCD setup is included in the process
 configuration data MD5 sum.)
 
 Done only once, when the MD5 sum is still empty.
 <<Process mci: process mci entry: TBP>>=
   procedure :: compute_md5sum => process_mci_entry_compute_md5sum
 <<Process mci: sub interfaces>>=
     module subroutine process_mci_entry_compute_md5sum (mci_entry, &
          config, component, beam_config)
       class(process_mci_entry_t), intent(inout) :: mci_entry
       type(process_config_data_t), intent(in) :: config
       type(process_component_t), dimension(:), intent(in) :: component
       type(process_beam_config_t), intent(in) :: beam_config
     end subroutine process_mci_entry_compute_md5sum
 <<Process mci: procedures>>=
   module subroutine process_mci_entry_compute_md5sum (mci_entry, &
        config, component, beam_config)
     class(process_mci_entry_t), intent(inout) :: mci_entry
     type(process_config_data_t), intent(in) :: config
     type(process_component_t), dimension(:), intent(in) :: component
     type(process_beam_config_t), intent(in) :: beam_config
     type(string_t) :: buffer
     integer :: i
     if (mci_entry%md5sum == "") then
        buffer = config%get_md5sum () // beam_config%get_md5sum ()
        do i = 1, size (component)
           if (component(i)%is_active ()) then
              buffer = buffer // component(i)%get_md5sum ()
           end if
        end do
        mci_entry%md5sum = md5sum (char (buffer))
     end if
     if (allocated (mci_entry%mci)) then
        call mci_entry%mci%set_md5sum (mci_entry%md5sum)
     end if
   end subroutine process_mci_entry_compute_md5sum
 
 @ %def process_mci_entry_compute_md5sum
 @ Test the MCI sampler by calling it a given number of time, discarding the
 results.  The instance should be initialized.
 
 The [[mci_entry]] is [[intent(inout)]] because the integrator contains
 the random-number state.
 <<Process mci: process mci entry: TBP>>=
   procedure :: sampler_test => process_mci_entry_sampler_test
 <<Process mci: sub interfaces>>=
     module subroutine process_mci_entry_sampler_test &
          (mci_entry, mci_sampler, n_calls)
       class(process_mci_entry_t), intent(inout) :: mci_entry
       class(mci_sampler_t), intent(inout), target :: mci_sampler
       integer, intent(in) :: n_calls
     end subroutine process_mci_entry_sampler_test
 <<Process mci: procedures>>=
   module subroutine process_mci_entry_sampler_test &
        (mci_entry, mci_sampler, n_calls)
     class(process_mci_entry_t), intent(inout) :: mci_entry
     class(mci_sampler_t), intent(inout), target :: mci_sampler
     integer, intent(in) :: n_calls
     call mci_entry%mci%sampler_test (mci_sampler, n_calls)
   end subroutine process_mci_entry_sampler_test
 
 @ %def process_mci_entry_sampler_test
 @ Integrate.
 
 The [[integrate]] method counts as an integration pass; the pass count is
 increased by one.  We transfer the pass parameters (number of iterations and
 number of calls) to the actual integration routine.
 
 The [[mci_entry]] is [[intent(inout)]] because the integrator contains
 the random-number state.
 
 Note: The results are written to screen and to logfile.  This behavior
 is hardcoded.
 <<Process mci: process mci entry: TBP>>=
   procedure :: integrate => process_mci_entry_integrate
   procedure :: final_integration => process_mci_entry_final_integration
 <<Process mci: sub interfaces>>=
     module subroutine process_mci_entry_integrate (mci_entry, mci_instance, &
            mci_sampler, n_it, n_calls, &
          adapt_grids, adapt_weights, final, pacify, &
          nlo_type)
       class(process_mci_entry_t), intent(inout) :: mci_entry
       class(mci_instance_t), intent(inout) :: mci_instance
       class(mci_sampler_t), intent(inout) :: mci_sampler
       integer, intent(in) :: n_it
       integer, intent(in) :: n_calls
       logical, intent(in), optional :: adapt_grids
       logical, intent(in), optional :: adapt_weights
       logical, intent(in), optional :: final, pacify
       integer, intent(in), optional :: nlo_type
     end subroutine process_mci_entry_integrate
     module subroutine process_mci_entry_final_integration (mci_entry)
       class(process_mci_entry_t), intent(inout) :: mci_entry
     end subroutine process_mci_entry_final_integration
 <<Process mci: procedures>>=
   module subroutine process_mci_entry_integrate (mci_entry, mci_instance, &
          mci_sampler, n_it, n_calls, &
        adapt_grids, adapt_weights, final, pacify, &
        nlo_type)
     class(process_mci_entry_t), intent(inout) :: mci_entry
     class(mci_instance_t), intent(inout) :: mci_instance
     class(mci_sampler_t), intent(inout) :: mci_sampler
     integer, intent(in) :: n_it
     integer, intent(in) :: n_calls
     logical, intent(in), optional :: adapt_grids
     logical, intent(in), optional :: adapt_weights
     logical, intent(in), optional :: final, pacify
     integer, intent(in), optional :: nlo_type
     integer :: u_log
     u_log = logfile_unit ()
     mci_entry%pass = mci_entry%pass + 1
     mci_entry%n_it = n_it
     mci_entry%n_calls = n_calls
     if (mci_entry%pass == 1)  &
          call mci_entry%mci%startup_message (n_calls = n_calls)
     call mci_entry%mci%set_timer (active = mci_entry%activate_timer)
     call mci_entry%results%display_init (screen = .true., unit = u_log)
     call mci_entry%results%new_pass ()
     if (present (nlo_type)) then
        select case (nlo_type)
        case (NLO_VIRTUAL, NLO_REAL, NLO_MISMATCH, NLO_DGLAP)
           mci_instance%negative_weights = .true.
        end select
     end if
     call mci_entry%mci%add_pass (adapt_grids, adapt_weights, final)
     call mci_entry%mci%start_timer ()
     call mci_entry%mci%integrate (mci_instance, mci_sampler, n_it, &
          n_calls, mci_entry%results, pacify = pacify)
     call mci_entry%mci%stop_timer ()
     if (signal_is_pending ())  return
   end subroutine process_mci_entry_integrate
 
   module subroutine process_mci_entry_final_integration (mci_entry)
     class(process_mci_entry_t), intent(inout) :: mci_entry
     call mci_entry%results%display_final ()
     call mci_entry%time_message ()
   end subroutine process_mci_entry_final_integration
 
 @ %def process_mci_entry_integrate
 @ %def process_mci_entry_final_integration
 @ If appropriate, issue an informative message about the expected time
 for an event sample.
 <<Process mci: process mci entry: TBP>>=
   procedure :: get_time => process_mci_entry_get_time
   procedure :: time_message => process_mci_entry_time_message
 <<Process mci: sub interfaces>>=
     module subroutine process_mci_entry_get_time (mci_entry, time, sample)
       class(process_mci_entry_t), intent(in) :: mci_entry
       type(time_t), intent(out) :: time
       integer, intent(in) :: sample
     end subroutine process_mci_entry_get_time
     module subroutine process_mci_entry_time_message (mci_entry)
       class(process_mci_entry_t), intent(in) :: mci_entry
     end subroutine process_mci_entry_time_message
 <<Process mci: procedures>>=
   module subroutine process_mci_entry_get_time (mci_entry, time, sample)
     class(process_mci_entry_t), intent(in) :: mci_entry
     type(time_t), intent(out) :: time
     integer, intent(in) :: sample
     real(default) :: time_last_pass, efficiency, calls
     time_last_pass = mci_entry%mci%get_time ()
     calls = mci_entry%results%get_n_calls ()
     efficiency = mci_entry%mci%get_efficiency ()
     if (time_last_pass > 0 .and. calls > 0 .and. efficiency > 0) then
        time = nint (time_last_pass / calls / efficiency * sample)
     end if
   end subroutine process_mci_entry_get_time
 
   module subroutine process_mci_entry_time_message (mci_entry)
     class(process_mci_entry_t), intent(in) :: mci_entry
     type(time_t) :: time
     integer :: sample
     sample = 10000
     call mci_entry%get_time (time, sample)
     if (time%is_known ()) then
        call msg_message ("Time estimate for generating 10000 events: " &
             // char (time%to_string_dhms ()))
     end if
   end subroutine process_mci_entry_time_message
 
 @ %def process_mci_entry_time_message
 @ Prepare event generation.  (For the test integrator, this does nothing.  It
 is relevant for the VAMP integrator.)
 <<Process mci: process mci entry: TBP>>=
   procedure :: prepare_simulation => process_mci_entry_prepare_simulation
 <<Process mci: sub interfaces>>=
     module subroutine process_mci_entry_prepare_simulation (mci_entry)
       class(process_mci_entry_t), intent(inout) :: mci_entry
     end subroutine process_mci_entry_prepare_simulation
 <<Process mci: procedures>>=
   module subroutine process_mci_entry_prepare_simulation (mci_entry)
     class(process_mci_entry_t), intent(inout) :: mci_entry
     call mci_entry%mci%prepare_simulation ()
   end subroutine process_mci_entry_prepare_simulation
 
 @ %def process_mci_entry_prepare_simulation
 @ Generate an event.  The instance should be initialized,
 otherwise event generation is directed by the [[mci]] integrator
 subobject.  The integrator instance is contained in a [[mci_work]]
 subobject of the process instance, which simultaneously serves as the
 sampler object.  (We avoid the anti-aliasing rules if we assume that
 the sampling itself does not involve the integrator instance contained in the
 process instance.)
 
 Regarding weighted events, we only take events which are valid, which
 means that they have valid kinematics and have passed cuts.
 Therefore, we have a rejection loop.  For unweighted events, the
 unweighting routine should already take care of this.
 
 The [[keep_failed]] flag determines whether events which failed cuts
 are nevertheless produced, to be recorded with zero weight.
 Alternatively, failed events are dropped, and this fact is recorded by
 the counter [[n_dropped]].
 <<Process mci: process mci entry: TBP>>=
   procedure :: generate_weighted_event => &
        process_mci_entry_generate_weighted_event
   procedure :: generate_unweighted_event => &
        process_mci_entry_generate_unweighted_event
 <<Process mci: sub interfaces>>=
     module subroutine process_mci_entry_generate_weighted_event (mci_entry, &
         mci_instance, mci_sampler, keep_failed)
       class(process_mci_entry_t), intent(inout) :: mci_entry
       class(mci_instance_t), intent(inout) :: mci_instance
       class(mci_sampler_t), intent(inout) :: mci_sampler
       logical, intent(in) :: keep_failed
     end subroutine process_mci_entry_generate_weighted_event
     module subroutine process_mci_entry_generate_unweighted_event &
          (mci_entry, mci_instance, mci_sampler)
       class(process_mci_entry_t), intent(inout) :: mci_entry
       class(mci_instance_t), intent(inout) :: mci_instance
       class(mci_sampler_t), intent(inout) :: mci_sampler
     end subroutine process_mci_entry_generate_unweighted_event
 <<Process mci: procedures>>=
   module subroutine process_mci_entry_generate_weighted_event (mci_entry, &
       mci_instance, mci_sampler, keep_failed)
     class(process_mci_entry_t), intent(inout) :: mci_entry
     class(mci_instance_t), intent(inout) :: mci_instance
     class(mci_sampler_t), intent(inout) :: mci_sampler
     logical, intent(in) :: keep_failed
     logical :: generate_new
     generate_new = .true.
     call mci_instance%reset_n_event_dropped ()
     REJECTION: do while (generate_new)
        call mci_entry%mci%generate_weighted_event (mci_instance, mci_sampler)
        if (signal_is_pending ())  return
        if (.not. mci_sampler%is_valid()) then
           if (keep_failed) then
              generate_new = .false.
           else
              call mci_instance%record_event_dropped ()
              generate_new = .true.
           end if
        else
           generate_new = .false.
        end if
     end do REJECTION
   end subroutine process_mci_entry_generate_weighted_event
 
   module subroutine process_mci_entry_generate_unweighted_event &
        (mci_entry, mci_instance, mci_sampler)
     class(process_mci_entry_t), intent(inout) :: mci_entry
     class(mci_instance_t), intent(inout) :: mci_instance
     class(mci_sampler_t), intent(inout) :: mci_sampler
     call mci_entry%mci%generate_unweighted_event (mci_instance, mci_sampler)
   end subroutine process_mci_entry_generate_unweighted_event
 
 @ %def process_mci_entry_generate_weighted_event
 @ %def process_mci_entry_generate_unweighted_event
 @ Extract results.
 <<Process mci: process mci entry: TBP>>=
   procedure :: has_integral => process_mci_entry_has_integral
   procedure :: get_integral => process_mci_entry_get_integral
   procedure :: get_error => process_mci_entry_get_error
   procedure :: get_accuracy => process_mci_entry_get_accuracy
   procedure :: get_chi2 => process_mci_entry_get_chi2
   procedure :: get_efficiency => process_mci_entry_get_efficiency
 <<Process mci: sub interfaces>>=
     module function process_mci_entry_has_integral (mci_entry) result (flag)
       class(process_mci_entry_t), intent(in) :: mci_entry
       logical :: flag
     end function process_mci_entry_has_integral
     module function process_mci_entry_get_integral (mci_entry) result (integral)
       class(process_mci_entry_t), intent(in) :: mci_entry
       real(default) :: integral
     end function process_mci_entry_get_integral
     module function process_mci_entry_get_error (mci_entry) result (error)
       class(process_mci_entry_t), intent(in) :: mci_entry
       real(default) :: error
     end function process_mci_entry_get_error
     module function process_mci_entry_get_accuracy (mci_entry) result (accuracy)
       class(process_mci_entry_t), intent(in) :: mci_entry
       real(default) :: accuracy
     end function process_mci_entry_get_accuracy
     module function process_mci_entry_get_chi2 (mci_entry) result (chi2)
       class(process_mci_entry_t), intent(in) :: mci_entry
       real(default) :: chi2
     end function process_mci_entry_get_chi2
     module function process_mci_entry_get_efficiency &
          (mci_entry) result (efficiency)
       class(process_mci_entry_t), intent(in) :: mci_entry
       real(default) :: efficiency
     end function process_mci_entry_get_efficiency
 <<Process mci: procedures>>=
   module function process_mci_entry_has_integral (mci_entry) result (flag)
     class(process_mci_entry_t), intent(in) :: mci_entry
     logical :: flag
     flag = mci_entry%results%exist ()
   end function process_mci_entry_has_integral
 
   module function process_mci_entry_get_integral (mci_entry) result (integral)
     class(process_mci_entry_t), intent(in) :: mci_entry
     real(default) :: integral
     integral = mci_entry%results%get_integral ()
   end function process_mci_entry_get_integral
 
   module function process_mci_entry_get_error (mci_entry) result (error)
     class(process_mci_entry_t), intent(in) :: mci_entry
     real(default) :: error
     error = mci_entry%results%get_error ()
   end function process_mci_entry_get_error
 
   module function process_mci_entry_get_accuracy (mci_entry) result (accuracy)
     class(process_mci_entry_t), intent(in) :: mci_entry
     real(default) :: accuracy
     accuracy = mci_entry%results%get_accuracy ()
   end function process_mci_entry_get_accuracy
 
   module function process_mci_entry_get_chi2 (mci_entry) result (chi2)
     class(process_mci_entry_t), intent(in) :: mci_entry
     real(default) :: chi2
     chi2 = mci_entry%results%get_chi2 ()
   end function process_mci_entry_get_chi2
 
   module function process_mci_entry_get_efficiency &
        (mci_entry) result (efficiency)
     class(process_mci_entry_t), intent(in) :: mci_entry
     real(default) :: efficiency
     efficiency = mci_entry%results%get_efficiency ()
   end function process_mci_entry_get_efficiency
 
 @ %def process_mci_entry_get_integral process_mci_entry_get_error
 @ %def process_mci_entry_get_accuracy process_mci_entry_get_chi2
 @ %def process_mci_entry_get_efficiency
 @ Return the MCI checksum.  This may be the one used for
 configuration, but may also incorporate results, if they change the
 state of the integrator (adaptation).
 <<Process mci: process mci entry: TBP>>=
   procedure :: get_md5sum => process_mci_entry_get_md5sum
 <<Process mci: sub interfaces>>=
     pure module function process_mci_entry_get_md5sum (entry) result (md5sum)
       class(process_mci_entry_t), intent(in) :: entry
       character(32) :: md5sum
     end function process_mci_entry_get_md5sum
 <<Process mci: procedures>>=
   pure module function process_mci_entry_get_md5sum (entry) result (md5sum)
     class(process_mci_entry_t), intent(in) :: entry
     character(32) :: md5sum
     md5sum = entry%mci%get_md5sum ()
   end function process_mci_entry_get_md5sum
 
 @ %def process_mci_entry_get_md5sum
 @
 \subsection{MC parameter set and MCI instance}
 For each process component that is associated with a multi-channel integration
 (MCI) object, the [[mci_work_t]] object contains the currently active
 parameter set.  It also holds the implementation of the [[mci_instance_t]]
 that the integrator needs for doing its work.
 <<Process mci: public>>=
   public :: mci_work_t
 <<Process mci: types>>=
   type :: mci_work_t
      type(process_mci_entry_t), pointer :: config => null ()
      real(default), dimension(:), allocatable :: x
      class(mci_instance_t), pointer :: mci => null ()
      type(process_counter_t) :: counter
      logical :: keep_failed_events = .false.
      integer :: n_event_dropped = 0
    contains
    <<Process mci: mci work: TBP>>
   end type mci_work_t
 
 @ %def mci_work_t
 @ First write configuration data, then the current values.
 <<Process mci: mci work: TBP>>=
   procedure :: write => mci_work_write
 <<Process mci: sub interfaces>>=
     module subroutine mci_work_write (mci_work, unit, testflag)
       class(mci_work_t), intent(in) :: mci_work
       integer, intent(in), optional :: unit
       logical, intent(in), optional :: testflag
     end subroutine mci_work_write
 <<Process mci: procedures>>=
   module subroutine mci_work_write (mci_work, unit, testflag)
     class(mci_work_t), intent(in) :: mci_work
     integer, intent(in), optional :: unit
     logical, intent(in), optional :: testflag
     integer :: u, i
     u = given_output_unit (unit)
     write (u, "(1x,A,I0,A)")  "Active MCI instance #", &
          mci_work%config%i_mci, " ="
     write (u, "(2x)", advance="no")
     do i = 1, mci_work%config%n_par
        write (u, "(1x,F7.5)", advance="no")  mci_work%x(i)
        if (i == mci_work%config%n_par_sf) &
             write (u, "(1x,'|')", advance="no")
     end do
     write (u, *)
     if (associated (mci_work%mci)) then
        call mci_work%mci%write (u, pacify = testflag)
        call mci_work%counter%write (u)
     end if
   end subroutine mci_work_write
 
 @ %def mci_work_write
 @ The [[mci]] component may require finalization.
 <<Process mci: mci work: TBP>>=
   procedure :: final => mci_work_final
 <<Process mci: sub interfaces>>=
     module subroutine mci_work_final (mci_work)
       class(mci_work_t), intent(inout) :: mci_work
     end subroutine mci_work_final
 <<Process mci: procedures>>=
   module subroutine mci_work_final (mci_work)
     class(mci_work_t), intent(inout) :: mci_work
     if (associated (mci_work%mci)) then
        call mci_work%mci%final ()
        deallocate (mci_work%mci)
     end if
   end subroutine mci_work_final
 
 @ %def mci_work_final
 @ Initialize with the maximum length that we will need.  Contents are
 not initialized.
 
 The integrator inside the [[mci_entry]] object is responsible for
 allocating and initializing its own instance, which is referred to by
 a pointer in the [[mci_work]] object.
 <<Process mci: mci work: TBP>>=
   procedure :: init => mci_work_init
 <<Process mci: sub interfaces>>=
     module subroutine mci_work_init (mci_work, mci_entry)
       class(mci_work_t), intent(out) :: mci_work
       type(process_mci_entry_t), intent(in), target :: mci_entry
     end subroutine mci_work_init
 <<Process mci: procedures>>=
   module subroutine mci_work_init (mci_work, mci_entry)
     class(mci_work_t), intent(out) :: mci_work
     type(process_mci_entry_t), intent(in), target :: mci_entry
     mci_work%config => mci_entry
     allocate (mci_work%x (mci_entry%n_par))
     if (allocated (mci_entry%mci)) then
        call mci_entry%mci%allocate_instance (mci_work%mci)
        call mci_work%mci%init (mci_entry%mci)
     end if
   end subroutine mci_work_init
 
 @ %def mci_work_init
 @ Set parameters explicitly, either all at once, or separately for the
 structure-function and process parts.
 <<Process mci: mci work: TBP>>=
   procedure :: set => mci_work_set
   procedure :: set_x_strfun => mci_work_set_x_strfun
   procedure :: set_x_process => mci_work_set_x_process
 <<Process mci: sub interfaces>>=
     module subroutine mci_work_set (mci_work, x)
       class(mci_work_t), intent(inout) :: mci_work
       real(default), dimension(:), intent(in) :: x
     end subroutine mci_work_set
     module subroutine mci_work_set_x_strfun (mci_work, x)
       class(mci_work_t), intent(inout) :: mci_work
       real(default), dimension(:), intent(in) :: x
     end subroutine mci_work_set_x_strfun
     module subroutine mci_work_set_x_process (mci_work, x)
       class(mci_work_t), intent(inout) :: mci_work
       real(default), dimension(:), intent(in) :: x
     end subroutine mci_work_set_x_process
 <<Process mci: procedures>>=
   module subroutine mci_work_set (mci_work, x)
     class(mci_work_t), intent(inout) :: mci_work
     real(default), dimension(:), intent(in) :: x
     mci_work%x = x
   end subroutine mci_work_set
 
   module subroutine mci_work_set_x_strfun (mci_work, x)
     class(mci_work_t), intent(inout) :: mci_work
     real(default), dimension(:), intent(in) :: x
     mci_work%x(1 : mci_work%config%n_par_sf) = x
   end subroutine mci_work_set_x_strfun
 
   module subroutine mci_work_set_x_process (mci_work, x)
     class(mci_work_t), intent(inout) :: mci_work
     real(default), dimension(:), intent(in) :: x
     mci_work%x(mci_work%config%n_par_sf + 1 : mci_work%config%n_par) = x
   end subroutine mci_work_set_x_process
 
 @ %def mci_work_set
 @ %def mci_work_set_x_strfun
 @ %def mci_work_set_x_process
 @ Return the array of active components, i.e., those that correspond
 to the currently selected MC parameter set.
 <<Process mci: mci work: TBP>>=
   procedure :: get_active_components => mci_work_get_active_components
 <<Process mci: sub interfaces>>=
     module function mci_work_get_active_components &
          (mci_work) result (i_component)
       class(mci_work_t), intent(in) :: mci_work
       integer, dimension(:), allocatable :: i_component
     end function mci_work_get_active_components
 <<Process mci: procedures>>=
   module function mci_work_get_active_components (mci_work) result (i_component)
     class(mci_work_t), intent(in) :: mci_work
     integer, dimension(:), allocatable :: i_component
     allocate (i_component (size (mci_work%config%i_component)))
     i_component = mci_work%config%i_component
   end function mci_work_get_active_components
 
 @ %def mci_work_get_active_components
 @ Return the active parameters as a simple array with correct length.
 Do this separately for the structure-function parameters and the
 process parameters.
 <<Process mci: mci work: TBP>>=
   procedure :: get_x_strfun => mci_work_get_x_strfun
   procedure :: get_x_process => mci_work_get_x_process
 <<Process mci: sub interfaces>>=
     pure module function mci_work_get_x_strfun (mci_work) result (x)
       class(mci_work_t), intent(in) :: mci_work
       real(default), dimension(mci_work%config%n_par_sf) :: x
     end function mci_work_get_x_strfun
     pure module function mci_work_get_x_process (mci_work) result (x)
       class(mci_work_t), intent(in) :: mci_work
       real(default), dimension(mci_work%config%n_par_phs) :: x
     end function mci_work_get_x_process
 <<Process mci: procedures>>=
   pure module function mci_work_get_x_strfun (mci_work) result (x)
     class(mci_work_t), intent(in) :: mci_work
     real(default), dimension(mci_work%config%n_par_sf) :: x
     x = mci_work%x(1 : mci_work%config%n_par_sf)
   end function mci_work_get_x_strfun
 
   pure module function mci_work_get_x_process (mci_work) result (x)
     class(mci_work_t), intent(in) :: mci_work
     real(default), dimension(mci_work%config%n_par_phs) :: x
     x = mci_work%x(mci_work%config%n_par_sf + 1 : mci_work%config%n_par)
   end function mci_work_get_x_process
 
 @ %def mci_work_get_x_strfun
 @ %def mci_work_get_x_process
 @ Initialize and finalize event generation for the specified MCI
 entry.  This also resets the counter.
 <<Process mci: mci work: TBP>>=
   procedure :: init_simulation => mci_work_init_simulation
   procedure :: final_simulation => mci_work_final_simulation
 <<Process mci: sub interfaces>>=
     module subroutine mci_work_final_simulation (mci_work)
       class(mci_work_t), intent(inout) :: mci_work
     end subroutine mci_work_final_simulation
     module subroutine mci_work_init_simulation &
          (mci_work, safety_factor, keep_failed_events)
       class(mci_work_t), intent(inout) :: mci_work
       real(default), intent(in), optional :: safety_factor
       logical, intent(in), optional :: keep_failed_events
     end subroutine mci_work_init_simulation
 <<Process mci: procedures>>=
   module subroutine mci_work_init_simulation &
        (mci_work, safety_factor, keep_failed_events)
     class(mci_work_t), intent(inout) :: mci_work
     real(default), intent(in), optional :: safety_factor
     logical, intent(in), optional :: keep_failed_events
     call mci_work%mci%init_simulation (safety_factor)
     call mci_work%counter%reset ()
     if (present (keep_failed_events)) &
        mci_work%keep_failed_events = keep_failed_events
   end subroutine mci_work_init_simulation
 
   module subroutine mci_work_final_simulation (mci_work)
     class(mci_work_t), intent(inout) :: mci_work
     call mci_work%mci%final_simulation ()
   end subroutine mci_work_final_simulation
 
 @ %def mci_work_init_simulation
 @ %def mci_work_final_simulation
 @ Counter.
 <<Process mci: mci work: TBP>>=
   procedure :: reset_counter => mci_work_reset_counter
   procedure :: record_call => mci_work_record_call
   procedure :: get_counter => mci_work_get_counter
 <<Process mci: sub interfaces>>=
     module subroutine mci_work_reset_counter (mci_work)
       class(mci_work_t), intent(inout) :: mci_work
     end subroutine mci_work_reset_counter
     module subroutine mci_work_record_call (mci_work, status)
       class(mci_work_t), intent(inout) :: mci_work
       integer, intent(in) :: status
     end subroutine mci_work_record_call
     pure module function mci_work_get_counter (mci_work) result (counter)
       class(mci_work_t), intent(in) :: mci_work
       type(process_counter_t) :: counter
     end function mci_work_get_counter
 <<Process mci: procedures>>=
   module subroutine mci_work_reset_counter (mci_work)
     class(mci_work_t), intent(inout) :: mci_work
     call mci_work%counter%reset ()
   end subroutine mci_work_reset_counter
 
   module subroutine mci_work_record_call (mci_work, status)
     class(mci_work_t), intent(inout) :: mci_work
     integer, intent(in) :: status
     call mci_work%counter%record (status)
   end subroutine mci_work_record_call
 
   pure module function mci_work_get_counter (mci_work) result (counter)
     class(mci_work_t), intent(in) :: mci_work
     type(process_counter_t) :: counter
     counter = mci_work%counter
   end function mci_work_get_counter
 
 @ %def mci_work_reset_counter
 @ %def mci_work_record_call
 @ %def mci_work_get_counter
 @
 %%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
 \section{Process component manager}
 <<[[pcm.f90]]>>=
 <<File header>>
 
 module pcm
 
 <<Use kinds>>
 <<Use strings>>
   use lorentz
   use model_data, only: model_data_t
   use models, only: model_t
   use quantum_numbers, only: quantum_numbers_t, quantum_numbers_mask_t
   use variables, only: var_list_t
   use nlo_data, only: nlo_settings_t
   use nlo_data, only: fks_template_t
   use nlo_data, only: FKS_DEFAULT, FKS_RESONANCES
   use mci_base, only: mci_t
   use phs_base, only: phs_config_t
   use mappings, only: mapping_defaults_t
   use phs_forests, only: phs_parameters_t
   use phs_fks, only: isr_kinematics_t, real_kinematics_t
   use phs_fks, only: phs_identifier_t
   use fks_regions, only: region_data_t
   use phs_fks, only: phs_fks_generator_t
   use phs_fks, only: dalitz_plot_t
   use phs_fks, only: phs_fks_config_t, get_filtered_resonance_histories
   use dispatch_phase_space, only: dispatch_phs
   use real_subtraction, only: real_subtraction_t, soft_mismatch_t
   use real_subtraction, only: FIXED_ORDER_EVENTS, POWHEG
   use real_subtraction, only: real_partition_t, powheg_damping_simple_t
   use real_subtraction, only: real_partition_fixed_order_t
   use virtual, only: virtual_t
   use dglap_remnant, only: dglap_remnant_t
   use blha_config, only: blha_master_t
 
   use pcm_base
   use process_config
   use process_mci, only: process_mci_entry_t
   use process_mci, only: REAL_SINGULAR, REAL_FINITE
 
 <<Standard module head>>
 
 <<PCM: public>>
 
 <<PCM: types>>
 
   interface
 <<PCM: sub interfaces>>
   end interface
 
 contains
 
 <<PCM: main procedures>>
 
 end module pcm
 @ %def pcm
 @
 <<[[pcm_sub.f90]]>>=
 <<File header>>
 
 submodule (pcm) pcm_s
 
 <<Use debug>>
   use constants, only: zero, two
   use diagnostics
   use phs_points, only: assignment(=)
   use io_units, only: free_unit
   use os_interface
   use process_constants, only: process_constants_t
   use physics_defs
   use flavors, only: flavor_t
   use interactions, only: interaction_t
   use dispatch_fks, only: dispatch_fks_setup
   use process_libraries, only: process_component_def_t
   use resonances, only: resonance_history_t, resonance_history_set_t
   use prc_threshold, only: threshold_def_t
   use blha_olp_interfaces, only: prc_blha_t
 
   implicit none
 
 contains
 
 <<PCM: procedures>>
 
 end submodule pcm_s
 
 @ %def pcm_s
 @
 \subsection{Default process component manager}
 This is the configuration object which has the duty of allocating the
 corresponding instance.  The default version is trivial.
 <<PCM: public>>=
   public :: pcm_default_t
 <<PCM: types>>=
   type, extends (pcm_t) :: pcm_default_t
    contains
    <<PCM: pcm default: TBP>>
   end type pcm_default_t
 
 @ %def pcm_default_t
 Gfortran 7/8/9 bug, has to remain in the main module:
 <<PCM: pcm default: TBP>>=
   procedure :: allocate_workspace => pcm_default_allocate_workspace
 <<PCM: main procedures>>=
   subroutine pcm_default_allocate_workspace (pcm, work)
     class(pcm_default_t), intent(in) :: pcm
     class(pcm_workspace_t), intent(inout), allocatable :: work
     allocate (pcm_default_workspace_t :: work)
   end subroutine pcm_default_allocate_workspace
 
 @ %def pcm_default_allocate_workspace
 @
 Finalizer: apply to core manager.
 <<PCM: pcm default: TBP>>=
   procedure :: final => pcm_default_final
 <<PCM: sub interfaces>>=
     module subroutine pcm_default_final (pcm)
       class(pcm_default_t), intent(inout) :: pcm
     end subroutine pcm_default_final
 <<PCM: procedures>>=
   module subroutine pcm_default_final (pcm)
     class(pcm_default_t), intent(inout) :: pcm
   end subroutine pcm_default_final
 
 @ %def pcm_default_final
 @
 <<PCM: pcm default: TBP>>=
   procedure :: is_nlo => pcm_default_is_nlo
 <<PCM: sub interfaces>>=
     module function pcm_default_is_nlo (pcm) result (is_nlo)
       logical :: is_nlo
       class(pcm_default_t), intent(in) :: pcm
     end function pcm_default_is_nlo
 <<PCM: procedures>>=
   module function pcm_default_is_nlo (pcm) result (is_nlo)
     logical :: is_nlo
     class(pcm_default_t), intent(in) :: pcm
     is_nlo = .false.
   end function pcm_default_is_nlo
 
 @ %def pcm_default_is_nlo
 @
 Initialize configuration data, using environment variables.
 <<PCM: pcm default: TBP>>=
   procedure :: init => pcm_default_init
 <<PCM: sub interfaces>>=
     module subroutine pcm_default_init (pcm, env, meta)
       class(pcm_default_t), intent(out) :: pcm
       type(process_environment_t), intent(in) :: env
       type(process_metadata_t), intent(in) :: meta
     end subroutine pcm_default_init
 <<PCM: procedures>>=
   module subroutine pcm_default_init (pcm, env, meta)
     class(pcm_default_t), intent(out) :: pcm
     type(process_environment_t), intent(in) :: env
     type(process_metadata_t), intent(in) :: meta
     pcm%has_pdfs = env%has_pdfs ()
     call pcm%set_blha_defaults &
          (env%has_polarized_beams (), env%get_var_list_ptr ())
     pcm%os_data = env%get_os_data ()
   end subroutine pcm_default_init
 
 @ %def pcm_default_init
 @
 <<PCM: types>>=
   type, extends (pcm_workspace_t) :: pcm_default_workspace_t
   contains
   <<PCM: pcm instance default: TBP>>
   end type pcm_default_workspace_t
 
 @ %def pcm_default_workspace_t
 @
 <<PCM: pcm instance default: TBP>>=
   procedure :: final => pcm_default_workspace_final
 <<PCM: sub interfaces>>=
     module subroutine pcm_default_workspace_final (pcm_work)
       class(pcm_default_workspace_t), intent(inout) :: pcm_work
     end subroutine pcm_default_workspace_final
 <<PCM: procedures>>=
   module subroutine pcm_default_workspace_final (pcm_work)
     class(pcm_default_workspace_t), intent(inout) :: pcm_work
   end subroutine pcm_default_workspace_final
 
 @ %def pcm_default_workspace_final
 @
 <<PCM: pcm instance default: TBP>>=
   procedure :: is_nlo => pcm_default_workspace_is_nlo
 <<PCM: sub interfaces>>=
     module function pcm_default_workspace_is_nlo (pcm_work) result (is_nlo)
       logical :: is_nlo
       class(pcm_default_workspace_t), intent(inout) :: pcm_work
     end function pcm_default_workspace_is_nlo
 <<PCM: procedures>>=
   module function pcm_default_workspace_is_nlo (pcm_work) result (is_nlo)
     logical :: is_nlo
     class(pcm_default_workspace_t), intent(inout) :: pcm_work
     is_nlo = .false.
   end function pcm_default_workspace_is_nlo
 
 @ %def pcm_default_workspace_is_nlo
 @
 \subsection{Implementations for the default manager}
 Categorize components.  Nothing to do here, all components are of Born type.
 <<PCM: pcm default: TBP>>=
   procedure :: categorize_components => pcm_default_categorize_components
 <<PCM: sub interfaces>>=
     module subroutine pcm_default_categorize_components (pcm, config)
       class(pcm_default_t), intent(inout) :: pcm
       type(process_config_data_t), intent(in) :: config
     end subroutine pcm_default_categorize_components
 <<PCM: procedures>>=
   module subroutine pcm_default_categorize_components (pcm, config)
     class(pcm_default_t), intent(inout) :: pcm
     type(process_config_data_t), intent(in) :: config
   end subroutine pcm_default_categorize_components
 
 @ %def pcm_default_categorize_components
 @
 \subsubsection{Phase-space configuration}
 Default setup for tree processes: a single phase-space configuration that is
 valid for all components.
 <<PCM: pcm default: TBP>>=
   procedure :: init_phs_config => pcm_default_init_phs_config
 <<PCM: sub interfaces>>=
     module subroutine pcm_default_init_phs_config &
          (pcm, phs_entry, meta, env, phs_par, mapping_defs)
       class(pcm_default_t), intent(inout) :: pcm
       type(process_phs_config_t), &
            dimension(:), allocatable, intent(out) :: phs_entry
       type(process_metadata_t), intent(in) :: meta
       type(process_environment_t), intent(in) :: env
       type(mapping_defaults_t), intent(in) :: mapping_defs
       type(phs_parameters_t), intent(in) :: phs_par
     end subroutine pcm_default_init_phs_config
 <<PCM: procedures>>=
   module subroutine pcm_default_init_phs_config &
        (pcm, phs_entry, meta, env, phs_par, mapping_defs)
     class(pcm_default_t), intent(inout) :: pcm
     type(process_phs_config_t), &
          dimension(:), allocatable, intent(out) :: phs_entry
     type(process_metadata_t), intent(in) :: meta
     type(process_environment_t), intent(in) :: env
     type(mapping_defaults_t), intent(in) :: mapping_defs
     type(phs_parameters_t), intent(in) :: phs_par
     allocate (phs_entry (1))
     allocate (pcm%i_phs_config (pcm%n_components), source=1)
     call dispatch_phs (phs_entry(1)%phs_config, &
          env%get_var_list_ptr (), &
          env%get_os_data (), &
          meta%id, &
          mapping_defs, phs_par)
   end subroutine pcm_default_init_phs_config
 
 @ %def pcm_default_init_phs_config
 @
 \subsubsection{Core management}
 The default component manager assigns one core per component.  We allocate and
 configure the core objects, using the process-component configuration data.
 <<PCM: pcm default: TBP>>=
   procedure :: allocate_cores => pcm_default_allocate_cores
 <<PCM: sub interfaces>>=
     module subroutine pcm_default_allocate_cores (pcm, config, core_entry)
       class(pcm_default_t), intent(inout) :: pcm
       type(process_config_data_t), intent(in) :: config
       type(core_entry_t), dimension(:), allocatable, intent(out) :: core_entry
     end subroutine pcm_default_allocate_cores
 <<PCM: procedures>>=
   module subroutine pcm_default_allocate_cores (pcm, config, core_entry)
     class(pcm_default_t), intent(inout) :: pcm
     type(process_config_data_t), intent(in) :: config
     type(core_entry_t), dimension(:), allocatable, intent(out) :: core_entry
     type(process_component_def_t), pointer :: component_def
     integer :: i
     allocate (pcm%i_core (pcm%n_components), source = 0)
     pcm%n_cores = pcm%n_components
     allocate (core_entry (pcm%n_cores))
     do i = 1, pcm%n_cores
        pcm%i_core(i) = i
        core_entry(i)%i_component = i
        component_def => config%process_def%get_component_def_ptr (i)
        core_entry(i)%core_def => component_def%get_core_def_ptr ()
        core_entry(i)%active = component_def%can_be_integrated ()
     end do
   end subroutine pcm_default_allocate_cores
 
 @ %def pcm_default_allocate_cores
 @ Extra code is required for certain core types (threshold) or if BLHA uses an
 external OLP (Born only, this case) for getting its matrix elements.
 <<PCM: pcm default: TBP>>=
   procedure :: prepare_any_external_code => &
        pcm_default_prepare_any_external_code
 <<PCM: sub interfaces>>=
     module subroutine pcm_default_prepare_any_external_code &
          (pcm, core_entry, i_core, libname, model, var_list)
       class(pcm_default_t), intent(in) :: pcm
       type(core_entry_t), intent(inout) :: core_entry
       integer, intent(in) :: i_core
       type(string_t), intent(in) :: libname
       type(model_data_t), intent(in), target :: model
       type(var_list_t), intent(in) :: var_list
     end subroutine pcm_default_prepare_any_external_code
 <<PCM: procedures>>=
   module subroutine pcm_default_prepare_any_external_code &
        (pcm, core_entry, i_core, libname, model, var_list)
     class(pcm_default_t), intent(in) :: pcm
     type(core_entry_t), intent(inout) :: core_entry
     integer, intent(in) :: i_core
     type(string_t), intent(in) :: libname
     type(model_data_t), intent(in), target :: model
     type(var_list_t), intent(in) :: var_list
     if (core_entry%active) then
        associate (core => core_entry%core)
          if (core%needs_external_code ()) then
             call core%prepare_external_code &
                  (core%data%flv_state, &
                  var_list, pcm%os_data, libname, model, i_core, .false.)
          end if
          call core%set_equivalent_flv_hel_indices ()
        end associate
     end if
   end subroutine pcm_default_prepare_any_external_code
 
 @ %def pcm_default_prepare_any_external_code
 @ Allocate and configure the BLHA record for a specific core, assuming that
 the core type requires it.  In the default case, this is a Born
 configuration.
 <<PCM: pcm default: TBP>>=
   procedure :: setup_blha => pcm_default_setup_blha
 <<PCM: sub interfaces>>=
     module subroutine pcm_default_setup_blha (pcm, core_entry)
       class(pcm_default_t), intent(in) :: pcm
       type(core_entry_t), intent(inout) :: core_entry
     end subroutine pcm_default_setup_blha
 <<PCM: procedures>>=
   module subroutine pcm_default_setup_blha (pcm, core_entry)
     class(pcm_default_t), intent(in) :: pcm
     type(core_entry_t), intent(inout) :: core_entry
     allocate (core_entry%blha_config, source = pcm%blha_defaults)
     call core_entry%blha_config%set_born ()
   end subroutine pcm_default_setup_blha
 
 @ %def pcm_default_setup_blha
 @ Apply the configuration, using [[pcm]] data.
 <<PCM: pcm default: TBP>>=
   procedure :: prepare_blha_core => pcm_default_prepare_blha_core
 <<PCM: sub interfaces>>=
     module subroutine pcm_default_prepare_blha_core (pcm, core_entry, model)
       class(pcm_default_t), intent(in) :: pcm
       type(core_entry_t), intent(inout) :: core_entry
       class(model_data_t), intent(in), target :: model
     end subroutine pcm_default_prepare_blha_core
 <<PCM: procedures>>=
   module subroutine pcm_default_prepare_blha_core (pcm, core_entry, model)
     class(pcm_default_t), intent(in) :: pcm
     type(core_entry_t), intent(inout) :: core_entry
     class(model_data_t), intent(in), target :: model
     integer :: n_in
     integer :: n_legs
     integer :: n_flv
     integer :: n_hel
     select type (core => core_entry%core)
     class is (prc_blha_t)
        associate (blha_config => core_entry%blha_config)
          n_in = core%data%n_in
          n_legs = core%data%get_n_tot ()
          n_flv = core%data%n_flv
          n_hel = blha_config%get_n_hel (core%data%flv_state (1:n_in,1), model)
          call core%init_blha (blha_config, n_in, n_legs, n_flv, n_hel)
          call core%init_driver (pcm%os_data)
        end associate
     end select
   end subroutine pcm_default_prepare_blha_core
 
 @ %def pcm_default_prepare_blha_core
 @ Read the method settings from the variable list and store them in the BLHA
 master.  This version: no NLO flag.
 <<PCM: pcm default: TBP>>=
   procedure :: set_blha_methods => pcm_default_set_blha_methods
 <<PCM: sub interfaces>>=
     module subroutine pcm_default_set_blha_methods (pcm, blha_master, var_list)
       class(pcm_default_t), intent(inout) :: pcm
       type(blha_master_t), intent(inout) :: blha_master
       type(var_list_t), intent(in) :: var_list
     end subroutine pcm_default_set_blha_methods
 <<PCM: procedures>>=
   module subroutine pcm_default_set_blha_methods (pcm, blha_master, var_list)
     class(pcm_default_t), intent(inout) :: pcm
     type(blha_master_t), intent(inout) :: blha_master
     type(var_list_t), intent(in) :: var_list
     call blha_master%set_methods (.false., var_list)
   end subroutine pcm_default_set_blha_methods
 
 @ %def pcm_default_set_blha_methods
 @ Produce the LO and NLO flavor-state tables (as far as available), as
 appropriate for BLHA configuration.
 
 The default version looks at the first process core only, to get the Born
 data.  (Multiple cores are thus unsupported.)  The NLO flavor table is left
 unallocated.
 <<PCM: pcm default: TBP>>=
   procedure :: get_blha_flv_states => pcm_default_get_blha_flv_states
 <<PCM: sub interfaces>>=
     module subroutine pcm_default_get_blha_flv_states &
          (pcm, core_entry, flv_born, flv_real)
       class(pcm_default_t), intent(in) :: pcm
       type(core_entry_t), dimension(:), intent(in) :: core_entry
       integer, dimension(:,:), allocatable, intent(out) :: flv_born
       integer, dimension(:,:), allocatable, intent(out) :: flv_real
     end subroutine pcm_default_get_blha_flv_states
 <<PCM: procedures>>=
   module subroutine pcm_default_get_blha_flv_states &
        (pcm, core_entry, flv_born, flv_real)
     class(pcm_default_t), intent(in) :: pcm
     type(core_entry_t), dimension(:), intent(in) :: core_entry
     integer, dimension(:,:), allocatable, intent(out) :: flv_born
     integer, dimension(:,:), allocatable, intent(out) :: flv_real
     flv_born = core_entry(1)%core%data%flv_state
   end subroutine pcm_default_get_blha_flv_states
 
 @ %def pcm_default_get_blha_flv_states
 @ Allocate and configure the MCI (multi-channel integrator) records.  There is
 one record per active process component.  Second procedure: call the MCI
 dispatcher with default-setup arguments.
 <<PCM: pcm default: TBP>>=
   procedure :: setup_mci => pcm_default_setup_mci
   procedure :: call_dispatch_mci => pcm_default_call_dispatch_mci
 <<PCM: sub interfaces>>=
     module subroutine pcm_default_setup_mci (pcm, mci_entry)
       class(pcm_default_t), intent(inout) :: pcm
       type(process_mci_entry_t), &
            dimension(:), allocatable, intent(out) :: mci_entry
     end subroutine pcm_default_setup_mci
     module subroutine pcm_default_call_dispatch_mci (pcm, &
          dispatch_mci, var_list, process_id, mci_template)
       class(pcm_default_t), intent(inout) :: pcm
       procedure(dispatch_mci_proc) :: dispatch_mci
       type(var_list_t), intent(in) :: var_list
       type(string_t), intent(in) :: process_id
       class(mci_t), allocatable, intent(out) :: mci_template
     end subroutine pcm_default_call_dispatch_mci
 <<PCM: procedures>>=
   module subroutine pcm_default_setup_mci (pcm, mci_entry)
     class(pcm_default_t), intent(inout) :: pcm
     type(process_mci_entry_t), &
          dimension(:), allocatable, intent(out) :: mci_entry
     class(mci_t), allocatable :: mci_template
     integer :: i, i_mci
     pcm%n_mci = count (pcm%component_active)
     allocate (pcm%i_mci (pcm%n_components), source = 0)
     i_mci = 0
     do i = 1, pcm%n_components
        if (pcm%component_active(i)) then
           i_mci = i_mci + 1
           pcm%i_mci(i) = i_mci
        end if
     end do
     allocate (mci_entry (pcm%n_mci))
   end subroutine pcm_default_setup_mci
 
   module subroutine pcm_default_call_dispatch_mci (pcm, &
        dispatch_mci, var_list, process_id, mci_template)
     class(pcm_default_t), intent(inout) :: pcm
     procedure(dispatch_mci_proc) :: dispatch_mci
     type(var_list_t), intent(in) :: var_list
     type(string_t), intent(in) :: process_id
     class(mci_t), allocatable, intent(out) :: mci_template
     call dispatch_mci (mci_template, var_list, process_id)
   end subroutine pcm_default_call_dispatch_mci
 
 @ %def pcm_default_setup_mci
 @ %def pcm_default_call_dispatch_mci
 @ Nothing left to do for the default algorithm.
 <<PCM: pcm default: TBP>>=
   procedure :: complete_setup => pcm_default_complete_setup
 <<PCM: sub interfaces>>=
     module subroutine pcm_default_complete_setup &
          (pcm, core_entry, component, model)
       class(pcm_default_t), intent(inout) :: pcm
       type(core_entry_t), dimension(:), intent(in) :: core_entry
       type(process_component_t), dimension(:), intent(inout) :: component
       type(model_t), intent(in), target :: model
     end subroutine pcm_default_complete_setup
 <<PCM: procedures>>=
   module subroutine pcm_default_complete_setup &
        (pcm, core_entry, component, model)
     class(pcm_default_t), intent(inout) :: pcm
     type(core_entry_t), dimension(:), intent(in) :: core_entry
     type(process_component_t), dimension(:), intent(inout) :: component
     type(model_t), intent(in), target :: model
   end subroutine pcm_default_complete_setup
 
 @ %def pcm_default_complete_setup
 @
 \subsubsection{Component management}
 Initialize a single component.  We require all process-configuration blocks,
 and specific templates for the phase-space and integrator configuration.
 
 We also provide the current component index [[i]] and the [[active]] flag.
 
 In the default mode, all components are marked as master components.
 <<PCM: pcm default: TBP>>=
   procedure :: init_component => pcm_default_init_component
 <<PCM: sub interfaces>>=
     module subroutine pcm_default_init_component (pcm, component, i, active, &
          phs_config, env, meta, config)
       class(pcm_default_t), intent(in) :: pcm
       type(process_component_t), intent(out) :: component
       integer, intent(in) :: i
       logical, intent(in) :: active
       class(phs_config_t), allocatable, intent(in) :: phs_config
       type(process_environment_t), intent(in) :: env
       type(process_metadata_t), intent(in) :: meta
       type(process_config_data_t), intent(in) :: config
     end subroutine pcm_default_init_component
 <<PCM: procedures>>=
   module subroutine pcm_default_init_component (pcm, component, i, active, &
        phs_config, env, meta, config)
     class(pcm_default_t), intent(in) :: pcm
     type(process_component_t), intent(out) :: component
     integer, intent(in) :: i
     logical, intent(in) :: active
     class(phs_config_t), allocatable, intent(in) :: phs_config
     type(process_environment_t), intent(in) :: env
     type(process_metadata_t), intent(in) :: meta
     type(process_config_data_t), intent(in) :: config
     call component%init (i, &
          env, meta, config, &
          active, &
          phs_config)
     component%component_type = COMP_MASTER
   end subroutine pcm_default_init_component
 
 @ %def pcm_default_init_component
 @
 \subsection{NLO process component manager}
 The NLO-aware version of the process-component manager.
 
 This is the configuration object, which has the duty of allocating the
 corresponding instance.  This is the nontrivial NLO version.
 <<PCM: public>>=
   public :: pcm_nlo_t
 <<PCM: types>>=
   type, extends (pcm_t) :: pcm_nlo_t
      type(string_t) :: id
      logical :: combined_integration = .false.
      logical :: vis_fks_regions = .false.
      integer, dimension(:), allocatable :: nlo_type
      integer, dimension(:), allocatable :: nlo_type_core
      integer, dimension(:), allocatable :: component_type
      integer :: i_born = 0
      integer :: i_real = 0
      integer :: i_sub = 0
      type(nlo_settings_t) :: settings
      type(region_data_t) :: region_data
      logical :: use_real_partition = .false.
      logical :: use_real_singular = .false.
      real(default) :: real_partition_scale = 0
      class(real_partition_t), allocatable :: real_partition
      type(dalitz_plot_t) :: dalitz_plot
      type(quantum_numbers_t), dimension(:,:), allocatable :: qn_real, qn_born
   contains
   <<PCM: pcm nlo: TBP>>
   end type pcm_nlo_t
 
 @ %def pcm_nlo_t
 @
 Initialize configuration data, using environment variables.
 <<PCM: pcm nlo: TBP>>=
   procedure :: init => pcm_nlo_init
 <<PCM: sub interfaces>>=
     module subroutine pcm_nlo_init (pcm, env, meta)
       class(pcm_nlo_t), intent(out) :: pcm
       type(process_metadata_t), intent(in) :: meta
       type(process_environment_t), intent(in) :: env
     end subroutine pcm_nlo_init
 <<PCM: procedures>>=
   module subroutine pcm_nlo_init (pcm, env, meta)
     class(pcm_nlo_t), intent(out) :: pcm
     type(process_metadata_t), intent(in) :: meta
     type(process_environment_t), intent(in) :: env
     type(var_list_t), pointer :: var_list
     type(fks_template_t) :: fks_template
     pcm%id = meta%id
     pcm%has_pdfs = env%has_pdfs ()
     var_list => env%get_var_list_ptr ()
     call dispatch_fks_setup (fks_template, var_list)
     call pcm%settings%init (var_list, fks_template)
     pcm%combined_integration = &
          var_list%get_lval (var_str ('?combined_nlo_integration'))
     select case (char (var_list%get_sval (var_str ("$real_partition_mode"))))
     case ("default", "off")
        pcm%use_real_partition = .false.
        pcm%use_real_singular = .false.
     case ("all", "on", "singular")
        pcm%use_real_partition = .true.
        pcm%use_real_singular = .true.
     case ("finite")
        pcm%use_real_partition = .true.
        pcm%use_real_singular = .false.
     case default
        call msg_fatal ("The real partition mode can only be " // &
             "default, off, all, on, singular or finite.")
     end select
     pcm%real_partition_scale = &
          var_list%get_rval (var_str ("real_partition_scale"))
     pcm%vis_fks_regions = &
          var_list%get_lval (var_str ("?vis_fks_regions"))
     call pcm%set_blha_defaults &
          (env%has_polarized_beams (), env%get_var_list_ptr ())
     pcm%os_data = env%get_os_data ()
   end subroutine pcm_nlo_init
 
 @ %def pcm_nlo_init
 @ Init/rewrite NLO settings without the FKS template.
 <<PCM: pcm nlo: TBP>>=
   procedure :: init_nlo_settings => pcm_nlo_init_nlo_settings
 <<PCM: sub interfaces>>=
     module subroutine pcm_nlo_init_nlo_settings (pcm, var_list)
       class(pcm_nlo_t), intent(inout) :: pcm
       type(var_list_t), intent(in), target :: var_list
     end subroutine pcm_nlo_init_nlo_settings
 <<PCM: procedures>>=
   module subroutine pcm_nlo_init_nlo_settings (pcm, var_list)
     class(pcm_nlo_t), intent(inout) :: pcm
     type(var_list_t), intent(in), target :: var_list
     call pcm%settings%init (var_list)
   end subroutine pcm_nlo_init_nlo_settings
 
 @ %def pcm_nlo_init_nlo_settings
 @
 As appropriate for the NLO/FKS algorithm, the category defined by the
 process, is called [[nlo_type]].  We refine this by setting the component
 category [[component_type]] separately.
 
 The component types [[COMP_MISMATCH]], [[COMP_PDF]], [[COMP_SUB]] are set only
 if the algorithm uses combined integration.  Otherwise, they are set to
 [[COMP_DEFAULT]].
 
 The component type [[COMP_REAL]] is further distinguished between
 [[COMP_REAL_SING]] or [[COMP_REAL_FIN]], if the algorithm uses real
 partitions.  The former acts as a reference component for the latter, and we
 always assume that it is the first real component.
 
 Each component is assigned its own core.  Exceptions: the finite-real
 component gets the same core as the singular-real component.  The mismatch
 component gets the same core as the subtraction component.
 
 TODO wk 2018: this convention for real components can be improved.
 Check whether all component types should be assigned, not just for combined
 integration.
 <<PCM: pcm nlo: TBP>>=
   procedure :: categorize_components => pcm_nlo_categorize_components
 <<PCM: sub interfaces>>=
     module subroutine pcm_nlo_categorize_components (pcm, config)
       class(pcm_nlo_t), intent(inout) :: pcm
       type(process_config_data_t), intent(in) :: config
     end subroutine pcm_nlo_categorize_components
 <<PCM: procedures>>=
   module subroutine pcm_nlo_categorize_components (pcm, config)
     class(pcm_nlo_t), intent(inout) :: pcm
     type(process_config_data_t), intent(in) :: config
     type(process_component_def_t), pointer :: component_def
     integer :: i
     allocate (pcm%nlo_type (pcm%n_components), source = COMPONENT_UNDEFINED)
     allocate (pcm%component_type (pcm%n_components), source = COMP_DEFAULT)
     do i = 1, pcm%n_components
        component_def => config%process_def%get_component_def_ptr (i)
        pcm%nlo_type(i) = component_def%get_nlo_type ()
        if (pcm%combined_integration) then
           select case (pcm%nlo_type(i))
           case (BORN)
              pcm%i_born = i
              pcm%component_type(i) = COMP_MASTER
           case (NLO_REAL)
              pcm%component_type(i) = COMP_REAL
           case (NLO_VIRTUAL)
              pcm%component_type(i) = COMP_VIRT
           case (NLO_MISMATCH)
              pcm%component_type(i) = COMP_MISMATCH
           case (NLO_DGLAP)
              pcm%component_type(i) = COMP_PDF
           case (NLO_SUBTRACTION)
              pcm%component_type(i) = COMP_SUB
              pcm%i_sub = i
           end select
        else
           select case (pcm%nlo_type(i))
           case (BORN)
              pcm%i_born = i
              pcm%component_type(i) = COMP_MASTER
           case (NLO_REAL)
              pcm%component_type(i) = COMP_REAL
           case (NLO_VIRTUAL)
              pcm%component_type(i) = COMP_VIRT
           case (NLO_MISMATCH)
              pcm%component_type(i) = COMP_MISMATCH
           case (NLO_SUBTRACTION)
              pcm%i_sub = i
           end select
        end if
     end do
     call refine_real_type ( &
          pack ([(i, i=1, pcm%n_components)], &
          pcm%component_type==COMP_REAL))
   contains
     subroutine refine_real_type (i_real)
       integer, dimension(:), intent(in) :: i_real
       pcm%i_real = i_real(1)
       if (pcm%use_real_partition) then
          pcm%component_type (i_real(1)) = COMP_REAL_SING
          pcm%component_type (i_real(2:)) = COMP_REAL_FIN
       end if
     end subroutine refine_real_type
   end subroutine pcm_nlo_categorize_components
 
 @ %def pcm_nlo_categorize_components
 @
 \subsubsection{Phase-space initial configuration}
 Setup for the NLO/PHS processes: two phase-space configurations, (1)
 Born/wood, (2) real correction/FKS.  All components use either one of these
 two configurations.
 
 TODO wk 2018: The [[first_real_component]] identifier is really ugly.
 Nothing should rely on the ordering.
 <<PCM: pcm nlo: TBP>>=
   procedure :: init_phs_config => pcm_nlo_init_phs_config
 <<PCM: sub interfaces>>=
     module subroutine pcm_nlo_init_phs_config &
          (pcm, phs_entry, meta, env, phs_par, mapping_defs)
       class(pcm_nlo_t), intent(inout) :: pcm
       type(process_phs_config_t), &
            dimension(:), allocatable, intent(out) :: phs_entry
       type(process_metadata_t), intent(in) :: meta
       type(process_environment_t), intent(in) :: env
       type(mapping_defaults_t), intent(in) :: mapping_defs
       type(phs_parameters_t), intent(in) :: phs_par
     end subroutine pcm_nlo_init_phs_config
 <<PCM: procedures>>=
   module subroutine pcm_nlo_init_phs_config &
        (pcm, phs_entry, meta, env, phs_par, mapping_defs)
     class(pcm_nlo_t), intent(inout) :: pcm
     type(process_phs_config_t), &
          dimension(:), allocatable, intent(out) :: phs_entry
     type(process_metadata_t), intent(in) :: meta
     type(process_environment_t), intent(in) :: env
     type(mapping_defaults_t), intent(in) :: mapping_defs
     type(phs_parameters_t), intent(in) :: phs_par
     integer :: i
     logical :: first_real_component
     allocate (phs_entry (2))
     call dispatch_phs (phs_entry(1)%phs_config, &
          env%get_var_list_ptr (), &
          env%get_os_data (), &
          meta%id, &
          mapping_defs, phs_par, &
          var_str ("wood"))
     call dispatch_phs (phs_entry(2)%phs_config, &
          env%get_var_list_ptr (), &
          env%get_os_data (), &
          meta%id, &
          mapping_defs, phs_par, &
          var_str ("fks"))
     allocate (pcm%i_phs_config (pcm%n_components), source=0)
     first_real_component = .true.
     do i = 1, pcm%n_components
        select case (pcm%nlo_type(i))
        case (BORN, NLO_VIRTUAL, NLO_SUBTRACTION)
           pcm%i_phs_config(i) = 1
        case (NLO_REAL)
           if (pcm%use_real_partition) then
              if (pcm%use_real_singular) then
                 if (first_real_component) then
                    pcm%i_phs_config(i) = 2
                    first_real_component = .false.
                 else
                    pcm%i_phs_config(i) = 1
                 end if
              else
                 pcm%i_phs_config(i) = 1
              end if
           else
              pcm%i_phs_config(i) = 2
           end if
        case (NLO_MISMATCH, NLO_DGLAP, GKS)
           pcm%i_phs_config(i) = 2
        end select
     end do
   end subroutine pcm_nlo_init_phs_config
 
 @ %def pcm_nlo_init_phs_config
 @
 \subsubsection{Core management}
 Allocate the core (matrix-element interface) objects that we will need for
 evaluation.  Every component gets an associated core, except for the
 real-finite and mismatch components (if any).  Those components are associated
 with their previous corresponding real-singular and subtraction cores,
 respectively.
 
 After cores are allocated, configure the region-data block that is maintained
 by the NLO process-component manager.
 <<PCM: pcm nlo: TBP>>=
   procedure :: allocate_cores => pcm_nlo_allocate_cores
 <<PCM: sub interfaces>>=
     module subroutine pcm_nlo_allocate_cores (pcm, config, core_entry)
       class(pcm_nlo_t), intent(inout) :: pcm
       type(process_config_data_t), intent(in) :: config
       type(core_entry_t), dimension(:), allocatable, intent(out) :: core_entry
     end subroutine pcm_nlo_allocate_cores
 <<PCM: procedures>>=
   module subroutine pcm_nlo_allocate_cores (pcm, config, core_entry)
     class(pcm_nlo_t), intent(inout) :: pcm
     type(process_config_data_t), intent(in) :: config
     type(core_entry_t), dimension(:), allocatable, intent(out) :: core_entry
     type(process_component_def_t), pointer :: component_def
     integer :: i, i_core
     allocate (pcm%i_core (pcm%n_components), source = 0)
     pcm%n_cores = pcm%n_components &
          - count (pcm%component_type(:) == COMP_REAL_FIN) &
          - count (pcm%component_type(:) == COMP_MISMATCH)
     allocate (core_entry (pcm%n_cores))
     allocate (pcm%nlo_type_core (pcm%n_cores), source = BORN)
     i_core = 0
     do i = 1, pcm%n_components
        select case (pcm%component_type(i))
        case default
           i_core = i_core + 1
           pcm%i_core(i) = i_core
           pcm%nlo_type_core(i_core) = pcm%nlo_type(i)
           core_entry(i_core)%i_component = i
           component_def => config%process_def%get_component_def_ptr (i)
           core_entry(i_core)%core_def => component_def%get_core_def_ptr ()
           select case (pcm%nlo_type(i))
           case default
              core_entry(i)%active = component_def%can_be_integrated ()
           case (NLO_REAL, NLO_SUBTRACTION)
              core_entry(i)%active = .true.
           end select
        case (COMP_REAL_FIN)
           pcm%i_core(i) = pcm%i_core(pcm%i_real)
        case (COMP_MISMATCH)
           pcm%i_core(i) = pcm%i_core(pcm%i_sub)
        end select
     end do
   end subroutine pcm_nlo_allocate_cores
 
 @ %def pcm_nlo_allocate_cores
 @ Extra code is required for certain core types (threshold) or if BLHA uses an
 external OLP for getting its matrix elements.  OMega matrix elements, by
 definition, do not need extra code.  NLO-virtual or subtraction
 matrix elements always need extra code.
 
 More precisely: for the Born and virtual matrix element, the extra code is
 accessed only if the component is active.  The radiation (real) and the
 subtraction corrections (singular and finite), extra code is accessed in any
 case.
 
 The flavor state is taken from the [[region_data]] table in the [[pcm]]
 record.  We use the Born and real flavor-state tables as appropriate.
 <<PCM: pcm nlo: TBP>>=
   procedure :: prepare_any_external_code => &
        pcm_nlo_prepare_any_external_code
 <<PCM: sub interfaces>>=
     module subroutine pcm_nlo_prepare_any_external_code &
          (pcm, core_entry, i_core, libname, model, var_list)
       class(pcm_nlo_t), intent(in) :: pcm
       type(core_entry_t), intent(inout) :: core_entry
       integer, intent(in) :: i_core
       type(string_t), intent(in) :: libname
       type(model_data_t), intent(in), target :: model
       type(var_list_t), intent(in) :: var_list
     end subroutine pcm_nlo_prepare_any_external_code
 <<PCM: procedures>>=
   module subroutine pcm_nlo_prepare_any_external_code &
        (pcm, core_entry, i_core, libname, model, var_list)
     class(pcm_nlo_t), intent(in) :: pcm
     type(core_entry_t), intent(inout) :: core_entry
     integer, intent(in) :: i_core
     type(string_t), intent(in) :: libname
     type(model_data_t), intent(in), target :: model
     type(var_list_t), intent(in) :: var_list
     integer, dimension(:,:), allocatable :: flv_born, flv_real
     integer :: i
     call pcm%region_data%get_all_flv_states (flv_born, flv_real)
     if (core_entry%active) then
        associate (core => core_entry%core)
          if (core%needs_external_code ()) then
             select case (pcm%nlo_type (core_entry%i_component))
             case default
                call core%data%set_flv_state (flv_born)
             case (NLO_REAL)
                call core%data%set_flv_state (flv_real)
             end select
             call core%prepare_external_code &
                  (core%data%flv_state, &
                  var_list, pcm%os_data, libname, model, i_core, .true.)
          end if
          call core%set_equivalent_flv_hel_indices ()
        end associate
     end if
   end subroutine pcm_nlo_prepare_any_external_code
 
 @ %def pcm_nlo_prepare_any_external_code
 @ Allocate and configure the BLHA record for a specific core, assuming that
 the core type requires it.  The configuration depends on the NLO type of the
 core.
 <<PCM: pcm nlo: TBP>>=
   procedure :: setup_blha => pcm_nlo_setup_blha
 <<PCM: sub interfaces>>=
     module subroutine pcm_nlo_setup_blha (pcm, core_entry)
       class(pcm_nlo_t), intent(in) :: pcm
       type(core_entry_t), intent(inout) :: core_entry
     end subroutine pcm_nlo_setup_blha
 <<PCM: procedures>>=
   module subroutine pcm_nlo_setup_blha (pcm, core_entry)
     class(pcm_nlo_t), intent(in) :: pcm
     type(core_entry_t), intent(inout) :: core_entry
     allocate (core_entry%blha_config, source = pcm%blha_defaults)
     select case (pcm%nlo_type(core_entry%i_component))
     case (BORN)
        call core_entry%blha_config%set_born ()
     case (NLO_REAL)
        call core_entry%blha_config%set_real_trees ()
     case (NLO_VIRTUAL)
        call core_entry%blha_config%set_loop ()
     case (NLO_SUBTRACTION)
        call core_entry%blha_config%set_subtraction ()
        call core_entry%blha_config%set_internal_color_correlations ()
     case (NLO_DGLAP)
        call core_entry%blha_config%set_dglap ()
     end select
   end subroutine pcm_nlo_setup_blha
 
 @ %def pcm_nlo_setup_blha
 @ After phase-space configuration data and core entries are available, we fill
 tables and compute the remaining NLO data that will steer the integration
 and subtraction algorithm.
 
 There are three parts: recognize a threshold-type process core (if it exists),
 prepare the region-data tables (always), and prepare for real partitioning (if
 requested).
 
 The real-component phase space acts as the source for resonance-history
 information, required for the region data.
 <<PCM: pcm nlo: TBP>>=
   procedure :: complete_setup => pcm_nlo_complete_setup
 <<PCM: sub interfaces>>=
     module subroutine pcm_nlo_complete_setup (pcm, core_entry, component, model)
       class(pcm_nlo_t), intent(inout) :: pcm
       type(core_entry_t), dimension(:), intent(in) :: core_entry
       type(process_component_t), dimension(:), intent(inout) :: component
       type(model_t), intent(in), target :: model
     end subroutine pcm_nlo_complete_setup
 <<PCM: procedures>>=
   module subroutine pcm_nlo_complete_setup (pcm, core_entry, component, model)
     class(pcm_nlo_t), intent(inout) :: pcm
     type(core_entry_t), dimension(:), intent(in) :: core_entry
     type(process_component_t), dimension(:), intent(inout) :: component
     type(model_t), intent(in), target :: model
     integer :: alpha_power, alphas_power
     call pcm%handle_threshold_core (core_entry)
     call component(1)%config%get_coupling_powers (alpha_power, alphas_power)
     call pcm%setup_region_data (core_entry, &
          component(pcm%i_real)%phs_config, model, alpha_power, alphas_power)
     call pcm%setup_real_partition ()
   end subroutine pcm_nlo_complete_setup
 
 @ %def pcm_nlo_complete_setup
 @ Apply the BLHA configuration to a core object, using the region data from
 [[pcm]] for determining the particle content.
 <<PCM: pcm nlo: TBP>>=
   procedure :: prepare_blha_core => pcm_nlo_prepare_blha_core
 <<PCM: sub interfaces>>=
     module subroutine pcm_nlo_prepare_blha_core (pcm, core_entry, model)
       class(pcm_nlo_t), intent(in) :: pcm
       type(core_entry_t), intent(inout) :: core_entry
       class(model_data_t), intent(in), target :: model
     end subroutine pcm_nlo_prepare_blha_core
 <<PCM: procedures>>=
   module subroutine pcm_nlo_prepare_blha_core (pcm, core_entry, model)
     class(pcm_nlo_t), intent(in) :: pcm
     type(core_entry_t), intent(inout) :: core_entry
     class(model_data_t), intent(in), target :: model
     integer :: n_in
     integer :: n_legs
     integer :: n_flv
     integer :: n_hel
     select type (core => core_entry%core)
     class is (prc_blha_t)
        associate (blha_config => core_entry%blha_config)
          n_in = core%data%n_in
          select case (pcm%nlo_type(core_entry%i_component))
          case (NLO_REAL)
             n_legs = pcm%region_data%get_n_legs_real ()
             n_flv = pcm%region_data%get_n_flv_real ()
          case default
             n_legs = pcm%region_data%get_n_legs_born ()
             n_flv = pcm%region_data%get_n_flv_born ()
          end select
          n_hel = blha_config%get_n_hel (core%data%flv_state (1:n_in,1), model)
          call core%init_blha (blha_config, n_in, n_legs, n_flv, n_hel)
          call core%init_driver (pcm%os_data)
        end associate
     end select
   end subroutine pcm_nlo_prepare_blha_core
 
 @ %def pcm_nlo_prepare_blha_core
 @ Read the method settings from the variable list and store them in the BLHA
 master.  This version: NLO flag set.
 <<PCM: pcm nlo: TBP>>=
   procedure :: set_blha_methods => pcm_nlo_set_blha_methods
 <<PCM: sub interfaces>>=
     module subroutine pcm_nlo_set_blha_methods (pcm, blha_master, var_list)
       class(pcm_nlo_t), intent(inout) :: pcm
       type(blha_master_t), intent(inout) :: blha_master
       type(var_list_t), intent(in) :: var_list
     end subroutine pcm_nlo_set_blha_methods
 <<PCM: procedures>>=
   module subroutine pcm_nlo_set_blha_methods (pcm, blha_master, var_list)
     class(pcm_nlo_t), intent(inout) :: pcm
     type(blha_master_t), intent(inout) :: blha_master
     type(var_list_t), intent(in) :: var_list
     call blha_master%set_methods (.true., var_list)
     call pcm%blha_defaults%set_loop_method (blha_master)
   end subroutine pcm_nlo_set_blha_methods
 
 @ %def pcm_nlo_set_blha_methods
 @ Produce the LO and NLO flavor-state tables (as far as available), as
 appropriate for BLHA configuration.
 
 The NLO version copies the tables from the region data inside [[pcm]].  The
 core array is not needed.
 <<PCM: pcm nlo: TBP>>=
   procedure :: get_blha_flv_states => pcm_nlo_get_blha_flv_states
 <<PCM: sub interfaces>>=
     module subroutine pcm_nlo_get_blha_flv_states &
          (pcm, core_entry, flv_born, flv_real)
       class(pcm_nlo_t), intent(in) :: pcm
       type(core_entry_t), dimension(:), intent(in) :: core_entry
       integer, dimension(:,:), allocatable, intent(out) :: flv_born
       integer, dimension(:,:), allocatable, intent(out) :: flv_real
     end subroutine pcm_nlo_get_blha_flv_states
 <<PCM: procedures>>=
   module subroutine pcm_nlo_get_blha_flv_states &
        (pcm, core_entry, flv_born, flv_real)
     class(pcm_nlo_t), intent(in) :: pcm
     type(core_entry_t), dimension(:), intent(in) :: core_entry
     integer, dimension(:,:), allocatable, intent(out) :: flv_born
     integer, dimension(:,:), allocatable, intent(out) :: flv_real
     call pcm%region_data%get_all_flv_states (flv_born, flv_real)
   end subroutine pcm_nlo_get_blha_flv_states
 
 @ %def pcm_nlo_get_blha_flv_states
 @ Allocate and configure the MCI (multi-channel integrator) records.  The
 relation depends on the [[combined_integration]] setting.  If we integrate
 components separately, each component gets its own record, except for the
 subtraction component.  If we do the combination, there is one record for
 the master (Born) component and a second one for the real-finite component,
 if present.
 
 Each entry acquires some NLO-specific initialization.  Generic configuration
 follows later.
 
 Second procedure: call the MCI dispatcher with NLO-setup arguments.
 <<PCM: pcm nlo: TBP>>=
   procedure :: setup_mci => pcm_nlo_setup_mci
   procedure :: call_dispatch_mci => pcm_nlo_call_dispatch_mci
 <<PCM: sub interfaces>>=
     module subroutine pcm_nlo_setup_mci (pcm, mci_entry)
       class(pcm_nlo_t), intent(inout) :: pcm
       type(process_mci_entry_t), &
            dimension(:), allocatable, intent(out) :: mci_entry
     end subroutine pcm_nlo_setup_mci
     module subroutine pcm_nlo_call_dispatch_mci (pcm, &
          dispatch_mci, var_list, process_id, mci_template)
       class(pcm_nlo_t), intent(inout) :: pcm
       procedure(dispatch_mci_proc) :: dispatch_mci
       type(var_list_t), intent(in) :: var_list
       type(string_t), intent(in) :: process_id
       class(mci_t), allocatable, intent(out) :: mci_template
     end subroutine pcm_nlo_call_dispatch_mci
 <<PCM: procedures>>=
   module subroutine pcm_nlo_setup_mci (pcm, mci_entry)
     class(pcm_nlo_t), intent(inout) :: pcm
     type(process_mci_entry_t), &
          dimension(:), allocatable, intent(out) :: mci_entry
     class(mci_t), allocatable :: mci_template
     integer :: i, i_mci
     if (pcm%combined_integration) then
        pcm%n_mci = 1 &
             + count (pcm%component_active(:) &
             &        .and. pcm%component_type(:) == COMP_REAL_FIN)
        allocate (pcm%i_mci (pcm%n_components), source = 0)
        do i = 1, pcm%n_components
           if (pcm%component_active(i)) then
              select case (pcm%component_type(i))
              case (COMP_MASTER)
                 pcm%i_mci(i) = 1
              case (COMP_REAL_FIN)
                 pcm%i_mci(i) = 2
              end select
           end if
        end do
     else
        pcm%n_mci = count (pcm%component_active(:) &
             &             .and. pcm%nlo_type(:) /= NLO_SUBTRACTION)
        allocate (pcm%i_mci (pcm%n_components), source = 0)
        i_mci = 0
        do i = 1, pcm%n_components
           if (pcm%component_active(i)) then
              select case (pcm%nlo_type(i))
              case default
                 i_mci = i_mci + 1
                 pcm%i_mci(i) = i_mci
              case (NLO_SUBTRACTION)
              end select
           end if
        end do
     end if
     allocate (mci_entry (pcm%n_mci))
     mci_entry(:)%combined_integration = pcm%combined_integration
     if (pcm%use_real_partition) then
        do i = 1, pcm%n_components
           i_mci = pcm%i_mci(i)
           if (i_mci > 0) then
              select case (pcm%component_type(i))
              case (COMP_REAL_FIN)
                 mci_entry(i_mci)%real_partition_type = REAL_FINITE
              case default
                 mci_entry(i_mci)%real_partition_type = REAL_SINGULAR
              end select
           end if
        end do
     end if
   end subroutine pcm_nlo_setup_mci
 
   module subroutine pcm_nlo_call_dispatch_mci (pcm, &
        dispatch_mci, var_list, process_id, mci_template)
     class(pcm_nlo_t), intent(inout) :: pcm
     procedure(dispatch_mci_proc) :: dispatch_mci
     type(var_list_t), intent(in) :: var_list
     type(string_t), intent(in) :: process_id
     class(mci_t), allocatable, intent(out) :: mci_template
     call dispatch_mci (mci_template, var_list, process_id, is_nlo = .true.)
   end subroutine pcm_nlo_call_dispatch_mci
 
 @ %def pcm_nlo_setup_mci
 @ %def pcm_nlo_call_dispatch_mci
 @ Check for a threshold core and adjust the configuration accordingly, before
 singular region data are considered.
 <<PCM: pcm nlo: TBP>>=
   procedure :: handle_threshold_core => pcm_nlo_handle_threshold_core
 <<PCM: sub interfaces>>=
     module subroutine pcm_nlo_handle_threshold_core (pcm, core_entry)
       class(pcm_nlo_t), intent(inout) :: pcm
       type(core_entry_t), dimension(:), intent(in) :: core_entry
     end subroutine pcm_nlo_handle_threshold_core
 <<PCM: procedures>>=
   module subroutine pcm_nlo_handle_threshold_core (pcm, core_entry)
     class(pcm_nlo_t), intent(inout) :: pcm
     type(core_entry_t), dimension(:), intent(in) :: core_entry
     integer :: i
     do i = 1, size (core_entry)
        select type (core => core_entry(i)%core_def)
        type is (threshold_def_t)
           pcm%settings%factorization_mode = FACTORIZATION_THRESHOLD
           return
        end select
     end do
   end subroutine pcm_nlo_handle_threshold_core
 
 @ %def pcm_nlo_handle_threshold_core
 @ Configure the singular-region tables based on the process data for the Born
 and Real (singular) cores, using also the appropriate FKS phase-space
 configuration object.
 
 In passing, we may create a table of resonance histories that are relevant for
 the singular-region configuration.
 
 TODO wk 2018: check whether [[phs_entry]] needs to be intent(inout).
 <<PCM: pcm nlo: TBP>>=
   procedure :: setup_region_data => pcm_nlo_setup_region_data
 <<PCM: sub interfaces>>=
     module subroutine pcm_nlo_setup_region_data &
          (pcm, core_entry, phs_config, model, alpha_power, alphas_power)
       class(pcm_nlo_t), intent(inout) :: pcm
       type(core_entry_t), dimension(:), intent(in) :: core_entry
       class(phs_config_t), intent(inout) :: phs_config
       type(model_t), intent(in), target :: model
       integer, intent(in) :: alpha_power, alphas_power
     end subroutine pcm_nlo_setup_region_data
 <<PCM: procedures>>=
   module subroutine pcm_nlo_setup_region_data &
        (pcm, core_entry, phs_config, model, alpha_power, alphas_power)
     class(pcm_nlo_t), intent(inout) :: pcm
     type(core_entry_t), dimension(:), intent(in) :: core_entry
     class(phs_config_t), intent(inout) :: phs_config
     type(model_t), intent(in), target :: model
     integer, intent(in) :: alpha_power, alphas_power
     type(process_constants_t) :: data_born, data_real
     integer, dimension (:,:), allocatable :: flavor_born, flavor_real
     type(resonance_history_t), dimension(:), allocatable :: resonance_histories
     type(var_list_t), pointer :: var_list
     logical :: success
     data_born = core_entry(pcm%i_core(pcm%i_born))%core%data
     data_real = core_entry(pcm%i_core(pcm%i_real))%core%data
     call data_born%get_flv_state (flavor_born)
     call data_real%get_flv_state (flavor_real)
     call pcm%region_data%init &
          (data_born%n_in, model, flavor_born, flavor_real, &
          pcm%settings%nlo_correction_type, alpha_power, alphas_power)
     associate (template => pcm%settings%fks_template)
       if (template%mapping_type == FKS_RESONANCES) then
          select type (phs_config)
          type is (phs_fks_config_t)
             call get_filtered_resonance_histories (phs_config, &
                  data_born%n_in, flavor_born, model, &
                  template%excluded_resonances, &
                  resonance_histories, success)
          end select
          if (.not. success) template%mapping_type = FKS_DEFAULT
       end if
       call pcm%region_data%setup_fks_mappings (template, data_born%n_in)
 !!! Check again, mapping_type might have changed
       if (template%mapping_type == FKS_RESONANCES) then
          call pcm%region_data%set_resonance_mappings (resonance_histories)
          call pcm%region_data%init_resonance_information ()
          pcm%settings%use_resonance_mappings = .true.
       end if
     end associate
     if (pcm%settings%factorization_mode == FACTORIZATION_THRESHOLD) then
        call pcm%region_data%set_isr_pseudo_regions ()
        call pcm%region_data%split_up_interference_regions_for_threshold ()
     end if
     call pcm%region_data%compute_number_of_phase_spaces ()
     call pcm%region_data%set_i_phs_to_i_con ()
     call pcm%region_data%write_to_file &
          (pcm%id, pcm%vis_fks_regions, pcm%os_data)
     if (debug_active (D_SUBTRACTION)) &
          call pcm%region_data%check_consistency (.true.)
   end subroutine pcm_nlo_setup_region_data
 
 @ %def pcm_nlo_setup_region_data
 @ After region data are set up, we allocate and configure the
 [[real_partition]] objects, if requested.
 Gfortran 7/8/9 bug, has to remain in the main module:
 <<PCM: pcm nlo: TBP>>=
   procedure :: setup_real_partition => pcm_nlo_setup_real_partition
 <<PCM: main procedures>>=
   subroutine pcm_nlo_setup_real_partition (pcm)
     class(pcm_nlo_t), intent(inout) :: pcm
     if (pcm%use_real_partition) then
        if (.not. allocated (pcm%real_partition)) then
           allocate (real_partition_fixed_order_t :: pcm%real_partition)
           select type (partition => pcm%real_partition)
           type is (real_partition_fixed_order_t)
              call pcm%region_data%get_all_ftuples (partition%fks_pairs)
              partition%scale = pcm%real_partition_scale
           end select
        end if
     end if
   end subroutine pcm_nlo_setup_real_partition
 
 @ %def pcm_nlo_setup_real_partition
 @
 Initialize a single component.  We require all process-configuration blocks,
 and specific templates for the phase-space and integrator configuration.
 
 We also provide the current component index [[i]] and the [[active]] flag.
 For a subtraction component, the [[active]] flag is overridden.
 
 In the nlo mode, the component types have been determined before.
 
 TODO wk 2018: the component type need not be stored in the component; we may remove
 this when everything is controlled by [[pcm]].
 <<PCM: pcm nlo: TBP>>=
   procedure :: init_component => pcm_nlo_init_component
 <<PCM: sub interfaces>>=
     module subroutine pcm_nlo_init_component (pcm, component, i, active, &
          phs_config, env, meta, config)
       class(pcm_nlo_t), intent(in) :: pcm
       type(process_component_t), intent(out) :: component
       integer, intent(in) :: i
       logical, intent(in) :: active
       class(phs_config_t), allocatable, intent(in) :: phs_config
       type(process_environment_t), intent(in) :: env
       type(process_metadata_t), intent(in) :: meta
       type(process_config_data_t), intent(in) :: config
     end subroutine pcm_nlo_init_component
 <<PCM: procedures>>=
   module subroutine pcm_nlo_init_component (pcm, component, i, active, &
        phs_config, env, meta, config)
     class(pcm_nlo_t), intent(in) :: pcm
     type(process_component_t), intent(out) :: component
     integer, intent(in) :: i
     logical, intent(in) :: active
     class(phs_config_t), allocatable, intent(in) :: phs_config
     type(process_environment_t), intent(in) :: env
     type(process_metadata_t), intent(in) :: meta
     type(process_config_data_t), intent(in) :: config
     logical :: activate
     select case (pcm%nlo_type(i))
     case default;            activate = active
     case (NLO_SUBTRACTION);  activate = .false.
     end select
     call component%init (i, &
          env, meta, config, &
          activate, &
          phs_config)
     component%component_type = pcm%component_type(i)
   end subroutine pcm_nlo_init_component
 
 @ %def pcm_nlo_init_component
 @
 Override the base method: record the active components in the PCM object, and
 report inactive components (except for the subtraction component).
 <<PCM: pcm nlo: TBP>>=
   procedure :: record_inactive_components => pcm_nlo_record_inactive_components
 <<PCM: sub interfaces>>=
     module subroutine pcm_nlo_record_inactive_components (pcm, component, meta)
       class(pcm_nlo_t), intent(inout) :: pcm
       type(process_component_t), dimension(:), intent(in) :: component
       type(process_metadata_t), intent(inout) :: meta
     end subroutine pcm_nlo_record_inactive_components
 <<PCM: procedures>>=
   module subroutine pcm_nlo_record_inactive_components (pcm, component, meta)
     class(pcm_nlo_t), intent(inout) :: pcm
     type(process_component_t), dimension(:), intent(in) :: component
     type(process_metadata_t), intent(inout) :: meta
     integer :: i
     pcm%component_active = component%active
     do i = 1, pcm%n_components
        select case (pcm%nlo_type(i))
        case (NLO_SUBTRACTION)
        case default
           if (.not. component(i)%active)  call meta%deactivate_component (i)
        end select
     end do
   end subroutine pcm_nlo_record_inactive_components
 
 @ %def pcm_nlo_record_inactive_components
 @
 <<PCM: pcm nlo: TBP>>=
   procedure :: core_is_radiation => pcm_nlo_core_is_radiation
 <<PCM: sub interfaces>>=
     module function pcm_nlo_core_is_radiation (pcm, i_core) result (is_rad)
       logical :: is_rad
       class(pcm_nlo_t), intent(in) :: pcm
       integer, intent(in) :: i_core
     end function pcm_nlo_core_is_radiation
 <<PCM: procedures>>=
   module function pcm_nlo_core_is_radiation (pcm, i_core) result (is_rad)
     logical :: is_rad
     class(pcm_nlo_t), intent(in) :: pcm
     integer, intent(in) :: i_core
     is_rad = pcm%nlo_type(i_core) == NLO_REAL ! .and. .not. pcm%cm%sub(i_core)
   end function pcm_nlo_core_is_radiation
 
 @ %def pcm_nlo_core_is_radiation
 @
 <<PCM: pcm nlo: TBP>>=
   procedure :: get_n_flv_born => pcm_nlo_get_n_flv_born
 <<PCM: sub interfaces>>=
     module function pcm_nlo_get_n_flv_born (pcm_nlo) result (n_flv)
       integer :: n_flv
       class(pcm_nlo_t), intent(in) :: pcm_nlo
     end function pcm_nlo_get_n_flv_born
 <<PCM: procedures>>=
   module function pcm_nlo_get_n_flv_born (pcm_nlo) result (n_flv)
     integer :: n_flv
     class(pcm_nlo_t), intent(in) :: pcm_nlo
     n_flv = pcm_nlo%region_data%n_flv_born
   end function pcm_nlo_get_n_flv_born
 
 @ %def pcm_nlo_get_n_flv_born
 @
 <<PCM: pcm nlo: TBP>>=
   procedure :: get_n_flv_real => pcm_nlo_get_n_flv_real
 <<PCM: sub interfaces>>=
     module function pcm_nlo_get_n_flv_real (pcm_nlo) result (n_flv)
       integer :: n_flv
       class(pcm_nlo_t), intent(in) :: pcm_nlo
     end function pcm_nlo_get_n_flv_real
 <<PCM: procedures>>=
   module function pcm_nlo_get_n_flv_real (pcm_nlo) result (n_flv)
     integer :: n_flv
     class(pcm_nlo_t), intent(in) :: pcm_nlo
     n_flv = pcm_nlo%region_data%n_flv_real
   end function pcm_nlo_get_n_flv_real
 
 @ %def pcm_nlo_get_n_flv_real
 @
 <<PCM: pcm nlo: TBP>>=
   procedure :: get_n_alr => pcm_nlo_get_n_alr
 <<PCM: sub interfaces>>=
     module function pcm_nlo_get_n_alr (pcm) result (n_alr)
       integer :: n_alr
       class(pcm_nlo_t), intent(in) :: pcm
     end function pcm_nlo_get_n_alr
 <<PCM: procedures>>=
   module function pcm_nlo_get_n_alr (pcm) result (n_alr)
     integer :: n_alr
     class(pcm_nlo_t), intent(in) :: pcm
     n_alr = pcm%region_data%n_regions
   end function pcm_nlo_get_n_alr
 
 @ %def pcm_nlo_get_n_alr
 @
 <<PCM: pcm nlo: TBP>>=
   procedure :: get_flv_states => pcm_nlo_get_flv_states
 <<PCM: sub interfaces>>=
     module function pcm_nlo_get_flv_states (pcm, born) result (flv)
       integer, dimension(:,:), allocatable :: flv
       class(pcm_nlo_t), intent(in) :: pcm
       logical, intent(in) :: born
     end function pcm_nlo_get_flv_states
 <<PCM: procedures>>=
   module function pcm_nlo_get_flv_states (pcm, born) result (flv)
     integer, dimension(:,:), allocatable :: flv
     class(pcm_nlo_t), intent(in) :: pcm
     logical, intent(in) :: born
     if (born) then
        flv = pcm%region_data%get_flv_states_born ()
     else
        flv = pcm%region_data%get_flv_states_real ()
     end if
   end function pcm_nlo_get_flv_states
 
 @ %def pcm_nlo_get_flv_states
 @
 <<PCM: pcm nlo: TBP>>=
   procedure :: get_qn => pcm_nlo_get_qn
 <<PCM: sub interfaces>>=
     module function pcm_nlo_get_qn (pcm, born) result (qn)
       type(quantum_numbers_t), dimension(:,:), allocatable :: qn
       class(pcm_nlo_t), intent(in) :: pcm
       logical, intent(in) :: born
     end function pcm_nlo_get_qn
 <<PCM: procedures>>=
   module function pcm_nlo_get_qn (pcm, born) result (qn)
     type(quantum_numbers_t), dimension(:,:), allocatable :: qn
     class(pcm_nlo_t), intent(in) :: pcm
     logical, intent(in) :: born
     if (born) then
        qn = pcm%qn_born
     else
        qn = pcm%qn_real
     end if
   end function pcm_nlo_get_qn
 
 @ %def pcm_nlo_get_qn
 @ Check if there are massive emitters. Since the mass-structure of all
 underlying Born configurations have to be the same (\textbf{This does
 not have to be the case when different components are generated at LO})
 , we just use the first one to determine this.
 <<PCM: pcm nlo: TBP>>=
   procedure :: has_massive_emitter => pcm_nlo_has_massive_emitter
 <<PCM: sub interfaces>>=
     module function pcm_nlo_has_massive_emitter (pcm) result (val)
       logical :: val
       class(pcm_nlo_t), intent(in) :: pcm
     end function pcm_nlo_has_massive_emitter
 <<PCM: procedures>>=
   module function pcm_nlo_has_massive_emitter (pcm) result (val)
     logical :: val
     class(pcm_nlo_t), intent(in) :: pcm
     integer :: i
     val = .false.
     associate (reg_data => pcm%region_data)
        do i = reg_data%n_in + 1, reg_data%n_legs_born
           if (any (i == reg_data%emitters)) &
              val = val .or. reg_data%flv_born(1)%massive(i)
        end do
     end associate
   end function pcm_nlo_has_massive_emitter
 
 @ %def pcm_nlo_has_massive_emitter
 @ Returns an array which specifies if the particle at position [[i]] is massive.
 <<PCM: pcm nlo: TBP>>=
   procedure :: get_mass_info => pcm_nlo_get_mass_info
 <<PCM: sub interfaces>>=
     module function pcm_nlo_get_mass_info (pcm, i_flv) result (massive)
       class(pcm_nlo_t), intent(in) :: pcm
       integer, intent(in) :: i_flv
       logical, dimension(:), allocatable :: massive
     end function pcm_nlo_get_mass_info
 <<PCM: procedures>>=
   module function pcm_nlo_get_mass_info (pcm, i_flv) result (massive)
     class(pcm_nlo_t), intent(in) :: pcm
     integer, intent(in) :: i_flv
     logical, dimension(:), allocatable :: massive
     allocate (massive (size (pcm%region_data%flv_born(i_flv)%massive)))
     massive = pcm%region_data%flv_born(i_flv)%massive
   end function pcm_nlo_get_mass_info
 
 @ %def pcm_nlo_get_mass_info
 @ Gfortran 7/8/9 bug, has to remain in the main module:
 <<PCM: pcm nlo: TBP>>=
   procedure :: allocate_workspace => pcm_nlo_allocate_workspace
 <<PCM: main procedures>>=
   subroutine pcm_nlo_allocate_workspace (pcm, work)
     class(pcm_nlo_t), intent(in) :: pcm
     class(pcm_workspace_t), intent(inout), allocatable :: work
     allocate (pcm_nlo_workspace_t :: work)
   end subroutine pcm_nlo_allocate_workspace
 
 @ %def pcm_nlo_allocate_workspace
 @
 <<PCM: pcm nlo: TBP>>=
   procedure :: init_qn => pcm_nlo_init_qn
 <<PCM: sub interfaces>>=
     module subroutine pcm_nlo_init_qn (pcm, model)
       class(pcm_nlo_t), intent(inout) :: pcm
       class(model_data_t), intent(in) :: model
     end subroutine pcm_nlo_init_qn
 <<PCM: procedures>>=
   module subroutine pcm_nlo_init_qn (pcm, model)
     class(pcm_nlo_t), intent(inout) :: pcm
     class(model_data_t), intent(in) :: model
     integer, dimension(:,:), allocatable :: flv_states
     type(flavor_t), dimension(:), allocatable :: flv
     integer :: i
     type(quantum_numbers_t), dimension(:), allocatable :: qn
     allocate (flv_states (pcm%region_data%n_legs_born, &
          pcm%region_data%n_flv_born))
     flv_states = pcm%get_flv_states (.true.)
     allocate (pcm%qn_born (size (flv_states, dim = 1), &
          size (flv_states, dim = 2)))
     allocate (flv (size (flv_states, dim = 1)))
     allocate (qn (size (flv_states, dim = 1)))
     do i = 1, pcm%get_n_flv_born ()
        call flv%init (flv_states (:,i), model)
        call qn%init (flv)
        pcm%qn_born(:,i) = qn
     end do
     deallocate (flv); deallocate (qn)
     deallocate (flv_states)
     allocate (flv_states (pcm%region_data%n_legs_real, pcm%region_data%n_flv_real))
     flv_states = pcm%get_flv_states (.false.)
     allocate (pcm%qn_real (size (flv_states, dim = 1), size (flv_states, dim = 2)))
     allocate (flv (size (flv_states, dim = 1)))
     allocate (qn (size (flv_states, dim = 1)))
     do i = 1, pcm%get_n_flv_real ()
        call flv%init (flv_states (:,i), model)
        call qn%init (flv)
        pcm%qn_real(:,i) = qn
     end do
   end subroutine pcm_nlo_init_qn
 
 @ %def pcm_nlo_init_qn
 @ Gfortran 7/8/9 bug, has to remain in the main module:
 <<PCM: pcm nlo: TBP>>=
   procedure :: allocate_ps_matching => pcm_nlo_allocate_ps_matching
 <<PCM: main procedures>>=
   subroutine pcm_nlo_allocate_ps_matching (pcm)
     class(pcm_nlo_t), intent(inout) :: pcm
     if (.not. allocated (pcm%real_partition)) then
        allocate (powheg_damping_simple_t :: pcm%real_partition)
     end if
   end subroutine pcm_nlo_allocate_ps_matching
 
 @ %def pcm_nlo_allocate_ps_matching
 @
 <<PCM: pcm nlo: TBP>>=
   procedure :: activate_dalitz_plot => pcm_nlo_activate_dalitz_plot
 <<PCM: sub interfaces>>=
     module subroutine pcm_nlo_activate_dalitz_plot (pcm, filename)
       class(pcm_nlo_t), intent(inout) :: pcm
       type(string_t), intent(in) :: filename
     end subroutine pcm_nlo_activate_dalitz_plot
 <<PCM: procedures>>=
   module subroutine pcm_nlo_activate_dalitz_plot (pcm, filename)
     class(pcm_nlo_t), intent(inout) :: pcm
     type(string_t), intent(in) :: filename
     call pcm%dalitz_plot%init (free_unit (), filename, .false.)
     call pcm%dalitz_plot%write_header ()
   end subroutine pcm_nlo_activate_dalitz_plot
 
 @ %def pcm_nlo_activate_dalitz_plot
 @
 <<PCM: pcm nlo: TBP>>=
   procedure :: register_dalitz_plot => pcm_nlo_register_dalitz_plot
 <<PCM: sub interfaces>>=
     module subroutine pcm_nlo_register_dalitz_plot (pcm, emitter, p)
       class(pcm_nlo_t), intent(inout) :: pcm
       integer, intent(in) :: emitter
       type(vector4_t), intent(in), dimension(:) :: p
     end subroutine pcm_nlo_register_dalitz_plot
 <<PCM: procedures>>=
   module subroutine pcm_nlo_register_dalitz_plot (pcm, emitter, p)
     class(pcm_nlo_t), intent(inout) :: pcm
     integer, intent(in) :: emitter
     type(vector4_t), intent(in), dimension(:) :: p
     real(default) :: k0_n, k0_np1
     k0_n = p(emitter)%p(0)
     k0_np1 = p(size(p))%p(0)
     call pcm%dalitz_plot%register (k0_n, k0_np1)
   end subroutine pcm_nlo_register_dalitz_plot
 
 @ %def pcm_nlo_register_dalitz_plot
 @
 <<PCM: pcm nlo: TBP>>=
   procedure :: setup_phs_generator => pcm_nlo_setup_phs_generator
 <<PCM: sub interfaces>>=
     module subroutine pcm_nlo_setup_phs_generator (pcm, pcm_work, generator, &
        sqrts, mode, singular_jacobian)
       class(pcm_nlo_t), intent(in) :: pcm
       type(phs_fks_generator_t), intent(inout) :: generator
       type(pcm_nlo_workspace_t), intent(in), target :: pcm_work
       real(default), intent(in) :: sqrts
       integer, intent(in), optional:: mode
       logical, intent(in), optional :: singular_jacobian
     end subroutine pcm_nlo_setup_phs_generator
 <<PCM: procedures>>=
   module subroutine pcm_nlo_setup_phs_generator (pcm, pcm_work, generator, &
      sqrts, mode, singular_jacobian)
     class(pcm_nlo_t), intent(in) :: pcm
     type(phs_fks_generator_t), intent(inout) :: generator
     type(pcm_nlo_workspace_t), intent(in), target :: pcm_work
     real(default), intent(in) :: sqrts
     integer, intent(in), optional:: mode
     logical, intent(in), optional :: singular_jacobian
     logical :: yorn
     yorn = .false.; if (present (singular_jacobian)) yorn = singular_jacobian
     call generator%connect_kinematics (pcm_work%isr_kinematics, &
          pcm_work%real_kinematics, pcm%has_massive_emitter ())
     generator%n_in = pcm%region_data%n_in
     call generator%set_sqrts_hat (sqrts)
     call generator%set_emitters (pcm%region_data%emitters)
     call generator%setup_masses (pcm%region_data%n_legs_born)
     generator%is_massive = pcm%get_mass_info (1)
     generator%singular_jacobian = yorn
     if (present (mode)) generator%mode = mode
     call generator%set_xi_and_y_bounds (pcm%settings%fks_template%xi_min, &
          pcm%settings%fks_template%y_max)
   end subroutine pcm_nlo_setup_phs_generator
 
 @ %def pcm_nlo_setup_phs_generator
 @
 <<PCM: pcm nlo: TBP>>=
   procedure :: final => pcm_nlo_final
 <<PCM: sub interfaces>>=
     module subroutine pcm_nlo_final (pcm)
       class(pcm_nlo_t), intent(inout) :: pcm
     end subroutine pcm_nlo_final
 <<PCM: procedures>>=
   module subroutine pcm_nlo_final (pcm)
     class(pcm_nlo_t), intent(inout) :: pcm
     if (allocated (pcm%real_partition)) deallocate (pcm%real_partition)
     call pcm%dalitz_plot%final ()
   end subroutine pcm_nlo_final
 
 @ %def pcm_nlo_final
 @
 <<PCM: pcm nlo: TBP>>=
   procedure :: is_nlo => pcm_nlo_is_nlo
 <<PCM: sub interfaces>>=
     module function pcm_nlo_is_nlo (pcm) result (is_nlo)
       logical :: is_nlo
       class(pcm_nlo_t), intent(in) :: pcm
     end function pcm_nlo_is_nlo
 <<PCM: procedures>>=
   module function pcm_nlo_is_nlo (pcm) result (is_nlo)
     logical :: is_nlo
     class(pcm_nlo_t), intent(in) :: pcm
     is_nlo = .true.
   end function pcm_nlo_is_nlo
 
 @ %def pcm_nlo_is_nlo
 @ As a first implementation, it acts as a wrapper for the NLO controller
 object and the squared matrix-element collector.
 <<PCM: public>>=
   public :: pcm_nlo_workspace_t
 <<PCM: types>>=
   type, extends (pcm_workspace_t) :: pcm_nlo_workspace_t
      type(real_kinematics_t), pointer :: real_kinematics => null ()
      type(isr_kinematics_t), pointer :: isr_kinematics => null ()
      type(real_subtraction_t) :: real_sub
      type(virtual_t) :: virtual
      type(soft_mismatch_t) :: soft_mismatch
      type(dglap_remnant_t) :: dglap_remnant
      integer, dimension(:), allocatable :: i_mci_to_real_component
   contains
   <<PCM: pcm instance: TBP>>
   end type pcm_nlo_workspace_t
 
 @ %def pcm_nlo_workspace_t
 @
 <<PCM: pcm instance: TBP>>=
   procedure :: set_radiation_event => pcm_nlo_workspace_set_radiation_event
   procedure :: set_subtraction_event => pcm_nlo_workspace_set_subtraction_event
 <<PCM: sub interfaces>>=
     module subroutine pcm_nlo_workspace_set_radiation_event (pcm_work)
       class(pcm_nlo_workspace_t), intent(inout) :: pcm_work
     end subroutine pcm_nlo_workspace_set_radiation_event
     module subroutine pcm_nlo_workspace_set_subtraction_event (pcm_work)
       class(pcm_nlo_workspace_t), intent(inout) :: pcm_work
     end subroutine pcm_nlo_workspace_set_subtraction_event
 <<PCM: procedures>>=
   module subroutine pcm_nlo_workspace_set_radiation_event (pcm_work)
     class(pcm_nlo_workspace_t), intent(inout) :: pcm_work
     pcm_work%real_sub%radiation_event = .true.
     pcm_work%real_sub%subtraction_event = .false.
   end subroutine pcm_nlo_workspace_set_radiation_event
 
   module subroutine pcm_nlo_workspace_set_subtraction_event (pcm_work)
     class(pcm_nlo_workspace_t), intent(inout) :: pcm_work
     pcm_work%real_sub%radiation_event = .false.
     pcm_work%real_sub%subtraction_event = .true.
   end subroutine pcm_nlo_workspace_set_subtraction_event
 
 @ %def pcm_nlo_workspace_set_radiation_event
 @ %def pcm_nlo_workspace_set_subtraction_event
 <<PCM: pcm instance: TBP>>=
   procedure :: disable_subtraction => pcm_nlo_workspace_disable_subtraction
 <<PCM: sub interfaces>>=
     module subroutine pcm_nlo_workspace_disable_subtraction (pcm_work)
       class(pcm_nlo_workspace_t), intent(inout) :: pcm_work
     end subroutine pcm_nlo_workspace_disable_subtraction
 <<PCM: procedures>>=
   module subroutine pcm_nlo_workspace_disable_subtraction (pcm_work)
     class(pcm_nlo_workspace_t), intent(inout) :: pcm_work
     pcm_work%real_sub%subtraction_deactivated = .true.
   end subroutine pcm_nlo_workspace_disable_subtraction
 
 @ %def pcm_nlo_workspace_disable_subtraction
 @
 <<PCM: pcm instance: TBP>>=
   procedure :: init_config => pcm_nlo_workspace_init_config
 <<PCM: sub interfaces>>=
     module subroutine pcm_nlo_workspace_init_config (pcm_work, pcm, &
          active_components, nlo_types, energy, i_real_fin, model)
       class(pcm_nlo_workspace_t), intent(inout) :: pcm_work
       class(pcm_t), intent(in) :: pcm
       logical, intent(in), dimension(:) :: active_components
       integer, intent(in), dimension(:) :: nlo_types
       real(default), intent(in), dimension(:) :: energy
       integer, intent(in) :: i_real_fin
       class(model_data_t), intent(in) :: model
     end subroutine pcm_nlo_workspace_init_config
 <<PCM: procedures>>=
   module subroutine pcm_nlo_workspace_init_config (pcm_work, pcm, &
        active_components, nlo_types, energy, i_real_fin, model)
     class(pcm_nlo_workspace_t), intent(inout) :: pcm_work
     class(pcm_t), intent(in) :: pcm
     logical, intent(in), dimension(:) :: active_components
     integer, intent(in), dimension(:) :: nlo_types
     real(default), intent(in), dimension(:) :: energy
     integer, intent(in) :: i_real_fin
     class(model_data_t), intent(in) :: model
     integer :: i_component
     if (debug_on) call msg_debug (D_PROCESS_INTEGRATION, &
          "pcm_nlo_workspace_init_config")
     call pcm_work%init_real_and_isr_kinematics (pcm, energy)
     select type (pcm)
     type is (pcm_nlo_t)
        do i_component = 1, size (active_components)
           if (active_components(i_component) .or. &
                pcm%settings%combined_integration) then
              select case (nlo_types(i_component))
              case (NLO_REAL)
                 if (i_component /= i_real_fin) then
                    call pcm_work%setup_real_component (pcm, &
                         pcm%settings%fks_template%subtraction_disabled)
                 end if
              case (NLO_VIRTUAL)
                 call pcm_work%init_virtual (pcm, model)
              case (NLO_MISMATCH)
                 call pcm_work%init_soft_mismatch (pcm)
              case (NLO_DGLAP)
                 call pcm_work%init_dglap_remnant (pcm)
              end select
           end if
        end do
     end select
   end subroutine pcm_nlo_workspace_init_config
 
 @ %def pcm_nlo_workspace_init_config
 @
 <<PCM: pcm instance: TBP>>=
   procedure :: setup_real_component => pcm_nlo_workspace_setup_real_component
 <<PCM: sub interfaces>>=
     module subroutine pcm_nlo_workspace_setup_real_component (pcm_work, pcm, &
        subtraction_disabled)
       class(pcm_nlo_workspace_t), intent(inout), target :: pcm_work
       class(pcm_t), intent(in) :: pcm
       logical, intent(in) :: subtraction_disabled
     end subroutine pcm_nlo_workspace_setup_real_component
 <<PCM: procedures>>=
   module subroutine pcm_nlo_workspace_setup_real_component (pcm_work, pcm, &
      subtraction_disabled)
     class(pcm_nlo_workspace_t), intent(inout), target :: pcm_work
     class(pcm_t), intent(in) :: pcm
     logical, intent(in) :: subtraction_disabled
     select type (pcm)
     type is (pcm_nlo_t)
        call pcm_work%init_real_subtraction (pcm)
        if (subtraction_disabled)  call pcm_work%disable_subtraction ()
     end select
   end subroutine pcm_nlo_workspace_setup_real_component
 
 @ %def pcm_nlo_workspace_setup_real_component
 @
 <<PCM: pcm instance: TBP>>=
   procedure :: init_real_and_isr_kinematics => &
        pcm_nlo_workspace_init_real_and_isr_kinematics
 <<PCM: sub interfaces>>=
     module subroutine pcm_nlo_workspace_init_real_and_isr_kinematics &
          (pcm_work, pcm, energy)
       class(pcm_nlo_workspace_t), intent(inout) :: pcm_work
       class(pcm_t), intent(in) :: pcm
       real(default), dimension(:), intent(in) :: energy
     end subroutine pcm_nlo_workspace_init_real_and_isr_kinematics
 <<PCM: procedures>>=
   module subroutine pcm_nlo_workspace_init_real_and_isr_kinematics &
        (pcm_work, pcm, energy)
     class(pcm_nlo_workspace_t), intent(inout) :: pcm_work
     class(pcm_t), intent(in) :: pcm
     real(default), dimension(:), intent(in) :: energy
     integer :: n_contr
     allocate (pcm_work%real_kinematics)
     allocate (pcm_work%isr_kinematics)
     select type (pcm)
     type is (pcm_nlo_t)
        associate (region_data => pcm%region_data)
           if (allocated (region_data%alr_contributors)) then
              n_contr = size (region_data%alr_contributors)
           else if (pcm%settings%factorization_mode == FACTORIZATION_THRESHOLD) then
              n_contr = 2
           else
              n_contr = 1
           end if
           call pcm_work%real_kinematics%init &
                (region_data%n_legs_real, region_data%n_phs, &
                region_data%n_regions, n_contr)
           if (pcm%settings%factorization_mode == FACTORIZATION_THRESHOLD) &
              call pcm_work%real_kinematics%init_onshell &
                   (region_data%n_legs_real, region_data%n_phs)
           pcm_work%isr_kinematics%n_in = region_data%n_in
        end associate
     end select
     pcm_work%isr_kinematics%beam_energy = energy
   end subroutine pcm_nlo_workspace_init_real_and_isr_kinematics
 
 @ %def pcm_nlo_workspace_init_real_and_isr_kinematics
 @
 <<PCM: pcm instance: TBP>>=
   procedure :: set_real_and_isr_kinematics => &
       pcm_nlo_workspace_set_real_and_isr_kinematics
 <<PCM: sub interfaces>>=
     module subroutine pcm_nlo_workspace_set_real_and_isr_kinematics &
          (pcm_work, phs_identifiers, sqrts)
       class(pcm_nlo_workspace_t), intent(inout), target :: pcm_work
       type(phs_identifier_t), intent(in), dimension(:) :: phs_identifiers
       real(default), intent(in) :: sqrts
     end subroutine pcm_nlo_workspace_set_real_and_isr_kinematics
 <<PCM: procedures>>=
   module subroutine pcm_nlo_workspace_set_real_and_isr_kinematics &
        (pcm_work, phs_identifiers, sqrts)
     class(pcm_nlo_workspace_t), intent(inout), target :: pcm_work
     type(phs_identifier_t), intent(in), dimension(:) :: phs_identifiers
     real(default), intent(in) :: sqrts
     call pcm_work%real_sub%set_real_kinematics &
          (pcm_work%real_kinematics)
     call pcm_work%real_sub%set_isr_kinematics &
          (pcm_work%isr_kinematics)
   end subroutine pcm_nlo_workspace_set_real_and_isr_kinematics
 
 @ %def pcm_nlo_workspace_set_real_and_isr_kinematics
 @
 <<PCM: pcm instance: TBP>>=
   procedure :: init_real_subtraction => pcm_nlo_workspace_init_real_subtraction
 <<PCM: sub interfaces>>=
     module subroutine pcm_nlo_workspace_init_real_subtraction (pcm_work, pcm)
       class(pcm_nlo_workspace_t), intent(inout), target :: pcm_work
       class(pcm_t), intent(in) :: pcm
     end subroutine pcm_nlo_workspace_init_real_subtraction
 <<PCM: procedures>>=
   module subroutine pcm_nlo_workspace_init_real_subtraction (pcm_work, pcm)
     class(pcm_nlo_workspace_t), intent(inout), target :: pcm_work
     class(pcm_t), intent(in) :: pcm
     select type (pcm)
     type is (pcm_nlo_t)
        associate (region_data => pcm%region_data)
           call pcm_work%real_sub%init (region_data, pcm%settings)
           if (allocated (pcm%settings%selected_alr)) then
               associate (selected_alr => pcm%settings%selected_alr)
                 if (any (selected_alr < 0)) then
                    call msg_fatal ("Fixed alpha region must be non-negative!")
                 else if (any (selected_alr > region_data%n_regions)) then
                    call msg_fatal ("Fixed alpha region is larger than the"&
                         &" total number of singular regions!")
                 else
                    allocate (pcm_work%real_sub%selected_alr &
                         (size (selected_alr)))
                    pcm_work%real_sub%selected_alr = selected_alr
                 end if
              end associate
           end if
        end associate
     end select
   end subroutine pcm_nlo_workspace_init_real_subtraction
 
 @ %def pcm_nlo_workspace_init_real_subtraction
 @
 <<PCM: pcm instance: TBP>>=
   procedure :: set_momenta_and_scales_virtual => &
      pcm_nlo_workspace_set_momenta_and_scales_virtual
 <<PCM: sub interfaces>>=
     module subroutine pcm_nlo_workspace_set_momenta_and_scales_virtual &
          (pcm_work, p, ren_scale, fac_scale, es_scale)
       class(pcm_nlo_workspace_t), intent(inout) :: pcm_work
       type(vector4_t), intent(in), dimension(:) :: p
       real(default), allocatable, intent(in) :: ren_scale
       real(default), intent(in) :: fac_scale
       real(default), allocatable, intent(in) :: es_scale
     end subroutine pcm_nlo_workspace_set_momenta_and_scales_virtual
 <<PCM: procedures>>=
   module subroutine pcm_nlo_workspace_set_momenta_and_scales_virtual &
        (pcm_work, p, ren_scale, fac_scale, es_scale)
     class(pcm_nlo_workspace_t), intent(inout) :: pcm_work
     type(vector4_t), intent(in), dimension(:) :: p
     real(default), allocatable, intent(in) :: ren_scale
     real(default), intent(in) :: fac_scale
     real(default), allocatable, intent(in) :: es_scale
     associate (virtual => pcm_work%virtual)
       call virtual%set_ren_scale (ren_scale)
       call virtual%set_fac_scale (p, fac_scale)
       call virtual%set_ellis_sexton_scale (es_scale)
     end associate
   end subroutine pcm_nlo_workspace_set_momenta_and_scales_virtual
 
 @ %def pcm_nlo_workspace_set_momenta_and_scales_virtual
 @
 <<PCM: pcm instance: TBP>>=
   procedure :: set_fac_scale => pcm_nlo_workspace_set_fac_scale
 <<PCM: sub interfaces>>=
     module subroutine pcm_nlo_workspace_set_fac_scale (pcm_work, fac_scale)
       class(pcm_nlo_workspace_t), intent(inout) :: pcm_work
       real(default), intent(in) :: fac_scale
     end subroutine pcm_nlo_workspace_set_fac_scale
 <<PCM: procedures>>=
   module subroutine pcm_nlo_workspace_set_fac_scale (pcm_work, fac_scale)
     class(pcm_nlo_workspace_t), intent(inout) :: pcm_work
     real(default), intent(in) :: fac_scale
     pcm_work%isr_kinematics%fac_scale = fac_scale
   end subroutine pcm_nlo_workspace_set_fac_scale
 
 @ %def pcm_nlo_workspace_set_fac_scale
 @
 <<PCM: pcm instance: TBP>>=
   procedure :: set_momenta => pcm_nlo_workspace_set_momenta
 <<PCM: sub interfaces>>=
     module subroutine pcm_nlo_workspace_set_momenta (pcm_work, &
          p_born, p_real, i_phs, cms)
       class(pcm_nlo_workspace_t), intent(inout) :: pcm_work
       type(vector4_t), dimension(:), intent(in) :: p_born, p_real
       integer, intent(in) :: i_phs
       logical, intent(in), optional :: cms
     end subroutine pcm_nlo_workspace_set_momenta
 <<PCM: procedures>>=
   module subroutine pcm_nlo_workspace_set_momenta (pcm_work, &
        p_born, p_real, i_phs, cms)
     class(pcm_nlo_workspace_t), intent(inout) :: pcm_work
     type(vector4_t), dimension(:), intent(in) :: p_born, p_real
     integer, intent(in) :: i_phs
     logical, intent(in), optional :: cms
     logical :: yorn
     yorn = .false.; if (present (cms)) yorn = cms
     associate (kinematics => pcm_work%real_kinematics)
        if (yorn) then
           if (.not. kinematics%p_born_cms%initialized) &
                call kinematics%p_born_cms%init (size (p_born), 1)
           if (.not. kinematics%p_real_cms%initialized) &
                call kinematics%p_real_cms%init (size (p_real), 1)
           kinematics%p_born_cms%phs_point(1) = p_born
           kinematics%p_real_cms%phs_point(i_phs) = p_real
        else
           if (.not. kinematics%p_born_lab%initialized) &
                call kinematics%p_born_lab%init (size (p_born), 1)
           if (.not. kinematics%p_real_lab%initialized) &
                call kinematics%p_real_lab%init (size (p_real), 1)
           kinematics%p_born_lab%phs_point(1) = p_born
           kinematics%p_real_lab%phs_point(i_phs) = p_real
        end if
     end associate
   end subroutine pcm_nlo_workspace_set_momenta
 
 @ %def pcm_nlo_workspace_set_momenta
 @
 <<PCM: pcm instance: TBP>>=
   procedure :: get_momenta => pcm_nlo_workspace_get_momenta
 <<PCM: sub interfaces>>=
     module function pcm_nlo_workspace_get_momenta (pcm_work, pcm, &
          i_phs, born_phsp, cms) result (p)
       type(vector4_t), dimension(:), allocatable :: p
       class(pcm_nlo_workspace_t), intent(in) :: pcm_work
       class(pcm_t), intent(in) :: pcm
       integer, intent(in) :: i_phs
       logical, intent(in) :: born_phsp
       logical, intent(in), optional :: cms
     end function pcm_nlo_workspace_get_momenta
 <<PCM: procedures>>=
   module function pcm_nlo_workspace_get_momenta (pcm_work, pcm, &
        i_phs, born_phsp, cms) result (p)
     type(vector4_t), dimension(:), allocatable :: p
     class(pcm_nlo_workspace_t), intent(in) :: pcm_work
     class(pcm_t), intent(in) :: pcm
     integer, intent(in) :: i_phs
     logical, intent(in) :: born_phsp
     logical, intent(in), optional :: cms
     logical :: yorn
     yorn = .false.; if (present (cms)) yorn = cms
     select type (pcm)
     type is (pcm_nlo_t)
        if (born_phsp) then
           if (yorn) then
              p = pcm_work%real_kinematics%p_born_cms%phs_point(1)
           else
              p = pcm_work%real_kinematics%p_born_lab%phs_point(1)
           end if
        else
           if (yorn) then
              p = pcm_work%real_kinematics%p_real_cms%phs_point(i_phs)
           else
              p = pcm_work%real_kinematics%p_real_lab%phs_point(i_phs)
           end if
        end if
     end select
   end function pcm_nlo_workspace_get_momenta
 
 @ %def pcm_nlo_workspace_get_momenta
 @
 <<PCM: pcm instance: TBP>>=
   procedure :: get_xi_max => pcm_nlo_workspace_get_xi_max
 <<PCM: sub interfaces>>=
     module function pcm_nlo_workspace_get_xi_max (pcm_work, alr) result (xi_max)
       real(default) :: xi_max
       class(pcm_nlo_workspace_t), intent(in) :: pcm_work
       integer, intent(in) :: alr
     end function pcm_nlo_workspace_get_xi_max
 <<PCM: procedures>>=
   module function pcm_nlo_workspace_get_xi_max (pcm_work, alr) result (xi_max)
     real(default) :: xi_max
     class(pcm_nlo_workspace_t), intent(in) :: pcm_work
     integer, intent(in) :: alr
     integer :: i_phs
     i_phs = pcm_work%real_kinematics%alr_to_i_phs (alr)
     xi_max = pcm_work%real_kinematics%xi_max (i_phs)
   end function pcm_nlo_workspace_get_xi_max
 
 @ %def pcm_nlo_workspace_get_xi_max
 @
 <<PCM: pcm instance: TBP>>=
   procedure :: set_x_rad => pcm_nlo_workspace_set_x_rad
 <<PCM: sub interfaces>>=
     module subroutine pcm_nlo_workspace_set_x_rad (pcm_work, x_tot)
       class(pcm_nlo_workspace_t), intent(inout) :: pcm_work
       real(default), intent(in), dimension(:) :: x_tot
     end subroutine pcm_nlo_workspace_set_x_rad
 <<PCM: procedures>>=
   module subroutine pcm_nlo_workspace_set_x_rad (pcm_work, x_tot)
     class(pcm_nlo_workspace_t), intent(inout) :: pcm_work
     real(default), intent(in), dimension(:) :: x_tot
     integer :: n_par
     n_par = size (x_tot)
     if (n_par < 3) then
        pcm_work%real_kinematics%x_rad = zero
     else
        pcm_work%real_kinematics%x_rad = x_tot (n_par - 2 : n_par)
     end if
   end subroutine pcm_nlo_workspace_set_x_rad
 
 @ %def pcm_nlo_workspace_set_x_rad
 @
 <<PCM: pcm instance: TBP>>=
   procedure :: init_virtual => pcm_nlo_workspace_init_virtual
 <<PCM: sub interfaces>>=
     module subroutine pcm_nlo_workspace_init_virtual (pcm_work, pcm, model)
       class(pcm_nlo_workspace_t), intent(inout), target :: pcm_work
       class(pcm_t), intent(in) :: pcm
       class(model_data_t), intent(in) :: model
     end subroutine pcm_nlo_workspace_init_virtual
 <<PCM: procedures>>=
   module subroutine pcm_nlo_workspace_init_virtual (pcm_work, pcm, model)
     class(pcm_nlo_workspace_t), intent(inout), target :: pcm_work
     class(pcm_t), intent(in) :: pcm
     class(model_data_t), intent(in) :: model
     select type (pcm)
     type is (pcm_nlo_t)
        associate (region_data => pcm%region_data)
          call pcm_work%virtual%init (region_data%get_flv_states_born (), &
               region_data%n_in, pcm%settings, model, pcm%has_pdfs)
        end associate
     end select
   end subroutine pcm_nlo_workspace_init_virtual
 
 @ %def pcm_nlo_workspace_init_virtual
 @
 <<PCM: pcm instance: TBP>>=
   procedure :: disable_virtual_subtraction => &
        pcm_nlo_workspace_disable_virtual_subtraction
 <<PCM: sub interfaces>>=
     module subroutine pcm_nlo_workspace_disable_virtual_subtraction (pcm_work)
       class(pcm_nlo_workspace_t), intent(inout) :: pcm_work
     end subroutine pcm_nlo_workspace_disable_virtual_subtraction
 <<PCM: procedures>>=
   module subroutine pcm_nlo_workspace_disable_virtual_subtraction (pcm_work)
     class(pcm_nlo_workspace_t), intent(inout) :: pcm_work
   end subroutine pcm_nlo_workspace_disable_virtual_subtraction
 
 @ %def pcm_nlo_workspace_disable_virtual_subtraction
 @
 <<PCM: pcm instance: TBP>>=
   procedure :: compute_sqme_virt => pcm_nlo_workspace_compute_sqme_virt
 <<PCM: sub interfaces>>=
     module subroutine pcm_nlo_workspace_compute_sqme_virt (pcm_work, pcm, p, &
          alpha_coupling, separate_uborns, sqme_virt)
       class(pcm_nlo_workspace_t), intent(inout) :: pcm_work
       class(pcm_t), intent(in) :: pcm
       type(vector4_t), intent(in), dimension(:) :: p
       real(default), dimension(2), intent(in) :: alpha_coupling
       logical, intent(in) :: separate_uborns
       real(default), dimension(:), allocatable, intent(inout) :: sqme_virt
     end subroutine pcm_nlo_workspace_compute_sqme_virt
 <<PCM: procedures>>=
   module subroutine pcm_nlo_workspace_compute_sqme_virt (pcm_work, pcm, p, &
        alpha_coupling, separate_uborns, sqme_virt)
     class(pcm_nlo_workspace_t), intent(inout) :: pcm_work
     class(pcm_t), intent(in) :: pcm
     type(vector4_t), intent(in), dimension(:) :: p
     real(default), dimension(2), intent(in) :: alpha_coupling
     logical, intent(in) :: separate_uborns
     real(default), dimension(:), allocatable, intent(inout) :: sqme_virt
     type(vector4_t), dimension(:), allocatable :: pp
     associate (virtual => pcm_work%virtual)
        allocate (pp (size (p)))
        if (virtual%settings%factorization_mode == FACTORIZATION_THRESHOLD) then
           pp = pcm_work%real_kinematics%p_born_onshell%get_momenta (1)
        else
           pp = p
        end if
        select type (pcm)
        type is (pcm_nlo_t)
           if (separate_uborns) then
              allocate (sqme_virt (pcm%get_n_flv_born ()))
           else
              allocate (sqme_virt (1))
           end if
           sqme_virt = zero
           call virtual%evaluate (pcm%region_data, &
                alpha_coupling, pp, separate_uborns, sqme_virt)
        end select
     end associate
   end subroutine pcm_nlo_workspace_compute_sqme_virt
 
 @ %def pcm_nlo_workspace_compute_sqme_virt
 @
 <<PCM: pcm instance: TBP>>=
   procedure :: compute_sqme_mismatch => pcm_nlo_workspace_compute_sqme_mismatch
 <<PCM: sub interfaces>>=
     module subroutine pcm_nlo_workspace_compute_sqme_mismatch (pcm_work, pcm, &
          alpha_s, separate_uborns, sqme_mism)
       class(pcm_nlo_workspace_t), intent(inout) :: pcm_work
       class(pcm_t), intent(in) :: pcm
       real(default), intent(in) :: alpha_s
       logical, intent(in) :: separate_uborns
       real(default), dimension(:), allocatable, intent(inout) :: sqme_mism
     end subroutine pcm_nlo_workspace_compute_sqme_mismatch
 <<PCM: procedures>>=
   module subroutine pcm_nlo_workspace_compute_sqme_mismatch (pcm_work, pcm, &
        alpha_s, separate_uborns, sqme_mism)
     class(pcm_nlo_workspace_t), intent(inout) :: pcm_work
     class(pcm_t), intent(in) :: pcm
     real(default), intent(in) :: alpha_s
     logical, intent(in) :: separate_uborns
     real(default), dimension(:), allocatable, intent(inout) :: sqme_mism
     select type (pcm)
     type is (pcm_nlo_t)
        if (separate_uborns) then
           allocate (sqme_mism (pcm%get_n_flv_born ()))
        else
           allocate (sqme_mism (1))
        end if
        sqme_mism = zero
        sqme_mism = pcm_work%soft_mismatch%evaluate (alpha_s)
     end select
   end subroutine pcm_nlo_workspace_compute_sqme_mismatch
 
 @ %def pcm_nlo_workspace_compute_sqme_mismatch
 @
 <<PCM: pcm instance: TBP>>=
   procedure :: compute_sqme_dglap_remnant => &
        pcm_nlo_workspace_compute_sqme_dglap_remnant
 <<PCM: sub interfaces>>=
     module subroutine pcm_nlo_workspace_compute_sqme_dglap_remnant (pcm_work, &
          pcm, alpha_coupling, separate_uborns, sqme_dglap)
       class(pcm_nlo_workspace_t), intent(inout) :: pcm_work
       class(pcm_t), intent(in) :: pcm
       real(default), dimension(2), intent(in) :: alpha_coupling
       logical, intent(in) :: separate_uborns
       real(default), dimension(:), allocatable, intent(inout) :: sqme_dglap
     end subroutine pcm_nlo_workspace_compute_sqme_dglap_remnant
 <<PCM: procedures>>=
   module subroutine pcm_nlo_workspace_compute_sqme_dglap_remnant (pcm_work, &
        pcm, alpha_coupling, separate_uborns, sqme_dglap)
     class(pcm_nlo_workspace_t), intent(inout) :: pcm_work
     class(pcm_t), intent(in) :: pcm
     real(default), dimension(2), intent(in) :: alpha_coupling
     logical, intent(in) :: separate_uborns
     real(default), dimension(:), allocatable, intent(inout) :: sqme_dglap
     select type (pcm)
     type is (pcm_nlo_t)
        if (separate_uborns) then
           allocate (sqme_dglap (pcm%get_n_flv_born ()))
        else
           allocate (sqme_dglap (1))
        end if
     end select
     sqme_dglap = zero
     call pcm_work%dglap_remnant%evaluate (alpha_coupling, &
          separate_uborns, sqme_dglap)
   end subroutine pcm_nlo_workspace_compute_sqme_dglap_remnant
 
 @ %def pcm_nlo_workspace_compute_sqme_dglap_remnant
 @
 <<PCM: pcm instance: TBP>>=
   procedure :: set_fixed_order_event_mode => &
        pcm_nlo_workspace_set_fixed_order_event_mode
 <<PCM: sub interfaces>>=
     module subroutine pcm_nlo_workspace_set_fixed_order_event_mode (pcm_work)
       class(pcm_nlo_workspace_t), intent(inout) :: pcm_work
     end subroutine pcm_nlo_workspace_set_fixed_order_event_mode
 <<PCM: procedures>>=
   module subroutine pcm_nlo_workspace_set_fixed_order_event_mode (pcm_work)
     class(pcm_nlo_workspace_t), intent(inout) :: pcm_work
     pcm_work%real_sub%purpose = FIXED_ORDER_EVENTS
   end subroutine pcm_nlo_workspace_set_fixed_order_event_mode
 
 <<PCM: pcm instance: TBP>>=
   procedure :: set_powheg_mode => pcm_nlo_workspace_set_powheg_mode
 <<PCM: sub interfaces>>=
     module subroutine pcm_nlo_workspace_set_powheg_mode (pcm_work)
       class(pcm_nlo_workspace_t), intent(inout) :: pcm_work
     end subroutine pcm_nlo_workspace_set_powheg_mode
 <<PCM: procedures>>=
   module subroutine pcm_nlo_workspace_set_powheg_mode (pcm_work)
     class(pcm_nlo_workspace_t), intent(inout) :: pcm_work
     pcm_work%real_sub%purpose = POWHEG
   end subroutine pcm_nlo_workspace_set_powheg_mode
 
 @ %def pcm_nlo_workspace_set_fixed_order_event_mode
 @ %def pcm_nlo_workspace_set_powheg_mode
 @
 <<PCM: pcm instance: TBP>>=
   procedure :: init_soft_mismatch => pcm_nlo_workspace_init_soft_mismatch
 <<PCM: sub interfaces>>=
     module subroutine pcm_nlo_workspace_init_soft_mismatch (pcm_work, pcm)
       class(pcm_nlo_workspace_t), intent(inout) :: pcm_work
       class(pcm_t), intent(in) :: pcm
     end subroutine pcm_nlo_workspace_init_soft_mismatch
 <<PCM: procedures>>=
   module subroutine pcm_nlo_workspace_init_soft_mismatch (pcm_work, pcm)
     class(pcm_nlo_workspace_t), intent(inout) :: pcm_work
     class(pcm_t), intent(in) :: pcm
     select type (pcm)
     type is (pcm_nlo_t)
        call pcm_work%soft_mismatch%init (pcm%region_data, &
             pcm_work%real_kinematics, pcm%settings%factorization_mode)
     end select
   end subroutine pcm_nlo_workspace_init_soft_mismatch
 
 @ %def pcm_nlo_workspace_init_soft_mismatch
 @
 <<PCM: pcm instance: TBP>>=
   procedure :: init_dglap_remnant => pcm_nlo_workspace_init_dglap_remnant
 <<PCM: sub interfaces>>=
     module subroutine pcm_nlo_workspace_init_dglap_remnant (pcm_work, pcm)
       class(pcm_nlo_workspace_t), intent(inout) :: pcm_work
       class(pcm_t), intent(in) :: pcm
     end subroutine pcm_nlo_workspace_init_dglap_remnant
 <<PCM: procedures>>=
   module subroutine pcm_nlo_workspace_init_dglap_remnant (pcm_work, pcm)
     class(pcm_nlo_workspace_t), intent(inout) :: pcm_work
     class(pcm_t), intent(in) :: pcm
     select type (pcm)
     type is (pcm_nlo_t)
        call pcm_work%dglap_remnant%init ( &
             pcm%settings, &
             pcm%region_data, &
             pcm_work%isr_kinematics)
     end select
   end subroutine pcm_nlo_workspace_init_dglap_remnant
 
 @ %def pcm_nlo_workspace_init_dglap_remnant
 @
 <<PCM: pcm instance: TBP>>=
   procedure :: is_fixed_order_nlo_events &
        => pcm_nlo_workspace_is_fixed_order_nlo_events
 <<PCM: sub interfaces>>=
     module function pcm_nlo_workspace_is_fixed_order_nlo_events &
          (pcm_work) result (is_fnlo)
       logical :: is_fnlo
       class(pcm_nlo_workspace_t), intent(in) :: pcm_work
     end function pcm_nlo_workspace_is_fixed_order_nlo_events
 <<PCM: procedures>>=
   module function pcm_nlo_workspace_is_fixed_order_nlo_events &
        (pcm_work) result (is_fnlo)
     logical :: is_fnlo
     class(pcm_nlo_workspace_t), intent(in) :: pcm_work
     is_fnlo = pcm_work%real_sub%purpose == FIXED_ORDER_EVENTS
   end function pcm_nlo_workspace_is_fixed_order_nlo_events
 
 @ %def pcm_nlo_workspace_is_fixed_order_nlo_events
 @
 <<PCM: pcm instance: TBP>>=
   procedure :: final => pcm_nlo_workspace_final
 <<PCM: sub interfaces>>=
     module subroutine pcm_nlo_workspace_final (pcm_work)
       class(pcm_nlo_workspace_t), intent(inout) :: pcm_work
     end subroutine pcm_nlo_workspace_final
 <<PCM: procedures>>=
   module subroutine pcm_nlo_workspace_final (pcm_work)
     class(pcm_nlo_workspace_t), intent(inout) :: pcm_work
     call pcm_work%real_sub%final ()
     call pcm_work%virtual%final ()
     call pcm_work%soft_mismatch%final ()
     call pcm_work%dglap_remnant%final ()
     if (associated (pcm_work%real_kinematics)) then
        call pcm_work%real_kinematics%final ()
        nullify (pcm_work%real_kinematics)
     end if
     if (associated (pcm_work%isr_kinematics)) then
        nullify (pcm_work%isr_kinematics)
     end if
   end subroutine pcm_nlo_workspace_final
 
 @ %def pcm_nlo_workspace_final
 @
 <<PCM: pcm instance: TBP>>=
   procedure :: is_nlo => pcm_nlo_workspace_is_nlo
 <<PCM: sub interfaces>>=
     module function pcm_nlo_workspace_is_nlo (pcm_work) result (is_nlo)
       logical :: is_nlo
       class(pcm_nlo_workspace_t), intent(inout) :: pcm_work
     end function pcm_nlo_workspace_is_nlo
 <<PCM: procedures>>=
   module function pcm_nlo_workspace_is_nlo (pcm_work) result (is_nlo)
     logical :: is_nlo
     class(pcm_nlo_workspace_t), intent(inout) :: pcm_work
     is_nlo = .true.
   end function pcm_nlo_workspace_is_nlo
 
 @ %def pcm_nlo_workspace_is_nlo
 @
 %%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
 \section{Kinematics instance}
 In this data type we combine all objects (instances) necessary for
 generating (or recovering) a kinematical configuration.  The
 components work together as an implementation of multi-channel phase
 space.
 
 [[sf_chain]] is an instance of the structure-function chain.  It is
 used both for generating kinematics and, after the proper scale has
 been determined, evaluating the structure function entries.
 
 [[phs]] is an instance of the phase space for the elementary process.
 
 The array [[f]] contains the products of the Jacobians that originate
 from parameter mappings in the structure-function chain or in the
 phase space.  We allocate this explicitly if either [[sf_chain]] or
 [[phs]] are explicitly allocated, otherwise we can take over a pointer.
 
 All components are implemented as pointers to (anonymous) targets.
 For each component, there is a flag that tells whether this component
 is to be regarded as a proper component (`owned' by the object) or as
 a pointer.
 @
 <<[[kinematics.f90]]>>=
 <<File header>>
 
 module kinematics
 
 <<Use kinds>>
   use lorentz
   use physics_defs
   use sf_base
   use phs_base
   use fks_regions
   use mci_base
   use process_config
   use process_mci
   use pcm_base, only: pcm_t, pcm_workspace_t
   use pcm, only: pcm_nlo_t, pcm_nlo_workspace_t
 
 <<Standard module head>>
 
 <<Kinematics: public>>
 
 <<Kinematics: types>>
 
   interface
 <<Kinematics: sub interfaces>>
   end interface
 
 end module kinematics
 @ %def kinematics
 @
 <<[[kinematics_sub.f90]]>>=
 <<File header>>
 
 submodule (kinematics) kinematics_s
 
 <<Use debug>>
   use format_utils, only: write_separator
   use diagnostics
   use io_units
   use phs_points, only: assignment(=), size
   use interactions
   use phs_fks
   use ttv_formfactors, only: m1s_to_mpole
 
   implicit none
 
 contains
 
 <<Kinematics: procedures>>
 
 end submodule kinematics_s
 
 @ %def kinematics_s
 @
 <<Kinematics: public>>=
   public :: kinematics_t
 <<Kinematics: types>>=
   type :: kinematics_t
      integer :: n_in = 0
      integer :: n_channel = 0
      integer :: selected_channel = 0
      type(sf_chain_instance_t), pointer :: sf_chain => null ()
      class(phs_t), pointer :: phs => null ()
      real(default), dimension(:), pointer :: f => null ()
      real(default) :: phs_factor
      logical :: sf_chain_allocated = .false.
      logical :: phs_allocated = .false.
      logical :: f_allocated = .false.
      integer :: emitter = -1
      integer :: i_phs = 0
      integer :: i_con = 0
      logical :: only_cm_frame = .false.
      logical :: new_seed = .true.
      logical :: threshold = .false.
    contains
    <<Kinematics: kinematics: TBP>>
   end type kinematics_t
 
 @ %def kinematics_t
 @ Output.  Show only those components which are marked as owned.
 <<Kinematics: kinematics: TBP>>=
   procedure :: write => kinematics_write
 <<Kinematics: sub interfaces>>=
     module subroutine kinematics_write (object, unit)
       class(kinematics_t), intent(in) :: object
       integer, intent(in), optional :: unit
     end subroutine kinematics_write
 <<Kinematics: procedures>>=
   module subroutine kinematics_write (object, unit)
     class(kinematics_t), intent(in) :: object
     integer, intent(in), optional :: unit
     integer :: u, c
     u = given_output_unit (unit)
     if (object%f_allocated) then
        write (u, "(1x,A)")  "Flux * PHS volume:"
        write (u, "(2x,ES19.12)")  object%phs_factor
        write (u, "(1x,A)")  "Jacobian factors per channel:"
        do c = 1, size (object%f)
           write (u, "(3x,I0,':',1x,ES14.7)", advance="no")  c, object%f(c)
           if (c == object%selected_channel) then
              write (u, "(1x,A)")  "[selected]"
           else
              write (u, *)
           end if
        end do
     end if
     if (object%sf_chain_allocated) then
        call write_separator (u)
        call object%sf_chain%write (u)
     end if
     if (object%phs_allocated) then
        call write_separator (u)
        call object%phs%write (u)
     end if
   end subroutine kinematics_write
 
 @ %def kinematics_write
 @ Finalizer.  Delete only those components which are marked as owned.
 <<Kinematics: kinematics: TBP>>=
   procedure :: final => kinematics_final
 <<Kinematics: sub interfaces>>=
     module subroutine kinematics_final (object)
       class(kinematics_t), intent(inout) :: object
     end subroutine kinematics_final
 <<Kinematics: procedures>>=
   module subroutine kinematics_final (object)
     class(kinematics_t), intent(inout) :: object
     if (object%sf_chain_allocated) then
        call object%sf_chain%final ()
        deallocate (object%sf_chain)
        object%sf_chain_allocated = .false.
     end if
     if (object%phs_allocated) then
        call object%phs%final ()
        deallocate (object%phs)
        object%phs_allocated = .false.
     end if
     if (object%f_allocated) then
        deallocate (object%f)
        object%f_allocated = .false.
     end if
   end subroutine kinematics_final
 
 @ %def kinematics_final
 @ Configure the kinematics object.  This consists of several
 configuration steps which correspond to individual procedures.  In
 essence, we configure the structure-function part, the partonic
 phase-space part, and various NLO items.
 
 TODO wk 19-03-01: This includes some region-data setup within [[pcm]],
 hence [[pcm]] is intent(inout).  This should be moved elsewhere, so
 [[pcm]] can become strictly intent(in).
 <<Kinematics: kinematics: TBP>>=
   procedure :: configure => kinematics_configure
 <<Kinematics: sub interfaces>>=
     module subroutine kinematics_configure (kin, pcm, pcm_work, &
          sf_chain, beam_config, phs_config, nlo_type, is_i_sub)
       class(kinematics_t), intent(out) :: kin
       class(pcm_t), intent(inout) :: pcm
       class(pcm_workspace_t), intent(in) :: pcm_work
       type(sf_chain_t), intent(in), target :: sf_chain
       type(process_beam_config_t), intent(in), target :: beam_config
       class(phs_config_t), intent(in), target :: phs_config
       integer, intent(in) :: nlo_type
       logical, intent(in) :: is_i_sub
     end subroutine kinematics_configure
 <<Kinematics: procedures>>=
   module subroutine kinematics_configure (kin, pcm, pcm_work, &
        sf_chain, beam_config, phs_config, nlo_type, is_i_sub)
     class(kinematics_t), intent(out) :: kin
     class(pcm_t), intent(inout) :: pcm
     class(pcm_workspace_t), intent(in) :: pcm_work
     type(sf_chain_t), intent(in), target :: sf_chain
     type(process_beam_config_t), intent(in), target :: beam_config
     class(phs_config_t), intent(in), target :: phs_config
     integer, intent(in) :: nlo_type
     logical, intent(in) :: is_i_sub
     logical :: extended_sf
     extended_sf = nlo_type == NLO_DGLAP .or. &
          (nlo_type == NLO_REAL .and. is_i_sub)
     call kin%init_sf_chain (sf_chain, beam_config, &
          extended_sf = pcm%has_pdfs .and. extended_sf)
     !!! Add one for additional Born matrix element
     call kin%init_phs (phs_config)
     call kin%set_nlo_info (nlo_type)
     select type (phs => kin%phs)
     type is (phs_fks_t)
        call phs%allocate_momenta (phs_config, .not. (nlo_type == NLO_REAL))
        select type (pcm)
        type is (pcm_nlo_t)
           call pcm%region_data%init_phs_identifiers (phs%phs_identifiers)
           !!! The triple select type pyramid of doom
           select type (pcm_work)
           type is (pcm_nlo_workspace_t)
              if (allocated (pcm_work%real_kinematics%alr_to_i_phs)) &
                   call pcm%region_data%set_alr_to_i_phs (phs%phs_identifiers, &
                        pcm_work%real_kinematics%alr_to_i_phs)
           end select
        end select
     end select
   end subroutine kinematics_configure
 
 @ %def kinematics_configure
 @ Set the flags indicating whether the phase space shall be set up for the calculation of the real contribution. For this case, also set the emitter.
 <<Kinematics: kinematics: TBP>>=
   procedure :: set_nlo_info => kinematics_set_nlo_info
 <<Kinematics: sub interfaces>>=
     module subroutine kinematics_set_nlo_info (k, nlo_type)
       class(kinematics_t), intent(inout) :: k
       integer, intent(in) :: nlo_type
     end subroutine kinematics_set_nlo_info
 <<Kinematics: procedures>>=
   module subroutine kinematics_set_nlo_info (k, nlo_type)
     class(kinematics_t), intent(inout) :: k
     integer, intent(in) :: nlo_type
     if (nlo_type == NLO_VIRTUAL)  k%only_cm_frame = .true.
   end subroutine kinematics_set_nlo_info
 
 @ %def kinematics_set_nlo_info
 @
 <<Kinematics: kinematics: TBP>>=
   procedure :: set_threshold => kinematics_set_threshold
 <<Kinematics: sub interfaces>>=
     module subroutine kinematics_set_threshold (kin, factorization_mode)
       class(kinematics_t), intent(inout) :: kin
       integer, intent(in) :: factorization_mode
     end subroutine kinematics_set_threshold  
 <<Kinematics: procedures>>=
   module subroutine kinematics_set_threshold (kin, factorization_mode)
     class(kinematics_t), intent(inout) :: kin
     integer, intent(in) :: factorization_mode
     kin%threshold = factorization_mode == FACTORIZATION_THRESHOLD
   end subroutine kinematics_set_threshold
 
 @ %def kinematics_set_threshold
 @ Allocate the structure-function chain instance, initialize it as a
 copy of the [[sf_chain]] template, and prepare it for evaluation.
 
 The [[sf_chain]] remains a target because the (usually constant) beam momenta
 are taken from there.
 <<Kinematics: kinematics: TBP>>=
   procedure :: init_sf_chain => kinematics_init_sf_chain
 <<Kinematics: sub interfaces>>=
     module subroutine kinematics_init_sf_chain &
          (k, sf_chain, config, extended_sf)
       class(kinematics_t), intent(inout) :: k
       type(sf_chain_t), intent(in), target :: sf_chain
       type(process_beam_config_t), intent(in) :: config
       logical, intent(in), optional :: extended_sf
     end subroutine kinematics_init_sf_chain
 <<Kinematics: procedures>>=
   module subroutine kinematics_init_sf_chain (k, sf_chain, config, extended_sf)
     class(kinematics_t), intent(inout) :: k
     type(sf_chain_t), intent(in), target :: sf_chain
     type(process_beam_config_t), intent(in) :: config
     logical, intent(in), optional :: extended_sf
     integer :: n_strfun, n_channel
     integer :: c
     k%n_in = config%data%get_n_in ()
     n_strfun = config%n_strfun
     n_channel = config%n_channel
     allocate (k%sf_chain)
     k%sf_chain_allocated = .true.
     call k%sf_chain%init (sf_chain, n_channel)
     if (n_strfun /= 0) then
        do c = 1, n_channel
           call k%sf_chain%set_channel (c, config%sf_channel(c))
        end do
     end if
     call k%sf_chain%link_interactions ()
     call k%sf_chain%exchange_mask ()
     call k%sf_chain%init_evaluators (extended_sf = extended_sf)
   end subroutine kinematics_init_sf_chain
 
 @ %def kinematics_init_sf_chain
 @ Allocate and initialize the phase-space part and the array of
 Jacobian factors.
 <<Kinematics: kinematics: TBP>>=
   procedure :: init_phs => kinematics_init_phs
 <<Kinematics: sub interfaces>>=
     module subroutine kinematics_init_phs (k, config)
       class(kinematics_t), intent(inout) :: k
       class(phs_config_t), intent(in), target :: config
     end subroutine kinematics_init_phs
 <<Kinematics: procedures>>=
   module subroutine kinematics_init_phs (k, config)
     class(kinematics_t), intent(inout) :: k
     class(phs_config_t), intent(in), target :: config
     k%n_channel = config%get_n_channel ()
     call config%allocate_instance (k%phs)
     call k%phs%init (config)
     k%phs_allocated = .true.
     allocate (k%f (k%n_channel))
     k%f = 0
     k%f_allocated = .true.
   end subroutine kinematics_init_phs
 
 @ %def kinematics_init_phs
 @
 <<Kinematics: kinematics: TBP>>=
   procedure :: evaluate_radiation_kinematics => &
        kinematics_evaluate_radiation_kinematics
 <<Kinematics: sub interfaces>>=
     module subroutine kinematics_evaluate_radiation_kinematics (k, r_in)
       class(kinematics_t), intent(inout) :: k
       real(default), intent(in), dimension(:) :: r_in
     end subroutine kinematics_evaluate_radiation_kinematics
 <<Kinematics: procedures>>=
   module subroutine kinematics_evaluate_radiation_kinematics (k, r_in)
     class(kinematics_t), intent(inout) :: k
     real(default), intent(in), dimension(:) :: r_in
     select type (phs => k%phs)
     type is (phs_fks_t)
        if (phs%mode == PHS_MODE_ADDITIONAL_PARTICLE) then
           call phs%generate_radiation_variables &
                (r_in(phs%n_r_born + 1 : phs%n_r_born + 3), &
                 threshold = k%threshold)
           call phs%compute_cms_energy ()
        end if
     end select
   end subroutine kinematics_evaluate_radiation_kinematics
 
 @ %def kinematics_evaluate_radiation_kinematics
 @
 <<Kinematics: kinematics: TBP>>=
   procedure :: generate_fsr_in => kinematics_generate_fsr_in
 <<Kinematics: sub interfaces>>=
     module subroutine kinematics_generate_fsr_in (kin)
       class(kinematics_t), intent(inout) :: kin
     end subroutine kinematics_generate_fsr_in
 <<Kinematics: procedures>>=
   module subroutine kinematics_generate_fsr_in (kin)
     class(kinematics_t), intent(inout) :: kin
     select type (phs => kin%phs)
     type is (phs_fks_t)
        call phs%generate_fsr_in ()
     end select
   end subroutine kinematics_generate_fsr_in
 
 @ %def kinematics_generate_fsr_in
 @
 <<Kinematics: kinematics: TBP>>=
   procedure :: compute_xi_ref_momenta => kinematics_compute_xi_ref_momenta
 <<Kinematics: sub interfaces>>=
     module subroutine kinematics_compute_xi_ref_momenta (k, reg_data, nlo_type)
       class(kinematics_t), intent(inout) :: k
       type(region_data_t), intent(in) :: reg_data
       integer, intent(in) :: nlo_type
     end subroutine kinematics_compute_xi_ref_momenta
 <<Kinematics: procedures>>=
   module subroutine kinematics_compute_xi_ref_momenta (k, reg_data, nlo_type)
     class(kinematics_t), intent(inout) :: k
     type(region_data_t), intent(in) :: reg_data
     integer, intent(in) :: nlo_type
     logical :: use_contributors
     use_contributors = allocated (reg_data%alr_contributors)
     select type (phs => k%phs)
     type is (phs_fks_t)
        if (use_contributors) then
           call phs%compute_xi_ref_momenta (contributors = reg_data%alr_contributors)
        else if (k%threshold) then
           if (.not. is_subtraction_component (k%emitter, nlo_type)) &
                call phs%compute_xi_ref_momenta_threshold ()
        else
           call phs%compute_xi_ref_momenta ()
        end if
     end select
   end subroutine kinematics_compute_xi_ref_momenta
 
 @ %def kinematics_compute_xi_ref_momenta
 @ Generate kinematics, given a phase-space channel and a MC
 parameter set. The main result is the momentum array [[p]], but we
 also fill the momentum entries in the structure-function chain and the
 Jacobian-factor array [[f]].  Regarding phase space, we fill only the
 parameter arrays for the selected channel.
 <<Kinematics: kinematics: TBP>>=
   procedure :: compute_selected_channel => kinematics_compute_selected_channel
 <<Kinematics: sub interfaces>>=
     module subroutine kinematics_compute_selected_channel &
          (k, mci_work, phs_channel, p, success)
       class(kinematics_t), intent(inout) :: k
       type(mci_work_t), intent(in) :: mci_work
       integer, intent(in) :: phs_channel
       type(vector4_t), dimension(:), intent(out) :: p
       logical, intent(out) :: success
     end subroutine kinematics_compute_selected_channel
 <<Kinematics: procedures>>=
   module subroutine kinematics_compute_selected_channel &
        (k, mci_work, phs_channel, p, success)
     class(kinematics_t), intent(inout) :: k
     type(mci_work_t), intent(in) :: mci_work
     integer, intent(in) :: phs_channel
     type(vector4_t), dimension(:), intent(out) :: p
     logical, intent(out) :: success
     integer :: sf_channel
     k%selected_channel = phs_channel
     sf_channel = k%phs%config%get_sf_channel (phs_channel)
     call k%sf_chain%compute_kinematics (sf_channel, mci_work%get_x_strfun ())
     call k%sf_chain%get_out_momenta (p(1:k%n_in))
     call k%phs%set_incoming_momenta (p(1:k%n_in))
     call k%phs%compute_flux ()
     call k%phs%select_channel (phs_channel)
     call k%phs%evaluate_selected_channel (phs_channel, &
          mci_work%get_x_process ())
 
     select type (phs => k%phs)
     type is (phs_fks_t)
        if (debug_on)  call msg_debug2 (D_REAL, "phase space is phs_FKS")
        if (phs%q_defined) then
           call phs%get_born_momenta (p)
           if (debug_on) then
              call msg_debug2 (D_REAL, "q is defined")
              call msg_debug2 (D_REAL, "get_born_momenta called")
           end if
           k%phs_factor = phs%get_overall_factor ()
           success = .true.
       else
          k%phs_factor = 0
          success = .false.
       end if
     class default
       if (phs%q_defined) then
          call k%phs%get_outgoing_momenta (p(k%n_in + 1 :))
          k%phs_factor = k%phs%get_overall_factor ()
          success = .true.
       else
          k%phs_factor = 0
          success = .false.
       end if
     end select
   end subroutine kinematics_compute_selected_channel
 
 @ %def kinematics_compute_selected_channel
 @
 <<Kinematics: kinematics: TBP>>=
   procedure :: redo_sf_chain => kinematics_redo_sf_chain
 <<Kinematics: sub interfaces>>=
     module subroutine kinematics_redo_sf_chain (kin, mci_work, phs_channel)
       class(kinematics_t), intent(inout) :: kin
       type(mci_work_t), intent(in) :: mci_work
       integer, intent(in) :: phs_channel
     end subroutine kinematics_redo_sf_chain
 <<Kinematics: procedures>>=
   module subroutine kinematics_redo_sf_chain (kin, mci_work, phs_channel)
     class(kinematics_t), intent(inout) :: kin
     type(mci_work_t), intent(in) :: mci_work
     integer, intent(in) :: phs_channel
     real(default), dimension(:), allocatable :: x
     integer :: sf_channel, n
     real(default) :: xi, y
     n = size (mci_work%get_x_strfun ())
     if (n > 0) then
        allocate (x(n))
        x = mci_work%get_x_strfun ()
        sf_channel = kin%phs%config%get_sf_channel (phs_channel)
        call kin%sf_chain%compute_kinematics (sf_channel, x)
     end if
   end subroutine kinematics_redo_sf_chain
 
 @ %def kinematics_redo_sf_chain
 @ Complete kinematics by filling the non-selected phase-space parameter
 arrays.
 <<Kinematics: kinematics: TBP>>=
   procedure :: compute_other_channels => kinematics_compute_other_channels
 <<Kinematics: sub interfaces>>=
     module subroutine kinematics_compute_other_channels &
          (k, mci_work, phs_channel)
       class(kinematics_t), intent(inout) :: k
       type(mci_work_t), intent(in) :: mci_work
       integer, intent(in) :: phs_channel
     end subroutine kinematics_compute_other_channels
 <<Kinematics: procedures>>=
   module subroutine kinematics_compute_other_channels (k, mci_work, phs_channel)
     class(kinematics_t), intent(inout) :: k
     type(mci_work_t), intent(in) :: mci_work
     integer, intent(in) :: phs_channel
     integer :: c, c_sf
     call k%phs%evaluate_other_channels (phs_channel)
     do c = 1, k%n_channel
        c_sf = k%phs%config%get_sf_channel (c)
        k%f(c) = k%sf_chain%get_f (c_sf) * k%phs%get_f (c)
     end do
   end subroutine kinematics_compute_other_channels
 
 @ %def kinematics_compute_other_channels
 @ Just fetch the outgoing momenta of the [[sf_chain]] subobject, which
 become the incoming (seed) momenta of the hard interaction.
 
 This is a stripped down-version of the above which we use when
 recovering kinematics.  Momenta are known, but no MC parameters yet.
 
 (We do not use the [[get_out_momenta]] method of the chain, since this
 relies on the structure-function interactions, which are not necessary
 filled here.  We do rely on the momenta of the last evaluator in the
 chain, however.)
 <<Kinematics: kinematics: TBP>>=
   procedure :: get_incoming_momenta => kinematics_get_incoming_momenta
 <<Kinematics: sub interfaces>>=
     module subroutine kinematics_get_incoming_momenta (k, p)
       class(kinematics_t), intent(in) :: k
       type(vector4_t), dimension(:), intent(out) :: p
     end subroutine kinematics_get_incoming_momenta
 <<Kinematics: procedures>>=
   module subroutine kinematics_get_incoming_momenta (k, p)
     class(kinematics_t), intent(in) :: k
     type(vector4_t), dimension(:), intent(out) :: p
     type(interaction_t), pointer :: int
     integer :: i
     int => k%sf_chain%get_out_int_ptr ()
     do i = 1, k%n_in
        p(i) = int%get_momentum (k%sf_chain%get_out_i (i))
     end do
   end subroutine kinematics_get_incoming_momenta
 
 @ %def kinematics_get_incoming_momenta
 @
 <<Kinematics: kinematics: TBP>>=
   procedure :: get_boost_to_lab => kinematics_get_boost_to_lab
 <<Kinematics: sub interfaces>>=
     module function kinematics_get_boost_to_lab (kin) result (lt)
       type(lorentz_transformation_t) :: lt
       class(kinematics_t), intent(in) :: kin
     end function kinematics_get_boost_to_lab  
 <<Kinematics: procedures>>=
   module function kinematics_get_boost_to_lab (kin) result (lt)
     type(lorentz_transformation_t) :: lt
     class(kinematics_t), intent(in) :: kin
     lt = kin%phs%get_lorentz_transformation ()
   end function kinematics_get_boost_to_lab
 
 @ %def kinematics_get_boost_to_lab
 @
 <<Kinematics: kinematics: TBP>>=
   procedure :: get_boost_to_cms => kinematics_get_boost_to_cms
 <<Kinematics: sub interfaces>>=
     module function kinematics_get_boost_to_cms (kin) result (lt)
       type(lorentz_transformation_t) :: lt
       class(kinematics_t), intent(in) :: kin
     end function kinematics_get_boost_to_cms
 <<Kinematics: procedures>>=
   module function kinematics_get_boost_to_cms (kin) result (lt)
     type(lorentz_transformation_t) :: lt
     class(kinematics_t), intent(in) :: kin
     lt = inverse (kin%phs%get_lorentz_transformation ())
   end function kinematics_get_boost_to_cms
 
 @ %def kinematics_get_boost_to_cms
 @ This inverts the remainder of the above [[compute]] method.  We know
 the momenta and recover the rest, as far as needed.  If we select a
 channel, we can complete the inversion and reconstruct the
 MC parameter set.
 <<Kinematics: kinematics: TBP>>=
   procedure :: recover_mcpar => kinematics_recover_mcpar
 <<Kinematics: sub interfaces>>=
     module subroutine kinematics_recover_mcpar (k, mci_work, phs_channel, p)
       class(kinematics_t), intent(inout) :: k
       type(mci_work_t), intent(inout) :: mci_work
       integer, intent(in) :: phs_channel
       type(vector4_t), dimension(:), intent(in) :: p
     end subroutine kinematics_recover_mcpar
 <<Kinematics: procedures>>=
   module subroutine kinematics_recover_mcpar (k, mci_work, phs_channel, p)
     class(kinematics_t), intent(inout) :: k
     type(mci_work_t), intent(inout) :: mci_work
     integer, intent(in) :: phs_channel
     type(vector4_t), dimension(:), intent(in) :: p
     integer :: c, c_sf
     real(default), dimension(:), allocatable :: x_sf, x_phs
     c = phs_channel
     c_sf = k%phs%config%get_sf_channel (c)
     k%selected_channel = c
     call k%sf_chain%recover_kinematics (c_sf)
     call k%phs%set_incoming_momenta (p(1:k%n_in))
     call k%phs%compute_flux ()
     call k%phs%set_outgoing_momenta (p(k%n_in+1:))
     call k%phs%inverse ()
     do c = 1, k%n_channel
        c_sf = k%phs%config%get_sf_channel (c)
        k%f(c) = k%sf_chain%get_f (c_sf) * k%phs%get_f (c)
     end do
     k%phs_factor = k%phs%get_overall_factor ()
     c = phs_channel
     c_sf = k%phs%config%get_sf_channel (c)
     allocate (x_sf (k%sf_chain%config%get_n_bound ()))
     allocate (x_phs (k%phs%config%get_n_par ()))
     call k%phs%select_channel (c)
     call k%sf_chain%get_mcpar (c_sf, x_sf)
     call k%phs%get_mcpar (c, x_phs)
     call mci_work%set_x_strfun (x_sf)
     call mci_work%set_x_process (x_phs)
   end subroutine kinematics_recover_mcpar
 
 @ %def kinematics_recover_mcpar
 @ This first part of [[recover_mcpar]]: just handle the sfchain.
 <<Kinematics: kinematics: TBP>>=
   procedure :: recover_sfchain => kinematics_recover_sfchain
 <<Kinematics: sub interfaces>>=
     module subroutine kinematics_recover_sfchain (k, channel, p)
       class(kinematics_t), intent(inout) :: k
       integer, intent(in) :: channel
       type(vector4_t), dimension(:), intent(in) :: p
     end subroutine kinematics_recover_sfchain
 <<Kinematics: procedures>>=
   module subroutine kinematics_recover_sfchain (k, channel, p)
     class(kinematics_t), intent(inout) :: k
     integer, intent(in) :: channel
     type(vector4_t), dimension(:), intent(in) :: p
     k%selected_channel = channel
     call k%sf_chain%recover_kinematics (channel)
   end subroutine kinematics_recover_sfchain
 
 @ %def kinematics_recover_sfchain
 @ Retrieve the MC input parameter array for a specific channel.  We assume
 that the kinematics is complete, so this is known for all channels.
 <<Kinematics: kinematics: TBP>>=
   procedure :: get_mcpar => kinematics_get_mcpar
 <<Kinematics: sub interfaces>>=
     module subroutine kinematics_get_mcpar (k, phs_channel, r)
       class(kinematics_t), intent(in) :: k
       integer, intent(in) :: phs_channel
       real(default), dimension(:), intent(out) :: r
     end subroutine kinematics_get_mcpar
 <<Kinematics: procedures>>=
   module subroutine kinematics_get_mcpar (k, phs_channel, r)
     class(kinematics_t), intent(in) :: k
     integer, intent(in) :: phs_channel
     real(default), dimension(:), intent(out) :: r
     integer :: sf_channel, n_par_sf, n_par_phs
     sf_channel = k%phs%config%get_sf_channel (phs_channel)
     n_par_phs = k%phs%config%get_n_par ()
     n_par_sf = k%sf_chain%config%get_n_bound ()
     if (n_par_sf > 0) then
        call k%sf_chain%get_mcpar (sf_channel, r(1:n_par_sf))
     end if
     if (n_par_phs > 0) then
        call k%phs%get_mcpar (phs_channel, r(n_par_sf+1:))
     end if
   end subroutine kinematics_get_mcpar
 
 @ %def kinematics_get_mcpar
 @ Evaluate the structure function chain, assuming that kinematics is known.
 
 The status must be precisely [[SF_DONE_KINEMATICS]].  We thus avoid
 evaluating the chain twice via different pointers to the same target.
 <<Kinematics: kinematics: TBP>>=
   procedure :: evaluate_sf_chain => kinematics_evaluate_sf_chain
 <<Kinematics: sub interfaces>>=
     module subroutine kinematics_evaluate_sf_chain &
          (k, fac_scale, negative_sf, sf_rescale)
       class(kinematics_t), intent(inout) :: k
       real(default), intent(in) :: fac_scale
       logical, intent(in), optional :: negative_sf
       class(sf_rescale_t), intent(inout), optional :: sf_rescale
     end subroutine kinematics_evaluate_sf_chain  
 <<Kinematics: procedures>>=
   module subroutine kinematics_evaluate_sf_chain &
        (k, fac_scale, negative_sf, sf_rescale)
     class(kinematics_t), intent(inout) :: k
     real(default), intent(in) :: fac_scale
     logical, intent(in), optional :: negative_sf
     class(sf_rescale_t), intent(inout), optional :: sf_rescale
     select case (k%sf_chain%get_status ())
     case (SF_DONE_KINEMATICS)
        call k%sf_chain%evaluate (fac_scale, negative_sf = negative_sf, &
             sf_rescale = sf_rescale)
     end select
   end subroutine kinematics_evaluate_sf_chain
 
 @ %def kinematics_evaluate_sf_chain
 @ Recover beam momenta, i.e., return the beam momenta stored in the
 current [[sf_chain]] to their source.  This is a side effect.
 <<Kinematics: kinematics: TBP>>=
   procedure :: return_beam_momenta => kinematics_return_beam_momenta
 <<Kinematics: sub interfaces>>=
     module subroutine kinematics_return_beam_momenta (k)
       class(kinematics_t), intent(in) :: k
     end subroutine kinematics_return_beam_momenta  
 <<Kinematics: procedures>>=
   module subroutine kinematics_return_beam_momenta (k)
     class(kinematics_t), intent(in) :: k
     call k%sf_chain%return_beam_momenta ()
   end subroutine kinematics_return_beam_momenta
 
 @ %def kinematics_return_beam_momenta
 @ Check wether the phase space is configured in the center-of-mass frame.
 Relevant for using the proper momenta input for BLHA matrix elements.
 <<Kinematics: kinematics: TBP>>=
   procedure :: lab_is_cm => kinematics_lab_is_cm
 <<Kinematics: sub interfaces>>=
     module function kinematics_lab_is_cm (k) result (lab_is_cm)
        logical :: lab_is_cm
        class(kinematics_t), intent(in) :: k
     end function kinematics_lab_is_cm
 <<Kinematics: procedures>>=
   module function kinematics_lab_is_cm (k) result (lab_is_cm)
      logical :: lab_is_cm
      class(kinematics_t), intent(in) :: k
      lab_is_cm = k%phs%config%lab_is_cm
   end function kinematics_lab_is_cm
 
 @ %def kinematics_lab_is_cm
 @
 <<Kinematics: kinematics: TBP>>=
   procedure :: modify_momenta_for_subtraction => &
        kinematics_modify_momenta_for_subtraction
 <<Kinematics: sub interfaces>>=
     module subroutine kinematics_modify_momenta_for_subtraction (k, p_in, p_out)
       class(kinematics_t), intent(inout) :: k
       type(vector4_t), intent(in), dimension(:) :: p_in
       type(vector4_t), intent(out), dimension(:), allocatable :: p_out
     end subroutine kinematics_modify_momenta_for_subtraction
 <<Kinematics: procedures>>=
   module subroutine kinematics_modify_momenta_for_subtraction (k, p_in, p_out)
     class(kinematics_t), intent(inout) :: k
     type(vector4_t), intent(in), dimension(:) :: p_in
     type(vector4_t), intent(out), dimension(:), allocatable :: p_out
     allocate (p_out (size (p_in)))
     if (k%threshold) then
        select type (phs => k%phs)
        type is (phs_fks_t)
           p_out = phs%get_onshell_projected_momenta ()
        end select
     else
        p_out = p_in
     end if
   end subroutine kinematics_modify_momenta_for_subtraction
 
 @ %def kinematics_modify_momenta_for_subtraction
 @
 <<Kinematics: kinematics: TBP>>=
   procedure :: threshold_projection => kinematics_threshold_projection
 <<Kinematics: sub interfaces>>=
     module subroutine kinematics_threshold_projection (k, pcm_work, nlo_type)
       class(kinematics_t), intent(inout) :: k
       type(pcm_nlo_workspace_t), intent(inout) :: pcm_work
       integer, intent(in) :: nlo_type
     end subroutine kinematics_threshold_projection
 <<Kinematics: procedures>>=
   module subroutine kinematics_threshold_projection (k, pcm_work, nlo_type)
     class(kinematics_t), intent(inout) :: k
     type(pcm_nlo_workspace_t), intent(inout) :: pcm_work
     integer, intent(in) :: nlo_type
     real(default) :: sqrts, mtop
     type(lorentz_transformation_t) :: L_to_cms
     type(vector4_t), dimension(:), allocatable :: p_tot, p_onshell
     integer :: n_tot
     n_tot = k%phs%get_n_tot ()
     allocate (p_tot (size (pcm_work%real_kinematics%p_born_cms%phs_point(1))))
     select type (phs => k%phs)
     type is (phs_fks_t)
        p_tot = pcm_work%real_kinematics%p_born_cms%phs_point(1)
     class default
        p_tot(1 : k%n_in) = phs%p
        p_tot(k%n_in + 1 : n_tot) = phs%q
     end select
     sqrts = sum (p_tot (1:k%n_in))**1
     mtop = m1s_to_mpole (sqrts)
     L_to_cms = get_boost_for_threshold_projection (p_tot, sqrts, mtop)
     call pcm_work%real_kinematics%p_born_cms%set_momenta (1, p_tot)
     p_onshell = pcm_work%real_kinematics%p_born_onshell%phs_point(1)
     call threshold_projection_born (mtop, L_to_cms, p_tot, p_onshell)
     pcm_work%real_kinematics%p_born_onshell%phs_point(1) = p_onshell
     if (debug2_active (D_THRESHOLD)) then
        print *, 'On-shell projected Born: '
        call vector4_write_set (p_onshell)
     end if
   end subroutine kinematics_threshold_projection
 
 @ %def kinematics_threshold_projection
 @
 <<Kinematics: kinematics: TBP>>=
   procedure :: evaluate_radiation => kinematics_evaluate_radiation
 <<Kinematics: sub interfaces>>=
     module subroutine kinematics_evaluate_radiation (k, p_in, p_out, success)
       class(kinematics_t), intent(inout) :: k
       type(vector4_t), intent(in), dimension(:) :: p_in
       type(vector4_t), intent(out), dimension(:), allocatable :: p_out
       logical, intent(out) :: success
     end subroutine kinematics_evaluate_radiation
 <<Kinematics: procedures>>=
   module subroutine kinematics_evaluate_radiation (k, p_in, p_out, success)
     class(kinematics_t), intent(inout) :: k
     type(vector4_t), intent(in), dimension(:) :: p_in
     type(vector4_t), intent(out), dimension(:), allocatable :: p_out
     logical, intent(out) :: success
     type(vector4_t), dimension(:), allocatable :: p_real
     type(vector4_t), dimension(:), allocatable :: p_born
     real(default) :: xi_max_offshell, xi_offshell, y_offshell, jac_rand_dummy, phi
     select type (phs => k%phs)
     type is (phs_fks_t)
        allocate (p_born (size (p_in)))
        if (k%threshold) then
           p_born = phs%get_onshell_projected_momenta ()
        else
           p_born = p_in
        end if
        if (.not. k%phs%lab_is_cm () .and. .not. k%threshold) then
             p_born = inverse (k%phs%lt_cm_to_lab) * p_born
        end if
        call phs%compute_xi_max (p_born, k%threshold)
        if (k%emitter >= 0) then
           allocate (p_real (size (p_born) + 1))
           allocate (p_out (size (p_born) + 1))
           if (k%emitter <= k%n_in) then
              call phs%generate_isr (k%i_phs, p_real)
           else
              if (k%threshold) then
                 jac_rand_dummy = 1._default
                 call compute_y_from_emitter (phs%generator%real_kinematics%x_rad (I_Y), &
                      phs%generator%real_kinematics%p_born_cms%get_momenta(1), &
                      k%n_in, k%emitter, .false., phs%generator%y_max, jac_rand_dummy, &
                      y_offshell)
                 call phs%compute_xi_max (k%emitter, k%i_phs, y_offshell, &
                      phs%generator%real_kinematics%p_born_cms%get_momenta(1), &
                      xi_max_offshell)
                 xi_offshell = xi_max_offshell * phs%generator%real_kinematics%xi_tilde
                 phi = phs%generator%real_kinematics%phi
                 call phs%generate_fsr (k%emitter, k%i_phs, p_real, &
                      xi_y_phi = [xi_offshell, y_offshell, phi], no_jacobians = .true.)
                 call phs%generator%real_kinematics%p_real_cms%set_momenta (k%i_phs, p_real)
                 call phs%generate_fsr_threshold (k%emitter, k%i_phs, p_real)
                 if (debug2_active (D_SUBTRACTION)) &
                      call generate_fsr_threshold_for_other_emitters (k%emitter, k%i_phs)
              else if (k%i_con > 0) then
                 call phs%generate_fsr (k%emitter, k%i_phs, p_real, k%i_con)
              else
                 call phs%generate_fsr (k%emitter, k%i_phs, p_real)
              end if
           end if
           success = check_scalar_products (p_real)
           if (debug2_active (D_SUBTRACTION)) then
              call msg_debug2 (D_SUBTRACTION, "Real phase-space: ")
              call vector4_write_set (p_real)
           end if
           p_out = p_real
        else
           allocate (p_out (size (p_in))); p_out = p_in
           success = .true.
        end if
     end select
   contains
     subroutine generate_fsr_threshold_for_other_emitters (emitter, i_phs)
       integer, intent(in) :: emitter, i_phs
       integer :: ii_phs, this_emitter
       select type (phs => k%phs)
       type is (phs_fks_t)
          do ii_phs = 1, size (phs%phs_identifiers)
             this_emitter = phs%phs_identifiers(ii_phs)%emitter
             if (ii_phs /= i_phs .and. this_emitter /= emitter) &
                  call phs%generate_fsr_threshold (this_emitter, i_phs)
          end do
       end select
     end subroutine
   end subroutine kinematics_evaluate_radiation
 
 @ %def kinematics_evaluate_radiation
 @
 %%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
 \section{Instances}
 
 <<[[instances.f90]]>>=
 <<File header>>
 
 module instances
 
 <<Use kinds>>
 <<Use strings>>
   use lorentz
   use mci_base
   use particles
   use sm_qcd, only: qcd_t
   use quantum_numbers
   use interactions
   use model_data
   use variables
   use sf_base
   use pdf, only: pdf_data_t
   use physics_defs
   use process_constants
   use state_matrices
   use phs_base
   use prc_core, only: prc_core_t, prc_core_state_t
   !!! local modules
   use parton_states
   use process_counter
   use pcm_base
   use pcm
   use process_config
   use process_mci
   use process
   use kinematics
 
 <<Standard module head>>
 
 <<Instances: public>>
 
 <<Instances: types>>
 
 <<Instances: interfaces>>
 
   interface
 <<Instances: sub interfaces>>
   end interface
 
 contains
 
 <<Instances: main procedures>>
 
 end module instances
 @ %def instances
 @
 <<[[instances_sub.f90]]>>=
 <<File header>>
 
 submodule (instances) instances_s
 
 <<Use debug>>
   use io_units
   use format_utils, only: write_separator
   use constants
   use diagnostics
   use numeric_utils
   use helicities
   use flavors
   use pdg_arrays, only: is_quark, is_charged_lepton, flv_eqv_expr_class
 
   !!! We should depend less on these modules (move it to pcm_nlo_t e.g.)
   use phs_wood, only: phs_wood_t
   use phs_fks
   use blha_olp_interfaces, only: prc_blha_t
   use blha_config, only: BLHA_AMP_COLOR_C
   use prc_external, only: prc_external_t, prc_external_state_t
   use prc_threshold, only: prc_threshold_t
   use blha_olp_interfaces, only: blha_result_array_size
   use prc_openloops, only: prc_openloops_t, openloops_state_t
   use prc_recola, only: prc_recola_t
   use blha_olp_interfaces, only: blha_color_c_fill_offdiag, blha_color_c_fill_diag
   use ttv_formfactors, only: m1s_to_mpole
 
   implicit none
 
 contains
 
 <<Instances: procedures>>
 
 end submodule instances_s
 
 @ %def instances_s
 @
 \subsection{Term instance}
 A [[term_instance_t]] object contains all data that describe a term.  Each
 process component consists of one or more distinct terms which may differ in
 kinematics, but whose squared transition matrices have to be added pointwise.
 
 The [[active]] flag is set when this term is connected to an active
 process component.  Inactive terms are skipped for kinematics and evaluation.
 
 The [[amp]] array stores the amplitude values when we get them from evaluating
 the associated matrix-element code.
 
 The [[int_hard]] interaction describes the elementary hard process.
 It receives the momenta and the amplitude entries for each sampling point.
 
 The [[isolated]] object holds the effective parton state for the
 elementary interaction.  The amplitude entries are
 computed from [[int_hard]].
 
 The [[connected]] evaluator set
 convolutes this scattering matrix with the beam (and possibly
 structure-function) density matrix.
 
 The [[checked]] flag is set once we have applied cuts on this term.
 The result of this is stored in the [[passed]] flag.
 
 Although each [[term_instance]] carries a [[weight]], this currently
 always keeps the value $1$ and is only used to be given to routines
 to fulfill their signature.
 <<Instances: types>>=
   type :: term_instance_t
      type(process_term_t), pointer :: config => null ()
      class(pcm_t), pointer :: pcm => null ()
      class(pcm_workspace_t), pointer :: pcm_work => null ()
      logical :: active = .false.
      complex(default), dimension(:), allocatable :: amp
      type(interaction_t) :: int_hard
      type(isolated_state_t) :: isolated
      type(connected_state_t) :: connected
      class(prc_core_state_t), allocatable :: core_state
      logical :: checked = .false.
      logical :: passed = .false.
      logical, dimension(:), allocatable :: passed_array
      integer, dimension(:), allocatable :: i_flv_to_i_flv_rep
      real(default) :: scale = 0
      real(default), allocatable :: fac_scale
      real(default), allocatable :: ren_scale
      real(default), allocatable :: es_scale
      real(default), allocatable :: alpha_qcd_forced
      real(default) :: weight = 1
      type(vector4_t), dimension(:), allocatable :: p_seed
      type(vector4_t), dimension(:), allocatable :: p_hard
      integer :: nlo_type = BORN
      integer, dimension(:), allocatable :: same_kinematics
      logical :: negative_sf = .false.
      logical :: flv_dep_cut_eval = .false.
    contains
    <<Instances: term instance: TBP>>
   end type term_instance_t
 
 @ %def term_instance_t
 @
 <<Instances: term instance: TBP>>=
   procedure :: write => term_instance_write
 <<Instances: sub interfaces>>=
     module subroutine term_instance_write &
          (term, unit, kin, show_eff_state, testflag)
       class(term_instance_t), intent(in) :: term
       integer, intent(in), optional :: unit
       type(kinematics_t), intent(in), optional :: kin
       logical, intent(in), optional :: show_eff_state
       logical, intent(in), optional :: testflag
     end subroutine term_instance_write
 <<Instances: procedures>>=
   module subroutine term_instance_write &
        (term, unit, kin, show_eff_state, testflag)
     class(term_instance_t), intent(in) :: term
     integer, intent(in), optional :: unit
     type(kinematics_t), intent(in), optional :: kin
     logical, intent(in), optional :: show_eff_state
     logical, intent(in), optional :: testflag
     real(default) :: fac_scale, ren_scale
     integer :: u
     logical :: state
     u = given_output_unit (unit)
     state = .true.;  if (present (show_eff_state))  state = show_eff_state
     if (term%active) then
        if (associated (term%config)) then
           write (u, "(1x,A,I0,A,I0,A)")  "Term #", term%config%i_term, &
                " (component #", term%config%i_component, ")"
        else
           write (u, "(1x,A)")  "Term [undefined]"
        end if
     else
        write (u, "(1x,A,I0,A)")  "Term #", term%config%i_term, &
             " [inactive]"
     end if
     if (term%checked) then
        write (u, "(3x,A,L1)")      "passed cuts           = ", term%passed
     end if
     if (term%passed) then
        write (u, "(3x,A,ES19.12)")  "overall scale         = ", term%scale
        write (u, "(3x,A,ES19.12)")  "factorization scale   = ", term%get_fac_scale ()
        write (u, "(3x,A,ES19.12)")  "renormalization scale = ", term%get_ren_scale ()
        if (allocated (term%alpha_qcd_forced)) then
           write (u, "(3x,A,ES19.12)")  "alpha(QCD) forced     = ", &
                term%alpha_qcd_forced
        end if
        write (u, "(3x,A,ES19.12)")  "reweighting factor    = ", term%weight
     end if
     !!! This used to be a member of term_instance
     if (present (kin)) then
        call kin%write (u)
     end if
     call write_separator (u)
     write (u, "(1x,A)")  "Amplitude (transition matrix of the &
          &hard interaction):"
     call write_separator (u)
     call term%int_hard%basic_write (u, testflag = testflag)
     if (state .and. term%isolated%has_trace) then
        call write_separator (u)
        write (u, "(1x,A)")  "Evaluators for the hard interaction:"
        call term%isolated%write (u, testflag = testflag)
     end if
     if (state .and. term%connected%has_trace) then
        call write_separator (u)
        write (u, "(1x,A)")  "Evaluators for the connected process:"
        call term%connected%write (u, testflag = testflag)
     end if
   end subroutine term_instance_write
 
 @ %def term_instance_write
 @ The interactions and evaluators must be finalized.
 <<Instances: term instance: TBP>>=
   procedure :: final => term_instance_final
 <<Instances: sub interfaces>>=
     module subroutine term_instance_final (term)
       class(term_instance_t), intent(inout) :: term
     end subroutine term_instance_final
 <<Instances: procedures>>=
   module subroutine term_instance_final (term)
     class(term_instance_t), intent(inout) :: term
     if (allocated (term%amp)) deallocate (term%amp)
     if (allocated (term%core_state)) deallocate (term%core_state)
     if (allocated (term%ren_scale))  deallocate (term%ren_scale)
     if (allocated (term%fac_scale))  deallocate (term%fac_scale)
     if (allocated (term%es_scale))  deallocate (term%es_scale)
     if (allocated (term%alpha_qcd_forced)) &
        deallocate (term%alpha_qcd_forced)
     if (allocated (term%p_seed)) deallocate(term%p_seed)
     if (allocated (term%p_hard)) deallocate (term%p_hard)
     call term%connected%final ()
     call term%isolated%final ()
     call term%int_hard%final ()
     term%pcm => null ()
     term%pcm_work => null ()
   end subroutine term_instance_final
 
 @ %def term_instance_final
 @ For a new term object, we configure the structure-function
 interface, the phase space, the matrix-element (interaction)
 interface, etc.
 <<Instances: term instance: TBP>>=
   procedure :: configure => term_instance_configure
 <<Instances: sub interfaces>>=
     module subroutine term_instance_configure &
          (term_instance, process, i, pcm_work, sf_chain, kin)
       class(term_instance_t), intent(out), target :: term_instance
       type(process_t), intent(in), target :: process
       integer, intent(in) :: i
       class(pcm_workspace_t), intent(in), target :: pcm_work
       type(sf_chain_t), intent(in), target :: sf_chain
       type(kinematics_t), intent(inout), target :: kin
     end subroutine term_instance_configure
 <<Instances: procedures>>=
   module subroutine term_instance_configure &
        (term_instance, process, i, pcm_work, sf_chain, kin)
     class(term_instance_t), intent(out), target :: term_instance
     type(process_t), intent(in), target :: process
     integer, intent(in) :: i
     class(pcm_workspace_t), intent(in), target :: pcm_work
     type(sf_chain_t), intent(in), target :: sf_chain
     type(kinematics_t), intent(inout), target :: kin
     type(process_term_t) :: term
     integer :: i_component
     logical :: requires_extended_sf
     term = process%get_term_ptr (i)
     i_component = term%i_component
     if (i_component /= 0) then
        call term_instance%init &
             (process%get_pcm_ptr (), pcm_work, process%get_nlo_type_component (i_component))
        requires_extended_sf = term_instance%nlo_type == NLO_DGLAP .or. &
               (term_instance%nlo_type == NLO_REAL .and. process%get_i_sub (i) == i)
        call term_instance%setup_dynamics (process, i, kin, &
             real_finite = process%component_is_real_finite (i_component))
        select type (phs => kin%phs)
        type is (phs_fks_t)
           call term_instance%set_emitter (kin)
           call term_instance%setup_fks_kinematics (kin, &
                process%get_var_list_ptr (), &
                process%get_beam_config_ptr ())
        end select
        select type (pcm => term_instance%pcm)
        type is (pcm_nlo_t)
           call kin%set_threshold (pcm%settings%factorization_mode)
        end select
        call term_instance%setup_expressions (process%get_meta (), process%get_config ())
     end if
   end subroutine term_instance_configure
 
 @ %def term_instance_configure
 @ First part of term-instance configuration: initialize by assigning
 pointers to the overall [[pcm]] and the associated [[pcm_workspace]]
 objects.
 <<Instances: term instance: TBP>>=
   procedure :: init => term_instance_init
 <<Instances: sub interfaces>>=
     module subroutine term_instance_init &
          (term_instance, pcm, pcm_work, nlo_type)
       class(term_instance_t), intent(out) :: term_instance
       class(pcm_t), intent(in), target :: pcm
       class(pcm_workspace_t), intent(in), target :: pcm_work
       integer, intent(in) :: nlo_type
     end subroutine term_instance_init
 <<Instances: procedures>>=
   module subroutine term_instance_init (term_instance, pcm, pcm_work, nlo_type)
     class(term_instance_t), intent(out) :: term_instance
     class(pcm_t), intent(in), target :: pcm
     class(pcm_workspace_t), intent(in), target :: pcm_work
     integer, intent(in) :: nlo_type
     term_instance%pcm => pcm
     term_instance%pcm_work => pcm_work
     term_instance%nlo_type = nlo_type
   end subroutine term_instance_init
 
 @ %def term_instance_init
 @ The second part of term-instance configuration concerns dynamics, i.e., the
 interface to the matrix-element (interaction), and the parton-state
 objects that combine all kinematics and matrix-element data for evaluation.
 
 The hard interaction (incoming momenta) is linked to the structure
 function instance.  In the isolated state, we either set pointers to
 both, or we create modified copies ([[rearrange]]) as effective
 structure-function chain and interaction, respectively.
 
 Finally, we set up the [[subevt]] component that will be used for
 evaluating observables, collecting particles from the trace evaluator
 in the effective connected state.  Their quantum numbers must be
 determined by following back source links and set explicitly, since
 they are already eliminated in that trace.
 
 The [[rearrange]] parts are still commented out; they could become
 relevant for a NLO algorithm.
 <<Instances: term instance: TBP>>=
   procedure :: setup_dynamics => term_instance_setup_dynamics
 <<Instances: sub interfaces>>=
     module subroutine term_instance_setup_dynamics &
          (term, process, i_term, kin, real_finite)
       class(term_instance_t), intent(inout), target :: term
       type(process_t), intent(in), target:: process
       integer, intent(in) :: i_term
       type(kinematics_t), intent(in) :: kin
       logical, intent(in), optional :: real_finite
     end subroutine term_instance_setup_dynamics
 <<Instances: procedures>>=
   module subroutine term_instance_setup_dynamics &
        (term, process, i_term, kin, real_finite)
     class(term_instance_t), intent(inout), target :: term
     type(process_t), intent(in), target:: process
     integer, intent(in) :: i_term
     type(kinematics_t), intent(in) :: kin
     logical, intent(in), optional :: real_finite
     class(prc_core_t), pointer :: core => null ()
     type(process_beam_config_t) :: beam_config
     type(interaction_t), pointer :: sf_chain_int
     type(interaction_t), pointer :: src_int
     type(quantum_numbers_mask_t), dimension(:), allocatable :: mask_in
     type(state_matrix_t), pointer :: state_matrix
     type(flavor_t), dimension(:), allocatable :: flv_int, flv_src, f_in, f_out
     integer, dimension(:,:), allocatable :: flv_born, flv_real
     type(flavor_t), dimension(:,:), allocatable :: flv_pdf
     type(quantum_numbers_t), dimension(:,:), allocatable :: qn_pdf
     integer :: n_in, n_vir, n_out, n_tot, n_sub
     integer :: n_flv_born, n_flv_real, n_flv_total
     integer :: i, j
     logical :: me_already_squared, keep_fs_flavors
     logical :: decrease_n_tot
     logical :: requires_extended_sf
     me_already_squared = .false.
     keep_fs_flavors = .false.
     term%config => process%get_term_ptr (i_term)
     term%int_hard = term%config%int
     core => process%get_core_term (i_term)
     term%negative_sf = process%get_negative_sf ()
     call core%allocate_workspace (term%core_state)
     select type (core)
     class is (prc_external_t)
        call reduce_interaction (term%int_hard, &
             core%includes_polarization (), .true., .false.)
        me_already_squared = .true.
        allocate (term%amp (term%int_hard%get_n_matrix_elements ()))
     class default
        allocate (term%amp (term%config%n_allowed))
     end select
     if (allocated (term%core_state)) then
        select type (core_state => term%core_state)
        type is (openloops_state_t)
           call core_state%init_threshold (process%get_model_ptr ())
        end select
     end if
     term%amp = cmplx (0, 0, default)
     decrease_n_tot = term%nlo_type == NLO_REAL .and. &
          term%config%i_term_global /= term%config%i_sub
     if (present (real_finite)) then
        if (real_finite) decrease_n_tot = .false.
     end if
     if (decrease_n_tot) then
        allocate (term%p_seed (term%int_hard%get_n_tot () - 1))
     else
        allocate (term%p_seed (term%int_hard%get_n_tot ()))
     end if
     allocate (term%p_hard (term%int_hard%get_n_tot ()))
     sf_chain_int => kin%sf_chain%get_out_int_ptr ()
     n_in = term%int_hard%get_n_in ()
     do j = 1, n_in
        i = kin%sf_chain%get_out_i (j)
        call term%int_hard%set_source_link (j, sf_chain_int, i)
     end do
     call term%isolated%init (kin%sf_chain, term%int_hard)
     allocate (mask_in (n_in))
     mask_in = kin%sf_chain%get_out_mask ()
     select type (phs => kin%phs)
       type is (phs_wood_t)
          if (me_already_squared) then
             call term%isolated%setup_identity_trace &
                  (core, mask_in, .true., .false.)
          else
             call term%isolated%setup_square_trace &
                  (core, mask_in, term%config%col, .false.)
          end if
       type is (phs_fks_t)
          select case (phs%mode)
          case (PHS_MODE_ADDITIONAL_PARTICLE)
             if (me_already_squared) then
                call term%isolated%setup_identity_trace &
                     (core, mask_in, .true., .false.)
             else
                keep_fs_flavors = term%config%data%n_flv > 1
                call term%isolated%setup_square_trace &
                     (core, mask_in, term%config%col, &
                     keep_fs_flavors)
             end if
          case (PHS_MODE_COLLINEAR_REMNANT)
             if (me_already_squared) then
                call term%isolated%setup_identity_trace &
                     (core, mask_in, .true., .false.)
             else
                call term%isolated%setup_square_trace &
                     (core, mask_in, term%config%col, .false.)
             end if
          end select
       class default
          call term%isolated%setup_square_trace &
               (core, mask_in, term%config%col, .false.)
     end select
     if (term%nlo_type == NLO_VIRTUAL .or. (term%nlo_type == NLO_REAL .and. &
          term%config%i_term_global == term%config%i_sub) .or. &
          term%nlo_type == NLO_MISMATCH) then
        n_sub = term%get_n_sub ()
     else if (term%nlo_type == NLO_DGLAP) then
        n_sub = n_beams_rescaled + term%get_n_sub ()
     else
        !!! No integration of real subtraction in interactions yet
        n_sub = 0
     end if
     keep_fs_flavors = keep_fs_flavors .or. me_already_squared
     requires_extended_sf = term%nlo_type == NLO_DGLAP .or. &
          (term%is_subtraction () .and. process%pcm_contains_pdfs ())
     call term%connected%setup_connected_trace (term%isolated, &
          undo_helicities = undo_helicities (core, me_already_squared), &
          keep_fs_flavors = keep_fs_flavors, &
          requires_extended_sf = requires_extended_sf)
     associate (int_eff => term%isolated%int_eff)
       state_matrix => int_eff%get_state_matrix_ptr ()
       n_tot = int_eff%get_n_tot  ()
       flv_int = quantum_numbers_get_flavor &
            (state_matrix%get_quantum_number (1))
       allocate (f_in (n_in))
       f_in = flv_int(1:n_in)
       deallocate (flv_int)
     end associate
     n_in = term%connected%trace%get_n_in ()
     n_vir = term%connected%trace%get_n_vir ()
     n_out = term%connected%trace%get_n_out ()
     allocate (f_out (n_out))
     do j = 1, n_out
        call term%connected%trace%find_source &
             (n_in + n_vir + j, src_int, i)
        if (associated (src_int)) then
           state_matrix => src_int%get_state_matrix_ptr ()
           flv_src = quantum_numbers_get_flavor &
                (state_matrix%get_quantum_number (1))
           f_out(j) = flv_src(i)
           deallocate (flv_src)
        end if
     end do
 
     beam_config = process%get_beam_config ()
     select type (pcm => term%pcm)
     type is (pcm_nlo_t)
        term%flv_dep_cut_eval = pcm%settings%nlo_correction_type == "EW" &
                                .and. pcm%region_data%alphas_power > 0 &
                                .and. any(is_charged_lepton(f_out%get_pdg()))
     end select
 
     call term%connected%setup_subevt (term%isolated%sf_chain_eff, &
          beam_config%data%flv, f_in, f_out)
     call term%connected%setup_var_list &
          (process%get_var_list_ptr (), beam_config%data)
     ! Does connected%trace never have any helicity qn?
     call term%init_interaction_qn_index (core, term%connected%trace, n_sub, &
          process%get_model_ptr (), is_polarized = .false.)
     call term%init_interaction_qn_index &
          (core, term%int_hard, n_sub, process%get_model_ptr ())
     call term%init_eqv_expr_classes ()
     if (requires_extended_sf) then
        select type (pcm => term%pcm)
        type is (pcm_nlo_t)
           n_in = pcm%region_data%get_n_in ()
           flv_born = pcm%region_data%get_flv_states_born ()
           flv_real = pcm%region_data%get_flv_states_real ()
           n_flv_born = pcm%region_data%get_n_flv_born ()
           n_flv_real = pcm%region_data%get_n_flv_real ()
           n_flv_total = n_flv_born + n_flv_real
           allocate (flv_pdf(n_in, n_flv_total), &
                qn_pdf(n_in, n_flv_total))
           call flv_pdf(:, :n_flv_born)%init (flv_born(:n_in, :))
           call flv_pdf(:, n_flv_born + 1:n_flv_total)%init (flv_real(:n_in, :))
           call qn_pdf%init (flv_pdf)
           call sf_chain_int%init_qn_index (qn_pdf, n_flv_born, n_flv_real)
        end select
     end if
   contains
 
    function undo_helicities (core, me_squared) result (val)
      logical :: val
      class(prc_core_t), intent(in) :: core
      logical, intent(in) :: me_squared
      select type (core)
      class is (prc_external_t)
         val = me_squared .and. .not. core%includes_polarization ()
      class default
         val = .false.
      end select
    end function undo_helicities
 
    subroutine reduce_interaction (int, polarized_beams, keep_fs_flavors, &
       keep_colors)
      type(interaction_t), intent(inout) :: int
      logical, intent(in) :: polarized_beams
      logical, intent(in) :: keep_fs_flavors, keep_colors
      type(quantum_numbers_mask_t), dimension(:), allocatable :: qn_mask
      logical, dimension(:), allocatable :: mask_f, mask_c, mask_h
      integer :: n_tot, n_in
      n_in = int%get_n_in (); n_tot = int%get_n_tot ()
      allocate (qn_mask (n_tot))
      allocate (mask_f (n_tot), mask_c (n_tot), mask_h (n_tot))
      mask_c = .not. keep_colors
      mask_f (1 : n_in) = .false.
      if (keep_fs_flavors) then
         mask_f (n_in + 1 : ) = .false.
      else
         mask_f (n_in + 1 : ) = .true.
      end if
      if (polarized_beams) then
         mask_h (1 : n_in) = .false.
      else
         mask_h (1 : n_in) = .true.
      end if
      mask_h (n_in + 1 : ) = .true.
      call qn_mask%init (mask_f, mask_c, mask_h)
      call int%reduce_state_matrix (qn_mask, keep_order = .true.)
    end subroutine reduce_interaction
 end subroutine term_instance_setup_dynamics
 
 @ %def term_instance_setup_dynamics
 @ Set up index mapping from state matrix to index pair [[i_flv]], [[i_sub]].
 <<Instances: public>>=
   public :: setup_interaction_qn_index
 <<Instances: sub interfaces>>=
     module subroutine setup_interaction_qn_index &
          (int, data, qn_config, n_sub, is_polarized)
       class(interaction_t), intent(inout) :: int
       class(process_constants_t), intent(in) :: data
       type(quantum_numbers_t), dimension(:, :), intent(in) :: qn_config
       integer, intent(in) :: n_sub
       logical, intent(in) :: is_polarized
     end subroutine setup_interaction_qn_index
 <<Instances: procedures>>=
   module subroutine setup_interaction_qn_index &
        (int, data, qn_config, n_sub, is_polarized)
     class(interaction_t), intent(inout) :: int
     class(process_constants_t), intent(in) :: data
     type(quantum_numbers_t), dimension(:, :), intent(in) :: qn_config
     integer, intent(in) :: n_sub
     logical, intent(in) :: is_polarized
     integer :: i
     type(quantum_numbers_t), dimension(:, :), allocatable :: qn_hel
     if (is_polarized) then
        call setup_interaction_qn_hel (int, data, qn_hel)
        call int%init_qn_index (qn_config, n_sub, qn_hel)
        call int%set_qn_index_helicity_flip (.true.)
     else
        call int%init_qn_index (qn_config, n_sub)
     end if
   end subroutine setup_interaction_qn_index
 
 @ %def setup_interaction_qn_index
 @ Set up beam polarisation quantum numbers, if beam polarisation is required.
 
 We retrieve the full helicity information from [[term%config%data]] and reduce
 the information only to the inital state. Afterwards, we uniquify the initial
 state polarization by a applying an index (hash) table.
 
 The helicity information is fed into an array of quantum numbers to assign
 flavor, helicity and subtraction indices correctly to their matrix element.
 <<Instances: public>>=
   public :: setup_interaction_qn_hel
 <<Instances: sub interfaces>>=
     module subroutine setup_interaction_qn_hel (int, data, qn_hel)
       class(interaction_t), intent(in) :: int
       class(process_constants_t), intent(in) :: data
       type(quantum_numbers_t), dimension(:, :), allocatable, intent(out) :: &
            qn_hel
     end subroutine setup_interaction_qn_hel
 <<Instances: procedures>>=
   module subroutine setup_interaction_qn_hel (int, data, qn_hel)
     class(interaction_t), intent(in) :: int
     class(process_constants_t), intent(in) :: data
     type(quantum_numbers_t), dimension(:, :), allocatable, intent(out) :: &
          qn_hel
     type(helicity_t), dimension(:), allocatable :: hel
     integer, dimension(:), allocatable :: index_table
     integer, dimension(:, :), allocatable :: hel_state
     integer :: i, j, n_hel_unique
     associate (n_in => int%get_n_in (), n_tot => int%get_n_tot ())
       allocate (hel_state (n_tot, data%get_n_hel ()), &
            source = data%hel_state)
       allocate (index_table (data%get_n_hel ()), &
            source = 0)
       forall (j=1:data%get_n_hel (), i=n_in+1:n_tot) hel_state(i, j) = 0
       n_hel_unique = 0
       HELICITY: do i = 1, data%get_n_hel ()
          do j = 1, data%get_n_hel ()
             if (index_table (j) == 0) then
                index_table(j) = i; n_hel_unique = n_hel_unique + 1
                cycle HELICITY
             else if (all (hel_state(:, i) == &
                  hel_state(:, index_table(j)))) then
                cycle HELICITY
             end if
          end do
       end do HELICITY
       allocate (qn_hel (n_tot, n_hel_unique))
       allocate (hel (n_tot))
       do j = 1, n_hel_unique
          call hel%init (hel_state(:, index_table(j)))
          call qn_hel(:, j)%init (hel)
       end do
     end associate
   end subroutine setup_interaction_qn_hel
 
 @ %def setup_interaction_qn_hel
 @ Initialization of equivalent cut expression classes.
 
 Each flavor index [[i_flv]] here is assigned to the corresponding one
 representative for an equivalent cut expression class. This class describes
 the set of flavor quantum numbers for which the phase space cut expression
 evaluation yield the same output. The representative [[i_flv]] for one class
 correspond to the first flavor quantum numbers of that kind occuring in the
 state matrix.
 <<Instances: term instance: TBP>>=
   procedure :: init_eqv_expr_classes => term_instance_init_eqv_expr_classes
 <<Instances: sub interfaces>>=
     module subroutine term_instance_init_eqv_expr_classes (term)
       class(term_instance_t), intent(inout), target :: term
     end subroutine term_instance_init_eqv_expr_classes
 <<Instances: procedures>>=
   module subroutine term_instance_init_eqv_expr_classes (term)
     class(term_instance_t), intent(inout), target :: term
     type(interaction_t), pointer :: src_int
     type(state_matrix_t), pointer :: state_matrix
     type(flavor_t), dimension(:), allocatable :: flv_src
     logical, dimension(:,:,:), allocatable :: eqv_expr_class
     logical, dimension (:), allocatable :: evaluated
     integer :: n_in, n_vir, n_out
     integer :: k, j, i
     n_in = term%connected%trace%get_n_in ()
     n_vir = term%connected%trace%get_n_vir ()
     n_out = term%connected%trace%get_n_out ()
     allocate (eqv_expr_class (3, n_out, &
          term%connected%trace%get_qn_index_n_flv ()))
     do k = 1, term%connected%trace%get_qn_index_n_flv ()
        do j = 1, n_out
           call term%connected%trace%find_source &
                (n_in + n_vir + j, src_int, i)
           if (associated (src_int)) then
              state_matrix => src_int%get_state_matrix_ptr ()
              flv_src = quantum_numbers_get_flavor &
                   (state_matrix%get_quantum_number (k))
              eqv_expr_class (:, j, k) = flv_eqv_expr_class (flv_src(i)%get_pdg())
              deallocate (flv_src)
           end if
        end do
     end do
     if (term%flv_dep_cut_eval) then
        allocate (evaluated (term%connected%trace%get_qn_index_n_flv ()))
        evaluated = .false.
        allocate (term%i_flv_to_i_flv_rep (term%connected%trace%get_qn_index_n_flv ()))
        do i = 1, term%connected%trace%get_qn_index_n_flv ()
           if (.not. evaluated (i)) then
              do k = i, term%connected%trace%get_qn_index_n_flv ()
                 if (same_eqv_expr_class(eqv_expr_class (:,:,i), eqv_expr_class (:,:,k))) then
                    term%i_flv_to_i_flv_rep (k) = i
                    evaluated (k) = .true.
                 end if
              end do
           end if
        end do
     end if
 
   contains
 
      function same_eqv_expr_class (flv_mask1, flv_mask2) result (same)
         logical, dimension (:,:), intent(in) :: flv_mask1, flv_mask2
         logical :: same
         integer :: l
         same = .true.
         do l = 1, size (flv_mask1, dim = 2)
            same = same .and. all (flv_mask1(:,l) .eqv. flv_mask2(:,l))
         end do
      end function same_eqv_expr_class
   end subroutine term_instance_init_eqv_expr_classes
 
 @ %def term_instance_init_eqv_expr_classes
 @
 <<Instances: term instance: TBP>>=
   procedure :: init_interaction_qn_index => &
        term_instance_init_interaction_qn_index
 <<Instances: sub interfaces>>=
     module subroutine term_instance_init_interaction_qn_index (term, core, &
          int, n_sub, model, is_polarized)
       class(term_instance_t), intent(inout), target :: term
       class(prc_core_t), intent(in) :: core
       class(interaction_t), intent(inout) :: int
       integer, intent(in) :: n_sub
       class(model_data_t), intent(in) :: model
       logical, intent(in), optional :: is_polarized
     end subroutine term_instance_init_interaction_qn_index
 <<Instances: procedures>>=
   module subroutine term_instance_init_interaction_qn_index (term, core, &
        int, n_sub, model, is_polarized)
     class(term_instance_t), intent(inout), target :: term
     class(prc_core_t), intent(in) :: core
     class(interaction_t), intent(inout) :: int
     integer, intent(in) :: n_sub
     class(model_data_t), intent(in) :: model
     logical, intent(in), optional :: is_polarized
     logical :: polarized
     type(quantum_numbers_t), dimension(:, :), allocatable :: qn_config
     integer, dimension(:,:), allocatable :: flv_born
     type(flavor_t), dimension(:), allocatable :: flv
     integer :: i
     select type (core)
     class is (prc_external_t)
        if (present (is_polarized)) then
           polarized = is_polarized
        else
           polarized = core%includes_polarization ()
        end if
        select type (pcm_work => term%pcm_work)
        type is (pcm_nlo_workspace_t)
           associate (is_born => .not. (term%nlo_type == NLO_REAL .and. &
                   .not. term%is_subtraction ()))
              select type (pcm => term%pcm)
              type is (pcm_nlo_t)
                 qn_config = pcm%get_qn (is_born)
              end select
              call setup_interaction_qn_index (int, term%config%data, &
                   qn_config, n_sub, polarized)
           end associate
        class default
           call term%config%data%get_flv_state (flv_born)
           allocate (flv (size (flv_born, dim = 1)))
           allocate (qn_config (size (flv_born, dim = 1), size (flv_born, dim = 2)))
           do i = 1, core%data%n_flv
              call flv%init (flv_born(:,i), model)
              call qn_config(:, i)%init (flv)
           end do
           call setup_interaction_qn_index (int, term%config%data, &
                qn_config, n_sub, polarized)
        end select
     class default
        call int%init_qn_index ()
     end select
   end subroutine term_instance_init_interaction_qn_index
 
 @ %def term_instance_init_interaction_qn_index
 @
 <<Instances: term instance: TBP>>=
   procedure :: setup_fks_kinematics => term_instance_setup_fks_kinematics
 <<Instances: sub interfaces>>=
     module subroutine term_instance_setup_fks_kinematics &
          (term, kin, var_list, beam_config)
       class(term_instance_t), intent(inout), target :: term
       type(kinematics_t), intent(inout) :: kin
       type(var_list_t), intent(in) :: var_list
       type(process_beam_config_t), intent(in) :: beam_config
     end subroutine term_instance_setup_fks_kinematics
 <<Instances: procedures>>=
   module subroutine term_instance_setup_fks_kinematics &
        (term, kin, var_list, beam_config)
     class(term_instance_t), intent(inout), target :: term
     type(kinematics_t), intent(inout) :: kin
     type(var_list_t), intent(in) :: var_list
     type(process_beam_config_t), intent(in) :: beam_config
     integer :: mode
     logical :: singular_jacobian
     if (.not. (term%nlo_type == NLO_REAL .or. term%nlo_type == NLO_DGLAP .or. &
        term%nlo_type == NLO_MISMATCH)) return
     singular_jacobian = var_list%get_lval &
          (var_str ("?powheg_use_singular_jacobian"))
     if (term%nlo_type == NLO_REAL) then
        mode = check_generator_mode (GEN_REAL_PHASE_SPACE)
     else if (term%nlo_type == NLO_MISMATCH) then
        mode = check_generator_mode (GEN_SOFT_MISMATCH)
     else
        mode = PHS_MODE_UNDEFINED
     end if
     select type (phs => kin%phs)
     type is (phs_fks_t)
        select type (pcm => term%pcm)
        type is (pcm_nlo_t)
           select type (pcm_work => term%pcm_work)
           type is (pcm_nlo_workspace_t)
              call pcm%setup_phs_generator (pcm_work, &
                   phs%generator, phs%config%sqrts, mode, singular_jacobian)
              if (beam_config%has_structure_function ()) then
                 pcm_work%isr_kinematics%isr_mode = SQRTS_VAR
              else
                 pcm_work%isr_kinematics%isr_mode = SQRTS_FIXED
              end if
              if (debug_on)  call msg_debug &
                   (D_PHASESPACE, "isr_mode: ", pcm_work%isr_kinematics%isr_mode)
           end select
        end select
     class default
        call msg_fatal ("Phase space should be an FKS phase space!")
     end select
   contains
     function check_generator_mode (gen_mode_default) result (gen_mode)
        integer :: gen_mode
        integer, intent(in) :: gen_mode_default
        select type (pcm => term%pcm)
        type is (pcm_nlo_t)
           associate (settings => pcm%settings)
              if (settings%test_coll_limit .and. settings%test_anti_coll_limit) &
                 call msg_fatal ("You cannot check the collinear and anti-collinear limit "&
                      &"at the same time!")
              if (settings%test_soft_limit .and. .not. settings%test_coll_limit &
                   .and. .not. settings%test_anti_coll_limit) then
                 gen_mode = GEN_SOFT_LIMIT_TEST
              else if (.not. settings%test_soft_limit .and. settings%test_coll_limit) then
                 gen_mode = GEN_COLL_LIMIT_TEST
              else if (.not. settings%test_soft_limit .and. settings%test_anti_coll_limit) then
                 gen_mode = GEN_ANTI_COLL_LIMIT_TEST
              else if (settings%test_soft_limit .and. settings%test_coll_limit) then
                 gen_mode = GEN_SOFT_COLL_LIMIT_TEST
              else if (settings%test_soft_limit .and. settings%test_anti_coll_limit) then
                 gen_mode = GEN_SOFT_ANTI_COLL_LIMIT_TEST
              else
                 gen_mode = gen_mode_default
              end if
           end associate
        end select
     end function check_generator_mode
   end subroutine term_instance_setup_fks_kinematics
 
 @ %def term_instance_setup_fks_kinematics
 @ Set up seed kinematics, starting from the MC parameter set given as
 argument.  As a result, the [[k_seed]] kinematics object is evaluated
 (except for the structure-function matrix-element evaluation, which we
 postpone until we know the factorization scale), and we have a valid
 [[p_seed]] momentum array.
 <<Instances: term instance: TBP>>=
   procedure :: compute_seed_kinematics => term_instance_compute_seed_kinematics
 <<Instances: sub interfaces>>=
     module subroutine term_instance_compute_seed_kinematics &
          (term, kin, mci_work, phs_channel, success)
       class(term_instance_t), intent(inout), target :: term
       type(kinematics_t), intent(inout) :: kin
       type(mci_work_t), intent(in) :: mci_work
       integer, intent(in) :: phs_channel
       logical, intent(out) :: success
     end subroutine term_instance_compute_seed_kinematics
 <<Instances: procedures>>=
   module subroutine term_instance_compute_seed_kinematics &
        (term, kin, mci_work, phs_channel, success)
     class(term_instance_t), intent(inout), target :: term
     type(kinematics_t), intent(inout) :: kin
     type(mci_work_t), intent(in) :: mci_work
     integer, intent(in) :: phs_channel
     logical, intent(out) :: success
     call kin%compute_selected_channel &
          (mci_work, phs_channel, term%p_seed, success)
   end subroutine term_instance_compute_seed_kinematics
 
 @ %def term_instance_compute_seed_kinematics
 @
 <<Instances: term instance: TBP>>=
   procedure :: evaluate_projections => term_instance_evaluate_projections
 <<Instances: sub interfaces>>=
     module subroutine term_instance_evaluate_projections (term, kin)
       class(term_instance_t), intent(inout) :: term
       type(kinematics_t), intent(inout) :: kin
     end subroutine term_instance_evaluate_projections
 <<Instances: procedures>>=
   module subroutine term_instance_evaluate_projections (term, kin)
     class(term_instance_t), intent(inout) :: term
     type(kinematics_t), intent(inout) :: kin
     if (kin%threshold .and. term%nlo_type > BORN) then
        if (debug2_active (D_THRESHOLD)) &
             print *, 'Evaluate on-shell projection: ', &
             char (component_status (term%nlo_type))
        select type (pcm_work => term%pcm_work)
        type is (pcm_nlo_workspace_t)
           call kin%threshold_projection (pcm_work, term%nlo_type)
        end select
     end if
   end subroutine term_instance_evaluate_projections
 
 @ %def term_instance_evaluate_projections
 @ Compute the momenta in the hard interactions, one for each term that
 constitutes this process component.  In simple cases this amounts to
 just copying momenta.  In more advanced cases, we may generate
 distinct sets of momenta from the seed kinematics.
 
 The interactions in the term instances are accessed individually.  We may
 choose to calculate all terms at once together with the seed kinematics, use
 [[component%core_state]] for storage, and just fill the interactions here.
 <<Instances: term instance: TBP>>=
   procedure :: compute_hard_kinematics => &
        term_instance_compute_hard_kinematics
 <<Instances: sub interfaces>>=
     module subroutine term_instance_compute_hard_kinematics &
          (term, kin, recover, skip_term, success)
       class(term_instance_t), intent(inout) :: term
       type(kinematics_t), intent(inout) :: kin
       integer, intent(in), optional :: skip_term
       logical, intent(in), optional :: recover
       logical, intent(out) :: success
     end subroutine term_instance_compute_hard_kinematics
 <<Instances: procedures>>=
   module subroutine term_instance_compute_hard_kinematics &
        (term, kin, recover, skip_term, success)
     class(term_instance_t), intent(inout) :: term
     type(kinematics_t), intent(inout) :: kin
     integer, intent(in), optional :: skip_term
     logical, intent(in), optional :: recover
     logical, intent(out) :: success
     type(vector4_t), dimension(:), allocatable :: p
     if (allocated (term%core_state)) &
        call term%core_state%reset_new_kinematics ()
     if (present (skip_term)) then
        if (term%config%i_term_global == skip_term) return
     end if
 
     if (present (recover)) then
        if (recover) return
     end if
     if (term%nlo_type == NLO_REAL .and. kin%emitter >= 0) then
        call kin%evaluate_radiation (term%p_seed, p, success)
        select type (pcm => term%pcm)
        type is (pcm_nlo_t)
           if (pcm%dalitz_plot%active) then
              if (kin%emitter > kin%n_in) then
                 if (p(kin%emitter)**2 > tiny_07) &
                      call pcm%register_dalitz_plot (kin%emitter, p)
              end if
           end if
        end select
     else if (is_subtraction_component (kin%emitter, term%nlo_type)) then
        call kin%modify_momenta_for_subtraction (term%p_seed, p)
        success = .true.
     else
        allocate (p (size (term%p_seed))); p = term%p_seed
        success = .true.
     end if
     call term%int_hard%set_momenta (p)
     if (debug_on) then
        call msg_debug2 (D_REAL, "inside compute_hard_kinematics")
        if (debug2_active (D_REAL))  call vector4_write_set (p)
     end if
   end subroutine term_instance_compute_hard_kinematics
 
 @ %def term_instance_compute_hard_kinematics
 @ Here, we invert this.  We fetch the incoming momenta which reside
 in the appropriate [[sf_chain]] object, stored within the [[k_seed]]
 subobject.  On the other hand, we have the outgoing momenta of the
 effective interaction.  We rely on the process core to compute the
 remaining seed momenta and to fill the momenta within the hard
 interaction.  (The latter is trivial if hard and effective interaction
 coincide.)
 
 After this is done, the incoming momenta in the trace evaluator that
 corresponds to the hard (effective) interaction, are still
 left undefined.  We remedy this by calling [[receive_kinematics]] once.
 <<Instances: term instance: TBP>>=
   procedure :: recover_seed_kinematics => &
        term_instance_recover_seed_kinematics
 <<Instances: sub interfaces>>=
     module subroutine term_instance_recover_seed_kinematics &
          (term, kin, p_seed_ref)
       class(term_instance_t), intent(inout) :: term
       type(kinematics_t), intent(in) :: kin
       type(vector4_t), dimension(:), intent(in), optional :: p_seed_ref
     end subroutine term_instance_recover_seed_kinematics
 <<Instances: procedures>>=
   module subroutine term_instance_recover_seed_kinematics &
        (term, kin, p_seed_ref)
     class(term_instance_t), intent(inout) :: term
     type(kinematics_t), intent(in) :: kin
     integer :: n_in
     type(vector4_t), dimension(:), intent(in), optional :: p_seed_ref
     n_in = kin%n_in
     call kin%get_incoming_momenta (term%p_seed(1:n_in))
     associate (int_eff => term%isolated%int_eff)
        call int_eff%set_momenta (term%p_seed(1:n_in), outgoing = .false.)
        if (present (p_seed_ref)) then
           term%p_seed(n_in + 1 : ) = p_seed_ref
        else
           term%p_seed(n_in + 1 : ) = int_eff%get_momenta (outgoing = .true.)
        end if
     end associate
     call term%isolated%receive_kinematics ()
   end subroutine term_instance_recover_seed_kinematics
 
 @ %def term_instance_recover_seed_kinematics
 @ Compute the integration parameters for all channels except the selected
 one.
 JRR: Obsolete now.
 <<XXX Instances: term instance: TBP>>=
   procedure :: compute_other_channels => &
        term_instance_compute_other_channels
 <<XXX Instances: procedures>>=
   subroutine term_instance_compute_other_channels &
        (term, mci_work, phs_channel)
     class(term_instance_t), intent(inout), target :: term
     type(mci_work_t), intent(in) :: mci_work
     integer, intent(in) :: phs_channel
     call term%k_term%compute_other_channels (mci_work, phs_channel)
   end subroutine term_instance_compute_other_channels
 
 @ %def term_instance_compute_other_channels
 @ Recover beam momenta, i.e., return the beam momenta as currently
 stored in the kinematics subobject to their source.  This is a side effect.
 JRR: Obsolete now.
 <<XXX Instances: term instance: TBP>>=
   procedure :: return_beam_momenta => term_instance_return_beam_momenta
 <<XXX Instances: procedures>>=
   subroutine term_instance_return_beam_momenta (term)
     class(term_instance_t), intent(in) :: term
     call term%k_term%return_beam_momenta ()
   end subroutine term_instance_return_beam_momenta
 
 @ %def term_instance_return_beam_momenta
 @
 Applies the real partition by computing the real partition function $F(\Phi)$
 and multiplying either $\mathcal{R}_\text{sin} = \mathcal{R} \cdot F$ or
 $\mathcal{R}_\text{fin} = \mathcal{R} \cdot (1-F)$.
 <<Instances: term instance: TBP>>=
   procedure :: apply_real_partition => term_instance_apply_real_partition
 <<Instances: sub interfaces>>=
     module subroutine term_instance_apply_real_partition (term, kin)
       class(term_instance_t), intent(inout) :: term
       type(kinematics_t), intent(in) :: kin
     end subroutine term_instance_apply_real_partition
 <<Instances: procedures>>=
   module subroutine term_instance_apply_real_partition (term, kin)
     class(term_instance_t), intent(inout) :: term
     type(kinematics_t), intent(in) :: kin
     real(default) :: f, sqme
     integer :: i_component
     integer :: i_amp, n_amps, qn_index
     logical :: is_subtraction
     i_component = term%config%i_component
     select type (pcm => term%pcm)
     type is (pcm_nlo_t)
        if (pcm%component_selected (i_component) .and. &
            pcm%nlo_type (i_component) == NLO_REAL) then
           is_subtraction = pcm%component_type (i_component) == &
                COMP_REAL_SING .and. kin%emitter < 0
           if (is_subtraction) return
           select case (pcm%component_type (i_component))
           case (COMP_REAL_FIN)
              call term%connected%trace%set_duplicate_flv_zero()
           end select
           f = pcm%real_partition%get_f (term%p_hard)
           n_amps = term%connected%trace%get_n_matrix_elements ()
           do i_amp = 1, n_amps
              qn_index = term%connected%trace%get_qn_index (i_amp, i_sub = 0)
              if (term%passed_array(i_amp) .or. .not. term%passed) then
                 sqme = real (term%connected%trace%get_matrix_element (qn_index))
              else
                 sqme = zero
              end if
              if (debug_on)  call msg_debug2 &
                   (D_PROCESS_INTEGRATION, "term_instance_apply_real_partition")
              select case (pcm%component_type (i_component))
              case (COMP_REAL_FIN)
                 if (debug_on)  call msg_debug2 &
                      (D_PROCESS_INTEGRATION, "Real finite")
                 sqme = sqme * (one - f)
              case (COMP_REAL_SING)
                 if (debug_on)  call msg_debug2 &
                      (D_PROCESS_INTEGRATION, "Real singular")
                 sqme = sqme * f
              end select
              if (debug_on)  call msg_debug2 &
                   (D_PROCESS_INTEGRATION, "apply_damping: sqme", sqme)
              call term%connected%trace%set_matrix_element &
                   (qn_index, cmplx (sqme, zero, default))
           end do
        end if
     end select
   end subroutine term_instance_apply_real_partition
 
 @ %def term_instance_apply_real_partition
 @
 <<Instances: term instance: TBP>>=
   procedure :: get_p_hard => term_instance_get_p_hard
 <<Instances: sub interfaces>>=
     pure module function term_instance_get_p_hard &
          (term_instance) result (p_hard)
       type(vector4_t), dimension(:), allocatable :: p_hard
       class(term_instance_t), intent(in) :: term_instance
     end function term_instance_get_p_hard
 <<Instances: procedures>>=
   pure module function term_instance_get_p_hard (term_instance) result (p_hard)
     type(vector4_t), dimension(:), allocatable :: p_hard
     class(term_instance_t), intent(in) :: term_instance
     allocate (p_hard (size (term_instance%p_hard)))
     p_hard = term_instance%p_hard
   end function term_instance_get_p_hard
 
 @ %def term_instance_get_p_hard
 @
 <<Instances: term instance: TBP>>=
   procedure :: set_emitter => term_instance_set_emitter
 <<Instances: sub interfaces>>=
     module subroutine term_instance_set_emitter (term, kin)
       class(term_instance_t), intent(inout) :: term
       type(kinematics_t), intent(inout) :: kin
     end subroutine term_instance_set_emitter
 <<Instances: procedures>>=
   module subroutine term_instance_set_emitter (term, kin)
     class(term_instance_t), intent(inout) :: term
     type(kinematics_t), intent(inout) :: kin
     integer :: i_phs
     logical :: set_emitter
     select type (pcm => term%pcm)
     type is (pcm_nlo_t)
        select type (phs => kin%phs)
        type is (phs_fks_t)
           !!! Without resonances, i_alr = i_phs
           i_phs = term%config%i_term
           kin%i_phs = i_phs
           set_emitter = i_phs <= pcm%region_data%n_phs .and. &
                term%nlo_type == NLO_REAL
           if (set_emitter) then
              kin%emitter = phs%phs_identifiers(i_phs)%emitter
              select type (pcm => term%pcm)
              type is (pcm_nlo_t)
                 if (allocated (pcm%region_data%i_phs_to_i_con)) &
                    kin%i_con = pcm%region_data%i_phs_to_i_con (i_phs)
              end select
           end if
        end select
     end select
   end subroutine term_instance_set_emitter
 
 @ %def term_instance_set_emitter
 @ For initializing the expressions, we need the local variable list and the
 parse trees.
 <<Instances: term instance: TBP>>=
   procedure :: setup_expressions => term_instance_setup_expressions
 <<Instances: sub interfaces>>=
     module subroutine term_instance_setup_expressions (term, meta, config)
       class(term_instance_t), intent(inout), target :: term
       type(process_metadata_t), intent(in), target :: meta
       type(process_config_data_t), intent(in) :: config
     end subroutine term_instance_setup_expressions
 <<Instances: procedures>>=
   module subroutine term_instance_setup_expressions (term, meta, config)
     class(term_instance_t), intent(inout), target :: term
     type(process_metadata_t), intent(in), target :: meta
     type(process_config_data_t), intent(in) :: config
     if (allocated (config%ef_cuts)) &
          call term%connected%setup_cuts (config%ef_cuts)
     if (allocated (config%ef_scale)) &
          call term%connected%setup_scale (config%ef_scale)
     if (allocated (config%ef_fac_scale)) &
          call term%connected%setup_fac_scale (config%ef_fac_scale)
     if (allocated (config%ef_ren_scale)) &
          call term%connected%setup_ren_scale (config%ef_ren_scale)
     if (allocated (config%ef_weight)) &
          call term%connected%setup_weight (config%ef_weight)
   end subroutine term_instance_setup_expressions
 
 @ %def term_instance_setup_expressions
 @ Prepare the extra evaluators that we need for processing events.
 
 The matrix elements we get from OpenLoops and GoSam are already squared
 and summed over color and helicity. They should not be squared again.
 <<Instances: term instance: TBP>>=
   procedure :: setup_event_data => term_instance_setup_event_data
 <<Instances: sub interfaces>>=
     module subroutine term_instance_setup_event_data (term, kin, core, model)
       class(term_instance_t), intent(inout), target :: term
       type(kinematics_t), intent(in) :: kin
       class(prc_core_t), intent(in) :: core
       class(model_data_t), intent(in), target :: model
     end subroutine term_instance_setup_event_data
 <<Instances: procedures>>=
   module subroutine term_instance_setup_event_data (term, kin, core, model)
     class(term_instance_t), intent(inout), target :: term
     type(kinematics_t), intent(in) :: kin
     class(prc_core_t), intent(in) :: core
     class(model_data_t), intent(in), target :: model
     integer :: n_in
     logical :: mask_color
     type(quantum_numbers_mask_t), dimension(:), allocatable :: mask_in
     n_in = term%int_hard%get_n_in ()
     allocate (mask_in (n_in))
     mask_in = kin%sf_chain%get_out_mask ()
     call setup_isolated (term%isolated, core, model, mask_in, term%config%col)
     select type (pcm_work => term%pcm_work)
     type is (pcm_nlo_workspace_t)
        mask_color = pcm_work%is_fixed_order_nlo_events ()
     class default
        mask_color = .false.
     end select
     call setup_connected (term%connected, term%isolated, core, &
          term%nlo_type, mask_color)
   contains
     subroutine setup_isolated (isolated, core, model, mask, color)
       type(isolated_state_t), intent(inout), target :: isolated
       class(prc_core_t), intent(in) :: core
       class(model_data_t), intent(in), target :: model
       type(quantum_numbers_mask_t), intent(in), dimension(:) :: mask
       integer, intent(in), dimension(:) :: color
       select type (core)
       class is (prc_blha_t)
          call isolated%matrix%init_identity(isolated%int_eff)
          isolated%has_matrix = .true.
       class default
          call isolated%setup_square_matrix (core, model, mask, color)
       end select
       !!! TODO (PS-09-10-20) We should not square the flows
       !!! if they come from BLHA either
       call isolated%setup_square_flows (core, model, mask)
     end subroutine setup_isolated
 
     subroutine setup_connected (connected, isolated, core, nlo_type, mask_color)
       type(connected_state_t), intent(inout), target :: connected
       type(isolated_state_t), intent(in), target :: isolated
       class(prc_core_t), intent(in) :: core
       integer, intent(in) :: nlo_type
       logical, intent(in) :: mask_color
       type(quantum_numbers_mask_t), dimension(:), allocatable :: mask
       call connected%setup_connected_matrix (isolated)
       if (term%nlo_type == NLO_VIRTUAL .or. (term%nlo_type == NLO_REAL &
            .and. term%config%i_term_global == term%config%i_sub) &
            .or. term%nlo_type == NLO_DGLAP) then
          !!! We do not care about the subtraction matrix elements in
          !!! connected%matrix, because all entries there are supposed
          !!! to be squared. To be able to match with flavor quantum numbers,
          !!! we remove the subtraction quantum entries from the state matrix.
          allocate (mask (connected%matrix%get_n_tot()))
          call mask%set_sub (1)
          call connected%matrix%reduce_state_matrix (mask, keep_order = .true.)
       end if
       call term%init_interaction_qn_index (core, connected%matrix, 0, model, &
            is_polarized = .false.)
       select type (core)
       class is (prc_blha_t)
          call connected%setup_connected_flows &
               (isolated, mask_color = mask_color)
       class default
          call connected%setup_connected_flows (isolated)
       end select
       call connected%setup_state_flv (isolated%get_n_out ())
     end subroutine setup_connected
   end subroutine term_instance_setup_event_data
 
 @ %def term_instance_setup_event_data
 @ Color-correlated matrix elements should be obtained from
 the external BLHA provider. According to the standard, the
 matrix elements output is a one-dimensional array. For FKS
 subtraction, we require the  matrix $B_{ij}$. BLHA prescribes
 a mapping $(i, j) \to k$, where $k$ is the index of the matrix
 element in the output array. It focusses on the off-diagonal entries,
 i.e. $i \neq j$. The subroutine [[blha_color_c_fill_offdiag]] realizes
 this mapping. The diagonal entries can simply be obtained as
 the product of the Born matrix element and either $C_A$ or $C_F$,
 which is achieved by [[blha_color_c_fill_diag]].
 For simple processes, i.e. those with only one color line, it is
 $B_{ij} = C_F \cdot B$. For those, we keep the possibility of computing
 color correlations by a multiplication of the Born matrix element with $C_F$.
 It is triggered by the [[use_internal_color_correlations]] flag and should
 be used only for testing purposes. However, it is also used for
 the threshold computation where the process is well-defined and fixed.
 <<Instances: term instance: TBP>>=
   procedure :: evaluate_color_correlations => &
      term_instance_evaluate_color_correlations
 <<Instances: sub interfaces>>=
     module subroutine term_instance_evaluate_color_correlations (term, core)
       class(term_instance_t), intent(inout) :: term
       class(prc_core_t), intent(inout) :: core
     end subroutine term_instance_evaluate_color_correlations
 <<Instances: procedures>>=
   module subroutine term_instance_evaluate_color_correlations (term, core)
     class(term_instance_t), intent(inout) :: term
     class(prc_core_t), intent(inout) :: core
     integer :: i_flv_born
     select type (pcm_work => term%pcm_work)
     type is (pcm_nlo_workspace_t)
        select type (pcm => term%pcm)
        type is (pcm_nlo_t)
           if (debug_on) call msg_debug2 (D_SUBTRACTION, &
                "term_instance_evaluate_color_correlations: " // &
                "use_internal_color_correlations:", &
                pcm%settings%use_internal_color_correlations)
           if (debug_on) call msg_debug2 (D_SUBTRACTION, "fac_scale", term%get_fac_scale ())
           do i_flv_born = 1, pcm%region_data%n_flv_born
              select case (term%nlo_type)
              case (NLO_REAL)
                 call transfer_me_array_to_bij (pcm, i_flv_born, &
                      pcm_work%real_sub%sqme_born (i_flv_born), &
                      pcm_work%real_sub%sqme_born_color_c (:, :, i_flv_born))
              case (NLO_MISMATCH)
                 call transfer_me_array_to_bij (pcm, i_flv_born, &
                      pcm_work%soft_mismatch%sqme_born (i_flv_born), &
                      pcm_work%soft_mismatch%sqme_born_color_c (:, :, i_flv_born))
              case (NLO_VIRTUAL)
                 !!! This is just a copy of the above with a different offset and can for sure be unified
                 call transfer_me_array_to_bij (pcm, i_flv_born, &
                      -one, pcm_work%virtual%sqme_color_c (:, :, i_flv_born))
               case (NLO_DGLAP)
                 call transfer_me_array_to_bij (pcm, i_flv_born, &
                      pcm_work%dglap_remnant%sqme_born (i_flv_born), &
                      pcm_work%dglap_remnant%sqme_color_c_extra (:, :, i_flv_born))
              end select
           end do
        end select
     end select
   contains
     function get_trivial_cf_factors (n_tot, flv, factorization_mode) result (beta_ij)
       integer, intent(in) :: n_tot, factorization_mode
       integer, intent(in), dimension(:) :: flv
       real(default), dimension(n_tot, n_tot) :: beta_ij
       if (factorization_mode == NO_FACTORIZATION) then
          beta_ij = get_trivial_cf_factors_default (n_tot, flv)
       else
          beta_ij = get_trivial_cf_factors_threshold (n_tot, flv)
       end if
     end function get_trivial_cf_factors
 
     function get_trivial_cf_factors_default (n_tot, flv) result (beta_ij)
       integer, intent(in) :: n_tot
       integer, intent(in), dimension(:) :: flv
       real(default), dimension(n_tot, n_tot) :: beta_ij
       integer :: i, j
       beta_ij = zero
       if (count (is_quark (flv)) == 2) then
          do i = 1, n_tot
             do j = 1, n_tot
                if (is_quark(flv(i)) .and. is_quark(flv(j))) then
                   if (i == j) then
                      beta_ij(i,j)= -cf
                   else
                      beta_ij(i,j) = cf
                   end if
                end if
             end do
          end do
       end if
     end function get_trivial_cf_factors_default
 
     function get_trivial_cf_factors_threshold (n_tot, flv) result (beta_ij)
       integer, intent(in) :: n_tot
       integer, intent(in), dimension(:) :: flv
       real(default), dimension(n_tot, n_tot) :: beta_ij
       integer :: i
       beta_ij = zero
       do i = 1, 4
          beta_ij(i,i) = -cf
       end do
       beta_ij(1,2) = cf; beta_ij(2,1) = cf
       beta_ij(3,4) = cf; beta_ij(4,3) = cf
     end function get_trivial_cf_factors_threshold
 
     subroutine transfer_me_array_to_bij (pcm, i_flv, &
          sqme_born, sqme_color_c)
       type(pcm_nlo_t), intent(in) :: pcm
       integer, intent(in) :: i_flv
       real(default), intent(in) :: sqme_born
       real(default), dimension(:,:), intent(inout) :: sqme_color_c
       logical :: special_case_interferences
       integer :: i_color_c, i_sub, n_offset, i_qn
       real(default), dimension(:), allocatable :: sqme
       real(default) :: sqme_born_c
       if (debug_on) call msg_debug2 (D_PROCESS_INTEGRATION, "transfer_me_array_to_bij")
       if (pcm%settings%use_internal_color_correlations) then
          !!! A negative value for sqme_born indicates that the Born matrix
          !!! element is multiplied at a different place, e.g. in the case
          !!! of the virtual component
          sqme_color_c = get_trivial_cf_factors &
               (pcm%region_data%get_n_legs_born (), &
               pcm%region_data%get_flv_states_born (i_flv), &
               pcm%settings%factorization_mode)
          if (sqme_born > zero) then
             sqme_color_c = sqme_born * sqme_color_c
          else if (sqme_born == zero) then
             sqme_color_c = zero
          end if
       else
          special_case_interferences = &
               pcm%region_data%nlo_correction_type == "EW"
          n_offset = 0
          if (term%nlo_type == NLO_VIRTUAL) then
             n_offset = 1
          else if (pcm%has_pdfs .and. (term%is_subtraction () &
                 .or. term%nlo_type == NLO_DGLAP)) then
             n_offset = n_beams_rescaled
          end if
          allocate (sqme (term%get_n_sub_color ()), source = zero)
          do i_sub = 1, term%get_n_sub_color ()
             i_qn = term%connected%trace%get_qn_index (i_flv, i_sub = i_sub + n_offset)
             if (term%passed_array(i_flv) .or. .not. term%passed) then
                sqme(i_sub) = real(term%connected%trace%get_matrix_element (i_qn), default)
             else
                sqme(i_sub) = zero
             end if
          end do
          call blha_color_c_fill_offdiag (pcm%region_data%n_legs_born, &
               sqme, sqme_color_c)
          i_qn = term%connected%trace%get_qn_index (i_flv, i_sub = 0)
          if (term%passed_array(i_flv) .or. .not. term%passed) then
             sqme_born_c = real(term%connected%trace%get_matrix_element (i_qn), default)
          else
             sqme_born_c = zero
          end if
          call blha_color_c_fill_diag (sqme_born_c, &
               pcm%region_data%get_flv_states_born (i_flv), &
               sqme_color_c, special_case_interferences)
       end if
     end subroutine transfer_me_array_to_bij
   end subroutine term_instance_evaluate_color_correlations
 
 @ %def term_instance_evaluate_color_correlations
 @
 <<Instances: term instance: TBP>>=
   procedure :: evaluate_charge_correlations => &
      term_instance_evaluate_charge_correlations
 <<Instances: sub interfaces>>=
     module subroutine term_instance_evaluate_charge_correlations (term, core)
       class(term_instance_t), intent(inout) :: term
       class(prc_core_t), intent(inout) :: core
     end subroutine term_instance_evaluate_charge_correlations
 <<Instances: procedures>>=
   module subroutine term_instance_evaluate_charge_correlations (term, core)
     class(term_instance_t), intent(inout) :: term
     class(prc_core_t), intent(inout) :: core
     integer :: i_flv_born
     select type (pcm_work => term%pcm_work)
     type is (pcm_nlo_workspace_t)
        select type (pcm => term%pcm)
        type is (pcm_nlo_t)
           do i_flv_born = 1, pcm%region_data%n_flv_born
              select case (term%nlo_type)
              case (NLO_REAL)
                 call transfer_me_array_to_bij (pcm, i_flv_born, &
                      pcm_work%real_sub%sqme_born (i_flv_born), &
                      pcm_work%real_sub%sqme_born_charge_c (:, :, i_flv_born))
              case (NLO_MISMATCH)
                 call transfer_me_array_to_bij (pcm, i_flv_born, &
                      pcm_work%soft_mismatch%sqme_born (i_flv_born), &
                      pcm_work%soft_mismatch%sqme_born_charge_c (:, :, i_flv_born))
              case (NLO_VIRTUAL)
                 call transfer_me_array_to_bij (pcm, i_flv_born, &
                      one, pcm_work%virtual%sqme_charge_c (:, :, i_flv_born))
              end select
           end do
        end select
     end select
   contains
     subroutine transfer_me_array_to_bij (pcm, i_flv, sqme_born, sqme_charge_c)
       type(pcm_nlo_t), intent(in) :: pcm
       integer, intent(in) :: i_flv
       real(default), intent(in) :: sqme_born
       real(default), dimension(:,:), intent(inout) :: sqme_charge_c
       integer :: n_legs_born, i, j
       real(default), dimension(:), allocatable :: sigma
       real(default), dimension(:), allocatable :: Q
       n_legs_born = pcm%region_data%n_legs_born
       associate (flv_born => pcm%region_data%flv_born(i_flv))
          allocate (sigma (n_legs_born), Q (size (flv_born%charge)))
          Q = flv_born%charge
          sigma(1:flv_born%n_in) = -one
          sigma(flv_born%n_in + 1: ) = one
       end associate
       do i = 1, n_legs_born
          do j = 1, n_legs_born
             sqme_charge_c(i, j) = sigma(i) * sigma(j) * Q(i) * Q(j) * (-one)
          end do
       end do
       sqme_charge_c = sqme_charge_c * sqme_born
     end subroutine transfer_me_array_to_bij
   end subroutine term_instance_evaluate_charge_correlations
 
 @ %def term_instance_evaluate_charge_correlations
 @ The information about spin correlations is not stored in the
 [[nlo_settings]] because it is only available after the
 [[fks_regions]] have been created.
 <<Instances: term instance: TBP>>=
   procedure :: evaluate_spin_correlations => &
        term_instance_evaluate_spin_correlations
 <<Instances: sub interfaces>>=
     module subroutine term_instance_evaluate_spin_correlations (term, core)
       class(term_instance_t), intent(inout) :: term
       class(prc_core_t), intent(inout) :: core
     end subroutine term_instance_evaluate_spin_correlations
 <<Instances: procedures>>=
   module subroutine term_instance_evaluate_spin_correlations (term, core)
     class(term_instance_t), intent(inout) :: term
     class(prc_core_t), intent(inout) :: core
     integer :: i_flv, i_sub, i_emitter, emitter, i_qn
     integer :: n_flv, n_sub_color, n_sub_spin, n_offset,i,j
     real(default), dimension(1:3, 1:3) :: sqme_spin_c
     real(default), dimension(:), allocatable :: sqme_spin_c_all
     real(default), dimension(:), allocatable :: sqme_spin_c_arr
     if (debug_on) call msg_debug2 (D_PROCESS_INTEGRATION, &
          "term_instance_evaluate_spin_correlations")
     select type (pcm_work => term%pcm_work)
     type is (pcm_nlo_workspace_t)
        if (pcm_work%real_sub%requires_spin_correlations () &
             .and. term%nlo_type == NLO_REAL) then
           select type (core)
           type is (prc_openloops_t)
              select type (pcm => term%pcm)
              type is (pcm_nlo_t)
                 n_flv = term%connected%trace%get_qn_index_n_flv ()
                 n_sub_color = term%get_n_sub_color ()
                 n_sub_spin = term%get_n_sub_spin ()
                 n_offset = 0; if(pcm%has_pdfs) n_offset = n_beams_rescaled
                 allocate (sqme_spin_c_arr(6))
                 do i_flv = 1, n_flv
                    allocate (sqme_spin_c_all(n_sub_spin))
                    do i_sub = 1, n_sub_spin
                       i_qn = term%connected%trace%get_qn_index (i_flv, &
                              i_sub = i_sub + n_offset + n_sub_color)
                       if (term%passed_array(i_flv) .or. .not. term%passed) then
                          sqme_spin_c_all(i_sub) = &
                             real(term%connected%trace%get_matrix_element (i_qn), default)
                       else
                          sqme_spin_c_all(i_sub) = zero
                       end if
                    end do
                    do i_emitter = 1, pcm%region_data%n_emitters
                       emitter = pcm%region_data%emitters(i_emitter)
                       if (emitter > 0) then
                          call split_array (sqme_spin_c_all, sqme_spin_c_arr)
                          do j = 1, size (sqme_spin_c, dim=2)
                             do i = j, size (sqme_spin_c, dim=1)
                                !!! Restoring the symmetric matrix packed into a 1-dim array
                                !!! c.f. [[prc_openloops_compute_sqme_spin_c]]
                                sqme_spin_c(i,j) = sqme_spin_c_arr(j + i * (i - 1) / 2)
                                if (i /= j) sqme_spin_c(j,i) = sqme_spin_c(i,j)
                             end do
                          end do
                          pcm_work%real_sub%sqme_born_spin_c(:,:,emitter,i_flv) = sqme_spin_c
                       end if
                    end do
                    deallocate (sqme_spin_c_all)
                 end do
              end select
           class default
              call msg_fatal &
                   ("Spin correlations so far only supported by OpenLoops.")
           end select
        end if
     end select
   end subroutine term_instance_evaluate_spin_correlations
 
 @ %def term_instance_evaluate_spin_correlations
 @
 <<Instances: term instance: TBP>>=
   procedure :: apply_fks => term_instance_apply_fks
 <<Instances: sub interfaces>>=
     module subroutine term_instance_apply_fks &
          (term, kin, alpha_s_sub, alpha_qed_sub)
       class(term_instance_t), intent(inout) :: term
       class(kinematics_t), intent(inout) :: kin
       real(default), intent(in) :: alpha_s_sub, alpha_qed_sub
     end subroutine term_instance_apply_fks
 <<Instances: procedures>>=
   module subroutine term_instance_apply_fks &
        (term, kin, alpha_s_sub, alpha_qed_sub)
     class(term_instance_t), intent(inout) :: term
     class(kinematics_t), intent(inout) :: kin
     real(default), intent(in) :: alpha_s_sub, alpha_qed_sub
     real(default), dimension(:), allocatable :: sqme
     integer :: i, i_phs, emitter, i_qn
     logical :: is_subtraction
     select type (pcm_work => term%pcm_work)
     type is (pcm_nlo_workspace_t)
        select type (pcm => term%pcm)
        type is (pcm_nlo_t)
           if (term%connected%has_matrix) then
              allocate (sqme (pcm%get_n_alr ()))
           else
              allocate (sqme (1))
           end if
           sqme = zero
           select type (phs => kin%phs)
           type is (phs_fks_t)
              if (pcm%has_pdfs .and. &
                   pcm%settings%use_internal_color_correlations) then
                 call msg_fatal ("Color correlations for proton processes " // &
                      "so far only supported by OpenLoops.")
              end if
              call pcm_work%set_real_and_isr_kinematics &
                   (phs%phs_identifiers, kin%phs%get_sqrts ())
              if (kin%emitter < 0) then
                 call pcm_work%set_subtraction_event ()
                 do i_phs = 1, pcm%region_data%n_phs
                    emitter = phs%phs_identifiers(i_phs)%emitter
                    call pcm_work%real_sub%compute (emitter, &
                         i_phs, alpha_s_sub, alpha_qed_sub, term%connected%has_matrix, sqme)
                 end do
              else
                 call pcm_work%set_radiation_event ()
                 emitter = kin%emitter; i_phs = kin%i_phs
                 do i = 1, term%connected%trace%get_qn_index_n_flv ()
                    i_qn = term%connected%trace%get_qn_index (i)
                    if (term%passed_array(i) .or. .not. term%passed) then
                       pcm_work%real_sub%sqme_real_non_sub (i, i_phs) = &
                         real (term%connected%trace%get_matrix_element (i_qn))
                    else
                       pcm_work%real_sub%sqme_real_non_sub (i, i_phs) = zero
                    end if
                 end do
                 call pcm_work%real_sub%compute (emitter, i_phs, alpha_s_sub, &
                      alpha_qed_sub, term%connected%has_matrix, sqme)
              end if
           end select
        end select
     end select
     if (term%connected%has_trace) &
          call term%connected%trace%set_only_matrix_element &
               (1, cmplx (sum(sqme), 0, default))
     select type (pcm => term%pcm)
     type is (pcm_nlo_t)
        is_subtraction = kin%emitter < 0
        if (term%connected%has_matrix) &
             call refill_evaluator (cmplx (sqme * term%weight, 0, default), &
                  pcm%get_qn (is_subtraction), &
                  pcm%region_data%get_flavor_indices (is_subtraction), &
                  term%connected%matrix)
        if (term%connected%has_flows) &
             call refill_evaluator (cmplx (sqme * term%weight, 0, default), &
                  pcm%get_qn (is_subtraction), &
                  pcm%region_data%get_flavor_indices (is_subtraction), &
                  term%connected%flows)
     end select
   end subroutine term_instance_apply_fks
 
 @ %def term_instance_apply_fks
 @
 <<Instances: term instance: TBP>>=
   procedure :: evaluate_sqme_virt => term_instance_evaluate_sqme_virt
 <<Instances: sub interfaces>>=
     module subroutine term_instance_evaluate_sqme_virt &
          (term, alpha_s, alpha_qed)
       class(term_instance_t), intent(inout) :: term
       real(default), intent(in) :: alpha_s, alpha_qed
     end subroutine term_instance_evaluate_sqme_virt
 <<Instances: procedures>>=
   module subroutine term_instance_evaluate_sqme_virt (term, alpha_s, alpha_qed)
     class(term_instance_t), intent(inout) :: term
     real(default), intent(in) :: alpha_s, alpha_qed
     real(default), dimension(2) :: alpha_coupling
     type(vector4_t), dimension(:), allocatable :: p_born
     real(default), dimension(:), allocatable :: sqme_virt
     integer :: i_flv, i_qn_born, i_qn_virt
     if (term%nlo_type /= NLO_VIRTUAL)  call msg_fatal ("Trying to " // &
          "evaluate virtual matrix element with unsuited term_instance.")
     if (debug2_active (D_VIRTUAL)) then 
        call msg_debug2 &
             (D_VIRTUAL, "Evaluating virtual-subtracted matrix elements")
        print *, 'ren_scale: ', term%get_ren_scale ()
        print *, 'fac_scale: ', term%get_fac_scale ()
        if (allocated (term%es_scale)) then
           print *, 'ES  scale: ', term%es_scale
        else
           print *, 'ES  scale: ', term%get_ren_scale ()
        end if
     end if
     select type (pcm => term%pcm)
     type is (pcm_nlo_t)
        select type (pcm_work => term%pcm_work)
        type is (pcm_nlo_workspace_t)
           alpha_coupling = [alpha_s, alpha_qed]
           if (debug2_active (D_VIRTUAL)) then
              print *, 'alpha_s: ', alpha_coupling (1)
              print *, 'alpha_qed: ', alpha_coupling (2)
           end if
           allocate (p_born (pcm%region_data%n_legs_born))
           if (pcm%settings%factorization_mode == FACTORIZATION_THRESHOLD) then
              p_born = pcm_work%real_kinematics%p_born_onshell%get_momenta(1)
           else
              p_born = term%int_hard%get_momenta ()
           end if
           call pcm_work%set_momenta_and_scales_virtual &
                (p_born, term%ren_scale, term%get_fac_scale (), &
                term%es_scale)
           select type (pcm_work => term%pcm_work)
           type is (pcm_nlo_workspace_t)
              associate (virtual => pcm_work%virtual)
                do i_flv = 1, term%connected%trace%get_qn_index_n_flv ()
                   i_qn_born = term%connected%trace%get_qn_index (i_flv, i_sub = 0)
                   i_qn_virt = term%connected%trace%get_qn_index (i_flv, i_sub = 1)
                   if (term%passed_array(i_flv) .or. .not. term%passed) then
                      virtual%sqme_born(i_flv) = &
                           real (term%connected%trace%get_matrix_element (i_qn_born))
                      virtual%sqme_virt_fin(i_flv) = &
                           real (term%connected%trace%get_matrix_element (i_qn_virt))
                   else
                      virtual%sqme_born(i_flv) = zero
                      virtual%sqme_virt_fin(i_flv) = zero
                   end if
                end do
              end associate
           end select
           call pcm_work%compute_sqme_virt (term%pcm, term%p_hard, &
                alpha_coupling, term%connected%has_matrix, sqme_virt)
           call term%connected%trace%set_only_matrix_element &
                (1, cmplx (sum(sqme_virt), 0, default))
           if (term%connected%has_matrix) &
                call refill_evaluator (cmplx (sqme_virt * term%weight, &
                    0, default), pcm%get_qn (.true.), &
                    remove_duplicates_from_int_array ( &
                    pcm%region_data%get_flavor_indices (.true.)), &
                    term%connected%matrix)
           if (term%connected%has_flows) &
                call refill_evaluator (cmplx (sqme_virt * term%weight, &
                     0, default), pcm%get_qn (.true.), &
                     remove_duplicates_from_int_array ( &
                     pcm%region_data%get_flavor_indices (.true.)), &
                     term%connected%flows)
        end select
     end select
   end subroutine term_instance_evaluate_sqme_virt
 
 @ %def term_instance_evaluate_sqme_virt
 @ Needs generalization to electroweak corrections.
 <<Instances: term instance: TBP>>=
   procedure :: evaluate_sqme_mismatch => term_instance_evaluate_sqme_mismatch
 <<Instances: sub interfaces>>=
     module subroutine term_instance_evaluate_sqme_mismatch (term, alpha_s)
       class(term_instance_t), intent(inout) :: term
       real(default), intent(in) :: alpha_s
     end subroutine term_instance_evaluate_sqme_mismatch
 <<Instances: procedures>>=
   module subroutine term_instance_evaluate_sqme_mismatch (term, alpha_s)
     class(term_instance_t), intent(inout) :: term
     real(default), intent(in) :: alpha_s
     real(default), dimension(:), allocatable :: sqme_mism
     if (term%nlo_type /= NLO_MISMATCH) call msg_fatal &
        ("Trying to evaluate soft mismatch with unsuited term_instance.")
     select type (pcm_work => term%pcm_work)
     type is (pcm_nlo_workspace_t)
        call pcm_work%compute_sqme_mismatch &
             (term%pcm, alpha_s, term%connected%has_matrix, sqme_mism)
     end select
     call term%connected%trace%set_only_matrix_element &
          (1, cmplx (sum (sqme_mism) * term%weight, 0, default))
     if (term%connected%has_matrix) then
        select type (pcm => term%pcm)
        type is (pcm_nlo_t)
           if (term%connected%has_matrix) &
                call refill_evaluator (cmplx (sqme_mism * term%weight, 0, default), &
                     pcm%get_qn (.true.), &
                     remove_duplicates_from_int_array ( &
                     pcm%region_data%get_flavor_indices (.true.)), &
                     term%connected%matrix)
           if (term%connected%has_flows) &
                call refill_evaluator (cmplx (sqme_mism * term%weight, 0, default), &
                     pcm%get_qn (.true.), &
                     remove_duplicates_from_int_array ( &
                     pcm%region_data%get_flavor_indices (.true.)), &
                     term%connected%flows)
        end select
     end if
   end subroutine term_instance_evaluate_sqme_mismatch
 
 @ %def term_instance_evaluate_sqme_mismatch
 @
 <<Instances: term instance: TBP>>=
   procedure :: evaluate_sqme_dglap => term_instance_evaluate_sqme_dglap
 <<Instances: sub interfaces>>=
     module subroutine term_instance_evaluate_sqme_dglap &
          (term, alpha_s, alpha_qed)
       class(term_instance_t), intent(inout) :: term
       real(default), intent(in) :: alpha_s, alpha_qed
     end subroutine term_instance_evaluate_sqme_dglap
 <<Instances: procedures>>=
   module subroutine term_instance_evaluate_sqme_dglap (term, alpha_s, alpha_qed)
     class(term_instance_t), intent(inout) :: term
     real(default), intent(in) :: alpha_s, alpha_qed
     real(default), dimension(2) :: alpha_coupling
     real(default), dimension(:), allocatable :: sqme_dglap
     integer :: i_flv
     if (term%nlo_type /= NLO_DGLAP) call msg_fatal &
        ("Trying to evaluate DGLAP remnant with unsuited term_instance.")
     if (debug_on)  call msg_debug2 &
          (D_PROCESS_INTEGRATION, "term_instance_evaluate_sqme_dglap")
     select type (pcm => term%pcm)
     type is (pcm_nlo_t)
        select type (pcm_work => term%pcm_work)
        type is (pcm_nlo_workspace_t)
           alpha_coupling = [alpha_s,alpha_qed]
           if (debug2_active (D_PROCESS_INTEGRATION)) then
              associate (n_flv => pcm_work%dglap_remnant%reg_data%n_flv_born)
                print *, "size(sqme_born) = ", &
                     size (pcm_work%dglap_remnant%sqme_born)
                call term%connected%trace%write ()
              end associate
           end if
           call pcm_work%compute_sqme_dglap_remnant (pcm, alpha_coupling, &
                term%connected%has_matrix, sqme_dglap)
        end select
     end select
     call term%connected%trace%set_only_matrix_element &
          (1, cmplx (sum (sqme_dglap) * term%weight, 0, default))
     if (term%connected%has_matrix) then
        select type (pcm => term%pcm)
        type is (pcm_nlo_t)
           call refill_evaluator (cmplx (sqme_dglap * term%weight, 0, default), &
                pcm%get_qn (.true.), &
                remove_duplicates_from_int_array ( &
                pcm%region_data%get_flavor_indices (.true.)), &
                term%connected%matrix)
           if (term%connected%has_flows) then
              call refill_evaluator &
                   (cmplx (sqme_dglap * term%weight, 0, default), &
                   pcm%get_qn (.true.), &
                   remove_duplicates_from_int_array ( &
                   pcm%region_data%get_flavor_indices (.true.)), &
                   term%connected%flows)
           end if
        end select
     end if
   end subroutine term_instance_evaluate_sqme_dglap
 
 @ %def term_instance_evaluate_sqme_dglap
 @ Reset the term instance: clear the parton-state expressions and deactivate.
 <<Instances: term instance: TBP>>=
   procedure :: reset => term_instance_reset
 <<Instances: sub interfaces>>=
     module subroutine term_instance_reset (term)
       class(term_instance_t), intent(inout) :: term
     end subroutine term_instance_reset
 <<Instances: procedures>>=
   module subroutine term_instance_reset (term)
     class(term_instance_t), intent(inout) :: term
     call term%connected%reset_expressions ()
     if (allocated (term%alpha_qcd_forced))  deallocate (term%alpha_qcd_forced)
     term%active = .false.
   end subroutine term_instance_reset
 
 @ %def term_instance_reset
 @ Force an $\alpha_s$ value that should be used in the matrix-element
 calculation.
 <<Instances: term instance: TBP>>=
   procedure :: set_alpha_qcd_forced => term_instance_set_alpha_qcd_forced
 <<Instances: sub interfaces>>=
     module subroutine term_instance_set_alpha_qcd_forced (term, alpha_qcd)
       class(term_instance_t), intent(inout) :: term
       real(default), intent(in) :: alpha_qcd
     end subroutine term_instance_set_alpha_qcd_forced
 <<Instances: procedures>>=
   module subroutine term_instance_set_alpha_qcd_forced (term, alpha_qcd)
     class(term_instance_t), intent(inout) :: term
     real(default), intent(in) :: alpha_qcd
     if (allocated (term%alpha_qcd_forced)) then
        term%alpha_qcd_forced = alpha_qcd
     else
        allocate (term%alpha_qcd_forced, source = alpha_qcd)
     end if
   end subroutine term_instance_set_alpha_qcd_forced
 
 @ %def term_instance_set_alpha_qcd_forced
 @ Complete the kinematics computation for the effective parton states.
 
 We assume that the [[compute_hard_kinematics]] method of the process
 component instance has already been called, so the [[int_hard]]
 contains the correct hard kinematics.  The duty of this procedure is
 first to compute the effective kinematics and store this in the
 [[int_eff]] effective interaction inside the [[isolated]] parton
 state.  The effective kinematics may differ from the kinematics in the hard
 interaction.  It may involve parton recombination or parton splitting.
 The [[rearrange_partons]] method is responsible for this part.
 
 We may also call a method to compute the effective structure-function
 chain at this point.  This is not implemented yet.
 
 In the simple case that no rearrangement is necessary, as indicated by
 the [[rearrange]] flag, the effective interaction is a pointer to the
 hard interaction, and we can skip the rearrangement method.  Similarly
 for the effective structure-function chain.
 
 The final step of kinematics setup is to transfer the effective
 kinematics to the evaluators and to the [[subevt]].
 <<Instances: term instance: TBP>>=
   procedure :: compute_eff_kinematics => &
        term_instance_compute_eff_kinematics
 <<Instances: sub interfaces>>=
     module subroutine term_instance_compute_eff_kinematics (term)
       class(term_instance_t), intent(inout) :: term
     end subroutine term_instance_compute_eff_kinematics
 <<Instances: procedures>>=
   module subroutine term_instance_compute_eff_kinematics (term)
     class(term_instance_t), intent(inout) :: term
     term%checked = .false.
     term%passed = .false.
     call term%isolated%receive_kinematics ()
     call term%connected%receive_kinematics ()
   end subroutine term_instance_compute_eff_kinematics
 
 @ %def term_instance_compute_eff_kinematics
 @ Inverse.  Reconstruct the connected state from the momenta in the
 trace evaluator (which we assume to be set), then reconstruct the
 isolated state as far as possible.  The second part finalizes the
 momentum configuration, using the incoming seed momenta
 <<Instances: term instance: TBP>>=
   procedure :: recover_hard_kinematics => &
        term_instance_recover_hard_kinematics
 <<Instances: sub interfaces>>=
     module subroutine term_instance_recover_hard_kinematics (term)
       class(term_instance_t), intent(inout) :: term
     end subroutine term_instance_recover_hard_kinematics
 <<Instances: procedures>>=
   module subroutine term_instance_recover_hard_kinematics (term)
     class(term_instance_t), intent(inout) :: term
     term%checked = .false.
     term%passed = .false.
     call term%connected%send_kinematics ()
     call term%isolated%send_kinematics ()
   end subroutine term_instance_recover_hard_kinematics
 
 @ %def term_instance_recover_hard_kinematics
 @ Check the term whether it passes cuts and, if successful, evaluate
 scales and weights.  The factorization scale is also given to the term
 kinematics, enabling structure-function evaluation.
 <<Instances: term instance: TBP>>=
   procedure :: evaluate_expressions => &
        term_instance_evaluate_expressions
 <<Instances: sub interfaces>>=
     module subroutine term_instance_evaluate_expressions &
          (term, config, scale_forced)
       class(term_instance_t), intent(inout) :: term
       type(process_beam_config_t), intent(in) :: config
       real(default), intent(in), allocatable, optional :: scale_forced
     end subroutine term_instance_evaluate_expressions
 <<Instances: procedures>>=
   module subroutine term_instance_evaluate_expressions &
        (term, config, scale_forced)
     class(term_instance_t), intent(inout) :: term
     type(process_beam_config_t), intent(in) :: config
     real(default), intent(in), allocatable, optional :: scale_forced
     real(default) :: scale = 0
     real(default) :: weight = 1
     real(default), allocatable :: fac_scale, ren_scale
     type(interaction_t), pointer :: src_int
     type(state_matrix_t), pointer :: state_matrix
     type(flavor_t), dimension(:), allocatable :: flv_int, flv_src, f_in, f_out
     logical :: passed
     integer :: n_in, n_vir, n_out, n_tot, n_flv
     integer :: i, j, k
     n_flv = term%connected%trace%get_qn_index_n_flv ()
     if (.not. allocated (term%passed_array)) allocate (term%passed_array(n_flv))
     if (term%flv_dep_cut_eval) then
        do k = 1, n_flv
           if (k == term%i_flv_to_i_flv_rep(k)) then
              n_in = term%int_hard%get_n_in ()
              associate (int_eff => term%isolated%int_eff)
                state_matrix => int_eff%get_state_matrix_ptr ()
                n_tot = int_eff%get_n_tot  ()
                flv_int = quantum_numbers_get_flavor &
                     (state_matrix%get_quantum_number (k))
                allocate (f_in (n_in))
                f_in = flv_int(1:n_in)
                deallocate (flv_int)
              end associate
              n_in = term%connected%trace%get_n_in ()
              n_vir = term%connected%trace%get_n_vir ()
              n_out = term%connected%trace%get_n_out ()
              allocate (f_out (n_out))
              do j = 1, n_out
                 call term%connected%trace%find_source &
                      (n_in + n_vir + j, src_int, i)
                 if (associated (src_int)) then
                    state_matrix => src_int%get_state_matrix_ptr ()
                    flv_src = quantum_numbers_get_flavor &
                         (state_matrix%get_quantum_number (k))
                    f_out(j) = flv_src(i)
                    deallocate (flv_src)
                 end if
              end do
 
              call term%connected%renew_flv_content_subevt &
                   (term%isolated%sf_chain_eff, &
                    config%data%flv, f_in, f_out)
              call term%connected%evaluate_expressions (passed, &
                scale, fac_scale, ren_scale, weight, &
                scale_forced, force_evaluation = .true.)
              if (k == 1) then
                 term%scale = scale
                 if (allocated (fac_scale)) then
                    if (.not. allocated (term%fac_scale)) then
                       allocate (term%fac_scale, source = fac_scale)
                    else
                       term%fac_scale = fac_scale
                    end if
                 end if
                 if (allocated (ren_scale)) then
                    if (.not. allocated (term%ren_scale)) then
                       allocate (term%ren_scale, source = ren_scale)
                    else
                       term%ren_scale = ren_scale
                    end if
                 end if
                 term%weight = weight
              end if
              term%passed_array(k) = passed
              deallocate (f_in)
              deallocate (f_out)
           else
              term%passed_array(k) = term%passed_array(term%i_flv_to_i_flv_rep(k))
           end if
        end do
        term%passed = any (term%passed_array)
     else
        call term%connected%evaluate_expressions (term%passed, &
             term%scale, term%fac_scale, term%ren_scale, term%weight, &
             scale_forced, force_evaluation = .true.)
        term%passed_array = term%passed
     end if
     term%checked = .true.
   end subroutine term_instance_evaluate_expressions
 
 @ %def term_instance_evaluate_expressions
 @ Evaluate the trace: first evaluate the hard interaction, then the trace
 evaluator.  We use the [[evaluate_interaction]] method of the process
 component which generated this term.  The [[subevt]] and cut expressions are
 not yet filled.
 
 The [[component]] argument is intent(inout) because the [[compute_amplitude]]
 method may modify the [[core_state]] workspace object.
 <<Instances: term instance: TBP>>=
   procedure :: evaluate_interaction => term_instance_evaluate_interaction
 <<Instances: sub interfaces>>=
     module subroutine term_instance_evaluate_interaction (term, core, kin)
       class(term_instance_t), intent(inout) :: term
       class(prc_core_t), intent(in), pointer :: core
       type(kinematics_t), intent(inout) :: kin
     end subroutine term_instance_evaluate_interaction
 <<Instances: procedures>>=
   module subroutine term_instance_evaluate_interaction (term, core, kin)
     class(term_instance_t), intent(inout) :: term
     class(prc_core_t), intent(in), pointer :: core
     type(kinematics_t), intent(inout) :: kin
     if (debug_on) call msg_debug2 (D_PROCESS_INTEGRATION, &
          "term_instance_evaluate_interaction")
     if (kin%only_cm_frame .and. (.not. kin%lab_is_cm())) then
          term%p_hard = kin%get_boost_to_cms () * term%int_hard%get_momenta ()
     else
          term%p_hard = term%int_hard%get_momenta ()
     end if
     select type (core)
     class is (prc_external_t)
        call term%evaluate_interaction_external (core, kin)
     class default
        call term%evaluate_interaction_default (core)
     end select
     call term%int_hard%set_matrix_element (term%amp)
   end subroutine term_instance_evaluate_interaction
 
 @ %def term_instance_evaluate_interaction
 @
 <<Instances: term instance: TBP>>=
   procedure :: evaluate_interaction_default &
      => term_instance_evaluate_interaction_default
 <<Instances: sub interfaces>>=
     module subroutine term_instance_evaluate_interaction_default (term, core)
       class(term_instance_t), intent(inout) :: term
       class(prc_core_t), intent(in) :: core
     end subroutine term_instance_evaluate_interaction_default
 <<Instances: procedures>>=
   module subroutine term_instance_evaluate_interaction_default (term, core)
     class(term_instance_t), intent(inout) :: term
     class(prc_core_t), intent(in) :: core
     real(default) :: fac_scale, ren_scale
     integer :: i
     if (allocated (term%fac_scale)) then
        fac_scale = term%fac_scale
     else
        fac_scale = term%scale
     end if
     if (allocated (term%ren_scale)) then
        ren_scale = term%ren_scale
     else
        ren_scale = term%scale
     end if
     do i = 1, term%config%n_allowed
        term%amp(i) = core%compute_amplitude (term%config%i_term, term%p_hard, &
             term%config%flv(i), term%config%hel(i), term%config%col(i), &
             fac_scale, ren_scale, term%alpha_qcd_forced, &
             term%core_state)
     end do
     select type (pcm_work => term%pcm_work)
     type is (pcm_nlo_workspace_t)
        call pcm_work%set_fac_scale (fac_scale)
     end select
   end subroutine term_instance_evaluate_interaction_default
 
 @ %def term_instance_evaluate_interaction_default
 @
 <<Instances: term instance: TBP>>=
   procedure :: evaluate_interaction_external &
      => term_instance_evaluate_interaction_external
 <<Instances: sub interfaces>>=
     module subroutine term_instance_evaluate_interaction_external &
          (term, core, kin)
       class(term_instance_t), intent(inout) :: term
       class(prc_core_t), intent(inout) :: core
       type(kinematics_t), intent(inout) :: kin
     end subroutine term_instance_evaluate_interaction_external
 <<Instances: procedures>>=
   module subroutine term_instance_evaluate_interaction_external &
        (term, core, kin)
     class(term_instance_t), intent(inout) :: term
     class(prc_core_t), intent(inout) :: core
     type(kinematics_t), intent(inout) :: kin
     if (debug_on) call msg_debug2 (D_PROCESS_INTEGRATION, &
          "term_instance_evaluate_interaction_external")
     select type (core_state => term%core_state)
     type is (openloops_state_t)
        select type (core)
        type is (prc_openloops_t)
           call core%compute_alpha_s (core_state, term%get_ren_scale ())
           if (allocated (core_state%threshold_data)) &
                call evaluate_threshold_parameters (core_state, core, kin%phs%get_sqrts ())
        end select
     class is (prc_external_state_t)
        select type (core)
        class is (prc_external_t)
           call core%compute_alpha_s (core_state, term%get_ren_scale ())
        end select
     end select
     call evaluate_threshold_interaction ()
     if (term%nlo_type == NLO_VIRTUAL) then
        call term%evaluate_interaction_external_loop (core)
     else
        call term%evaluate_interaction_external_tree (core)
     end if
     select type (pcm_work => term%pcm_work)
     type is (pcm_nlo_workspace_t)
        call pcm_work%set_fac_scale (term%get_fac_scale ())
     end select
 
   contains
     subroutine evaluate_threshold_parameters (core_state, core, sqrts)
        type(openloops_state_t), intent(inout) :: core_state
        type(prc_openloops_t), intent(inout) :: core
        real(default), intent(in) :: sqrts
        real(default) :: mtop, wtop
        mtop = m1s_to_mpole (sqrts)
        wtop = core_state%threshold_data%compute_top_width &
               (mtop, core_state%alpha_qcd)
        call core%set_mass_and_width (6, mtop, wtop)
     end subroutine
 
     subroutine evaluate_threshold_interaction ()
        integer :: leg
        select type (core)
        type is (prc_threshold_t)
           if (term%nlo_type > BORN) then
              select type (pcm_work => term%pcm_work)
              type is (pcm_nlo_workspace_t)
                 if (kin%emitter >= 0) then
                    call core%set_offshell_momenta &
                         (pcm_work%real_kinematics%p_real_cms%get_momenta(term%config%i_term))
                    leg = thr_leg (kin%emitter)
                    call core%set_leg (leg)
                    call core%set_onshell_momenta &
                         (pcm_work%real_kinematics%p_real_onshell(leg)%get_momenta(term%config%i_term))
                 else
                    call core%set_leg (0)
                    call core%set_offshell_momenta &
                         (pcm_work%real_kinematics%p_born_cms%get_momenta(1))
                 end if
              end select
           else
              call core%set_leg (-1)
              call core%set_offshell_momenta (term%p_hard)
           end if
        end select
     end subroutine evaluate_threshold_interaction
   end subroutine term_instance_evaluate_interaction_external
 
 @ %def term_instance_evaluate_interaction_external
 @ Retrieve the matrix elements from a matrix element provider and place them
 into [[term%amp]].
 
 For the handling of NLO calculations, FKS applies a book keeping handling
 flavor and/or particle type (e.g. for QCD: quark/gluon and quark flavor) in
 order to calculate the subtraction terms. Therefore, we have to insert the
 calculated matrix elements correctly into the state matrix where each entry
 corresponds to a set of quantum numbers. We apply a mapping
 [[hard_qn_ind]] from a list of quantum numbers provided by FKS to the
 hard process [[int_hard]].
 
 The calculated matrix elements are insert into [[term%amp]] in the following
 way. The first [[n_born]] particles are the matrix element of the hard process.
 In non-trivial beams, we store another [[n_beams_rescaled]] copies of these
 matrix elements as the first [[n_beams_rescaled]] subtractions. This
 is a remnant from times before the method
 [[term_instance_set_sf_factors]] and these entries are not used
 anymore. However, eliminating these entries involves deeper changes in
 how the connection tables for the evaluator product are set up and
 should therefore be part of a larger refactoring of the interactions
 \& state matrices. The next $n_{\text{born}}\times n_{sub_color}$ are
 color-correlated Born matrix elements, with then again the next
 $n_{\text{born}}\times n_{emitters}\times n_{sub_spin}$ being
 spin-correlated Born matrix elements.
 
 If two or more flavor structures would produce the same amplitude we
 only compute one and use the [[eqv_index]] determined by the
 [[prc_core]] and just copy the result to improve performance.
 <<Instances: term instance: TBP>>=
   procedure :: evaluate_interaction_external_tree &
      => term_instance_evaluate_interaction_external_tree
 <<Instances: sub interfaces>>=
     module subroutine term_instance_evaluate_interaction_external_tree &
          (term, core)
       class(term_instance_t), intent(inout) :: term
       class(prc_core_t), intent(inout) :: core
     end subroutine term_instance_evaluate_interaction_external_tree
 <<Instances: procedures>>=
   module subroutine term_instance_evaluate_interaction_external_tree &
        (term, core)
     class(term_instance_t), intent(inout) :: term
     class(prc_core_t), intent(inout) :: core
     real(default) :: sqme
     real(default), dimension(:), allocatable :: sqme_color_c
     real(default), dimension(:), allocatable :: sqme_spin_c
     real(default), dimension(6) :: sqme_spin_c_tmp
     integer :: n_flv, n_hel, n_sub_color, n_sub_spin, n_pdf_off
     integer :: i_flv, i_hel, i_sub, i_color_c, i_color_c_eqv, &
          i_spin_c, i_spin_c_eqv
     integer :: i_flv_eqv, i_hel_eqv
     integer :: emitter, i_emitter
     logical :: bad_point, bp
     logical, dimension(:,:), allocatable :: eqv_me_evaluated
     if (debug_on) call msg_debug2 (D_PROCESS_INTEGRATION, &
          "term_instance_evaluate_interaction_external_tree")
     allocate (sqme_color_c (blha_result_array_size &
          (term%int_hard%get_n_tot (), BLHA_AMP_COLOR_C)))
     n_flv = term%int_hard%get_qn_index_n_flv ()
     n_hel = term%int_hard%get_qn_index_n_hel ()
     n_sub_color = term%get_n_sub_color ()
     n_sub_spin = term%get_n_sub_spin ()
     allocate (eqv_me_evaluated(n_flv,n_hel))
     eqv_me_evaluated = .false.
     do i_flv = 1, n_flv
        if (.not. term%passed_array(i_flv) .and. term%passed) cycle
        do i_hel = 1, n_hel
           i_flv_eqv = core%data%eqv_flv_index(i_flv)
           i_hel_eqv = core%data%eqv_hel_index(i_hel)
           if (.not. eqv_me_evaluated(i_flv_eqv, i_hel_eqv)) then
              select type (core)
              class is (prc_external_t)
                 call core%update_alpha_s (term%core_state, term%get_ren_scale ())
                 call core%compute_sqme (i_flv, i_hel, term%p_hard, &
                      term%get_ren_scale (), sqme, bad_point)
                 call term%pcm_work%set_bad_point (bad_point)
                 associate (i_int => term%int_hard%get_qn_index &
                      (i_flv = i_flv, i_hel = i_hel, i_sub = 0))
                   term%amp(i_int) = cmplx (sqme, 0, default)
                 end associate
              end select
              n_pdf_off = 0
              if (term%pcm%has_pdfs .and. &
                   (term%is_subtraction () .or. term%nlo_type == NLO_DGLAP)) then
                 n_pdf_off = n_pdf_off + n_beams_rescaled
                 do i_sub = 1, n_pdf_off
                    term%amp(term%int_hard%get_qn_index (i_flv, i_hel, i_sub)) = &
                         term%amp(term%int_hard%get_qn_index (i_flv, i_hel, i_sub = 0))
                 end do
              end if
              if (term%pcm%has_pdfs .and. term%nlo_type == NLO_DGLAP) then
                 sqme_color_c = zero
                 select type (pcm => term%pcm)
                 type is (pcm_nlo_t)
                    if (pcm%settings%nlo_correction_type == "EW" .and. &
                       pcm%region_data%alphas_power > 0) then
                       select type (core)
                       class is (prc_blha_t)
                          call core%compute_sqme_color_c_raw (i_flv, i_hel, &
                               term%p_hard, term%get_ren_scale (), sqme_color_c, &
                               bad_point)
                          call term%pcm_work%set_bad_point (bad_point)
                       class is (prc_recola_t)
                          call core%compute_sqme_color_c_raw (i_flv, i_hel, &
                               term%p_hard, term%get_ren_scale (), sqme_color_c, &
                               bad_point)
                          call term%pcm_work%set_bad_point (bad_point)
                       end select
                    end if
                 end select
                 do i_sub = 1, n_sub_color
                    i_color_c = term%int_hard%get_qn_index &
                         (i_flv, i_hel, i_sub + n_pdf_off)
                    term%amp(i_color_c) = cmplx (sqme_color_c(i_sub), 0, default)
                 end do
              end if
              if ((term%nlo_type == NLO_REAL .and. term%is_subtraction ()) .or. &
                   term%nlo_type == NLO_MISMATCH) then
                 sqme_color_c = zero
                 select type (core)
                 class is (prc_blha_t)
                    call core%compute_sqme_color_c_raw (i_flv, i_hel, &
                         term%p_hard, term%get_ren_scale (), sqme_color_c, bad_point)
                    call term%pcm_work%set_bad_point (bad_point)
                 class is (prc_recola_t)
                    call core%compute_sqme_color_c_raw (i_flv, i_hel, &
                         term%p_hard, term%get_ren_scale (), sqme_color_c, bad_point)
                    call term%pcm_work%set_bad_point (bad_point)
                 end select
                 do i_sub = 1, n_sub_color
                    i_color_c = term%int_hard%get_qn_index &
                         (i_flv, i_hel, i_sub + n_pdf_off)
                    term%amp(i_color_c) = cmplx (sqme_color_c(i_sub), 0, default)
                 end do
                 if (n_sub_spin > 0) then
                    bad_point = .false.
                    allocate (sqme_spin_c(0))
                    select type (core)
                    type is (prc_openloops_t)
                       select type (pcm => term%pcm)
                       type is (pcm_nlo_t)
                          do i_emitter = 1, pcm%region_data%n_emitters
                             emitter = pcm%region_data%emitters(i_emitter)
                             if (emitter > 0) then
                                call core%compute_sqme_spin_c &
                                     (i_flv, &
                                     i_hel, &
                                     emitter, &
                                     term%p_hard, &
                                     term%get_ren_scale (), &
                                     sqme_spin_c_tmp, &
                                     bp)
                                sqme_spin_c = [sqme_spin_c, sqme_spin_c_tmp]
                                bad_point = bad_point .or. bp
                             end if
                          end do
                       end select
                       do i_sub = 1, n_sub_spin
                          i_spin_c = term%int_hard%get_qn_index (i_flv, i_hel, &
                               i_sub + n_pdf_off + n_sub_color)
                          term%amp(i_spin_c) = cmplx &
                               (sqme_spin_c(i_sub), 0, default)
                       end do
                    end select
                    deallocate (sqme_spin_c)
                 end if
              end if
              eqv_me_evaluated(i_flv_eqv, i_hel_eqv) = .true.
           else
              associate (i_int => term%int_hard%get_qn_index &
                      (i_flv = i_flv, i_hel = i_hel, i_sub = 0), &
                      i_int_eqv => term%int_hard%get_qn_index &
                      (i_flv = i_flv_eqv, i_hel = i_hel_eqv, i_sub = 0))
                 term%amp(i_int) = term%amp(i_int_eqv)
              end associate
              n_pdf_off = 0
              if (term%pcm%has_pdfs .and. &
                   (term%is_subtraction () .or. term%nlo_type == NLO_DGLAP)) then
                 n_pdf_off = n_pdf_off + n_beams_rescaled
                 do i_sub = 1, n_pdf_off
                    term%amp(term%int_hard%get_qn_index (i_flv, i_hel, i_sub)) = &
                         term%amp(term%int_hard%get_qn_index (i_flv, i_hel, i_sub = 0))
                 end do
              end if
              if (term%pcm%has_pdfs .and. term%nlo_type == NLO_DGLAP) then
                 do i_sub = 1, n_sub_color
                    i_color_c = term%int_hard%get_qn_index &
                         (i_flv, i_hel, i_sub + n_pdf_off)
                    i_color_c_eqv = term%int_hard%get_qn_index &
                         (i_flv_eqv, i_hel_eqv, i_sub + n_pdf_off)
                    term%amp(i_color_c) = term%amp(i_color_c_eqv)
                 end do
              end if
              if ((term%nlo_type == NLO_REAL .and. term%is_subtraction ()) .or. &
                   term%nlo_type == NLO_MISMATCH) then
                 do i_sub = 1, n_sub_color
                    i_color_c = term%int_hard%get_qn_index &
                         (i_flv, i_hel, i_sub + n_pdf_off)
                    i_color_c_eqv = term%int_hard%get_qn_index &
                         (i_flv_eqv, i_hel_eqv, i_sub + n_pdf_off)
                    term%amp(i_color_c) = term%amp(i_color_c_eqv)
                 end do
                 do i_sub = 1, n_sub_spin
                    i_spin_c = term%int_hard%get_qn_index (i_flv, i_hel, &
                         i_sub + n_pdf_off + n_sub_color)
                    i_spin_c_eqv = term%int_hard%get_qn_index (i_flv_eqv, i_hel_eqv, &
                         i_sub + n_pdf_off + n_sub_color)
                    term%amp(i_spin_c) = term%amp(i_spin_c_eqv)
                 end do
              end if
           end if
        end do
     end do
   end subroutine term_instance_evaluate_interaction_external_tree
 
 @ %def term_instance_evaluate_interaction_external_tree
 @ Same as for [[term_instance_evaluate_interaction_external_tree]], but
 for the integrated-subtraction and finite one-loop terms. We only need
 color-correlated Born matrix elements, but an additional entry per
 flavor structure for the finite one-loop contribution. We thus have
 $2+n_{sub_color}$ entries in the [[term%amp]] for each [[i_flv]] and
 [[i_hel]] combination.
 
 If two or more flavor structures would produce the same amplitude we
 only compute one and use the [[eqv_index]] determined by the
 [[prc_core]] and just copy the result to improve performance.
 <<Instances: term instance: TBP>>=
   procedure :: evaluate_interaction_external_loop &
      => term_instance_evaluate_interaction_external_loop
 <<Instances: sub interfaces>>=
     module subroutine term_instance_evaluate_interaction_external_loop &
          (term, core)
       class(term_instance_t), intent(inout) :: term
       class(prc_core_t), intent(in) :: core
     end subroutine term_instance_evaluate_interaction_external_loop
 <<Instances: procedures>>=
   module subroutine term_instance_evaluate_interaction_external_loop &
        (term, core)
     class(term_instance_t), intent(inout) :: term
     class(prc_core_t), intent(in) :: core
     integer :: n_hel, n_sub, n_flv
     integer :: i, i_flv, i_hel, i_sub, i_virt, i_color_c, i_color_c_eqv
     integer :: i_flv_eqv, i_hel_eqv
     real(default), dimension(4) :: sqme_virt
     real(default), dimension(:), allocatable :: sqme_color_c
     real(default) :: es_scale
     logical :: bad_point
     logical, dimension(:,:), allocatable :: eqv_me_evaluated
     if (debug_on) call msg_debug (D_PROCESS_INTEGRATION, &
          "term_instance_evaluate_interaction_external_loop")
     allocate (sqme_color_c (blha_result_array_size &
          (term%int_hard%get_n_tot (), BLHA_AMP_COLOR_C)))
     n_flv = term%int_hard%get_qn_index_n_flv ()
     n_hel = term%int_hard%get_qn_index_n_hel ()
     n_sub = term%int_hard%get_qn_index_n_sub ()
     allocate (eqv_me_evaluated(n_flv,n_hel))
     eqv_me_evaluated = .false.
     i_virt = 1
     do i_flv = 1, n_flv
        if (.not. term%passed_array(i_flv) .and. term%passed) cycle
        do i_hel = 1, n_hel
           i_flv_eqv = core%data%eqv_flv_index(i_flv)
           i_hel_eqv = core%data%eqv_hel_index(i_hel)
           if (.not. eqv_me_evaluated(i_flv_eqv, i_hel_eqv)) then
              select type (core)
              class is (prc_external_t)
                 if (allocated (term%es_scale)) then
                    es_scale = term%es_scale
                 else
                    es_scale = term%get_ren_scale ()
                 end if
                 call core%compute_sqme_virt (i_flv, i_hel, term%p_hard, &
                      term%get_ren_scale (), es_scale, &
                      term%pcm%blha_defaults%loop_method, &
                      sqme_virt, bad_point)
                 call term%pcm_work%set_bad_point (bad_point)
              end select
              associate (i_born => term%int_hard%get_qn_index (i_flv, i_hel = i_hel, i_sub = 0), &
                   i_loop => term%int_hard%get_qn_index (i_flv, i_hel = i_hel, i_sub = i_virt))
                term%amp(i_loop) = cmplx (sqme_virt(3), 0, default)
                term%amp(i_born) = cmplx (sqme_virt(4), 0, default)
              end associate
              select type (pcm => term%pcm)
              type is (pcm_nlo_t)
                 select type (core)
                 class is (prc_blha_t)
                    call core%compute_sqme_color_c_raw (i_flv, i_hel, &
                         term%p_hard, term%get_ren_scale (), &
                         sqme_color_c, bad_point)
                    call term%pcm_work%set_bad_point (bad_point)
                    do i_sub = 1 + i_virt, n_sub
                       i_color_c = term%int_hard%get_qn_index &
                            (i_flv, i_hel = i_hel, i_sub = i_sub)
                       ! Index shift: i_sub - i_virt
                       term%amp(i_color_c) = &
                            cmplx (sqme_color_c(i_sub - i_virt), 0, default)
                    end do
                 type is (prc_recola_t)
                    call core%compute_sqme_color_c_raw (i_flv, i_hel, &
                         term%p_hard, term%get_ren_scale (), sqme_color_c, bad_point)
                    call term%pcm_work%set_bad_point (bad_point)
                    do i_sub = 1 + i_virt, n_sub
                       i_color_c = term%int_hard%get_qn_index &
                            (i_flv, i_hel = i_hel, i_sub = i_sub)
                       ! Index shift: i_sub - i_virt
                       term%amp(i_color_c) = &
                            cmplx (sqme_color_c(i_sub - i_virt), 0, default)
                    end do
                 end select
              end select
              eqv_me_evaluated(i_flv_eqv, i_hel_eqv) = .true.
           else
              associate (i_born => term%int_hard%get_qn_index (i_flv, i_hel = i_hel, i_sub = 0), &
                   i_loop => term%int_hard%get_qn_index (i_flv, i_hel = i_hel, i_sub = i_virt), &
                   i_born_eqv => term%int_hard%get_qn_index &
                   (i_flv_eqv, i_hel = i_hel_eqv, i_sub = 0), &
                   i_loop_eqv => term%int_hard%get_qn_index &
                   (i_flv_eqv, i_hel = i_hel_eqv, i_sub = 1))
                term%amp(i_loop) = term%amp(i_loop_eqv)
                term%amp(i_born) = term%amp(i_born_eqv)
              end associate
              do i_sub = 1 + i_virt, n_sub
                 i_color_c = term%int_hard%get_qn_index &
                      (i_flv, i_hel = i_hel, i_sub = i_sub)
                 i_color_c_eqv = term%int_hard%get_qn_index &
                      (i_flv_eqv, i_hel = i_hel_eqv, i_sub = i_sub)
                 ! Index shift: i_sub - i_virt
                 term%amp(i_color_c) = term%amp(i_color_c_eqv)
              end do
           end if
        end do
     end do
    end subroutine term_instance_evaluate_interaction_external_loop
 
 @ %def term_instance_evaluate_interaction_external_loop
 @ Evaluate the trace.  First evaluate the
 structure-function chain (i.e., the density matrix of the incoming
 partons).  Do this twice, in case the sf-chain instances within
 [[kin]] and [[isolated]] differ.  Next, evaluate the hard
 interaction, then compute the convolution with the initial state.
 <<Instances: term instance: TBP>>=
   procedure :: evaluate_trace => term_instance_evaluate_trace
 <<Instances: sub interfaces>>=
     module subroutine term_instance_evaluate_trace (term, kin)
       class(term_instance_t), intent(inout) :: term
       type(kinematics_t), intent(inout) :: kin
     end subroutine term_instance_evaluate_trace
 <<Instances: procedures>>=
   module subroutine term_instance_evaluate_trace (term, kin)
     class(term_instance_t), intent(inout) :: term
     type(kinematics_t), intent(inout) :: kin
     real(default) :: fac_scale
     if (allocated (term%fac_scale)) then
        fac_scale = term%fac_scale
     else
        fac_scale = term%scale
     end if
     call kin%evaluate_sf_chain (fac_scale, term%negative_sf)
     call term%evaluate_scaled_sf_chains (kin)
     call term%isolated%evaluate_sf_chain (fac_scale)
     call term%isolated%evaluate_trace ()
     call term%connected%evaluate_trace ()
   end subroutine term_instance_evaluate_trace
 
 @ %def term_instance_evaluate_trace
 @ Include rescaled structure functions due to NLO calculation. We
 rescale the structure function for the real subtraction
 [[sf_rescale_collinear]], the collinear counter terms
 [[sf_rescale_dglap_t]] and for the case, in which we have an emitter
 in the initial state, we rescale the kinematics for it using
 [[sf_rescale_real_t]]. The references are arXiv:0709.2092,
 Eqs.~(2.35)-(2.42).
 
 Obviously, it is completely irrelevant, which beam is treated.
 It becomes problematic when handling $ep$ collisions.
 Gfortran 7/8/9 bug, has to remain in the main module:
 <<Instances: term instance: TBP>>=
   procedure :: evaluate_scaled_sf_chains => &
        term_instance_evaluate_scaled_sf_chains
 <<Instances: main procedures>>=
   subroutine term_instance_evaluate_scaled_sf_chains (term, kin)
     class(term_instance_t), intent(inout) :: term
     type(kinematics_t), intent(inout) :: kin
     class(sf_rescale_t), allocatable :: sf_rescale
     if (.not. term%pcm%has_pdfs) return
     if (term%nlo_type == NLO_REAL) then
        if (term%is_subtraction ()) then
           allocate (sf_rescale_collinear_t :: sf_rescale)
           select type (pcm_work => term%pcm_work)
           type is (pcm_nlo_workspace_t)
              select type (sf_rescale)
              type is (sf_rescale_collinear_t)
                 call sf_rescale%set (pcm_work%real_kinematics%xi_tilde)
              end select
           end select
           call kin%sf_chain%evaluate (term%get_fac_scale (), &
                term%negative_sf, sf_rescale)
           deallocate (sf_rescale)
        else if (kin%emitter >= 0 .and. kin%emitter <= kin%n_in) then
           allocate (sf_rescale_real_t :: sf_rescale)
           select type (pcm_work => term%pcm_work)
           type is (pcm_nlo_workspace_t)
              select type (sf_rescale)
              type is (sf_rescale_real_t)
                 call sf_rescale%set (pcm_work%real_kinematics%xi_tilde * &
                      pcm_work%real_kinematics%xi_max (kin%i_phs), &
                      pcm_work%real_kinematics%y (kin%i_phs))
              end select
           end select
           call kin%sf_chain%evaluate (term%get_fac_scale (), &
                term%negative_sf, sf_rescale)
           deallocate (sf_rescale)
        else
           call kin%sf_chain%evaluate (term%get_fac_scale (), term%negative_sf)
        end if
     else if (term%nlo_type == NLO_DGLAP) then
        allocate (sf_rescale_dglap_t :: sf_rescale)
        select type (pcm_work => term%pcm_work)
        type is (pcm_nlo_workspace_t)
           select type (sf_rescale)
           type is (sf_rescale_dglap_t)
              call sf_rescale%set (pcm_work%isr_kinematics%z)
           end select
        end select
        call kin%sf_chain%evaluate (term%get_fac_scale (), &
             term%negative_sf, sf_rescale)
        deallocate (sf_rescale)
     end if
   end subroutine term_instance_evaluate_scaled_sf_chains
 
 @ %def term_instance_evaluate_scaled_sf_chains
 @ Evaluate the extra data that we need for processing the object as a
 physical event.
 <<Instances: term instance: TBP>>=
   procedure :: evaluate_event_data => term_instance_evaluate_event_data
 <<Instances: sub interfaces>>=
     module subroutine term_instance_evaluate_event_data (term)
       class(term_instance_t), intent(inout) :: term
     end subroutine term_instance_evaluate_event_data
 <<Instances: procedures>>=
   module subroutine term_instance_evaluate_event_data (term)
     class(term_instance_t), intent(inout) :: term
     logical :: only_momenta
     only_momenta = term%nlo_type > BORN
     call term%isolated%evaluate_event_data (only_momenta)
     call term%connected%evaluate_event_data (only_momenta)
   end subroutine term_instance_evaluate_event_data
 
 @ %def term_instance_evaluate_event_data
 @
 <<Instances: term instance: TBP>>=
   procedure :: set_fac_scale => term_instance_set_fac_scale
 <<Instances: sub interfaces>>=
     module subroutine term_instance_set_fac_scale (term, fac_scale)
       class(term_instance_t), intent(inout) :: term
       real(default), intent(in) :: fac_scale
     end subroutine term_instance_set_fac_scale
 <<Instances: procedures>>=
   module subroutine term_instance_set_fac_scale (term, fac_scale)
     class(term_instance_t), intent(inout) :: term
     real(default), intent(in) :: fac_scale
     term%fac_scale = fac_scale
   end subroutine term_instance_set_fac_scale
 
 @ %def term_instance_set_fac_scale
 @ Return data that might be useful for external processing.  The
 factorization scale and renormalization scale are identical to the
 general scale if not explicitly set:
 <<Instances: term instance: TBP>>=
   procedure :: get_fac_scale => term_instance_get_fac_scale
   procedure :: get_ren_scale => term_instance_get_ren_scale
 <<Instances: sub interfaces>>=
     module function term_instance_get_fac_scale (term) result (fac_scale)
       class(term_instance_t), intent(in) :: term
       real(default) :: fac_scale
     end function term_instance_get_fac_scale
     module function term_instance_get_ren_scale (term) result (ren_scale)
       class(term_instance_t), intent(in) :: term
       real(default) :: ren_scale
     end function term_instance_get_ren_scale
 <<Instances: procedures>>=
   module function term_instance_get_fac_scale (term) result (fac_scale)
     class(term_instance_t), intent(in) :: term
     real(default) :: fac_scale
     if (allocated (term%fac_scale)) then
        fac_scale = term%fac_scale
     else
        fac_scale = term%scale
     end if
   end function term_instance_get_fac_scale
 
   module function term_instance_get_ren_scale (term) result (ren_scale)
     class(term_instance_t), intent(in) :: term
     real(default) :: ren_scale
     if (allocated (term%ren_scale)) then
        ren_scale = term%ren_scale
     else
        ren_scale = term%scale
     end if
   end function term_instance_get_ren_scale
 
 @ %def term_instance_get_fac_scale term_instance_get_ren_scale
 @ We take the strong coupling from the process core.  The value is calculated
 when a new event is requested, so we should call it only after the event has
 been evaluated.  If it is not available there (a negative number is returned),
 we take the value stored in the term configuration, which should be determined
 by the model.  If the model does not provide a value, the result is zero.
 <<Instances: term instance: TBP>>=
   procedure :: get_alpha_s => term_instance_get_alpha_s
 <<Instances: sub interfaces>>=
     module function term_instance_get_alpha_s (term, core) result (alpha_s)
       class(term_instance_t), intent(in) :: term
       class(prc_core_t), intent(in) :: core
       real(default) :: alpha_s
     end function term_instance_get_alpha_s
 <<Instances: procedures>>=
   module function term_instance_get_alpha_s (term, core) result (alpha_s)
     class(term_instance_t), intent(in) :: term
     class(prc_core_t), intent(in) :: core
     real(default) :: alpha_s
     alpha_s = core%get_alpha_s (term%core_state)
     if (alpha_s < zero)  alpha_s = term%config%alpha_s
   end function term_instance_get_alpha_s
 
 @ %def term_instance_get_alpha_s
 @ The second helicity for [[helicities]] comes with a minus sign
 because OpenLoops inverts the helicity index of antiparticles.
 <<Instances: term instance: TBP>>=
   procedure :: get_helicities_for_openloops => &
        term_instance_get_helicities_for_openloops
 <<Instances: sub interfaces>>=
     module subroutine term_instance_get_helicities_for_openloops &
          (term, helicities)
       class(term_instance_t), intent(in) :: term
       integer, dimension(:,:), allocatable, intent(out) :: helicities
     end subroutine term_instance_get_helicities_for_openloops
 <<Instances: procedures>>=
   module subroutine term_instance_get_helicities_for_openloops &
        (term, helicities)
     class(term_instance_t), intent(in) :: term
     integer, dimension(:,:), allocatable, intent(out) :: helicities
     type(helicity_t), dimension(:), allocatable :: hel
     type(quantum_numbers_t), dimension(:,:), allocatable :: qn
     type(quantum_numbers_mask_t) :: qn_mask
     integer :: h, i, j, n_in
     call qn_mask%set_sub (1)
     call term%isolated%trace%get_quantum_numbers_mask (qn_mask, qn)
     n_in = term%int_hard%get_n_in ()
     allocate (helicities (size (qn, dim=1), n_in))
     allocate (hel (n_in))
     do i = 1, size (qn, dim=1)
        do j = 1, n_in
           hel(j) = qn(i, j)%get_helicity ()
           call hel(j)%diagonalize ()
           call hel(j)%get_indices (h, h)
           helicities (i, j) = h
        end do
     end do
   end subroutine term_instance_get_helicities_for_openloops
 
 @ %def term_instance_get_helicities_for_openloops
 @
 <<Instances: term instance: TBP>>=
   procedure :: get_i_term_global => term_instance_get_i_term_global
 <<Instances: sub interfaces>>=
     elemental module function term_instance_get_i_term_global &
          (term) result (i_term)
       integer :: i_term
       class(term_instance_t), intent(in) :: term
     end function term_instance_get_i_term_global
 <<Instances: procedures>>=
   elemental module function term_instance_get_i_term_global &
        (term) result (i_term)
     integer :: i_term
     class(term_instance_t), intent(in) :: term
     i_term = term%config%i_term_global
   end function term_instance_get_i_term_global
 
 @ %def term_instance_get_i_term_global
 @
 <<Instances: term instance: TBP>>=
   procedure :: is_subtraction => term_instance_is_subtraction
 <<Instances: sub interfaces>>=
     elemental module function term_instance_is_subtraction (term) result (sub)
       logical :: sub
       class(term_instance_t), intent(in) :: term
     end function term_instance_is_subtraction
 <<Instances: procedures>>=
   elemental module function term_instance_is_subtraction (term) result (sub)
     logical :: sub
     class(term_instance_t), intent(in) :: term
     sub = term%config%i_term_global == term%config%i_sub
   end function term_instance_is_subtraction
 
 @ %def term_instance_is_subtraction
 @ Retrieve [[n_sub]] which was calculated in [[process_term_setup_interaction]].
 <<Instances: term instance: TBP>>=
   procedure :: get_n_sub => term_instance_get_n_sub
   procedure :: get_n_sub_color => term_instance_get_n_sub_color
   procedure :: get_n_sub_spin => term_instance_get_n_sub_spin
 <<Instances: sub interfaces>>=
     module function term_instance_get_n_sub (term) result (n_sub)
       integer :: n_sub
       class(term_instance_t), intent(in) :: term
     end function term_instance_get_n_sub
     module function term_instance_get_n_sub_color (term) result (n_sub_color)
       integer :: n_sub_color
       class(term_instance_t), intent(in) :: term
     end function term_instance_get_n_sub_color
     module function term_instance_get_n_sub_spin (term) result (n_sub_spin)
       integer :: n_sub_spin
       class(term_instance_t), intent(in) :: term
     end function term_instance_get_n_sub_spin
 <<Instances: procedures>>=
   module function term_instance_get_n_sub (term) result (n_sub)
     integer :: n_sub
     class(term_instance_t), intent(in) :: term
     n_sub = term%config%n_sub
   end function term_instance_get_n_sub
 
   module function term_instance_get_n_sub_color (term) result (n_sub_color)
     integer :: n_sub_color
     class(term_instance_t), intent(in) :: term
     n_sub_color = term%config%n_sub_color
   end function term_instance_get_n_sub_color
 
   module function term_instance_get_n_sub_spin (term) result (n_sub_spin)
     integer :: n_sub_spin
     class(term_instance_t), intent(in) :: term
     n_sub_spin = term%config%n_sub_spin
   end function term_instance_get_n_sub_spin
 
 @ %def term_instance_get_n_sub
 @ %def term_instance_get_n_sub_color
 @ %def term_instance_get_n_sub_spin
 @
 \subsection{The process instance}
 NOTE: The description below represents the intended structure after
 refactoring and disentangling the FKS-NLO vs. LO algorithm dependencies.
 
 A process instance contains all process data that depend on the
 sampling point and thus change often.  In essence, it is an event
 record at the elementary (parton) level.  We do not call it such, to
 avoid confusion with the actual event records.  If decays are
 involved, the latter are compositions of several elementary processes
 (i.e., their instances).
 
 We implement the process instance as an extension of the
 [[mci_sampler_t]] that we need for computing integrals and generate
 events.
 
 The base type contains: the [[integrand]], the [[selected_channel]],
 the two-dimensional array [[x]] of parameters, and the one-dimensional
 array [[f]] of Jacobians.  These subobjects are public and used for
 communicating with the multi-channel integrator.
 
 The [[process]] pointer accesses the process of which this record is
 an instance.  It is required whenever the calculation needs invariant
 configuration data, therefore the process should stay in memory for
 the whole lifetime of its instances.
 
 The [[pcm]] pointer is a shortcut to the [[pcm]] (process-component
 manager) component of the associated process, which we need wherever
 the calculation depends on the overall algorithm.
 
 The [[pcm_work]] component is the workspace for the [[pcm]] object
 referenced above.
 
 The [[evaluation_status]] code is used to check the current status.
 In particular, failure at various stages is recorded there.
 
 The [[count]] object records process evaluations, broken down
 according to status.
 
 The [[sqme]] value is the single real number that results from
 evaluating and tracing the kinematics and matrix elements.  This
 is the number that is handed over to an integration routine.
 
 The [[weight]] value is the event weight.  It is defined when an event
 has been generated from the process instance, either weighted or
 unweighted.  The value is the [[sqme]] value times Jacobian weights
 from the integration, or unity, respectively.
 
 The [[i_mci]] index chooses a subset of components that are associated with
 a common parameter set and integrator, i.e., that are added coherently.
 
 The [[sf_chain]] subobject is a realization of the beam and
 structure-function configuration in the [[process]] object.  It is not
 used for calculation directly but serves as the template for the
 sf-chain instances that are contained in the [[component]] objects.
 
 The [[kinematics]] array contains the set of phase-space points that
 are associated with the current calculation.  The entries may correspond
 to different process components and terms.  (TODO wk 19-02-22: Not implemented yet.)
 
 TODO wk 19-02-22: May include extra arrays for storing (squared) amplitude
 data.  The [[term]] data set may be reduced to just results, or
 be removed altogether.
 
 The [[term]] subobjects are workspace for evaluating kinematics,
 matrix elements, cuts etc.  The array entries correspond to the [[term]]
 configuration entries in the associated process object.
 
 The [[mci_work]] subobject contains the array of real input parameters (random
 numbers) that generates the kinematical point.  It also contains the workspace
 for the MC integrators.  The active entry of the [[mci_work]] array is
 selected by the [[i_mci]] index above.
 
 The [[hook]] pointer accesses a list of after evaluate objects which are
 evalutated after the matrix element.
 <<Instances: public>>=
   public :: process_instance_t
 <<Instances: types>>=
   type, extends (mci_sampler_t) :: process_instance_t
      type(process_t), pointer :: process => null ()
      class(pcm_t), pointer :: pcm => null ()
      class(pcm_workspace_t), allocatable :: pcm_work
      integer :: evaluation_status = STAT_UNDEFINED
      real(default) :: sqme = 0
      real(default) :: weight = 0
      real(default) :: excess = 0
      integer :: n_dropped = 0
      integer :: i_mci = 0
      integer :: selected_channel = 0
      type(sf_chain_t) :: sf_chain
      type(kinematics_t), dimension(:), allocatable :: kin
      type(term_instance_t), dimension(:), allocatable :: term
      type(mci_work_t), dimension(:), allocatable :: mci_work
      class(process_instance_hook_t), pointer :: hook => null ()
    contains
    <<Instances: process instance: TBP>>
   end type process_instance_t
 
 @ %def process_instance
 @
 Wrapper type for storing pointers to process instance objects in arrays.
 <<Instances: public>>=
   public :: process_instance_ptr_t
 <<Instances: types>>=
   type :: process_instance_ptr_t
      type(process_instance_t), pointer :: p => null ()
   end type process_instance_ptr_t
 
 @ %def process_instance_ptr_t
 @ The process hooks are first-in-last-out list of objects which are evaluated
 after the phase space and matrixelement are evaluated. It is possible to
 retrieve the sampler object and read the sampler information.
 
 The hook object are part of the [[process_instance]] and therefore, share a
 common lifetime. A data transfer, after the usual lifetime of the
 [[process_instance]], is not provided, as such the finalisation procedure has to take care
 of this! E.g. write the object to file from which later the collected
 information can then be retrieved.
 <<Instances: public>>=
   public :: process_instance_hook_t
 <<Instances: types>>=
   type, abstract :: process_instance_hook_t
      class(process_instance_hook_t), pointer :: next => null ()
    contains
      procedure(process_instance_hook_init), deferred :: init
      procedure(process_instance_hook_final), deferred :: final
      procedure(process_instance_hook_evaluate), deferred :: evaluate
   end type process_instance_hook_t
 
 @ %def process_instance_hook_t
 @ We have to provide an [[init]], a [[final]] procedure and, for after evaluation, the
 [[evaluate]] procedure.
 
 The [[init]] procedures accesses [[var_list]] and current [[instance]] object.
 <<Instances: public>>=
   public :: process_instance_hook_final, process_instance_hook_evaluate
 <<Instances: interfaces>>=
   abstract interface
      subroutine process_instance_hook_init (hook, var_list, instance, pdf_data)
        import :: process_instance_hook_t, var_list_t, process_instance_t, pdf_data_t
        class(process_instance_hook_t), intent(inout), target :: hook
        type(var_list_t), intent(in) :: var_list
        class(process_instance_t), intent(in), target :: instance
        type(pdf_data_t), intent(in), optional :: pdf_data
      end subroutine process_instance_hook_init
 
      subroutine process_instance_hook_final (hook)
        import :: process_instance_hook_t
        class(process_instance_hook_t), intent(inout) :: hook
      end subroutine process_instance_hook_final
 
      subroutine process_instance_hook_evaluate (hook, instance)
        import :: process_instance_hook_t, process_instance_t
        class(process_instance_hook_t), intent(inout) :: hook
        class(process_instance_t), intent(in), target :: instance
      end subroutine process_instance_hook_evaluate
   end interface
 
 @ %def process_instance_hook_final, process_instance_hook_evaluate
 @ The output routine contains a header with the most relevant
 information about the process, copied from
 [[process_metadata_write]].  We mark the active components by an asterisk.
 
 The next section is the MC parameter input.  The following sections
 are written only if the evaluation status is beyond setting the
 parameters, or if the [[verbose]] option is set.
 <<Instances: process instance: TBP>>=
   procedure :: write_header => process_instance_write_header
   procedure :: write => process_instance_write
 <<Instances: sub interfaces>>=
     module subroutine process_instance_write_header (object, unit, testflag)
       class(process_instance_t), intent(in) :: object
       integer, intent(in), optional :: unit
       logical, intent(in), optional :: testflag
     end subroutine process_instance_write_header
     module subroutine process_instance_write (object, unit, testflag)
       class(process_instance_t), intent(in) :: object
       integer, intent(in), optional :: unit
       logical, intent(in), optional :: testflag
     end subroutine process_instance_write
 <<Instances: procedures>>=
   module subroutine process_instance_write_header (object, unit, testflag)
     class(process_instance_t), intent(in) :: object
     integer, intent(in), optional :: unit
     logical, intent(in), optional :: testflag
     integer :: u
     u = given_output_unit (unit)
     call write_separator (u, 2)
     if (associated (object%process)) then
        call object%process%write_meta (u, testflag)
     else
        write (u, "(1x,A)") "Process instance [undefined process]"
        return
     end if
     write (u, "(3x,A)", advance = "no")  "status = "
     select case (object%evaluation_status)
     case (STAT_INITIAL);            write (u, "(A)")  "initialized"
     case (STAT_ACTIVATED);          write (u, "(A)")  "activated"
     case (STAT_BEAM_MOMENTA);       write (u, "(A)")  "beam momenta set"
     case (STAT_FAILED_KINEMATICS);  write (u, "(A)")  "failed kinematics"
     case (STAT_SEED_KINEMATICS);    write (u, "(A)")  "seed kinematics"
     case (STAT_HARD_KINEMATICS);    write (u, "(A)")  "hard kinematics"
     case (STAT_EFF_KINEMATICS);     write (u, "(A)")  "effective kinematics"
     case (STAT_FAILED_CUTS);        write (u, "(A)")  "failed cuts"
     case (STAT_PASSED_CUTS);        write (u, "(A)")  "passed cuts"
     case (STAT_EVALUATED_TRACE);    write (u, "(A)")  "evaluated trace"
        call write_separator (u)
        write (u, "(3x,A,ES19.12)")  "sqme   = ", object%sqme
     case (STAT_EVENT_COMPLETE);   write (u, "(A)")  "event complete"
        call write_separator (u)
        write (u, "(3x,A,ES19.12)")  "sqme   = ", object%sqme
        write (u, "(3x,A,ES19.12)")  "weight = ", object%weight
        if (.not. vanishes (object%excess)) &
             write (u, "(3x,A,ES19.12)")  "excess = ", object%excess
     case default;                 write (u, "(A)")  "undefined"
     end select
     if (object%i_mci /= 0) then
        call write_separator (u)
        call object%mci_work(object%i_mci)%write (u, testflag)
     end if
     call write_separator (u, 2)
   end subroutine process_instance_write_header
 
   module subroutine process_instance_write (object, unit, testflag)
     class(process_instance_t), intent(in) :: object
     integer, intent(in), optional :: unit
     logical, intent(in), optional :: testflag
     integer :: u, i
     u = given_output_unit (unit)
     call object%write_header (u)
     if (object%evaluation_status >= STAT_BEAM_MOMENTA) then
        call object%sf_chain%write (u)
        call write_separator (u, 2)
        if (object%evaluation_status >= STAT_SEED_KINEMATICS) then
           if (object%evaluation_status >= STAT_HARD_KINEMATICS) then
              call write_separator (u, 2)
              write (u, "(1x,A)") "Active terms:"
              if (any (object%term%active)) then
                 do i = 1, size (object%term)
                    if (object%term(i)%active) then
                       call write_separator (u)
                       call object%term(i)%write (u, &
                            kin = object%kin(i), &
                            show_eff_state = &
                            object%evaluation_status >= STAT_EFF_KINEMATICS, &
                            testflag = testflag)
                    end if
                 end do
              end if
           end if
           call write_separator (u, 2)
        end if
     end if
   end subroutine process_instance_write
 
 @ %def process_instance_write_header
 @ %def process_instance_write
 @ Initialization connects the instance with a process.  All initial
 information is transferred from the process object.  The process
 object contains templates for the interaction subobjects (beam and
 term), but no evaluators.  The initialization routine
 creates evaluators for the matrix element trace, other evaluators
 are left untouched.
 
 Before we start generating, we double-check if the process library
 has been updated after the process was initializated
 ([[check_library_sanity]]).  This may happen if between integration
 and event generation the library has been recompiled, so all links
 become broken.
 
 The [[instance]] object must have the [[target]] attribute (also in
 any caller) since the initialization routine assigns various pointers
 to subobject of [[instance]].
 <<Instances: process instance: TBP>>=
   procedure :: init => process_instance_init
 <<Instances: sub interfaces>>=
     module subroutine process_instance_init (instance, process)
       class(process_instance_t), intent(out), target :: instance
       type(process_t), intent(inout), target :: process
     end subroutine process_instance_init
 <<Instances: procedures>>=
   module subroutine process_instance_init (instance, process)
     class(process_instance_t), intent(out), target :: instance
     type(process_t), intent(inout), target :: process
     integer :: i
     class(pcm_t), pointer :: pcm
     type(process_term_t), pointer :: term
     type(var_list_t), pointer :: var_list
     integer :: i_born, i_real, i_real_fin, i_component
     if (debug_on)  call msg_debug &
          (D_PROCESS_INTEGRATION, "process_instance_init")
     instance%process => process
     instance%pcm => process%get_pcm_ptr ()
     call instance%process%check_library_sanity ()
     call instance%setup_sf_chain (process%get_beam_config_ptr ())
     allocate (instance%mci_work (process%get_n_mci ()))
     do i = 1, size (instance%mci_work)
        call instance%process%init_mci_work (instance%mci_work(i), i)
     end do
     call instance%process%reset_selected_cores ()
     pcm => instance%process%get_pcm_ptr ()
     call pcm%allocate_workspace (instance%pcm_work)
     select type (pcm)
     type is (pcm_nlo_t)
        !!! The process is kept when the integration is finalized, but not the
        !!! process_instance. Thus, we check whether pcm has been initialized
        !!! but set up the pcm_work each time.
        i_real_fin = process%get_associated_real_fin (1)
        if (.not. pcm%initialized) then
           i_born = pcm%get_i_core (pcm%i_born)
           i_real = pcm%get_i_core (pcm%i_real)
           call pcm%init_qn (process%get_model_ptr ())
           if (i_real_fin > 0) call pcm%allocate_ps_matching ()
           var_list => process%get_var_list_ptr ()
           if (var_list%get_sval (var_str ("$dalitz_plot")) /= var_str ('')) &
                call pcm%activate_dalitz_plot (var_list%get_sval (var_str ("$dalitz_plot")))
        end if
        pcm%initialized = .true.
        select type (pcm_work => instance%pcm_work)
        type is (pcm_nlo_workspace_t)
           call pcm_work%init_config (pcm, &
                process%component_can_be_integrated (), &
                process%get_nlo_type_component (), process%get_energy (), &
                i_real_fin, process%get_model_ptr ())
        end select
     end select
     ! TODO wk-03-01 n_terms will eventually acquire a different meaning
     allocate (instance%kin (process%get_n_terms ()))
     do i = 1, process%get_n_terms ()
        term => process%get_term_ptr (i)
        i_component = term%i_component
        call instance%kin(i)%configure (pcm, instance%pcm_work, &
             instance%sf_chain, &
             process%get_beam_config_ptr (), &
             process%get_phs_config (i_component), &
             process%get_nlo_type_component (i_component), &
             term%i_sub == i)
     end do
     ! TODO wk-03-01 n_terms will eventually acquire a different meaning
     allocate (instance%term (process%get_n_terms ()))
     do i = 1, process%get_n_terms ()
        call instance%term(i)%configure (process, i, instance%pcm_work, &
             instance%sf_chain, instance%kin(i))
     end do
     call instance%set_i_mci_to_real_component ()
     call instance%find_same_kinematics ()
     instance%evaluation_status = STAT_INITIAL
   end subroutine process_instance_init
 
 @ %def process_instance_init
 @
 @ Finalize all subobjects that may contain allocated pointers.
 <<Instances: process instance: TBP>>=
   procedure :: final => process_instance_final
 <<Instances: sub interfaces>>=
     module subroutine process_instance_final (instance)
       class(process_instance_t), intent(inout) :: instance
     end subroutine process_instance_final
 <<Instances: procedures>>=
   module subroutine process_instance_final (instance)
     class(process_instance_t), intent(inout) :: instance
     class(process_instance_hook_t), pointer :: current
     integer :: i
     instance%process => null ()
     if (allocated (instance%mci_work)) then
        do i = 1, size (instance%mci_work)
           call instance%mci_work(i)%final ()
        end do
        deallocate (instance%mci_work)
     end if
     call instance%sf_chain%final ()
     if (allocated (instance%kin)) then
        do i = 1, size (instance%kin)
           call instance%kin(i)%final ()
        end do
        deallocate (instance%kin)
     end if
     if (allocated (instance%term)) then
        do i = 1, size (instance%term)
           call instance%term(i)%final ()
        end do
        deallocate (instance%term)
     end if
     call instance%pcm_work%final ()
     instance%evaluation_status = STAT_UNDEFINED
     do while (associated (instance%hook))
        current => instance%hook
        call current%final ()
        instance%hook => current%next
        deallocate (current)
     end do
     instance%hook => null ()
   end subroutine process_instance_final
 
 @ %def process_instance_final
 @ Revert the process instance to initial state.  We do not deallocate
 anything, just reset the state index and deactivate all components and
 terms.
 
 We do not reset the choice of the MCI set [[i_mci]] unless this is
 required explicitly.
 <<Instances: process instance: TBP>>=
   procedure :: reset => process_instance_reset
 <<Instances: sub interfaces>>=
     module subroutine process_instance_reset (instance, reset_mci)
       class(process_instance_t), intent(inout), target :: instance
       logical, intent(in), optional :: reset_mci
     end subroutine process_instance_reset
 <<Instances: procedures>>=
   module subroutine process_instance_reset (instance, reset_mci)
     class(process_instance_t), intent(inout), target :: instance
     logical, intent(in), optional :: reset_mci
     integer :: i
     call instance%process%reset_selected_cores ()
     do i = 1, size (instance%term)
        call instance%term(i)%reset ()
     end do
     instance%term%checked = .false.
     instance%term%passed = .false.
     instance%kin%new_seed = .true.
     if (present (reset_mci)) then
        if (reset_mci)  instance%i_mci = 0
     end if
     instance%selected_channel = 0
     instance%evaluation_status = STAT_INITIAL
   end subroutine process_instance_reset
 
 @ %def process_instance_reset
 @
 \subsubsection{Integration and event generation}
 The sampler test should just evaluate the squared matrix element [[n_calls]]
 times, discarding the results, and return.  This can be done before
 integration, e.g., for timing estimates.
 <<Instances: process instance: TBP>>=
   procedure :: sampler_test => process_instance_sampler_test
 <<Instances: sub interfaces>>=
     module subroutine process_instance_sampler_test (instance, i_mci, n_calls)
       class(process_instance_t), intent(inout), target :: instance
       integer, intent(in) :: i_mci
       integer, intent(in) :: n_calls
     end subroutine process_instance_sampler_test
 <<Instances: procedures>>=
   module subroutine process_instance_sampler_test (instance, i_mci, n_calls)
     class(process_instance_t), intent(inout), target :: instance
     integer, intent(in) :: i_mci
     integer, intent(in) :: n_calls
     integer :: i_mci_work
     i_mci_work = instance%process%get_i_mci_work (i_mci)
     call instance%choose_mci (i_mci_work)
     call instance%reset_counter ()
     call instance%process%sampler_test (instance, n_calls, i_mci_work)
     call instance%process%set_counter_mci_entry (i_mci_work, instance%get_counter ())
   end subroutine process_instance_sampler_test
 
 @ %def process_instance_sampler_test
 @ Generate a weighted event.  We select one of the available MCI
 integrators by its index [[i_mci]] and thus generate an event for the
 associated (group of) process component(s).  The arguments exactly
 correspond to the initializer and finalizer above.
 
 The resulting event is stored in the [[process_instance]] object,
 which also holds the workspace of the integrator.
 
 Note: The [[process]] object contains the random-number state, which
 changes for each event.
 Otherwise, all volatile data are inside the [[instance]] object.
 <<Instances: process instance: TBP>>=
   procedure :: generate_weighted_event => &
        process_instance_generate_weighted_event
 <<Instances: sub interfaces>>=
     module subroutine process_instance_generate_weighted_event (instance, i_mci)
       class(process_instance_t), intent(inout) :: instance
       integer, intent(in) :: i_mci
     end subroutine process_instance_generate_weighted_event
 <<Instances: procedures>>=
   module subroutine process_instance_generate_weighted_event (instance, i_mci)
     class(process_instance_t), intent(inout) :: instance
     integer, intent(in) :: i_mci
     integer :: i_mci_work
     i_mci_work = instance%process%get_i_mci_work (i_mci)
     call instance%choose_mci (i_mci_work)
     associate (mci_work => instance%mci_work(i_mci_work))
        call instance%process%generate_weighted_event &
           (i_mci_work, mci_work, instance, &
            instance%keep_failed_events ())
     end associate
   end subroutine process_instance_generate_weighted_event
 
 @ %def process_instance_generate_weighted_event
 @
 <<Instances: process instance: TBP>>=
   procedure :: generate_unweighted_event => &
        process_instance_generate_unweighted_event
 <<Instances: sub interfaces>>=
     module subroutine process_instance_generate_unweighted_event &
          (instance, i_mci)
       class(process_instance_t), intent(inout) :: instance
       integer, intent(in) :: i_mci
     end subroutine process_instance_generate_unweighted_event
 <<Instances: procedures>>=
   module subroutine process_instance_generate_unweighted_event (instance, i_mci)
     class(process_instance_t), intent(inout) :: instance
     integer, intent(in) :: i_mci
     integer :: i_mci_work
     i_mci_work = instance%process%get_i_mci_work (i_mci)
     call instance%choose_mci (i_mci_work)
     associate (mci_work => instance%mci_work(i_mci_work))
        call instance%process%generate_unweighted_event &
           (i_mci_work, mci_work, instance)
     end associate
   end subroutine process_instance_generate_unweighted_event
 
 @ %def process_instance_generate_unweighted_event
 @
 This replaces the event generation methods for the situation that the
 process instance object has been filled by other means (i.e., reading
 and/or recalculating its contents).  We just have to fill in missing
 MCI data, especially the event weight.
 <<Instances: process instance: TBP>>=
   procedure :: recover_event => process_instance_recover_event
 <<Instances: sub interfaces>>=
     module subroutine process_instance_recover_event (instance)
       class(process_instance_t), intent(inout) :: instance
     end subroutine process_instance_recover_event
 <<Instances: procedures>>=
   module subroutine process_instance_recover_event (instance)
     class(process_instance_t), intent(inout) :: instance
     integer :: i_mci
     i_mci = instance%i_mci
     call instance%process%set_i_mci_work (i_mci)
     associate (mci_instance => instance%mci_work(i_mci)%mci)
       call mci_instance%fetch (instance, instance%selected_channel)
     end associate
   end subroutine process_instance_recover_event
 
 @ %def process_instance_recover_event
 @
 @ Activate the components and terms that correspond to a currently
 selected MCI parameter set.
 <<Instances: process instance: TBP>>=
   procedure :: activate => process_instance_activate
 <<Instances: sub interfaces>>=
     module subroutine process_instance_activate (instance)
       class(process_instance_t), intent(inout) :: instance
     end subroutine process_instance_activate
 <<Instances: procedures>>=
   module subroutine process_instance_activate (instance)
     class(process_instance_t), intent(inout) :: instance
     integer :: i, j
     integer, dimension(:), allocatable :: i_term
     associate (mci_work => instance%mci_work(instance%i_mci))
        call instance%process%select_components &
             (mci_work%get_active_components ())
     end associate
     associate (process => instance%process)
        do i = 1, instance%process%get_n_components ()
           if (instance%process%component_is_selected (i)) then
              allocate (i_term (size (process%get_component_i_terms (i))))
              i_term = process%get_component_i_terms (i)
              do j = 1, size (i_term)
                 instance%term(i_term(j))%active = .true.
              end do
           end if
           if (allocated (i_term)) deallocate (i_term)
        end do
     end associate
     instance%evaluation_status = STAT_ACTIVATED
   end subroutine process_instance_activate
 
 @ %def process_instance_activate
 @
 <<Instances: process instance: TBP>>=
   procedure :: find_same_kinematics => process_instance_find_same_kinematics
 <<Instances: sub interfaces>>=
     module subroutine process_instance_find_same_kinematics (instance)
       class(process_instance_t), intent(inout) :: instance
     end subroutine process_instance_find_same_kinematics
 <<Instances: procedures>>=
   module subroutine process_instance_find_same_kinematics (instance)
     class(process_instance_t), intent(inout) :: instance
     integer :: i_term1, i_term2, k, n_same
     do i_term1 = 1, size (instance%term)
        if (.not. allocated (instance%term(i_term1)%same_kinematics)) then
           n_same = 1 !!! Index group includes the index of its term_instance
           do i_term2 = 1, size (instance%term)
              if (i_term1 == i_term2) cycle
              if (compare_md5s (i_term1, i_term2)) n_same = n_same + 1
           end do
           allocate (instance%term(i_term1)%same_kinematics (n_same))
           associate (same_kinematics1 => instance%term(i_term1)%same_kinematics)
              same_kinematics1 = 0
              k = 1
              do i_term2 = 1, size (instance%term)
                 if (compare_md5s (i_term1, i_term2)) then
                    same_kinematics1(k) = i_term2
                    k = k + 1
                 end if
              end do
              do k = 1, size (same_kinematics1)
                 if (same_kinematics1(k) == i_term1) cycle
                 i_term2 = same_kinematics1(k)
                 allocate (instance%term(i_term2)%same_kinematics (n_same))
                 instance%term(i_term2)%same_kinematics = same_kinematics1
              end do
           end associate
        end if
     end do
   contains
     function compare_md5s (i, j) result (same)
       logical :: same
       integer, intent(in) :: i, j
       character(32) :: md5sum_1, md5sum_2
       integer :: mode_1, mode_2
       mode_1 = 0; mode_2 = 0
       select type (phs => instance%kin(i)%phs%config)
       type is (phs_fks_config_t)
          md5sum_1 = phs%md5sum_born_config
          mode_1 = phs%mode
       class default
          md5sum_1 = phs%md5sum_phs_config
       end select
       select type (phs => instance%kin(j)%phs%config)
       type is (phs_fks_config_t)
          md5sum_2 = phs%md5sum_born_config
          mode_2 = phs%mode
       class default
          md5sum_2 = phs%md5sum_phs_config
       end select
       same = (md5sum_1 == md5sum_2) .and. (mode_1 == mode_2)
     end function compare_md5s
   end subroutine process_instance_find_same_kinematics
 
 @ %def process_instance_find_same_kinematics
 @
 <<Instances: process instance: TBP>>=
   procedure :: transfer_same_kinematics => &
        process_instance_transfer_same_kinematics
 <<Instances: sub interfaces>>=
     module subroutine process_instance_transfer_same_kinematics &
          (instance, i_term)
       class(process_instance_t), intent(inout) :: instance
       integer, intent(in) :: i_term
     end subroutine process_instance_transfer_same_kinematics
 <<Instances: procedures>>=
   module subroutine process_instance_transfer_same_kinematics (instance, i_term)
     class(process_instance_t), intent(inout) :: instance
     integer, intent(in) :: i_term
     integer :: i, i_term_same
     associate (same_kinematics => instance%term(i_term)%same_kinematics)
       do i = 1, size (same_kinematics)
          i_term_same = same_kinematics(i)
          instance%term(i_term_same)%p_seed = instance%term(i_term)%p_seed
          associate (phs => instance%kin(i_term_same)%phs)
            call phs%set_lorentz_transformation &
                 (instance%kin(i_term)%phs%get_lorentz_transformation ())
            select type (phs)
            type is (phs_fks_t)
               call phs%set_momenta (instance%term(i_term_same)%p_seed)
               if (i_term_same /= i_term) then
                  call phs%set_reference_frames (.false.)
               end if
            end select
          end associate
          instance%kin(i_term_same)%new_seed = .false.
       end do
     end associate
   end subroutine process_instance_transfer_same_kinematics
 
 @ %def process_instance_transfer_same_kinematics
 @
 <<Instances: process instance: TBP>>=
   procedure :: redo_sf_chains => process_instance_redo_sf_chains
 <<Instances: sub interfaces>>=
     module subroutine process_instance_redo_sf_chains &
          (instance, i_term, phs_channel)
       class(process_instance_t), intent(inout) :: instance
       integer, intent(in), dimension(:) :: i_term
       integer, intent(in) :: phs_channel
     end subroutine process_instance_redo_sf_chains
 <<Instances: procedures>>=
   module subroutine process_instance_redo_sf_chains &
        (instance, i_term, phs_channel)
     class(process_instance_t), intent(inout) :: instance
     integer, intent(in), dimension(:) :: i_term
     integer, intent(in) :: phs_channel
     integer :: i
     do i = 1, size (i_term)
        call instance%kin(i_term(i))%redo_sf_chain &
             (instance%mci_work(instance%i_mci), phs_channel)
     end do
   end subroutine process_instance_redo_sf_chains
 
 @ %def process_instance_redo_sf_chains
 @ Integrate the process, using a previously initialized process
 instance.  We select one of the available MCI integrators by its index
 [[i_mci]] and thus integrate over (structure functions and) phase
 space for the associated (group of) process component(s).
 <<Instances: process instance: TBP>>=
   procedure :: integrate => process_instance_integrate
 <<Instances: sub interfaces>>=
     module subroutine process_instance_integrate (instance, i_mci, &
          n_it, n_calls, adapt_grids, adapt_weights, final, pacify)
       class(process_instance_t), intent(inout) :: instance
       integer, intent(in) :: i_mci
       integer, intent(in) :: n_it
       integer, intent(in) :: n_calls
       logical, intent(in), optional :: adapt_grids
       logical, intent(in), optional :: adapt_weights
       logical, intent(in), optional :: final, pacify
     end subroutine process_instance_integrate
 <<Instances: procedures>>=
   module subroutine process_instance_integrate (instance, i_mci, &
        n_it, n_calls, adapt_grids, adapt_weights, final, pacify)
     class(process_instance_t), intent(inout) :: instance
     integer, intent(in) :: i_mci
     integer, intent(in) :: n_it
     integer, intent(in) :: n_calls
     logical, intent(in), optional :: adapt_grids
     logical, intent(in), optional :: adapt_weights
     logical, intent(in), optional :: final, pacify
     integer :: nlo_type, i_mci_work
     nlo_type = instance%process%get_component_nlo_type (i_mci)
     i_mci_work = instance%process%get_i_mci_work (i_mci)
     call instance%choose_mci (i_mci_work)
     call instance%reset_counter ()
     associate (mci_work => instance%mci_work(i_mci_work), &
                process => instance%process)
        call process%integrate (i_mci_work, mci_work, &
             instance, n_it, n_calls, adapt_grids, adapt_weights, &
             final, pacify, nlo_type = nlo_type)
        call process%set_counter_mci_entry (i_mci_work, instance%get_counter ())
     end associate
   end subroutine process_instance_integrate
 
 @ %def process_instance_integrate
 @ Subroutine of the initialization above: initialize the beam and
 structure-function chain template.  We establish pointers to the
 configuration data, so [[beam_config]] must have a [[target]]
 attribute.
 
 The resulting chain is not used directly for calculation.  It will
 acquire instances which are stored in the process-component instance
 objects.
 <<Instances: process instance: TBP>>=
   procedure :: setup_sf_chain => process_instance_setup_sf_chain
 <<Instances: sub interfaces>>=
     module subroutine process_instance_setup_sf_chain (instance, config)
       class(process_instance_t), intent(inout) :: instance
       type(process_beam_config_t), intent(in), target :: config
     end subroutine process_instance_setup_sf_chain
 <<Instances: procedures>>=
   module subroutine process_instance_setup_sf_chain (instance, config)
     class(process_instance_t), intent(inout) :: instance
     type(process_beam_config_t), intent(in), target :: config
     integer :: n_strfun
     n_strfun = config%n_strfun
     if (n_strfun /= 0) then
        call instance%sf_chain%init (config%data, config%sf)
     else
        call instance%sf_chain%init (config%data)
     end if
     if (config%sf_trace) then
        call instance%sf_chain%setup_tracing (config%sf_trace_file)
     end if
   end subroutine process_instance_setup_sf_chain
 
 @ %def process_instance_setup_sf_chain
 @ This initialization routine should be called only for process
 instances which we intend as a source for physical events.  It
 initializes the evaluators in the parton states of the terms.  They
 describe the (semi-)exclusive transition matrix and the distribution
 of color flow for the partonic process, convoluted with the beam and
 structure-function chain.
 
 If the model is not provided explicitly, we may use the model instance that
 belongs to the process.  However, an explicit model allows us to override
 particle settings.
 <<Instances: process instance: TBP>>=
   procedure :: setup_event_data => process_instance_setup_event_data
 <<Instances: sub interfaces>>=
     module subroutine process_instance_setup_event_data &
          (instance, model, i_core)
       class(process_instance_t), intent(inout), target :: instance
       class(model_data_t), intent(in), optional, target :: model
       integer, intent(in), optional :: i_core
     end subroutine process_instance_setup_event_data
 <<Instances: procedures>>=
   module subroutine process_instance_setup_event_data (instance, model, i_core)
     class(process_instance_t), intent(inout), target :: instance
     class(model_data_t), intent(in), optional, target :: model
     integer, intent(in), optional :: i_core
     class(model_data_t), pointer :: current_model
     integer :: i
     class(prc_core_t), pointer :: core => null ()
     if (present (model)) then
        current_model => model
     else
        current_model => instance%process%get_model_ptr ()
     end if
     do i = 1, size (instance%term)
        associate (term => instance%term(i), kin => instance%kin(i))
          if (associated (term%config)) then
             core => instance%process%get_core_term (i)
             call term%setup_event_data (kin, core, current_model)
          end if
        end associate
     end do
     core => null ()
   end subroutine process_instance_setup_event_data
 
 @ %def process_instance_setup_event_data
 @ Choose a MC parameter set and the corresponding integrator.
 The choice persists beyond calls of the [[reset]] method above.  This method
 is automatically called here.
 <<Instances: process instance: TBP>>=
   procedure :: choose_mci => process_instance_choose_mci
 <<Instances: sub interfaces>>=
     module subroutine process_instance_choose_mci (instance, i_mci)
       class(process_instance_t), intent(inout) :: instance
       integer, intent(in) :: i_mci
     end subroutine process_instance_choose_mci
 <<Instances: procedures>>=
   module subroutine process_instance_choose_mci (instance, i_mci)
     class(process_instance_t), intent(inout) :: instance
     integer, intent(in) :: i_mci
     instance%i_mci = i_mci
     call instance%reset ()
   end subroutine process_instance_choose_mci
 
 @ %def process_instance_choose_mci
 @ Explicitly set a MC parameter set.  Works only if we are in initial
 state.  We assume that the length of the parameter set is correct.
 
 After setting the parameters, activate the components and terms that
 correspond to the chosen MC parameter set.
 
 The [[warmup_flag]] is used when a dummy phase-space point is computed
 for the warmup of e.g. OpenLoops helicities. The setting of the
 the [[evaluation_status]] has to be avoided then.
 <<Instances: process instance: TBP>>=
   procedure :: set_mcpar => process_instance_set_mcpar
 <<Instances: sub interfaces>>=
     module subroutine process_instance_set_mcpar (instance, x, warmup_flag)
       class(process_instance_t), intent(inout) :: instance
       real(default), dimension(:), intent(in) :: x
       logical, intent(in), optional :: warmup_flag
     end subroutine process_instance_set_mcpar
 <<Instances: procedures>>=
   module subroutine process_instance_set_mcpar (instance, x, warmup_flag)
     class(process_instance_t), intent(inout) :: instance
     real(default), dimension(:), intent(in) :: x
     logical, intent(in), optional :: warmup_flag
     logical :: activate
     activate = .true.; if (present (warmup_flag)) activate = .not. warmup_flag
     if (instance%evaluation_status == STAT_INITIAL) then
        associate (mci_work => instance%mci_work(instance%i_mci))
           call mci_work%set (x)
        end associate
        if (activate) call instance%activate ()
     end if
   end subroutine process_instance_set_mcpar
 
 @ %def process_instance_set_mcpar
 @ Receive the beam momentum/momenta from a source interaction.  This
 applies to a cascade decay process instance, where the `beam' momentum
 varies event by event.
 
 The master beam momentum array is contained in the main structure
 function chain subobject [[sf_chain]].  The sf-chain instance that
 reside in the components will take their beam momenta from there.
 
 The procedure transforms the instance status into
 [[STAT_BEAM_MOMENTA]].  For process instance with fixed beam, this
 intermediate status is skipped.
 <<Instances: process instance: TBP>>=
   procedure :: receive_beam_momenta => process_instance_receive_beam_momenta
 <<Instances: sub interfaces>>=
     module subroutine process_instance_receive_beam_momenta (instance)
       class(process_instance_t), intent(inout) :: instance
     end subroutine process_instance_receive_beam_momenta
 <<Instances: procedures>>=
   module subroutine process_instance_receive_beam_momenta (instance)
     class(process_instance_t), intent(inout) :: instance
     if (instance%evaluation_status >= STAT_INITIAL) then
        call instance%sf_chain%receive_beam_momenta ()
        instance%evaluation_status = STAT_BEAM_MOMENTA
     end if
   end subroutine process_instance_receive_beam_momenta
 
 @ %def process_instance_receive_beam_momenta
 @ Set the beam momentum/momenta explicitly.  Otherwise, analogous to
 the previous procedure.
 <<Instances: process instance: TBP>>=
   procedure :: set_beam_momenta => process_instance_set_beam_momenta
 <<Instances: sub interfaces>>=
     module subroutine process_instance_set_beam_momenta (instance, p)
       class(process_instance_t), intent(inout) :: instance
       type(vector4_t), dimension(:), intent(in) :: p
     end subroutine process_instance_set_beam_momenta
 <<Instances: procedures>>=
   module subroutine process_instance_set_beam_momenta (instance, p)
     class(process_instance_t), intent(inout) :: instance
     type(vector4_t), dimension(:), intent(in) :: p
     if (instance%evaluation_status >= STAT_INITIAL) then
        call instance%sf_chain%set_beam_momenta (p)
        instance%evaluation_status = STAT_BEAM_MOMENTA
     end if
   end subroutine process_instance_set_beam_momenta
 
 @ %def process_instance_set_beam_momenta
 @ Recover the initial beam momenta (those in the [[sf_chain]]
 component), given a valid (recovered) [[sf_chain_instance]] in one of
 the active components.  We need to do this only if the lab frame is
 not the c.m.\ frame, otherwise those beams would be fixed anyway.
 <<Instances: process instance: TBP>>=
   procedure :: recover_beam_momenta => process_instance_recover_beam_momenta
 <<Instances: sub interfaces>>=
     module subroutine process_instance_recover_beam_momenta (instance, i_term)
       class(process_instance_t), intent(inout) :: instance
       integer, intent(in) :: i_term
     end subroutine process_instance_recover_beam_momenta
 <<Instances: procedures>>=
   module subroutine process_instance_recover_beam_momenta (instance, i_term)
     class(process_instance_t), intent(inout) :: instance
     integer, intent(in) :: i_term
     if (.not. instance%process%lab_is_cm ()) then
        if (instance%evaluation_status >= STAT_EFF_KINEMATICS) then
           call instance%kin(i_term)%return_beam_momenta ()
        end if
     end if
   end subroutine process_instance_recover_beam_momenta
 
 @ %def process_instance_recover_beam_momenta
 @ Explicitly choose MC integration channel.  We assume here that the channel
 count is identical for all active components.
 <<Instances: process instance: TBP>>=
   procedure :: select_channel => process_instance_select_channel
 <<Instances: sub interfaces>>=
     module subroutine process_instance_select_channel (instance, channel)
       class(process_instance_t), intent(inout) :: instance
       integer, intent(in) :: channel
     end subroutine process_instance_select_channel
 <<Instances: procedures>>=
   module subroutine process_instance_select_channel (instance, channel)
     class(process_instance_t), intent(inout) :: instance
     integer, intent(in) :: channel
     instance%selected_channel = channel
   end subroutine process_instance_select_channel
 
 @ %def process_instance_select_channel
 @ First step of process evaluation: set up seed kinematics.  That is, for each
 active process component, compute a momentum array from the MC input
 parameters.
 
 If [[skip_term]] is set, we skip the component that accesses this
 term.  We can assume that the associated data have already been
 recovered, and we are just computing the rest.
 <<Instances: process instance: TBP>>=
   procedure :: compute_seed_kinematics => &
        process_instance_compute_seed_kinematics
 <<Instances: sub interfaces>>=
     module subroutine process_instance_compute_seed_kinematics &
          (instance, recover, skip_term)
       class(process_instance_t), intent(inout) :: instance
       logical, intent(in), optional :: recover
       integer, intent(in), optional :: skip_term
     end subroutine process_instance_compute_seed_kinematics
 <<Instances: procedures>>=
   module subroutine process_instance_compute_seed_kinematics &
        (instance, recover, skip_term)
     class(process_instance_t), intent(inout) :: instance
     logical, intent(in), optional :: recover
     integer, intent(in), optional :: skip_term
     integer :: channel, skip_component, i, j
     logical :: success
     integer, dimension(:), allocatable :: i_term
     channel = instance%selected_channel
     if (channel == 0) then
        call msg_bug ("Compute seed kinematics: undefined integration channel")
     end if
     if (present (skip_term)) then
        skip_component = instance%term(skip_term)%config%i_component
     else
        skip_component = 0
     end if
     if (present (recover)) then
        if (recover) return
     end if
     if (instance%evaluation_status >= STAT_ACTIVATED) then
        success = .true.
        do i = 1, instance%process%get_n_components ()
           if (i == skip_component)  cycle
           if (instance%process%component_is_selected (i)) then
              allocate (i_term (size (instance%process%get_component_i_terms (i))))
              i_term = instance%process%get_component_i_terms (i)
              do j = 1, size (i_term)
                 associate (term => instance%term(i_term(j)), kin => instance%kin(i_term(j)))
                   if (kin%new_seed) then
                      call term%compute_seed_kinematics (kin, &
                           instance%mci_work(instance%i_mci), channel, success)
                      call instance%transfer_same_kinematics (i_term(j))
                   end if
                   if (.not. success)  exit
                   select type (pcm => instance%pcm)
                   class is (pcm_nlo_t)
                      call term%evaluate_projections (kin)
                      call kin%evaluate_radiation_kinematics &
                           (instance%mci_work(instance%i_mci)%get_x_process ())
                      call kin%generate_fsr_in ()
                      call kin%compute_xi_ref_momenta (pcm%region_data, term%nlo_type)
                   end select
                 end associate
              end do
           end if
           if (allocated (i_term)) deallocate (i_term)
        end do
        if (success) then
           instance%evaluation_status = STAT_SEED_KINEMATICS
        else
           instance%evaluation_status = STAT_FAILED_KINEMATICS
        end if
     end if
     associate (mci_work => instance%mci_work(instance%i_mci))
        select type (pcm_work => instance%pcm_work)
        class is (pcm_nlo_workspace_t)
           call pcm_work%set_x_rad (mci_work%get_x_process ())
        end select
     end associate
   end subroutine process_instance_compute_seed_kinematics
 
 @ %def process_instance_compute_seed_kinematics
 @
 <<Instances: process instance: TBP>>=
   procedure :: get_x_process => process_instance_get_x_process
 <<Instances: sub interfaces>>=
     pure module function process_instance_get_x_process (instance) result (x)
       real(default), dimension(:), allocatable :: x
       class(process_instance_t), intent(in) :: instance
     end function process_instance_get_x_process
 <<Instances: procedures>>=
   pure module function process_instance_get_x_process (instance) result (x)
     real(default), dimension(:), allocatable :: x
     class(process_instance_t), intent(in) :: instance
     allocate (x(size (instance%mci_work(instance%i_mci)%get_x_process ())))
     x = instance%mci_work(instance%i_mci)%get_x_process ()
   end function process_instance_get_x_process
 
 @ %def process_instance_get_x_process
 @
 <<Instances: process instance: TBP>>=
   procedure :: get_active_component_type => &
        process_instance_get_active_component_type
 <<Instances: sub interfaces>>=
     pure module function process_instance_get_active_component_type &
          (instance) result (nlo_type)
       integer :: nlo_type
       class(process_instance_t), intent(in) :: instance
     end function process_instance_get_active_component_type
 <<Instances: procedures>>=
   pure module function process_instance_get_active_component_type &
        (instance) result (nlo_type)
     integer :: nlo_type
     class(process_instance_t), intent(in) :: instance
     nlo_type = instance%process%get_component_nlo_type (instance%i_mci)
   end function process_instance_get_active_component_type
 
 @ %def process_instance_get_active_component_type
 @ Inverse: recover missing parts of the kinematics from the momentum
 configuration, which we know for a single term and component.   Given
 a channel, reconstruct the MC parameter set.
 <<Instances: process instance: TBP>>=
   procedure :: recover_mcpar => process_instance_recover_mcpar
 <<Instances: sub interfaces>>=
     module subroutine process_instance_recover_mcpar (instance, i_term)
       class(process_instance_t), intent(inout) :: instance
       integer, intent(in) :: i_term
     end subroutine process_instance_recover_mcpar
 <<Instances: procedures>>=
   module subroutine process_instance_recover_mcpar (instance, i_term)
     class(process_instance_t), intent(inout) :: instance
     integer, intent(in) :: i_term
     integer :: channel, i
     if (instance%evaluation_status >= STAT_EFF_KINEMATICS) then
        channel = instance%selected_channel
        if (channel == 0) then
           call msg_bug ("Recover MC parameters: undefined integration channel")
        end if
        call instance%kin(i_term)%recover_mcpar &
             (instance%mci_work(instance%i_mci), channel, instance%term(i_term)%p_seed)
        if (instance%term(i_term)%nlo_type == NLO_REAL) then
           do i = 1, size (instance%term)
              if (i /= i_term .and. instance%term(i)%nlo_type == NLO_REAL) then
                 if (instance%term(i)%active) then
                    call instance%kin(i)%recover_mcpar &
                         (instance%mci_work(instance%i_mci), channel, &
                          instance%term(i)%p_seed)
                 end if
              end if
           end do
        end if
     end if
   end subroutine process_instance_recover_mcpar
 
 @ %def process_instance_recover_mcpar
 @ This is part of [[recover_mcpar]], extracted for the case when there is
 no phase space and parameters to recover, but we still need the structure
 function kinematics for evaluation.
 <<Instances: process instance: TBP>>=
   procedure :: recover_sfchain => process_instance_recover_sfchain
 <<Instances: sub interfaces>>=
     module subroutine process_instance_recover_sfchain (instance, i_term)
       class(process_instance_t), intent(inout) :: instance
       integer, intent(in) :: i_term
     end subroutine process_instance_recover_sfchain
 <<Instances: procedures>>=
   module subroutine process_instance_recover_sfchain (instance, i_term)
     class(process_instance_t), intent(inout) :: instance
     integer, intent(in) :: i_term
     integer :: channel
     if (instance%evaluation_status >= STAT_EFF_KINEMATICS) then
        channel = instance%selected_channel
        if (channel == 0) then
           call msg_bug ("Recover sfchain: undefined integration channel")
        end if
        call instance%kin(i_term)%recover_sfchain &
             (channel, instance%term(i_term)%p_seed)
     end if
   end subroutine process_instance_recover_sfchain
 
 @ %def process_instance_recover_sfchain
 @ Second step of process evaluation: compute all momenta, for all active
 components, from the seed kinematics.
 <<Instances: process instance: TBP>>=
   procedure :: compute_hard_kinematics => &
        process_instance_compute_hard_kinematics
 <<Instances: sub interfaces>>=
     module subroutine process_instance_compute_hard_kinematics &
          (instance, recover, skip_term)
       class(process_instance_t), intent(inout) :: instance
       integer, intent(in), optional :: skip_term
       logical, intent(in), optional :: recover
     end subroutine process_instance_compute_hard_kinematics
 <<Instances: procedures>>=
   module subroutine process_instance_compute_hard_kinematics &
        (instance, recover, skip_term)
     class(process_instance_t), intent(inout) :: instance
     integer, intent(in), optional :: skip_term
     logical, intent(in), optional :: recover
     integer :: i
     logical :: success
     success = .true.
     if (instance%evaluation_status >= STAT_SEED_KINEMATICS) then
        do i = 1, size (instance%term)
           associate (term => instance%term(i), kin => instance%kin(i))
             if (term%active) then
                call term%compute_hard_kinematics &
                     (kin, recover, skip_term, success)
                if (.not. success) exit
                !!! Ren scale is zero when this is commented out! Understand!
                if (term%nlo_type == NLO_REAL) &
                   call kin%redo_sf_chain (instance%mci_work(instance%i_mci), &
                       instance%selected_channel)
             end if
           end associate
        end do
        if (success) then
           instance%evaluation_status = STAT_HARD_KINEMATICS
        else
           instance%evaluation_status = STAT_FAILED_KINEMATICS
        end if
     end if
   end subroutine process_instance_compute_hard_kinematics
 
 @ %def process_instance_setup_compute_hard_kinematics
 @ Inverse: recover seed kinematics.  We know the beam momentum
 configuration and the outgoing momenta of the effective interaction,
 for one specific term.
 <<Instances: process instance: TBP>>=
   procedure :: recover_seed_kinematics => &
        process_instance_recover_seed_kinematics
 <<Instances: sub interfaces>>=
     module subroutine process_instance_recover_seed_kinematics &
          (instance, i_term)
       class(process_instance_t), intent(inout) :: instance
       integer, intent(in) :: i_term
     end subroutine process_instance_recover_seed_kinematics
 <<Instances: procedures>>=
   module subroutine process_instance_recover_seed_kinematics (instance, i_term)
     class(process_instance_t), intent(inout) :: instance
     integer, intent(in) :: i_term
     type(vector4_t), dimension(:), allocatable :: p_seed_ref
     integer :: i
     if (instance%evaluation_status >= STAT_EFF_KINEMATICS) then
        call instance%term(i_term)%recover_seed_kinematics (instance%kin(i_term))
        if (instance%term(i_term)%nlo_type == NLO_REAL) then
           allocate (p_seed_ref &
                (instance%term(i_term)%isolated%int_eff%get_n_out ()))
           p_seed_ref = instance%term(i_term)%isolated%int_eff%get_momenta &
                (outgoing = .true.)
           do i = 1, size (instance%term)
              if (i /= i_term .and. instance%term(i)%nlo_type == NLO_REAL) then
                 if (instance%term(i)%active) then
                    call instance%term(i)%recover_seed_kinematics &
                         (instance%kin(i), p_seed_ref)
                 end if
              end if
           end do
        end if
     end if
   end subroutine process_instance_recover_seed_kinematics
 
 @ %def process_instance_recover_seed_kinematics
 @ Third step of process evaluation: compute the effective momentum
 configurations, for all active terms, from the hard kinematics.
 <<Instances: process instance: TBP>>=
   procedure :: compute_eff_kinematics => &
        process_instance_compute_eff_kinematics
 <<Instances: sub interfaces>>=
     module subroutine process_instance_compute_eff_kinematics &
          (instance, skip_term)
       class(process_instance_t), intent(inout) :: instance
       integer, intent(in), optional :: skip_term
     end subroutine process_instance_compute_eff_kinematics
 <<Instances: procedures>>=
   module subroutine process_instance_compute_eff_kinematics &
        (instance, skip_term)
     class(process_instance_t), intent(inout) :: instance
     integer, intent(in), optional :: skip_term
     integer :: i
     if (instance%evaluation_status >= STAT_HARD_KINEMATICS) then
        do i = 1, size (instance%term)
           if (present (skip_term)) then
              if (i == skip_term)  cycle
           end if
           if (instance%term(i)%active) then
              call instance%term(i)%compute_eff_kinematics ()
           end if
        end do
        instance%evaluation_status = STAT_EFF_KINEMATICS
     end if
   end subroutine process_instance_compute_eff_kinematics
 
 @ %def process_instance_setup_compute_eff_kinematics
 @ Inverse: recover the hard kinematics from effective kinematics for
 one term, then compute effective kinematics for the other terms.
 <<Instances: process instance: TBP>>=
   procedure :: recover_hard_kinematics => &
        process_instance_recover_hard_kinematics
 <<Instances: sub interfaces>>=
     module subroutine process_instance_recover_hard_kinematics &
          (instance, i_term)
       class(process_instance_t), intent(inout) :: instance
       integer, intent(in) :: i_term
     end subroutine process_instance_recover_hard_kinematics
 <<Instances: procedures>>=
   module subroutine process_instance_recover_hard_kinematics (instance, i_term)
     class(process_instance_t), intent(inout) :: instance
     integer, intent(in) :: i_term
     integer :: i
     if (instance%evaluation_status >= STAT_EFF_KINEMATICS) then
        call instance%term(i_term)%recover_hard_kinematics ()
        do i = 1, size (instance%term)
           if (i /= i_term) then
              if (instance%term(i)%active) then
                 call instance%term(i)%compute_eff_kinematics ()
              end if
           end if
        end do
        instance%evaluation_status = STAT_EFF_KINEMATICS
     end if
   end subroutine process_instance_recover_hard_kinematics
 
 @ %def recover_hard_kinematics
 @ Fourth step of process evaluation: check cuts for all terms.  Where
 successful, compute any scales and weights.  Otherwise, deactive the term.
 If any of the terms has passed, set the state to [[STAT_PASSED_CUTS]].
 
 The argument [[scale_forced]], if present, will override the scale calculation
 in the term expressions.
 <<Instances: process instance: TBP>>=
   procedure :: evaluate_expressions => &
        process_instance_evaluate_expressions
 <<Instances: sub interfaces>>=
     module subroutine process_instance_evaluate_expressions &
          (instance, scale_forced)
       class(process_instance_t), intent(inout) :: instance
       real(default), intent(in), allocatable, optional :: scale_forced
     end subroutine process_instance_evaluate_expressions
 <<Instances: procedures>>=
   module subroutine process_instance_evaluate_expressions &
        (instance, scale_forced)
     class(process_instance_t), intent(inout) :: instance
     real(default), intent(in), allocatable, optional :: scale_forced
     integer :: i
     logical :: passed_real
     if (instance%evaluation_status >= STAT_EFF_KINEMATICS) then
        do i = 1, size (instance%term)
           if (instance%term(i)%active) then
              call instance%term(i)%evaluate_expressions &
                   (instance%process%get_beam_config (), scale_forced)
           end if
        end do
        call evaluate_real_scales_and_cuts ()
        call set_ellis_sexton_scale ()
        if (.not. passed_real) then
           instance%evaluation_status = STAT_FAILED_CUTS
        else
           if (any (instance%term%passed)) then
              instance%evaluation_status = STAT_PASSED_CUTS
           else
              instance%evaluation_status = STAT_FAILED_CUTS
           end if
        end if
     end if
   contains
     subroutine evaluate_real_scales_and_cuts ()
       integer :: i
       passed_real = .true.
       select type (pcm => instance%pcm)
       type is (pcm_nlo_t)
          do i = 1, size (instance%term)
             if (instance%term(i)%active .and. instance%term(i)%nlo_type == NLO_REAL) then
                if (pcm%settings%cut_all_real_sqmes) &
                     passed_real = passed_real .and. instance%term(i)%passed
                if (pcm%settings%use_born_scale) &
                     call replace_scales (instance%term(i))
             end if
          end do
       end select
     end subroutine evaluate_real_scales_and_cuts
 
     subroutine replace_scales (this_term)
       type(term_instance_t), intent(inout) :: this_term
       integer :: i_sub
       i_sub = this_term%config%i_sub
       if (this_term%config%i_term_global /= i_sub .and. i_sub > 0) then
          this_term%ren_scale = instance%term(i_sub)%ren_scale
          this_term%fac_scale = instance%term(i_sub)%fac_scale
       end if
     end subroutine replace_scales
 
     subroutine set_ellis_sexton_scale ()
       real(default) :: es_scale
       type(var_list_t), pointer :: var_list
       integer :: i
       var_list => instance%process%get_var_list_ptr ()
       es_scale = var_list%get_rval (var_str ("ellis_sexton_scale"))
       do i = 1, size (instance%term)
          if (instance%term(i)%active .and. instance%term(i)%nlo_type == NLO_VIRTUAL) then
             if (es_scale > zero) then
                if (allocated (instance%term(i)%es_scale)) then
                   instance%term(i)%es_scale = es_scale
                else
                   allocate (instance%term(i)%es_scale, source=es_scale)
                end if
             end if
          end if
       end do
     end subroutine set_ellis_sexton_scale
   end subroutine process_instance_evaluate_expressions
 
 @ %def process_instance_evaluate_expressions
 @ Fifth step of process evaluation: fill the parameters for the non-selected
 channels, that have not been used for seeding.  We should do this after
 evaluating cuts, since we may save some expensive calculations if the phase
 space point fails the cuts.
 
 If [[skip_term]] is set, we skip the component that accesses this
 term.  We can assume that the associated data have already been
 recovered, and we are just computing the rest.
 <<Instances: process instance: TBP>>=
   procedure :: compute_other_channels => &
        process_instance_compute_other_channels
 <<Instances: sub interfaces>>=
     module subroutine process_instance_compute_other_channels &
          (instance, skip_term)
       class(process_instance_t), intent(inout) :: instance
       integer, intent(in), optional :: skip_term
     end subroutine process_instance_compute_other_channels
 <<Instances: procedures>>=
   module subroutine process_instance_compute_other_channels &
        (instance, skip_term)
     class(process_instance_t), intent(inout) :: instance
     integer, intent(in), optional :: skip_term
     integer :: channel, skip_component, i, j
     integer, dimension(:), allocatable :: i_term
     channel = instance%selected_channel
     if (channel == 0) then
        call msg_bug ("Compute other channels: undefined integration channel")
     end if
     if (present (skip_term)) then
        skip_component = instance%term(skip_term)%config%i_component
     else
        skip_component = 0
     end if
     if (instance%evaluation_status >= STAT_PASSED_CUTS) then
        do i = 1, instance%process%get_n_components ()
           if (i == skip_component)  cycle
           if (instance%process%component_is_selected (i)) then
              allocate (i_term (size (instance%process%get_component_i_terms (i))))
              i_term = instance%process%get_component_i_terms (i)
              do j = 1, size (i_term)
                 call instance%kin(i_term(j))%compute_other_channels &
                      (instance%mci_work(instance%i_mci), channel)
              end do
           end if
           if (allocated (i_term)) deallocate (i_term)
        end do
     end if
   end subroutine process_instance_compute_other_channels
 
 @ %def process_instance_compute_other_channels
 @ If not done otherwise, we flag the kinematics as new for the core state,
 such that the routine below will actually compute the matrix element and not
 just look it up.
 <<Instances: process instance: TBP>>=
   procedure :: reset_core_kinematics => process_instance_reset_core_kinematics
 <<Instances: sub interfaces>>=
     module subroutine process_instance_reset_core_kinematics (instance)
       class(process_instance_t), intent(inout) :: instance
     end subroutine process_instance_reset_core_kinematics
 <<Instances: procedures>>=
   module subroutine process_instance_reset_core_kinematics (instance)
     class(process_instance_t), intent(inout) :: instance
     integer :: i
     if (instance%evaluation_status >= STAT_PASSED_CUTS) then
        do i = 1, size (instance%term)
           associate (term => instance%term(i))
             if (term%active .and. term%passed) then
                if (allocated (term%core_state)) &
                     call term%core_state%reset_new_kinematics ()
             end if
           end associate
        end do
     end if
   end subroutine process_instance_reset_core_kinematics
 
 @ %def process_instance_reset_core_kinematics
 @ Sixth step of process evaluation: evaluate the matrix elements, and compute
 the trace (summed over quantum numbers) for all terms.  Finally, sum up the
 terms, iterating over all active process components.
 <<Instances: process instance: TBP>>=
   procedure :: evaluate_trace => process_instance_evaluate_trace
 <<Instances: sub interfaces>>=
     module subroutine process_instance_evaluate_trace (instance, recover)
       class(process_instance_t), intent(inout) :: instance
       logical, intent(in), optional :: recover
     end subroutine process_instance_evaluate_trace
 <<Instances: procedures>>=
   module subroutine process_instance_evaluate_trace (instance, recover)
     class(process_instance_t), intent(inout) :: instance
     logical, intent(in), optional :: recover
     class(prc_core_t), pointer :: core => null ()
     integer :: i, i_real_fin, i_core, i_qn, i_flv
     real(default) :: alpha_s, alpha_qed
     class(prc_core_t), pointer :: core_sub => null ()
     class(model_data_t), pointer :: model => null ()
     logical :: has_pdfs
     if (debug_on) call msg_debug2 (D_PROCESS_INTEGRATION, "process_instance_evaluate_trace")
     has_pdfs = instance%process%pcm_contains_pdfs ()
     instance%sqme = zero
     call instance%reset_matrix_elements ()
     if (instance%evaluation_status >= STAT_PASSED_CUTS) then
        do i = 1, size (instance%term)
           associate (term => instance%term(i), kin => instance%kin(i))
             if (term%active .and. term%passed) then
                core => instance%process%get_core_term (i)
                select type (pcm => instance%process%get_pcm_ptr ())
                class is (pcm_nlo_t)
                   i_core = pcm%get_i_core (pcm%i_sub)
                   core_sub => instance%process%get_core_ptr (i_core)
                end select
                call term%evaluate_interaction (core, kin)
                call term%evaluate_trace (kin)
                i_real_fin = instance%process%get_associated_real_fin (1)
                if (instance%process%uses_real_partition ()) &
                     call term%apply_real_partition (kin)
                if (term%config%i_component /= i_real_fin) then
                   if (term%nlo_type == BORN) then
                      do i_flv = 1, term%connected%trace%get_qn_index_n_flv ()
                         i_qn = term%connected%trace%get_qn_index (i_flv, i_sub = 0)
                         if (.not. term%passed_array(i_flv)) then
                            call term%connected%trace%set_matrix_element &
                                 (i_qn, cmplx (zero, zero, default))
                         end if
                      end do
                   end if
                   if ((term%nlo_type == NLO_REAL .and. kin%emitter < 0) &
                        .or. term%nlo_type == NLO_MISMATCH &
                        .or. term%nlo_type == NLO_DGLAP) &
                        call term%set_born_sqmes (core)
                   if (term%is_subtraction () .or. &
                        term%nlo_type == NLO_DGLAP) &
                        call term%set_sf_factors (kin, has_pdfs)
                   if (term%nlo_type > BORN) then
                      if (.not. (term%nlo_type == NLO_REAL .and. &
                           kin%emitter >= 0)) then
                         select type (pcm => term%pcm)
                         type is (pcm_nlo_t)
                            if (char (pcm%settings%nlo_correction_type) == "QCD" .or. &
                                 char (pcm%settings%nlo_correction_type) == "Full") &
                                 call term%evaluate_color_correlations (core_sub)
                            if (char (pcm%settings%nlo_correction_type) == "EW" .or. &
                                 char (pcm%settings%nlo_correction_type) == "Full") then
                               call term%evaluate_charge_correlations (core_sub)
                               select type (pcm => term%pcm)
                               type is (pcm_nlo_t)
                                  associate (reg_data => pcm%region_data)
                                    if (reg_data%alphas_power > 0) &
                                         call term%evaluate_color_correlations (core_sub)
                                  end associate
                               end select
                            end if
                         end select
                      end if
                      if (term%is_subtraction ()) then
                         call term%evaluate_spin_correlations (core_sub)
                      end if
                   end if
                   alpha_s = core%get_alpha_s (term%core_state)
                   alpha_qed = core%get_alpha_qed (term%core_state)
                   if (term%nlo_type > BORN) then
                      select type (pcm => term%pcm)
                      type is (pcm_nlo_t)
                         if (alpha_qed == -1 .and. (&
                              char (pcm%settings%nlo_correction_type) == "EW" .or. &
                              char (pcm%settings%nlo_correction_type) == "Full")) then
                            call msg_bug("Attempting to compute EW corrections with alpha_qed = -1")
                         end if
                      end select
                   end if
                   if (present (recover)) then
                      if (recover)  return
                   end if
                   select case (term%nlo_type)
                   case (NLO_REAL)
                      call term%apply_fks (kin, alpha_s, alpha_qed)
                   case (NLO_VIRTUAL)
                      call term%evaluate_sqme_virt (alpha_s, alpha_qed)
                   case (NLO_MISMATCH)
                      call term%evaluate_sqme_mismatch (alpha_s)
                   case (NLO_DGLAP)
                      call term%evaluate_sqme_dglap (alpha_s, alpha_qed)
                   end select
                end if
             end if
             core_sub => null ()
             instance%sqme = instance%sqme + real (sum (&
                  term%connected%trace%get_matrix_element () * &
                  term%weight))
           end associate
        end do
        core => null ()
        if (instance%pcm_work%is_valid ()) then
           instance%evaluation_status = STAT_EVALUATED_TRACE
        else
           instance%evaluation_status = STAT_FAILED_KINEMATICS
        end if
     else
        !!! Failed kinematics or failed cuts: set sqme to zero
        instance%sqme = zero
     end if
   end subroutine process_instance_evaluate_trace
 
 @ %def process_instance_evaluate_trace
 <<Instances: term instance: TBP>>=
   procedure :: set_born_sqmes => term_instance_set_born_sqmes
 <<Instances: sub interfaces>>=
     module subroutine term_instance_set_born_sqmes (term, core)
       class(term_instance_t), intent(inout) :: term
       class(prc_core_t), intent(in) :: core
     end subroutine term_instance_set_born_sqmes
 <<Instances: procedures>>=
   module subroutine term_instance_set_born_sqmes (term, core)
     class(term_instance_t), intent(inout) :: term
     class(prc_core_t), intent(in) :: core
     integer :: i_flv, ii_flv
     real(default) :: sqme
     select type (pcm_work => term%pcm_work)
     type is (pcm_nlo_workspace_t)
        do i_flv = 1, term%connected%trace%get_qn_index_n_flv ()
           ii_flv = term%connected%trace%get_qn_index (i_flv, i_sub = 0)
           if (term%passed_array (i_flv) .or. .not. term%passed) then
              sqme = real (term%connected%trace%get_matrix_element (ii_flv))
           else
              sqme = zero
           end if
           select case (term%nlo_type)
           case (NLO_REAL)
              pcm_work%real_sub%sqme_born(i_flv) = sqme
           case (NLO_MISMATCH)
              pcm_work%soft_mismatch%sqme_born(i_flv) = sqme
           case (NLO_DGLAP)
              pcm_work%dglap_remnant%sqme_born(i_flv) = sqme
           end select
        end do
     end select
   end subroutine term_instance_set_born_sqmes
 
 @ %def term_instance_set_born_sqmes
 @ Calculates and then saves the ratio of the value of the (rescaled) real
 structure function chain of each ISR alpha region over the value of the
 corresponding underlying born flavor structure. In the case of emitter
 0 we also need the rescaled ratio for emitter 1 and 2 in that region
 for the (soft-)collinear limits. If the emitter is 1 or 2 in some
 cases, e. g. for EW corrections where a photon in the proton is
 required, there can be the possibility of soft radiation off the
 initial state. For that purpose the unrescaled ratio is needed and as
 a default we always save these numbers in [[sf_factors(:,0)]]. Although
 this procedure is implying functionality for general structure functions,
 it should be reviewed for anything else besides PDFs, as there might
 be complications in the details. The general idea of getting the ratio
 in this way should hold up in these cases as well, however.
 <<Instances: term instance: TBP>>=
   procedure :: set_sf_factors => term_instance_set_sf_factors
 <<Instances: sub interfaces>>=
     module subroutine term_instance_set_sf_factors (term, kin, has_pdfs)
       class(term_instance_t), intent(inout) :: term
       type(kinematics_t), intent(inout) :: kin
       logical, intent(in) :: has_pdfs
     end subroutine term_instance_set_sf_factors
 <<Instances: procedures>>=
   module subroutine term_instance_set_sf_factors (term, kin, has_pdfs)
     class(term_instance_t), intent(inout) :: term
     type(kinematics_t), intent(inout) :: kin
     logical, intent(in) :: has_pdfs
     type(interaction_t), pointer :: sf_chain_int
     real(default) :: factor_born, factor_real
     integer :: n_in, alr, em
     integer :: i_born, i_real
     select type (pcm_work => term%pcm_work)
     type is (pcm_nlo_workspace_t)
        if (.not. has_pdfs) then
           pcm_work%real_sub%sf_factors = one
           return
        end if
        select type (pcm => term%pcm)
        type is (pcm_nlo_t)
           sf_chain_int => kin%sf_chain%get_out_int_ptr ()
           associate (reg_data => pcm%region_data)
              n_in = reg_data%get_n_in ()
              do alr = 1, reg_data%n_regions
                 em = reg_data%regions(alr)%emitter
                 if (em <= n_in) then
                    i_born = reg_data%regions(alr)%uborn_index
                    i_real = reg_data%regions(alr)%real_index
                    factor_born = sf_chain_int%get_matrix_element &
                         (sf_chain_int%get_sf_qn_index_born (i_born, i_sub = 0))
                    factor_real = sf_chain_int%get_matrix_element &
                         (sf_chain_int%get_sf_qn_index_real (i_real, i_sub = em))
                    call set_factor (pcm_work, alr, em, factor_born, factor_real)
                    if (em == 0) then
                       do em = 1, 2
                          factor_real = sf_chain_int%get_matrix_element &
                               (sf_chain_int%get_sf_qn_index_real (i_real, i_sub = em))
                          call set_factor (pcm_work, alr, em, factor_born, factor_real)
                       end do
                    else
                       factor_real = sf_chain_int%get_matrix_element &
                            (sf_chain_int%get_sf_qn_index_real (i_real, i_sub = 0))
                       call set_factor (pcm_work, alr, 0, factor_born, factor_real)
                    end if
                 end if
              end do
           end associate
        end select
     end select
   contains
     subroutine set_factor (pcm_work, alr, em, factor_born, factor_real)
       type(pcm_nlo_workspace_t), intent(inout), target :: pcm_work
       integer, intent(in) :: alr, em
       real(default), intent(in) :: factor_born, factor_real
       real(default) :: factor
       if (any (vanishes ([factor_real, factor_born], tiny(1._default), tiny(1._default)))) then
          factor = zero
       else
          factor = factor_real / factor_born
       end if
       select case (term%nlo_type)
       case (NLO_REAL)
          pcm_work%real_sub%sf_factors(alr, em) = factor
       case (NLO_DGLAP)
          pcm_work%dglap_remnant%sf_factors(alr, em) = factor
       end select
     end subroutine
   end subroutine term_instance_set_sf_factors
 
 @ %def term_instance_set_sf_factors
 @
 <<Instances: process instance: TBP>>=
   procedure :: apply_real_partition => process_instance_apply_real_partition
 <<Instances: sub interfaces>>=
     module subroutine process_instance_apply_real_partition (instance)
       class(process_instance_t), intent(inout) :: instance
     end subroutine process_instance_apply_real_partition
 <<Instances: procedures>>=
   module subroutine process_instance_apply_real_partition (instance)
     class(process_instance_t), intent(inout) :: instance
     integer :: i_component, i_term
     integer, dimension(:), allocatable :: i_terms
     associate (process => instance%process)
        i_component = process%get_first_real_component ()
        if (process%component_is_selected (i_component) .and. &
               process%get_component_nlo_type (i_component) == NLO_REAL) then
           allocate (i_terms &
                (size (process%get_component_i_terms (i_component))))
           i_terms = process%get_component_i_terms (i_component)
           do i_term = 1, size (i_terms)
              call instance%term(i_terms(i_term))%apply_real_partition ( &
                   instance%kin(i_terms(i_term)))
           end do
        end if
        if (allocated (i_terms)) deallocate (i_terms)
     end associate
   end subroutine process_instance_apply_real_partition
 
 @ %def process_instance_apply_real_partition
 @
 <<Instances: process instance: TBP>>=
   procedure :: set_i_mci_to_real_component => &
        process_instance_set_i_mci_to_real_component
 <<Instances: sub interfaces>>=
     module subroutine process_instance_set_i_mci_to_real_component (instance)
       class(process_instance_t), intent(inout) :: instance
     end subroutine process_instance_set_i_mci_to_real_component
 <<Instances: procedures>>=
   module subroutine process_instance_set_i_mci_to_real_component (instance)
     class(process_instance_t), intent(inout) :: instance
     integer :: i_mci, i_component
     type(process_component_t), pointer :: component => null ()
     select type (pcm_work => instance%pcm_work)
     type is (pcm_nlo_workspace_t)
        if (allocated (pcm_work%i_mci_to_real_component)) then
           call msg_warning &
                ("i_mci_to_real_component already allocated - replace it")
           deallocate (pcm_work%i_mci_to_real_component)
        end if
        allocate (pcm_work%i_mci_to_real_component (size (instance%mci_work)))
        do i_mci = 1, size (instance%mci_work)
           do i_component = 1, instance%process%get_n_components ()
              component => instance%process%get_component_ptr (i_component)
              if (component%i_mci /= i_mci) cycle
              select case (component%component_type)
              case (COMP_MASTER, COMP_REAL)
                 pcm_work%i_mci_to_real_component (i_mci) = &
                      component%config%get_associated_real ()
              case (COMP_REAL_FIN)
                 pcm_work%i_mci_to_real_component (i_mci) = &
                      component%config%get_associated_real_fin ()
              case (COMP_REAL_SING)
                 pcm_work%i_mci_to_real_component (i_mci) = &
                      component%config%get_associated_real_sing ()
              end select
           end do
        end do
        component => null ()
     end select
   end subroutine process_instance_set_i_mci_to_real_component
 
 @ %def process_instance_set_i_mci_to_real_component
 @ Final step of process evaluation: evaluate the matrix elements, and compute
 the trace (summed over quantum numbers) for all terms.  Finally, sum up the
 terms, iterating over all active process components.
 
 If [[weight]] is provided, we already know the kinematical event
 weight (the MCI weight which depends on the kinematics sampling
 algorithm, but not on the matrix element), so we do not need to take
 it from the MCI record.
 <<Instances: process instance: TBP>>=
   procedure :: evaluate_event_data => process_instance_evaluate_event_data
 <<Instances: sub interfaces>>=
     module subroutine process_instance_evaluate_event_data (instance, weight)
       class(process_instance_t), intent(inout) :: instance
       real(default), intent(in), optional :: weight
     end subroutine process_instance_evaluate_event_data
 <<Instances: procedures>>=
   module subroutine process_instance_evaluate_event_data (instance, weight)
     class(process_instance_t), intent(inout) :: instance
     real(default), intent(in), optional :: weight
     integer :: i
     if (instance%evaluation_status >= STAT_EVALUATED_TRACE) then
        do i = 1, size (instance%term)
           associate (term => instance%term(i))
             if (term%active) then
                call term%evaluate_event_data ()
             end if
           end associate
        end do
        if (present (weight)) then
           instance%weight = weight
        else
           instance%weight = &
                instance%mci_work(instance%i_mci)%mci%get_event_weight ()
           instance%excess = &
                instance%mci_work(instance%i_mci)%mci%get_event_excess ()
        end if
        instance%n_dropped = &
             instance%mci_work(instance%i_mci)%mci%get_n_event_dropped ()
        instance%evaluation_status = STAT_EVENT_COMPLETE
     else
        !!! failed kinematics etc.: set weight to zero
        instance%weight = zero
        !!! Maybe we want to process and keep the event nevertheless
        if (instance%keep_failed_events ()) then
           do i = 1, size (instance%term)
              associate (term => instance%term(i))
                if (term%active) then
                   call term%evaluate_event_data ()
                end if
              end associate
           end do
 !           do i = 1, size (instance%term)
 !              instance%term(i)%fac_scale = zero
 !           end do
           instance%evaluation_status = STAT_EVENT_COMPLETE
        end if
     end if
   end subroutine process_instance_evaluate_event_data
 
 @ %def process_instance_evaluate_event_data
 @ Computes the real-emission matrix element for externally supplied momenta
 for the term instance with index [[i_term]] and a phase space point set with
 index [[i_phs]]. In addition, for the real emission, each term instance
 corresponds to one emitter. There is the possibility to supply an external
 $\alpha_s$ as well as an external scale to override the scale set in the
 Sindarin, e.g. for POWHEG.
 <<Instances: process instance: TBP>>=
   procedure :: compute_sqme_rad => process_instance_compute_sqme_rad
 <<Instances: sub interfaces>>=
     module subroutine process_instance_compute_sqme_rad (instance, &
          i_term, i_phs, is_subtraction, alpha_s_external, scale_forced)
       class(process_instance_t), intent(inout) :: instance
       integer, intent(in) :: i_term, i_phs
       logical, intent(in) :: is_subtraction
       real(default), intent(in), optional :: alpha_s_external
       real(default), intent(in), allocatable, optional :: scale_forced
     end subroutine process_instance_compute_sqme_rad
 <<Instances: procedures>>=
   module subroutine process_instance_compute_sqme_rad (instance, &
        i_term, i_phs, is_subtraction, alpha_s_external, scale_forced)
     class(process_instance_t), intent(inout) :: instance
     integer, intent(in) :: i_term, i_phs
     logical, intent(in) :: is_subtraction
     real(default), intent(in), optional :: alpha_s_external
     real(default), intent(in), allocatable, optional :: scale_forced
     class(prc_core_t), pointer :: core
     integer :: i_real_fin
     logical :: has_pdfs
     has_pdfs = instance%process%pcm_contains_pdfs ()
     if (debug_on) call msg_debug2 (D_PROCESS_INTEGRATION, "process_instance_compute_sqme_rad")
     select type (pcm_work => instance%pcm_work)
     type is (pcm_nlo_workspace_t)
        associate (term => instance%term(i_term), kin => instance%kin(i_term))
           core => instance%process%get_core_term (i_term)
           if (is_subtraction) then
              call pcm_work%set_subtraction_event ()
           else
              call pcm_work%set_radiation_event ()
           end if
           call term%int_hard%set_momenta (pcm_work%get_momenta &
                (term%pcm, i_phs = i_phs, born_phsp = is_subtraction))
           if (allocated (term%core_state)) &
                call term%core_state%reset_new_kinematics ()
           if (present (alpha_s_external)) then
              call term%set_alpha_qcd_forced (alpha_s_external)
           end if
           call term%compute_eff_kinematics ()
           call term%evaluate_expressions &
                (instance%process%get_beam_config (), scale_forced)
           call term%evaluate_interaction (core, kin)
           call term%evaluate_trace (kin)
           if (term%is_subtraction ()) then
              call term%set_sf_factors (kin, has_pdfs)
              select type (pcm => instance%pcm)
              type is (pcm_nlo_t)
                 if (char (pcm%settings%nlo_correction_type) == "QCD" .or. &
                      char (pcm%settings%nlo_correction_type) == "Full") &
                      call term%evaluate_color_correlations (core)
                 if (char (pcm%settings%nlo_correction_type) == "EW" .or. &
                      char (pcm%settings%nlo_correction_type) == "Full") &
                      call term%evaluate_charge_correlations (core)
              end select
              call term%evaluate_spin_correlations (core)
           end if
           i_real_fin = instance%process%get_associated_real_fin (1)
           if (term%config%i_component /= i_real_fin) &
                call term%apply_fks (kin, core%get_alpha_s (term%core_state), &
                                     core%get_alpha_qed (term%core_state))
           if (instance%process%uses_real_partition ()) &
                call instance%apply_real_partition ()
        end associate
     end select
     core => null ()
   end subroutine process_instance_compute_sqme_rad
 
 @ %def process_instance_compute_sqme_rad
 @ For unweighted event generation, we should reset the reported event
 weight to unity (signed) or zero.  The latter case is appropriate for
 an event which failed for whatever reason.
 <<Instances: process instance: TBP>>=
   procedure :: normalize_weight => process_instance_normalize_weight
 <<Instances: sub interfaces>>=
     module subroutine process_instance_normalize_weight (instance)
       class(process_instance_t), intent(inout) :: instance
     end subroutine process_instance_normalize_weight
 <<Instances: procedures>>=
   module subroutine process_instance_normalize_weight (instance)
     class(process_instance_t), intent(inout) :: instance
     if (.not. vanishes (instance%weight)) then
        instance%weight = sign (1._default, instance%weight)
     end if
   end subroutine process_instance_normalize_weight
 
 @ %def process_instance_normalize_weight
 @ This is a convenience routine that performs the computations of the
 steps 1 to 5 in a single step.  The arguments are the input for
 [[set_mcpar]].  After this, the evaluation status should be either
 [[STAT_FAILED_KINEMATICS]], [[STAT_FAILED_CUTS]] or [[STAT_EVALUATED_TRACE]].
 
 Before calling this, we should call [[choose_mci]].
 <<Instances: process instance: TBP>>=
   procedure :: evaluate_sqme => process_instance_evaluate_sqme
 <<Instances: sub interfaces>>=
     module subroutine process_instance_evaluate_sqme (instance, channel, x)
       class(process_instance_t), intent(inout) :: instance
       integer, intent(in) :: channel
       real(default), dimension(:), intent(in) :: x
     end subroutine process_instance_evaluate_sqme
 <<Instances: procedures>>=
   module subroutine process_instance_evaluate_sqme (instance, channel, x)
     class(process_instance_t), intent(inout) :: instance
     integer, intent(in) :: channel
     real(default), dimension(:), intent(in) :: x
     call instance%reset ()
     call instance%set_mcpar (x)
     call instance%select_channel (channel)
     call instance%compute_seed_kinematics ()
     call instance%compute_hard_kinematics ()
     call instance%compute_eff_kinematics ()
     call instance%evaluate_expressions ()
     call instance%compute_other_channels ()
     call instance%evaluate_trace ()
   end subroutine process_instance_evaluate_sqme
 
 @ %def process_instance_evaluate_sqme
 @ This is the inverse.  Assuming that the final trace evaluator
 contains a valid momentum configuration, recover kinematics
 and recalculate the matrix elements and their trace.
 
 To be precise, we first recover kinematics for the given term and
 associated component, then recalculate from that all other terms and
 active components.  The [[channel]] is not really required to obtain
 the matrix element, but it allows us to reconstruct the exact MC
 parameter set that corresponds to the given phase space point.
 
 Before calling this, we should call [[choose_mci]].
 <<Instances: process instance: TBP>>=
   procedure :: recover => process_instance_recover
 <<Instances: sub interfaces>>=
     module subroutine process_instance_recover &
          (instance, channel, i_term, update_sqme, recover_phs, scale_forced)
       class(process_instance_t), intent(inout) :: instance
       integer, intent(in) :: channel
       integer, intent(in) :: i_term
       logical, intent(in) :: update_sqme
       logical, intent(in) :: recover_phs
       real(default), intent(in), allocatable, optional :: scale_forced
     end subroutine process_instance_recover
 <<Instances: procedures>>=
   module subroutine process_instance_recover &
        (instance, channel, i_term, update_sqme, recover_phs, scale_forced)
     class(process_instance_t), intent(inout) :: instance
     integer, intent(in) :: channel
     integer, intent(in) :: i_term
     logical, intent(in) :: update_sqme
     logical, intent(in) :: recover_phs
     real(default), intent(in), allocatable, optional :: scale_forced
     logical :: skip_phs, recover
     call instance%activate ()
     instance%evaluation_status = STAT_EFF_KINEMATICS
     call instance%recover_hard_kinematics (i_term)
     call instance%recover_seed_kinematics (i_term)
     call instance%select_channel (channel)
     recover = instance%pcm_work%is_nlo ()
     if (recover_phs) then
        call instance%recover_mcpar (i_term)
        call instance%recover_beam_momenta (i_term)
        call instance%compute_seed_kinematics &
             (recover = recover, skip_term = i_term)
        call instance%compute_hard_kinematics &
             (recover = recover, skip_term = i_term)
        call instance%compute_eff_kinematics (i_term)
        call instance%compute_other_channels (i_term)
     else
        call instance%recover_sfchain (i_term)
     end if
     call instance%evaluate_expressions (scale_forced)
     if (update_sqme) then
        call instance%reset_core_kinematics ()
        call instance%evaluate_trace (recover)
     end if
   end subroutine process_instance_recover
 
 @ %def process_instance_recover
 @ The [[evaluate]] method is required by the [[sampler_t]] base type of which
 the process instance is an extension.
 
 The requirement is that after the process instance is evaluated, the
 integrand, the selected channel, the $x$ array, and the $f$ Jacobian array are
 exposed by the [[sampler_t]] object.
 
 We allow for the additional [[hook]] to be called, if associated, for outlying
 object to access information from the current state of the [[sampler]].
 <<Instances: process instance: TBP>>=
   procedure :: evaluate => process_instance_evaluate
 <<Instances: sub interfaces>>=
     module subroutine process_instance_evaluate (sampler, c, x_in, val, x, f)
       class(process_instance_t), intent(inout) :: sampler
       integer, intent(in) :: c
       real(default), dimension(:), intent(in) :: x_in
       real(default), intent(out) :: val
       real(default), dimension(:,:), intent(out) :: x
       real(default), dimension(:), intent(out) :: f
     end subroutine process_instance_evaluate
 <<Instances: procedures>>=
   module subroutine process_instance_evaluate (sampler, c, x_in, val, x, f)
     class(process_instance_t), intent(inout) :: sampler
     integer, intent(in) :: c
     real(default), dimension(:), intent(in) :: x_in
     real(default), intent(out) :: val
     real(default), dimension(:,:), intent(out) :: x
     real(default), dimension(:), intent(out) :: f
     call sampler%evaluate_sqme (c, x_in)
     if (sampler%is_valid ()) then
        call sampler%fetch (val, x, f)
     end if
     call sampler%record_call ()
     call sampler%evaluate_after_hook ()
   end subroutine process_instance_evaluate
 
 @ %def process_instance_evaluate
 @ The phase-space point is valid if the event has valid kinematics and
 has passed the cuts.
 <<Instances: process instance: TBP>>=
   procedure :: is_valid => process_instance_is_valid
 <<Instances: sub interfaces>>=
     module function process_instance_is_valid (sampler) result (valid)
       class(process_instance_t), intent(in) :: sampler
       logical :: valid
     end function process_instance_is_valid
 <<Instances: procedures>>=
   module function process_instance_is_valid (sampler) result (valid)
     class(process_instance_t), intent(in) :: sampler
     logical :: valid
     valid = sampler%evaluation_status >= STAT_PASSED_CUTS
   end function process_instance_is_valid
 
 @ %def process_instance_is_valid
 @ Add a [[process_instance_hook]] object..
 <<Instances: process instance: TBP>>=
   procedure :: append_after_hook => process_instance_append_after_hook
 <<Instances: sub interfaces>>=
     module subroutine process_instance_append_after_hook (sampler, new_hook)
       class(process_instance_t), intent(inout), target :: sampler
       class(process_instance_hook_t), intent(inout), target :: new_hook
     end subroutine process_instance_append_after_hook
 <<Instances: procedures>>=
   module subroutine process_instance_append_after_hook (sampler, new_hook)
     class(process_instance_t), intent(inout), target :: sampler
     class(process_instance_hook_t), intent(inout), target :: new_hook
     class(process_instance_hook_t), pointer :: last
     if (associated (new_hook%next)) then
        call msg_bug ("process_instance_append_after_hook: " // &
             "reuse of SAME hook object is forbidden.")
     end if
     if (associated (sampler%hook)) then
        last => sampler%hook
        do while (associated (last%next))
           last => last%next
        end do
        last%next => new_hook
     else
        sampler%hook => new_hook
     end if
   end subroutine process_instance_append_after_hook
 
 @ %def process_instance_append_after_evaluate_hook
 @ Evaluate the after hook as first in, last out.
 <<Instances: process instance: TBP>>=
   procedure :: evaluate_after_hook => process_instance_evaluate_after_hook
 <<Instances: sub interfaces>>=
     module subroutine process_instance_evaluate_after_hook (sampler)
       class(process_instance_t), intent(in) :: sampler
     end subroutine process_instance_evaluate_after_hook
 <<Instances: procedures>>=
   module subroutine process_instance_evaluate_after_hook (sampler)
     class(process_instance_t), intent(in) :: sampler
     class(process_instance_hook_t), pointer :: current
     current => sampler%hook
     do while (associated(current))
        call current%evaluate (sampler)
        current => current%next
     end do
   end subroutine process_instance_evaluate_after_hook
 
 @ %def process_instance_evaluate_after_hook
 @ The [[rebuild]] method should rebuild the kinematics section out of
 the [[x_in]] parameter set.  The integrand value [[val]] should not be
 computed, but is provided as input.
 <<Instances: process instance: TBP>>=
   procedure :: rebuild => process_instance_rebuild
 <<Instances: sub interfaces>>=
     module subroutine process_instance_rebuild (sampler, c, x_in, val, x, f)
       class(process_instance_t), intent(inout) :: sampler
       integer, intent(in) :: c
       real(default), dimension(:), intent(in) :: x_in
       real(default), intent(in) :: val
       real(default), dimension(:,:), intent(out) :: x
       real(default), dimension(:), intent(out) :: f
     end subroutine process_instance_rebuild
 <<Instances: procedures>>=
   module subroutine process_instance_rebuild (sampler, c, x_in, val, x, f)
     class(process_instance_t), intent(inout) :: sampler
     integer, intent(in) :: c
     real(default), dimension(:), intent(in) :: x_in
     real(default), intent(in) :: val
     real(default), dimension(:,:), intent(out) :: x
     real(default), dimension(:), intent(out) :: f
     call msg_bug ("process_instance_rebuild not implemented yet")
     x = 0
     f = 0
   end subroutine process_instance_rebuild
 
 @ %def process_instance_rebuild
 @ This is another method required by the [[sampler_t]] base type:
 fetch the data that are relevant for the MCI record.
 <<Instances: process instance: TBP>>=
   procedure :: fetch => process_instance_fetch
 <<Instances: sub interfaces>>=
     module subroutine process_instance_fetch (sampler, val, x, f)
       class(process_instance_t), intent(in) :: sampler
       real(default), intent(out) :: val
       real(default), dimension(:,:), intent(out) :: x
       real(default), dimension(:), intent(out) :: f
     end subroutine process_instance_fetch
 <<Instances: procedures>>=
   module subroutine process_instance_fetch (sampler, val, x, f)
     class(process_instance_t), intent(in) :: sampler
     real(default), intent(out) :: val
     real(default), dimension(:,:), intent(out) :: x
     real(default), dimension(:), intent(out) :: f
     integer, dimension(:), allocatable :: i_terms
     integer :: i, i_term_base, cc
     integer :: n_channel
 
     val = 0
     associate (process => sampler%process)
        FIND_COMPONENT: do i = 1, process%get_n_components ()
          if (sampler%process%component_is_selected (i)) then
             allocate (i_terms (size (process%get_component_i_terms (i))))
             i_terms = process%get_component_i_terms (i)
             i_term_base = i_terms(1)
             associate (k => sampler%kin(i_term_base))
               n_channel = k%n_channel
               do cc = 1, n_channel
                  call k%get_mcpar (cc, x(:,cc))
               end do
               f = k%f
               val = sampler%sqme * k%phs_factor
             end associate
             if (allocated (i_terms)) deallocate (i_terms)
             exit FIND_COMPONENT
          end if
        end do FIND_COMPONENT
     end associate
   end subroutine process_instance_fetch
 
 @ %def process_instance_fetch
 @ Initialize and finalize event generation for the specified MCI
 entry.
 <<Instances: process instance: TBP>>=
   procedure :: init_simulation => process_instance_init_simulation
   procedure :: final_simulation => process_instance_final_simulation
 <<Instances: sub interfaces>>=
     module subroutine process_instance_init_simulation (instance, i_mci, &
        safety_factor, keep_failed_events)
       class(process_instance_t), intent(inout) :: instance
       integer, intent(in) :: i_mci
       real(default), intent(in), optional :: safety_factor
       logical, intent(in), optional :: keep_failed_events
     end subroutine process_instance_init_simulation
     module subroutine process_instance_final_simulation (instance, i_mci)
       class(process_instance_t), intent(inout) :: instance
       integer, intent(in) :: i_mci
     end subroutine process_instance_final_simulation
 <<Instances: procedures>>=
   module subroutine process_instance_init_simulation (instance, i_mci, &
      safety_factor, keep_failed_events)
     class(process_instance_t), intent(inout) :: instance
     integer, intent(in) :: i_mci
     real(default), intent(in), optional :: safety_factor
     logical, intent(in), optional :: keep_failed_events
     call instance%mci_work(i_mci)%init_simulation &
          (safety_factor, keep_failed_events)
   end subroutine process_instance_init_simulation
 
   module subroutine process_instance_final_simulation (instance, i_mci)
     class(process_instance_t), intent(inout) :: instance
     integer, intent(in) :: i_mci
     call instance%mci_work(i_mci)%final_simulation ()
   end subroutine process_instance_final_simulation
 
 @ %def process_instance_init_simulation
 @ %def process_instance_final_simulation
 @
 \subsubsection{Accessing the process instance}
 Once the seed kinematics is complete, we can retrieve the MC input parameters
 for all channels, not just the seed channel.
 
 Note: We choose the first active component.  This makes sense only if the seed
 kinematics is identical for all active components.
 <<Instances: process instance: TBP>>=
   procedure :: get_mcpar => process_instance_get_mcpar
 <<Instances: sub interfaces>>=
     module subroutine process_instance_get_mcpar (instance, channel, x)
       class(process_instance_t), intent(inout) :: instance
       integer, intent(in) :: channel
       real(default), dimension(:), intent(out) :: x
     end subroutine process_instance_get_mcpar
 <<Instances: procedures>>=
   module subroutine process_instance_get_mcpar (instance, channel, x)
     class(process_instance_t), intent(inout) :: instance
     integer, intent(in) :: channel
     real(default), dimension(:), intent(out) :: x
     integer :: i
     if (instance%evaluation_status >= STAT_SEED_KINEMATICS) then
        do i = 1, size (instance%term)
           if (instance%term(i)%active) then
              call instance%kin(i)%get_mcpar (channel, x)
              return
           end if
        end do
        call msg_bug ("Process instance: get_mcpar: no active channels")
     else
        call msg_bug ("Process instance: get_mcpar: no seed kinematics")
     end if
   end subroutine process_instance_get_mcpar
 
 @ %def process_instance_get_mcpar
 @ Return true if the [[sqme]] value is known.  This also implies that the
 event is kinematically valid and has passed all cuts.
 <<Instances: process instance: TBP>>=
   procedure :: has_evaluated_trace => process_instance_has_evaluated_trace
 <<Instances: sub interfaces>>=
     module function process_instance_has_evaluated_trace &
          (instance) result (flag)
       class(process_instance_t), intent(in) :: instance
       logical :: flag
     end function process_instance_has_evaluated_trace
 <<Instances: procedures>>=
   module function process_instance_has_evaluated_trace (instance) result (flag)
     class(process_instance_t), intent(in) :: instance
     logical :: flag
     flag = instance%evaluation_status >= STAT_EVALUATED_TRACE
   end function process_instance_has_evaluated_trace
 
 @ %def process_instance_has_evaluated_trace
 @ Return true if the event is complete.  In particular, the event must
 be kinematically valid, passed all cuts, and the event data have been
 computed.
 <<Instances: process instance: TBP>>=
   procedure :: is_complete_event => process_instance_is_complete_event
 <<Instances: sub interfaces>>=
     module function process_instance_is_complete_event (instance) result (flag)
       class(process_instance_t), intent(in) :: instance
       logical :: flag
     end function process_instance_is_complete_event
 <<Instances: procedures>>=
   module function process_instance_is_complete_event (instance) result (flag)
     class(process_instance_t), intent(in) :: instance
     logical :: flag
     flag = instance%evaluation_status >= STAT_EVENT_COMPLETE
   end function process_instance_is_complete_event
 
 @ %def process_instance_is_complete_event
 @ Select the term for the process instance that will provide the basic
 event record (used in [[evt_trivial_make_particle_set]]).  It might be
 necessary to write out additional events corresponding to other terms
 (done in [[evt_nlo]]).
 <<Instances: process instance: TBP>>=
   procedure :: select_i_term => process_instance_select_i_term
 <<Instances: sub interfaces>>=
     module function process_instance_select_i_term (instance) result (i_term)
       integer :: i_term
       class(process_instance_t), intent(in) :: instance
     end function process_instance_select_i_term
 <<Instances: procedures>>=
   module function process_instance_select_i_term (instance) result (i_term)
     integer :: i_term
     class(process_instance_t), intent(in) :: instance
     integer :: i_mci
     i_mci = instance%i_mci
     i_term = instance%process%select_i_term (i_mci)
   end function process_instance_select_i_term
 
 @ %def process_instance_select_i_term
 @ Return pointer to the master beam interaction.
 <<Instances: process instance: TBP>>=
   procedure :: get_beam_int_ptr => process_instance_get_beam_int_ptr
 <<Instances: sub interfaces>>=
     module function process_instance_get_beam_int_ptr (instance) result (ptr)
       class(process_instance_t), intent(in), target :: instance
       type(interaction_t), pointer :: ptr
     end function process_instance_get_beam_int_ptr
 <<Instances: procedures>>=
   module function process_instance_get_beam_int_ptr (instance) result (ptr)
     class(process_instance_t), intent(in), target :: instance
     type(interaction_t), pointer :: ptr
     ptr => instance%sf_chain%get_beam_int_ptr ()
   end function process_instance_get_beam_int_ptr
 
 @ %def process_instance_get_beam_int_ptr
 @ Return pointers to the matrix and flows interactions, given a term index.
 <<Instances: process instance: TBP>>=
   procedure :: get_trace_int_ptr => process_instance_get_trace_int_ptr
   procedure :: get_matrix_int_ptr => process_instance_get_matrix_int_ptr
   procedure :: get_flows_int_ptr => process_instance_get_flows_int_ptr
 <<Instances: sub interfaces>>=
     module function process_instance_get_trace_int_ptr &
          (instance, i_term) result (ptr)
       class(process_instance_t), intent(in), target :: instance
       integer, intent(in) :: i_term
       type(interaction_t), pointer :: ptr
     end function process_instance_get_trace_int_ptr
     module function process_instance_get_matrix_int_ptr &
          (instance, i_term) result (ptr)
       class(process_instance_t), intent(in), target :: instance
       integer, intent(in) :: i_term
       type(interaction_t), pointer :: ptr
     end function process_instance_get_matrix_int_ptr
     module function process_instance_get_flows_int_ptr &
          (instance, i_term) result (ptr)
       class(process_instance_t), intent(in), target :: instance
       integer, intent(in) :: i_term
       type(interaction_t), pointer :: ptr
     end function process_instance_get_flows_int_ptr
 <<Instances: procedures>>=
   module function process_instance_get_trace_int_ptr &
        (instance, i_term) result (ptr)
     class(process_instance_t), intent(in), target :: instance
     integer, intent(in) :: i_term
     type(interaction_t), pointer :: ptr
     ptr => instance%term(i_term)%connected%get_trace_int_ptr ()
   end function process_instance_get_trace_int_ptr
 
   module function process_instance_get_matrix_int_ptr &
        (instance, i_term) result (ptr)
     class(process_instance_t), intent(in), target :: instance
     integer, intent(in) :: i_term
     type(interaction_t), pointer :: ptr
     ptr => instance%term(i_term)%connected%get_matrix_int_ptr ()
   end function process_instance_get_matrix_int_ptr
 
   module function process_instance_get_flows_int_ptr &
        (instance, i_term) result (ptr)
     class(process_instance_t), intent(in), target :: instance
     integer, intent(in) :: i_term
     type(interaction_t), pointer :: ptr
     ptr => instance%term(i_term)%connected%get_flows_int_ptr ()
   end function process_instance_get_flows_int_ptr
 
 @ %def process_instance_get_trace_int_ptr
 @ %def process_instance_get_matrix_int_ptr
 @ %def process_instance_get_flows_int_ptr
 @ Return the complete account of flavor combinations in the underlying
 interaction object, including beams, radiation, and hard interaction.
 <<Instances: process instance: TBP>>=
   procedure :: get_state_flv => process_instance_get_state_flv
 <<Instances: sub interfaces>>=
     module function process_instance_get_state_flv &
          (instance, i_term) result (state_flv)
       class(process_instance_t), intent(in) :: instance
       integer, intent(in) :: i_term
       type(state_flv_content_t) :: state_flv
     end function process_instance_get_state_flv
 <<Instances: procedures>>=
   module function process_instance_get_state_flv &
        (instance, i_term) result (state_flv)
     class(process_instance_t), intent(in) :: instance
     integer, intent(in) :: i_term
     type(state_flv_content_t) :: state_flv
     state_flv = instance%term(i_term)%connected%get_state_flv ()
   end function process_instance_get_state_flv
 
 @ %def process_instance_get_state_flv
 @ Return pointers to the parton states of a selected term.
 <<Instances: process instance: TBP>>=
   procedure :: get_isolated_state_ptr => &
        process_instance_get_isolated_state_ptr
   procedure :: get_connected_state_ptr => &
        process_instance_get_connected_state_ptr
 <<Instances: sub interfaces>>=
     module function process_instance_get_isolated_state_ptr &
          (instance, i_term) result (ptr)
       class(process_instance_t), intent(in), target :: instance
       integer, intent(in) :: i_term
       type(isolated_state_t), pointer :: ptr
     end function process_instance_get_isolated_state_ptr
     module function process_instance_get_connected_state_ptr &
          (instance, i_term) result (ptr)
       class(process_instance_t), intent(in), target :: instance
       integer, intent(in) :: i_term
       type(connected_state_t), pointer :: ptr
     end function process_instance_get_connected_state_ptr
 <<Instances: procedures>>=
   module function process_instance_get_isolated_state_ptr &
        (instance, i_term) result (ptr)
     class(process_instance_t), intent(in), target :: instance
     integer, intent(in) :: i_term
     type(isolated_state_t), pointer :: ptr
     ptr => instance%term(i_term)%isolated
   end function process_instance_get_isolated_state_ptr
 
   module function process_instance_get_connected_state_ptr &
        (instance, i_term) result (ptr)
     class(process_instance_t), intent(in), target :: instance
     integer, intent(in) :: i_term
     type(connected_state_t), pointer :: ptr
     ptr => instance%term(i_term)%connected
   end function process_instance_get_connected_state_ptr
 
 @ %def process_instance_get_isolated_state_ptr
 @ %def process_instance_get_connected_state_ptr
 @ Return the indices of the beam particles and incoming partons within the
 currently active state matrix, respectively.
 <<Instances: process instance: TBP>>=
   procedure :: get_beam_index => process_instance_get_beam_index
   procedure :: get_in_index => process_instance_get_in_index
 <<Instances: sub interfaces>>=
     module subroutine process_instance_get_beam_index (instance, i_term, i_beam)
       class(process_instance_t), intent(in) :: instance
       integer, intent(in) :: i_term
       integer, dimension(:), intent(out) :: i_beam
     end subroutine process_instance_get_beam_index
     module subroutine process_instance_get_in_index (instance, i_term, i_in)
       class(process_instance_t), intent(in) :: instance
       integer, intent(in) :: i_term
       integer, dimension(:), intent(out) :: i_in
     end subroutine process_instance_get_in_index
 <<Instances: procedures>>=
   module subroutine process_instance_get_beam_index (instance, i_term, i_beam)
     class(process_instance_t), intent(in) :: instance
     integer, intent(in) :: i_term
     integer, dimension(:), intent(out) :: i_beam
     call instance%term(i_term)%connected%get_beam_index (i_beam)
   end subroutine process_instance_get_beam_index
 
   module subroutine process_instance_get_in_index (instance, i_term, i_in)
     class(process_instance_t), intent(in) :: instance
     integer, intent(in) :: i_term
     integer, dimension(:), intent(out) :: i_in
     call instance%term(i_term)%connected%get_in_index (i_in)
   end subroutine process_instance_get_in_index
 
 @ %def process_instance_get_beam_index
 @ %def process_instance_get_in_index
 @ Return squared matrix element and event weight, and event weight
 excess where applicable.  [[n_dropped]] is a number that can be
 nonzero when a weighted event has been generated, dropping events with
 zero weight (failed cuts) on the fly.
 If [[i_term]] is provided for [[get_sqme]], we take the first matrix
 element as we also set the first matrix element with [[set_only_matrix_element]]
 when computing the real, the dglap or the virtual contribution.
 <<Instances: process instance: TBP>>=
   procedure :: get_sqme => process_instance_get_sqme
   procedure :: get_weight => process_instance_get_weight
   procedure :: get_excess => process_instance_get_excess
   procedure :: get_n_dropped => process_instance_get_n_dropped
 <<Instances: sub interfaces>>=
     module function process_instance_get_sqme (instance, i_term) result (sqme)
       real(default) :: sqme
       class(process_instance_t), intent(in) :: instance
       integer, intent(in), optional :: i_term
     end function process_instance_get_sqme
     module function process_instance_get_weight (instance) result (weight)
       real(default) :: weight
       class(process_instance_t), intent(in) :: instance
     end function process_instance_get_weight
     module function process_instance_get_excess (instance) result (excess)
       real(default) :: excess
       class(process_instance_t), intent(in) :: instance
     end function process_instance_get_excess
     module function process_instance_get_n_dropped (instance) result (n_dropped)
       integer :: n_dropped
       class(process_instance_t), intent(in) :: instance
     end function process_instance_get_n_dropped
 <<Instances: procedures>>=
   module function process_instance_get_sqme (instance, i_term) result (sqme)
     real(default) :: sqme
     class(process_instance_t), intent(in) :: instance
     integer, intent(in), optional :: i_term
     if (instance%evaluation_status >= STAT_EVALUATED_TRACE) then
        if (present (i_term)) then
           sqme = instance%term(i_term)%connected%trace%get_matrix_element (1)
        else
           sqme = instance%sqme
        end if
     else
        sqme = 0
     end if
   end function process_instance_get_sqme
 
   module function process_instance_get_weight (instance) result (weight)
     real(default) :: weight
     class(process_instance_t), intent(in) :: instance
     if (instance%evaluation_status >= STAT_EVENT_COMPLETE) then
        weight = instance%weight
     else
        weight = 0
     end if
   end function process_instance_get_weight
 
   module function process_instance_get_excess (instance) result (excess)
     real(default) :: excess
     class(process_instance_t), intent(in) :: instance
     if (instance%evaluation_status >= STAT_EVENT_COMPLETE) then
        excess = instance%excess
     else
        excess = 0
     end if
   end function process_instance_get_excess
 
   module function process_instance_get_n_dropped (instance) result (n_dropped)
     integer :: n_dropped
     class(process_instance_t), intent(in) :: instance
     if (instance%evaluation_status >= STAT_EVENT_COMPLETE) then
        n_dropped = instance%n_dropped
     else
        n_dropped = 0
     end if
   end function process_instance_get_n_dropped
 
 @ %def process_instance_get_sqme
 @ %def process_instance_get_weight
 @ %def process_instance_get_excess
 @ %def process_instance_get_n_dropped
 @ Return the currently selected MCI channel.
 <<Instances: process instance: TBP>>=
   procedure :: get_channel => process_instance_get_channel
 <<Instances: sub interfaces>>=
     module function process_instance_get_channel (instance) result (channel)
       integer :: channel
       class(process_instance_t), intent(in) :: instance
     end function process_instance_get_channel
 <<Instances: procedures>>=
   module function process_instance_get_channel (instance) result (channel)
     integer :: channel
     class(process_instance_t), intent(in) :: instance
     channel = instance%selected_channel
   end function process_instance_get_channel
 
 @ %def process_instance_get_channel
 @
 <<Instances: process instance: TBP>>=
   procedure :: set_fac_scale => process_instance_set_fac_scale
 <<Instances: sub interfaces>>=
     module subroutine process_instance_set_fac_scale (instance, fac_scale)
       class(process_instance_t), intent(inout) :: instance
       real(default), intent(in) :: fac_scale
     end subroutine process_instance_set_fac_scale
 <<Instances: procedures>>=
   module subroutine process_instance_set_fac_scale (instance, fac_scale)
     class(process_instance_t), intent(inout) :: instance
     real(default), intent(in) :: fac_scale
     integer :: i_term
     i_term = 1
     call instance%term(i_term)%set_fac_scale (fac_scale)
   end subroutine process_instance_set_fac_scale
 
 @ %def process_instance_set_fac_scale
 @ Return factorization scale and strong coupling.  We have to select a
 term instance.
 <<Instances: process instance: TBP>>=
   procedure :: get_fac_scale => process_instance_get_fac_scale
   procedure :: get_alpha_s => process_instance_get_alpha_s
 <<Instances: sub interfaces>>=
     module function process_instance_get_fac_scale &
          (instance, i_term) result (fac_scale)
       class(process_instance_t), intent(in) :: instance
       integer, intent(in) :: i_term
       real(default) :: fac_scale
     end function process_instance_get_fac_scale
     module function process_instance_get_alpha_s &
          (instance, i_term) result (alpha_s)
       real(default) :: alpha_s
       class(process_instance_t), intent(in) :: instance
       integer, intent(in) :: i_term
     end function process_instance_get_alpha_s
 <<Instances: procedures>>=
   module function process_instance_get_fac_scale &
        (instance, i_term) result (fac_scale)
     class(process_instance_t), intent(in) :: instance
     integer, intent(in) :: i_term
     real(default) :: fac_scale
     fac_scale = instance%term(i_term)%get_fac_scale ()
   end function process_instance_get_fac_scale
 
   module function process_instance_get_alpha_s &
        (instance, i_term) result (alpha_s)
     real(default) :: alpha_s
     class(process_instance_t), intent(in) :: instance
     integer, intent(in) :: i_term
     class(prc_core_t), pointer :: core => null ()
     core => instance%process%get_core_term (i_term)
     alpha_s = instance%term(i_term)%get_alpha_s (core)
     core => null ()
   end function process_instance_get_alpha_s
 
 @ %def process_instance_get_fac_scale
 @ %def process_instance_get_alpha_s
 @
 <<Instances: process instance: TBP>>=
   procedure :: get_qcd => process_instance_get_qcd
 <<Instances: sub interfaces>>=
     module function process_instance_get_qcd (process_instance) result (qcd)
       type(qcd_t) :: qcd
       class(process_instance_t), intent(in) :: process_instance
     end function process_instance_get_qcd
 <<Instances: procedures>>=
   module function process_instance_get_qcd (process_instance) result (qcd)
     type(qcd_t) :: qcd
     class(process_instance_t), intent(in) :: process_instance
     qcd = process_instance%process%get_qcd ()
   end function process_instance_get_qcd
 
 @ %def process_instance_get_qcd
 @ Counter.
 <<Instances: process instance: TBP>>=
   procedure :: reset_counter => process_instance_reset_counter
   procedure :: record_call => process_instance_record_call
   procedure :: get_counter => process_instance_get_counter
 <<Instances: sub interfaces>>=
     module subroutine process_instance_reset_counter (process_instance)
       class(process_instance_t), intent(inout) :: process_instance
     end subroutine process_instance_reset_counter
     module subroutine process_instance_record_call (process_instance)
       class(process_instance_t), intent(inout) :: process_instance
     end subroutine process_instance_record_call
     pure module function process_instance_get_counter &
          (process_instance) result (counter)
       class(process_instance_t), intent(in) :: process_instance
       type(process_counter_t) :: counter
     end function process_instance_get_counter
 <<Instances: procedures>>=
   module subroutine process_instance_reset_counter (process_instance)
     class(process_instance_t), intent(inout) :: process_instance
     call process_instance%mci_work(process_instance%i_mci)%reset_counter ()
   end subroutine process_instance_reset_counter
 
   module subroutine process_instance_record_call (process_instance)
     class(process_instance_t), intent(inout) :: process_instance
     call process_instance%mci_work(process_instance%i_mci)%record_call &
          (process_instance%evaluation_status)
   end subroutine process_instance_record_call
 
   pure module function process_instance_get_counter &
        (process_instance) result (counter)
     class(process_instance_t), intent(in) :: process_instance
     type(process_counter_t) :: counter
     counter = process_instance%mci_work(process_instance%i_mci)%get_counter ()
   end function process_instance_get_counter
 
 @ %def process_instance_reset_counter
 @ %def process_instance_record_call
 @ %def process_instance_get_counter
 @ Sum up the total number of calls for all MCI records.
 <<Instances: process instance: TBP>>=
   procedure :: get_actual_calls_total => process_instance_get_actual_calls_total
 <<Instances: sub interfaces>>=
     pure module function process_instance_get_actual_calls_total &
          (process_instance) result (n)
       class(process_instance_t), intent(in) :: process_instance
       integer :: n
     end function process_instance_get_actual_calls_total
 <<Instances: procedures>>=
   pure module function process_instance_get_actual_calls_total &
        (process_instance) result (n)
     class(process_instance_t), intent(in) :: process_instance
     integer :: n
     integer :: i
     type(process_counter_t) :: counter
     n = 0
     do i = 1, size (process_instance%mci_work)
        counter = process_instance%mci_work(i)%get_counter ()
        n = n + counter%total
     end do
   end function process_instance_get_actual_calls_total
 
 @ %def process_instance_get_actual_calls_total
 @
 <<Instances: process instance: TBP>>=
   procedure :: reset_matrix_elements => process_instance_reset_matrix_elements
 <<Instances: sub interfaces>>=
     module subroutine process_instance_reset_matrix_elements (instance)
       class(process_instance_t), intent(inout) :: instance
     end subroutine process_instance_reset_matrix_elements
 <<Instances: procedures>>=
   module subroutine process_instance_reset_matrix_elements (instance)
     class(process_instance_t), intent(inout) :: instance
     integer :: i_term
     do i_term = 1, size (instance%term)
        call instance%term(i_term)%connected%trace%set_matrix_element &
             (cmplx (0, 0, default))
        call instance%term(i_term)%connected%matrix%set_matrix_element &
             (cmplx (0, 0, default))
     end do
   end subroutine process_instance_reset_matrix_elements
 
 @ %def process_instance_reset_matrix_elements
 @
 <<Instances: process instance: TBP>>=
   procedure :: get_test_phase_space_point &
      => process_instance_get_test_phase_space_point
 <<Instances: sub interfaces>>=
     module subroutine process_instance_get_test_phase_space_point (instance, &
            i_component, i_core, p)
       type(vector4_t), dimension(:), allocatable, intent(out) :: p
       class(process_instance_t), intent(inout) :: instance
       integer, intent(in) :: i_component, i_core
     end subroutine process_instance_get_test_phase_space_point
 <<Instances: procedures>>=
   module subroutine process_instance_get_test_phase_space_point (instance, &
          i_component, i_core, p)
     type(vector4_t), dimension(:), allocatable, intent(out) :: p
     class(process_instance_t), intent(inout) :: instance
     integer, intent(in) :: i_component, i_core
     real(default), dimension(:), allocatable :: x
     logical :: success
     integer :: i_term
     instance%i_mci = i_component
     i_term = instance%process%get_i_term (i_core)
     associate (term => instance%term(i_term), kin => instance%kin(i_term))
        allocate (x (instance%mci_work(i_component)%config%n_par))
        x = 0.5_default
        call instance%set_mcpar (x, .true.)
        call instance%select_channel (1)
        call term%compute_seed_kinematics &
             (kin, instance%mci_work(i_component), 1, success)
        call kin%evaluate_radiation_kinematics &
             (instance%mci_work(instance%i_mci)%get_x_process ())
        call term%compute_hard_kinematics (kin, success = success)
        allocate (p (size (term%p_hard)))
        p = term%int_hard%get_momenta ()
     end associate
   end subroutine process_instance_get_test_phase_space_point
 
 @ %def process_instance_get_test_phase_space_point
 @
 <<Instances: process instance: TBP>>=
   procedure :: get_p_hard => process_instance_get_p_hard
 <<Instances: sub interfaces>>=
     pure module function process_instance_get_p_hard &
          (process_instance, i_term) result (p_hard)
       type(vector4_t), dimension(:), allocatable :: p_hard
       class(process_instance_t), intent(in) :: process_instance
       integer, intent(in) :: i_term
     end function process_instance_get_p_hard
 <<Instances: procedures>>=
   pure module function process_instance_get_p_hard &
        (process_instance, i_term) result (p_hard)
     type(vector4_t), dimension(:), allocatable :: p_hard
     class(process_instance_t), intent(in) :: process_instance
     integer, intent(in) :: i_term
     allocate (p_hard (size (process_instance%term(i_term)%get_p_hard ())))
     p_hard = process_instance%term(i_term)%get_p_hard ()
   end function process_instance_get_p_hard
 
 @ %def process_instance_get_p_hard
 @
 <<Instances: process instance: TBP>>=
   procedure :: get_first_active_i_term => &
        process_instance_get_first_active_i_term
 <<Instances: sub interfaces>>=
     module function process_instance_get_first_active_i_term &
          (instance) result (i_term)
       integer :: i_term
       class(process_instance_t), intent(in) :: instance
     end function process_instance_get_first_active_i_term
 <<Instances: procedures>>=
   module function process_instance_get_first_active_i_term &
        (instance) result (i_term)
     integer :: i_term
     class(process_instance_t), intent(in) :: instance
     integer :: i
     i_term = 0
     do i = 1, size (instance%term)
        if (instance%term(i)%active) then
           i_term = i
           exit
        end if
     end do
   end function process_instance_get_first_active_i_term
 
 @ %def process_instance_get_first_active_i_term
 @
 <<Instances: process instance: TBP>>=
   procedure :: get_real_of_mci => process_instance_get_real_of_mci
 <<Instances: sub interfaces>>=
     module function process_instance_get_real_of_mci (instance) result (i_real)
       integer :: i_real
       class(process_instance_t), intent(in) :: instance
     end function process_instance_get_real_of_mci
 <<Instances: procedures>>=
   module function process_instance_get_real_of_mci (instance) result (i_real)
     integer :: i_real
     class(process_instance_t), intent(in) :: instance
     select type (pcm_work => instance%pcm_work)
     type is (pcm_nlo_workspace_t)
        i_real = pcm_work%i_mci_to_real_component (instance%i_mci)
     end select
   end function process_instance_get_real_of_mci
 
 @ %def process_instance_get_real_of_mci
 @
 <<Instances: process instance: TBP>>=
   procedure :: get_connected_states => process_instance_get_connected_states
 <<Instances: sub interfaces>>=
     module function process_instance_get_connected_states &
          (instance, i_component) result (connected)
       type(connected_state_t), dimension(:), allocatable :: connected
       class(process_instance_t), intent(in) :: instance
       integer, intent(in) :: i_component
     end function process_instance_get_connected_states
 <<Instances: procedures>>=
   module function process_instance_get_connected_states &
        (instance, i_component) result (connected)
     type(connected_state_t), dimension(:), allocatable :: connected
     class(process_instance_t), intent(in) :: instance
     integer, intent(in) :: i_component
     connected = instance%process%get_connected_states (i_component, &
         instance%term(:)%connected)
   end function process_instance_get_connected_states
 
 @ %def process_instance_get_connected_states
 @ Get the hadronic center-of-mass energy
 <<Instances: process instance: TBP>>=
   procedure :: get_sqrts => process_instance_get_sqrts
 <<Instances: sub interfaces>>=
     module function process_instance_get_sqrts (instance) result (sqrts)
       class(process_instance_t), intent(in) :: instance
       real(default) :: sqrts
     end function process_instance_get_sqrts
 <<Instances: procedures>>=
   module function process_instance_get_sqrts (instance) result (sqrts)
     class(process_instance_t), intent(in) :: instance
     real(default) :: sqrts
     sqrts = instance%process%get_sqrts ()
   end function process_instance_get_sqrts
 
 @ %def process_instance_get_sqrts
 @ Get the polarizations
 <<Instances: process instance: TBP>>=
   procedure :: get_polarization => process_instance_get_polarization
 <<Instances: sub interfaces>>=
     module function process_instance_get_polarization (instance) result (pol)
       class(process_instance_t), intent(in) :: instance
       real(default), dimension(:), allocatable :: pol
     end function process_instance_get_polarization
 <<Instances: procedures>>=
   module function process_instance_get_polarization (instance) result (pol)
     class(process_instance_t), intent(in) :: instance
     real(default), dimension(:), allocatable :: pol
     pol = instance%process%get_polarization ()
   end function process_instance_get_polarization
 
 @ %def process_instance_get_polarization
 @ Get the beam spectrum
 <<Instances: process instance: TBP>>=
   procedure :: get_beam_file => process_instance_get_beam_file
 <<Instances: sub interfaces>>=
     module function process_instance_get_beam_file (instance) result (file)
       class(process_instance_t), intent(in) :: instance
       type(string_t) :: file
     end function process_instance_get_beam_file
 <<Instances: procedures>>=
   module function process_instance_get_beam_file (instance) result (file)
     class(process_instance_t), intent(in) :: instance
     type(string_t) :: file
     file = instance%process%get_beam_file ()
   end function process_instance_get_beam_file
 
 @ %def process_instance_get_beam_file
 @ Get the process name
 <<Instances: process instance: TBP>>=
   procedure :: get_process_name => process_instance_get_process_name
 <<Instances: sub interfaces>>=
     module function process_instance_get_process_name (instance) result (name)
       class(process_instance_t), intent(in) :: instance
       type(string_t) :: name
     end function process_instance_get_process_name
 <<Instances: procedures>>=
   module function process_instance_get_process_name (instance) result (name)
     class(process_instance_t), intent(in) :: instance
     type(string_t) :: name
     name = instance%process%get_id ()
   end function process_instance_get_process_name
 
 @ %def process_instance_get_process_name
 @
 \subsubsection{Particle sets}
 Here we provide two procedures that convert the process instance
 from/to a particle set.  The conversion applies to the trace evaluator
 which has no quantum-number information, thus it involves only the
 momenta and the parent-child relations.  We keep virtual particles.
 
 If [[n_incoming]] is provided, the status code of the first
 [[n_incoming]] particles will be reset to incoming.  Otherwise, they
 would be classified as virtual.
 
 Nevertheless, it is possible to reconstruct the complete structure
 from a particle set.  The reconstruction implies a re-evaluation of
 the structure function and matrix-element codes.
 
 The [[i_term]] index is needed for both input and output, to select
 among different active trace evaluators.
 
 In both cases, the [[instance]] object must be properly initialized.
 
 NB: The [[recover_beams]] option should be used only when the particle
 set originates from an external event file, and the user has asked for
 it.  It should be switched off when reading from raw event file.
 <<Instances: process instance: TBP>>=
   procedure :: get_trace => process_instance_get_trace
   procedure :: set_trace => process_instance_set_trace
 <<Instances: sub interfaces>>=
     module subroutine process_instance_get_trace &
          (instance, pset, i_term, n_incoming)
       class(process_instance_t), intent(in), target :: instance
       type(particle_set_t), intent(out) :: pset
       integer, intent(in) :: i_term
       integer, intent(in), optional :: n_incoming
     end subroutine process_instance_get_trace
     module subroutine process_instance_set_trace &
          (instance, pset, i_term, recover_beams, check_match, success)
       class(process_instance_t), intent(inout), target :: instance
       type(particle_set_t), intent(in) :: pset
       integer, intent(in) :: i_term
       logical, intent(in), optional :: recover_beams, check_match
       logical, intent(out), optional :: success
     end subroutine process_instance_set_trace
 <<Instances: procedures>>=
   module subroutine process_instance_get_trace &
        (instance, pset, i_term, n_incoming)
     class(process_instance_t), intent(in), target :: instance
     type(particle_set_t), intent(out) :: pset
     integer, intent(in) :: i_term
     integer, intent(in), optional :: n_incoming
     type(interaction_t), pointer :: int
     logical :: ok
     int => instance%get_trace_int_ptr (i_term)
     call pset%init (ok, int, int, FM_IGNORE_HELICITY, &
          [0._default, 0._default], .false., .true., n_incoming)
   end subroutine process_instance_get_trace
 
   module subroutine process_instance_set_trace &
        (instance, pset, i_term, recover_beams, check_match, success)
     class(process_instance_t), intent(inout), target :: instance
     type(particle_set_t), intent(in) :: pset
     integer, intent(in) :: i_term
     logical, intent(in), optional :: recover_beams, check_match
     logical, intent(out), optional :: success
     type(interaction_t), pointer :: int
     integer :: n_in
     int => instance%get_trace_int_ptr (i_term)
     n_in = instance%process%get_n_in ()
     call pset%fill_interaction (int, n_in, &
          recover_beams = recover_beams, &
          check_match = check_match, &
          state_flv = instance%get_state_flv (i_term), &
          success = success)
   end subroutine process_instance_set_trace
 
 @ %def process_instance_get_trace
 @ %def process_instance_set_trace
 @ This procedure allows us to override any QCD setting of the WHIZARD process
 and directly set the coupling value that comes together with a particle set.
 <<Instances: process instance: TBP>>=
   procedure :: set_alpha_qcd_forced => process_instance_set_alpha_qcd_forced
 <<Instances: sub interfaces>>=
     module subroutine process_instance_set_alpha_qcd_forced &
          (instance, i_term, alpha_qcd)
       class(process_instance_t), intent(inout) :: instance
       integer, intent(in) :: i_term
       real(default), intent(in) :: alpha_qcd
     end subroutine process_instance_set_alpha_qcd_forced
 <<Instances: procedures>>=
   module subroutine process_instance_set_alpha_qcd_forced &
        (instance, i_term, alpha_qcd)
     class(process_instance_t), intent(inout) :: instance
     integer, intent(in) :: i_term
     real(default), intent(in) :: alpha_qcd
     call instance%term(i_term)%set_alpha_qcd_forced (alpha_qcd)
   end subroutine process_instance_set_alpha_qcd_forced
 
 @ %def process_instance_set_alpha_qcd_forced
 @
 <<Instances: process instance: TBP>>=
   procedure :: has_nlo_component => process_instance_has_nlo_component
 <<Instances: sub interfaces>>=
     module function process_instance_has_nlo_component (instance) result (nlo)
       class(process_instance_t), intent(in) :: instance
       logical :: nlo
     end function process_instance_has_nlo_component
 <<Instances: procedures>>=
   module function process_instance_has_nlo_component (instance) result (nlo)
     class(process_instance_t), intent(in) :: instance
     logical :: nlo
     nlo = instance%process%is_nlo_calculation ()
   end function process_instance_has_nlo_component
 
 @ %def process_instance_has_nlo_component
 @
 <<Instances: process instance: TBP>>=
   procedure :: keep_failed_events => process_instance_keep_failed_events
 <<Instances: sub interfaces>>=
     module function process_instance_keep_failed_events (instance) result (keep)
       logical :: keep
       class(process_instance_t), intent(in) :: instance
     end function process_instance_keep_failed_events
 <<Instances: procedures>>=
   module function process_instance_keep_failed_events (instance) result (keep)
     logical :: keep
     class(process_instance_t), intent(in) :: instance
     keep = instance%mci_work(instance%i_mci)%keep_failed_events
   end function process_instance_keep_failed_events
 
 @ %def process_instance_keep_failed_events
 @
 <<Instances: process instance: TBP>>=
   procedure :: get_term_indices => process_instance_get_term_indices
 <<Instances: sub interfaces>>=
     module function process_instance_get_term_indices &
          (instance, nlo_type) result (i_term)
       integer, dimension(:), allocatable :: i_term
       class(process_instance_t), intent(in) :: instance
       integer :: nlo_type
     end function process_instance_get_term_indices
 <<Instances: procedures>>=
   module function process_instance_get_term_indices &
        (instance, nlo_type) result (i_term)
     integer, dimension(:), allocatable :: i_term
     class(process_instance_t), intent(in) :: instance
     integer :: nlo_type
     allocate (i_term (count (instance%term%nlo_type == nlo_type)))
     i_term = pack (instance%term%get_i_term_global (), &
          instance%term%nlo_type == nlo_type)
   end function process_instance_get_term_indices
 
 @ %def process_instance_get_term_indices
 @
 <<Instances: process instance: TBP>>=
   procedure :: get_boost_to_lab => process_instance_get_boost_to_lab
 <<Instances: sub interfaces>>=
     module function process_instance_get_boost_to_lab &
          (instance, i_term) result (lt)
       type(lorentz_transformation_t) :: lt
       class(process_instance_t), intent(in) :: instance
       integer, intent(in) :: i_term
     end function process_instance_get_boost_to_lab
 <<Instances: procedures>>=
   module function process_instance_get_boost_to_lab &
        (instance, i_term) result (lt)
     type(lorentz_transformation_t) :: lt
     class(process_instance_t), intent(in) :: instance
     integer, intent(in) :: i_term
     lt = instance%kin(i_term)%get_boost_to_lab ()
   end function process_instance_get_boost_to_lab
 
 @ %def process_instance_get_boost_to_lab
 @
 <<Instances: process instance: TBP>>=
   procedure :: get_boost_to_cms => process_instance_get_boost_to_cms
 <<Instances: sub interfaces>>=
     module function process_instance_get_boost_to_cms &
          (instance, i_term) result (lt)
       type(lorentz_transformation_t) :: lt
       class(process_instance_t), intent(in) :: instance
       integer, intent(in) :: i_term
     end function process_instance_get_boost_to_cms
 <<Instances: procedures>>=
   module function process_instance_get_boost_to_cms &
        (instance, i_term) result (lt)
     type(lorentz_transformation_t) :: lt
     class(process_instance_t), intent(in) :: instance
     integer, intent(in) :: i_term
     lt = instance%kin(i_term)%get_boost_to_cms ()
   end function process_instance_get_boost_to_cms
 
 @ %def process_instance_get_boost_to_cms
 @
 <<Instances: process instance: TBP>>=
   procedure :: lab_is_cm => process_instance_lab_is_cm
 <<Instances: sub interfaces>>=
     module function process_instance_lab_is_cm &
          (instance, i_term) result (lab_is_cm)
       logical :: lab_is_cm
       class(process_instance_t), intent(in) :: instance
       integer, intent(in) :: i_term
     end function process_instance_lab_is_cm
 <<Instances: procedures>>=
   module function process_instance_lab_is_cm &
        (instance, i_term) result (lab_is_cm)
     logical :: lab_is_cm
     class(process_instance_t), intent(in) :: instance
     integer, intent(in) :: i_term
     lab_is_cm = instance%kin(i_term)%phs%lab_is_cm ()
   end function process_instance_lab_is_cm
 
 @ %def process_instance_lab_is_cm
 @
 The [[pacify]] subroutine has the purpose of setting numbers to zero
 which are (by comparing with a [[tolerance]] parameter) considered
 equivalent with zero.  We do this in some unit tests.  Here, we a
 apply this to the phase space subobject of the process instance.
 <<Instances: public>>=
   public :: pacify
 <<Instances: interfaces>>=
   interface pacify
      module procedure pacify_process_instance
   end interface pacify
 
 <<Instances: sub interfaces>>=
     module subroutine pacify_process_instance (instance)
       type(process_instance_t), intent(inout) :: instance
     end subroutine pacify_process_instance
 <<Instances: procedures>>=
   module subroutine pacify_process_instance (instance)
     type(process_instance_t), intent(inout) :: instance
     integer :: i
     do i = 1, size (instance%kin)
        call pacify (instance%kin(i)%phs)
     end do
   end subroutine pacify_process_instance
 
 @ %def pacify
 @
 %%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
 \section{Unit tests}
 Test module, followed by the corresponding implementation module.
 <<[[processes_ut.f90]]>>=
 <<File header>>
 
 module processes_ut
   use unit_tests
   use processes_uti
 
 <<Standard module head>>
 
 <<Processes: public test>>
 
 <<Processes: public test auxiliary>>
 
 contains
 
 <<Processes: test driver>>
 
 end module processes_ut
 @ %def processes_ut
 @
 <<[[processes_uti.f90]]>>=
 <<File header>>
 
 module processes_uti
 
 <<Use kinds>>
 <<Use strings>>
   use format_utils, only: write_separator
   use constants, only: TWOPI4
   use physics_defs, only: CONV
   use os_interface
   use sm_qcd
   use lorentz
   use pdg_arrays
   use model_data
   use models
   use var_base, only: vars_t
   use variables, only: var_list_t
   use model_testbed, only: prepare_model
   use particle_specifiers, only: new_prt_spec
   use flavors
   use interactions, only: reset_interaction_counter
   use particles
   use rng_base
   use mci_base
   use mci_none, only: mci_none_t
   use mci_midpoint
   use sf_mappings
   use sf_base
   use phs_base
   use phs_single
   use phs_forests, only: syntax_phs_forest_init, syntax_phs_forest_final
   use phs_wood, only: phs_wood_config_t
   use resonances, only: resonance_history_set_t
   use process_constants
   use prc_core_def, only: prc_core_def_t
   use prc_core
   use prc_test, only: prc_test_create_library
   use prc_template_me, only: template_me_def_t
   use process_libraries
   use prc_test_core
   use pdf, only: pdf_data_t
 
   use process_counter
   use process_config, only: process_term_t
   use process, only: process_t
   use instances, only: process_instance_t, process_instance_hook_t
 
   use rng_base_ut, only: rng_test_factory_t
   use sf_base_ut, only: sf_test_data_t
   use mci_base_ut, only: mci_test_t
   use phs_base_ut, only: phs_test_config_t
 
 <<Standard module head>>
 
 <<Processes: public test auxiliary>>
 
 <<Processes: test declarations>>
 
 <<Processes: test types>>
 
 contains
 
 <<Processes: tests>>
 
 <<Processes: test auxiliary>>
 
 end module processes_uti
 
 @ %def processes_uti
 @ API: driver for the unit tests below.
 <<Processes: public test>>=
   public :: processes_test
 <<Processes: test driver>>=
   subroutine processes_test (u, results)
     integer, intent(in) :: u
     type(test_results_t), intent(inout) :: results
   <<Processes: execute tests>>
   end subroutine processes_test
 
 @ %def processes_test
 \subsubsection{Write an empty process object}
 The most trivial test is to write an uninitialized process object.
 <<Processes: execute tests>>=
   call test (processes_1, "processes_1", &
        "write an empty process object", &
        u, results)
 <<Processes: test declarations>>=
   public :: processes_1
 <<Processes: tests>>=
   subroutine processes_1 (u)
     integer, intent(in) :: u
     type(process_t) :: process
 
     write (u, "(A)")  "* Test output: processes_1"
     write (u, "(A)")  "*   Purpose: display an empty process object"
     write (u, "(A)")
 
     call process%write (.false., u)
 
     write (u, "(A)")
     write (u, "(A)")  "* Test output end: processes_1"
 
   end subroutine processes_1
 
 @ %def processes_1
 @
 \subsubsection{Initialize a process object}
 Initialize a process and display it.
 <<Processes: execute tests>>=
   call test (processes_2, "processes_2", &
        "initialize a simple process object", &
        u, results)
 <<Processes: test declarations>>=
   public :: processes_2
 <<Processes: tests>>=
   subroutine processes_2 (u)
     integer, intent(in) :: u
     type(process_library_t), target :: lib
     type(string_t) :: libname
     type(string_t) :: procname
     type(os_data_t) :: os_data
     type(model_t), target :: model
     type(process_t), allocatable :: process
     class(mci_t), allocatable :: mci_template
     class(phs_config_t), allocatable :: phs_config_template
 
     write (u, "(A)")  "* Test output: processes_2"
     write (u, "(A)")  "*   Purpose: initialize a simple process object"
     write (u, "(A)")
 
     write (u, "(A)")  "* Build and load a test library with one process"
     write (u, "(A)")
 
     libname = "processes2"
     procname = libname
 
     call os_data%init ()
     call prc_test_create_library (libname, lib)
 
     write (u, "(A)")  "* Initialize a process object"
     write (u, "(A)")
 
     call model%init_test ()
 
     allocate (process)
     call process%init (procname, lib, os_data, model)
     call process%set_run_id (var_str ("run_2"))
     call process%setup_test_cores ()
 
     allocate (phs_test_config_t :: phs_config_template)
     call process%init_components (phs_config_template)
 
     call process%setup_mci (dispatch_mci_empty)
 
     call process%write (.false., u)
 
     write (u, "(A)")
     write (u, "(A)")  "* Cleanup"
 
     call process%final ()
     deallocate (process)
 
     call model%final ()
 
     write (u, "(A)")
     write (u, "(A)")  "* Test output end: processes_2"
 
   end subroutine processes_2
 
 @ %def processes_2
 @ Trivial for testing: do not allocate the MCI record.
 <<Processes: test auxiliary>>=
   subroutine dispatch_mci_empty (mci, var_list, process_id, is_nlo)
     class(mci_t), allocatable, intent(out) :: mci
     type(var_list_t), intent(in) :: var_list
     type(string_t), intent(in) :: process_id
     logical, intent(in), optional :: is_nlo
   end subroutine dispatch_mci_empty
 
 @ %def dispatch_mci_empty
 @
 \subsubsection{Compute a trivial matrix element}
 Initialize a process, retrieve some information and compute a matrix
 element.
 
 We use the same trivial process as for the previous test.  All
 momentum and state dependence is trivial, so we just test basic
 functionality.
 <<Processes: execute tests>>=
   call test (processes_3, "processes_3", &
        "retrieve a trivial matrix element", &
        u, results)
 <<Processes: test declarations>>=
   public :: processes_3
 <<Processes: tests>>=
   subroutine processes_3 (u)
     integer, intent(in) :: u
     type(process_library_t), target :: lib
     type(string_t) :: libname
     type(string_t) :: procname
     type(os_data_t) :: os_data
     type(model_t), target :: model
     type(process_t), allocatable :: process
     class(phs_config_t), allocatable :: phs_config_template
     type(process_constants_t) :: data
     type(vector4_t), dimension(:), allocatable :: p
 
     write (u, "(A)")  "* Test output: processes_3"
     write (u, "(A)")  "*   Purpose: create a process &
          &and compute a matrix element"
     write (u, "(A)")
 
     write (u, "(A)")  "* Build and load a test library with one process"
     write (u, "(A)")
 
     libname = "processes3"
     procname = libname
 
     call os_data%init ()
     call prc_test_create_library (libname, lib)
 
     call model%init_test ()
 
     allocate (process)
     call process%init (procname, lib, os_data, model)
     call process%setup_test_cores ()
 
     allocate (phs_test_config_t :: phs_config_template)
     call process%init_components (phs_config_template)
     call process%setup_mci (dispatch_mci_test3)
 
     write (u, "(A)")  "* Return the number of process components"
     write (u, "(A)")
 
     write (u, "(A,I0)")  "n_components = ", process%get_n_components ()
 
     write (u, "(A)")
     write (u, "(A)")  "* Return the number of flavor states"
     write (u, "(A)")
 
     data = process%get_constants (1)
 
     write (u, "(A,I0)")  "n_flv(1) = ", data%n_flv
 
     write (u, "(A)")
     write (u, "(A)")  "* Return the first flavor state"
     write (u, "(A)")
 
     write (u, "(A,4(1x,I0))")  "flv_state(1) =", data%flv_state (:,1)
 
     write (u, "(A)")
     write (u, "(A)")  "* Set up kinematics &
          &[arbitrary, the matrix element is constant]"
 
     allocate (p (4))
 
     write (u, "(A)")
     write (u, "(A)")  "* Retrieve the matrix element"
     write (u, "(A)")
 
 
     write (u, "(A,F5.3,' + ',F5.3,' I')")  "me (1, p, 1, 1, 1) = ", &
          process%compute_amplitude (1, 1, 1, p, 1, 1, 1)
 
 
     write (u, "(A)")
     write (u, "(A)")  "* Cleanup"
 
     call process%final ()
     deallocate (process)
 
     call model%final ()
 
     write (u, "(A)")
     write (u, "(A)")  "* Test output end: processes_3"
 
   end subroutine processes_3
 
 @ %def processes_3
 @ MCI record with some contents.
 <<Processes: test auxiliary>>=
   subroutine dispatch_mci_test3 (mci, var_list, process_id, is_nlo)
     class(mci_t), allocatable, intent(out) :: mci
     type(var_list_t), intent(in) :: var_list
     type(string_t), intent(in) :: process_id
     logical, intent(in), optional :: is_nlo
     allocate (mci_test_t :: mci)
     select type (mci)
     type is (mci_test_t)
        call mci%set_dimensions (2, 2)
        call mci%set_divisions (100)
     end select
   end subroutine dispatch_mci_test3
 
 @ %def dispatch_mci_test3
 @
 \subsubsection{Generate a process instance}
 Initialize a process and process instance, choose a sampling point and
 fill the process instance.
 
 We use the same trivial process as for the previous test.  All
 momentum and state dependence is trivial, so we just test basic
 functionality.
 <<Processes: execute tests>>=
   call test (processes_4, "processes_4", &
        "create and fill a process instance (partonic event)", &
        u, results)
 <<Processes: test declarations>>=
   public :: processes_4
 <<Processes: tests>>=
   subroutine processes_4 (u)
     integer, intent(in) :: u
     type(process_library_t), target :: lib
     type(string_t) :: libname
     type(string_t) :: procname
     type(os_data_t) :: os_data
     type(model_t), target :: model
     type(process_t), allocatable, target :: process
     class(phs_config_t), allocatable :: phs_config_template
     real(default) :: sqrts
     type(process_instance_t), allocatable, target :: process_instance
     type(particle_set_t) :: pset
 
     write (u, "(A)")  "* Test output: processes_4"
     write (u, "(A)")  "*   Purpose: create a process &
          &and fill a process instance"
     write (u, "(A)")
 
     write (u, "(A)")  "* Build and initialize a test process"
     write (u, "(A)")
 
     libname = "processes4"
     procname = libname
 
     call os_data%init ()
     call prc_test_create_library (libname, lib)
 
     call reset_interaction_counter ()
 
     call model%init_test ()
 
     allocate (process)
     call process%init (procname, lib, os_data, model)
 
     call process%setup_test_cores ()
     allocate (phs_test_config_t :: phs_config_template)
     call process%init_components (phs_config_template)
 
     write (u, "(A)")  "* Prepare a trivial beam setup"
     write (u, "(A)")
 
     sqrts = 1000
     call process%setup_beams_sqrts (sqrts, i_core = 1)
     call process%configure_phs ()
     call process%setup_mci (dispatch_mci_empty)
 
     write (u, "(A)")  "* Complete process initialization"
     write (u, "(A)")
 
     call process%setup_terms ()
     call process%write (.false., u)
 
     write (u, "(A)")
     write (u, "(A)")  "* Create a process instance"
     write (u, "(A)")
 
     allocate (process_instance)
     call process_instance%init (process)
     call process_instance%write (u)
 
     write (u, "(A)")
     write (u, "(A)")  "* Inject a set of random numbers"
     write (u, "(A)")
 
     call process_instance%choose_mci (1)
     call process_instance%set_mcpar ([0._default, 0._default])
     call process_instance%write (u)
 
     write (u, "(A)")
     write (u, "(A)")  "* Set up hard kinematics"
     write (u, "(A)")
 
     call process_instance%select_channel (1)
     call process_instance%compute_seed_kinematics ()
     call process_instance%compute_hard_kinematics ()
     call process_instance%compute_eff_kinematics ()
     call process_instance%evaluate_expressions ()
     call process_instance%compute_other_channels ()
 
     write (u, "(A)")  "* Evaluate matrix element and square"
     write (u, "(A)")
 
     call process_instance%evaluate_trace ()
     call process_instance%write (u)
 
     call process_instance%get_trace (pset, 1)
     call process_instance%final ()
     deallocate (process_instance)
 
     write (u, "(A)")
     write (u, "(A)")  "* Particle content:"
     write (u, "(A)")
 
     call write_separator (u)
     call pset%write (u)
     call write_separator (u)
 
     write (u, "(A)")
     write (u, "(A)")  "* Recover process instance"
     write (u, "(A)")
 
     allocate (process_instance)
     call process_instance%init (process)
     call process_instance%choose_mci (1)
     call process_instance%set_trace (pset, 1, check_match = .false.)
 
     call process_instance%activate ()
     process_instance%evaluation_status = STAT_EFF_KINEMATICS
     call process_instance%recover_hard_kinematics (i_term = 1)
     call process_instance%recover_seed_kinematics (i_term = 1)
     call process_instance%select_channel (1)
     call process_instance%recover_mcpar (i_term = 1)
 
     call process_instance%compute_seed_kinematics (skip_term = 1)
     call process_instance%compute_hard_kinematics (skip_term = 1)
     call process_instance%compute_eff_kinematics (skip_term = 1)
 
     call process_instance%evaluate_expressions ()
     call process_instance%compute_other_channels (skip_term = 1)
     call process_instance%evaluate_trace ()
     call process_instance%write (u)
 
     write (u, "(A)")
     write (u, "(A)")  "* Cleanup"
 
     call pset%final ()
     call process_instance%final ()
     deallocate (process_instance)
 
     call process%final ()
     deallocate (process)
 
     call model%final ()
 
     write (u, "(A)")
     write (u, "(A)")  "* Test output end: processes_4"
 
   end subroutine processes_4
 
 @ %def processes_4
 @
 \subsubsection{Structure function configuration}
 Configure structure functions (multi-channel) in a process object.
 <<Processes: execute tests>>=
   call test (processes_7, "processes_7", &
        "process configuration with structure functions", &
        u, results)
 <<Processes: test declarations>>=
   public :: processes_7
 <<Processes: tests>>=
   subroutine processes_7 (u)
     integer, intent(in) :: u
     type(process_library_t), target :: lib
     type(string_t) :: libname
     type(string_t) :: procname
     type(os_data_t) :: os_data
     type(model_t), target :: model
     type(process_t), allocatable, target :: process
     class(phs_config_t), allocatable :: phs_config_template
     real(default) :: sqrts
     type(pdg_array_t) :: pdg_in
     class(sf_data_t), allocatable, target :: data
     type(sf_config_t), dimension(:), allocatable :: sf_config
     type(sf_channel_t), dimension(2) :: sf_channel
 
     write (u, "(A)")  "* Test output: processes_7"
     write (u, "(A)")  "*   Purpose: initialize a process with &
          &structure functions"
     write (u, "(A)")
 
     write (u, "(A)")  "* Build and initialize a process object"
     write (u, "(A)")
 
     libname = "processes7"
     procname = libname
 
     call os_data%init ()
     call prc_test_create_library (libname, lib)
 
     call model%init_test ()
 
     allocate (process)
     call process%init (procname, lib, os_data, model)
 
     call process%setup_test_cores ()
     allocate (phs_test_config_t :: phs_config_template)
     call process%init_components (phs_config_template)
 
     write (u, "(A)")  "* Set beam, structure functions, and mappings"
     write (u, "(A)")
 
     sqrts = 1000
     call process%setup_beams_sqrts (sqrts, i_core = 1)
     call process%configure_phs ()
 
     pdg_in = 25
     allocate (sf_test_data_t :: data)
     select type (data)
     type is (sf_test_data_t)
        call data%init (process%get_model_ptr (), pdg_in)
     end select
 
     allocate (sf_config (2))
     call sf_config(1)%init ([1], data)
     call sf_config(2)%init ([2], data)
     call process%init_sf_chain (sf_config)
     deallocate (sf_config)
 
     call process%test_allocate_sf_channels (3)
 
     call sf_channel(1)%init (2)
     call sf_channel(1)%activate_mapping ([1,2])
     call process%set_sf_channel (2, sf_channel(1))
 
     call sf_channel(2)%init (2)
     call sf_channel(2)%set_s_mapping ([1,2])
     call process%set_sf_channel (3, sf_channel(2))
 
     call process%setup_mci (dispatch_mci_empty)
 
     call process%write (.false., u)
 
     write (u, "(A)")
     write (u, "(A)")  "* Cleanup"
 
     call process%final ()
     deallocate (process)
 
     call model%final ()
 
     write (u, "(A)")
     write (u, "(A)")  "* Test output end: processes_7"
 
   end subroutine processes_7
 
 @ %def processes_7
 @
 \subsubsection{Evaluating a process with structure function}
 Configure structure functions (single-channel) in a process object,
 create an instance, compute kinematics and evaluate.
 
 Note the order of operations when setting up structure functions and
 phase space.  The beams are first, they determine the [[sqrts]] value.
 We can also set up the chain of structure functions.  We then
 configure the phase space.  From this, we can obtain information about
 special configurations (resonances, etc.), which we need for
 allocating the possible structure-function channels (parameterizations
 and mappings).  Finally, we match phase-space channels onto
 structure-function channels.
 
 In the current example, this matching is trivial; we only have one
 structure-function channel.
 <<Processes: execute tests>>=
   call test (processes_8, "processes_8", &
        "process evaluation with structure functions", &
        u, results)
 <<Processes: test declarations>>=
   public :: processes_8
 <<Processes: tests>>=
   subroutine processes_8 (u)
     integer, intent(in) :: u
     type(process_library_t), target :: lib
     type(string_t) :: libname
     type(string_t) :: procname
     type(os_data_t) :: os_data
     type(model_t), target :: model
     type(process_t), allocatable, target :: process
     class(phs_config_t), allocatable :: phs_config_template
     real(default) :: sqrts
     type(process_instance_t), allocatable, target :: process_instance
     type(pdg_array_t) :: pdg_in
     class(sf_data_t), allocatable, target :: data
     type(sf_config_t), dimension(:), allocatable :: sf_config
     type(sf_channel_t) :: sf_channel
     type(particle_set_t) :: pset
 
     write (u, "(A)")  "* Test output: processes_8"
     write (u, "(A)")  "*   Purpose: evaluate a process with &
          &structure functions"
     write (u, "(A)")
 
     write (u, "(A)")  "* Build and initialize a process object"
     write (u, "(A)")
 
     libname = "processes8"
     procname = libname
 
     call os_data%init ()
     call prc_test_create_library (libname, lib)
 
     call reset_interaction_counter ()
 
     call model%init_test ()
 
     allocate (process)
     call process%init (procname, lib, os_data, model)
 
     call process%setup_test_cores ()
     allocate (phs_test_config_t :: phs_config_template)
     call process%init_components (phs_config_template)
 
     write (u, "(A)")  "* Set beam, structure functions, and mappings"
     write (u, "(A)")
 
     sqrts = 1000
     call process%setup_beams_sqrts (sqrts, i_core = 1)
 
     pdg_in = 25
     allocate (sf_test_data_t :: data)
     select type (data)
     type is (sf_test_data_t)
        call data%init (process%get_model_ptr (), pdg_in)
     end select
 
     allocate (sf_config (2))
     call sf_config(1)%init ([1], data)
     call sf_config(2)%init ([2], data)
     call process%init_sf_chain (sf_config)
     deallocate (sf_config)
 
     call process%configure_phs ()
 
     call process%test_allocate_sf_channels (1)
 
     call sf_channel%init (2)
     call sf_channel%activate_mapping ([1,2])
     call process%set_sf_channel (1, sf_channel)
 
     write (u, "(A)")  "* Complete process initialization"
     write (u, "(A)")
 
     call process%setup_mci (dispatch_mci_empty)
     call process%setup_terms ()
 
     call process%write (.false., u)
 
     write (u, "(A)")
     write (u, "(A)")  "* Create a process instance"
     write (u, "(A)")
 
     allocate (process_instance)
     call process_instance%init (process)
 
     write (u, "(A)")  "* Set up kinematics and evaluate"
     write (u, "(A)")
 
     call process_instance%choose_mci (1)
     call process_instance%evaluate_sqme (1, &
          [0.8_default, 0.8_default, 0.1_default, 0.2_default])
     call process_instance%write (u)
 
     call process_instance%get_trace (pset, 1)
     call process_instance%final ()
     deallocate (process_instance)
 
     write (u, "(A)")
     write (u, "(A)")  "* Particle content:"
     write (u, "(A)")
 
     call write_separator (u)
     call pset%write (u)
     call write_separator (u)
 
     write (u, "(A)")
     write (u, "(A)")  "* Recover process instance"
     write (u, "(A)")
 
     call reset_interaction_counter (2)
 
     allocate (process_instance)
     call process_instance%init (process)
 
     call process_instance%choose_mci (1)
     call process_instance%set_trace (pset, 1, check_match = .false.)
     call process_instance%recover &
          (channel = 1, i_term = 1, update_sqme = .true., recover_phs = .true.)
     call process_instance%write (u)
 
     write (u, "(A)")
     write (u, "(A)")  "* Cleanup"
 
     call pset%final ()
 
     call process_instance%final ()
     deallocate (process_instance)
 
     call process%final ()
     deallocate (process)
 
     call model%final ()
 
     write (u, "(A)")
     write (u, "(A)")  "* Test output end: processes_8"
 
   end subroutine processes_8
 
 @ %def processes_8
 @
 \subsubsection{Multi-channel phase space and structure function}
 This is an extension of the previous example.  This time, we have two
 distinct structure-function channels which are matched to the two
 distinct phase-space channels.
 <<Processes: execute tests>>=
   call test (processes_9, "processes_9", &
        "multichannel kinematics and structure functions", &
        u, results)
 <<Processes: test declarations>>=
   public :: processes_9
 <<Processes: tests>>=
   subroutine processes_9 (u)
     integer, intent(in) :: u
     type(process_library_t), target :: lib
     type(string_t) :: libname
     type(string_t) :: procname
     type(os_data_t) :: os_data
     type(model_t), target :: model
     type(process_t), allocatable, target :: process
     class(phs_config_t), allocatable :: phs_config_template
     real(default) :: sqrts
     type(process_instance_t), allocatable, target :: process_instance
     type(pdg_array_t) :: pdg_in
     class(sf_data_t), allocatable, target :: data
     type(sf_config_t), dimension(:), allocatable :: sf_config
     type(sf_channel_t) :: sf_channel
     real(default), dimension(4) :: x_saved
     type(particle_set_t) :: pset
 
     write (u, "(A)")  "* Test output: processes_9"
     write (u, "(A)")  "*   Purpose: evaluate a process with &
          &structure functions"
     write (u, "(A)")  "*            in a multi-channel configuration"
     write (u, "(A)")
 
     write (u, "(A)")  "* Build and initialize a process object"
     write (u, "(A)")
 
     libname = "processes9"
     procname = libname
 
     call os_data%init ()
     call prc_test_create_library (libname, lib)
 
     call reset_interaction_counter ()
 
     call model%init_test ()
 
     allocate (process)
     call process%init (procname, lib, os_data, model)
 
     call process%setup_test_cores ()
     allocate (phs_test_config_t :: phs_config_template)
     call process%init_components (phs_config_template)
 
     write (u, "(A)")  "* Set beam, structure functions, and mappings"
     write (u, "(A)")
 
     sqrts = 1000
     call process%setup_beams_sqrts (sqrts, i_core = 1)
 
     pdg_in = 25
     allocate (sf_test_data_t :: data)
     select type (data)
     type is (sf_test_data_t)
        call data%init (process%get_model_ptr (), pdg_in)
     end select
 
     allocate (sf_config (2))
     call sf_config(1)%init ([1], data)
     call sf_config(2)%init ([2], data)
     call process%init_sf_chain (sf_config)
     deallocate (sf_config)
 
     call process%configure_phs ()
 
     call process%test_allocate_sf_channels (2)
 
     call sf_channel%init (2)
     call process%set_sf_channel (1, sf_channel)
 
     call sf_channel%init (2)
     call sf_channel%activate_mapping ([1,2])
     call process%set_sf_channel (2, sf_channel)
 
     call process%test_set_component_sf_channel ([1, 2])
 
     write (u, "(A)")  "* Complete process initialization"
     write (u, "(A)")
 
     call process%setup_mci (dispatch_mci_empty)
     call process%setup_terms ()
 
     call process%write (.false., u)
 
     write (u, "(A)")
     write (u, "(A)")  "* Create a process instance"
     write (u, "(A)")
 
     allocate (process_instance)
     call process_instance%init (process)
 
     write (u, "(A)")  "* Set up kinematics in channel 1 and evaluate"
     write (u, "(A)")
 
     call process_instance%choose_mci (1)
     call process_instance%evaluate_sqme (1, &
          [0.8_default, 0.8_default, 0.1_default, 0.2_default])
     call process_instance%write (u)
 
     write (u, "(A)")
     write (u, "(A)")  "* Extract MC input parameters"
     write (u, "(A)")
 
     write (u, "(A)")  "Channel 1:"
     call process_instance%get_mcpar (1, x_saved)
     write (u, "(2x,9(1x,F7.5))")  x_saved
 
     write (u, "(A)")  "Channel 2:"
     call process_instance%get_mcpar (2, x_saved)
     write (u, "(2x,9(1x,F7.5))")  x_saved
 
     write (u, "(A)")
     write (u, "(A)")  "* Set up kinematics in channel 2 and evaluate"
     write (u, "(A)")
 
     call process_instance%evaluate_sqme (2, x_saved)
     call process_instance%write (u)
 
     call process_instance%get_trace (pset, 1)
     call process_instance%final ()
     deallocate (process_instance)
 
     write (u, "(A)")
     write (u, "(A)")  "* Recover process instance for channel 2"
     write (u, "(A)")
 
     call reset_interaction_counter (2)
 
     allocate (process_instance)
     call process_instance%init (process)
 
     call process_instance%choose_mci (1)
     call process_instance%set_trace (pset, 1, check_match = .false.)
     call process_instance%recover &
          (channel = 2, i_term = 1, update_sqme = .true., recover_phs = .true.)
     call process_instance%write (u)
 
     write (u, "(A)")
     write (u, "(A)")  "* Cleanup"
 
     call pset%final ()
 
     call process_instance%final ()
     deallocate (process_instance)
 
     call process%final ()
     deallocate (process)
 
     call model%final ()
 
     write (u, "(A)")
     write (u, "(A)")  "* Test output end: processes_9"
 
   end subroutine processes_9
 
 @ %def processes_9
 @
 \subsubsection{Event generation}
 Activate the MC integrator for the process object and use it to
 generate a single event.  Note that the test integrator does not
 require integration in preparation for generating events.
 <<Processes: execute tests>>=
   call test (processes_10, "processes_10", &
        "event generation", &
        u, results)
 <<Processes: test declarations>>=
   public :: processes_10
 <<Processes: tests>>=
   subroutine processes_10 (u)
     integer, intent(in) :: u
     type(process_library_t), target :: lib
     type(string_t) :: libname
     type(string_t) :: procname
     type(os_data_t) :: os_data
     type(model_t), target :: model
     type(process_t), allocatable, target :: process
     class(mci_t), pointer :: mci
     class(phs_config_t), allocatable :: phs_config_template
     real(default) :: sqrts
     type(process_instance_t), allocatable, target :: process_instance
 
     write (u, "(A)")  "* Test output: processes_10"
     write (u, "(A)")  "*   Purpose: generate events for a process without &
          &structure functions"
     write (u, "(A)")  "*            in a multi-channel configuration"
     write (u, "(A)")
 
     write (u, "(A)")  "* Build and initialize a process object"
     write (u, "(A)")
 
     libname = "processes10"
     procname = libname
 
     call os_data%init ()
     call prc_test_create_library (libname, lib)
 
     call reset_interaction_counter ()
 
     call model%init_test ()
 
     allocate (process)
     call process%init (procname, lib, os_data, model)
 
     call process%setup_test_cores ()
     allocate (phs_test_config_t :: phs_config_template)
     call process%init_components (phs_config_template)
 
     write (u, "(A)")  "* Prepare a trivial beam setup"
     write (u, "(A)")
 
     sqrts = 1000
     call process%setup_beams_sqrts (sqrts, i_core = 1)
     call process%configure_phs ()
 
     call process%setup_mci (dispatch_mci_test10)
 
     write (u, "(A)")  "* Complete process initialization"
     write (u, "(A)")
 
     call process%setup_terms ()
     call process%write (.false., u)
 
     write (u, "(A)")
     write (u, "(A)")  "* Create a process instance"
     write (u, "(A)")
 
     allocate (process_instance)
     call process_instance%init (process)
 
     write (u, "(A)")  "* Generate weighted event"
     write (u, "(A)")
 
     call process%test_get_mci_ptr (mci)
     select type (mci)
     type is (mci_test_t)
        ! This ensures that the next 'random' numbers are 0.3, 0.5, 0.7
        call mci%rng%init (3)
        ! Include the constant PHS factor in the stored maximum of the integrand
        call mci%set_max_factor (conv * twopi4 &
             / (2 * sqrt (lambda (sqrts **2, 125._default**2, 125._default**2))))
     end select
 
     call process_instance%generate_weighted_event (1)
     call process_instance%write (u)
 
     write (u, "(A)")
     write (u, "(A)")  "* Generate unweighted event"
     write (u, "(A)")
 
     call process_instance%generate_unweighted_event (1)
     call process%test_get_mci_ptr (mci)
     select type (mci)
     type is (mci_test_t)
        write (u, "(A,I0)")  " Success in try ", mci%tries
        write (u, "(A)")
     end select
 
     call process_instance%write (u)
 
     write (u, "(A)")
     write (u, "(A)")  "* Cleanup"
 
     call process_instance%final ()
     deallocate (process_instance)
 
     call process%final ()
     deallocate (process)
 
     call model%final ()
 
     write (u, "(A)")
     write (u, "(A)")  "* Test output end: processes_10"
 
   end subroutine processes_10
 
 @ %def processes_10
 @ MCI record with some contents.
 <<Processes: test auxiliary>>=
   subroutine dispatch_mci_test10 (mci, var_list, process_id, is_nlo)
     class(mci_t), allocatable, intent(out) :: mci
     type(var_list_t), intent(in) :: var_list
     type(string_t), intent(in) :: process_id
     logical, intent(in), optional :: is_nlo
     allocate (mci_test_t :: mci)
     select type (mci)
     type is (mci_test_t);  call mci%set_divisions (100)
     end select
   end subroutine dispatch_mci_test10
 
 @ %def dispatch_mci_test10
 @
 \subsubsection{Integration}
 Activate the MC integrator for the process object and use it to
 integrate over phase space.
 <<Processes: execute tests>>=
   call test (processes_11, "processes_11", &
        "integration", &
        u, results)
 <<Processes: test declarations>>=
   public :: processes_11
 <<Processes: tests>>=
   subroutine processes_11 (u)
     integer, intent(in) :: u
     type(process_library_t), target :: lib
     type(string_t) :: libname
     type(string_t) :: procname
     type(os_data_t) :: os_data
     type(model_t), target :: model
     type(process_t), allocatable, target :: process
     class(mci_t), allocatable :: mci_template
     class(phs_config_t), allocatable :: phs_config_template
     real(default) :: sqrts
     type(process_instance_t), allocatable, target :: process_instance
 
     write (u, "(A)")  "* Test output: processes_11"
     write (u, "(A)")  "*   Purpose: integrate a process without &
          &structure functions"
     write (u, "(A)")  "*            in a multi-channel configuration"
     write (u, "(A)")
 
     write (u, "(A)")  "* Build and initialize a process object"
     write (u, "(A)")
 
     libname = "processes11"
     procname = libname
 
     call os_data%init ()
     call prc_test_create_library (libname, lib)
 
     call reset_interaction_counter ()
 
     call model%init_test ()
 
     allocate (process)
     call process%init (procname, lib, os_data, model)
 
     call process%setup_test_cores ()
 
     allocate (phs_test_config_t :: phs_config_template)
     call process%init_components (phs_config_template)
 
     write (u, "(A)")  "* Prepare a trivial beam setup"
     write (u, "(A)")
 
     sqrts = 1000
     call process%setup_beams_sqrts (sqrts, i_core = 1)
     call process%configure_phs ()
 
     call process%setup_mci (dispatch_mci_test10)
 
     write (u, "(A)")  "* Complete process initialization"
     write (u, "(A)")
 
     call process%setup_terms ()
     call process%write (.false., u)
 
     write (u, "(A)")
     write (u, "(A)")  "* Create a process instance"
     write (u, "(A)")
 
     allocate (process_instance)
     call process_instance%init (process)
 
     write (u, "(A)")  "* Integrate with default test parameters"
     write (u, "(A)")
 
     call process_instance%integrate (1, n_it=1, n_calls=10000)
     call process%final_integration (1)
 
     call process%write (.false., u)
 
     write (u, "(A)")
     write (u, "(A,ES13.7)")  " Integral divided by phs factor = ", &
          process%get_integral (1) &
          / process_instance%kin(1)%phs_factor
 
     write (u, "(A)")
     write (u, "(A)")  "* Cleanup"
 
     call process_instance%final ()
     deallocate (process_instance)
 
     call process%final ()
     deallocate (process)
 
     call model%final ()
 
     write (u, "(A)")
     write (u, "(A)")  "* Test output end: processes_11"
 
   end subroutine processes_11
 
 @ %def processes_11
 @
 \subsubsection{Complete events}
 For the purpose of simplifying further tests, we implement a
 convenience routine that initializes a process and prepares a single
 event.  This is a wrapup of the test [[processes_10]].
 
 The procedure is re-exported by the [[processes_ut]] module.
 <<Processes: public test auxiliary>>=
   public :: prepare_test_process
 <<Processes: test auxiliary>>=
   subroutine prepare_test_process &
        (process, process_instance, model, var_list, run_id)
     type(process_t), intent(out), target :: process
     type(process_instance_t), intent(out), target :: process_instance
     class(model_data_t), intent(in), target :: model
     type(var_list_t), intent(inout), optional :: var_list
     type(string_t), intent(in), optional :: run_id
     type(process_library_t), target :: lib
     type(string_t) :: libname
     type(string_t) :: procname
     type(os_data_t) :: os_data
     type(model_t), allocatable, target :: process_model
     class(mci_t), pointer :: mci
     class(phs_config_t), allocatable :: phs_config_template
     real(default) :: sqrts
     libname = "processes_test"
     procname = libname
     call os_data%init ()
     call prc_test_create_library (libname, lib)
     call reset_interaction_counter ()
     allocate (process_model)
     call process_model%init (model%get_name (), &
          model%get_n_real (), &
          model%get_n_complex (), &
          model%get_n_field (), &
          model%get_n_vtx ())
     call process_model%copy_from (model)
     call process%init (procname, lib, os_data, process_model, var_list)
     if (present (run_id))  call process%set_run_id (run_id)
     call process%setup_test_cores ()
     allocate (phs_test_config_t :: phs_config_template)
     call process%init_components (phs_config_template)
     sqrts = 1000
     call process%setup_beams_sqrts (sqrts, i_core = 1)
     call process%configure_phs ()
     call process%setup_mci (dispatch_mci_test10)
     call process%setup_terms ()
     call process_instance%init (process)
     call process%test_get_mci_ptr (mci)
     select type (mci)
     type is (mci_test_t)
        ! This ensures that the next 'random' numbers are 0.3, 0.5, 0.7
        call mci%rng%init (3)
        ! Include the constant PHS factor in the stored maximum of the integrand
        call mci%set_max_factor (conv * twopi4 &
             / (2 * sqrt (lambda (sqrts **2, 125._default**2, 125._default**2))))
     end select
     call process%reset_library_ptr ()  ! avoid dangling pointer
     call process_model%final ()
   end subroutine prepare_test_process
 
 @ %def prepare_test_process
 @ Here we do the cleanup of the process and process instance emitted
 by the previous routine.
 <<Processes: public test auxiliary>>=
   public :: cleanup_test_process
 <<Processes: test auxiliary>>=
   subroutine cleanup_test_process (process, process_instance)
     type(process_t), intent(inout) :: process
     type(process_instance_t), intent(inout) :: process_instance
     call process_instance%final ()
     call process%final ()
   end subroutine cleanup_test_process
 
 @ %def cleanup_test_process
 @
 This is the actual test.  Prepare the test process and event, fill
 all evaluators, and display the results.  Use a particle set as
 temporary storage, read kinematics and recalculate the event.
 <<Processes: execute tests>>=
   call test (processes_12, "processes_12", &
        "event post-processing", &
        u, results)
 <<Processes: test declarations>>=
   public :: processes_12
 <<Processes: tests>>=
   subroutine processes_12 (u)
     integer, intent(in) :: u
     type(process_t), allocatable, target :: process
     type(process_instance_t), allocatable, target :: process_instance
     type(particle_set_t) :: pset
     type(model_data_t), target :: model
 
     write (u, "(A)")  "* Test output: processes_12"
     write (u, "(A)")  "*   Purpose: generate a complete partonic event"
     write (u, "(A)")
 
     call model%init_test ()
 
     write (u, "(A)")  "* Build and initialize process and process instance &
          &and generate event"
     write (u, "(A)")
 
     allocate (process)
     allocate (process_instance)
     call prepare_test_process (process, process_instance, model, &
          run_id = var_str ("run_12"))
     call process_instance%setup_event_data (i_core = 1)
 
     call process%prepare_simulation (1)
     call process_instance%init_simulation (1)
     call process_instance%generate_weighted_event (1)
     call process_instance%evaluate_event_data ()
 
     call process_instance%write (u)
 
     call process_instance%get_trace (pset, 1)
 
     call process_instance%final_simulation (1)
     call process_instance%final ()
     deallocate (process_instance)
 
     write (u, "(A)")
     write (u, "(A)")  "* Recover kinematics and recalculate"
     write (u, "(A)")
 
     call reset_interaction_counter (2)
 
     allocate (process_instance)
     call process_instance%init (process)
     call process_instance%setup_event_data ()
 
     call process_instance%choose_mci (1)
     call process_instance%set_trace (pset, 1, check_match = .false.)
     call process_instance%recover &
          (channel = 1, i_term = 1, update_sqme = .true., recover_phs = .true.)
 
     call process_instance%recover_event ()
     call process_instance%evaluate_event_data ()
 
     call process_instance%write (u)
 
 
     write (u, "(A)")
     write (u, "(A)")  "* Cleanup"
 
     call cleanup_test_process (process, process_instance)
     deallocate (process_instance)
     deallocate (process)
 
     call model%final ()
 
     write (u, "(A)")
     write (u, "(A)")  "* Test output end: processes_12"
 
   end subroutine processes_12
 
 @ %def processes_12
 @
 \subsubsection{Colored interaction}
 This test specifically checks the transformation of process data
 (flavor, helicity, and color) into an interaction in a process term.
 
 We use the [[test_t]] process core (which has no nontrivial
 particles), but call only the [[is_allowed]] method, which always
 returns true.
 <<Processes: execute tests>>=
   call test (processes_13, "processes_13", &
        "colored interaction", &
        u, results)
 <<Processes: test declarations>>=
   public :: processes_13
 <<Processes: tests>>=
   subroutine processes_13 (u)
     integer, intent(in) :: u
     type(os_data_t) :: os_data
     type(model_data_t), target :: model
     type(process_term_t) :: term
     class(prc_core_t), allocatable :: core
 
     write (u, "(A)")  "* Test output: processes_13"
     write (u, "(A)")  "*   Purpose: initialized a colored interaction"
     write (u, "(A)")
 
     write (u, "(A)")  "* Set up a process constants block"
     write (u, "(A)")
 
     call os_data%init ()
     call model%init_sm_test ()
 
     allocate (test_t :: core)
 
     associate (data => term%data)
       data%n_in = 2
       data%n_out = 3
       data%n_flv = 2
       data%n_hel = 2
       data%n_col = 2
       data%n_cin = 2
 
       allocate (data%flv_state (5, 2))
       data%flv_state (:,1) = [ 1, 21, 1, 21, 21]
       data%flv_state (:,2) = [ 2, 21, 2, 21, 21]
 
       allocate (data%hel_state (5, 2))
       data%hel_state (:,1) = [1, 1, 1, 1, 0]
       data%hel_state (:,2) = [1,-1, 1,-1, 0]
 
       allocate (data%col_state (2, 5, 2))
       data%col_state (:,:,1) = &
            reshape ([[1, 0], [2,-1], [3, 0], [2,-3], [0,0]], [2,5])
       data%col_state (:,:,2) = &
            reshape ([[1, 0], [2,-3], [3, 0], [2,-1], [0,0]], [2,5])
 
       allocate (data%ghost_flag (5, 2))
       data%ghost_flag(1:4,:) = .false.
       data%ghost_flag(5,:) = .true.
 
     end associate
 
     write (u, "(A)")  "* Set up the interaction"
     write (u, "(A)")
 
     call reset_interaction_counter ()
     call term%setup_interaction (core, model)
     call term%int%basic_write (u)
 
     call model%final ()
 
     write (u, "(A)")
     write (u, "(A)")  "* Test output end: processes_13"
   end subroutine processes_13
 
 @ %def processes_13
 @
 \subsubsection{MD5 sums}
 Configure a process with structure functions (multi-channel) and
 compute MD5 sums
 <<Processes: execute tests>>=
   call test (processes_14, "processes_14", &
        "process configuration and MD5 sum", &
        u, results)
 <<Processes: test declarations>>=
   public :: processes_14
 <<Processes: tests>>=
   subroutine processes_14 (u)
     integer, intent(in) :: u
     type(process_library_t), target :: lib
     type(string_t) :: libname
     type(string_t) :: procname
     type(os_data_t) :: os_data
     type(model_t), target :: model
     type(process_t), allocatable, target :: process
     class(phs_config_t), allocatable :: phs_config_template
     real(default) :: sqrts
     type(pdg_array_t) :: pdg_in
     class(sf_data_t), allocatable, target :: data
     type(sf_config_t), dimension(:), allocatable :: sf_config
     type(sf_channel_t), dimension(3) :: sf_channel
 
     write (u, "(A)")  "* Test output: processes_14"
     write (u, "(A)")  "*   Purpose: initialize a process with &
          &structure functions"
     write (u, "(A)")  "*            and compute MD5 sum"
     write (u, "(A)")
 
     write (u, "(A)")  "* Build and initialize a process object"
     write (u, "(A)")
 
     libname = "processes7"
     procname = libname
 
     call os_data%init ()
     call prc_test_create_library (libname, lib)
     call lib%compute_md5sum ()
 
     call model%init_test ()
 
     allocate (process)
     call process%init (procname, lib, os_data, model)
 
     call process%setup_test_cores ()
     allocate (phs_test_config_t :: phs_config_template)
     call process%init_components (phs_config_template)
 
     write (u, "(A)")  "* Set beam, structure functions, and mappings"
     write (u, "(A)")
 
     sqrts = 1000
     call process%setup_beams_sqrts (sqrts, i_core = 1)
     call process%configure_phs ()
 
     pdg_in = 25
     allocate (sf_test_data_t :: data)
     select type (data)
     type is (sf_test_data_t)
        call data%init (process%get_model_ptr (), pdg_in)
     end select
 
     call process%test_allocate_sf_channels (3)
 
     allocate (sf_config (2))
     call sf_config(1)%init ([1], data)
     call sf_config(2)%init ([2], data)
     call process%init_sf_chain (sf_config)
     deallocate (sf_config)
 
     call sf_channel(1)%init (2)
     call process%set_sf_channel (1, sf_channel(1))
 
     call sf_channel(2)%init (2)
     call sf_channel(2)%activate_mapping ([1,2])
     call process%set_sf_channel (2, sf_channel(2))
 
     call sf_channel(3)%init (2)
     call sf_channel(3)%set_s_mapping ([1,2])
     call process%set_sf_channel (3, sf_channel(3))
 
     call process%setup_mci (dispatch_mci_empty)
 
     call process%compute_md5sum ()
 
     call process%write (.false., u)
 
     write (u, "(A)")
     write (u, "(A)")  "* Cleanup"
 
     call process%final ()
     deallocate (process)
 
     call model%final ()
 
     write (u, "(A)")
     write (u, "(A)")  "* Test output end: processes_14"
 
   end subroutine processes_14
 
 @ %def processes_14
 @
 \subsubsection{Decay Process Evaluation}
 Initialize an evaluate a decay process.
 <<Processes: execute tests>>=
   call test (processes_15, "processes_15", &
        "decay process", &
        u, results)
 <<Processes: test declarations>>=
   public :: processes_15
 <<Processes: tests>>=
   subroutine processes_15 (u)
     integer, intent(in) :: u
     type(process_library_t), target :: lib
     type(string_t) :: libname
     type(string_t) :: procname
     type(os_data_t) :: os_data
     type(model_t), target :: model
     type(process_t), allocatable, target :: process
     class(phs_config_t), allocatable :: phs_config_template
     type(process_instance_t), allocatable, target :: process_instance
     type(particle_set_t) :: pset
 
     write (u, "(A)")  "* Test output: processes_15"
     write (u, "(A)")  "*   Purpose: initialize a decay process object"
     write (u, "(A)")
 
     write (u, "(A)")  "* Build and load a test library with one process"
     write (u, "(A)")
 
     libname = "processes15"
     procname = libname
 
     call os_data%init ()
     call prc_test_create_library (libname, lib, scattering = .false., &
          decay = .true.)
 
     call model%init_test ()
     call model%set_par (var_str ("ff"), 0.4_default)
     call model%set_par (var_str ("mf"), &
          model%get_real (var_str ("ff")) * model%get_real (var_str ("ms")))
 
     write (u, "(A)")  "* Initialize a process object"
     write (u, "(A)")
 
     allocate (process)
     call process%init (procname, lib, os_data, model)
 
     call process%setup_test_cores ()
     allocate (phs_single_config_t :: phs_config_template)
     call process%init_components (phs_config_template)
 
     write (u, "(A)")  "* Prepare a trivial beam setup"
     write (u, "(A)")
 
     call process%setup_beams_decay (i_core = 1)
     call process%configure_phs ()
     call process%setup_mci (dispatch_mci_empty)
 
     write (u, "(A)")  "* Complete process initialization"
     write (u, "(A)")
 
     call process%setup_terms ()
     call process%write (.false., u)
 
     write (u, "(A)")
     write (u, "(A)")  "* Create a process instance"
     write (u, "(A)")
 
     call reset_interaction_counter (3)
 
     allocate (process_instance)
     call process_instance%init (process)
     call process_instance%write (u)
 
     write (u, "(A)")
     write (u, "(A)")  "* Inject a set of random numbers"
     write (u, "(A)")
 
     call process_instance%choose_mci (1)
     call process_instance%set_mcpar ([0._default, 0._default])
     call process_instance%write (u)
 
     write (u, "(A)")
     write (u, "(A)")  "* Set up hard kinematics"
     write (u, "(A)")
 
     call process_instance%select_channel (1)
     call process_instance%compute_seed_kinematics ()
     call process_instance%compute_hard_kinematics ()
 
     write (u, "(A)")  "* Evaluate matrix element and square"
     write (u, "(A)")
 
     call process_instance%compute_eff_kinematics ()
     call process_instance%evaluate_expressions ()
     call process_instance%compute_other_channels ()
     call process_instance%evaluate_trace ()
     call process_instance%write (u)
 
     call process_instance%get_trace (pset, 1)
     call process_instance%final ()
     deallocate (process_instance)
 
     write (u, "(A)")
     write (u, "(A)")  "* Particle content:"
     write (u, "(A)")
 
     call write_separator (u)
     call pset%write (u)
     call write_separator (u)
 
     write (u, "(A)")
     write (u, "(A)")  "* Recover process instance"
     write (u, "(A)")
 
     call reset_interaction_counter (3)
 
     allocate (process_instance)
     call process_instance%init (process)
     call process_instance%choose_mci (1)
     call process_instance%set_trace (pset, 1, check_match = .false.)
     call process_instance%recover (1, 1, .true., .true.)
     call process_instance%write (u)
 
     write (u, "(A)")
     write (u, "(A)")  "* Cleanup"
 
     call pset%final ()
     call process_instance%final ()
     deallocate (process_instance)
 
     call process%final ()
     deallocate (process)
 
     call model%final ()
 
     write (u, "(A)")
     write (u, "(A)")  "* Test output end: processes_15"
 
   end subroutine processes_15
 
 @ %def processes_15
 @
 \subsubsection{Integration: decay}
 Activate the MC integrator for the decay object and use it to
 integrate over phase space.
 <<Processes: execute tests>>=
   call test (processes_16, "processes_16", &
        "decay integration", &
        u, results)
 <<Processes: test declarations>>=
   public :: processes_16
 <<Processes: tests>>=
   subroutine processes_16 (u)
     integer, intent(in) :: u
     type(process_library_t), target :: lib
     type(string_t) :: libname
     type(string_t) :: procname
     type(os_data_t) :: os_data
     type(model_t), target :: model
     type(process_t), allocatable, target :: process
     class(phs_config_t), allocatable :: phs_config_template
     type(process_instance_t), allocatable, target :: process_instance
 
     write (u, "(A)")  "* Test output: processes_16"
     write (u, "(A)")  "*   Purpose: integrate a process without &
          &structure functions"
     write (u, "(A)")  "*            in a multi-channel configuration"
     write (u, "(A)")
 
     write (u, "(A)")  "* Build and initialize a process object"
     write (u, "(A)")
 
     libname = "processes16"
     procname = libname
 
     call os_data%init ()
     call prc_test_create_library (libname, lib, scattering = .false., &
          decay = .true.)
 
     call reset_interaction_counter ()
 
     call model%init_test ()
     call model%set_par (var_str ("ff"), 0.4_default)
     call model%set_par (var_str ("mf"), &
          model%get_real (var_str ("ff")) * model%get_real (var_str ("ms")))
 
     allocate (process)
     call process%init (procname, lib, os_data, model)
 
     call process%setup_test_cores ()
     allocate (phs_single_config_t :: phs_config_template)
     call process%init_components (phs_config_template)
 
     write (u, "(A)")  "* Prepare a trivial beam setup"
     write (u, "(A)")
 
     call process%setup_beams_decay (i_core = 1)
     call process%configure_phs ()
 
     call process%setup_mci (dispatch_mci_test_midpoint)
 
     write (u, "(A)")  "* Complete process initialization"
     write (u, "(A)")
 
     call process%setup_terms ()
     call process%write (.false., u)
 
     write (u, "(A)")
     write (u, "(A)")  "* Create a process instance"
     write (u, "(A)")
 
     allocate (process_instance)
     call process_instance%init (process)
 
     write (u, "(A)")  "* Integrate with default test parameters"
     write (u, "(A)")
 
     call process_instance%integrate (1, n_it=1, n_calls=10000)
     call process%final_integration (1)
 
     call process%write (.false., u)
 
     write (u, "(A)")
     write (u, "(A,ES13.7)")  " Integral divided by phs factor = ", &
          process%get_integral (1) &
          / process_instance%kin(1)%phs_factor
 
     write (u, "(A)")
     write (u, "(A)")  "* Cleanup"
 
     call process_instance%final ()
     deallocate (process_instance)
 
     call process%final ()
     deallocate (process)
 
     call model%final ()
 
     write (u, "(A)")
     write (u, "(A)")  "* Test output end: processes_16"
 
   end subroutine processes_16
 
 @ %def processes_16
 @ MCI record prepared for midpoint integrator.
 <<Processes: test auxiliary>>=
   subroutine dispatch_mci_test_midpoint (mci, var_list, process_id, is_nlo)
     class(mci_t), allocatable, intent(out) :: mci
     type(var_list_t), intent(in) :: var_list
     type(string_t), intent(in) :: process_id
     logical, intent(in), optional :: is_nlo
     allocate (mci_midpoint_t :: mci)
   end subroutine dispatch_mci_test_midpoint
 
 @ %def dispatch_mci_test_midpoint
 @
 \subsubsection{Decay Process Evaluation}
 Initialize an evaluate a decay process for a moving particle.
 <<Processes: execute tests>>=
   call test (processes_17, "processes_17", &
        "decay of moving particle", &
        u, results)
 <<Processes: test declarations>>=
   public :: processes_17
 <<Processes: tests>>=
   subroutine processes_17 (u)
     integer, intent(in) :: u
     type(process_library_t), target :: lib
     type(string_t) :: libname
     type(string_t) :: procname
     type(os_data_t) :: os_data
     type(model_t), target :: model
     type(process_t), allocatable, target :: process
     class(phs_config_t), allocatable :: phs_config_template
     type(process_instance_t), allocatable, target :: process_instance
     type(particle_set_t) :: pset
     type(flavor_t) :: flv_beam
     real(default) :: m, p, E
 
     write (u, "(A)")  "* Test output: processes_17"
     write (u, "(A)")  "*   Purpose: initialize a decay process object"
     write (u, "(A)")
 
     write (u, "(A)")  "* Build and load a test library with one process"
     write (u, "(A)")
 
     libname = "processes17"
     procname = libname
 
     call os_data%init ()
 
     call prc_test_create_library (libname, lib, scattering = .false., &
          decay = .true.)
 
     write (u, "(A)")  "* Initialize a process object"
     write (u, "(A)")
 
     call model%init_test ()
     call model%set_par (var_str ("ff"), 0.4_default)
     call model%set_par (var_str ("mf"), &
          model%get_real (var_str ("ff")) * model%get_real (var_str ("ms")))
 
     allocate (process)
     call process%init (procname, lib, os_data, model)
 
     call process%setup_test_cores ()
     allocate (phs_single_config_t :: phs_config_template)
     call process%init_components (phs_config_template)
 
     write (u, "(A)")  "* Prepare a trivial beam setup"
     write (u, "(A)")
 
     call process%setup_beams_decay (rest_frame = .false., i_core = 1)
     call process%configure_phs ()
     call process%setup_mci (dispatch_mci_empty)
 
     write (u, "(A)")  "* Complete process initialization"
     write (u, "(A)")
 
     call process%setup_terms ()
     call process%write (.false., u)
 
     write (u, "(A)")
     write (u, "(A)")  "* Create a process instance"
     write (u, "(A)")
 
     call reset_interaction_counter (3)
 
     allocate (process_instance)
     call process_instance%init (process)
     call process_instance%write (u)
 
     write (u, "(A)")
     write (u, "(A)")  "* Set parent momentum and random numbers"
     write (u, "(A)")
 
     call process_instance%choose_mci (1)
     call process_instance%set_mcpar ([0._default, 0._default])
 
     call flv_beam%init (25, process%get_model_ptr ())
     m = flv_beam%get_mass ()
     p = 3 * m / 4
     E = sqrt (m**2 + p**2)
     call process_instance%set_beam_momenta ([vector4_moving (E, p, 3)])
 
     call process_instance%write (u)
 
     write (u, "(A)")
     write (u, "(A)")  "* Set up hard kinematics"
     write (u, "(A)")
 
     call process_instance%select_channel (1)
     call process_instance%compute_seed_kinematics ()
     call process_instance%compute_hard_kinematics ()
 
     write (u, "(A)")  "* Evaluate matrix element and square"
     write (u, "(A)")
 
     call process_instance%compute_eff_kinematics ()
     call process_instance%evaluate_expressions ()
     call process_instance%compute_other_channels ()
     call process_instance%evaluate_trace ()
     call process_instance%write (u)
 
     call process_instance%get_trace (pset, 1)
     call process_instance%final ()
     deallocate (process_instance)
 
     write (u, "(A)")
     write (u, "(A)")  "* Particle content:"
     write (u, "(A)")
 
     call write_separator (u)
     call pset%write (u)
     call write_separator (u)
 
     write (u, "(A)")
     write (u, "(A)")  "* Recover process instance"
     write (u, "(A)")
 
     call reset_interaction_counter (3)
 
     allocate (process_instance)
     call process_instance%init (process)
 
     call process_instance%choose_mci (1)
     call process_instance%set_trace (pset, 1, check_match = .false.)
     call process_instance%recover (1, 1, .true., .true.)
     call process_instance%write (u)
 
     write (u, "(A)")
     write (u, "(A)")  "* Cleanup"
 
     call pset%final ()
     call process_instance%final ()
     deallocate (process_instance)
 
     call process%final ()
     deallocate (process)
 
     call model%final ()
 
     write (u, "(A)")
     write (u, "(A)")  "* Test output end: processes_17"
 
   end subroutine processes_17
 
 @ %def processes_17
 @
 \subsubsection{Resonances in Phase Space}
 This test demonstrates the extraction of the resonance-history set from the
 generated phase space.  We need a nontrivial process, but no matrix element.
 This is provided by the [[prc_template]] method, using the [[SM]] model.  We
 also need the [[phs_wood]] method, otherwise we would not have resonances in
 the phase space configuration.
 <<Processes: execute tests>>=
   call test (processes_18, "processes_18", &
        "extract resonance history set", &
        u, results)
 <<Processes: test declarations>>=
   public :: processes_18
 <<Processes: tests>>=
   subroutine processes_18 (u)
     integer, intent(in) :: u
     type(process_library_t), target :: lib
     type(string_t) :: libname
     type(string_t) :: procname
     type(string_t) :: model_name
     type(os_data_t) :: os_data
     class(model_data_t), pointer :: model
     class(vars_t), pointer :: vars
     type(process_t), pointer :: process
     type(resonance_history_set_t) :: res_set
     integer :: i
 
     write (u, "(A)")  "* Test output: processes_18"
     write (u, "(A)")  "*   Purpose: extra resonance histories"
     write (u, "(A)")
 
     write (u, "(A)")  "* Build and load a test library with one process"
     write (u, "(A)")
 
     libname = "processes_18_lib"
     procname = "processes_18_p"
 
     call os_data%init ()
 
     call syntax_phs_forest_init ()
 
     model_name = "SM"
     model => null ()
     call prepare_model (model, model_name, vars)
 
     write (u, "(A)")  "* Initialize a process library with one process"
     write (u, "(A)")
 
     select type (model)
     class is (model_t)
        call prepare_resonance_test_library (lib, libname, procname, model, os_data, u)
     end select
 
     write (u, "(A)")
     write (u, "(A)")  "* Initialize a process object with phase space"
 
     allocate (process)
     select type (model)
     class is (model_t)
        call prepare_resonance_test_process (process, lib, procname, model, os_data)
     end select
 
     write (u, "(A)")
     write (u, "(A)")  "* Extract resonance history set"
     write (u, "(A)")
 
     call process%extract_resonance_history_set (res_set)
     call res_set%write (u)
 
     write (u, "(A)")
     write (u, "(A)")  "* Cleanup"
 
     call process%final ()
     deallocate (process)
 
     call model%final ()
     deallocate (model)
 
     call syntax_phs_forest_final ()
 
     write (u, "(A)")
     write (u, "(A)")  "* Test output end: processes_18"
 
   end subroutine processes_18
 
 @ %def processes_18
 @ Auxiliary subroutine that constructs the process library for the above test.
 <<Processes: test auxiliary>>=
   subroutine prepare_resonance_test_library &
        (lib, libname, procname, model, os_data, u)
     type(process_library_t), target, intent(out) :: lib
     type(string_t), intent(in) :: libname
     type(string_t), intent(in) :: procname
     type(model_t), intent(in), target :: model
     type(os_data_t), intent(in) :: os_data
     integer, intent(in) :: u
     type(string_t), dimension(:), allocatable :: prt_in, prt_out
     class(prc_core_def_t), allocatable :: def
     type(process_def_entry_t), pointer :: entry
 
     call lib%init (libname)
 
     allocate (prt_in (2), prt_out (3))
     prt_in = [var_str ("e+"), var_str ("e-")]
     prt_out = [var_str ("d"), var_str ("ubar"), var_str ("W+")]
 
     allocate (template_me_def_t :: def)
     select type (def)
     type is (template_me_def_t)
        call def%init (model, prt_in, prt_out, unity = .false.)
     end select
     allocate (entry)
     call entry%init (procname, &
          model_name = model%get_name (), &
          n_in = 2, n_components = 1)
     call entry%import_component (1, n_out = size (prt_out), &
          prt_in  = new_prt_spec (prt_in), &
          prt_out = new_prt_spec (prt_out), &
          method  = var_str ("template"), &
          variant = def)
     call entry%write (u)
 
     call lib%append (entry)
 
     call lib%configure (os_data)
     call lib%write_makefile (os_data, force = .true., verbose = .false.)
     call lib%clean (os_data, distclean = .false.)
     call lib%write_driver (force = .true.)
     call lib%load (os_data)
 
   end subroutine prepare_resonance_test_library
 
 @ %def prepare_resonance_test_library
 @ We want a test process which has been initialized up to the point where we
 can evaluate the matrix element.  This is in fact rather complicated.  We copy
 the steps from [[integration_setup_process]] in the [[integrate]] module,
 which is not available at this point.
 <<Processes: test auxiliary>>=
   subroutine prepare_resonance_test_process &
        (process, lib, procname, model, os_data)
     class(process_t), intent(out), target :: process
     type(process_library_t), intent(in), target :: lib
     type(string_t), intent(in) :: procname
     type(model_t), intent(in), target :: model
     type(os_data_t), intent(in) :: os_data
     class(phs_config_t), allocatable :: phs_config_template
     real(default) :: sqrts
 
     call process%init (procname, lib, os_data, model)
 
     allocate (phs_wood_config_t :: phs_config_template)
     call process%init_components (phs_config_template)
 
     call process%setup_test_cores (type_string = var_str ("template"))
 
     sqrts = 1000
     call process%setup_beams_sqrts (sqrts, i_core = 1)
     call process%configure_phs ()
     call process%setup_mci (dispatch_mci_none)
 
     call process%setup_terms ()
 
   end subroutine prepare_resonance_test_process
 
 @ %def prepare_resonance_test_process
 @ MCI record prepared for the none (dummy) integrator.
 <<Processes: test auxiliary>>=
   subroutine dispatch_mci_none (mci, var_list, process_id, is_nlo)
     class(mci_t), allocatable, intent(out) :: mci
     type(var_list_t), intent(in) :: var_list
     type(string_t), intent(in) :: process_id
     logical, intent(in), optional :: is_nlo
     allocate (mci_none_t :: mci)
   end subroutine dispatch_mci_none
 
 @ %def dispatch_mci_none
 @
 \subsubsection{Add after evaluate hook(s)}
 Initialize a process and process instance, add a trivial process hook,
 choose a sampling point and fill the process instance.
 
 We use the same trivial process as for the previous test.  All
 momentum and state dependence is trivial, so we just test basic
 functionality.
 <<Processes: test types>>=
   type, extends(process_instance_hook_t) :: process_instance_hook_test_t
     integer :: unit
     character(len=15) :: name
   contains
     procedure :: init => process_instance_hook_test_init
     procedure :: final => process_instance_hook_test_final
     procedure :: evaluate => process_instance_hook_test_evaluate
   end type process_instance_hook_test_t
 
 @
 <<Processes: test auxiliary>>=
   subroutine process_instance_hook_test_init (hook, var_list, instance, pdf_data)
     class(process_instance_hook_test_t), intent(inout), target :: hook
     type(var_list_t), intent(in) :: var_list
     class(process_instance_t), intent(in), target :: instance
     type(pdf_data_t), intent(in), optional :: pdf_data
   end subroutine process_instance_hook_test_init
 
   subroutine process_instance_hook_test_final (hook)
     class(process_instance_hook_test_t), intent(inout) :: hook
   end subroutine process_instance_hook_test_final
 
   subroutine process_instance_hook_test_evaluate (hook, instance)
     class(process_instance_hook_test_t), intent(inout) :: hook
     class(process_instance_t), intent(in), target :: instance
     write (hook%unit, "(A)") "Execute hook:"
     write (hook%unit, "(2X,A,1X,A,I0,A)") hook%name, "(", len (trim (hook%name)), ")"
   end subroutine process_instance_hook_test_evaluate
 
 @
 <<Processes: execute tests>>=
   call test (processes_19, "processes_19", &
        "add trivial hooks to a process instance ", &
        u, results)
 <<Processes: test declarations>>=
   public :: processes_19
 <<Processes: tests>>=
   subroutine processes_19 (u)
     integer, intent(in) :: u
     type(process_library_t), target :: lib
     type(string_t) :: libname
     type(string_t) :: procname
     type(os_data_t) :: os_data
     class(model_data_t), pointer :: model
     type(process_t), allocatable, target :: process
     class(phs_config_t), allocatable :: phs_config_template
     real(default) :: sqrts
     type(process_instance_t) :: process_instance
     class(process_instance_hook_t), allocatable, target :: process_instance_hook, process_instance_hook2
     type(particle_set_t) :: pset
 
     write (u, "(A)")  "* Test output: processes_19"
     write (u, "(A)")  "*   Purpose: allocate process instance &
          &and add an after evaluate hook"
     write (u, "(A)")
 
     write (u, "(A)")
     write (u, "(A)")  "* Allocate a process instance"
     write (u, "(A)")
 
     call process_instance%write (u)
 
     write (u, "(A)")
     write (u, "(A)")  "* Allocate hook and add to process instance"
     write (u, "(A)")
 
     allocate (process_instance_hook_test_t :: process_instance_hook)
     call process_instance%append_after_hook (process_instance_hook)
 
     allocate (process_instance_hook_test_t :: process_instance_hook2)
     call process_instance%append_after_hook (process_instance_hook2)
 
     select type (process_instance_hook)
     type is (process_instance_hook_test_t)
        process_instance_hook%unit = u
        process_instance_hook%name = "Hook 1"
     end select
     select type (process_instance_hook2)
     type is (process_instance_hook_test_t)
        process_instance_hook2%unit = u
        process_instance_hook2%name = "Hook 2"
     end select
 
     write (u, "(A)")  "* Evaluate matrix element and square"
     write (u, "(A)")
 
     call process_instance%evaluate_after_hook ()
 
     write (u, "(A)")
     write (u, "(A)")  "* Cleanup"
 
     call process_instance_hook%final ()
     deallocate (process_instance_hook)
 
     write (u, "(A)")
     write (u, "(A)")  "* Test output end: processes_19"
 
   end subroutine processes_19
 
 @ %def processes_19
 @
 %%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
 \section{Process Stacks}
 
 For storing and handling multiple processes, we define process stacks.
 These are ordinary stacks where new process entries are pushed onto
 the top.  We allow for multiple entries with identical process ID, but
 distinct run ID.
 
 The implementation is essentially identical to the [[prclib_stacks]] module
 above.  Unfortunately, Fortran supports no generic programming, so we do not
 make use of this fact.
 
 When searching for a specific process ID, we will get (a pointer to)
 the topmost process entry with that ID on the stack, which was entered
 last.  Usually, this is the best version of the process (in terms of
 integral, etc.)  Thus the stack terminology makes sense.
 <<[[process_stacks.f90]]>>=
 <<File header>>
 
 module process_stacks
 
 <<Use kinds>>
 <<Use strings>>
   use variables
   use process
 
 <<Standard module head>>
 
 <<Process stacks: public>>
 
 <<Process stacks: types>>
 
   interface
 <<Process stacks: sub interfaces>>
   end interface
 
 end module process_stacks
 @ %def process_stacks
 @
 <<[[process_stacks_sub.f90]]>>=
 <<File header>>
 
 submodule (process_stacks) process_stacks_s
 
   use io_units
   use format_utils, only: write_separator
   use diagnostics
   use observables
 
   implicit none
 
 contains
 
 <<Process stacks: procedures>>
 
 end submodule process_stacks_s
 
 @ %def process_stacks_s
 @
 \subsection{The process entry type}
 A process entry is a process object, augmented by a pointer to the
 next entry.  We do not need specific methods, all relevant methods are
 inherited.
 
 On higher level, processes should be prepared as process entry objects.
 <<Process stacks: public>>=
   public :: process_entry_t
 <<Process stacks: types>>=
   type, extends (process_t) :: process_entry_t
      type(process_entry_t), pointer :: next => null ()
   end type process_entry_t
 
 @ %def process_entry_t
 @
 \subsection{The process stack type}
 For easy conversion and lookup it is useful to store the filling
 number in the object.  The content is stored as a linked list.
 
 The [[var_list]] component stores process-specific results, so they
 can be retrieved as (pseudo) variables.
 
 The process stack can be linked to another one.  This allows us to
 work with stacks of local scope.
 <<Process stacks: public>>=
   public :: process_stack_t
 <<Process stacks: types>>=
   type :: process_stack_t
      integer :: n = 0
      type(process_entry_t), pointer :: first => null ()
      type(var_list_t), pointer :: var_list => null ()
      type(process_stack_t), pointer :: next => null ()
    contains
    <<Process stacks: process stack: TBP>>
   end type process_stack_t
 
 @ %def process_stack_t
 @ Finalize partly: deallocate the process stack and variable list
 entries, but keep the variable list as an empty object.  This way, the
 variable list links are kept.
 <<Process stacks: process stack: TBP>>=
   procedure :: clear => process_stack_clear
 <<Process stacks: sub interfaces>>=
     module subroutine process_stack_clear (stack)
       class(process_stack_t), intent(inout) :: stack
     end subroutine process_stack_clear
 <<Process stacks: procedures>>=
   module subroutine process_stack_clear (stack)
     class(process_stack_t), intent(inout) :: stack
     type(process_entry_t), pointer :: process
     if (associated (stack%var_list)) then
        call stack%var_list%final ()
     end if
     do while (associated (stack%first))
        process => stack%first
        stack%first => process%next
        call process%final ()
        deallocate (process)
     end do
     stack%n = 0
   end subroutine process_stack_clear
 
 @ %def process_stack_clear
 @ Finalizer.  Clear and deallocate the variable list.
 <<Process stacks: process stack: TBP>>=
   procedure :: final => process_stack_final
 <<Process stacks: sub interfaces>>=
     module subroutine process_stack_final (object)
       class(process_stack_t), intent(inout) :: object
     end subroutine process_stack_final
 <<Process stacks: procedures>>=
   module subroutine process_stack_final (object)
     class(process_stack_t), intent(inout) :: object
     call object%clear ()
     if (associated (object%var_list)) then
        deallocate (object%var_list)
     end if
   end subroutine process_stack_final
 
 @ %def process_stack_final
 @ Output.  The processes on the stack will be ordered LIFO, i.e.,
 backwards.
 <<Process stacks: process stack: TBP>>=
   procedure :: write => process_stack_write
 <<Process stacks: sub interfaces>>=
     recursive module subroutine process_stack_write (object, unit, pacify)
       class(process_stack_t), intent(in) :: object
       integer, intent(in), optional :: unit
       logical, intent(in), optional :: pacify
     end subroutine process_stack_write
 <<Process stacks: procedures>>=
   recursive module subroutine process_stack_write (object, unit, pacify)
     class(process_stack_t), intent(in) :: object
     integer, intent(in), optional :: unit
     logical, intent(in), optional :: pacify
     type(process_entry_t), pointer :: process
     integer :: u
     u = given_output_unit (unit)
     call write_separator (u, 2)
     select case (object%n)
     case (0)
        write (u, "(1x,A)")  "Process stack: [empty]"
        call write_separator (u, 2)
     case default
        write (u, "(1x,A)")  "Process stack:"
        process => object%first
        do while (associated (process))
           call process%write (.false., u, pacify = pacify)
           process => process%next
        end do
     end select
     if (associated (object%next)) then
        write (u, "(1x,A)")  "[Processes from context environment:]"
        call object%next%write (u, pacify)
     end if
   end subroutine process_stack_write
 
 @ %def process_stack_write
 @ The variable list is printed by a separate routine, since
 it should be linked to the global variable list, anyway.
 <<Process stacks: process stack: TBP>>=
   procedure :: write_var_list => process_stack_write_var_list
 <<Process stacks: sub interfaces>>=
     module subroutine process_stack_write_var_list (object, unit)
       class(process_stack_t), intent(in) :: object
       integer, intent(in), optional :: unit
     end subroutine process_stack_write_var_list
 <<Process stacks: procedures>>=
   module subroutine process_stack_write_var_list (object, unit)
     class(process_stack_t), intent(in) :: object
     integer, intent(in), optional :: unit
     if (associated (object%var_list)) then
        call object%var_list%write (unit)
     end if
   end subroutine process_stack_write_var_list
 
 @ %def process_stack_write_var_list
 @ Short output.
 
 Since this is a stack, the default output ordering for each stack will be
 last-in, first-out.  To enable first-in, first-out, which is more likely to be
 requested, there is an optional [[fifo]] argument.
 <<Process stacks: process stack: TBP>>=
   procedure :: show => process_stack_show
 <<Process stacks: sub interfaces>>=
     recursive module subroutine process_stack_show (object, unit, fifo)
       class(process_stack_t), intent(in) :: object
       integer, intent(in), optional :: unit
       logical, intent(in), optional :: fifo
     end subroutine process_stack_show
 <<Process stacks: procedures>>=
   recursive module subroutine process_stack_show (object, unit, fifo)
     class(process_stack_t), intent(in) :: object
     integer, intent(in), optional :: unit
     logical, intent(in), optional :: fifo
     type(process_entry_t), pointer :: process
     logical :: reverse
     integer :: u, i, j
     u = given_output_unit (unit)
     reverse = .false.;  if (present (fifo))  reverse = fifo
     select case (object%n)
     case (0)
     case default
        if (.not. reverse) then
           process => object%first
           do while (associated (process))
              call process%show (u, verbose=.false.)
              process => process%next
           end do
        else
           do i = 1, object%n
              process => object%first
              do j = 1, object%n - i
                 process => process%next
              end do
              call process%show (u, verbose=.false.)
           end do
        end if
     end select
     if (associated (object%next))  call object%next%show ()
   end subroutine process_stack_show
 
 @ %def process_stack_show
 @
 \subsection{Link}
 Link the current process stack to a global one.
 <<Process stacks: process stack: TBP>>=
   procedure :: link => process_stack_link
 <<Process stacks: sub interfaces>>=
     module subroutine process_stack_link (local_stack, global_stack)
       class(process_stack_t), intent(inout) :: local_stack
       type(process_stack_t), intent(in), target :: global_stack
     end subroutine process_stack_link
 <<Process stacks: procedures>>=
   module subroutine process_stack_link (local_stack, global_stack)
     class(process_stack_t), intent(inout) :: local_stack
     type(process_stack_t), intent(in), target :: global_stack
     local_stack%next => global_stack
   end subroutine process_stack_link
 
 @ %def process_stack_link
 @ Initialize the process variable list and link the main variable list
 to it.
 <<Process stacks: process stack: TBP>>=
   procedure :: init_var_list => process_stack_init_var_list
 <<Process stacks: sub interfaces>>=
     module subroutine process_stack_init_var_list (stack, var_list)
       class(process_stack_t), intent(inout) :: stack
       type(var_list_t), intent(inout), optional :: var_list
     end subroutine process_stack_init_var_list
 <<Process stacks: procedures>>=
   module subroutine process_stack_init_var_list (stack, var_list)
     class(process_stack_t), intent(inout) :: stack
     type(var_list_t), intent(inout), optional :: var_list
     allocate (stack%var_list)
     if (present (var_list))  call var_list%link (stack%var_list)
   end subroutine process_stack_init_var_list
 
 @ %def process_stack_init_var_list
 @ Link the process variable list to a global
 variable list.
 <<Process stacks: process stack: TBP>>=
   procedure :: link_var_list => process_stack_link_var_list
 <<Process stacks: sub interfaces>>=
     module subroutine process_stack_link_var_list (stack, var_list)
       class(process_stack_t), intent(inout) :: stack
       type(var_list_t), intent(in), target :: var_list
     end subroutine process_stack_link_var_list
 <<Process stacks: procedures>>=
   module subroutine process_stack_link_var_list (stack, var_list)
     class(process_stack_t), intent(inout) :: stack
     type(var_list_t), intent(in), target :: var_list
     call stack%var_list%link (var_list)
   end subroutine process_stack_link_var_list
 
 @ %def process_stack_link_var_list
 @
 \subsection{Push}
 We take a process pointer and push it onto the stack.  The previous
 pointer is nullified.  Subsequently, the process is `owned' by the
 stack and will be finalized when the stack is deleted.
 <<Process stacks: process stack: TBP>>=
   procedure :: push => process_stack_push
 <<Process stacks: sub interfaces>>=
     module subroutine process_stack_push (stack, process)
       class(process_stack_t), intent(inout) :: stack
       type(process_entry_t), intent(inout), pointer :: process
     end subroutine process_stack_push
 <<Process stacks: procedures>>=
   module subroutine process_stack_push (stack, process)
     class(process_stack_t), intent(inout) :: stack
     type(process_entry_t), intent(inout), pointer :: process
     process%next => stack%first
     stack%first => process
     process => null ()
     stack%n = stack%n + 1
   end subroutine process_stack_push
 
 @ %def process_stack_push
 @ Inverse: Remove the last process pointer in the list and return it.
 <<Process stacks: process stack: TBP>>=
   procedure :: pop_last => process_stack_pop_last
 <<Process stacks: sub interfaces>>=
     module subroutine process_stack_pop_last (stack, process)
       class(process_stack_t), intent(inout) :: stack
       type(process_entry_t), intent(inout), pointer :: process
     end subroutine process_stack_pop_last
 <<Process stacks: procedures>>=
   module subroutine process_stack_pop_last (stack, process)
     class(process_stack_t), intent(inout) :: stack
     type(process_entry_t), intent(inout), pointer :: process
     type(process_entry_t), pointer :: previous
     integer :: i
     select case (stack%n)
     case (:0)
        process => null ()
     case (1)
        process => stack%first
        stack%first => null ()
        stack%n = 0
     case (2:)
        process => stack%first
        do i = 2, stack%n
           previous => process
           process => process%next
        end do
        previous%next => null ()
        stack%n = stack%n - 1
     end select
   end subroutine process_stack_pop_last
 
 @ %def process_stack_pop_last
 @ Initialize process variables for a given process ID, without setting
 values.
 <<Process stacks: process stack: TBP>>=
   procedure :: init_result_vars => process_stack_init_result_vars
 <<Process stacks: sub interfaces>>=
     module subroutine process_stack_init_result_vars (stack, id)
       class(process_stack_t), intent(inout) :: stack
       type(string_t), intent(in) :: id
     end subroutine process_stack_init_result_vars
 <<Process stacks: procedures>>=
   module subroutine process_stack_init_result_vars (stack, id)
     class(process_stack_t), intent(inout) :: stack
     type(string_t), intent(in) :: id
     call var_list_init_num_id (stack%var_list, id)
     call var_list_init_process_results (stack%var_list, id)
   end subroutine process_stack_init_result_vars
 
 @ %def process_stack_init_result_vars
 @ Fill process variables with values.  This is executed after the
 integration pass.
 
 Note: We set only integral and error.  With multiple MCI records
 possible, the results for [[n_calls]], [[chi2]] etc. are not
 necessarily unique.  (We might set the efficiency, though.)
 <<Process stacks: process stack: TBP>>=
   procedure :: fill_result_vars => process_stack_fill_result_vars
 <<Process stacks: sub interfaces>>=
     module subroutine process_stack_fill_result_vars (stack, id)
       class(process_stack_t), intent(inout) :: stack
       type(string_t), intent(in) :: id
     end subroutine process_stack_fill_result_vars
 <<Process stacks: procedures>>=
   module subroutine process_stack_fill_result_vars (stack, id)
     class(process_stack_t), intent(inout) :: stack
     type(string_t), intent(in) :: id
     type(process_t), pointer :: process
     process => stack%get_process_ptr (id)
     if (associated (process)) then
        call var_list_init_num_id (stack%var_list, id, process%get_num_id ())
        if (process%has_integral ()) then
           call var_list_init_process_results (stack%var_list, id, &
                integral = process%get_integral (), &
                error = process%get_error ())
        end if
     else
        call msg_bug ("process_stack_fill_result_vars: unknown process ID")
     end if
   end subroutine process_stack_fill_result_vars
 
 @ %def process_stack_fill_result_vars
 @ If one of the result variables has a local image in [[var_list_local]],
 update the value there as well.
 <<Process stacks: process stack: TBP>>=
   procedure :: update_result_vars => process_stack_update_result_vars
 <<Process stacks: sub interfaces>>=
     module subroutine process_stack_update_result_vars &
          (stack, id, var_list_local)
       class(process_stack_t), intent(inout) :: stack
       type(string_t), intent(in) :: id
       type(var_list_t), intent(inout) :: var_list_local
     end subroutine process_stack_update_result_vars
 <<Process stacks: procedures>>=
   module subroutine process_stack_update_result_vars (stack, id, var_list_local)
     class(process_stack_t), intent(inout) :: stack
     type(string_t), intent(in) :: id
     type(var_list_t), intent(inout) :: var_list_local
     call update ("integral(" // id // ")")
     call update ("error(" // id // ")")
   contains
     subroutine update (var_name)
       type(string_t), intent(in) :: var_name
       real(default) :: value
       if (var_list_local%contains (var_name, follow_link = .false.)) then
          value = stack%var_list%get_rval (var_name)
          call var_list_local%set_real (var_name, value, is_known = .true.)
       end if
     end subroutine update
   end subroutine process_stack_update_result_vars
 
 @ %def process_stack_update_result_vars
 @
 \subsection{Data Access}
 Tell if a process exists.
 <<Process stacks: process stack: TBP>>=
   procedure :: exists => process_stack_exists
 <<Process stacks: sub interfaces>>=
     module function process_stack_exists (stack, id) result (flag)
       class(process_stack_t), intent(in) :: stack
       type(string_t), intent(in) :: id
       logical :: flag
     end function process_stack_exists
 <<Process stacks: procedures>>=
   module function process_stack_exists (stack, id) result (flag)
     class(process_stack_t), intent(in) :: stack
     type(string_t), intent(in) :: id
     logical :: flag
     type(process_t), pointer :: process
     process => stack%get_process_ptr (id)
     flag = associated (process)
   end function process_stack_exists
 
 @ %def process_stack_exists
 @ Return a pointer to a process with specific ID.  Look also at a
 linked stack, if necessary.
 <<Process stacks: process stack: TBP>>=
   procedure :: get_process_ptr => process_stack_get_process_ptr
 <<Process stacks: sub interfaces>>=
     recursive module function process_stack_get_process_ptr &
          (stack, id) result (ptr)
       class(process_stack_t), intent(in) :: stack
       type(string_t), intent(in) :: id
       type(process_t), pointer :: ptr
     end function process_stack_get_process_ptr
 <<Process stacks: procedures>>=
   recursive module function process_stack_get_process_ptr &
        (stack, id) result (ptr)
     class(process_stack_t), intent(in) :: stack
     type(string_t), intent(in) :: id
     type(process_t), pointer :: ptr
     type(process_entry_t), pointer :: entry
     ptr => null ()
     entry => stack%first
     do while (associated (entry))
        if (entry%get_id () == id) then
           ptr => entry%process_t
           return
        end if
        entry => entry%next
     end do
     if (associated (stack%next))  ptr => stack%next%get_process_ptr (id)
   end function process_stack_get_process_ptr
 
 @ %def process_stack_get_process_ptr
 @
 \subsection{Unit tests}
 Test module, followed by the corresponding implementation module.
 <<[[process_stacks_ut.f90]]>>=
 <<File header>>
 
 module process_stacks_ut
   use unit_tests
   use process_stacks_uti
 
 <<Standard module head>>
 
 <<Process stacks: public test>>
 
 contains
 
 <<Process stacks: test driver>>
 
 end module process_stacks_ut
 @ %def process_stacks_ut
 @
 <<[[process_stacks_uti.f90]]>>=
 <<File header>>
 
 module process_stacks_uti
 
 <<Use strings>>
   use os_interface
   use sm_qcd
   use models
   use model_data
   use variables, only: var_list_t
   use process_libraries
   use rng_base
   use prc_test, only: prc_test_create_library
   use process, only: process_t
   use instances, only: process_instance_t
   use processes_ut, only: prepare_test_process
 
   use process_stacks
 
   use rng_base_ut, only: rng_test_factory_t
 
 <<Standard module head>>
 
 <<Process stacks: test declarations>>
 
 contains
 
 <<Process stacks: tests>>
 
 end module process_stacks_uti
 
 @ %def process_stacks_uti
 @ API: driver for the unit tests below.
 <<Process stacks: public test>>=
   public :: process_stacks_test
 <<Process stacks: test driver>>=
   subroutine process_stacks_test (u, results)
     integer, intent(in) :: u
     type(test_results_t), intent(inout) :: results
   <<Process stacks: execute tests>>
   end subroutine process_stacks_test
 
 @ %def process_stacks_test
 @
 \subsubsection{Write an empty process stack}
 The most trivial test is to write an uninitialized process stack.
 <<Process stacks: execute tests>>=
   call test (process_stacks_1, "process_stacks_1", &
        "write an empty process stack", &
        u, results)
 <<Process stacks: test declarations>>=
   public :: process_stacks_1
 <<Process stacks: tests>>=
   subroutine process_stacks_1 (u)
     integer, intent(in) :: u
     type(process_stack_t) :: stack
 
     write (u, "(A)")  "* Test output: process_stacks_1"
     write (u, "(A)")  "*   Purpose: display an empty process stack"
     write (u, "(A)")
 
     call stack%write (u)
 
     write (u, "(A)")
     write (u, "(A)")  "* Test output end: process_stacks_1"
 
   end subroutine process_stacks_1
 
 @ %def process_stacks_1
 @
 \subsubsection{Fill a process stack}
 Fill a process stack with two (identical) processes.
 <<Process stacks: execute tests>>=
   call test (process_stacks_2, "process_stacks_2", &
        "fill a process stack", &
        u, results)
 <<Process stacks: test declarations>>=
   public :: process_stacks_2
 <<Process stacks: tests>>=
   subroutine process_stacks_2 (u)
     integer, intent(in) :: u
     type(process_stack_t) :: stack
     type(process_library_t), target :: lib
     type(string_t) :: libname
     type(string_t) :: procname
     type(os_data_t) :: os_data
     type(model_t), target :: model
     type(var_list_t) :: var_list
     type(process_entry_t), pointer :: process => null ()
 
     write (u, "(A)")  "* Test output: process_stacks_2"
     write (u, "(A)")  "*   Purpose: fill a process stack"
     write (u, "(A)")
 
     write (u, "(A)")  "* Build, initialize and store two test processes"
     write (u, "(A)")
 
     libname = "process_stacks2"
     procname = libname
 
     call os_data%init ()
     call prc_test_create_library (libname, lib)
 
     call model%init_test ()
     call var_list%append_string (var_str ("$run_id"))
     call var_list%append_log (var_str ("?alphas_is_fixed"), .true.)
     call var_list%append_int (var_str ("seed"), 0)
 
     allocate (process)
 
     call var_list%set_string &
          (var_str ("$run_id"), var_str ("run1"), is_known=.true.)
     call process%init (procname, lib, os_data, model, var_list)
     call stack%push (process)
 
     allocate (process)
 
     call var_list%set_string &
          (var_str ("$run_id"), var_str ("run2"), is_known=.true.)
     call process%init (procname, lib, os_data, model, var_list)
     call stack%push (process)
 
     call stack%write (u)
 
     write (u, "(A)")
     write (u, "(A)")  "* Cleanup"
 
     call stack%final ()
     call model%final ()
 
     write (u, "(A)")
     write (u, "(A)")  "* Test output end: process_stacks_2"
 
   end subroutine process_stacks_2
 
 @ %def process_stacks_2
 @
 \subsubsection{Fill a process stack}
 Fill a process stack with two (identical) processes.
 <<Process stacks: execute tests>>=
   call test (process_stacks_3, "process_stacks_3", &
        "process variables", &
        u, results)
 <<Process stacks: test declarations>>=
   public :: process_stacks_3
 <<Process stacks: tests>>=
   subroutine process_stacks_3 (u)
     integer, intent(in) :: u
     type(process_stack_t) :: stack
     type(model_t), target :: model
     type(string_t) :: procname
     type(process_entry_t), pointer :: process => null ()
     type(process_instance_t), target :: process_instance
 
     write (u, "(A)")  "* Test output: process_stacks_3"
     write (u, "(A)")  "*   Purpose: setup process variables"
     write (u, "(A)")
 
     write (u, "(A)")  "* Initialize process variables"
     write (u, "(A)")
 
     procname = "processes_test"
     call model%init_test ()
 
     write (u, "(A)")  "* Initialize process variables"
     write (u, "(A)")
 
     call stack%init_var_list ()
     call stack%init_result_vars (procname)
     call stack%write_var_list (u)
 
     write (u, "(A)")
     write (u, "(A)")  "* Build and integrate a test process"
     write (u, "(A)")
 
     allocate (process)
     call prepare_test_process (process%process_t, process_instance, model)
     call process_instance%integrate (1, 1, 1000)
     call process_instance%final ()
     call process%final_integration (1)
     call stack%push (process)
 
     write (u, "(A)")  "* Fill process variables"
     write (u, "(A)")
 
     call stack%fill_result_vars (procname)
     call stack%write_var_list (u)
 
     write (u, "(A)")
     write (u, "(A)")  "* Cleanup"
 
     call stack%final ()
     call model%final ()
 
     write (u, "(A)")
     write (u, "(A)")  "* Test output end: process_stacks_3"
 
   end subroutine process_stacks_3
 
 @ %def process_stacks_3
 @
 \subsubsection{Linked a process stack}
 Fill two process stack, linked to each other.
 <<Process stacks: execute tests>>=
   call test (process_stacks_4, "process_stacks_4", &
        "linked stacks", &
        u, results)
 <<Process stacks: test declarations>>=
   public :: process_stacks_4
 <<Process stacks: tests>>=
   subroutine process_stacks_4 (u)
     integer, intent(in) :: u
     type(process_library_t), target :: lib
     type(process_stack_t), target :: stack1, stack2
     type(model_t), target :: model
     type(string_t) :: libname
     type(string_t) :: procname1, procname2
     type(os_data_t) :: os_data
     type(process_entry_t), pointer :: process => null ()
 
     write (u, "(A)")  "* Test output: process_stacks_4"
     write (u, "(A)")  "*   Purpose: link process stacks"
     write (u, "(A)")
 
     write (u, "(A)")  "* Initialize process variables"
     write (u, "(A)")
 
     libname = "process_stacks_4_lib"
     procname1 = "process_stacks_4a"
     procname2 = "process_stacks_4b"
 
     call os_data%init ()
 
     write (u, "(A)")  "* Initialize first process"
     write (u, "(A)")
 
     call prc_test_create_library (procname1, lib)
 
     call model%init_test ()
 
     allocate (process)
     call process%init (procname1, lib, os_data, model)
     call stack1%push (process)
 
     write (u, "(A)")  "* Initialize second process"
     write (u, "(A)")
 
     call stack2%link (stack1)
 
     call prc_test_create_library (procname2, lib)
 
     allocate (process)
 
     call process%init (procname2, lib, os_data, model)
     call stack2%push (process)
 
     write (u, "(A)")  "* Show linked stacks"
     write (u, "(A)")
 
     call stack2%write (u)
 
     write (u, "(A)")
     write (u, "(A)")  "* Cleanup"
 
     call stack2%final ()
     call stack1%final ()
     call model%final ()
 
     write (u, "(A)")
     write (u, "(A)")  "* Test output end: process_stacks_4"
 
   end subroutine process_stacks_4
 
 @ %def process_stacks_4
 @
Index: trunk/tests/ext_tests_nlo/Makefile.am
===================================================================
--- trunk/tests/ext_tests_nlo/Makefile.am	(revision 8818)
+++ trunk/tests/ext_tests_nlo/Makefile.am	(revision 8819)
@@ -1,328 +1,328 @@
 ## Makefile.am -- Makefile for executable WHIZARD test scripts
 ##
 ## Process this file with automake to produce Makefile.in
 ##
 ########################################################################
 #
 # Copyright (C) 1999-2022 by
 #     Wolfgang Kilian <kilian@physik.uni-siegen.de>
 #     Thorsten Ohl <ohl@physik.uni-wuerzburg.de>
 #     Juergen Reuter <juergen.reuter@desy.de>
 #     with contributions from
 #     cf. main AUTHORS file
 #
 # WHIZARD is free software; you can redistribute it and/or modify it
 # under the terms of the GNU General Public License as published by
 # the Free Software Foundation; either version 2, or (at your option)
 # any later version.
 #
 # WHIZARD is distributed in the hope that it will be useful, but
 # WITHOUT ANY WARRANTY; without even the implied warranty of
 # MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE.  See the
 # GNU General Public License for more details.
 #
 # You should have received a copy of the GNU General Public License
 # along with this program; if not, write to the Free Software
 # Foundation, Inc., 675 Mass Ave, Cambridge, MA 02139, USA.
 #
 ########################################################################
 
 WHIZARD_DRIVER = run_whizard.sh
 
 TESTS_EXTENDED = \
 	nlo_ee4b.run \
 	nlo_ee4j.run \
 	nlo_ee4t.run \
 	nlo_ee4tj.run \
 	nlo_ee5j.run \
 	nlo_eebb.run \
 	nlo_eebbj.run \
 	nlo_eebbjj.run \
 	nlo_eejj.run \
 	nlo_eejjj.run \
 	nlo_eett.run \
 	nlo_eetta.run \
 	nlo_eettaa.run \
 	nlo_eettah.run \
 	nlo_eettaj.run \
 	nlo_eettajj.run \
 	nlo_eettaz.run \
 	nlo_eettbb.run \
 	nlo_eetth.run \
 	nlo_eetthh.run \
 	nlo_eetthj.run \
 	nlo_eetthjj.run \
 	nlo_eetthz.run \
 	nlo_eettj.run \
 	nlo_eettjj.run \
 	nlo_eettjjj.run \
 	nlo_eettwjj.run \
 	nlo_eettww.run \
 	nlo_eettz.run \
 	nlo_eettzj.run \
 	nlo_eettzjj.run \
 	nlo_eettzz.run \
 	nlo_ppzj_real_partition.run \
 	nlo_ppz.run \
 	nlo_ppzj_sim_1.run \
 	nlo_ppzj_sim_2.run \
 	nlo_ppzj_sim_3.run \
 	nlo_ppzj_sim_4.run \
 	nlo_ppw.run \
 	nlo_ppzz.run \
 	nlo_ppzw.run \
 	nlo_pptttt.run \
 	nlo_ppee_ew.run \
 	nlo_pphee_ew.run \
 	nlo_pphjj_ew.run \
 	nlo_pphz_ew.run \
 	nlo_ppllll_ew.run \
 	nlo_ppllnn_ew.run \
-	nlo_pptt_ew.run \
 	nlo_pptj_ew.run \
+	nlo_pptt_ew.run \
 	nlo_ppwhh_ew.run \
 	nlo_ppww_ew.run \
 	nlo_ppwzh_ew.run \
 	nlo_ppz_ew.run \
 	nlo_ppzzz_ew.run
 XFAIL_TESTS_EXTENDED =
 
 TESTS_REQ_GAMELAN =
 
 TEST_DRIVERS_RUN = \
     $(TESTS_EXTENDED)
 
 TEST_DRIVERS_SH = $(TEST_DRIVERS_RUN:.run=.sh)
 
 ########################################################################
 
 TESTS = $(TESTS_EXTENDED)
 XFAIL_TESTS = $(XFAIL_TESTS_EXTENDED)
 
 EXTRA_DIST = $(TEST_DRIVERS_SH)
 
 ########################################################################
 
 VPATH = $(srcdir)
 
 SUFFIXES = .sh .run
 
 .sh.run:
 	@rm -f $@
 	@if test -f $(top_builddir)/share/tests/ext_tests_nlo/$*.sin; then \
 	  $(SED) 's|@script@|$(top_builddir)/share/tests/ext_tests_nlo/$*|g' $< > $@; \
 	elif test -f $(top_srcdir)/share/tests/ext_tests_nlo/$*.sin; then \
 	  $(SED) 's|@script@|$(top_srcdir)/share/tests/ext_tests_nlo/$*|g' $< > $@; \
 	fi
 	@chmod +x $@
 
 nlo_eejj.run: nlo_settings.sin
 nlo_eejjj.run: nlo_settings.sin
 nlo_ee4j.run: nlo_settings.sin
 nlo_ee5j.run: nlo_settings.sin
 nlo_eebb.run: nlo_settings.sin
 nlo_eebbj.run: nlo_settings.sin
 nlo_eebbjj.run: nlo_settings.sin
 nlo_ee4b.run: nlo_settings.sin
 nlo_eett.run: nlo_settings.sin
 nlo_eettj.run: nlo_settings.sin
 nlo_eettjj.run: nlo_settings.sin
 nlo_eettjjj.run: nlo_settings.sin
 nlo_eettbb.run: nlo_settings.sin
 nlo_eetta.run: nlo_settings.sin
 nlo_eettaa.run: nlo_settings.sin
 nlo_eettaj.run: nlo_settings.sin
 nlo_eettajj.run: nlo_settings.sin
 nlo_eettah.run: nlo_settings.sin
 nlo_eettaz.run: nlo_settings.sin
 nlo_eettz.run: nlo_settings.sin
 nlo_eettzj.run: nlo_settings.sin
 nlo_eettzjj.run: nlo_settings.sin
 nlo_eettzz.run: nlo_settings.sin
 nlo_eettwjj.run: nlo_settings.sin
 nlo_eettww.run: nlo_settings.sin
 nlo_eetth.run: nlo_settings.sin
 nlo_eetthj.run: nlo_settings.sin
 nlo_eetthjj.run: nlo_settings.sin
 nlo_eetthh.run: nlo_settings.sin
 nlo_eetthz.run: nlo_settings.sin
 nlo_ee4t.run: nlo_settings.sin
 nlo_ee4tj.run: nlo_settings.sin
 nlo_ppzj_real_partition.run: nlo_settings.sin
 nlo_ppz.run: nlo_settings.sin
 nlo_ppw.run: nlo_settings.sin
 nlo_ppzz.run: nlo_settings.sin
 nlo_ppzw.run: nlo_settings.sin
 nlo_pptttt.run: nlo_settings.sin
 nlo_ppzj_sim_1.run: nlo_settings.sin
 nlo_ppzj_sim_2.run: nlo_settings.sin
 nlo_ppzj_sim_3.run: nlo_settings.sin
 nlo_ppzj_sim_4.run: nlo_settings.sin
 nlo_ppee_ew.run: nlo_settings_ew.sin
 nlo_pphee_ew.run: nlo_settings_ew.sin
 nlo_pphjj_ew.run: nlo_settings_ew.sin
 nlo_pphz_ew.run: nlo_settings_ew.sin
 nlo_ppllll_ew.run: nlo_settings_ew.sin
 nlo_ppllnn_ew.run: nlo_settings_ew.sin
 nlo_pptt_ew.run: nlo_settings_ew.sin
 nlo_pptj_ew.run: nlo_settings_ew.sin
 nlo_ppwhh_ew.run: nlo_settings_ew.sin
 nlo_ppww_ew.run: nlo_settings_ew.sin
 nlo_ppwzh_ew.run: nlo_settings_ew.sin
 nlo_ppz_ew.run: nlo_settings_ew.sin
 nlo_ppzzz_ew.run: nlo_settings_ew.sin
 nlo_settings.sin: $(top_builddir)/share/tests/ext_tests_nlo/nlo_settings.sin
 	cp $< $@
 nlo_settings_ew.sin: $(top_builddir)/share/tests/ext_tests_nlo/nlo_settings_ew.sin
 	cp $< $@
 
 if MPOST_AVAILABLE
 $(TESTS_REQ_GAMELAN): gamelan.sty
 $(UNIT_TESTS_REQ_GAMELAN): gamelan.sty
 gamelan.sty: $(top_builddir)/src/gamelan/gamelan.sty
 	cp $< $@
 
 $(top_builddir)/src/gamelan/gamelan.sty:
 	$(MAKE) -C $(top_builddir)/src/gamelan gamelan.sty
 endif
 
 BUILT_SOURCES = \
     TESTFLAG  \
     HEPMC2_FLAG \
     HEPMC3_FLAG \
     LCIO_FLAG \
     FASTJET_FLAG \
     LHAPDF5_FLAG \
     LHAPDF6_FLAG \
     GAMELAN_FLAG \
     EVENT_ANALYSIS_FLAG \
     OCAML_FLAG \
     PYTHON_FLAG \
     PYTHIA6_FLAG \
     OPENLOOPS_FLAG \
     GOSAM_FLAG \
     STATIC_FLAG \
     ref-output
 
 # If this file is found in the working directory, WHIZARD
 # will use the paths for the uninstalled version (source/build tree),
 # otherwise it uses the installed version
 TESTFLAG:
 	touch $@
 
 FASTJET_FLAG:
 if FASTJET_AVAILABLE
 	touch $@
 endif
 
 HEPMC2_FLAG:
 if HEPMC2_AVAILABLE
 	touch $@
 endif
 
 HEPMC3_FLAG:
 if HEPMC3_AVAILABLE
 	touch $@
 endif
 
 LCIO_FLAG:
 if LCIO_AVAILABLE
 	touch $@
 endif
 
 LHAPDF5_FLAG:
 if LHAPDF5_AVAILABLE
 	touch $@
 endif
 
 LHAPDF6_FLAG:
 if LHAPDF6_AVAILABLE
 	touch $@
 endif
 
 GAMELAN_FLAG:
 if MPOST_AVAILABLE
 	touch $@
 endif
 
 OCAML_FLAG:
 if OCAML_AVAILABLE
 	touch $@
 endif
 
 PYTHON_FLAG:
 if PYTHON_AVAILABLE
 	touch $@
 endif
 
 PYTHIA6_FLAG:
 if PYTHIA6_AVAILABLE
 	touch $@
 endif
 
 OPENLOOPS_FLAG:
 if OPENLOOPS_AVAILABLE
 	touch $@
 endif
 
 GOSAM_FLAG:
 if GOSAM_AVAILABLE
 	touch $@
 endif
 
 EVENT_ANALYSIS_FLAG:
 if EVENT_ANALYSIS_AVAILABLE
 	touch $@
 endif
 
 STATIC_FLAG:
 if STATIC_AVAILABLE
 	touch $@
 endif
 
 # The reference output files are in the source directory.  Copy them here.
 ref-output: $(top_srcdir)/share/tests/ext_tests_nlo/ref-output
 	mkdir -p ref-output
 	for f in $</*.ref; do cp $$f $@; done
 
 ## installcheck runs the test scripts with the TESTFLAG removed.
 installcheck-local: notestflag check-am
 notestflag:
 	rm -f TESTFLAG
 .PHONY: notestflag
 
 ## Remove generated files
 clean-local:
 	rm -f gamelan.sty
 	rm -f TESTFLAG
 	rm -f *_FLAG
 	rm -f static_1.exe
 	rm -f *.run *.log slha_test.out
 	rm -f core* stdhep_rd
 	rm -f *.f90 *.c *.$(FCMOD) *.o *.la *.f90.in
 	rm -f *.makefile
 	rm -rf ref-output
 	rm -f *.sin *.hbc
 	rm -f *.phs *.vg *.vg2 *.vgb *.evt *.evx *.lhe *.hepmc *.dat *.debug
 	rm -f *.tmp *.hepevt *.hepevt.verb *.lha *.lha.verb *.slcio
 	rm -f prc_omega_diags_1_p_i1_diags.out prc_omega_diags_1_p_i1_diags.toc
 	rm -f *.hep *.up.hep *.[1-9] *.[1-9][0-9] *.[1-9][0-9][0-9]
 	rm -f *.tex *.mp *.mpx *.t[1-9] *.t[1-9][0-9] *.t[1-9][0-9][0-9]
 	rm -f *.ltp *.aux *.dvi *.ps *.pdf so_test.*
 	rm -f *.tbl sps1ap_decays.slha bar structure_6[a-b].out
 	rm -f slhaspectrum.in suspect2.out suspect2_lha.out
 	rm -f susyhit.in susyhit_slha.out suspect2_lha.in
 	rm -f *.olc *.olp *.olp_parameters
 	rm -rf stability_log
 	rm -rf *olp_modules
 	rm -rf Generated_Loops
 	rm -rf include lib golem.in
 	rm -f *fks_regions.out
 if FC_SUBMODULES
 	rm -f *.smod
 endif
 
 ## Remove backup files
 maintainer-clean-local: maintainer-clean-fc
 	-rm -f *~
 .PHONY: maintainer-clean-local
Index: trunk/share/tests/functional_tests/openloops_8.sin
===================================================================
--- trunk/share/tests/functional_tests/openloops_8.sin	(revision 8818)
+++ trunk/share/tests/functional_tests/openloops_8.sin	(revision 8819)
@@ -1,52 +1,54 @@
 # SINDARIN input for WHIZARD self-test
 # Testing the integration of NLO QCD corrections
 # to Drell-Yan constrained to the real component.
 
 model = SM ("GF_MW_MZ")
 $blha_ew_scheme = "alpha_internal"
 
 mW = 80.376
 mZ = 91.1876
 GF = 1.16637E-005
 wZ = 2.4952
 wW = 2.124
 
 mmu = 0
 me = 0
 mc = 0
 ms = 0
 wtop = 0
 mtop = 175 GeV
 
 ?logging = true
 ?openmp_logging = false
 ?vis_history = false
 ?integration_timer = false
 ?pacify = true
 
+$openloops_allowed_libs = "ppllj"
+
 ?use_vamp_equivalences = false
 ?alphas_is_fixed = false
 ?alphas_from_mz = true
 ?alphas_from_lambda_qcd = false
 alpha_power = 2
 alphas_power = 0
 
 alias pr = u:d:U:D
 
 cuts = all M > 20 GeV [e1, E1]
 
 $real_tree_me_method = "openloops"
 $correlation_me_method = "openloops"
 
 !!! Tests should be run single-threaded
 openmp_num_threads = 1
 
 scale = mZ
 
 process openloops_8_p1 = pr, pr => e1, E1 { nlo_calculation = real }
 beams = p, p => pdf_builtin
 seed = 42
 
 sqrts = 13000 GeV
 
 integrate (openloops_8_p1) { iterations = 1:100:"gw" }
Index: trunk/share/tests/functional_tests/ref-output/openloops_8.ref
===================================================================
--- trunk/share/tests/functional_tests/ref-output/openloops_8.ref	(revision 8818)
+++ trunk/share/tests/functional_tests/ref-output/openloops_8.ref	(revision 8819)
@@ -1,103 +1,104 @@
 ?openmp_logging = false
 ?vis_history = false
 ?integration_timer = false
 ?pacify = true
+$openloops_allowed_libs = "ppllj"
 ?use_vamp_equivalences = false
 ?alphas_is_fixed = false
 ?alphas_from_mz = true
 ?alphas_from_lambda_qcd = false
 alpha_power = 2
 alphas_power = 0
 [user variable] pr = PDG(2, 1, -2, -1)
 $real_tree_me_method = "openloops"
 $correlation_me_method = "openloops"
 openmp_num_threads = 1
 | Process library 'openloops_8_lib': recorded process 'openloops_8_p1'
 seed = 42
 sqrts =  1.30000E+04
 | Integrate: current process library needs compilation
 | Process library 'openloops_8_lib': compiling ...
 | Process library 'openloops_8_lib': writing makefile
 | Process library 'openloops_8_lib': removing old files
 | Process library 'openloops_8_lib': writing driver
 | Process library 'openloops_8_lib': creating source code
 | Process library 'openloops_8_lib': compiling sources
 | Process library 'openloops_8_lib': linking
 | Process library 'openloops_8_lib': loading
 | Process library 'openloops_8_lib': ... success.
 | Integrate: compilation done
 | QCD alpha: using a running strong coupling
 | RNG: Initializing TAO random-number generator
 | RNG: Setting seed for random-number generator to 42
 | Initializing integration for process openloops_8_p1:
 | Beam structure: p, p => pdf_builtin
 | Beam data (collision):
 |   p  (mass = 0.0000000E+00 GeV)
 |   p  (mass = 0.0000000E+00 GeV)
 |   sqrts = 1.300000000000E+04 GeV
 | Initialized builtin PDF CTEQ6L
 | Phase space: generating configuration ...
 | Phase space: ... success.
 | Phase space: writing configuration file 'openloops_8_p1.i1.phs'
 | Phase space: generating configuration ...
 | Phase space: ... success.
 | Phase space: writing configuration file 'openloops_8_p1.i3.phs'
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | ------------------------------------------------------------------------
 | Process [scattering]: 'openloops_8_p1'
 |   Library name  = 'openloops_8_lib'
 |   Process index = 1
 |   Process components:
 |     1: 'openloops_8_p1_i1':   u:d:ubar:dbar, u:d:ubar:dbar => e-, e+ [inactive]
 |     2: 'openloops_8_p1_i2':   gl:dbar:d:ubar:u:dbar:d:ubar:u, dbar:d:ubar:u:gl:dbar:d:ubar:u => e-, e+, d:dbar:u:ubar:d:dbar:u:ubar:gl [openloops], [real]
 |     3: 'openloops_8_p1_i3':   u:d:ubar:dbar, u:d:ubar:dbar => e-, e+ [inactive], [virtual]
 |     4: 'openloops_8_p1_i4':   u:d:ubar:dbar, u:d:ubar:dbar => e-, e+ [inactive], [subtraction]
 |     5: 'openloops_8_p1_i5':   u:d:ubar:dbar, u:d:ubar:dbar => e-, e+ [inactive], [dglap]
 | ------------------------------------------------------------------------
 | Phase space: 2 channels, 2 dimensions
 | Phase space: found 2 channels, collected in 2 groves.
 | Phase space: no equivalences between channels used.
 | Phase space: wood
 | Phase space: 2 channels, 5 dimensions
 | Phase space: found 2 channels, collected in 2 groves.
 | Phase space: no equivalences between channels used.
 | Phase space: wood
 | Phase space: 2 channels, 2 dimensions
 | Phase space: found 2 channels, collected in 2 groves.
 | Phase space: no equivalences between channels used.
 | Phase space: wood
 | Phase space: 2 channels, 3 dimensions
 | Phase space: found 2 channels, collected in 2 groves.
 | Phase space: no equivalences between channels used.
 | Phase space: wood
 | Beam structure: pdf_builtin, none => none, pdf_builtin
 | Beam structure: 2 channels, 2 dimensions
 | Applying user-defined cuts.
 | Using user-defined general scale.
 | Starting integration for process 'openloops_8_p1' part 'real'
 | Integrate: iterations = 1:100:"gw"
 | Integrator: 2 chains, 2 channels, 7 dimensions
 | Integrator: 100 initial calls, 20 bins, stratified = T
 | Integrator: VAMP
 |=============================================================================|
 | It      Calls  Integral[fb]  Error[fb]   Err[%]    Acc  Eff[%]   Chi2 N[It] |
 |=============================================================================|
    1        100     6.799E+04   2.16E+04   31.78    3.18    26.5
 |-----------------------------------------------------------------------------|
    1        100     6.799E+04   2.16E+04   31.78    3.18    26.5
 |=============================================================================|
 | Integrate: sum of all components
 |=============================================================================|
 | It      Calls  Integral[fb]  Error[fb]   Err[%]    Acc  Eff[%]   Chi2 N[It] |
 |=============================================================================|
    1          0     6.799E+04   2.16E+04   31.78    0.00    26.5
 |=============================================================================|
 | WHIZARD run finished.
 |=============================================================================|
Index: trunk/share/tests/functional_tests/ref-output/process_log.ref
===================================================================
--- trunk/share/tests/functional_tests/ref-output/process_log.ref	(revision 8818)
+++ trunk/share/tests/functional_tests/ref-output/process_log.ref	(revision 8819)
@@ -1,567 +1,568 @@
 ###############################################################################
  Process [scattering]: 'process_log_1_p1'
    Run ID        = ''
    Library name  = 'process_log_lib'
    Process index = 1
    Process components:
      1: 'process_log_1_p1_i1':   e-, e+ => m-, m+ [omega]
 ------------------------------------------------------------------------
 ###############################################################################
    Integral   =  8.3556567814E+03
    Error      =  3.2359019246E+00
    Accuracy   =  1.8972317270E-02
    Chi2       =  5.2032955661E-01
    Efficiency =  7.8315602603E-01
    T(10k evt) =  <time estimate>
 |=============================================================================|
 | It      Calls  Integral[fb]  Error[fb]   Err[%]    Acc  Eff[%]   Chi2 N[It] |
 |=============================================================================|
    1        800  8.3525258E+03  6.97E+00    0.08    0.02*  67.98
    2        800  8.3688100E+03  5.46E+00    0.07    0.02*  59.78
    3        800  8.3686236E+03  5.53E+00    0.07    0.02   78.45
 |-----------------------------------------------------------------------------|
    3       2400  8.3648733E+03  3.39E+00    0.04    0.02   78.45    2.06   3
 |-----------------------------------------------------------------------------|
    4        800  8.3602554E+03  5.63E+00    0.07    0.02   78.37
    5        800  8.3525628E+03  5.62E+00    0.07    0.02   78.30
    6        800  8.3541861E+03  5.56E+00    0.07    0.02*  78.32
 |-----------------------------------------------------------------------------|
    6       2400  8.3556568E+03  3.24E+00    0.04    0.02   78.32    0.52   3
 |=============================================================================|
 ###############################################################################
 | Phase-space chain (grove) weight history: (numbers in %)
 | chain |   1
 |=============================================================================|
       1 | 100
       2 | 100
       3 | 100
 |-----------------------------------------------------------------------------|
       4 | 100
       5 | 100
       6 | 100
 |=============================================================================|
 ###############################################################################
  Call statistics (current run):
    total       = 2400
    failed kin. = 0
    failed cuts = 0
    passed cuts = 0
    evaluated   = 2400
 ###############################################################################
  MC Integrator is VAMP
 ------------------------------------------------------------------------
  VAMP history (global):
  Pass #1:
  ------------------------------------------------------------------------------
  [vamp]   it   #calls     integral                 average           chi2  eff.
  [vamp]    1      800*  0.0000E+00(0.00E+00)  8.352526E+03(6.97E+00)  0.0 0.000
  [vamp]    2      800*  0.0000E+00(0.00E+00)  8.368810E+03(5.46E+00)  0.0 0.000
  [vamp]    3      800*  0.0000E+00(0.00E+00)  8.368624E+03(5.53E+00)  0.0 0.000
  ------------------------------------------------------------------------------
  Channel histories: [undefined]
  Pass #2:
  ------------------------------------------------------------------------------
  [vamp]   it   #calls     integral                 average           chi2  eff.
  [vamp]    1      800*  0.0000E+00(0.00E+00)  8.360255E+03(5.63E+00)  0.0 0.000
  [vamp]    2      800*  0.0000E+00(0.00E+00)  8.352563E+03(5.62E+00)  0.0 0.000
  [vamp]    3      800*  0.0000E+00(0.00E+00)  8.354186E+03(5.56E+00)  0.0 0.000
  ------------------------------------------------------------------------------
  Channel histories: [undefined]
 ------------------------------------------------------------------------
  Inequivalent channels:
    Channel 1:    Mult. = 1    Symm. = 1    Invar.: TF
  Equivalence list:
    Equivalent channels: 1 1
      Permutation: 1 2
      Mode:        3 0
 ------------------------------------------------------------------------
  Weights of channel chains (groves):
    1 1.0000000000
 ###############################################################################
  Beam data (collision):
    e-  (mass = 0.0000000E+00 GeV)
    e+  (mass = 0.0000000E+00 GeV)
    sqrts = 1.000000000000E+02 GeV
 ###############################################################################
    No cuts used.
 ------------------------------------------------------------------------
    No scale expression was given.
 ------------------------------------------------------------------------
    No factorization scale expression was given.
 ------------------------------------------------------------------------
    No renormalization scale expression was given.
 ------------------------------------------------------------------------
    No weight expression was given.
 ###############################################################################
  Summary of quantum-number states:
   + sign: allowed and contributing
   no +  : switched off at runtime
 ------------------------------------------------------------------------
  Term #1
    1  [f(11) h(-1) / f(-11) h(-1) / f(13) h(-1) / f(-13) h(-1)]
    2  [f(11) h(-1) / f(-11) h(-1) / f(13) h(-1) / f(-13) h(1)]
    3  [f(11) h(-1) / f(-11) h(-1) / f(13) h(1) / f(-13) h(-1)]
    4  [f(11) h(-1) / f(-11) h(-1) / f(13) h(1) / f(-13) h(1)]
  + 5  [f(11) h(-1) / f(-11) h(1) / f(13) h(-1) / f(-13) h(-1)]
  + 6  [f(11) h(-1) / f(-11) h(1) / f(13) h(-1) / f(-13) h(1)]
  + 7  [f(11) h(-1) / f(-11) h(1) / f(13) h(1) / f(-13) h(-1)]
  + 8  [f(11) h(-1) / f(-11) h(1) / f(13) h(1) / f(-13) h(1)]
  + 9  [f(11) h(1) / f(-11) h(-1) / f(13) h(-1) / f(-13) h(-1)]
  + 10  [f(11) h(1) / f(-11) h(-1) / f(13) h(-1) / f(-13) h(1)]
  + 11  [f(11) h(1) / f(-11) h(-1) / f(13) h(1) / f(-13) h(-1)]
  + 12  [f(11) h(1) / f(-11) h(-1) / f(13) h(1) / f(-13) h(1)]
    13  [f(11) h(1) / f(-11) h(1) / f(13) h(-1) / f(-13) h(-1)]
    14  [f(11) h(1) / f(-11) h(1) / f(13) h(-1) / f(-13) h(1)]
    15  [f(11) h(1) / f(-11) h(1) / f(13) h(1) / f(-13) h(-1)]
    16  [f(11) h(1) / f(-11) h(1) / f(13) h(1) / f(-13) h(1)]
 ###############################################################################
  Variable list:
 ------------------------------------------------------------------------
 ee =  3.000000000000E-01
 me =  0.000000000000E+00
 mmu =  1.000000000000E+01
 mtau =  1.777000000000E+00
 particle = PDG(0)
 E_LEPTON = PDG(11)
 e- = PDG(11)
 e1 = PDG(11)
 e+ = PDG(-11)
 E1 = PDG(-11)
 MU_LEPTON = PDG(13)
 m- = PDG(13)
 e2 = PDG(13)
 mu- = PDG(13)
 m+ = PDG(-13)
 E2 = PDG(-13)
 mu+ = PDG(-13)
 TAU_LEPTON = PDG(15)
 t- = PDG(15)
 e3 = PDG(15)
 ta- = PDG(15)
 tau- = PDG(15)
 t+ = PDG(-15)
 E3 = PDG(-15)
 ta+ = PDG(-15)
 tau+ = PDG(-15)
 PHOTON = PDG(22)
 A = PDG(22)
 gamma = PDG(22)
 photon = PDG(22)
 charged = PDG(11, 13, 15, -11, -13, -15)
 neutral = PDG(22)
 colored = PDG()
 sqrts =  1.000000000000E+02
 luminosity =  0.000000000000E+00
 ?sf_trace = false
 $sf_trace_file = ""
 ?sf_allow_s_mapping = true
 $lhapdf_dir = ""
 $lhapdf_file = ""
 $lhapdf_photon_file = ""
 lhapdf_member = 0
 lhapdf_photon_scheme = 0
 $pdf_builtin_set = "CTEQ6L"
 ?hoppet_b_matching = false
 isr_alpha =  0.000000000000E+00
 isr_q_max =  0.000000000000E+00
 isr_mass =  0.000000000000E+00
 isr_order = 3
 isr_log_order = 0
 isr_q_in = -1.000000000000E+00
 ?isr_recoil = false
 ?isr_keep_energy = false
 ?isr_handler = false
 $isr_handler_mode = "trivial"
 ?isr_handler_keep_mass = true
 $epa_mode = "default"
 epa_alpha =  0.000000000000E+00
 epa_x_min =  0.000000000000E+00
 epa_q_min =  0.000000000000E+00
 epa_q_max =  0.000000000000E+00
 epa_mass =  0.000000000000E+00
 ?epa_recoil = false
 ?epa_keep_energy = false
 ?epa_handler = false
 $epa_handler_mode = "trivial"
 ewa_x_min =  0.000000000000E+00
 ewa_pt_max =  0.000000000000E+00
 ewa_mass =  0.000000000000E+00
 ?ewa_recoil = false
 ?ewa_keep_energy = false
 ?circe1_photon1 = false
 ?circe1_photon2 = false
 [undefined] circe1_sqrts = [unknown real]
 ?circe1_generate = true
 ?circe1_map = true
 circe1_mapping_slope =  2.000000000000E+00
 circe1_eps =  1.000000000000E-05
 circe1_ver = 0
 circe1_rev = 0
 $circe1_acc = "SBAND"
 circe1_chat = 0
 ?circe1_with_radiation = false
 ?circe2_polarized = true
 [undefined] $circe2_file = [unknown string]
 $circe2_design = "*"
 gaussian_spread1 =  0.000000000000E+00
 gaussian_spread2 =  0.000000000000E+00
 [undefined] $beam_events_file = [unknown string]
 ?beam_events_warn_eof = true
 ?energy_scan_normalize = false
 $negative_sf = "default"
 ?logging = true
 [undefined] $job_id = [unknown string]
 [undefined] $compile_workspace = [unknown string]
 seed = 0
 $model_name = "QED"
 [undefined] process_num_id = [unknown integer]
 ?proc_as_run_id = true
 lcio_run_id = 0
 $method = "omega"
 ?report_progress = true
 [user variable] ?me_verbose = false
 $restrictions = ""
 ?omega_write_phs_output = false
 $omega_flags = ""
 ?read_color_factors = true
 ?slha_read_input = true
 ?slha_read_spectrum = true
 ?slha_read_decays = false
 $library_name = "process_log_lib"
 ?alphas_is_fixed = true
 ?alpha_is_fixed = true
 ?alphas_from_lhapdf = false
 ?alphas_from_pdf_builtin = false
 ?alpha_evolve_analytic = true
 alphas_order = 0
 alpha_order = 0
 alphas_nf = 5
 alpha_nf = -1
 alpha_nlep = 1
 ?alphas_from_mz = false
 ?alphas_from_lambda_qcd = false
 lambda_qcd =  2.000000000000E-01
 ?fatal_beam_decay = true
 ?helicity_selection_active = true
 helicity_selection_threshold =  1.000000000000E+10
 helicity_selection_cutoff = 1000
 $rng_method = "tao"
 ?vis_diags = false
 ?vis_diags_color = false
 ?check_event_file = true
 $event_file_version = ""
 n_events = 0
 event_index_offset = 0
 ?unweighted = true
 safety_factor =  1.000000000000E+00
 ?negative_weights = false
 ?resonance_history = false
 resonance_on_shell_limit =  4.000000000000E+00
 resonance_on_shell_turnoff =  0.000000000000E+00
 resonance_background_factor =  1.000000000000E+00
 ?keep_beams = false
 ?keep_remnants = true
 ?rescan_force = false
 ?recover_beams = true
 ?update_event = false
 ?update_sqme = false
 ?update_weight = false
 ?use_alphas_from_file = false
 ?use_scale_from_file = false
 ?allow_decays = true
 ?auto_decays = false
 auto_decays_multiplicity = 2
 ?auto_decays_radiative = false
 ?decay_rest_frame = false
 ?isotropic_decay = false
 ?diagonal_decay = false
 [undefined] decay_helicity = [unknown integer]
 ?polarized_events = false
 $polarization_mode = "helicity"
 ?colorize_subevt = false
 tolerance =  0.000000000000E+00
 checkpoint = 0
 event_callback_interval = 0
 ?pacify = false
 $out_file = ""
 ?out_advance = true
 real_range = <real_range>
 real_precision = <real_precision>
 real_epsilon = <real_epsilon>
 real_tiny = <real_tiny>
 $integration_method = "vamp"
 threshold_calls = 10
 min_calls_per_channel = 10
 min_calls_per_bin = 10
 min_bins = 3
 max_bins = 20
 ?stratified = true
 ?use_vamp_equivalences = true
 ?vamp_verbose = false
 ?vamp_history_global = true
 ?vamp_history_global_verbose = false
 ?vamp_history_channels = false
 ?vamp_history_channels_verbose = false
 $run_id = ""
 n_calls_test = 0
 ?integration_timer = true
 ?check_grid_file = true
 accuracy_goal =  0.000000000000E+00
 error_goal =  0.000000000000E+00
 relative_error_goal =  0.000000000000E+00
 integration_results_verbosity = 1
 error_threshold =  0.000000000000E+00
 channel_weights_power =  2.500000000000E-01
 [undefined] $integrate_workspace = [unknown string]
 vamp_grid_checkpoint = 1
 $vamp_grid_format = "ascii"
 $vamp_parallel_method = "simple"
 $phs_method = "wood"
 ?vis_channels = false
 ?check_phs_file = true
 $phs_file = ""
 ?phs_only = false
 phs_threshold_s =  5.000000000000E+01
 phs_threshold_t =  1.000000000000E+02
 phs_off_shell = 2
 phs_t_channel = 6
 phs_e_scale =  1.000000000000E+01
 phs_m_scale =  1.000000000000E+01
 phs_q_scale =  1.000000000000E+01
 ?phs_keep_nonresonant = true
 ?phs_step_mapping = true
 ?phs_step_mapping_exp = true
 ?phs_s_mapping = true
 ?vis_history = false
 n_bins = 20
 ?normalize_bins = false
 $obs_label = ""
 $obs_unit = ""
 $title = ""
 $description = ""
 $x_label = ""
 $y_label = ""
 graph_width_mm = 130
 graph_height_mm = 90
 ?y_log = false
 ?x_log = false
 [undefined] x_min = [unknown real]
 [undefined] x_max = [unknown real]
 [undefined] y_min = [unknown real]
 [undefined] y_max = [unknown real]
 $gmlcode_bg = ""
 $gmlcode_fg = ""
 [undefined] ?draw_histogram = [unknown logical]
 [undefined] ?draw_base = [unknown logical]
 [undefined] ?draw_piecewise = [unknown logical]
 [undefined] ?fill_curve = [unknown logical]
 [undefined] ?draw_curve = [unknown logical]
 [undefined] ?draw_errors = [unknown logical]
 [undefined] ?draw_symbols = [unknown logical]
 [undefined] $fill_options = [unknown string]
 [undefined] $draw_options = [unknown string]
 [undefined] $err_options = [unknown string]
 [undefined] $symbol = [unknown string]
 ?analysis_file_only = false
 kt_algorithm = 0
 cambridge_algorithm = 1
 antikt_algorithm = 2
 genkt_algorithm = 3
 cambridge_for_passive_algorithm = 11
 genkt_for_passive_algorithm = 13
 ee_kt_algorithm = 50
 ee_genkt_algorithm = 53
 plugin_algorithm = 99
 undefined_jet_algorithm = 999
 jet_algorithm = 999
 jet_r =  0.000000000000E+00
 jet_p =  0.000000000000E+00
 jet_ycut =  0.000000000000E+00
 jet_dcut =  0.000000000000E+00
 ?keep_flavors_when_clustering = false
 photon_iso_eps =  1.000000000000E+00
 photon_iso_n =  1.000000000000E+00
 photon_iso_r0 =  4.000000000000E-01
 photon_rec_r0 =  1.000000000000E-01
 ?keep_flavors_when_recombining = true
 $sample = ""
 $sample_normalization = "auto"
 ?sample_pacify = false
 ?sample_select = true
 sample_max_tries = 10000
 sample_split_n_evt = 0
 sample_split_n_kbytes = 0
 sample_split_index = 0
 $rescan_input_format = "raw"
 ?read_raw = true
 ?write_raw = true
 $extension_raw = "evx"
 $extension_default = "evt"
 $debug_extension = "debug"
 ?debug_process = true
 ?debug_transforms = true
 ?debug_decay = true
 ?debug_verbose = true
 $dump_extension = "pset.dat"
 ?dump_compressed = false
 ?dump_weights = false
 ?dump_summary = false
 ?dump_screen = false
 ?hepevt_ensure_order = false
 $extension_hepevt = "hepevt"
 $extension_ascii_short = "short.evt"
 $extension_ascii_long = "long.evt"
 $extension_athena = "athena.evt"
 $extension_mokka = "mokka.evt"
 $lhef_version = "2.0"
 $lhef_extension = "lhe"
 ?lhef_write_sqme_prc = true
 ?lhef_write_sqme_ref = false
 ?lhef_write_sqme_alt = true
 $extension_lha = "lha"
 $extension_hepmc = "hepmc"
 ?hepmc_output_cross_section = false
 ?hepmc3_write_flows = false
 $hepmc3_mode = "HepMC3"
 $extension_lcio = "slcio"
 $extension_stdhep = "hep"
 $extension_stdhep_up = "up.hep"
 $extension_stdhep_ev4 = "ev4.hep"
 $extension_hepevt_verb = "hepevt.verb"
 $extension_lha_verb = "lha.verb"
 ?allow_shower = true
 ?ps_fsr_active = false
 ?ps_isr_active = false
 ?ps_taudec_active = false
 ?muli_active = false
 $shower_method = "WHIZARD"
 ?shower_verbose = false
 $ps_PYTHIA_PYGIVE = ""
 $ps_PYTHIA8_config = ""
 $ps_PYTHIA8_config_file = ""
 ps_mass_cutoff =  1.000000000000E+00
 ps_fsr_lambda =  2.900000000000E-01
 ps_isr_lambda =  2.900000000000E-01
 ps_max_n_flavors = 5
 ?ps_isr_alphas_running = true
 ?ps_fsr_alphas_running = true
 ps_fixed_alphas =  0.000000000000E+00
 ?ps_isr_pt_ordered = false
 ?ps_isr_angular_ordered = true
 ps_isr_primordial_kt_width =  0.000000000000E+00
 ps_isr_primordial_kt_cutoff =  5.000000000000E+00
 ps_isr_z_cutoff =  9.990000000000E-01
 ps_isr_minenergy =  1.000000000000E+00
 ps_isr_tscalefactor =  1.000000000000E+00
 ?ps_isr_only_onshell_emitted_partons = false
 ?allow_hadronization = true
 ?hadronization_active = false
 $hadronization_method = "PYTHIA6"
 hadron_enhanced_fraction =  1.000000000000E-02
 hadron_enhanced_width =  2.000000000000E+00
 ?ps_tauola_photos = false
 ?ps_tauola_transverse = false
 ?ps_tauola_dec_rad_cor = true
 ps_tauola_dec_mode1 = 0
 ps_tauola_dec_mode2 = 0
 ps_tauola_mh =  1.250000000000E+02
 ps_tauola_mix_angle =  9.000000000000E+01
 ?ps_tauola_pol_vector = false
 ?mlm_matching = false
 mlm_Qcut_ME =  0.000000000000E+00
 mlm_Qcut_PS =  0.000000000000E+00
 mlm_ptmin =  0.000000000000E+00
 mlm_etamax =  0.000000000000E+00
 mlm_Rmin =  0.000000000000E+00
 mlm_Emin =  0.000000000000E+00
 mlm_nmaxMEjets = 0
 mlm_ETclusfactor =  2.000000000000E-01
 mlm_ETclusminE =  5.000000000000E+00
 mlm_etaclusfactor =  1.000000000000E+00
 mlm_Rclusfactor =  1.000000000000E+00
 mlm_Eclusfactor =  1.000000000000E+00
 ?powheg_matching = false
 ?powheg_use_singular_jacobian = false
 powheg_grid_size_xi = 5
 powheg_grid_size_y = 5
 powheg_pt_min =  1.000000000000E+00
 powheg_lambda =  2.000000000000E-01
 ?powheg_test_sudakov = false
 ?powheg_disable_sudakov = false
 ?ckkw_matching = false
 ?omega_openmp => false
 ?openmp_is_active = false
 openmp_num_threads_default = 1
 openmp_num_threads = 1
 ?openmp_logging = false
 ?mpi_logging = false
 $born_me_method = ""
 $loop_me_method = ""
 $correlation_me_method = ""
 $real_tree_me_method = ""
 $dglap_me_method = ""
 ?test_soft_limit = false
 ?test_coll_limit = false
 ?test_anti_coll_limit = false
 $select_alpha_regions = ""
 $virtual_selection = "Full"
 ?virtual_collinear_resonance_aware = true
 blha_top_yukawa = -1.000000000000E+00
 $blha_ew_scheme = "alpha_internal"
 openloops_verbosity = 1
 ?openloops_use_cms = true
 openloops_phs_tolerance = 7
 openloops_stability_log = 0
 ?openloops_switch_off_muon_yukawa = false
 $openloops_extra_cmd = ""
+$openloops_allowed_libs = ""
 ellis_sexton_scale = -1.000000000000E+00
 ?disable_subtraction = false
 fks_dij_exp1 =  1.000000000000E+00
 fks_dij_exp2 =  1.000000000000E+00
 fks_xi_min =  0.000000000000E+00
 fks_y_max =  1.000000000000E+00
 ?vis_fks_regions = false
 fks_xi_cut =  1.000000000000E+00
 fks_delta_o =  2.000000000000E+00
 fks_delta_i =  2.000000000000E+00
 $fks_mapping_type = "default"
 $resonances_exclude_particles = "default"
 alpha_power = 2
 alphas_power = 0
 ?combined_nlo_integration = false
 ?fixed_order_nlo_events = false
 ?check_event_weights_against_xsection = false
 ?keep_failed_events = false
 gks_multiplicity = 0
 $gosam_filter_lo = ""
 $gosam_filter_nlo = ""
 $gosam_symmetries = "family,generation"
 form_threads = 2
 form_workspace = 1000
 $gosam_fc = ""
 mult_call_real =  1.000000000000E+00
 mult_call_virt =  1.000000000000E+00
 mult_call_dglap =  1.000000000000E+00
 $dalitz_plot = ""
 $nlo_correction_type = "QCD"
 $exclude_gauge_splittings = "c:b:t:e2:e3"
 ?nlo_use_born_scale = false
 ?nlo_cut_all_real_sqmes = false
 $real_partition_mode = "default"
 real_partition_scale =  1.000000000000E+01
 ?nlo_reuse_amplitudes_fks = false
 $fc = Fortran-compiler
 $fcflags = Fortran-flags
 $fclibs = Fortran-libs
 ?rebuild_library = true
 ?recompile_library = false
 ?rebuild_phase_space = true
 ?rebuild_grids = true
 ?rebuild_events = true
 [undefined] num_id(process_log_1_p1) = [unknown integer]
 [undefined] integral(process_log_1_p1) = [unknown real]
 [undefined] error(process_log_1_p1) = [unknown real]
 ------------------------------------------------------------------------
 ------------------------------------------------------------------------
  Beam structure: [any particles]
 ###############################################################################
Index: trunk/share/tests/functional_tests/ref-output/vars.ref
===================================================================
--- trunk/share/tests/functional_tests/ref-output/vars.ref	(revision 8818)
+++ trunk/share/tests/functional_tests/ref-output/vars.ref	(revision 8819)
@@ -1,386 +1,387 @@
 ?openmp_logging = false
 [user variable] foo = -7.800000000000E-02
 [user variable] bar = 1
 [user variable] a =  2.010000000000E-05
 [user variable] i = 3
 [user variable] foo =  2.922000000000E+00
 [user variable] i = 9
 [user variable] foo =  2.922000000000E+00
 [user variable] bar = 1
 [user variable] i = 9
 [user variable] k = 1
 [user variable] k2 =  1.000000000000E+00
 [user variable] i = -1
 [user variable] k = 2
 [user variable] k2 =  4.000000000000E+00
 [user variable] i = -2
 [user variable] k = 3
 [user variable] k2 =  9.000000000000E+00
 [user variable] i = -3
 [user variable] k = 4
 [user variable] k2 =  1.600000000000E+01
 [user variable] i = -4
 [user variable] k = 8
 [user variable] k2 =  6.400000000000E+01
 [user variable] i = -8
 [user variable] i = 9
 [user variable] MW =  7.980000000000E+01
 [user variable] MW =  7.980000000000E+01
 SM.mtau =>  8.000000000000E-01
 SM.mW =>  8.011900000000E+01
 SM.mW =>  8.011900000000E+01
 SM.sw* =>  4.775372811515E-01
 SM.mW =>  7.500000000000E+01
 SM.sw* =>  5.688014954824E-01
 SM.mW =>  8.000000000000E+01
 SM.sw* =>  4.799305327664E-01
 SM.mW =>  8.050000000000E+01
 SM.sw* =>  4.697684723671E-01
 SM.mW =>  8.100000000000E+01
 SM.sw* =>  4.593162187090E-01
 SM.mW =>  8.150000000000E+01
 SM.sw* =>  4.485534858838E-01
 SM.mW =>  8.200000000000E+01
 SM.sw* =>  4.374573583998E-01
 SM.mW =>  8.300000000000E+01
 SM.sw* =>  4.141569403361E-01
 SM.mW =>  8.469722796445E+01
 SM.sw* =>  3.705366373038E-01
 SM.mW =>  8.642916174533E+01
 SM.sw* =>  3.188332912310E-01
 SM.mW =>  8.819651102555E+01
 SM.sw* =>  2.540459583362E-01
 SM.mW =>  9.000000000000E+01
 SM.sw* =>  1.609055729882E-01
 mW is 80.119 and sw is:   0.4775
 seed = 32
 seed = 32
 seed = 30
 seed = 30
 seed = 28
 seed = 28
 seed = 26
 seed = 26
 seed = 24
 seed = 24
 seed = 22
 seed = 22
 seed = 20
 seed = 20
 seed = 18
 seed = 18
 seed = 16
 seed = 16
 seed = 14
 seed = 14
 seed = 12
 seed = 12
 seed = 10
 seed = 10
 seed = 8
 seed = 8
 seed = 6
 seed = 6
 seed = 4
 seed = 4
 seed = 2
 seed = 2
 [user variable] $str = "foo"
 [user variable] $str = "bar"
 [user variable] ?ok = false
 [user variable] ?ok = false
 [user variable] ?ok = true
 ?sf_trace = false
 ?sf_allow_s_mapping = true
 ?hoppet_b_matching = false
 ?isr_recoil = false
 ?isr_keep_energy = false
 ?isr_handler = false
 ?isr_handler_keep_mass = true
 ?epa_recoil = false
 ?epa_keep_energy = false
 ?epa_handler = false
 ?ewa_recoil = false
 ?ewa_keep_energy = false
 ?circe1_photon1 = false
 ?circe1_photon2 = false
 ?circe1_generate = true
 ?circe1_map = true
 ?circe1_with_radiation = false
 ?circe2_polarized = true
 ?beam_events_warn_eof = true
 ?energy_scan_normalize = false
 ?logging => true
 ?proc_as_run_id = true
 ?report_progress = true
 [user variable] ?me_verbose = false
 ?omega_write_phs_output = false
 ?read_color_factors = true
 ?slha_read_input = true
 ?slha_read_spectrum = true
 ?slha_read_decays = false
 ?alphas_is_fixed = true
 ?alpha_is_fixed = true
 ?alphas_from_lhapdf = false
 ?alphas_from_pdf_builtin = false
 ?alpha_evolve_analytic = true
 ?alphas_from_mz = false
 ?alphas_from_lambda_qcd = false
 ?fatal_beam_decay = true
 ?helicity_selection_active = true
 ?vis_diags = false
 ?vis_diags_color = false
 ?check_event_file = true
 ?unweighted = true
 ?negative_weights = false
 ?resonance_history = false
 ?keep_beams = false
 ?keep_remnants = true
 ?rescan_force = false
 ?recover_beams = true
 ?update_event = false
 ?update_sqme = false
 ?update_weight = false
 ?use_alphas_from_file = false
 ?use_scale_from_file = false
 ?allow_decays = true
 ?auto_decays = false
 ?auto_decays_radiative = false
 ?decay_rest_frame = false
 ?isotropic_decay = false
 ?diagonal_decay = false
 ?polarized_events = false
 ?colorize_subevt = false
 ?pacify = false
 ?out_advance = true
 ?stratified = true
 ?use_vamp_equivalences = true
 ?vamp_verbose = false
 ?vamp_history_global = true
 ?vamp_history_global_verbose = false
 ?vamp_history_channels = false
 ?vamp_history_channels_verbose = false
 ?integration_timer = true
 ?check_grid_file = true
 ?vis_channels = false
 ?check_phs_file = true
 ?phs_only = false
 ?phs_keep_nonresonant = true
 ?phs_step_mapping = true
 ?phs_step_mapping_exp = true
 ?phs_s_mapping = true
 ?vis_history = false
 ?normalize_bins = false
 ?y_log = false
 ?x_log = false
 [undefined] ?draw_histogram = [unknown logical]
 [undefined] ?draw_base = [unknown logical]
 [undefined] ?draw_piecewise = [unknown logical]
 [undefined] ?fill_curve = [unknown logical]
 [undefined] ?draw_curve = [unknown logical]
 [undefined] ?draw_errors = [unknown logical]
 [undefined] ?draw_symbols = [unknown logical]
 ?analysis_file_only = false
 ?keep_flavors_when_clustering = false
 ?keep_flavors_when_recombining = true
 ?sample_pacify = false
 ?sample_select = true
 ?read_raw = true
 ?write_raw = true
 ?debug_process = true
 ?debug_transforms = true
 ?debug_decay = true
 ?debug_verbose = true
 ?dump_compressed = false
 ?dump_weights = false
 ?dump_summary = false
 ?dump_screen = false
 ?hepevt_ensure_order = false
 ?lhef_write_sqme_prc = true
 ?lhef_write_sqme_ref = false
 ?lhef_write_sqme_alt = true
 ?hepmc_output_cross_section = false
 ?hepmc3_write_flows = false
 ?allow_shower = true
 ?ps_fsr_active = false
 ?ps_isr_active = false
 ?ps_taudec_active = false
 ?muli_active = false
 ?shower_verbose = false
 ?ps_isr_alphas_running = true
 ?ps_fsr_alphas_running = true
 ?ps_isr_pt_ordered = false
 ?ps_isr_angular_ordered = true
 ?ps_isr_only_onshell_emitted_partons = false
 ?allow_hadronization = true
 ?hadronization_active = false
 ?ps_tauola_photos = false
 ?ps_tauola_transverse = false
 ?ps_tauola_dec_rad_cor = true
 ?ps_tauola_pol_vector = false
 ?mlm_matching = false
 ?powheg_matching = false
 ?powheg_use_singular_jacobian = false
 ?powheg_test_sudakov = false
 ?powheg_disable_sudakov = false
 ?ckkw_matching = false
 ?omega_openmp => false
 ?openmp_is_active* = false
 ?openmp_logging = false
 ?mpi_logging = false
 ?test_soft_limit = false
 ?test_coll_limit = false
 ?test_anti_coll_limit = false
 ?virtual_collinear_resonance_aware = true
 ?openloops_use_cms = true
 ?openloops_switch_off_muon_yukawa = false
 ?disable_subtraction = false
 ?vis_fks_regions = false
 ?combined_nlo_integration = false
 ?fixed_order_nlo_events = false
 ?check_event_weights_against_xsection = false
 ?keep_failed_events = false
 ?nlo_use_born_scale = false
 ?nlo_cut_all_real_sqmes = false
 ?nlo_reuse_amplitudes_fks = false
 ?rebuild_library = true
 ?recompile_library = false
 ?rebuild_phase_space = true
 ?rebuild_grids = true
 ?rebuild_events = true
 [user variable] ?ok = true
 [user variable] $str = "foo"
 [user variable] $str = "foobar"
 $sf_trace_file = ""
 $lhapdf_dir = ""
 $lhapdf_file = ""
 $lhapdf_photon_file = ""
 $pdf_builtin_set = "CTEQ6L"
 $isr_handler_mode = "trivial"
 $epa_mode = "default"
 $epa_handler_mode = "trivial"
 $circe1_acc = "SBAND"
 [undefined] $circe2_file = [unknown string]
 $circe2_design = "*"
 [undefined] $beam_events_file = [unknown string]
 $negative_sf = "default"
 [undefined] $job_id = [unknown string]
 [undefined] $compile_workspace = [unknown string]
 $model_name = "SM"
 $method = "omega"
 $restrictions = ""
 $omega_flags = ""
 $library_name = "vars_lib"
 $rng_method = "tao"
 $event_file_version = ""
 $polarization_mode = "helicity"
 $out_file = ""
 $integration_method = "vamp"
 $run_id = ""
 [undefined] $integrate_workspace = [unknown string]
 $vamp_grid_format = "ascii"
 $vamp_parallel_method = "simple"
 $phs_method = "default"
 $phs_file = ""
 $obs_label = ""
 $obs_unit = ""
 $title = ""
 $description = ""
 $x_label = ""
 $y_label = ""
 $gmlcode_bg = ""
 $gmlcode_fg = ""
 [undefined] $fill_options = [unknown string]
 [undefined] $draw_options = [unknown string]
 [undefined] $err_options = [unknown string]
 [undefined] $symbol = [unknown string]
 $sample = ""
 $sample_normalization = "auto"
 $rescan_input_format = "raw"
 $extension_raw = "evx"
 $extension_default = "evt"
 $debug_extension = "debug"
 $dump_extension = "pset.dat"
 $extension_hepevt = "hepevt"
 $extension_ascii_short = "short.evt"
 $extension_ascii_long = "long.evt"
 $extension_athena = "athena.evt"
 $extension_mokka = "mokka.evt"
 $lhef_version = "2.0"
 $lhef_extension = "lhe"
 $extension_lha = "lha"
 $extension_hepmc = "hepmc"
 $hepmc3_mode = "HepMC3"
 $extension_lcio = "slcio"
 $extension_stdhep = "hep"
 $extension_stdhep_up = "up.hep"
 $extension_stdhep_ev4 = "ev4.hep"
 $extension_hepevt_verb = "hepevt.verb"
 $extension_lha_verb = "lha.verb"
 $shower_method = "WHIZARD"
 $ps_PYTHIA_PYGIVE = ""
 $ps_PYTHIA8_config = ""
 $ps_PYTHIA8_config_file = ""
 $hadronization_method = "PYTHIA6"
 $born_me_method = ""
 $loop_me_method = ""
 $correlation_me_method = ""
 $real_tree_me_method = ""
 $dglap_me_method = ""
 $select_alpha_regions = ""
 $virtual_selection = "Full"
 $blha_ew_scheme = "alpha_internal"
 $openloops_extra_cmd = ""
+$openloops_allowed_libs = ""
 $fks_mapping_type = "default"
 $resonances_exclude_particles = "default"
 $gosam_filter_lo = ""
 $gosam_filter_nlo = ""
 $gosam_symmetries = "family,generation"
 $gosam_fc = ""
 $dalitz_plot = ""
 $nlo_correction_type = "QCD"
 $exclude_gauge_splittings = "c:b:t:e2:e3"
 $real_partition_mode = "default"
 $fc => Fortran-compiler
 $fcflags => Fortran-flags
 $fclibs => Fortran-libs
 [user variable] $str = "foobar"
 [user variable] q = PDG(2)
 [user variable] q = PDG(2, 1, -2, -1)
 Q is only local and hence not not defined
 ******************************************************************************
 *** ERROR: show: object 'Q' not found
 ******************************************************************************
 |             (WHIZARD run continues)
 SM.u* = PDG(2)
 [user variable] q = PDG(2, 1, -2, -1)
 [user variable] i = 1
 one = 1
 [user variable] i = 2
 two
 [user variable] i = 3
 three
 [user variable] i = 4
 four
 [user variable] i = -1
 [user variable] $str = "i<=0"
 [user variable] i = 1
 [user variable] $str = "i>0"
 [user variable] i = 2
 [user variable] $str = "i>1"
 Testing the complex calculus
 [user variable] ca = ( 2.000000000000E+00, 1.000000000000E+00)
 [user variable] ca = ( 2.000000000000E+00, 1.000000000000E+00)
 [user variable] ia = 2
 [user variable] ia = 2
 [user variable] ra =  2.000000000000E+00
 [user variable] ra =  2.000000000000E+00
 [user variable] cb = ( 3.000000000000E+00, 4.000000000000E+00)
 [user variable] cb = ( 3.000000000000E+00, 4.000000000000E+00)
 ?pacify = true
 [user variable] cc = ( 1.00000E+00, 0.00000E+00)
 ?pacify = true
 [user variable] cc = ( 1.00000E+00, 0.00000E+00)
 | There were  1 error(s) and no warnings.
 | WHIZARD run finished.
 |=============================================================================|
Index: trunk/share/tests/functional_tests/ref-output/openloops_5.ref
===================================================================
--- trunk/share/tests/functional_tests/ref-output/openloops_5.ref	(revision 8818)
+++ trunk/share/tests/functional_tests/ref-output/openloops_5.ref	(revision 8819)
@@ -1,414 +1,415 @@
 ?openmp_logging = false
 ?vis_history = false
 ?integration_timer = false
 ?pacify = true
 $loop_me_method = "openloops"
 $real_tree_me_method = "openloops"
 $correlation_me_method = "openloops"
+$openloops_allowed_libs = "ppllj"
 openmp_num_threads = 1
 ?use_vamp_equivalences = false
 ?alphas_is_fixed = true
 ?alphas_from_mz = false
 SM.alphas =>  1.17800E-01
 SM.ms =>  0.00000E+00
 SM.mc =>  0.00000E+00
 SM.mb =>  0.00000E+00
 | Process library 'openloops_5_lib': recorded process 'openloops_5_p1_nlo'
 | Process library 'openloops_5_lib': recorded process 'openloops_5_p2_nlo'
 | Process library 'openloops_5_lib': recorded process 'openloops_5_p3_nlo'
 | Process library 'openloops_5_lib': recorded process 'openloops_5_p4_nlo'
 sqrts =  5.00000E+02
 tolerance =  1.00000E-03
 seed = 0
 | Integrate: current process library needs compilation
 | Process library 'openloops_5_lib': compiling ...
 | Process library 'openloops_5_lib': writing makefile
 | Process library 'openloops_5_lib': removing old files
 | Process library 'openloops_5_lib': writing driver
 | Process library 'openloops_5_lib': creating source code
 | Process library 'openloops_5_lib': compiling sources
 | Process library 'openloops_5_lib': linking
 | Process library 'openloops_5_lib': loading
 | Process library 'openloops_5_lib': ... success.
 | Integrate: compilation done
 | RNG: Initializing TAO random-number generator
 | RNG: Setting seed for random-number generator to 0
 | Initializing integration for process openloops_5_p1_nlo:
 | Beam structure: [any particles]
 | Beam data (collision):
 |   e+  (mass = 5.1099700E-04 GeV)
 |   e-  (mass = 5.1099700E-04 GeV)
 |   sqrts = 5.000000000000E+02 GeV
 | Phase space: generating configuration ...
 | Phase space: ... success.
 | Phase space: writing configuration file 'openloops_5_p1_nlo.i1.phs'
 | Phase space: generating configuration ...
 | Phase space: ... success.
 | Phase space: writing configuration file 'openloops_5_p1_nlo.i3.phs'
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | ------------------------------------------------------------------------
 | Process [scattering]: 'openloops_5_p1_nlo'
 |   Library name  = 'openloops_5_lib'
 |   Process index = 1
 |   Process components:
 |     1: 'openloops_5_p1_nlo_i1':   e+, e- => d:dbar:s:sbar:b:bbar, d:dbar:s:sbar:b:bbar [omega]
 |     2: 'openloops_5_p1_nlo_i2':   e+, e- => d:dbar:s:sbar:b:bbar, d:dbar:s:sbar:b:bbar, gl [openloops], [real]
 |     3: 'openloops_5_p1_nlo_i3':   e+, e- => d:dbar:s:sbar:b:bbar, d:dbar:s:sbar:b:bbar [openloops], [virtual]
 |     4: 'openloops_5_p1_nlo_i4':   e+, e- => d:dbar:s:sbar:b:bbar, d:dbar:s:sbar:b:bbar [inactive], [subtraction]
 | ------------------------------------------------------------------------
 | Phase space: 2 channels, 2 dimensions
 | Phase space: found 2 channels, collected in 2 groves.
 | Phase space: no equivalences between channels used.
 | Phase space: wood
 | Phase space: 2 channels, 5 dimensions
 | Phase space: found 2 channels, collected in 2 groves.
 | Phase space: no equivalences between channels used.
 | Phase space: wood
 | Phase space: 2 channels, 2 dimensions
 | Phase space: found 2 channels, collected in 2 groves.
 | Phase space: no equivalences between channels used.
 | Phase space: wood
 Warning: No cuts have been defined.
 | Starting integration for process 'openloops_5_p1_nlo' part 'born'
 | Integrate: iterations = 1:100
 | Integrator: 2 chains, 2 channels, 2 dimensions
 | Integrator: 100 initial calls, 20 bins, stratified = T
 | Integrator: VAMP
 |=============================================================================|
 | It      Calls  Integral[fb]  Error[fb]   Err[%]    Acc  Eff[%]   Chi2 N[It] |
 |=============================================================================|
    1        100     1.123E+03   8.53E+01    7.59    0.76    36.1
 |-----------------------------------------------------------------------------|
    1        100     1.123E+03   8.53E+01    7.59    0.76    36.1
 |=============================================================================|
 | Starting integration for process 'openloops_5_p1_nlo' part 'real'
 | Integrate: iterations = 1:100
 | Integrator: 2 chains, 2 channels, 5 dimensions
 | Integrator: 100 initial calls, 20 bins, stratified = T
 | Integrator: VAMP
 |=============================================================================|
 | It      Calls  Integral[fb]  Error[fb]   Err[%]    Acc  Eff[%]   Chi2 N[It] |
 |=============================================================================|
    1        100     8.711E+01   8.27E+00    9.49    0.95    20.2
 |-----------------------------------------------------------------------------|
    1        100     8.711E+01   8.27E+00    9.49    0.95    20.2
 |=============================================================================|
 | Starting integration for process 'openloops_5_p1_nlo' part 'virtual'
 | Integrate: iterations = 1:100
 | Integrator: 2 chains, 2 channels, 2 dimensions
 | Integrator: 100 initial calls, 20 bins, stratified = T
 | Integrator: VAMP
 |=============================================================================|
 | It      Calls  Integral[fb]  Error[fb]   Err[%]    Acc  Eff[%]   Chi2 N[It] |
 |=============================================================================|
    1        100    -4.462E+01   3.24E+00    7.27    0.73    40.0
 |-----------------------------------------------------------------------------|
    1        100    -4.462E+01   3.24E+00    7.27    0.73    40.0
 |=============================================================================|
 | Integrate: sum of all components
 |=============================================================================|
 | It      Calls  Integral[fb]  Error[fb]   Err[%]    Acc  Eff[%]   Chi2 N[It] |
 |=============================================================================|
    1          0     1.166E+03   8.58E+01    7.36    0.00    32.9
 | NLO Correction: [O(alpha_s+1)/O(alpha_s)]
 |  (   3.78 +-   0.84 ) %
 |=============================================================================|
 seed = 0
 | RNG: Initializing TAO random-number generator
 | RNG: Setting seed for random-number generator to 0
 | Initializing integration for process openloops_5_p2_nlo:
 | Beam structure: [any particles]
 | Beam data (collision):
 |   e+  (mass = 5.1099700E-04 GeV)
 |   e-  (mass = 5.1099700E-04 GeV)
 |   sqrts = 5.000000000000E+02 GeV
 | Phase space: generating configuration ...
 | Phase space: ... success.
 | Phase space: writing configuration file 'openloops_5_p2_nlo.i1.phs'
 | Phase space: generating configuration ...
 | Phase space: ... success.
 | Phase space: writing configuration file 'openloops_5_p2_nlo.i3.phs'
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | ------------------------------------------------------------------------
 | Process [scattering]: 'openloops_5_p2_nlo'
 |   Library name  = 'openloops_5_lib'
 |   Process index = 2
 |   Process components:
 |     1: 'openloops_5_p2_nlo_i1':   e+, e- => dbar, d [omega]
 |     2: 'openloops_5_p2_nlo_i2':   e+, e- => dbar, d, gl [openloops], [real]
 |     3: 'openloops_5_p2_nlo_i3':   e+, e- => dbar, d [openloops], [virtual]
 |     4: 'openloops_5_p2_nlo_i4':   e+, e- => dbar, d [inactive], [subtraction]
 | ------------------------------------------------------------------------
 | Phase space: 2 channels, 2 dimensions
 | Phase space: found 2 channels, collected in 2 groves.
 | Phase space: no equivalences between channels used.
 | Phase space: wood
 | Phase space: 2 channels, 5 dimensions
 | Phase space: found 2 channels, collected in 2 groves.
 | Phase space: no equivalences between channels used.
 | Phase space: wood
 | Phase space: 2 channels, 2 dimensions
 | Phase space: found 2 channels, collected in 2 groves.
 | Phase space: no equivalences between channels used.
 | Phase space: wood
 Warning: No cuts have been defined.
 | Starting integration for process 'openloops_5_p2_nlo' part 'born'
 | Integrate: iterations = 1:100
 | Integrator: 2 chains, 2 channels, 2 dimensions
 | Integrator: 100 initial calls, 20 bins, stratified = T
 | Integrator: VAMP
 |=============================================================================|
 | It      Calls  Integral[fb]  Error[fb]   Err[%]    Acc  Eff[%]   Chi2 N[It] |
 |=============================================================================|
    1        100     3.744E+02   2.84E+01    7.59    0.76    36.1
 |-----------------------------------------------------------------------------|
    1        100     3.744E+02   2.84E+01    7.59    0.76    36.1
 |=============================================================================|
 | Starting integration for process 'openloops_5_p2_nlo' part 'real'
 | Integrate: iterations = 1:100
 | Integrator: 2 chains, 2 channels, 5 dimensions
 | Integrator: 100 initial calls, 20 bins, stratified = T
 | Integrator: VAMP
 |=============================================================================|
 | It      Calls  Integral[fb]  Error[fb]   Err[%]    Acc  Eff[%]   Chi2 N[It] |
 |=============================================================================|
    1        100     2.904E+01   2.76E+00    9.49    0.95    20.2
 |-----------------------------------------------------------------------------|
    1        100     2.904E+01   2.76E+00    9.49    0.95    20.2
 |=============================================================================|
 | Starting integration for process 'openloops_5_p2_nlo' part 'virtual'
 | Integrate: iterations = 1:100
 | Integrator: 2 chains, 2 channels, 2 dimensions
 | Integrator: 100 initial calls, 20 bins, stratified = T
 | Integrator: VAMP
 |=============================================================================|
 | It      Calls  Integral[fb]  Error[fb]   Err[%]    Acc  Eff[%]   Chi2 N[It] |
 |=============================================================================|
    1        100    -1.487E+01   1.08E+00    7.27    0.73    40.0
 |-----------------------------------------------------------------------------|
    1        100    -1.487E+01   1.08E+00    7.27    0.73    40.0
 |=============================================================================|
 | Integrate: sum of all components
 |=============================================================================|
 | It      Calls  Integral[fb]  Error[fb]   Err[%]    Acc  Eff[%]   Chi2 N[It] |
 |=============================================================================|
    1          0     3.886E+02   2.86E+01    7.36    0.00    32.9
 | NLO Correction: [O(alpha_s+1)/O(alpha_s)]
 |  (   3.78 +-   0.84 ) %
 |=============================================================================|
 seed = 0
 | RNG: Initializing TAO random-number generator
 | RNG: Setting seed for random-number generator to 0
 | Initializing integration for process openloops_5_p3_nlo:
 | Beam structure: [any particles]
 | Beam data (collision):
 |   e+  (mass = 5.1099700E-04 GeV)
 |   e-  (mass = 5.1099700E-04 GeV)
 |   sqrts = 5.000000000000E+02 GeV
 | Phase space: generating configuration ...
 | Phase space: ... success.
 | Phase space: writing configuration file 'openloops_5_p3_nlo.i1.phs'
 | Phase space: generating configuration ...
 | Phase space: ... success.
 | Phase space: writing configuration file 'openloops_5_p3_nlo.i3.phs'
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | ------------------------------------------------------------------------
 | Process [scattering]: 'openloops_5_p3_nlo'
 |   Library name  = 'openloops_5_lib'
 |   Process index = 3
 |   Process components:
 |     1: 'openloops_5_p3_nlo_i1':   e+, e- => sbar, s [omega]
 |     2: 'openloops_5_p3_nlo_i2':   e+, e- => sbar, s, gl [openloops], [real]
 |     3: 'openloops_5_p3_nlo_i3':   e+, e- => sbar, s [openloops], [virtual]
 |     4: 'openloops_5_p3_nlo_i4':   e+, e- => sbar, s [inactive], [subtraction]
 | ------------------------------------------------------------------------
 | Phase space: 2 channels, 2 dimensions
 | Phase space: found 2 channels, collected in 2 groves.
 | Phase space: no equivalences between channels used.
 | Phase space: wood
 | Phase space: 2 channels, 5 dimensions
 | Phase space: found 2 channels, collected in 2 groves.
 | Phase space: no equivalences between channels used.
 | Phase space: wood
 | Phase space: 2 channels, 2 dimensions
 | Phase space: found 2 channels, collected in 2 groves.
 | Phase space: no equivalences between channels used.
 | Phase space: wood
 Warning: No cuts have been defined.
 | Starting integration for process 'openloops_5_p3_nlo' part 'born'
 | Integrate: iterations = 1:100
 | Integrator: 2 chains, 2 channels, 2 dimensions
 | Integrator: 100 initial calls, 20 bins, stratified = T
 | Integrator: VAMP
 |=============================================================================|
 | It      Calls  Integral[fb]  Error[fb]   Err[%]    Acc  Eff[%]   Chi2 N[It] |
 |=============================================================================|
    1        100     3.744E+02   2.84E+01    7.59    0.76    36.1
 |-----------------------------------------------------------------------------|
    1        100     3.744E+02   2.84E+01    7.59    0.76    36.1
 |=============================================================================|
 | Starting integration for process 'openloops_5_p3_nlo' part 'real'
 | Integrate: iterations = 1:100
 | Integrator: 2 chains, 2 channels, 5 dimensions
 | Integrator: 100 initial calls, 20 bins, stratified = T
 | Integrator: VAMP
 |=============================================================================|
 | It      Calls  Integral[fb]  Error[fb]   Err[%]    Acc  Eff[%]   Chi2 N[It] |
 |=============================================================================|
    1        100     2.904E+01   2.76E+00    9.49    0.95    20.2
 |-----------------------------------------------------------------------------|
    1        100     2.904E+01   2.76E+00    9.49    0.95    20.2
 |=============================================================================|
 | Starting integration for process 'openloops_5_p3_nlo' part 'virtual'
 | Integrate: iterations = 1:100
 | Integrator: 2 chains, 2 channels, 2 dimensions
 | Integrator: 100 initial calls, 20 bins, stratified = T
 | Integrator: VAMP
 |=============================================================================|
 | It      Calls  Integral[fb]  Error[fb]   Err[%]    Acc  Eff[%]   Chi2 N[It] |
 |=============================================================================|
    1        100    -1.487E+01   1.08E+00    7.27    0.73    40.0
 |-----------------------------------------------------------------------------|
    1        100    -1.487E+01   1.08E+00    7.27    0.73    40.0
 |=============================================================================|
 | Integrate: sum of all components
 |=============================================================================|
 | It      Calls  Integral[fb]  Error[fb]   Err[%]    Acc  Eff[%]   Chi2 N[It] |
 |=============================================================================|
    1          0     3.886E+02   2.86E+01    7.36    0.00    32.9
 | NLO Correction: [O(alpha_s+1)/O(alpha_s)]
 |  (   3.78 +-   0.84 ) %
 |=============================================================================|
 seed = 0
 | RNG: Initializing TAO random-number generator
 | RNG: Setting seed for random-number generator to 0
 | Initializing integration for process openloops_5_p4_nlo:
 | Beam structure: [any particles]
 | Beam data (collision):
 |   e+  (mass = 5.1099700E-04 GeV)
 |   e-  (mass = 5.1099700E-04 GeV)
 |   sqrts = 5.000000000000E+02 GeV
 | Phase space: generating configuration ...
 | Phase space: ... success.
 | Phase space: writing configuration file 'openloops_5_p4_nlo.i1.phs'
 | Phase space: generating configuration ...
 | Phase space: ... success.
 | Phase space: writing configuration file 'openloops_5_p4_nlo.i3.phs'
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | ------------------------------------------------------------------------
 | Process [scattering]: 'openloops_5_p4_nlo'
 |   Library name  = 'openloops_5_lib'
 |   Process index = 4
 |   Process components:
 |     1: 'openloops_5_p4_nlo_i1':   e+, e- => bbar, b [omega]
 |     2: 'openloops_5_p4_nlo_i2':   e+, e- => bbar, b, gl [openloops], [real]
 |     3: 'openloops_5_p4_nlo_i3':   e+, e- => bbar, b [openloops], [virtual]
 |     4: 'openloops_5_p4_nlo_i4':   e+, e- => bbar, b [inactive], [subtraction]
 | ------------------------------------------------------------------------
 | Phase space: 2 channels, 2 dimensions
 | Phase space: found 2 channels, collected in 2 groves.
 | Phase space: no equivalences between channels used.
 | Phase space: wood
 | Phase space: 2 channels, 5 dimensions
 | Phase space: found 2 channels, collected in 2 groves.
 | Phase space: no equivalences between channels used.
 | Phase space: wood
 | Phase space: 2 channels, 2 dimensions
 | Phase space: found 2 channels, collected in 2 groves.
 | Phase space: no equivalences between channels used.
 | Phase space: wood
 Warning: No cuts have been defined.
 | Starting integration for process 'openloops_5_p4_nlo' part 'born'
 | Integrate: iterations = 1:100
 | Integrator: 2 chains, 2 channels, 2 dimensions
 | Integrator: 100 initial calls, 20 bins, stratified = T
 | Integrator: VAMP
 |=============================================================================|
 | It      Calls  Integral[fb]  Error[fb]   Err[%]    Acc  Eff[%]   Chi2 N[It] |
 |=============================================================================|
    1        100     3.744E+02   2.84E+01    7.59    0.76    36.1
 |-----------------------------------------------------------------------------|
    1        100     3.744E+02   2.84E+01    7.59    0.76    36.1
 |=============================================================================|
 | Starting integration for process 'openloops_5_p4_nlo' part 'real'
 | Integrate: iterations = 1:100
 | Integrator: 2 chains, 2 channels, 5 dimensions
 | Integrator: 100 initial calls, 20 bins, stratified = T
 | Integrator: VAMP
 |=============================================================================|
 | It      Calls  Integral[fb]  Error[fb]   Err[%]    Acc  Eff[%]   Chi2 N[It] |
 |=============================================================================|
    1        100     2.904E+01   2.76E+00    9.49    0.95    20.2
 |-----------------------------------------------------------------------------|
    1        100     2.904E+01   2.76E+00    9.49    0.95    20.2
 |=============================================================================|
 | Starting integration for process 'openloops_5_p4_nlo' part 'virtual'
 | Integrate: iterations = 1:100
 | Integrator: 2 chains, 2 channels, 2 dimensions
 | Integrator: 100 initial calls, 20 bins, stratified = T
 | Integrator: VAMP
 |=============================================================================|
 | It      Calls  Integral[fb]  Error[fb]   Err[%]    Acc  Eff[%]   Chi2 N[It] |
 |=============================================================================|
    1        100    -1.487E+01   1.08E+00    7.27    0.73    40.0
 |-----------------------------------------------------------------------------|
    1        100    -1.487E+01   1.08E+00    7.27    0.73    40.0
 |=============================================================================|
 | Integrate: sum of all components
 |=============================================================================|
 | It      Calls  Integral[fb]  Error[fb]   Err[%]    Acc  Eff[%]   Chi2 N[It] |
 |=============================================================================|
    1          0     3.886E+02   2.86E+01    7.36    0.00    32.9
 | NLO Correction: [O(alpha_s+1)/O(alpha_s)]
 |  (   3.78 +-   0.84 ) %
 |=============================================================================|
 | expect: success
 | Summary of value checks:
 |   Failures: 0 / Total: 1
 | There were no errors and    4 warning(s).
 | WHIZARD run finished.
 |=============================================================================|
Index: trunk/share/tests/functional_tests/ref-output/show_4.ref
===================================================================
--- trunk/share/tests/functional_tests/ref-output/show_4.ref	(revision 8818)
+++ trunk/share/tests/functional_tests/ref-output/show_4.ref	(revision 8819)
@@ -1,1210 +1,1213 @@
 ?openmp_logging = false
 [user variable] foo = PDG(11, 13, 15)
 [user variable] bar = ( 2.000000000000E+00, 3.000000000000E+00)
 #####################################################
 QED.ee =>  3.028600000000E-01
 QED.me =>  5.110000000000E-04
 QED.mmu =>  1.057000000000E-01
 QED.mtau =>  1.777000000000E+00
 [undefined] sqrts = [unknown real]
 luminosity =  0.000000000000E+00
 isr_alpha =  0.000000000000E+00
 isr_q_max =  0.000000000000E+00
 isr_mass =  0.000000000000E+00
 isr_q_in = -1.000000000000E+00
 epa_alpha =  0.000000000000E+00
 epa_x_min =  0.000000000000E+00
 epa_q_min =  0.000000000000E+00
 epa_q_max =  0.000000000000E+00
 epa_mass =  0.000000000000E+00
 ewa_x_min =  0.000000000000E+00
 ewa_pt_max =  0.000000000000E+00
 ewa_mass =  0.000000000000E+00
 [undefined] circe1_sqrts = [unknown real]
 circe1_mapping_slope =  2.000000000000E+00
 circe1_eps =  1.000000000000E-05
 gaussian_spread1 =  0.000000000000E+00
 gaussian_spread2 =  0.000000000000E+00
 lambda_qcd =  2.000000000000E-01
 helicity_selection_threshold =  1.000000000000E+10
 safety_factor =  1.000000000000E+00
 resonance_on_shell_limit =  4.000000000000E+00
 resonance_on_shell_turnoff =  0.000000000000E+00
 resonance_background_factor =  1.000000000000E+00
 tolerance =  0.000000000000E+00
 real_epsilon* = <real_epsilon>
 real_tiny* = <real_tiny>
 accuracy_goal =  0.000000000000E+00
 error_goal =  0.000000000000E+00
 relative_error_goal =  0.000000000000E+00
 error_threshold =  0.000000000000E+00
 channel_weights_power =  2.500000000000E-01
 phs_threshold_s =  5.000000000000E+01
 phs_threshold_t =  1.000000000000E+02
 phs_e_scale =  1.000000000000E+01
 phs_m_scale =  1.000000000000E+01
 phs_q_scale =  1.000000000000E+01
 [undefined] x_min = [unknown real]
 [undefined] x_max = [unknown real]
 [undefined] y_min = [unknown real]
 [undefined] y_max = [unknown real]
 jet_r =  0.000000000000E+00
 jet_p =  0.000000000000E+00
 jet_ycut =  0.000000000000E+00
 jet_dcut =  0.000000000000E+00
 photon_iso_eps =  1.000000000000E+00
 photon_iso_n =  1.000000000000E+00
 photon_iso_r0 =  4.000000000000E-01
 photon_rec_r0 =  1.000000000000E-01
 ps_mass_cutoff =  1.000000000000E+00
 ps_fsr_lambda =  2.900000000000E-01
 ps_isr_lambda =  2.900000000000E-01
 ps_fixed_alphas =  0.000000000000E+00
 ps_isr_primordial_kt_width =  0.000000000000E+00
 ps_isr_primordial_kt_cutoff =  5.000000000000E+00
 ps_isr_z_cutoff =  9.990000000000E-01
 ps_isr_minenergy =  1.000000000000E+00
 ps_isr_tscalefactor =  1.000000000000E+00
 hadron_enhanced_fraction =  1.000000000000E-02
 hadron_enhanced_width =  2.000000000000E+00
 ps_tauola_mh =  1.250000000000E+02
 ps_tauola_mix_angle =  9.000000000000E+01
 mlm_Qcut_ME =  0.000000000000E+00
 mlm_Qcut_PS =  0.000000000000E+00
 mlm_ptmin =  0.000000000000E+00
 mlm_etamax =  0.000000000000E+00
 mlm_Rmin =  0.000000000000E+00
 mlm_Emin =  0.000000000000E+00
 mlm_ETclusfactor =  2.000000000000E-01
 mlm_ETclusminE =  5.000000000000E+00
 mlm_etaclusfactor =  1.000000000000E+00
 mlm_Rclusfactor =  1.000000000000E+00
 mlm_Eclusfactor =  1.000000000000E+00
 powheg_pt_min =  1.000000000000E+00
 powheg_lambda =  2.000000000000E-01
 blha_top_yukawa = -1.000000000000E+00
 ellis_sexton_scale = -1.000000000000E+00
 fks_dij_exp1 =  1.000000000000E+00
 fks_dij_exp2 =  1.000000000000E+00
 fks_xi_min =  0.000000000000E+00
 fks_y_max =  1.000000000000E+00
 fks_xi_cut =  1.000000000000E+00
 fks_delta_o =  2.000000000000E+00
 fks_delta_i =  2.000000000000E+00
 mult_call_real =  1.000000000000E+00
 mult_call_virt =  1.000000000000E+00
 mult_call_dglap =  1.000000000000E+00
 real_partition_scale =  1.000000000000E+01
 #####################################################
 QED.charged* = PDG(11, 13, 15, -11, -13, -15)
 #####################################################
 [user variable] foo = PDG(11, 13, 15)
 #####################################################
 [user variable] bar = ( 2.000000000000E+00, 3.000000000000E+00)
 #####################################################
 $sf_trace_file = ""
 $lhapdf_dir = ""
 $lhapdf_file = ""
 $lhapdf_photon_file = ""
 $pdf_builtin_set = "CTEQ6L"
 $isr_handler_mode = "trivial"
 $epa_mode = "default"
 $epa_handler_mode = "trivial"
 $circe1_acc = "SBAND"
 [undefined] $circe2_file = [unknown string]
 $circe2_design = "*"
 [undefined] $beam_events_file = [unknown string]
 $negative_sf = "default"
 [undefined] $job_id = [unknown string]
 [undefined] $compile_workspace = [unknown string]
 $model_name = "QED"
 $method = "omega"
 $restrictions = ""
 $omega_flags = ""
 $library_name = "show_4_lib"
 $rng_method = "tao"
 $event_file_version = ""
 $polarization_mode = "helicity"
 $out_file = ""
 $integration_method = "vamp"
 $run_id = ""
 [undefined] $integrate_workspace = [unknown string]
 $vamp_grid_format = "ascii"
 $vamp_parallel_method = "simple"
 $phs_method = "default"
 $phs_file = ""
 $obs_label = ""
 $obs_unit = ""
 $title = ""
 $description = ""
 $x_label = ""
 $y_label = ""
 $gmlcode_bg = ""
 $gmlcode_fg = ""
 [undefined] $fill_options = [unknown string]
 [undefined] $draw_options = [unknown string]
 [undefined] $err_options = [unknown string]
 [undefined] $symbol = [unknown string]
 $sample = ""
 $sample_normalization = "auto"
 $rescan_input_format = "raw"
 $extension_raw = "evx"
 $extension_default = "evt"
 $debug_extension = "debug"
 $dump_extension = "pset.dat"
 $extension_hepevt = "hepevt"
 $extension_ascii_short = "short.evt"
 $extension_ascii_long = "long.evt"
 $extension_athena = "athena.evt"
 $extension_mokka = "mokka.evt"
 $lhef_version = "2.0"
 $lhef_extension = "lhe"
 $extension_lha = "lha"
 $extension_hepmc = "hepmc"
 $hepmc3_mode = "HepMC3"
 $extension_lcio = "slcio"
 $extension_stdhep = "hep"
 $extension_stdhep_up = "up.hep"
 $extension_stdhep_ev4 = "ev4.hep"
 $extension_hepevt_verb = "hepevt.verb"
 $extension_lha_verb = "lha.verb"
 $shower_method = "WHIZARD"
 $ps_PYTHIA_PYGIVE = ""
 $ps_PYTHIA8_config = ""
 $ps_PYTHIA8_config_file = ""
 $hadronization_method = "PYTHIA6"
 $born_me_method = ""
 $loop_me_method = ""
 $correlation_me_method = ""
 $real_tree_me_method = ""
 $dglap_me_method = ""
 $select_alpha_regions = ""
 $virtual_selection = "Full"
 $blha_ew_scheme = "alpha_internal"
 $openloops_extra_cmd = ""
+$openloops_allowed_libs = ""
 $fks_mapping_type = "default"
 $resonances_exclude_particles = "default"
 $gosam_filter_lo = ""
 $gosam_filter_nlo = ""
 $gosam_symmetries = "family,generation"
 $gosam_fc = ""
 $dalitz_plot = ""
 $nlo_correction_type = "QCD"
 $exclude_gauge_splittings = "c:b:t:e2:e3"
 $real_partition_mode = "default"
 $fc => Fortran-compiler
 $fcflags => Fortran-flags
 $fclibs => Fortran-libs
 #####################################################
 ?sf_trace = false
 ?sf_allow_s_mapping = true
 ?hoppet_b_matching = false
 ?isr_recoil = false
 ?isr_keep_energy = false
 ?isr_handler = false
 ?isr_handler_keep_mass = true
 ?epa_recoil = false
 ?epa_keep_energy = false
 ?epa_handler = false
 ?ewa_recoil = false
 ?ewa_keep_energy = false
 ?circe1_photon1 = false
 ?circe1_photon2 = false
 ?circe1_generate = true
 ?circe1_map = true
 ?circe1_with_radiation = false
 ?circe2_polarized = true
 ?beam_events_warn_eof = true
 ?energy_scan_normalize = false
 ?logging => true
 ?proc_as_run_id = true
 ?report_progress = true
 [user variable] ?me_verbose = false
 ?omega_write_phs_output = false
 ?read_color_factors = true
 ?slha_read_input = true
 ?slha_read_spectrum = true
 ?slha_read_decays = false
 ?alphas_is_fixed = true
 ?alpha_is_fixed = true
 ?alphas_from_lhapdf = false
 ?alphas_from_pdf_builtin = false
 ?alpha_evolve_analytic = true
 ?alphas_from_mz = false
 ?alphas_from_lambda_qcd = false
 ?fatal_beam_decay = true
 ?helicity_selection_active = true
 ?vis_diags = false
 ?vis_diags_color = false
 ?check_event_file = true
 ?unweighted = true
 ?negative_weights = false
 ?resonance_history = false
 ?keep_beams = false
 ?keep_remnants = true
 ?rescan_force = false
 ?recover_beams = true
 ?update_event = false
 ?update_sqme = false
 ?update_weight = false
 ?use_alphas_from_file = false
 ?use_scale_from_file = false
 ?allow_decays = true
 ?auto_decays = false
 ?auto_decays_radiative = false
 ?decay_rest_frame = false
 ?isotropic_decay = false
 ?diagonal_decay = false
 ?polarized_events = false
 ?colorize_subevt = false
 ?pacify = false
 ?out_advance = true
 ?stratified = true
 ?use_vamp_equivalences = true
 ?vamp_verbose = false
 ?vamp_history_global = true
 ?vamp_history_global_verbose = false
 ?vamp_history_channels = false
 ?vamp_history_channels_verbose = false
 ?integration_timer = true
 ?check_grid_file = true
 ?vis_channels = false
 ?check_phs_file = true
 ?phs_only = false
 ?phs_keep_nonresonant = true
 ?phs_step_mapping = true
 ?phs_step_mapping_exp = true
 ?phs_s_mapping = true
 ?vis_history = false
 ?normalize_bins = false
 ?y_log = false
 ?x_log = false
 [undefined] ?draw_histogram = [unknown logical]
 [undefined] ?draw_base = [unknown logical]
 [undefined] ?draw_piecewise = [unknown logical]
 [undefined] ?fill_curve = [unknown logical]
 [undefined] ?draw_curve = [unknown logical]
 [undefined] ?draw_errors = [unknown logical]
 [undefined] ?draw_symbols = [unknown logical]
 ?analysis_file_only = false
 ?keep_flavors_when_clustering = false
 ?keep_flavors_when_recombining = true
 ?sample_pacify = false
 ?sample_select = true
 ?read_raw = true
 ?write_raw = true
 ?debug_process = true
 ?debug_transforms = true
 ?debug_decay = true
 ?debug_verbose = true
 ?dump_compressed = false
 ?dump_weights = false
 ?dump_summary = false
 ?dump_screen = false
 ?hepevt_ensure_order = false
 ?lhef_write_sqme_prc = true
 ?lhef_write_sqme_ref = false
 ?lhef_write_sqme_alt = true
 ?hepmc_output_cross_section = false
 ?hepmc3_write_flows = false
 ?allow_shower = true
 ?ps_fsr_active = false
 ?ps_isr_active = false
 ?ps_taudec_active = false
 ?muli_active = false
 ?shower_verbose = false
 ?ps_isr_alphas_running = true
 ?ps_fsr_alphas_running = true
 ?ps_isr_pt_ordered = false
 ?ps_isr_angular_ordered = true
 ?ps_isr_only_onshell_emitted_partons = false
 ?allow_hadronization = true
 ?hadronization_active = false
 ?ps_tauola_photos = false
 ?ps_tauola_transverse = false
 ?ps_tauola_dec_rad_cor = true
 ?ps_tauola_pol_vector = false
 ?mlm_matching = false
 ?powheg_matching = false
 ?powheg_use_singular_jacobian = false
 ?powheg_test_sudakov = false
 ?powheg_disable_sudakov = false
 ?ckkw_matching = false
 ?omega_openmp => false
 ?openmp_is_active* = false
 ?openmp_logging = false
 ?mpi_logging = false
 ?test_soft_limit = false
 ?test_coll_limit = false
 ?test_anti_coll_limit = false
 ?virtual_collinear_resonance_aware = true
 ?openloops_use_cms = true
 ?openloops_switch_off_muon_yukawa = false
 ?disable_subtraction = false
 ?vis_fks_regions = false
 ?combined_nlo_integration = false
 ?fixed_order_nlo_events = false
 ?check_event_weights_against_xsection = false
 ?keep_failed_events = false
 ?nlo_use_born_scale = false
 ?nlo_cut_all_real_sqmes = false
 ?nlo_reuse_amplitudes_fks = false
 ?rebuild_library = true
 ?recompile_library = false
 ?rebuild_phase_space = true
 ?rebuild_grids = true
 ?rebuild_events = true
 #####################################################
 [undefined] sqrts = [unknown real]
 luminosity =  0.000000000000E+00
 ?sf_trace = false
 $sf_trace_file = ""
 ?sf_allow_s_mapping = true
 $lhapdf_dir = ""
 $lhapdf_file = ""
 $lhapdf_photon_file = ""
 lhapdf_member = 0
 lhapdf_photon_scheme = 0
 $pdf_builtin_set = "CTEQ6L"
 ?hoppet_b_matching = false
 isr_alpha =  0.000000000000E+00
 isr_q_max =  0.000000000000E+00
 isr_mass =  0.000000000000E+00
 isr_order = 3
 isr_log_order = 0
 isr_q_in = -1.000000000000E+00
 ?isr_recoil = false
 ?isr_keep_energy = false
 ?isr_handler = false
 $isr_handler_mode = "trivial"
 ?isr_handler_keep_mass = true
 $epa_mode = "default"
 epa_alpha =  0.000000000000E+00
 epa_x_min =  0.000000000000E+00
 epa_q_min =  0.000000000000E+00
 epa_q_max =  0.000000000000E+00
 epa_mass =  0.000000000000E+00
 ?epa_recoil = false
 ?epa_keep_energy = false
 ?epa_handler = false
 $epa_handler_mode = "trivial"
 ewa_x_min =  0.000000000000E+00
 ewa_pt_max =  0.000000000000E+00
 ewa_mass =  0.000000000000E+00
 ?ewa_recoil = false
 ?ewa_keep_energy = false
 ?circe1_photon1 = false
 ?circe1_photon2 = false
 [undefined] circe1_sqrts = [unknown real]
 ?circe1_generate = true
 ?circe1_map = true
 circe1_mapping_slope =  2.000000000000E+00
 circe1_eps =  1.000000000000E-05
 circe1_ver = 0
 circe1_rev = 0
 $circe1_acc = "SBAND"
 circe1_chat = 0
 ?circe1_with_radiation = false
 ?circe2_polarized = true
 [undefined] $circe2_file = [unknown string]
 $circe2_design = "*"
 gaussian_spread1 =  0.000000000000E+00
 gaussian_spread2 =  0.000000000000E+00
 [undefined] $beam_events_file = [unknown string]
 ?beam_events_warn_eof = true
 ?energy_scan_normalize = false
 $negative_sf = "default"
 ?logging => true
 [undefined] $job_id = [unknown string]
 [undefined] $compile_workspace = [unknown string]
 seed = 0
 $model_name = "QED"
 [undefined] process_num_id = [unknown integer]
 ?proc_as_run_id = true
 lcio_run_id = 0
 $method = "omega"
 ?report_progress = true
 $restrictions = ""
 ?omega_write_phs_output = false
 $omega_flags = ""
 ?read_color_factors = true
 ?slha_read_input = true
 ?slha_read_spectrum = true
 ?slha_read_decays = false
 $library_name = "show_4_lib"
 ?alphas_is_fixed = true
 ?alpha_is_fixed = true
 ?alphas_from_lhapdf = false
 ?alphas_from_pdf_builtin = false
 ?alpha_evolve_analytic = true
 alphas_order = 0
 alpha_order = 0
 alphas_nf = 5
 alpha_nf = -1
 alpha_nlep = 1
 ?alphas_from_mz = false
 ?alphas_from_lambda_qcd = false
 lambda_qcd =  2.000000000000E-01
 ?fatal_beam_decay = true
 ?helicity_selection_active = true
 helicity_selection_threshold =  1.000000000000E+10
 helicity_selection_cutoff = 1000
 $rng_method = "tao"
 ?vis_diags = false
 ?vis_diags_color = false
 ?check_event_file = true
 $event_file_version = ""
 n_events = 0
 event_index_offset = 0
 ?unweighted = true
 safety_factor =  1.000000000000E+00
 ?negative_weights = false
 ?resonance_history = false
 resonance_on_shell_limit =  4.000000000000E+00
 resonance_on_shell_turnoff =  0.000000000000E+00
 resonance_background_factor =  1.000000000000E+00
 ?keep_beams = false
 ?keep_remnants = true
 ?rescan_force = false
 ?recover_beams = true
 ?update_event = false
 ?update_sqme = false
 ?update_weight = false
 ?use_alphas_from_file = false
 ?use_scale_from_file = false
 ?allow_decays = true
 ?auto_decays = false
 auto_decays_multiplicity = 2
 ?auto_decays_radiative = false
 ?decay_rest_frame = false
 ?isotropic_decay = false
 ?diagonal_decay = false
 [undefined] decay_helicity = [unknown integer]
 ?polarized_events = false
 $polarization_mode = "helicity"
 ?colorize_subevt = false
 tolerance =  0.000000000000E+00
 checkpoint = 0
 event_callback_interval = 0
 ?pacify = false
 $out_file = ""
 ?out_advance = true
 real_range* = <real_range>
 real_precision* = <real_precision>
 real_epsilon* = <real_epsilon>
 real_tiny* = <real_tiny>
 $integration_method = "vamp"
 threshold_calls = 10
 min_calls_per_channel = 10
 min_calls_per_bin = 10
 min_bins = 3
 max_bins = 20
 ?stratified = true
 ?use_vamp_equivalences = true
 ?vamp_verbose = false
 ?vamp_history_global = true
 ?vamp_history_global_verbose = false
 ?vamp_history_channels = false
 ?vamp_history_channels_verbose = false
 $run_id = ""
 n_calls_test = 0
 ?integration_timer = true
 ?check_grid_file = true
 accuracy_goal =  0.000000000000E+00
 error_goal =  0.000000000000E+00
 relative_error_goal =  0.000000000000E+00
 integration_results_verbosity = 1
 error_threshold =  0.000000000000E+00
 channel_weights_power =  2.500000000000E-01
 [undefined] $integrate_workspace = [unknown string]
 vamp_grid_checkpoint = 1
 $vamp_grid_format = "ascii"
 $vamp_parallel_method = "simple"
 $phs_method = "default"
 ?vis_channels = false
 ?check_phs_file = true
 $phs_file = ""
 ?phs_only = false
 phs_threshold_s =  5.000000000000E+01
 phs_threshold_t =  1.000000000000E+02
 phs_off_shell = 2
 phs_t_channel = 6
 phs_e_scale =  1.000000000000E+01
 phs_m_scale =  1.000000000000E+01
 phs_q_scale =  1.000000000000E+01
 ?phs_keep_nonresonant = true
 ?phs_step_mapping = true
 ?phs_step_mapping_exp = true
 ?phs_s_mapping = true
 ?vis_history = false
 n_bins = 20
 ?normalize_bins = false
 $obs_label = ""
 $obs_unit = ""
 $title = ""
 $description = ""
 $x_label = ""
 $y_label = ""
 graph_width_mm = 130
 graph_height_mm = 90
 ?y_log = false
 ?x_log = false
 [undefined] x_min = [unknown real]
 [undefined] x_max = [unknown real]
 [undefined] y_min = [unknown real]
 [undefined] y_max = [unknown real]
 $gmlcode_bg = ""
 $gmlcode_fg = ""
 [undefined] ?draw_histogram = [unknown logical]
 [undefined] ?draw_base = [unknown logical]
 [undefined] ?draw_piecewise = [unknown logical]
 [undefined] ?fill_curve = [unknown logical]
 [undefined] ?draw_curve = [unknown logical]
 [undefined] ?draw_errors = [unknown logical]
 [undefined] ?draw_symbols = [unknown logical]
 [undefined] $fill_options = [unknown string]
 [undefined] $draw_options = [unknown string]
 [undefined] $err_options = [unknown string]
 [undefined] $symbol = [unknown string]
 ?analysis_file_only = false
 kt_algorithm* = 0
 cambridge_algorithm* = 1
 antikt_algorithm* = 2
 genkt_algorithm* = 3
 cambridge_for_passive_algorithm* = 11
 genkt_for_passive_algorithm* = 13
 ee_kt_algorithm* = 50
 ee_genkt_algorithm* = 53
 plugin_algorithm* = 99
 undefined_jet_algorithm* = 999
 jet_algorithm = 999
 jet_r =  0.000000000000E+00
 jet_p =  0.000000000000E+00
 jet_ycut =  0.000000000000E+00
 jet_dcut =  0.000000000000E+00
 ?keep_flavors_when_clustering = false
 photon_iso_eps =  1.000000000000E+00
 photon_iso_n =  1.000000000000E+00
 photon_iso_r0 =  4.000000000000E-01
 photon_rec_r0 =  1.000000000000E-01
 ?keep_flavors_when_recombining = true
 $sample = ""
 $sample_normalization = "auto"
 ?sample_pacify = false
 ?sample_select = true
 sample_max_tries = 10000
 sample_split_n_evt = 0
 sample_split_n_kbytes = 0
 sample_split_index = 0
 $rescan_input_format = "raw"
 ?read_raw = true
 ?write_raw = true
 $extension_raw = "evx"
 $extension_default = "evt"
 $debug_extension = "debug"
 ?debug_process = true
 ?debug_transforms = true
 ?debug_decay = true
 ?debug_verbose = true
 $dump_extension = "pset.dat"
 ?dump_compressed = false
 ?dump_weights = false
 ?dump_summary = false
 ?dump_screen = false
 ?hepevt_ensure_order = false
 $extension_hepevt = "hepevt"
 $extension_ascii_short = "short.evt"
 $extension_ascii_long = "long.evt"
 $extension_athena = "athena.evt"
 $extension_mokka = "mokka.evt"
 $lhef_version = "2.0"
 $lhef_extension = "lhe"
 ?lhef_write_sqme_prc = true
 ?lhef_write_sqme_ref = false
 ?lhef_write_sqme_alt = true
 $extension_lha = "lha"
 $extension_hepmc = "hepmc"
 ?hepmc_output_cross_section = false
 ?hepmc3_write_flows = false
 $hepmc3_mode = "HepMC3"
 $extension_lcio = "slcio"
 $extension_stdhep = "hep"
 $extension_stdhep_up = "up.hep"
 $extension_stdhep_ev4 = "ev4.hep"
 $extension_hepevt_verb = "hepevt.verb"
 $extension_lha_verb = "lha.verb"
 ?allow_shower = true
 ?ps_fsr_active = false
 ?ps_isr_active = false
 ?ps_taudec_active = false
 ?muli_active = false
 $shower_method = "WHIZARD"
 ?shower_verbose = false
 $ps_PYTHIA_PYGIVE = ""
 $ps_PYTHIA8_config = ""
 $ps_PYTHIA8_config_file = ""
 ps_mass_cutoff =  1.000000000000E+00
 ps_fsr_lambda =  2.900000000000E-01
 ps_isr_lambda =  2.900000000000E-01
 ps_max_n_flavors = 5
 ?ps_isr_alphas_running = true
 ?ps_fsr_alphas_running = true
 ps_fixed_alphas =  0.000000000000E+00
 ?ps_isr_pt_ordered = false
 ?ps_isr_angular_ordered = true
 ps_isr_primordial_kt_width =  0.000000000000E+00
 ps_isr_primordial_kt_cutoff =  5.000000000000E+00
 ps_isr_z_cutoff =  9.990000000000E-01
 ps_isr_minenergy =  1.000000000000E+00
 ps_isr_tscalefactor =  1.000000000000E+00
 ?ps_isr_only_onshell_emitted_partons = false
 ?allow_hadronization = true
 ?hadronization_active = false
 $hadronization_method = "PYTHIA6"
 hadron_enhanced_fraction =  1.000000000000E-02
 hadron_enhanced_width =  2.000000000000E+00
 ?ps_tauola_photos = false
 ?ps_tauola_transverse = false
 ?ps_tauola_dec_rad_cor = true
 ps_tauola_dec_mode1 = 0
 ps_tauola_dec_mode2 = 0
 ps_tauola_mh =  1.250000000000E+02
 ps_tauola_mix_angle =  9.000000000000E+01
 ?ps_tauola_pol_vector = false
 ?mlm_matching = false
 mlm_Qcut_ME =  0.000000000000E+00
 mlm_Qcut_PS =  0.000000000000E+00
 mlm_ptmin =  0.000000000000E+00
 mlm_etamax =  0.000000000000E+00
 mlm_Rmin =  0.000000000000E+00
 mlm_Emin =  0.000000000000E+00
 mlm_nmaxMEjets = 0
 mlm_ETclusfactor =  2.000000000000E-01
 mlm_ETclusminE =  5.000000000000E+00
 mlm_etaclusfactor =  1.000000000000E+00
 mlm_Rclusfactor =  1.000000000000E+00
 mlm_Eclusfactor =  1.000000000000E+00
 ?powheg_matching = false
 ?powheg_use_singular_jacobian = false
 powheg_grid_size_xi = 5
 powheg_grid_size_y = 5
 powheg_pt_min =  1.000000000000E+00
 powheg_lambda =  2.000000000000E-01
 ?powheg_test_sudakov = false
 ?powheg_disable_sudakov = false
 ?ckkw_matching = false
 ?omega_openmp => false
 ?openmp_is_active* = false
 openmp_num_threads_default* = 1
 openmp_num_threads = 1
 ?openmp_logging = false
 ?mpi_logging = false
 $born_me_method = ""
 $loop_me_method = ""
 $correlation_me_method = ""
 $real_tree_me_method = ""
 $dglap_me_method = ""
 ?test_soft_limit = false
 ?test_coll_limit = false
 ?test_anti_coll_limit = false
 $select_alpha_regions = ""
 $virtual_selection = "Full"
 ?virtual_collinear_resonance_aware = true
 blha_top_yukawa = -1.000000000000E+00
 $blha_ew_scheme = "alpha_internal"
 openloops_verbosity = 1
 ?openloops_use_cms = true
 openloops_phs_tolerance = 7
 openloops_stability_log = 0
 ?openloops_switch_off_muon_yukawa = false
 $openloops_extra_cmd = ""
+$openloops_allowed_libs = ""
 ellis_sexton_scale = -1.000000000000E+00
 ?disable_subtraction = false
 fks_dij_exp1 =  1.000000000000E+00
 fks_dij_exp2 =  1.000000000000E+00
 fks_xi_min =  0.000000000000E+00
 fks_y_max =  1.000000000000E+00
 ?vis_fks_regions = false
 fks_xi_cut =  1.000000000000E+00
 fks_delta_o =  2.000000000000E+00
 fks_delta_i =  2.000000000000E+00
 $fks_mapping_type = "default"
 $resonances_exclude_particles = "default"
 alpha_power = 2
 alphas_power = 0
 ?combined_nlo_integration = false
 ?fixed_order_nlo_events = false
 ?check_event_weights_against_xsection = false
 ?keep_failed_events = false
 gks_multiplicity = 0
 $gosam_filter_lo = ""
 $gosam_filter_nlo = ""
 $gosam_symmetries = "family,generation"
 form_threads = 2
 form_workspace = 1000
 $gosam_fc = ""
 mult_call_real =  1.000000000000E+00
 mult_call_virt =  1.000000000000E+00
 mult_call_dglap =  1.000000000000E+00
 $dalitz_plot = ""
 $nlo_correction_type = "QCD"
 $exclude_gauge_splittings = "c:b:t:e2:e3"
 ?nlo_use_born_scale = false
 ?nlo_cut_all_real_sqmes = false
 $real_partition_mode = "default"
 real_partition_scale =  1.000000000000E+01
 ?nlo_reuse_amplitudes_fks = false
 $fc => Fortran-compiler
 $fcflags => Fortran-flags
 $fclibs => Fortran-libs
 ?rebuild_library = true
 ?recompile_library = false
 ?rebuild_phase_space = true
 ?rebuild_grids = true
 ?rebuild_events = true
 #####################################################
 QED.ee =>  3.028600000000E-01
 QED.me =>  5.110000000000E-04
 QED.mmu =>  1.057000000000E-01
 QED.mtau =>  1.777000000000E+00
 QED.particle* = PDG(0)
 QED.E_LEPTON* = PDG(11)
 QED.e-* = PDG(11)
 QED.e1* = PDG(11)
 QED.e+* = PDG(-11)
 QED.E1* = PDG(-11)
 QED.MU_LEPTON* = PDG(13)
 QED.m-* = PDG(13)
 QED.e2* = PDG(13)
 QED.mu-* = PDG(13)
 QED.m+* = PDG(-13)
 QED.E2* = PDG(-13)
 QED.mu+* = PDG(-13)
 QED.TAU_LEPTON* = PDG(15)
 QED.t-* = PDG(15)
 QED.e3* = PDG(15)
 QED.ta-* = PDG(15)
 QED.tau-* = PDG(15)
 QED.t+* = PDG(-15)
 QED.E3* = PDG(-15)
 QED.ta+* = PDG(-15)
 QED.tau+* = PDG(-15)
 QED.PHOTON* = PDG(22)
 QED.A* = PDG(22)
 QED.gamma* = PDG(22)
 QED.photon* = PDG(22)
 QED.charged* = PDG(11, 13, 15, -11, -13, -15)
 QED.neutral* = PDG(22)
 QED.colored* = PDG()
 [undefined] sqrts = [unknown real]
 luminosity =  0.000000000000E+00
 ?sf_trace = false
 $sf_trace_file = ""
 ?sf_allow_s_mapping = true
 $lhapdf_dir = ""
 $lhapdf_file = ""
 $lhapdf_photon_file = ""
 lhapdf_member = 0
 lhapdf_photon_scheme = 0
 $pdf_builtin_set = "CTEQ6L"
 ?hoppet_b_matching = false
 isr_alpha =  0.000000000000E+00
 isr_q_max =  0.000000000000E+00
 isr_mass =  0.000000000000E+00
 isr_order = 3
 isr_log_order = 0
 isr_q_in = -1.000000000000E+00
 ?isr_recoil = false
 ?isr_keep_energy = false
 ?isr_handler = false
 $isr_handler_mode = "trivial"
 ?isr_handler_keep_mass = true
 $epa_mode = "default"
 epa_alpha =  0.000000000000E+00
 epa_x_min =  0.000000000000E+00
 epa_q_min =  0.000000000000E+00
 epa_q_max =  0.000000000000E+00
 epa_mass =  0.000000000000E+00
 ?epa_recoil = false
 ?epa_keep_energy = false
 ?epa_handler = false
 $epa_handler_mode = "trivial"
 ewa_x_min =  0.000000000000E+00
 ewa_pt_max =  0.000000000000E+00
 ewa_mass =  0.000000000000E+00
 ?ewa_recoil = false
 ?ewa_keep_energy = false
 ?circe1_photon1 = false
 ?circe1_photon2 = false
 [undefined] circe1_sqrts = [unknown real]
 ?circe1_generate = true
 ?circe1_map = true
 circe1_mapping_slope =  2.000000000000E+00
 circe1_eps =  1.000000000000E-05
 circe1_ver = 0
 circe1_rev = 0
 $circe1_acc = "SBAND"
 circe1_chat = 0
 ?circe1_with_radiation = false
 ?circe2_polarized = true
 [undefined] $circe2_file = [unknown string]
 $circe2_design = "*"
 gaussian_spread1 =  0.000000000000E+00
 gaussian_spread2 =  0.000000000000E+00
 [undefined] $beam_events_file = [unknown string]
 ?beam_events_warn_eof = true
 ?energy_scan_normalize = false
 $negative_sf = "default"
 ?logging => true
 [undefined] $job_id = [unknown string]
 [undefined] $compile_workspace = [unknown string]
 seed = 0
 $model_name = "QED"
 [undefined] process_num_id = [unknown integer]
 ?proc_as_run_id = true
 lcio_run_id = 0
 $method = "omega"
 ?report_progress = true
 [user variable] ?me_verbose = false
 $restrictions = ""
 ?omega_write_phs_output = false
 $omega_flags = ""
 ?read_color_factors = true
 ?slha_read_input = true
 ?slha_read_spectrum = true
 ?slha_read_decays = false
 $library_name = "show_4_lib"
 ?alphas_is_fixed = true
 ?alpha_is_fixed = true
 ?alphas_from_lhapdf = false
 ?alphas_from_pdf_builtin = false
 ?alpha_evolve_analytic = true
 alphas_order = 0
 alpha_order = 0
 alphas_nf = 5
 alpha_nf = -1
 alpha_nlep = 1
 ?alphas_from_mz = false
 ?alphas_from_lambda_qcd = false
 lambda_qcd =  2.000000000000E-01
 ?fatal_beam_decay = true
 ?helicity_selection_active = true
 helicity_selection_threshold =  1.000000000000E+10
 helicity_selection_cutoff = 1000
 $rng_method = "tao"
 ?vis_diags = false
 ?vis_diags_color = false
 ?check_event_file = true
 $event_file_version = ""
 n_events = 0
 event_index_offset = 0
 ?unweighted = true
 safety_factor =  1.000000000000E+00
 ?negative_weights = false
 ?resonance_history = false
 resonance_on_shell_limit =  4.000000000000E+00
 resonance_on_shell_turnoff =  0.000000000000E+00
 resonance_background_factor =  1.000000000000E+00
 ?keep_beams = false
 ?keep_remnants = true
 ?rescan_force = false
 ?recover_beams = true
 ?update_event = false
 ?update_sqme = false
 ?update_weight = false
 ?use_alphas_from_file = false
 ?use_scale_from_file = false
 ?allow_decays = true
 ?auto_decays = false
 auto_decays_multiplicity = 2
 ?auto_decays_radiative = false
 ?decay_rest_frame = false
 ?isotropic_decay = false
 ?diagonal_decay = false
 [undefined] decay_helicity = [unknown integer]
 ?polarized_events = false
 $polarization_mode = "helicity"
 ?colorize_subevt = false
 tolerance =  0.000000000000E+00
 checkpoint = 0
 event_callback_interval = 0
 ?pacify = false
 $out_file = ""
 ?out_advance = true
 real_range* = <real_range>
 real_precision* = <real_precision>
 real_epsilon* = <real_epsilon>
 real_tiny* = <real_tiny>
 $integration_method = "vamp"
 threshold_calls = 10
 min_calls_per_channel = 10
 min_calls_per_bin = 10
 min_bins = 3
 max_bins = 20
 ?stratified = true
 ?use_vamp_equivalences = true
 ?vamp_verbose = false
 ?vamp_history_global = true
 ?vamp_history_global_verbose = false
 ?vamp_history_channels = false
 ?vamp_history_channels_verbose = false
 $run_id = ""
 n_calls_test = 0
 ?integration_timer = true
 ?check_grid_file = true
 accuracy_goal =  0.000000000000E+00
 error_goal =  0.000000000000E+00
 relative_error_goal =  0.000000000000E+00
 integration_results_verbosity = 1
 error_threshold =  0.000000000000E+00
 channel_weights_power =  2.500000000000E-01
 [undefined] $integrate_workspace = [unknown string]
 vamp_grid_checkpoint = 1
 $vamp_grid_format = "ascii"
 $vamp_parallel_method = "simple"
 $phs_method = "default"
 ?vis_channels = false
 ?check_phs_file = true
 $phs_file = ""
 ?phs_only = false
 phs_threshold_s =  5.000000000000E+01
 phs_threshold_t =  1.000000000000E+02
 phs_off_shell = 2
 phs_t_channel = 6
 phs_e_scale =  1.000000000000E+01
 phs_m_scale =  1.000000000000E+01
 phs_q_scale =  1.000000000000E+01
 ?phs_keep_nonresonant = true
 ?phs_step_mapping = true
 ?phs_step_mapping_exp = true
 ?phs_s_mapping = true
 ?vis_history = false
 n_bins = 20
 ?normalize_bins = false
 $obs_label = ""
 $obs_unit = ""
 $title = ""
 $description = ""
 $x_label = ""
 $y_label = ""
 graph_width_mm = 130
 graph_height_mm = 90
 ?y_log = false
 ?x_log = false
 [undefined] x_min = [unknown real]
 [undefined] x_max = [unknown real]
 [undefined] y_min = [unknown real]
 [undefined] y_max = [unknown real]
 $gmlcode_bg = ""
 $gmlcode_fg = ""
 [undefined] ?draw_histogram = [unknown logical]
 [undefined] ?draw_base = [unknown logical]
 [undefined] ?draw_piecewise = [unknown logical]
 [undefined] ?fill_curve = [unknown logical]
 [undefined] ?draw_curve = [unknown logical]
 [undefined] ?draw_errors = [unknown logical]
 [undefined] ?draw_symbols = [unknown logical]
 [undefined] $fill_options = [unknown string]
 [undefined] $draw_options = [unknown string]
 [undefined] $err_options = [unknown string]
 [undefined] $symbol = [unknown string]
 ?analysis_file_only = false
 kt_algorithm* = 0
 cambridge_algorithm* = 1
 antikt_algorithm* = 2
 genkt_algorithm* = 3
 cambridge_for_passive_algorithm* = 11
 genkt_for_passive_algorithm* = 13
 ee_kt_algorithm* = 50
 ee_genkt_algorithm* = 53
 plugin_algorithm* = 99
 undefined_jet_algorithm* = 999
 jet_algorithm = 999
 jet_r =  0.000000000000E+00
 jet_p =  0.000000000000E+00
 jet_ycut =  0.000000000000E+00
 jet_dcut =  0.000000000000E+00
 ?keep_flavors_when_clustering = false
 photon_iso_eps =  1.000000000000E+00
 photon_iso_n =  1.000000000000E+00
 photon_iso_r0 =  4.000000000000E-01
 photon_rec_r0 =  1.000000000000E-01
 ?keep_flavors_when_recombining = true
 $sample = ""
 $sample_normalization = "auto"
 ?sample_pacify = false
 ?sample_select = true
 sample_max_tries = 10000
 sample_split_n_evt = 0
 sample_split_n_kbytes = 0
 sample_split_index = 0
 $rescan_input_format = "raw"
 ?read_raw = true
 ?write_raw = true
 $extension_raw = "evx"
 $extension_default = "evt"
 $debug_extension = "debug"
 ?debug_process = true
 ?debug_transforms = true
 ?debug_decay = true
 ?debug_verbose = true
 $dump_extension = "pset.dat"
 ?dump_compressed = false
 ?dump_weights = false
 ?dump_summary = false
 ?dump_screen = false
 ?hepevt_ensure_order = false
 $extension_hepevt = "hepevt"
 $extension_ascii_short = "short.evt"
 $extension_ascii_long = "long.evt"
 $extension_athena = "athena.evt"
 $extension_mokka = "mokka.evt"
 $lhef_version = "2.0"
 $lhef_extension = "lhe"
 ?lhef_write_sqme_prc = true
 ?lhef_write_sqme_ref = false
 ?lhef_write_sqme_alt = true
 $extension_lha = "lha"
 $extension_hepmc = "hepmc"
 ?hepmc_output_cross_section = false
 ?hepmc3_write_flows = false
 $hepmc3_mode = "HepMC3"
 $extension_lcio = "slcio"
 $extension_stdhep = "hep"
 $extension_stdhep_up = "up.hep"
 $extension_stdhep_ev4 = "ev4.hep"
 $extension_hepevt_verb = "hepevt.verb"
 $extension_lha_verb = "lha.verb"
 ?allow_shower = true
 ?ps_fsr_active = false
 ?ps_isr_active = false
 ?ps_taudec_active = false
 ?muli_active = false
 $shower_method = "WHIZARD"
 ?shower_verbose = false
 $ps_PYTHIA_PYGIVE = ""
 $ps_PYTHIA8_config = ""
 $ps_PYTHIA8_config_file = ""
 ps_mass_cutoff =  1.000000000000E+00
 ps_fsr_lambda =  2.900000000000E-01
 ps_isr_lambda =  2.900000000000E-01
 ps_max_n_flavors = 5
 ?ps_isr_alphas_running = true
 ?ps_fsr_alphas_running = true
 ps_fixed_alphas =  0.000000000000E+00
 ?ps_isr_pt_ordered = false
 ?ps_isr_angular_ordered = true
 ps_isr_primordial_kt_width =  0.000000000000E+00
 ps_isr_primordial_kt_cutoff =  5.000000000000E+00
 ps_isr_z_cutoff =  9.990000000000E-01
 ps_isr_minenergy =  1.000000000000E+00
 ps_isr_tscalefactor =  1.000000000000E+00
 ?ps_isr_only_onshell_emitted_partons = false
 ?allow_hadronization = true
 ?hadronization_active = false
 $hadronization_method = "PYTHIA6"
 hadron_enhanced_fraction =  1.000000000000E-02
 hadron_enhanced_width =  2.000000000000E+00
 ?ps_tauola_photos = false
 ?ps_tauola_transverse = false
 ?ps_tauola_dec_rad_cor = true
 ps_tauola_dec_mode1 = 0
 ps_tauola_dec_mode2 = 0
 ps_tauola_mh =  1.250000000000E+02
 ps_tauola_mix_angle =  9.000000000000E+01
 ?ps_tauola_pol_vector = false
 ?mlm_matching = false
 mlm_Qcut_ME =  0.000000000000E+00
 mlm_Qcut_PS =  0.000000000000E+00
 mlm_ptmin =  0.000000000000E+00
 mlm_etamax =  0.000000000000E+00
 mlm_Rmin =  0.000000000000E+00
 mlm_Emin =  0.000000000000E+00
 mlm_nmaxMEjets = 0
 mlm_ETclusfactor =  2.000000000000E-01
 mlm_ETclusminE =  5.000000000000E+00
 mlm_etaclusfactor =  1.000000000000E+00
 mlm_Rclusfactor =  1.000000000000E+00
 mlm_Eclusfactor =  1.000000000000E+00
 ?powheg_matching = false
 ?powheg_use_singular_jacobian = false
 powheg_grid_size_xi = 5
 powheg_grid_size_y = 5
 powheg_pt_min =  1.000000000000E+00
 powheg_lambda =  2.000000000000E-01
 ?powheg_test_sudakov = false
 ?powheg_disable_sudakov = false
 ?ckkw_matching = false
 ?omega_openmp => false
 ?openmp_is_active* = false
 openmp_num_threads_default* = 1
 openmp_num_threads = 1
 ?openmp_logging = false
 ?mpi_logging = false
 $born_me_method = ""
 $loop_me_method = ""
 $correlation_me_method = ""
 $real_tree_me_method = ""
 $dglap_me_method = ""
 ?test_soft_limit = false
 ?test_coll_limit = false
 ?test_anti_coll_limit = false
 $select_alpha_regions = ""
 $virtual_selection = "Full"
 ?virtual_collinear_resonance_aware = true
 blha_top_yukawa = -1.000000000000E+00
 $blha_ew_scheme = "alpha_internal"
 openloops_verbosity = 1
 ?openloops_use_cms = true
 openloops_phs_tolerance = 7
 openloops_stability_log = 0
 ?openloops_switch_off_muon_yukawa = false
 $openloops_extra_cmd = ""
+$openloops_allowed_libs = ""
 ellis_sexton_scale = -1.000000000000E+00
 ?disable_subtraction = false
 fks_dij_exp1 =  1.000000000000E+00
 fks_dij_exp2 =  1.000000000000E+00
 fks_xi_min =  0.000000000000E+00
 fks_y_max =  1.000000000000E+00
 ?vis_fks_regions = false
 fks_xi_cut =  1.000000000000E+00
 fks_delta_o =  2.000000000000E+00
 fks_delta_i =  2.000000000000E+00
 $fks_mapping_type = "default"
 $resonances_exclude_particles = "default"
 alpha_power = 2
 alphas_power = 0
 ?combined_nlo_integration = false
 ?fixed_order_nlo_events = false
 ?check_event_weights_against_xsection = false
 ?keep_failed_events = false
 gks_multiplicity = 0
 $gosam_filter_lo = ""
 $gosam_filter_nlo = ""
 $gosam_symmetries = "family,generation"
 form_threads = 2
 form_workspace = 1000
 $gosam_fc = ""
 mult_call_real =  1.000000000000E+00
 mult_call_virt =  1.000000000000E+00
 mult_call_dglap =  1.000000000000E+00
 $dalitz_plot = ""
 $nlo_correction_type = "QCD"
 $exclude_gauge_splittings = "c:b:t:e2:e3"
 ?nlo_use_born_scale = false
 ?nlo_cut_all_real_sqmes = false
 $real_partition_mode = "default"
 real_partition_scale =  1.000000000000E+01
 ?nlo_reuse_amplitudes_fks = false
 $fc => Fortran-compiler
 $fcflags => Fortran-flags
 $fclibs => Fortran-libs
 ?rebuild_library = true
 ?recompile_library = false
 ?rebuild_phase_space = true
 ?rebuild_grids = true
 ?rebuild_events = true
 [user variable] foo = PDG(11, 13, 15)
 [user variable] bar = ( 2.000000000000E+00, 3.000000000000E+00)
 | WHIZARD run finished.
 |=============================================================================|
Index: trunk/share/tests/functional_tests/openloops_12.sin
===================================================================
--- trunk/share/tests/functional_tests/openloops_12.sin	(revision 8818)
+++ trunk/share/tests/functional_tests/openloops_12.sin	(revision 8819)
@@ -1,82 +1,84 @@
 # SINDARIN input for WHIZARD self-test
 # Testing the integration of real NLO QCD corrections
 # to e+e- -> jjj including the simulation of events
 # with strong cuts applied to provoke events
 # failing the cuts in different combinations.
 
 ?logging = true
 ?openmp_logging = false
 ?vis_history = false
 ?integration_timer = false
 ?pacify = true
 
 model = SM ("GF_MW_MZ")
 $blha_ew_scheme = "alpha_qed"
 
 mZ = 91.188
 mW = 80.419002
 mH = 125.0
 GF = 1.16639E-5
 wZ = 0.0
 wtop = 0.0
 wW = 0.0
 wH = 0.0
 
 ms = 0
 mc = 0
 mb = 0
 mtop = 173.2
 
 me = 0
 mmu = 0
 mtau = 1.777
 
 alphas = 0.118
 
 ?alphas_is_fixed = false
 ?alphas_from_mz = true
 ?alphas_from_lambda_qcd = false
 alphas_nf = 5
 
 alias jet = u:U:d:D:s:S:gl
 $exclude_gauge_splittings = "c:b:t"
 
 $method = "openloops"
 alpha_power = 2
 alphas_power = 1
 
+$openloops_allowed_libs = "ppllj"
+
 ?use_vamp_equivalences = false
 $integration_method = "vamp2"
 $rng_method = "rng_stream"
 openmp_num_threads = 1
 
 jet_algorithm = antikt_algorithm
 jet_r = 0.5
 
 seed = 99
 sqrts = 500 TeV
 
 cuts = let subevt @clustered_jets = cluster [jet] in
        let subevt @pt_selected = select if Pt > 50 GeV [@clustered_jets] in
        let subevt @eta_selected = select if abs(Eta) < 4 [@pt_selected] in
        count [@eta_selected] >= 3
 
 scale = sum Pt/2 [jet]
 
 process openloops_12_p1 = e1, E1 => jet, jet, jet { nlo_calculation = real }
 integrate (openloops_12_p1) { iterations = 1:100:"gw" }
 
 n_events = 10
 $sample_normalization = "sigma"
 ?unweighted = false
 ?negative_weights = true
 ?keep_failed_events = true
 ?fixed_order_nlo_events = true
 sample_format = debug
 ?debug_decay = false
 ?debug_process = false
 ?debug_verbose = false
 ?sample_pacify = true
 ?write_raw = false
 
 simulate(openloops_12_p1)
Index: trunk/share/tests/functional_tests/openloops_5.sin
===================================================================
--- trunk/share/tests/functional_tests/openloops_5.sin	(revision 8818)
+++ trunk/share/tests/functional_tests/openloops_5.sin	(revision 8819)
@@ -1,47 +1,49 @@
 !!! Tests the integration of an NLO process with multiple
 !!! flavors in the final-state.
 !!! We choose only down-type quarks. This way, the integrals
 !!! of the subprocesses are identical and it is easier to
 !!! compare them to the total result.
 
 model = SM ("GF_MW_MZ")
 $blha_ew_scheme = "alpha_internal"
 
 ?logging = true
 ?openmp_logging = false
 ?vis_history = false
 ?integration_timer = false
 ?pacify = true
 
 $loop_me_method = "openloops"
 $real_tree_me_method = "openloops"
 $correlation_me_method = "openloops"
 
+$openloops_allowed_libs = "ppllj"
+
 !!! Tests should be run single-threaded
 openmp_num_threads = 1
 
 ?use_vamp_equivalences = false
 ?alphas_is_fixed = true
 ?alphas_from_mz = false
 alphas = 0.1178
 
 ms = 0
 mc = 0
 mb = 0
 
 process openloops_5_p1_nlo = E1, e1 => d:D:s:S:b:B, d:D:s:S:b:B { nlo_calculation = full }
 process openloops_5_p2_nlo = E1, e1 => D, d { nlo_calculation = full }
 process openloops_5_p3_nlo = E1, e1 => S, s { nlo_calculation = full }
 process openloops_5_p4_nlo = E1, e1 => B, b { nlo_calculation = full }
 
 sqrts = 500 GeV
 iterations = 1:100
 tolerance = 0.001
 
 integrate (openloops_5_p1_nlo) { seed = 0 }
 integrate (openloops_5_p2_nlo) { seed = 0 }
 integrate (openloops_5_p3_nlo) { seed = 0 }
 integrate (openloops_5_p4_nlo) { seed = 0 }
 
 expect (integral (openloops_5_p1_nlo) == integral (openloops_5_p2_nlo)
        + integral (openloops_5_p3_nlo) + integral (openloops_5_p4_nlo))
Index: trunk/share/tests/functional_tests/ref-output-quad/openloops_12.ref
===================================================================
--- trunk/share/tests/functional_tests/ref-output-quad/openloops_12.ref	(revision 8818)
+++ trunk/share/tests/functional_tests/ref-output-quad/openloops_12.ref	(revision 8819)
@@ -1,11125 +1,11126 @@
 ?openmp_logging = false
 ?vis_history = false
 ?integration_timer = false
 ?pacify = true
 | Switching to model 'SM', scheme 'GF_MW_MZ'
 $blha_ew_scheme = "alpha_qed"
 SM.mZ =>  9.11880E+01
 SM.mW =>  8.04190E+01
 SM.mH =>  1.25000E+02
 SM.GF =>  1.16639E-05
 SM.wZ =>  0.00000E+00
 SM.wtop =>  0.00000E+00
 SM.wW =>  0.00000E+00
 SM.wH =>  0.00000E+00
 SM.ms =>  0.00000E+00
 SM.mc =>  0.00000E+00
 SM.mb =>  0.00000E+00
 SM.mtop =>  1.73200E+02
 SM.me =>  0.00000E+00
 SM.mmu =>  0.00000E+00
 SM.mtau =>  1.77700E+00
 SM.alphas =>  1.18000E-01
 ?alphas_is_fixed = false
 ?alphas_from_mz = true
 ?alphas_from_lambda_qcd = false
 alphas_nf = 5
 [user variable] jet = PDG(2, -2, 1, -1, 3, -3, 21)
 $exclude_gauge_splittings = "c:b:t"
 $method = "openloops"
 alpha_power = 2
 alphas_power = 1
+$openloops_allowed_libs = "ppllj"
 ?use_vamp_equivalences = false
 $integration_method = "vamp2"
 $rng_method = "rng_stream"
 openmp_num_threads = 1
 jet_algorithm = 2
 jet_r =  5.00000E-01
 seed = 99
 sqrts =  5.00000E+05
 | Process library 'openloops_12_lib': recorded process 'openloops_12_p1'
 | Integrate: current process library needs compilation
 | Process library 'openloops_12_lib': compiling ...
 | Process library 'openloops_12_lib': writing makefile
 | Process library 'openloops_12_lib': removing old files
 | Process library 'openloops_12_lib': writing driver
 | Process library 'openloops_12_lib': creating source code
 | Process library 'openloops_12_lib': compiling sources
 | Process library 'openloops_12_lib': linking
 | Process library 'openloops_12_lib': loading
 | Process library 'openloops_12_lib': ... success.
 | Integrate: compilation done
 | QCD alpha: using a running strong coupling
 | RNG: Initializing RNG Stream random-number generator
 | RNG: Setting seed for random-number generator to 99
 | Initializing integration for process openloops_12_p1:
 | Beam structure: [any particles]
 | Beam data (collision):
 |   e-  (mass = 0.0000000E+00 GeV)
 |   e+  (mass = 0.0000000E+00 GeV)
 |   sqrts = 5.000000000000E+05 GeV
 | Phase space: generating configuration ...
 Warning:  Intermediate decay of zero-width particle Z may be possible.
 | Phase space: ... success.
 | Phase space: writing configuration file 'openloops_12_p1.i1.phs'
 | Phase space: generating configuration ...
 | Phase space: ... success.
 | Phase space: writing configuration file 'openloops_12_p1.i3.phs'
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | ------------------------------------------------------------------------
 | Process [scattering]: 'openloops_12_p1'
 |   Library name  = 'openloops_12_lib'
 |   Process index = 1
 |   Process components:
 |     1: 'openloops_12_p1_i1':   e-, e+ => u:ubar:d:dbar:s:sbar:gl, u:ubar:d:dbar:s:sbar:gl, u:ubar:d:dbar:s:sbar:gl [inactive]
 |     2: 'openloops_12_p1_i2':   e-, e+ => d:dbar:u:ubar:s:sbar:gl, d:dbar:u:ubar:s:sbar:gl, d:dbar:u:ubar:s:sbar:gl, d:dbar:u:ubar:s:sbar:gl [openloops], [real]
 |     3: 'openloops_12_p1_i3':   e-, e+ => u:ubar:d:dbar:s:sbar:gl, u:ubar:d:dbar:s:sbar:gl, u:ubar:d:dbar:s:sbar:gl [inactive], [virtual]
 |     4: 'openloops_12_p1_i4':   e-, e+ => u:ubar:d:dbar:s:sbar:gl, u:ubar:d:dbar:s:sbar:gl, u:ubar:d:dbar:s:sbar:gl [inactive], [subtraction]
 | ------------------------------------------------------------------------
 | Phase space: 2 channels, 5 dimensions
 | Phase space: found 2 channels, collected in 1 grove.
 | Phase space: no equivalences between channels used.
 | Phase space: wood
 | Phase space: 2 channels, 8 dimensions
 | Phase space: found 2 channels, collected in 1 grove.
 | Phase space: no equivalences between channels used.
 | Phase space: wood
 | Phase space: 2 channels, 5 dimensions
 | Phase space: found 2 channels, collected in 1 grove.
 | Phase space: no equivalences between channels used.
 | Phase space: wood
 | Applying user-defined cuts.
 | Using user-defined general scale.
 | Starting integration for process 'openloops_12_p1' part 'real'
 | Integrate: iterations = 1:100:"gw"
 | Integrator: 1 chains, 2 channels, 8 dimensions
 | Integrator: Write grid header and grids to 'openloops_12_p1.m2.vg2'
 | Integrator: Grid checkpoint after each iteration
 | Integrator: 100 initial calls, 20 max. bins, stratified = T
 | Integrator: VAMP2
 |=============================================================================|
 | It      Calls  Integral[fb]  Error[fb]   Err[%]    Acc  Eff[%]   Chi2 N[It] |
 |=============================================================================|
 | VAMP2: Initialize new grids and write to file 'openloops_12_p1.m2.vg2'.
 | VAMP2: set chain: use chained weights.
    1        100     9.645E-04   4.01E-04   41.60    4.16     5.0
 |-----------------------------------------------------------------------------|
    1        100     9.645E-04   4.01E-04   41.60    4.16     5.0
 |=============================================================================|
 | Integrate: sum of all components
 |=============================================================================|
 | It      Calls  Integral[fb]  Error[fb]   Err[%]    Acc  Eff[%]   Chi2 N[It] |
 |=============================================================================|
    1          0     9.645E-04   4.01E-04   41.60    0.00     5.0
 |=============================================================================|
 n_events = 10
 $sample_normalization = "sigma"
 ?unweighted = false
 ?negative_weights = true
 ?keep_failed_events = true
 ?fixed_order_nlo_events = true
 ?debug_decay = false
 ?debug_process = false
 ?debug_verbose = false
 ?sample_pacify = true
 ?write_raw = false
 | Starting simulation for process 'openloops_12_p1'
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | Simulate: activating fixed-order NLO events
 | QCD alpha: using a running strong coupling
 | RNG: Initializing RNG Stream random-number generator
 | RNG: Setting seed for random-number generator to 100
 | Events: writing to ASCII file 'openloops_12_p1.debug'
 | Events: generating 40 weighted, unpolarized NLO events ...
 | Events: event normalization mode 'sigma'
 |         ... event sample complete.
 | Events: closing ASCII file 'openloops_12_p1.debug'
 | There were no errors and    1 warning(s).
 | WHIZARD run finished.
 |=============================================================================|
 Total number of regions:    18
  alr ||                 flst_real || i_real ||  em || mul || nreg ||                         ftuples ||             flst_born ||  i_born || corr
    1 || [ 11,-11, -2,  2, -2,  2] ||      1 ||   5 ||   4 ||    4 || {(3,4),(3,6),(4,5),(5,6)} || [ 11,-11, -2,  2, 21] ||       1 ||  qcd
    2 || [ 11,-11, -2,  2, 21, 21] ||      2 ||   3 ||   2 ||    5 || {(3,5),(3,6),(4,5),(4,6),(5,6)} || [ 11,-11, -2,  2, 21] ||       1 ||  qcd
    3 || [ 11,-11, -2,  2, 21, 21] ||      2 ||   4 ||   2 ||    5 || {(3,5),(3,6),(4,5),(4,6),(5,6)} || [ 11,-11, -2,  2, 21] ||       1 ||  qcd
    4 || [ 11,-11, -2,  2, 21, 21] ||      2 ||   5 ||   1 ||    5 || {(3,5),(3,6),(4,5),(4,6),(5,6)} || [ 11,-11, -2,  2, 21] ||       1 ||  qcd
    5 || [ 11,-11, -2,  2, -3,  3] ||      3 ||   5 ||   1 ||    2 ||         {(3,4),(5,6)} || [ 11,-11, -2,  2, 21] ||       1 ||  qcd
    6 || [ 11,-11, -3,  3, -2,  2] ||      4 ||   5 ||   1 ||    2 ||         {(3,4),(5,6)} || [ 11,-11, -3,  3, 21] ||       2 ||  qcd
    7 || [ 11,-11, -2,  2, -1,  1] ||      5 ||   5 ||   1 ||    2 ||         {(3,4),(5,6)} || [ 11,-11, -2,  2, 21] ||       1 ||  qcd
    8 || [ 11,-11, -1,  1, -2,  2] ||      6 ||   5 ||   1 ||    2 ||         {(3,4),(5,6)} || [ 11,-11, -1,  1, 21] ||       3 ||  qcd
    9 || [ 11,-11, -3,  3, -3,  3] ||      7 ||   5 ||   4 ||    4 || {(3,4),(3,6),(4,5),(5,6)} || [ 11,-11, -3,  3, 21] ||       2 ||  qcd
   10 || [ 11,-11, -3,  3, -1,  1] ||      8 ||   5 ||   1 ||    2 ||         {(3,4),(5,6)} || [ 11,-11, -3,  3, 21] ||       2 ||  qcd
   11 || [ 11,-11, -1,  1, -3,  3] ||      9 ||   5 ||   1 ||    2 ||         {(3,4),(5,6)} || [ 11,-11, -1,  1, 21] ||       3 ||  qcd
   12 || [ 11,-11, -3,  3, 21, 21] ||     10 ||   3 ||   2 ||    5 || {(3,5),(3,6),(4,5),(4,6),(5,6)} || [ 11,-11, -3,  3, 21] ||       2 ||  qcd
   13 || [ 11,-11, -3,  3, 21, 21] ||     10 ||   4 ||   2 ||    5 || {(3,5),(3,6),(4,5),(4,6),(5,6)} || [ 11,-11, -3,  3, 21] ||       2 ||  qcd
   14 || [ 11,-11, -3,  3, 21, 21] ||     10 ||   5 ||   1 ||    5 || {(3,5),(3,6),(4,5),(4,6),(5,6)} || [ 11,-11, -3,  3, 21] ||       2 ||  qcd
   15 || [ 11,-11, -1,  1, -1,  1] ||     11 ||   5 ||   4 ||    4 || {(3,4),(3,6),(4,5),(5,6)} || [ 11,-11, -1,  1, 21] ||       3 ||  qcd
   16 || [ 11,-11, -1,  1, 21, 21] ||     12 ||   3 ||   2 ||    5 || {(3,5),(3,6),(4,5),(4,6),(5,6)} || [ 11,-11, -1,  1, 21] ||       3 ||  qcd
   17 || [ 11,-11, -1,  1, 21, 21] ||     12 ||   4 ||   2 ||    5 || {(3,5),(3,6),(4,5),(4,6),(5,6)} || [ 11,-11, -1,  1, 21] ||       3 ||  qcd
   18 || [ 11,-11, -1,  1, 21, 21] ||     12 ||   5 ||   1 ||    5 || {(3,5),(3,6),(4,5),(4,6),(5,6)} || [ 11,-11, -1,  1, 21] ||       3 ||  qcd
 ------------------------------------------------------------------------
 Contents of openloops_12_p1.debug:
 ========================================================================
  Event #1
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  3.89241E-10
    Squared matrix el. (prc) = -2.49037E-07
    Event weight (ref)       =  1.60826E-08
    Event weight (prc)       =  0.00000E+00
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            3913894726.0,         1013504363.0,         4004029631.0,
            3745048320.0,         2602019895.0,         3943078012.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   2.499915E+05
  P =   4.862173E+04 -4.973561E+04 -2.401209E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.370804E+05
  P =  -4.571149E+04  4.767555E+04  2.276941E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.292817E+04
  P =  -2.910240E+03  2.060060E+03  1.242676E+04
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
             691625295.0,         3378437961.0,         1571131719.0,
             108026903.0,         3340318134.0,         3620710479.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.629667E+05
  P =   3.184238E+04 -3.223531E+04 -1.565410E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.633022E+05
  P =  -1.040587E+05  1.195116E+05  3.945081E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.982397E+04
  P =  -4.241028E+03  3.448027E+03  1.905556E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.539072E+05
  P =   7.645734E+04 -9.072433E+04  9.803463E+04
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  2.141170135E-12
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499915E+05
  P =   4.862173E+04 -4.973561E+04 -2.401209E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.370804E+05
  P =  -4.571149E+04  4.767555E+04  2.276941E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.292817E+04
  P =  -2.910240E+03  2.060060E+03  1.242676E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.468486E+05
  P =   4.791335E+04 -4.923417E+04 -2.370961E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.400985E+05
  P =  -4.639184E+04  4.815715E+04  2.305992E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   4.660191E+03
  P =  -3.451326E+03  2.749984E+03 -1.497770E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   8.392675E+03
  P =   1.929819E+03 -1.672961E+03  7.994623E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   1.817300E+05
  P =  -8.851315E+04  7.882993E+04 -1.377572E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   1.479079E+05
  P =  -2.836791E+04  2.993464E+04  1.420419E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   8.073434E+03
  P =  -1.964125E+03  1.092270E+03  7.754321E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.622888E+05
  P =   1.188452E+05 -1.098568E+05 -1.203907E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.629667E+05
  P =   3.184238E+04 -3.223531E+04 -1.565410E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.633022E+05
  P =  -1.040587E+05  1.195116E+05  3.945081E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.982397E+04
  P =  -4.241028E+03  3.448027E+03  1.905556E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.539072E+05
  P =   7.645734E+04 -9.072433E+04  9.803463E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 3
 n_tot* => 5
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* => -2.49037E-07
 sqme_ref* =>  3.89241E-10
 event_index* => 1
 event_weight* =>  0.00000E+00
 event_weight_ref* =>  1.60826E-08
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-2| 2.4999146E+05; 4.8621734E+04,-4.9735609E+04,-2.4012086E+05| 0.0000000E+00| 3)
  4 prt(o:2| 2.3708037E+05;-4.5711494E+04, 4.7675549E+04, 2.2769410E+05| 0.0000000E+00| 4)
  5 prt(o:21| 1.2928173E+04;-2.9102400E+03, 2.0600599E+03, 1.2426758E+04| 0.0000000E+00| 5)
 ========================================================================
 ========================================================================
  Event #1
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  3.89241E-10
    Squared matrix el. (prc) =  3.85037E-10
    Event weight (ref)       =  1.60826E-08
    Event weight (prc)       =  1.59089E-08
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            3913894726.0,         1013504363.0,         4004029631.0,
            3745048320.0,         2602019895.0,         3943078012.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   2.499915E+05
  P =   4.862173E+04 -4.973561E+04 -2.401209E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.370804E+05
  P =  -4.571149E+04  4.767555E+04  2.276941E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.292817E+04
  P =  -2.910240E+03  2.060060E+03  1.242676E+04
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
             691625295.0,         3378437961.0,         1571131719.0,
             108026903.0,         3340318134.0,         3620710479.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.629667E+05
  P =   3.184238E+04 -3.223531E+04 -1.565410E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.633022E+05
  P =  -1.040587E+05  1.195116E+05  3.945081E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.982397E+04
  P =  -4.241028E+03  3.448027E+03  1.905556E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.539072E+05
  P =   7.645734E+04 -9.072433E+04  9.803463E+04
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  2.141170135E-12
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499915E+05
  P =   4.862173E+04 -4.973561E+04 -2.401209E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.370804E+05
  P =  -4.571149E+04  4.767555E+04  2.276941E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.292817E+04
  P =  -2.910240E+03  2.060060E+03  1.242676E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.468486E+05
  P =   4.791335E+04 -4.923417E+04 -2.370961E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.400985E+05
  P =  -4.639184E+04  4.815715E+04  2.305992E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   4.660191E+03
  P =  -3.451326E+03  2.749984E+03 -1.497770E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   8.392675E+03
  P =   1.929819E+03 -1.672961E+03  7.994623E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   1.817300E+05
  P =  -8.851315E+04  7.882993E+04 -1.377572E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   1.479079E+05
  P =  -2.836791E+04  2.993464E+04  1.420419E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   8.073434E+03
  P =  -1.964125E+03  1.092270E+03  7.754321E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.622888E+05
  P =   1.188452E+05 -1.098568E+05 -1.203907E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.629667E+05
  P =   3.184238E+04 -3.223531E+04 -1.565410E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.633022E+05
  P =  -1.040587E+05  1.195116E+05  3.945081E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.982397E+04
  P =  -4.241028E+03  3.448027E+03  1.905556E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.539072E+05
  P =   7.645734E+04 -9.072433E+04  9.803463E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  3.85037E-10
 sqme_ref* =>  3.89241E-10
 event_index* => 1
 event_weight* =>  1.59089E-08
 event_weight_ref* =>  1.60826E-08
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-1| 2.4684860E+05; 4.7913352E+04,-4.9234169E+04,-2.3709605E+05| 0.0000000E+00| 3)
  4 prt(o:1| 2.4009853E+05;-4.6391844E+04, 4.8157146E+04, 2.3059920E+05| 0.0000000E+00| 4)
  5 prt(o:21| 4.6601911E+03;-3.4513264E+03, 2.7499842E+03,-1.4977696E+03| 0.0000000E+00| 5)
  6 prt(o:21| 8.3926755E+03; 1.9298191E+03,-1.6729609E+03, 7.9946233E+03| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #1
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  3.89241E-10
    Squared matrix el. (prc) =  2.06251E-12
    Event weight (ref)       =  1.60826E-08
    Event weight (prc)       =  8.52183E-11
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            3913894726.0,         1013504363.0,         4004029631.0,
            3745048320.0,         2602019895.0,         3943078012.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   2.499915E+05
  P =   4.862173E+04 -4.973561E+04 -2.401209E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.370804E+05
  P =  -4.571149E+04  4.767555E+04  2.276941E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.292817E+04
  P =  -2.910240E+03  2.060060E+03  1.242676E+04
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
             691625295.0,         3378437961.0,         1571131719.0,
             108026903.0,         3340318134.0,         3620710479.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.629667E+05
  P =   3.184238E+04 -3.223531E+04 -1.565410E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.633022E+05
  P =  -1.040587E+05  1.195116E+05  3.945081E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.982397E+04
  P =  -4.241028E+03  3.448027E+03  1.905556E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.539072E+05
  P =   7.645734E+04 -9.072433E+04  9.803463E+04
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  2.141170135E-12
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499915E+05
  P =   4.862173E+04 -4.973561E+04 -2.401209E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.370804E+05
  P =  -4.571149E+04  4.767555E+04  2.276941E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.292817E+04
  P =  -2.910240E+03  2.060060E+03  1.242676E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.468486E+05
  P =   4.791335E+04 -4.923417E+04 -2.370961E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.400985E+05
  P =  -4.639184E+04  4.815715E+04  2.305992E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   4.660191E+03
  P =  -3.451326E+03  2.749984E+03 -1.497770E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   8.392675E+03
  P =   1.929819E+03 -1.672961E+03  7.994623E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   1.817300E+05
  P =  -8.851315E+04  7.882993E+04 -1.377572E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   1.479079E+05
  P =  -2.836791E+04  2.993464E+04  1.420419E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   8.073434E+03
  P =  -1.964125E+03  1.092270E+03  7.754321E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.622888E+05
  P =   1.188452E+05 -1.098568E+05 -1.203907E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.629667E+05
  P =   3.184238E+04 -3.223531E+04 -1.565410E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.633022E+05
  P =  -1.040587E+05  1.195116E+05  3.945081E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.982397E+04
  P =  -4.241028E+03  3.448027E+03  1.905556E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.539072E+05
  P =   7.645734E+04 -9.072433E+04  9.803463E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  2.06251E-12
 sqme_ref* =>  3.89241E-10
 event_index* => 1
 event_weight* =>  8.52183E-11
 event_weight_ref* =>  1.60826E-08
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-1| 1.8172996E+05;-8.8513148E+04, 7.8829927E+04,-1.3775719E+05| 0.0000000E+00| 3)
  4 prt(o:1| 1.4790785E+05;-2.8367908E+04, 2.9934639E+04, 1.4204194E+05| 0.0000000E+00| 4)
  5 prt(o:21| 8.0734344E+03;-1.9641249E+03, 1.0922702E+03, 7.7543215E+03| 0.0000000E+00| 5)
  6 prt(o:21| 1.6228876E+05; 1.1884518E+05,-1.0985684E+05,-1.2039071E+04| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #1
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  3.89241E-10
    Squared matrix el. (prc) =  2.14117E-12
    Event weight (ref)       =  1.60826E-08
    Event weight (prc)       =  8.84686E-11
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            3913894726.0,         1013504363.0,         4004029631.0,
            3745048320.0,         2602019895.0,         3943078012.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   2.499915E+05
  P =   4.862173E+04 -4.973561E+04 -2.401209E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.370804E+05
  P =  -4.571149E+04  4.767555E+04  2.276941E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.292817E+04
  P =  -2.910240E+03  2.060060E+03  1.242676E+04
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
             691625295.0,         3378437961.0,         1571131719.0,
             108026903.0,         3340318134.0,         3620710479.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.629667E+05
  P =   3.184238E+04 -3.223531E+04 -1.565410E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.633022E+05
  P =  -1.040587E+05  1.195116E+05  3.945081E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.982397E+04
  P =  -4.241028E+03  3.448027E+03  1.905556E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.539072E+05
  P =   7.645734E+04 -9.072433E+04  9.803463E+04
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  2.141170135E-12
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499915E+05
  P =   4.862173E+04 -4.973561E+04 -2.401209E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.370804E+05
  P =  -4.571149E+04  4.767555E+04  2.276941E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.292817E+04
  P =  -2.910240E+03  2.060060E+03  1.242676E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.468486E+05
  P =   4.791335E+04 -4.923417E+04 -2.370961E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.400985E+05
  P =  -4.639184E+04  4.815715E+04  2.305992E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   4.660191E+03
  P =  -3.451326E+03  2.749984E+03 -1.497770E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   8.392675E+03
  P =   1.929819E+03 -1.672961E+03  7.994623E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   1.817300E+05
  P =  -8.851315E+04  7.882993E+04 -1.377572E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   1.479079E+05
  P =  -2.836791E+04  2.993464E+04  1.420419E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   8.073434E+03
  P =  -1.964125E+03  1.092270E+03  7.754321E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.622888E+05
  P =   1.188452E+05 -1.098568E+05 -1.203907E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.629667E+05
  P =   3.184238E+04 -3.223531E+04 -1.565410E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.633022E+05
  P =  -1.040587E+05  1.195116E+05  3.945081E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.982397E+04
  P =  -4.241028E+03  3.448027E+03  1.905556E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.539072E+05
  P =   7.645734E+04 -9.072433E+04  9.803463E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  2.14117E-12
 sqme_ref* =>  3.89241E-10
 event_index* => 1
 event_weight* =>  8.84686E-11
 event_weight_ref* =>  1.60826E-08
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-2| 1.6296668E+05; 3.1842380E+04,-3.2235307E+04,-1.5654100E+05| 0.0000000E+00| 3)
  4 prt(o:2| 1.6330218E+05;-1.0405869E+05, 1.1951161E+05, 3.9450809E+04| 0.0000000E+00| 4)
  5 prt(o:21| 1.9823968E+04;-4.2410282E+03, 3.4480271E+03, 1.9055564E+04| 0.0000000E+00| 5)
  6 prt(o:21| 1.5390717E+05; 7.6457341E+04,-9.0724330E+04, 9.8034629E+04| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #2
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  2.99461E-09
    Squared matrix el. (prc) = -5.90914E-08
    Event weight (ref)       =  6.26874E-05
    Event weight (prc)       =  0.00000E+00
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            2566007711.0,         2240170159.0,         3022189282.0,
             484554216.0,         1681294000.0,         1422185293.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.498922E+05
  P =   1.467270E+04  1.078419E+05 -2.249466E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.373179E+05
  P =  -1.246891E+04 -1.008762E+05  2.144488E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.278990E+04
  P =  -2.203788E+03 -6.965738E+03  1.049778E+04
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            3393932940.0,         2952039924.0,         1817149397.0,
            3151505971.0,         2985798367.0,         2791898150.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.281457E+05
  P =   1.353006E+04  9.859771E+04 -2.052946E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.053352E+05
  P =  -3.309403E+03 -1.298055E+05  1.590664E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.398838E+04
  P =  -2.267795E+03 -7.483572E+03  1.159862E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   5.253073E+04
  P =  -7.952860E+03  3.869137E+04  3.462957E+04
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  6.319084955E-11
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.498922E+05
  P =   1.467270E+04  1.078419E+05 -2.249466E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.373179E+05
  P =  -1.246891E+04 -1.008762E+05  2.144488E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.278990E+04
  P =  -2.203788E+03 -6.965738E+03  1.049778E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.487563E+05
  P =   1.447377E+04  1.072132E+05 -2.239990E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.383998E+05
  P =  -1.265869E+04 -1.014761E+05  2.153528E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.001283E+04
  P =  -1.661639E+03 -7.492873E+03  6.430601E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.831067E+03
  P =  -1.534389E+02  1.755770E+03  2.215551E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.174964E+05
  P =  -7.025912E+03  4.712115E+04 -2.122144E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.155529E+05
  P =  -1.119089E+04 -9.148298E+04  1.948555E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.163656E+04
  P =  -2.134855E+03 -6.459096E+03  9.440977E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   5.531409E+04
  P =   2.035166E+04  5.082092E+04  7.917847E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.281457E+05
  P =   1.353006E+04  9.859771E+04 -2.052946E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.053352E+05
  P =  -3.309403E+03 -1.298055E+05  1.590664E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.398838E+04
  P =  -2.267795E+03 -7.483572E+03  1.159862E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   5.253073E+04
  P =  -7.952860E+03  3.869137E+04  3.462957E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 3
 n_tot* => 5
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* => -5.90914E-08
 sqme_ref* =>  2.99461E-09
 event_index* => 2
 event_weight* =>  0.00000E+00
 event_weight_ref* =>  6.26874E-05
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-2| 2.4989224E+05; 1.4672701E+04, 1.0784194E+05,-2.2494657E+05| 0.0000000E+00| 3)
  4 prt(o:2| 2.3731786E+05;-1.2468913E+04,-1.0087620E+05, 2.1444879E+05| 0.0000000E+00| 4)
  5 prt(o:21| 1.2789898E+04;-2.2037877E+03,-6.9657375E+03, 1.0497777E+04| 0.0000000E+00| 5)
 ========================================================================
 ========================================================================
  Event #2
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  2.99461E-09
    Squared matrix el. (prc) =  2.87907E-09
    Event weight (ref)       =  6.26874E-05
    Event weight (prc)       =  6.02689E-05
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            2566007711.0,         2240170159.0,         3022189282.0,
             484554216.0,         1681294000.0,         1422185293.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.498922E+05
  P =   1.467270E+04  1.078419E+05 -2.249466E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.373179E+05
  P =  -1.246891E+04 -1.008762E+05  2.144488E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.278990E+04
  P =  -2.203788E+03 -6.965738E+03  1.049778E+04
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            3393932940.0,         2952039924.0,         1817149397.0,
            3151505971.0,         2985798367.0,         2791898150.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.281457E+05
  P =   1.353006E+04  9.859771E+04 -2.052946E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.053352E+05
  P =  -3.309403E+03 -1.298055E+05  1.590664E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.398838E+04
  P =  -2.267795E+03 -7.483572E+03  1.159862E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   5.253073E+04
  P =  -7.952860E+03  3.869137E+04  3.462957E+04
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  6.319084955E-11
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.498922E+05
  P =   1.467270E+04  1.078419E+05 -2.249466E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.373179E+05
  P =  -1.246891E+04 -1.008762E+05  2.144488E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.278990E+04
  P =  -2.203788E+03 -6.965738E+03  1.049778E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.487563E+05
  P =   1.447377E+04  1.072132E+05 -2.239990E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.383998E+05
  P =  -1.265869E+04 -1.014761E+05  2.153528E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.001283E+04
  P =  -1.661639E+03 -7.492873E+03  6.430601E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.831067E+03
  P =  -1.534389E+02  1.755770E+03  2.215551E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.174964E+05
  P =  -7.025912E+03  4.712115E+04 -2.122144E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.155529E+05
  P =  -1.119089E+04 -9.148298E+04  1.948555E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.163656E+04
  P =  -2.134855E+03 -6.459096E+03  9.440977E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   5.531409E+04
  P =   2.035166E+04  5.082092E+04  7.917847E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.281457E+05
  P =   1.353006E+04  9.859771E+04 -2.052946E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.053352E+05
  P =  -3.309403E+03 -1.298055E+05  1.590664E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.398838E+04
  P =  -2.267795E+03 -7.483572E+03  1.159862E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   5.253073E+04
  P =  -7.952860E+03  3.869137E+04  3.462957E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  2.87907E-09
 sqme_ref* =>  2.99461E-09
 event_index* => 2
 event_weight* =>  6.02689E-05
 event_weight_ref* =>  6.26874E-05
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-1| 2.4875629E+05; 1.4473772E+04, 1.0721317E+05,-2.2399897E+05| 0.0000000E+00| 3)
  4 prt(o:1| 2.3839981E+05;-1.2658694E+04,-1.0147606E+05, 2.1535282E+05| 0.0000000E+00| 4)
  5 prt(o:21| 1.0012832E+04;-1.6616390E+03,-7.4928729E+03, 6.4306006E+03| 0.0000000E+00| 5)
  6 prt(o:21| 2.8310666E+03;-1.5343894E+02, 1.7557702E+03, 2.2155509E+03| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #2
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  2.99461E-09
    Squared matrix el. (prc) =  5.23412E-11
    Event weight (ref)       =  6.26874E-05
    Event weight (prc)       =  1.09568E-06
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            2566007711.0,         2240170159.0,         3022189282.0,
             484554216.0,         1681294000.0,         1422185293.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.498922E+05
  P =   1.467270E+04  1.078419E+05 -2.249466E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.373179E+05
  P =  -1.246891E+04 -1.008762E+05  2.144488E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.278990E+04
  P =  -2.203788E+03 -6.965738E+03  1.049778E+04
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            3393932940.0,         2952039924.0,         1817149397.0,
            3151505971.0,         2985798367.0,         2791898150.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.281457E+05
  P =   1.353006E+04  9.859771E+04 -2.052946E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.053352E+05
  P =  -3.309403E+03 -1.298055E+05  1.590664E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.398838E+04
  P =  -2.267795E+03 -7.483572E+03  1.159862E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   5.253073E+04
  P =  -7.952860E+03  3.869137E+04  3.462957E+04
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  6.319084955E-11
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.498922E+05
  P =   1.467270E+04  1.078419E+05 -2.249466E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.373179E+05
  P =  -1.246891E+04 -1.008762E+05  2.144488E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.278990E+04
  P =  -2.203788E+03 -6.965738E+03  1.049778E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.487563E+05
  P =   1.447377E+04  1.072132E+05 -2.239990E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.383998E+05
  P =  -1.265869E+04 -1.014761E+05  2.153528E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.001283E+04
  P =  -1.661639E+03 -7.492873E+03  6.430601E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.831067E+03
  P =  -1.534389E+02  1.755770E+03  2.215551E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.174964E+05
  P =  -7.025912E+03  4.712115E+04 -2.122144E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.155529E+05
  P =  -1.119089E+04 -9.148298E+04  1.948555E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.163656E+04
  P =  -2.134855E+03 -6.459096E+03  9.440977E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   5.531409E+04
  P =   2.035166E+04  5.082092E+04  7.917847E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.281457E+05
  P =   1.353006E+04  9.859771E+04 -2.052946E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.053352E+05
  P =  -3.309403E+03 -1.298055E+05  1.590664E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.398838E+04
  P =  -2.267795E+03 -7.483572E+03  1.159862E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   5.253073E+04
  P =  -7.952860E+03  3.869137E+04  3.462957E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  5.23412E-11
 sqme_ref* =>  2.99461E-09
 event_index* => 2
 event_weight* =>  1.09568E-06
 event_weight_ref* =>  6.26874E-05
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-1| 2.1749644E+05;-7.0259125E+03, 4.7121148E+04,-2.1221437E+05| 0.0000000E+00| 3)
  4 prt(o:1| 2.1555290E+05;-1.1190894E+04,-9.1482976E+04, 1.9485554E+05| 0.0000000E+00| 4)
  5 prt(o:21| 1.1636562E+04;-2.1348553E+03,-6.4590957E+03, 9.4409767E+03| 0.0000000E+00| 5)
  6 prt(o:21| 5.5314091E+04; 2.0351662E+04, 5.0820923E+04, 7.9178466E+03| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #2
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  2.99461E-09
    Squared matrix el. (prc) =  6.31908E-11
    Event weight (ref)       =  6.26874E-05
    Event weight (prc)       =  1.32280E-06
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            2566007711.0,         2240170159.0,         3022189282.0,
             484554216.0,         1681294000.0,         1422185293.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.498922E+05
  P =   1.467270E+04  1.078419E+05 -2.249466E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.373179E+05
  P =  -1.246891E+04 -1.008762E+05  2.144488E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.278990E+04
  P =  -2.203788E+03 -6.965738E+03  1.049778E+04
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            3393932940.0,         2952039924.0,         1817149397.0,
            3151505971.0,         2985798367.0,         2791898150.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.281457E+05
  P =   1.353006E+04  9.859771E+04 -2.052946E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.053352E+05
  P =  -3.309403E+03 -1.298055E+05  1.590664E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.398838E+04
  P =  -2.267795E+03 -7.483572E+03  1.159862E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   5.253073E+04
  P =  -7.952860E+03  3.869137E+04  3.462957E+04
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  6.319084955E-11
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.498922E+05
  P =   1.467270E+04  1.078419E+05 -2.249466E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.373179E+05
  P =  -1.246891E+04 -1.008762E+05  2.144488E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.278990E+04
  P =  -2.203788E+03 -6.965738E+03  1.049778E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.487563E+05
  P =   1.447377E+04  1.072132E+05 -2.239990E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.383998E+05
  P =  -1.265869E+04 -1.014761E+05  2.153528E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.001283E+04
  P =  -1.661639E+03 -7.492873E+03  6.430601E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.831067E+03
  P =  -1.534389E+02  1.755770E+03  2.215551E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.174964E+05
  P =  -7.025912E+03  4.712115E+04 -2.122144E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.155529E+05
  P =  -1.119089E+04 -9.148298E+04  1.948555E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.163656E+04
  P =  -2.134855E+03 -6.459096E+03  9.440977E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   5.531409E+04
  P =   2.035166E+04  5.082092E+04  7.917847E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.281457E+05
  P =   1.353006E+04  9.859771E+04 -2.052946E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.053352E+05
  P =  -3.309403E+03 -1.298055E+05  1.590664E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.398838E+04
  P =  -2.267795E+03 -7.483572E+03  1.159862E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   5.253073E+04
  P =  -7.952860E+03  3.869137E+04  3.462957E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  6.31908E-11
 sqme_ref* =>  2.99461E-09
 event_index* => 2
 event_weight* =>  1.32280E-06
 event_weight_ref* =>  6.26874E-05
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-2| 2.2814568E+05; 1.3530057E+04, 9.8597709E+04,-2.0529462E+05| 0.0000000E+00| 3)
  4 prt(o:2| 2.0533521E+05;-3.3094026E+03,-1.2980551E+05, 1.5906642E+05| 0.0000000E+00| 4)
  5 prt(o:21| 1.3988379E+04;-2.2677952E+03,-7.4835722E+03, 1.1598621E+04| 0.0000000E+00| 5)
  6 prt(o:21| 5.2530730E+04;-7.9528596E+03, 3.8691371E+04, 3.4629575E+04| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #3
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  5.35571E-11
    Squared matrix el. (prc) = -1.05790E-03
    Event weight (ref)       =  4.09767E-11
    Event weight (prc)       =  0.00000E+00
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
             658726814.0,          695277609.0,         1316830081.0,
            2131992430.0,          749504030.0,          880099028.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   2.499928E+05
  P =   5.475444E+04  2.208097E+05 -1.036409E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.499951E+05
  P =  -5.474567E+04 -2.208105E+05  1.036492E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.210257E+01
  P =  -8.773280E+00  8.058842E-01 -8.297732E+00
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            1100463693.0,         3654384047.0,          647619641.0,
             459938003.0,         1733458346.0,         3954010958.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.194056E+05
  P =   4.805624E+04  1.937933E+05 -9.095929E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.378724E+05
  P =  -6.655189E+04 -2.196641E+05  6.246438E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.191381E+01
  P =  -9.115988E+00 -5.763905E-01 -7.648888E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   4.271009E+04
  P =   1.850477E+04  2.587141E+04  2.850256E+04
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  1.923323087E-11
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499928E+05
  P =   5.475444E+04  2.208097E+05 -1.036409E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.499951E+05
  P =  -5.474567E+04 -2.208105E+05  1.036492E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.210257E+01
  P =  -8.773280E+00  8.058842E-01 -8.297732E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.499931E+05
  P =   5.475338E+04  2.208098E+05 -1.036419E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.499948E+05
  P =  -5.474673E+04 -2.208104E+05  1.036482E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   1.003499E+01
  P =  -5.807919E+00  1.109636E+00 -8.107880E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   2.067649E+00
  P =  -8.361985E-01 -4.993300E-01  1.823900E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.378699E+05
  P =   5.893797E+04  1.889232E+05 -1.319714E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.194078E+05
  P =  -4.804633E+04 -1.937939E+05  9.096849E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.249769E+01
  P =  -8.422184E+00  2.221758E+00 -8.962297E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   4.270971E+04
  P =  -1.088321E+04  4.868496E+03  4.101186E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.194056E+05
  P =   4.805624E+04  1.937933E+05 -9.095929E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.378724E+05
  P =  -6.655189E+04 -2.196641E+05  6.246438E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.191381E+01
  P =  -9.115988E+00 -5.763905E-01 -7.648888E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   4.271009E+04
  P =   1.850477E+04  2.587141E+04  2.850256E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 3
 n_tot* => 5
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* => -1.05790E-03
 sqme_ref* =>  5.35571E-11
 event_index* => 3
 event_weight* =>  0.00000E+00
 event_weight_ref* =>  4.09767E-11
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-2| 2.4999283E+05; 5.4754444E+04, 2.2080972E+05,-1.0364090E+05| 0.0000000E+00| 3)
  4 prt(o:2| 2.4999506E+05;-5.4745670E+04,-2.2081052E+05, 1.0364920E+05| 0.0000000E+00| 4)
  5 prt(o:21| 1.2102572E+01;-8.7732797E+00, 8.0588417E-01,-8.2977324E+00| 0.0000000E+00| 5)
 ========================================================================
 ========================================================================
  Event #3
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  5.35571E-11
    Squared matrix el. (prc) =  4.00259E-04
    Event weight (ref)       =  4.09767E-11
    Event weight (prc)       =  0.00000E+00
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
             658726814.0,          695277609.0,         1316830081.0,
            2131992430.0,          749504030.0,          880099028.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   2.499928E+05
  P =   5.475444E+04  2.208097E+05 -1.036409E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.499951E+05
  P =  -5.474567E+04 -2.208105E+05  1.036492E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.210257E+01
  P =  -8.773280E+00  8.058842E-01 -8.297732E+00
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            1100463693.0,         3654384047.0,          647619641.0,
             459938003.0,         1733458346.0,         3954010958.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.194056E+05
  P =   4.805624E+04  1.937933E+05 -9.095929E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.378724E+05
  P =  -6.655189E+04 -2.196641E+05  6.246438E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.191381E+01
  P =  -9.115988E+00 -5.763905E-01 -7.648888E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   4.271009E+04
  P =   1.850477E+04  2.587141E+04  2.850256E+04
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  1.923323087E-11
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499928E+05
  P =   5.475444E+04  2.208097E+05 -1.036409E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.499951E+05
  P =  -5.474567E+04 -2.208105E+05  1.036492E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.210257E+01
  P =  -8.773280E+00  8.058842E-01 -8.297732E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.499931E+05
  P =   5.475338E+04  2.208098E+05 -1.036419E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.499948E+05
  P =  -5.474673E+04 -2.208104E+05  1.036482E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   1.003499E+01
  P =  -5.807919E+00  1.109636E+00 -8.107880E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   2.067649E+00
  P =  -8.361985E-01 -4.993300E-01  1.823900E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.378699E+05
  P =   5.893797E+04  1.889232E+05 -1.319714E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.194078E+05
  P =  -4.804633E+04 -1.937939E+05  9.096849E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.249769E+01
  P =  -8.422184E+00  2.221758E+00 -8.962297E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   4.270971E+04
  P =  -1.088321E+04  4.868496E+03  4.101186E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.194056E+05
  P =   4.805624E+04  1.937933E+05 -9.095929E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.378724E+05
  P =  -6.655189E+04 -2.196641E+05  6.246438E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.191381E+01
  P =  -9.115988E+00 -5.763905E-01 -7.648888E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   4.271009E+04
  P =   1.850477E+04  2.587141E+04  2.850256E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  4.00259E-04
 sqme_ref* =>  5.35571E-11
 event_index* => 3
 event_weight* =>  0.00000E+00
 event_weight_ref* =>  4.09767E-11
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-2| 2.4999310E+05; 5.4753379E+04, 2.2080982E+05,-1.0364191E+05| 0.0000000E+00| 3)
  4 prt(o:2| 2.4999479E+05;-5.4746735E+04,-2.2081043E+05, 1.0364819E+05| 0.0000000E+00| 4)
  5 prt(o:-2| 1.0034986E+01;-5.8079193E+00, 1.1096365E+00,-8.1078801E+00| 0.0000000E+00| 5)
  6 prt(o:2| 2.0676487E+00;-8.3619846E-01,-4.9933002E-01, 1.8239005E+00| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #3
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  5.35571E-11
    Squared matrix el. (prc) =  3.43239E-11
    Event weight (ref)       =  4.09767E-11
    Event weight (prc)       =  2.62613E-11
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
             658726814.0,          695277609.0,         1316830081.0,
            2131992430.0,          749504030.0,          880099028.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   2.499928E+05
  P =   5.475444E+04  2.208097E+05 -1.036409E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.499951E+05
  P =  -5.474567E+04 -2.208105E+05  1.036492E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.210257E+01
  P =  -8.773280E+00  8.058842E-01 -8.297732E+00
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            1100463693.0,         3654384047.0,          647619641.0,
             459938003.0,         1733458346.0,         3954010958.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.194056E+05
  P =   4.805624E+04  1.937933E+05 -9.095929E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.378724E+05
  P =  -6.655189E+04 -2.196641E+05  6.246438E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.191381E+01
  P =  -9.115988E+00 -5.763905E-01 -7.648888E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   4.271009E+04
  P =   1.850477E+04  2.587141E+04  2.850256E+04
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  1.923323087E-11
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499928E+05
  P =   5.475444E+04  2.208097E+05 -1.036409E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.499951E+05
  P =  -5.474567E+04 -2.208105E+05  1.036492E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.210257E+01
  P =  -8.773280E+00  8.058842E-01 -8.297732E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.499931E+05
  P =   5.475338E+04  2.208098E+05 -1.036419E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.499948E+05
  P =  -5.474673E+04 -2.208104E+05  1.036482E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   1.003499E+01
  P =  -5.807919E+00  1.109636E+00 -8.107880E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   2.067649E+00
  P =  -8.361985E-01 -4.993300E-01  1.823900E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.378699E+05
  P =   5.893797E+04  1.889232E+05 -1.319714E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.194078E+05
  P =  -4.804633E+04 -1.937939E+05  9.096849E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.249769E+01
  P =  -8.422184E+00  2.221758E+00 -8.962297E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   4.270971E+04
  P =  -1.088321E+04  4.868496E+03  4.101186E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.194056E+05
  P =   4.805624E+04  1.937933E+05 -9.095929E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.378724E+05
  P =  -6.655189E+04 -2.196641E+05  6.246438E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.191381E+01
  P =  -9.115988E+00 -5.763905E-01 -7.648888E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   4.271009E+04
  P =   1.850477E+04  2.587141E+04  2.850256E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  3.43239E-11
 sqme_ref* =>  5.35571E-11
 event_index* => 3
 event_weight* =>  2.62613E-11
 event_weight_ref* =>  4.09767E-11
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-1| 2.3786995E+05; 5.8937970E+04, 1.8892321E+05,-1.3197139E+05| 0.0000000E+00| 3)
  4 prt(o:1| 2.1940785E+05;-4.8046334E+04,-1.9379393E+05, 9.0968487E+04| 0.0000000E+00| 4)
  5 prt(o:21| 1.2497686E+01;-8.4221839E+00, 2.2217578E+00,-8.9622975E+00| 0.0000000E+00| 5)
  6 prt(o:21| 4.2709712E+04;-1.0883214E+04, 4.8684964E+03, 4.1011862E+04| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #3
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  5.35571E-11
    Squared matrix el. (prc) =  1.92332E-11
    Event weight (ref)       =  4.09767E-11
    Event weight (prc)       =  1.47154E-11
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
             658726814.0,          695277609.0,         1316830081.0,
            2131992430.0,          749504030.0,          880099028.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   2.499928E+05
  P =   5.475444E+04  2.208097E+05 -1.036409E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.499951E+05
  P =  -5.474567E+04 -2.208105E+05  1.036492E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.210257E+01
  P =  -8.773280E+00  8.058842E-01 -8.297732E+00
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            1100463693.0,         3654384047.0,          647619641.0,
             459938003.0,         1733458346.0,         3954010958.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.194056E+05
  P =   4.805624E+04  1.937933E+05 -9.095929E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.378724E+05
  P =  -6.655189E+04 -2.196641E+05  6.246438E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.191381E+01
  P =  -9.115988E+00 -5.763905E-01 -7.648888E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   4.271009E+04
  P =   1.850477E+04  2.587141E+04  2.850256E+04
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  1.923323087E-11
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499928E+05
  P =   5.475444E+04  2.208097E+05 -1.036409E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.499951E+05
  P =  -5.474567E+04 -2.208105E+05  1.036492E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.210257E+01
  P =  -8.773280E+00  8.058842E-01 -8.297732E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.499931E+05
  P =   5.475338E+04  2.208098E+05 -1.036419E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.499948E+05
  P =  -5.474673E+04 -2.208104E+05  1.036482E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   1.003499E+01
  P =  -5.807919E+00  1.109636E+00 -8.107880E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   2.067649E+00
  P =  -8.361985E-01 -4.993300E-01  1.823900E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.378699E+05
  P =   5.893797E+04  1.889232E+05 -1.319714E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.194078E+05
  P =  -4.804633E+04 -1.937939E+05  9.096849E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.249769E+01
  P =  -8.422184E+00  2.221758E+00 -8.962297E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   4.270971E+04
  P =  -1.088321E+04  4.868496E+03  4.101186E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.194056E+05
  P =   4.805624E+04  1.937933E+05 -9.095929E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.378724E+05
  P =  -6.655189E+04 -2.196641E+05  6.246438E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.191381E+01
  P =  -9.115988E+00 -5.763905E-01 -7.648888E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   4.271009E+04
  P =   1.850477E+04  2.587141E+04  2.850256E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  1.92332E-11
 sqme_ref* =>  5.35571E-11
 event_index* => 3
 event_weight* =>  1.47154E-11
 event_weight_ref* =>  4.09767E-11
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-2| 2.1940561E+05; 4.8056240E+04, 1.9379326E+05,-9.0959286E+04| 0.0000000E+00| 3)
  4 prt(o:2| 2.3787238E+05;-6.6551890E+04,-2.1966410E+05, 6.2464380E+04| 0.0000000E+00| 4)
  5 prt(o:21| 1.1913813E+01;-9.1159878E+00,-5.7639049E-01,-7.6488881E+00| 0.0000000E+00| 5)
  6 prt(o:21| 4.2710093E+04; 1.8504766E+04, 2.5871413E+04, 2.8502555E+04| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #4
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  2.11517E-10
    Squared matrix el. (prc) = -4.20084E-09
    Event weight (ref)       =  2.67265E-07
    Event weight (prc)       =  0.00000E+00
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
             852933358.0,         3802412940.0,         3514872455.0,
            1024477926.0,         3849273974.0,          775318609.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   2.376849E+05
  P =  -9.734745E+04 -1.760988E+05 -1.265181E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.496755E+05
  P =   1.059795E+05  1.834956E+05  1.320437E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.263958E+04
  P =  -8.632067E+03 -7.396841E+03 -5.525686E+03
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
             598672993.0,          229519251.0,         2192350721.0,
            2167080660.0,         1984333633.0,         1125498793.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   1.681412E+05
  P =  -6.782269E+04 -1.249789E+05 -8.973208E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   1.734932E+05
  P =  -1.186191E+04  3.511476E+04  1.694879E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.158701E+03
  P =  -7.046193E+03 -4.651018E+03 -3.549788E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.492069E+05
  P =   8.673079E+04  9.451512E+04 -7.620600E+04
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  2.057479501E-12
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.376849E+05
  P =  -9.734745E+04 -1.760988E+05 -1.265181E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.496755E+05
  P =   1.059795E+05  1.834956E+05  1.320437E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.263958E+04
  P =  -8.632067E+03 -7.396841E+03 -5.525686E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   2.402098E+05
  P =  -9.916913E+04 -1.776598E+05 -1.276842E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.470398E+05
  P =   1.040861E+05  1.818731E+05  1.308317E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   5.196862E+03
  P =  -1.974904E+03 -3.054029E+03  3.712147E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   7.553455E+03
  P =  -2.942054E+03 -1.159324E+03 -6.859662E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.595906E+05
  P =  -4.904747E+04 -1.427702E+05  5.177032E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.811710E+05
  P =   7.791726E+04  1.327318E+05  9.557250E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.719717E+04
  P =  -1.057542E+04 -1.091231E+04 -8.051372E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.420413E+05
  P =  -1.829437E+04  2.095069E+04 -1.392914E+05
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   1.681412E+05
  P =  -6.782269E+04 -1.249789E+05 -8.973208E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   1.734932E+05
  P =  -1.186191E+04  3.511476E+04  1.694879E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.158701E+03
  P =  -7.046193E+03 -4.651018E+03 -3.549788E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.492069E+05
  P =   8.673079E+04  9.451512E+04 -7.620600E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 3
 n_tot* => 5
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* => -4.20084E-09
 sqme_ref* =>  2.11517E-10
 event_index* => 4
 event_weight* =>  0.00000E+00
 event_weight_ref* =>  2.67265E-07
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-2| 2.3768493E+05;-9.7347450E+04,-1.7609878E+05,-1.2651805E+05| 0.0000000E+00| 3)
  4 prt(o:2| 2.4967549E+05; 1.0597952E+05, 1.8349562E+05, 1.3204374E+05| 0.0000000E+00| 4)
  5 prt(o:21| 1.2639582E+04;-8.6320673E+03,-7.3968406E+03,-5.5256857E+03| 0.0000000E+00| 5)
 ========================================================================
 ========================================================================
  Event #4
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  2.11517E-10
    Squared matrix el. (prc) =  2.07646E-10
    Event weight (ref)       =  2.67265E-07
    Event weight (prc)       =  2.62373E-07
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
             852933358.0,         3802412940.0,         3514872455.0,
            1024477926.0,         3849273974.0,          775318609.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   2.376849E+05
  P =  -9.734745E+04 -1.760988E+05 -1.265181E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.496755E+05
  P =   1.059795E+05  1.834956E+05  1.320437E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.263958E+04
  P =  -8.632067E+03 -7.396841E+03 -5.525686E+03
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
             598672993.0,          229519251.0,         2192350721.0,
            2167080660.0,         1984333633.0,         1125498793.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   1.681412E+05
  P =  -6.782269E+04 -1.249789E+05 -8.973208E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   1.734932E+05
  P =  -1.186191E+04  3.511476E+04  1.694879E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.158701E+03
  P =  -7.046193E+03 -4.651018E+03 -3.549788E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.492069E+05
  P =   8.673079E+04  9.451512E+04 -7.620600E+04
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  2.057479501E-12
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.376849E+05
  P =  -9.734745E+04 -1.760988E+05 -1.265181E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.496755E+05
  P =   1.059795E+05  1.834956E+05  1.320437E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.263958E+04
  P =  -8.632067E+03 -7.396841E+03 -5.525686E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   2.402098E+05
  P =  -9.916913E+04 -1.776598E+05 -1.276842E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.470398E+05
  P =   1.040861E+05  1.818731E+05  1.308317E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   5.196862E+03
  P =  -1.974904E+03 -3.054029E+03  3.712147E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   7.553455E+03
  P =  -2.942054E+03 -1.159324E+03 -6.859662E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.595906E+05
  P =  -4.904747E+04 -1.427702E+05  5.177032E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.811710E+05
  P =   7.791726E+04  1.327318E+05  9.557250E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.719717E+04
  P =  -1.057542E+04 -1.091231E+04 -8.051372E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.420413E+05
  P =  -1.829437E+04  2.095069E+04 -1.392914E+05
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   1.681412E+05
  P =  -6.782269E+04 -1.249789E+05 -8.973208E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   1.734932E+05
  P =  -1.186191E+04  3.511476E+04  1.694879E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.158701E+03
  P =  -7.046193E+03 -4.651018E+03 -3.549788E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.492069E+05
  P =   8.673079E+04  9.451512E+04 -7.620600E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  2.07646E-10
 sqme_ref* =>  2.11517E-10
 event_index* => 4
 event_weight* =>  2.62373E-07
 event_weight_ref* =>  2.67265E-07
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-3| 2.4020984E+05;-9.9169134E+04,-1.7765979E+05,-1.2768418E+05| 0.0000000E+00| 3)
  4 prt(o:3| 2.4703985E+05; 1.0408609E+05, 1.8187314E+05, 1.3083169E+05| 0.0000000E+00| 4)
  5 prt(o:21| 5.1968624E+03;-1.9749038E+03,-3.0540295E+03, 3.7121473E+03| 0.0000000E+00| 5)
  6 prt(o:21| 7.5534548E+03;-2.9420537E+03,-1.1593240E+03,-6.8596623E+03| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #4
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  2.11517E-10
    Squared matrix el. (prc) =  1.81416E-12
    Event weight (ref)       =  2.67265E-07
    Event weight (prc)       =  2.29231E-09
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
             852933358.0,         3802412940.0,         3514872455.0,
            1024477926.0,         3849273974.0,          775318609.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   2.376849E+05
  P =  -9.734745E+04 -1.760988E+05 -1.265181E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.496755E+05
  P =   1.059795E+05  1.834956E+05  1.320437E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.263958E+04
  P =  -8.632067E+03 -7.396841E+03 -5.525686E+03
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
             598672993.0,          229519251.0,         2192350721.0,
            2167080660.0,         1984333633.0,         1125498793.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   1.681412E+05
  P =  -6.782269E+04 -1.249789E+05 -8.973208E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   1.734932E+05
  P =  -1.186191E+04  3.511476E+04  1.694879E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.158701E+03
  P =  -7.046193E+03 -4.651018E+03 -3.549788E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.492069E+05
  P =   8.673079E+04  9.451512E+04 -7.620600E+04
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  2.057479501E-12
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.376849E+05
  P =  -9.734745E+04 -1.760988E+05 -1.265181E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.496755E+05
  P =   1.059795E+05  1.834956E+05  1.320437E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.263958E+04
  P =  -8.632067E+03 -7.396841E+03 -5.525686E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   2.402098E+05
  P =  -9.916913E+04 -1.776598E+05 -1.276842E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.470398E+05
  P =   1.040861E+05  1.818731E+05  1.308317E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   5.196862E+03
  P =  -1.974904E+03 -3.054029E+03  3.712147E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   7.553455E+03
  P =  -2.942054E+03 -1.159324E+03 -6.859662E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.595906E+05
  P =  -4.904747E+04 -1.427702E+05  5.177032E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.811710E+05
  P =   7.791726E+04  1.327318E+05  9.557250E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.719717E+04
  P =  -1.057542E+04 -1.091231E+04 -8.051372E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.420413E+05
  P =  -1.829437E+04  2.095069E+04 -1.392914E+05
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   1.681412E+05
  P =  -6.782269E+04 -1.249789E+05 -8.973208E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   1.734932E+05
  P =  -1.186191E+04  3.511476E+04  1.694879E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.158701E+03
  P =  -7.046193E+03 -4.651018E+03 -3.549788E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.492069E+05
  P =   8.673079E+04  9.451512E+04 -7.620600E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  1.81416E-12
 sqme_ref* =>  2.11517E-10
 event_index* => 4
 event_weight* =>  2.29231E-09
 event_weight_ref* =>  2.67265E-07
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-2| 1.5959055E+05;-4.9047475E+04,-1.4277018E+05, 5.1770318E+04| 0.0000000E+00| 3)
  4 prt(o:2| 1.8117101E+05; 7.7917264E+04, 1.3273180E+05, 9.5572504E+04| 0.0000000E+00| 4)
  5 prt(o:21| 1.7197168E+04;-1.0575419E+04,-1.0912310E+04,-8.0513721E+03| 0.0000000E+00| 5)
  6 prt(o:21| 1.4204127E+05;-1.8294370E+04, 2.0950687E+04,-1.3929145E+05| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #4
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  2.11517E-10
    Squared matrix el. (prc) =  2.05748E-12
    Event weight (ref)       =  2.67265E-07
    Event weight (prc)       =  2.59975E-09
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
             852933358.0,         3802412940.0,         3514872455.0,
            1024477926.0,         3849273974.0,          775318609.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   2.376849E+05
  P =  -9.734745E+04 -1.760988E+05 -1.265181E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.496755E+05
  P =   1.059795E+05  1.834956E+05  1.320437E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.263958E+04
  P =  -8.632067E+03 -7.396841E+03 -5.525686E+03
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
             598672993.0,          229519251.0,         2192350721.0,
            2167080660.0,         1984333633.0,         1125498793.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   1.681412E+05
  P =  -6.782269E+04 -1.249789E+05 -8.973208E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   1.734932E+05
  P =  -1.186191E+04  3.511476E+04  1.694879E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.158701E+03
  P =  -7.046193E+03 -4.651018E+03 -3.549788E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.492069E+05
  P =   8.673079E+04  9.451512E+04 -7.620600E+04
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  2.057479501E-12
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.376849E+05
  P =  -9.734745E+04 -1.760988E+05 -1.265181E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.496755E+05
  P =   1.059795E+05  1.834956E+05  1.320437E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.263958E+04
  P =  -8.632067E+03 -7.396841E+03 -5.525686E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   2.402098E+05
  P =  -9.916913E+04 -1.776598E+05 -1.276842E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.470398E+05
  P =   1.040861E+05  1.818731E+05  1.308317E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   5.196862E+03
  P =  -1.974904E+03 -3.054029E+03  3.712147E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   7.553455E+03
  P =  -2.942054E+03 -1.159324E+03 -6.859662E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.595906E+05
  P =  -4.904747E+04 -1.427702E+05  5.177032E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.811710E+05
  P =   7.791726E+04  1.327318E+05  9.557250E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.719717E+04
  P =  -1.057542E+04 -1.091231E+04 -8.051372E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.420413E+05
  P =  -1.829437E+04  2.095069E+04 -1.392914E+05
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   1.681412E+05
  P =  -6.782269E+04 -1.249789E+05 -8.973208E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   1.734932E+05
  P =  -1.186191E+04  3.511476E+04  1.694879E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.158701E+03
  P =  -7.046193E+03 -4.651018E+03 -3.549788E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.492069E+05
  P =   8.673079E+04  9.451512E+04 -7.620600E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  2.05748E-12
 sqme_ref* =>  2.11517E-10
 event_index* => 4
 event_weight* =>  2.59975E-09
 event_weight_ref* =>  2.67265E-07
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-3| 1.6814124E+05;-6.7822687E+04,-1.2497886E+05,-8.9732076E+04| 0.0000000E+00| 3)
  4 prt(o:3| 1.7349319E+05;-1.1861907E+04, 3.5114759E+04, 1.6948786E+05| 0.0000000E+00| 4)
  5 prt(o:21| 9.1587010E+03;-7.0461933E+03,-4.6510182E+03,-3.5497876E+03| 0.0000000E+00| 5)
  6 prt(o:21| 1.4920687E+05; 8.6730787E+04, 9.4515117E+04,-7.6205995E+04| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #5
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  9.37951E-07
    Squared matrix el. (prc) =  7.86870E-07
    Event weight (ref)       =  6.19701E-04
    Event weight (prc)       =  5.19882E-04
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            1095625977.0,          443063532.0,         2957163220.0,
             222499157.0,         3835620558.0,         2328100909.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499472E+05
  P =  -3.012358E+04  1.513505E+05 -1.966195E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.488282E+05
  P =   2.951637E+04 -1.505959E+05  1.958702E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.224537E+03
  P =   6.072091E+02 -7.545419E+02  7.493023E+02
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            1106982763.0,         4232153153.0,         2882700880.0,
            3746330306.0,          161521528.0,         2991739543.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.920514E+05
  P =  -2.325588E+04  1.163106E+05 -1.510455E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.351515E+05
  P =   1.237788E+05 -4.406957E+04  3.166401E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.565428E+03
  P =   6.505592E+02 -9.757187E+02  1.036972E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.712316E+05
  P =  -1.011735E+05 -7.126537E+04  1.183445E+05
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  3.848906263E-12
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499472E+05
  P =  -3.012358E+04  1.513505E+05 -1.966195E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.488282E+05
  P =   2.951637E+04 -1.505959E+05  1.958702E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.224537E+03
  P =   6.072091E+02 -7.545419E+02  7.493023E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   2.497695E+05
  P =  -3.002715E+04  1.512306E+05 -1.965005E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.490052E+05
  P =   2.961243E+04 -1.507153E+05  1.959887E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.826715E+02
  P =   3.602545E+02  1.245413E+02 -3.381796E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   8.426673E+02
  P =   5.446535E+01 -6.398884E+02  5.455864E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   1.362137E+05
  P =  -1.144984E+05 -7.433487E+03 -7.340993E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   1.908174E+05
  P =   2.252490E+04 -1.154686E+05  1.502362E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.672594E+02
  P =   5.723541E+02 -5.794190E+02  5.218000E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.720017E+05
  P =   9.140118E+04  1.234815E+05 -7.734808E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.920514E+05
  P =  -2.325588E+04  1.163106E+05 -1.510455E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.351515E+05
  P =   1.237788E+05 -4.406957E+04  3.166401E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.565428E+03
  P =   6.505592E+02 -9.757187E+02  1.036972E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.712316E+05
  P =  -1.011735E+05 -7.126537E+04  1.183445E+05
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 3
 n_tot* => 5
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  7.86870E-07
 sqme_ref* =>  9.37951E-07
 event_index* => 5
 event_weight* =>  5.19882E-04
 event_weight_ref* =>  6.19701E-04
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-2| 2.4994724E+05;-3.0123578E+04, 1.5135046E+05,-1.9661951E+05| 0.0000000E+00| 3)
  4 prt(o:2| 2.4882822E+05; 2.9516369E+04,-1.5059592E+05, 1.9587020E+05| 0.0000000E+00| 4)
  5 prt(o:21| 1.2245368E+03; 6.0720914E+02,-7.5454193E+02, 7.4930231E+02| 0.0000000E+00| 5)
 ========================================================================
 ========================================================================
  Event #5
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  9.37951E-07
    Squared matrix el. (prc) =  1.51075E-07
    Event weight (ref)       =  6.19701E-04
    Event weight (prc)       =  9.98147E-05
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            1095625977.0,          443063532.0,         2957163220.0,
             222499157.0,         3835620558.0,         2328100909.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499472E+05
  P =  -3.012358E+04  1.513505E+05 -1.966195E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.488282E+05
  P =   2.951637E+04 -1.505959E+05  1.958702E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.224537E+03
  P =   6.072091E+02 -7.545419E+02  7.493023E+02
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            1106982763.0,         4232153153.0,         2882700880.0,
            3746330306.0,          161521528.0,         2991739543.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.920514E+05
  P =  -2.325588E+04  1.163106E+05 -1.510455E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.351515E+05
  P =   1.237788E+05 -4.406957E+04  3.166401E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.565428E+03
  P =   6.505592E+02 -9.757187E+02  1.036972E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.712316E+05
  P =  -1.011735E+05 -7.126537E+04  1.183445E+05
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  3.848906263E-12
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499472E+05
  P =  -3.012358E+04  1.513505E+05 -1.966195E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.488282E+05
  P =   2.951637E+04 -1.505959E+05  1.958702E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.224537E+03
  P =   6.072091E+02 -7.545419E+02  7.493023E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   2.497695E+05
  P =  -3.002715E+04  1.512306E+05 -1.965005E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.490052E+05
  P =   2.961243E+04 -1.507153E+05  1.959887E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.826715E+02
  P =   3.602545E+02  1.245413E+02 -3.381796E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   8.426673E+02
  P =   5.446535E+01 -6.398884E+02  5.455864E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   1.362137E+05
  P =  -1.144984E+05 -7.433487E+03 -7.340993E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   1.908174E+05
  P =   2.252490E+04 -1.154686E+05  1.502362E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.672594E+02
  P =   5.723541E+02 -5.794190E+02  5.218000E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.720017E+05
  P =   9.140118E+04  1.234815E+05 -7.734808E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.920514E+05
  P =  -2.325588E+04  1.163106E+05 -1.510455E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.351515E+05
  P =   1.237788E+05 -4.406957E+04  3.166401E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.565428E+03
  P =   6.505592E+02 -9.757187E+02  1.036972E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.712316E+05
  P =  -1.011735E+05 -7.126537E+04  1.183445E+05
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  1.51075E-07
 sqme_ref* =>  9.37951E-07
 event_index* => 5
 event_weight* =>  9.98147E-05
 event_weight_ref* =>  6.19701E-04
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-3| 2.4976947E+05;-3.0027152E+04, 1.5123064E+05,-1.9650052E+05| 0.0000000E+00| 3)
  4 prt(o:3| 2.4900519E+05; 2.9612432E+04,-1.5071529E+05, 1.9598875E+05| 0.0000000E+00| 4)
  5 prt(o:21| 3.8267147E+02; 3.6025445E+02, 1.2454128E+02,-3.3817956E+01| 0.0000000E+00| 5)
  6 prt(o:21| 8.4266732E+02; 5.4465351E+01,-6.3988840E+02, 5.4558645E+02| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #5
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  9.37951E-07
    Squared matrix el. (prc) =  2.69142E-12
    Event weight (ref)       =  6.19701E-04
    Event weight (prc)       =  1.77821E-09
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            1095625977.0,          443063532.0,         2957163220.0,
             222499157.0,         3835620558.0,         2328100909.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499472E+05
  P =  -3.012358E+04  1.513505E+05 -1.966195E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.488282E+05
  P =   2.951637E+04 -1.505959E+05  1.958702E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.224537E+03
  P =   6.072091E+02 -7.545419E+02  7.493023E+02
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            1106982763.0,         4232153153.0,         2882700880.0,
            3746330306.0,          161521528.0,         2991739543.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.920514E+05
  P =  -2.325588E+04  1.163106E+05 -1.510455E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.351515E+05
  P =   1.237788E+05 -4.406957E+04  3.166401E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.565428E+03
  P =   6.505592E+02 -9.757187E+02  1.036972E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.712316E+05
  P =  -1.011735E+05 -7.126537E+04  1.183445E+05
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  3.848906263E-12
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499472E+05
  P =  -3.012358E+04  1.513505E+05 -1.966195E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.488282E+05
  P =   2.951637E+04 -1.505959E+05  1.958702E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.224537E+03
  P =   6.072091E+02 -7.545419E+02  7.493023E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   2.497695E+05
  P =  -3.002715E+04  1.512306E+05 -1.965005E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.490052E+05
  P =   2.961243E+04 -1.507153E+05  1.959887E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.826715E+02
  P =   3.602545E+02  1.245413E+02 -3.381796E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   8.426673E+02
  P =   5.446535E+01 -6.398884E+02  5.455864E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   1.362137E+05
  P =  -1.144984E+05 -7.433487E+03 -7.340993E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   1.908174E+05
  P =   2.252490E+04 -1.154686E+05  1.502362E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.672594E+02
  P =   5.723541E+02 -5.794190E+02  5.218000E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.720017E+05
  P =   9.140118E+04  1.234815E+05 -7.734808E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.920514E+05
  P =  -2.325588E+04  1.163106E+05 -1.510455E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.351515E+05
  P =   1.237788E+05 -4.406957E+04  3.166401E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.565428E+03
  P =   6.505592E+02 -9.757187E+02  1.036972E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.712316E+05
  P =  -1.011735E+05 -7.126537E+04  1.183445E+05
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  2.69142E-12
 sqme_ref* =>  9.37951E-07
 event_index* => 5
 event_weight* =>  1.77821E-09
 event_weight_ref* =>  6.19701E-04
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-1| 1.3621368E+05;-1.1449843E+05,-7.4334869E+03,-7.3409933E+04| 0.0000000E+00| 3)
  4 prt(o:1| 1.9081740E+05; 2.2524901E+04,-1.1546856E+05, 1.5023622E+05| 0.0000000E+00| 4)
  5 prt(o:21| 9.6725943E+02; 5.7235408E+02,-5.7941900E+02, 5.2179998E+02| 0.0000000E+00| 5)
  6 prt(o:21| 1.7200166E+05; 9.1401178E+04, 1.2348146E+05,-7.7348083E+04| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #5
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  9.37951E-07
    Squared matrix el. (prc) =  3.84891E-12
    Event weight (ref)       =  6.19701E-04
    Event weight (prc)       =  2.54296E-09
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            1095625977.0,          443063532.0,         2957163220.0,
             222499157.0,         3835620558.0,         2328100909.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499472E+05
  P =  -3.012358E+04  1.513505E+05 -1.966195E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.488282E+05
  P =   2.951637E+04 -1.505959E+05  1.958702E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.224537E+03
  P =   6.072091E+02 -7.545419E+02  7.493023E+02
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            1106982763.0,         4232153153.0,         2882700880.0,
            3746330306.0,          161521528.0,         2991739543.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.920514E+05
  P =  -2.325588E+04  1.163106E+05 -1.510455E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.351515E+05
  P =   1.237788E+05 -4.406957E+04  3.166401E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.565428E+03
  P =   6.505592E+02 -9.757187E+02  1.036972E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.712316E+05
  P =  -1.011735E+05 -7.126537E+04  1.183445E+05
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  3.848906263E-12
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499472E+05
  P =  -3.012358E+04  1.513505E+05 -1.966195E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.488282E+05
  P =   2.951637E+04 -1.505959E+05  1.958702E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.224537E+03
  P =   6.072091E+02 -7.545419E+02  7.493023E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   2.497695E+05
  P =  -3.002715E+04  1.512306E+05 -1.965005E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.490052E+05
  P =   2.961243E+04 -1.507153E+05  1.959887E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.826715E+02
  P =   3.602545E+02  1.245413E+02 -3.381796E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   8.426673E+02
  P =   5.446535E+01 -6.398884E+02  5.455864E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   1.362137E+05
  P =  -1.144984E+05 -7.433487E+03 -7.340993E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   1.908174E+05
  P =   2.252490E+04 -1.154686E+05  1.502362E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.672594E+02
  P =   5.723541E+02 -5.794190E+02  5.218000E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.720017E+05
  P =   9.140118E+04  1.234815E+05 -7.734808E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.920514E+05
  P =  -2.325588E+04  1.163106E+05 -1.510455E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.351515E+05
  P =   1.237788E+05 -4.406957E+04  3.166401E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.565428E+03
  P =   6.505592E+02 -9.757187E+02  1.036972E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.712316E+05
  P =  -1.011735E+05 -7.126537E+04  1.183445E+05
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  3.84891E-12
 sqme_ref* =>  9.37951E-07
 event_index* => 5
 event_weight* =>  2.54296E-09
 event_weight_ref* =>  6.19701E-04
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-2| 1.9205144E+05;-2.3255875E+04, 1.1631065E+05,-1.5104553E+05| 0.0000000E+00| 3)
  4 prt(o:2| 1.3515152E+05; 1.2377883E+05,-4.4069566E+04, 3.1664006E+04| 0.0000000E+00| 4)
  5 prt(o:21| 1.5654284E+03; 6.5055916E+02,-9.7571875E+02, 1.0369724E+03| 0.0000000E+00| 5)
  6 prt(o:21| 1.7123161E+05;-1.0117351E+05,-7.1265365E+04, 1.1834455E+05| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #6
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  0.00000E+00
    Squared matrix el. (prc) =  0.00000E+00
    Event weight (ref)       =  0.00000E+00
    Event weight (prc)       =  0.00000E+00
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            2643453732.0,          343801519.0,         3374377404.0,
            2585822891.0,         2834629654.0,          677007669.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499984E+05
  P =   1.706016E+03  5.495281E+04 -2.438780E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.754199E+05
  P =  -1.752223E+03 -3.868982E+04  1.710911E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   7.458170E+04
  P =   4.620751E+01 -1.626299E+04  7.278697E+04
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            2714720639.0,         1946415819.0,         2496115977.0,
            2267707328.0,         4192754391.0,         3326698294.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.499674E+05
  P =   1.705706E+03  5.494597E+04 -2.438478E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   7.201882E+04
  P =   8.513592E+02 -1.424709E+04  7.059041E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   7.459095E+04
  P =   4.611505E+01 -1.626503E+04  7.279599E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   1.034228E+05
  P =  -2.603180E+03 -2.443384E+04  1.004614E+05
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  3.848906263E-12
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499984E+05
  P =   1.706016E+03  5.495281E+04 -2.438780E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.754199E+05
  P =  -1.752223E+03 -3.868982E+04  1.710911E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   7.458170E+04
  P =   4.620751E+01 -1.626299E+04  7.278697E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.499853E+05
  P =   1.706024E+03  5.494993E+04 -2.438652E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.754291E+05
  P =  -1.752218E+03 -3.869184E+04  1.711001E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   3.061428E+04
  P =   6.524800E+02 -5.947974E+03  3.002382E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   4.397135E+04
  P =  -6.062864E+02 -1.031012E+04  4.274124E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.026503E+05
  P =  -1.354547E+03  2.503842E+04 -9.954061E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.753888E+05
  P =  -1.752012E+03 -3.868300E+04  1.710608E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   7.456851E+04
  P =   4.629753E+01 -1.626009E+04  7.277410E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   1.473923E+05
  P =   3.060261E+03  2.990467E+04 -1.442943E+05
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.499674E+05
  P =   1.705706E+03  5.494597E+04 -2.438478E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   7.201882E+04
  P =   8.513592E+02 -1.424709E+04  7.059041E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   7.459095E+04
  P =   4.611505E+01 -1.626503E+04  7.279599E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   1.034228E+05
  P =  -2.603180E+03 -2.443384E+04  1.004614E+05
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 3
 n_tot* => 5
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  0.00000E+00
 sqme_ref* =>  0.00000E+00
 event_index* => 6
 event_weight* =>  0.00000E+00
 event_weight_ref* =>  0.00000E+00
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-2| 2.4999844E+05; 1.7060160E+03, 5.4952809E+04,-2.4387804E+05| 0.0000000E+00| 3)
  4 prt(o:2| 1.7541986E+05;-1.7522235E+03,-3.8689819E+04, 1.7109108E+05| 0.0000000E+00| 4)
  5 prt(o:21| 7.4581696E+04; 4.6207512E+01,-1.6262989E+04, 7.2786966E+04| 0.0000000E+00| 5)
 ========================================================================
 ========================================================================
  Event #6
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  0.00000E+00
    Squared matrix el. (prc) =  0.00000E+00
    Event weight (ref)       =  0.00000E+00
    Event weight (prc)       =  0.00000E+00
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            2643453732.0,          343801519.0,         3374377404.0,
            2585822891.0,         2834629654.0,          677007669.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499984E+05
  P =   1.706016E+03  5.495281E+04 -2.438780E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.754199E+05
  P =  -1.752223E+03 -3.868982E+04  1.710911E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   7.458170E+04
  P =   4.620751E+01 -1.626299E+04  7.278697E+04
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            2714720639.0,         1946415819.0,         2496115977.0,
            2267707328.0,         4192754391.0,         3326698294.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.499674E+05
  P =   1.705706E+03  5.494597E+04 -2.438478E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   7.201882E+04
  P =   8.513592E+02 -1.424709E+04  7.059041E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   7.459095E+04
  P =   4.611505E+01 -1.626503E+04  7.279599E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   1.034228E+05
  P =  -2.603180E+03 -2.443384E+04  1.004614E+05
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  3.848906263E-12
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499984E+05
  P =   1.706016E+03  5.495281E+04 -2.438780E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.754199E+05
  P =  -1.752223E+03 -3.868982E+04  1.710911E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   7.458170E+04
  P =   4.620751E+01 -1.626299E+04  7.278697E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.499853E+05
  P =   1.706024E+03  5.494993E+04 -2.438652E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.754291E+05
  P =  -1.752218E+03 -3.869184E+04  1.711001E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   3.061428E+04
  P =   6.524800E+02 -5.947974E+03  3.002382E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   4.397135E+04
  P =  -6.062864E+02 -1.031012E+04  4.274124E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.026503E+05
  P =  -1.354547E+03  2.503842E+04 -9.954061E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.753888E+05
  P =  -1.752012E+03 -3.868300E+04  1.710608E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   7.456851E+04
  P =   4.629753E+01 -1.626009E+04  7.277410E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   1.473923E+05
  P =   3.060261E+03  2.990467E+04 -1.442943E+05
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.499674E+05
  P =   1.705706E+03  5.494597E+04 -2.438478E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   7.201882E+04
  P =   8.513592E+02 -1.424709E+04  7.059041E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   7.459095E+04
  P =   4.611505E+01 -1.626503E+04  7.279599E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   1.034228E+05
  P =  -2.603180E+03 -2.443384E+04  1.004614E+05
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  0.00000E+00
 sqme_ref* =>  0.00000E+00
 event_index* => 6
 event_weight* =>  0.00000E+00
 event_weight_ref* =>  0.00000E+00
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-2| 2.4998525E+05; 1.7060241E+03, 5.4949933E+04,-2.4386517E+05| 0.0000000E+00| 3)
  4 prt(o:2| 1.7542912E+05;-1.7522177E+03,-3.8691837E+04, 1.7110011E+05| 0.0000000E+00| 4)
  5 prt(o:-2| 3.0614277E+04; 6.5247997E+02,-5.9479744E+03, 3.0023821E+04| 0.0000000E+00| 5)
  6 prt(o:2| 4.3971353E+04;-6.0628636E+02,-1.0310121E+04, 4.2741241E+04| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #6
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  0.00000E+00
    Squared matrix el. (prc) =  0.00000E+00
    Event weight (ref)       =  0.00000E+00
    Event weight (prc)       =  0.00000E+00
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            2643453732.0,          343801519.0,         3374377404.0,
            2585822891.0,         2834629654.0,          677007669.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499984E+05
  P =   1.706016E+03  5.495281E+04 -2.438780E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.754199E+05
  P =  -1.752223E+03 -3.868982E+04  1.710911E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   7.458170E+04
  P =   4.620751E+01 -1.626299E+04  7.278697E+04
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            2714720639.0,         1946415819.0,         2496115977.0,
            2267707328.0,         4192754391.0,         3326698294.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.499674E+05
  P =   1.705706E+03  5.494597E+04 -2.438478E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   7.201882E+04
  P =   8.513592E+02 -1.424709E+04  7.059041E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   7.459095E+04
  P =   4.611505E+01 -1.626503E+04  7.279599E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   1.034228E+05
  P =  -2.603180E+03 -2.443384E+04  1.004614E+05
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  3.848906263E-12
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499984E+05
  P =   1.706016E+03  5.495281E+04 -2.438780E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.754199E+05
  P =  -1.752223E+03 -3.868982E+04  1.710911E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   7.458170E+04
  P =   4.620751E+01 -1.626299E+04  7.278697E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.499853E+05
  P =   1.706024E+03  5.494993E+04 -2.438652E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.754291E+05
  P =  -1.752218E+03 -3.869184E+04  1.711001E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   3.061428E+04
  P =   6.524800E+02 -5.947974E+03  3.002382E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   4.397135E+04
  P =  -6.062864E+02 -1.031012E+04  4.274124E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.026503E+05
  P =  -1.354547E+03  2.503842E+04 -9.954061E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.753888E+05
  P =  -1.752012E+03 -3.868300E+04  1.710608E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   7.456851E+04
  P =   4.629753E+01 -1.626009E+04  7.277410E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   1.473923E+05
  P =   3.060261E+03  2.990467E+04 -1.442943E+05
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.499674E+05
  P =   1.705706E+03  5.494597E+04 -2.438478E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   7.201882E+04
  P =   8.513592E+02 -1.424709E+04  7.059041E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   7.459095E+04
  P =   4.611505E+01 -1.626503E+04  7.279599E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   1.034228E+05
  P =  -2.603180E+03 -2.443384E+04  1.004614E+05
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  0.00000E+00
 sqme_ref* =>  0.00000E+00
 event_index* => 6
 event_weight* =>  0.00000E+00
 event_weight_ref* =>  0.00000E+00
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-2| 1.0265033E+05;-1.3545472E+03, 2.5038418E+04,-9.9540612E+04| 0.0000000E+00| 3)
  4 prt(o:2| 1.7538884E+05;-1.7520118E+03,-3.8682999E+04, 1.7106081E+05| 0.0000000E+00| 4)
  5 prt(o:-2| 7.4568505E+04; 4.6297530E+01,-1.6260090E+04, 7.2774098E+04| 0.0000000E+00| 5)
  6 prt(o:2| 1.4739233E+05; 3.0602614E+03, 2.9904671E+04,-1.4429429E+05| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #6
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  0.00000E+00
    Squared matrix el. (prc) =  0.00000E+00
    Event weight (ref)       =  0.00000E+00
    Event weight (prc)       =  0.00000E+00
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            2643453732.0,          343801519.0,         3374377404.0,
            2585822891.0,         2834629654.0,          677007669.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499984E+05
  P =   1.706016E+03  5.495281E+04 -2.438780E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.754199E+05
  P =  -1.752223E+03 -3.868982E+04  1.710911E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   7.458170E+04
  P =   4.620751E+01 -1.626299E+04  7.278697E+04
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            2714720639.0,         1946415819.0,         2496115977.0,
            2267707328.0,         4192754391.0,         3326698294.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.499674E+05
  P =   1.705706E+03  5.494597E+04 -2.438478E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   7.201882E+04
  P =   8.513592E+02 -1.424709E+04  7.059041E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   7.459095E+04
  P =   4.611505E+01 -1.626503E+04  7.279599E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   1.034228E+05
  P =  -2.603180E+03 -2.443384E+04  1.004614E+05
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  3.848906263E-12
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499984E+05
  P =   1.706016E+03  5.495281E+04 -2.438780E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.754199E+05
  P =  -1.752223E+03 -3.868982E+04  1.710911E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   7.458170E+04
  P =   4.620751E+01 -1.626299E+04  7.278697E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.499853E+05
  P =   1.706024E+03  5.494993E+04 -2.438652E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.754291E+05
  P =  -1.752218E+03 -3.869184E+04  1.711001E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   3.061428E+04
  P =   6.524800E+02 -5.947974E+03  3.002382E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   4.397135E+04
  P =  -6.062864E+02 -1.031012E+04  4.274124E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.026503E+05
  P =  -1.354547E+03  2.503842E+04 -9.954061E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.753888E+05
  P =  -1.752012E+03 -3.868300E+04  1.710608E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   7.456851E+04
  P =   4.629753E+01 -1.626009E+04  7.277410E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   1.473923E+05
  P =   3.060261E+03  2.990467E+04 -1.442943E+05
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.499674E+05
  P =   1.705706E+03  5.494597E+04 -2.438478E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   7.201882E+04
  P =   8.513592E+02 -1.424709E+04  7.059041E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   7.459095E+04
  P =   4.611505E+01 -1.626503E+04  7.279599E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   1.034228E+05
  P =  -2.603180E+03 -2.443384E+04  1.004614E+05
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  0.00000E+00
 sqme_ref* =>  0.00000E+00
 event_index* => 6
 event_weight* =>  0.00000E+00
 event_weight_ref* =>  0.00000E+00
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-2| 2.4996742E+05; 1.7057061E+03, 5.4945966E+04,-2.4384778E+05| 0.0000000E+00| 3)
  4 prt(o:2| 7.2018820E+04; 8.5135921E+02,-1.4247092E+04, 7.0590410E+04| 0.0000000E+00| 4)
  5 prt(o:-2| 7.4590952E+04; 4.6115051E+01,-1.6265031E+04, 7.2795994E+04| 0.0000000E+00| 5)
  6 prt(o:2| 1.0342281E+05;-2.6031803E+03,-2.4433843E+04, 1.0046138E+05| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #7
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  8.55503E-11
    Squared matrix el. (prc) =  3.55893E-11
    Event weight (ref)       =  7.63602E-07
    Event weight (prc)       =  3.17662E-07
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            2042523454.0,         1790911384.0,         3715479539.0,
            3582083863.0,         2240445629.0,         3470253870.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   2.195208E+05
  P =   1.239610E+04  7.088129E+04 -2.073923E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.402876E+05
  P =  -4.887422E+04 -7.109854E+04  2.242643E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   4.019160E+04
  P =   3.647812E+04  2.172480E+02 -1.687199E+04
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            3203562530.0,          370100846.0,         1647107524.0,
            1466280485.0,         4189984473.0,          360074395.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.444813E+05
  P =  -3.132862E+03  4.829092E+04 -1.361361E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.873602E+05
  P =   7.577496E+04  3.340176E+04  1.680664E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.369711E+04
  P =   3.332590E+04 -4.368366E+03 -2.407710E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.344614E+05
  P =  -1.059680E+05 -7.732432E+04 -2.952268E+04
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  1.501742440E-12
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.195208E+05
  P =   1.239610E+04  7.088129E+04 -2.073923E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.402876E+05
  P =  -4.887422E+04 -7.109854E+04  2.242643E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   4.019160E+04
  P =   3.647812E+04  2.172480E+02 -1.687199E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   2.244498E+05
  P =   2.194884E+04  7.093818E+04 -2.118106E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.339690E+05
  P =  -3.866983E+04 -7.103777E+04  2.195445E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.909056E+04
  P =   1.211138E+04  6.048845E+03  1.346014E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.249061E+04
  P =   4.609609E+03 -5.949262E+03 -2.119400E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   1.604817E+05
  P =  -1.425889E+04  1.471368E+05 -6.246461E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   1.668286E+05
  P =  -4.465765E+04 -4.698808E+04  1.537192E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   4.984911E+04
  P =   3.741068E+04  5.549687E+03 -3.247423E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.228405E+05
  P =   2.150586E+04 -1.056984E+05 -5.878040E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.444813E+05
  P =  -3.132862E+03  4.829092E+04 -1.361361E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.873602E+05
  P =   7.577496E+04  3.340176E+04  1.680664E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.369711E+04
  P =   3.332590E+04 -4.368366E+03 -2.407710E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.344614E+05
  P =  -1.059680E+05 -7.732432E+04 -2.952268E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 3
 n_tot* => 5
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  3.55893E-11
 sqme_ref* =>  8.55503E-11
 event_index* => 7
 event_weight* =>  3.17662E-07
 event_weight_ref* =>  7.63602E-07
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-2| 2.1952077E+05; 1.2396103E+04, 7.0881292E+04,-2.0739226E+05| 0.0000000E+00| 3)
  4 prt(o:2| 2.4028763E+05;-4.8874220E+04,-7.1098540E+04, 2.2426425E+05| 0.0000000E+00| 4)
  5 prt(o:21| 4.0191596E+04; 3.6478117E+04, 2.1724804E+02,-1.6871992E+04| 0.0000000E+00| 5)
 ========================================================================
 ========================================================================
  Event #7
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  8.55503E-11
    Squared matrix el. (prc) =  4.70453E-11
    Event weight (ref)       =  7.63602E-07
    Event weight (prc)       =  4.19915E-07
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            2042523454.0,         1790911384.0,         3715479539.0,
            3582083863.0,         2240445629.0,         3470253870.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   2.195208E+05
  P =   1.239610E+04  7.088129E+04 -2.073923E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.402876E+05
  P =  -4.887422E+04 -7.109854E+04  2.242643E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   4.019160E+04
  P =   3.647812E+04  2.172480E+02 -1.687199E+04
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            3203562530.0,          370100846.0,         1647107524.0,
            1466280485.0,         4189984473.0,          360074395.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.444813E+05
  P =  -3.132862E+03  4.829092E+04 -1.361361E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.873602E+05
  P =   7.577496E+04  3.340176E+04  1.680664E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.369711E+04
  P =   3.332590E+04 -4.368366E+03 -2.407710E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.344614E+05
  P =  -1.059680E+05 -7.732432E+04 -2.952268E+04
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  1.501742440E-12
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.195208E+05
  P =   1.239610E+04  7.088129E+04 -2.073923E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.402876E+05
  P =  -4.887422E+04 -7.109854E+04  2.242643E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   4.019160E+04
  P =   3.647812E+04  2.172480E+02 -1.687199E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   2.244498E+05
  P =   2.194884E+04  7.093818E+04 -2.118106E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.339690E+05
  P =  -3.866983E+04 -7.103777E+04  2.195445E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.909056E+04
  P =   1.211138E+04  6.048845E+03  1.346014E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.249061E+04
  P =   4.609609E+03 -5.949262E+03 -2.119400E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   1.604817E+05
  P =  -1.425889E+04  1.471368E+05 -6.246461E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   1.668286E+05
  P =  -4.465765E+04 -4.698808E+04  1.537192E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   4.984911E+04
  P =   3.741068E+04  5.549687E+03 -3.247423E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.228405E+05
  P =   2.150586E+04 -1.056984E+05 -5.878040E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.444813E+05
  P =  -3.132862E+03  4.829092E+04 -1.361361E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.873602E+05
  P =   7.577496E+04  3.340176E+04  1.680664E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.369711E+04
  P =   3.332590E+04 -4.368366E+03 -2.407710E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.344614E+05
  P =  -1.059680E+05 -7.732432E+04 -2.952268E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  4.70453E-11
 sqme_ref* =>  8.55503E-11
 event_index* => 7
 event_weight* =>  4.19915E-07
 event_weight_ref* =>  7.63602E-07
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-3| 2.2444981E+05; 2.1948838E+04, 7.0938184E+04,-2.1181062E+05| 0.0000000E+00| 3)
  4 prt(o:3| 2.3396901E+05;-3.8669832E+04,-7.1037767E+04, 2.1954448E+05| 0.0000000E+00| 4)
  5 prt(o:21| 1.9090562E+04; 1.2111384E+04, 6.0488448E+03, 1.3460141E+04| 0.0000000E+00| 5)
  6 prt(o:21| 2.2490614E+04; 4.6096094E+03,-5.9492617E+03,-2.1193996E+04| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #7
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  8.55503E-11
    Squared matrix el. (prc) =  1.41404E-12
    Event weight (ref)       =  7.63602E-07
    Event weight (prc)       =  1.26214E-08
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            2042523454.0,         1790911384.0,         3715479539.0,
            3582083863.0,         2240445629.0,         3470253870.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   2.195208E+05
  P =   1.239610E+04  7.088129E+04 -2.073923E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.402876E+05
  P =  -4.887422E+04 -7.109854E+04  2.242643E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   4.019160E+04
  P =   3.647812E+04  2.172480E+02 -1.687199E+04
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            3203562530.0,          370100846.0,         1647107524.0,
            1466280485.0,         4189984473.0,          360074395.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.444813E+05
  P =  -3.132862E+03  4.829092E+04 -1.361361E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.873602E+05
  P =   7.577496E+04  3.340176E+04  1.680664E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.369711E+04
  P =   3.332590E+04 -4.368366E+03 -2.407710E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.344614E+05
  P =  -1.059680E+05 -7.732432E+04 -2.952268E+04
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  1.501742440E-12
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.195208E+05
  P =   1.239610E+04  7.088129E+04 -2.073923E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.402876E+05
  P =  -4.887422E+04 -7.109854E+04  2.242643E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   4.019160E+04
  P =   3.647812E+04  2.172480E+02 -1.687199E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   2.244498E+05
  P =   2.194884E+04  7.093818E+04 -2.118106E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.339690E+05
  P =  -3.866983E+04 -7.103777E+04  2.195445E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.909056E+04
  P =   1.211138E+04  6.048845E+03  1.346014E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.249061E+04
  P =   4.609609E+03 -5.949262E+03 -2.119400E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   1.604817E+05
  P =  -1.425889E+04  1.471368E+05 -6.246461E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   1.668286E+05
  P =  -4.465765E+04 -4.698808E+04  1.537192E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   4.984911E+04
  P =   3.741068E+04  5.549687E+03 -3.247423E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.228405E+05
  P =   2.150586E+04 -1.056984E+05 -5.878040E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.444813E+05
  P =  -3.132862E+03  4.829092E+04 -1.361361E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.873602E+05
  P =   7.577496E+04  3.340176E+04  1.680664E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.369711E+04
  P =   3.332590E+04 -4.368366E+03 -2.407710E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.344614E+05
  P =  -1.059680E+05 -7.732432E+04 -2.952268E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  1.41404E-12
 sqme_ref* =>  8.55503E-11
 event_index* => 7
 event_weight* =>  1.26214E-08
 event_weight_ref* =>  7.63602E-07
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-1| 1.6048174E+05;-1.4258890E+04, 1.4713683E+05,-6.2464608E+04| 0.0000000E+00| 3)
  4 prt(o:1| 1.6682862E+05;-4.4657654E+04,-4.6988084E+04, 1.5371923E+05| 0.0000000E+00| 4)
  5 prt(o:21| 4.9849108E+04; 3.7410683E+04, 5.5496867E+03,-3.2474226E+04| 0.0000000E+00| 5)
  6 prt(o:21| 1.2284053E+05; 2.1505860E+04,-1.0569843E+05,-5.8780399E+04| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #7
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  8.55503E-11
    Squared matrix el. (prc) =  1.50174E-12
    Event weight (ref)       =  7.63602E-07
    Event weight (prc)       =  1.34042E-08
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            2042523454.0,         1790911384.0,         3715479539.0,
            3582083863.0,         2240445629.0,         3470253870.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   2.195208E+05
  P =   1.239610E+04  7.088129E+04 -2.073923E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.402876E+05
  P =  -4.887422E+04 -7.109854E+04  2.242643E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   4.019160E+04
  P =   3.647812E+04  2.172480E+02 -1.687199E+04
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            3203562530.0,          370100846.0,         1647107524.0,
            1466280485.0,         4189984473.0,          360074395.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.444813E+05
  P =  -3.132862E+03  4.829092E+04 -1.361361E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.873602E+05
  P =   7.577496E+04  3.340176E+04  1.680664E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.369711E+04
  P =   3.332590E+04 -4.368366E+03 -2.407710E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.344614E+05
  P =  -1.059680E+05 -7.732432E+04 -2.952268E+04
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  1.501742440E-12
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.195208E+05
  P =   1.239610E+04  7.088129E+04 -2.073923E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.402876E+05
  P =  -4.887422E+04 -7.109854E+04  2.242643E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   4.019160E+04
  P =   3.647812E+04  2.172480E+02 -1.687199E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   2.244498E+05
  P =   2.194884E+04  7.093818E+04 -2.118106E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.339690E+05
  P =  -3.866983E+04 -7.103777E+04  2.195445E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.909056E+04
  P =   1.211138E+04  6.048845E+03  1.346014E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.249061E+04
  P =   4.609609E+03 -5.949262E+03 -2.119400E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   1.604817E+05
  P =  -1.425889E+04  1.471368E+05 -6.246461E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   1.668286E+05
  P =  -4.465765E+04 -4.698808E+04  1.537192E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   4.984911E+04
  P =   3.741068E+04  5.549687E+03 -3.247423E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.228405E+05
  P =   2.150586E+04 -1.056984E+05 -5.878040E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.444813E+05
  P =  -3.132862E+03  4.829092E+04 -1.361361E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.873602E+05
  P =   7.577496E+04  3.340176E+04  1.680664E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.369711E+04
  P =   3.332590E+04 -4.368366E+03 -2.407710E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.344614E+05
  P =  -1.059680E+05 -7.732432E+04 -2.952268E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  1.50174E-12
 sqme_ref* =>  8.55503E-11
 event_index* => 7
 event_weight* =>  1.34042E-08
 event_weight_ref* =>  7.63602E-07
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-2| 1.4448132E+05;-3.1328617E+03, 4.8290923E+04,-1.3613605E+05| 0.0000000E+00| 3)
  4 prt(o:2| 1.8736022E+05; 7.5774962E+04, 3.3401761E+04, 1.6806644E+05| 0.0000000E+00| 4)
  5 prt(o:21| 3.3697108E+04; 3.3325896E+04,-4.3683660E+03,-2.4077104E+03| 0.0000000E+00| 5)
  6 prt(o:21| 1.3446135E+05;-1.0596800E+05,-7.7324317E+04,-2.9522682E+04| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #8
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  1.79521E-07
    Squared matrix el. (prc) =  1.56951E-07
    Event weight (ref)       =  1.57909E-05
    Event weight (prc)       =  1.38056E-05
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            3361222980.0,            3601284.0,         3842382860.0,
            2580515999.0,         3568184670.0,          735623006.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499388E+05
  P =   2.534187E+04  5.389475E+04 -2.427396E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.479782E+05
  P =  -2.446564E+04 -5.332377E+04  2.409381E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.083082E+03
  P =  -8.762376E+02 -5.709856E+02  1.801503E+03
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            2280904955.0,         1539004561.0,          852756080.0,
            3258303332.0,         2415368508.0,         1295976056.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   1.868213E+05
  P =   1.911464E+04  4.032226E+04 -1.814137E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   8.644486E+04
  P =   4.529927E+04  7.353426E+04 -3.660886E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.750401E+03
  P =  -9.451524E+02 -7.211880E+02  2.480178E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.239835E+05
  P =  -6.346876E+04 -1.131353E+05  1.825944E+05
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  4.950788936E-12
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499388E+05
  P =   2.534187E+04  5.389475E+04 -2.427396E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.479782E+05
  P =  -2.446564E+04 -5.332377E+04  2.409381E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.083082E+03
  P =  -8.762376E+02 -5.709856E+02  1.801503E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.497882E+05
  P =   2.527464E+04  5.385094E+04 -2.426014E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.481274E+05
  P =  -2.453238E+04 -5.336726E+04  2.410754E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.027923E+02
  P =   1.805539E+02  9.186084E+01 -9.305294E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.881521E+03
  P =  -9.228099E+02 -5.755396E+02  1.535349E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   8.895887E+04
  P =   2.293156E+04  7.424874E+04  4.330067E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.837066E+05
  P =  -1.794896E+04 -3.946469E+04  1.785175E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.580182E+03
  P =  -8.209372E+02 -4.533780E+02  1.271804E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.257544E+05
  P =  -4.161665E+03 -3.433067E+04 -2.230899E+05
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   1.868213E+05
  P =   1.911464E+04  4.032226E+04 -1.814137E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   8.644486E+04
  P =   4.529927E+04  7.353426E+04 -3.660886E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.750401E+03
  P =  -9.451524E+02 -7.211880E+02  2.480178E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.239835E+05
  P =  -6.346876E+04 -1.131353E+05  1.825944E+05
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 3
 n_tot* => 5
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  1.56951E-07
 sqme_ref* =>  1.79521E-07
 event_index* => 8
 event_weight* =>  1.38056E-05
 event_weight_ref* =>  1.57909E-05
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-2| 2.4993875E+05; 2.5341874E+04, 5.3894751E+04,-2.4273963E+05| 0.0000000E+00| 3)
  4 prt(o:2| 2.4797816E+05;-2.4465636E+04,-5.3323765E+04, 2.4093812E+05| 0.0000000E+00| 4)
  5 prt(o:21| 2.0830822E+03;-8.7623760E+02,-5.7098564E+02, 1.8015034E+03| 0.0000000E+00| 5)
 ========================================================================
 ========================================================================
  Event #8
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  1.79521E-07
    Squared matrix el. (prc) =  2.25624E-08
    Event weight (ref)       =  1.57909E-05
    Event weight (prc)       =  1.98461E-06
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            3361222980.0,            3601284.0,         3842382860.0,
            2580515999.0,         3568184670.0,          735623006.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499388E+05
  P =   2.534187E+04  5.389475E+04 -2.427396E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.479782E+05
  P =  -2.446564E+04 -5.332377E+04  2.409381E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.083082E+03
  P =  -8.762376E+02 -5.709856E+02  1.801503E+03
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            2280904955.0,         1539004561.0,          852756080.0,
            3258303332.0,         2415368508.0,         1295976056.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   1.868213E+05
  P =   1.911464E+04  4.032226E+04 -1.814137E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   8.644486E+04
  P =   4.529927E+04  7.353426E+04 -3.660886E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.750401E+03
  P =  -9.451524E+02 -7.211880E+02  2.480178E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.239835E+05
  P =  -6.346876E+04 -1.131353E+05  1.825944E+05
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  4.950788936E-12
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499388E+05
  P =   2.534187E+04  5.389475E+04 -2.427396E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.479782E+05
  P =  -2.446564E+04 -5.332377E+04  2.409381E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.083082E+03
  P =  -8.762376E+02 -5.709856E+02  1.801503E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.497882E+05
  P =   2.527464E+04  5.385094E+04 -2.426014E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.481274E+05
  P =  -2.453238E+04 -5.336726E+04  2.410754E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.027923E+02
  P =   1.805539E+02  9.186084E+01 -9.305294E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.881521E+03
  P =  -9.228099E+02 -5.755396E+02  1.535349E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   8.895887E+04
  P =   2.293156E+04  7.424874E+04  4.330067E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.837066E+05
  P =  -1.794896E+04 -3.946469E+04  1.785175E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.580182E+03
  P =  -8.209372E+02 -4.533780E+02  1.271804E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.257544E+05
  P =  -4.161665E+03 -3.433067E+04 -2.230899E+05
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   1.868213E+05
  P =   1.911464E+04  4.032226E+04 -1.814137E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   8.644486E+04
  P =   4.529927E+04  7.353426E+04 -3.660886E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.750401E+03
  P =  -9.451524E+02 -7.211880E+02  2.480178E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.239835E+05
  P =  -6.346876E+04 -1.131353E+05  1.825944E+05
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  2.25624E-08
 sqme_ref* =>  1.79521E-07
 event_index* => 8
 event_weight* =>  1.98461E-06
 event_weight_ref* =>  1.57909E-05
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-2| 2.4978825E+05; 2.5274639E+04, 5.3850938E+04,-2.4260139E+05| 0.0000000E+00| 3)
  4 prt(o:2| 2.4812744E+05;-2.4532383E+04,-5.3367260E+04, 2.4107535E+05| 0.0000000E+00| 4)
  5 prt(o:21| 2.0279232E+02; 1.8055394E+02, 9.1860837E+01,-9.3052939E+00| 0.0000000E+00| 5)
  6 prt(o:21| 1.8815206E+03;-9.2280989E+02,-5.7553957E+02, 1.5353488E+03| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #8
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  1.79521E-07
    Squared matrix el. (prc) =  2.44130E-12
    Event weight (ref)       =  1.57909E-05
    Event weight (prc)       =  2.14739E-10
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            3361222980.0,            3601284.0,         3842382860.0,
            2580515999.0,         3568184670.0,          735623006.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499388E+05
  P =   2.534187E+04  5.389475E+04 -2.427396E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.479782E+05
  P =  -2.446564E+04 -5.332377E+04  2.409381E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.083082E+03
  P =  -8.762376E+02 -5.709856E+02  1.801503E+03
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            2280904955.0,         1539004561.0,          852756080.0,
            3258303332.0,         2415368508.0,         1295976056.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   1.868213E+05
  P =   1.911464E+04  4.032226E+04 -1.814137E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   8.644486E+04
  P =   4.529927E+04  7.353426E+04 -3.660886E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.750401E+03
  P =  -9.451524E+02 -7.211880E+02  2.480178E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.239835E+05
  P =  -6.346876E+04 -1.131353E+05  1.825944E+05
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  4.950788936E-12
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499388E+05
  P =   2.534187E+04  5.389475E+04 -2.427396E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.479782E+05
  P =  -2.446564E+04 -5.332377E+04  2.409381E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.083082E+03
  P =  -8.762376E+02 -5.709856E+02  1.801503E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.497882E+05
  P =   2.527464E+04  5.385094E+04 -2.426014E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.481274E+05
  P =  -2.453238E+04 -5.336726E+04  2.410754E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.027923E+02
  P =   1.805539E+02  9.186084E+01 -9.305294E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.881521E+03
  P =  -9.228099E+02 -5.755396E+02  1.535349E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   8.895887E+04
  P =   2.293156E+04  7.424874E+04  4.330067E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.837066E+05
  P =  -1.794896E+04 -3.946469E+04  1.785175E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.580182E+03
  P =  -8.209372E+02 -4.533780E+02  1.271804E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.257544E+05
  P =  -4.161665E+03 -3.433067E+04 -2.230899E+05
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   1.868213E+05
  P =   1.911464E+04  4.032226E+04 -1.814137E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   8.644486E+04
  P =   4.529927E+04  7.353426E+04 -3.660886E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.750401E+03
  P =  -9.451524E+02 -7.211880E+02  2.480178E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.239835E+05
  P =  -6.346876E+04 -1.131353E+05  1.825944E+05
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  2.44130E-12
 sqme_ref* =>  1.79521E-07
 event_index* => 8
 event_weight* =>  2.14739E-10
 event_weight_ref* =>  1.57909E-05
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-2| 8.8958866E+04; 2.2931558E+04, 7.4248739E+04, 4.3300672E+04| 0.0000000E+00| 3)
  4 prt(o:2| 1.8370659E+05;-1.7948956E+04,-3.9464693E+04, 1.7851746E+05| 0.0000000E+00| 4)
  5 prt(o:21| 1.5801816E+03;-8.2093725E+02,-4.5337797E+02, 1.2718036E+03| 0.0000000E+00| 5)
  6 prt(o:21| 2.2575437E+05;-4.1616648E+03,-3.4330669E+04,-2.2308994E+05| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #8
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  1.79521E-07
    Squared matrix el. (prc) =  4.95079E-12
    Event weight (ref)       =  1.57909E-05
    Event weight (prc)       =  4.35477E-10
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            3361222980.0,            3601284.0,         3842382860.0,
            2580515999.0,         3568184670.0,          735623006.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499388E+05
  P =   2.534187E+04  5.389475E+04 -2.427396E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.479782E+05
  P =  -2.446564E+04 -5.332377E+04  2.409381E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.083082E+03
  P =  -8.762376E+02 -5.709856E+02  1.801503E+03
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            2280904955.0,         1539004561.0,          852756080.0,
            3258303332.0,         2415368508.0,         1295976056.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   1.868213E+05
  P =   1.911464E+04  4.032226E+04 -1.814137E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   8.644486E+04
  P =   4.529927E+04  7.353426E+04 -3.660886E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.750401E+03
  P =  -9.451524E+02 -7.211880E+02  2.480178E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.239835E+05
  P =  -6.346876E+04 -1.131353E+05  1.825944E+05
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  4.950788936E-12
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499388E+05
  P =   2.534187E+04  5.389475E+04 -2.427396E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.479782E+05
  P =  -2.446564E+04 -5.332377E+04  2.409381E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.083082E+03
  P =  -8.762376E+02 -5.709856E+02  1.801503E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.497882E+05
  P =   2.527464E+04  5.385094E+04 -2.426014E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.481274E+05
  P =  -2.453238E+04 -5.336726E+04  2.410754E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.027923E+02
  P =   1.805539E+02  9.186084E+01 -9.305294E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.881521E+03
  P =  -9.228099E+02 -5.755396E+02  1.535349E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   8.895887E+04
  P =   2.293156E+04  7.424874E+04  4.330067E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.837066E+05
  P =  -1.794896E+04 -3.946469E+04  1.785175E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.580182E+03
  P =  -8.209372E+02 -4.533780E+02  1.271804E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.257544E+05
  P =  -4.161665E+03 -3.433067E+04 -2.230899E+05
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   1.868213E+05
  P =   1.911464E+04  4.032226E+04 -1.814137E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   8.644486E+04
  P =   4.529927E+04  7.353426E+04 -3.660886E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.750401E+03
  P =  -9.451524E+02 -7.211880E+02  2.480178E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.239835E+05
  P =  -6.346876E+04 -1.131353E+05  1.825944E+05
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  4.95079E-12
 sqme_ref* =>  1.79521E-07
 event_index* => 8
 event_weight* =>  4.35477E-10
 event_weight_ref* =>  1.57909E-05
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-1| 1.8682125E+05; 1.9114640E+04, 4.0322263E+04,-1.8141369E+05| 0.0000000E+00| 3)
  4 prt(o:1| 8.6444859E+04; 4.5299272E+04, 7.3534261E+04,-3.6608858E+03| 0.0000000E+00| 4)
  5 prt(o:21| 2.7504015E+03;-9.4515241E+02,-7.2118804E+02, 2.4801780E+03| 0.0000000E+00| 5)
  6 prt(o:21| 2.2398349E+05;-6.3468759E+04,-1.1313534E+05, 1.8259440E+05| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #9
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  1.02232E-08
    Squared matrix el. (prc) =  2.86600E-07
    Event weight (ref)       =  1.47210E-06
    Event weight (prc)       =  0.00000E+00
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            1484659988.0,         1927671876.0,         4126230753.0,
            2962609785.0,         2346280463.0,         1525515485.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   2.499775E+05
  P =   3.262805E+03 -8.667148E+04 -2.344486E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.371317E+05
  P =  -3.750207E+03  8.144592E+04  2.226745E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.289085E+04
  P =   4.874027E+02  5.225563E+03  1.177412E+04
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            1981754768.0,         1371881432.0,         1113999651.0,
             130493356.0,         4030926615.0,         1806134700.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.264346E+05
  P =   2.890473E+03 -7.858530E+04 -2.123408E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.236217E+05
  P =   3.030647E+04  8.319946E+04  2.053437E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.422644E+04
  P =   4.662097E+02  5.685827E+03  1.303249E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   3.571726E+04
  P =  -3.366315E+04 -1.029999E+04 -6.035314E+03
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  1.494556903E-10
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499775E+05
  P =   3.262805E+03 -8.667148E+04 -2.344486E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.371317E+05
  P =  -3.750207E+03  8.144592E+04  2.226745E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.289085E+04
  P =   4.874027E+02  5.225563E+03  1.177412E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.487096E+05
  P =   3.310905E+03 -8.615579E+04 -2.332867E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.383402E+05
  P =  -3.704346E+03  8.193761E+04  2.237824E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.100863E+04
  P =   2.291857E+03  4.527782E+03  9.769162E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.941646E+03
  P =  -1.898416E+03 -3.096039E+02 -2.648602E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.371521E+05
  P =  -3.308394E+04 -7.653858E+04 -2.220099E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.135808E+05
  P =  -3.442808E+03  7.328032E+04  2.005863E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.161504E+04
  P =   5.041165E+02  4.781588E+03  1.057315E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   3.765212E+04
  P =   3.602263E+04 -1.523326E+03  1.085044E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.264346E+05
  P =   2.890473E+03 -7.858530E+04 -2.123408E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.236217E+05
  P =   3.030647E+04  8.319946E+04  2.053437E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.422644E+04
  P =   4.662097E+02  5.685827E+03  1.303249E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   3.571726E+04
  P =  -3.366315E+04 -1.029999E+04 -6.035314E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 3
 n_tot* => 5
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  2.86600E-07
 sqme_ref* =>  1.02232E-08
 event_index* => 9
 event_weight* =>  0.00000E+00
 event_weight_ref* =>  1.47210E-06
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-2| 2.4997748E+05; 3.2628046E+03,-8.6671481E+04,-2.3444861E+05| 0.0000000E+00| 3)
  4 prt(o:2| 2.3713167E+05;-3.7502073E+03, 8.1445918E+04, 2.2267449E+05| 0.0000000E+00| 4)
  5 prt(o:21| 1.2890846E+04; 4.8740273E+02, 5.2255632E+03, 1.1774117E+04| 0.0000000E+00| 5)
 ========================================================================
 ========================================================================
  Event #9
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  1.02232E-08
    Squared matrix el. (prc) =  9.93345E-09
    Event weight (ref)       =  1.47210E-06
    Event weight (prc)       =  1.43037E-06
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            1484659988.0,         1927671876.0,         4126230753.0,
            2962609785.0,         2346280463.0,         1525515485.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   2.499775E+05
  P =   3.262805E+03 -8.667148E+04 -2.344486E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.371317E+05
  P =  -3.750207E+03  8.144592E+04  2.226745E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.289085E+04
  P =   4.874027E+02  5.225563E+03  1.177412E+04
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            1981754768.0,         1371881432.0,         1113999651.0,
             130493356.0,         4030926615.0,         1806134700.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.264346E+05
  P =   2.890473E+03 -7.858530E+04 -2.123408E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.236217E+05
  P =   3.030647E+04  8.319946E+04  2.053437E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.422644E+04
  P =   4.662097E+02  5.685827E+03  1.303249E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   3.571726E+04
  P =  -3.366315E+04 -1.029999E+04 -6.035314E+03
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  1.494556903E-10
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499775E+05
  P =   3.262805E+03 -8.667148E+04 -2.344486E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.371317E+05
  P =  -3.750207E+03  8.144592E+04  2.226745E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.289085E+04
  P =   4.874027E+02  5.225563E+03  1.177412E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.487096E+05
  P =   3.310905E+03 -8.615579E+04 -2.332867E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.383402E+05
  P =  -3.704346E+03  8.193761E+04  2.237824E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.100863E+04
  P =   2.291857E+03  4.527782E+03  9.769162E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.941646E+03
  P =  -1.898416E+03 -3.096039E+02 -2.648602E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.371521E+05
  P =  -3.308394E+04 -7.653858E+04 -2.220099E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.135808E+05
  P =  -3.442808E+03  7.328032E+04  2.005863E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.161504E+04
  P =   5.041165E+02  4.781588E+03  1.057315E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   3.765212E+04
  P =   3.602263E+04 -1.523326E+03  1.085044E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.264346E+05
  P =   2.890473E+03 -7.858530E+04 -2.123408E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.236217E+05
  P =   3.030647E+04  8.319946E+04  2.053437E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.422644E+04
  P =   4.662097E+02  5.685827E+03  1.303249E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   3.571726E+04
  P =  -3.366315E+04 -1.029999E+04 -6.035314E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  9.93345E-09
 sqme_ref* =>  1.02232E-08
 event_index* => 9
 event_weight* =>  1.43037E-06
 event_weight_ref* =>  1.47210E-06
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-1| 2.4870956E+05; 3.3109049E+03,-8.6155785E+04,-2.3328665E+05| 0.0000000E+00| 3)
  4 prt(o:1| 2.3834017E+05;-3.7043461E+03, 8.1937607E+04, 2.2378235E+05| 0.0000000E+00| 4)
  5 prt(o:21| 1.1008630E+04; 2.2918569E+03, 4.5277823E+03, 9.7691618E+03| 0.0000000E+00| 5)
  6 prt(o:21| 1.9416457E+03;-1.8984158E+03,-3.0960385E+02,-2.6486017E+02| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #9
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  1.02232E-08
    Squared matrix el. (prc) =  1.40317E-10
    Event weight (ref)       =  1.47210E-06
    Event weight (prc)       =  2.02050E-08
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            1484659988.0,         1927671876.0,         4126230753.0,
            2962609785.0,         2346280463.0,         1525515485.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   2.499775E+05
  P =   3.262805E+03 -8.667148E+04 -2.344486E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.371317E+05
  P =  -3.750207E+03  8.144592E+04  2.226745E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.289085E+04
  P =   4.874027E+02  5.225563E+03  1.177412E+04
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            1981754768.0,         1371881432.0,         1113999651.0,
             130493356.0,         4030926615.0,         1806134700.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.264346E+05
  P =   2.890473E+03 -7.858530E+04 -2.123408E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.236217E+05
  P =   3.030647E+04  8.319946E+04  2.053437E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.422644E+04
  P =   4.662097E+02  5.685827E+03  1.303249E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   3.571726E+04
  P =  -3.366315E+04 -1.029999E+04 -6.035314E+03
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  1.494556903E-10
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499775E+05
  P =   3.262805E+03 -8.667148E+04 -2.344486E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.371317E+05
  P =  -3.750207E+03  8.144592E+04  2.226745E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.289085E+04
  P =   4.874027E+02  5.225563E+03  1.177412E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.487096E+05
  P =   3.310905E+03 -8.615579E+04 -2.332867E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.383402E+05
  P =  -3.704346E+03  8.193761E+04  2.237824E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.100863E+04
  P =   2.291857E+03  4.527782E+03  9.769162E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.941646E+03
  P =  -1.898416E+03 -3.096039E+02 -2.648602E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.371521E+05
  P =  -3.308394E+04 -7.653858E+04 -2.220099E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.135808E+05
  P =  -3.442808E+03  7.328032E+04  2.005863E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.161504E+04
  P =   5.041165E+02  4.781588E+03  1.057315E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   3.765212E+04
  P =   3.602263E+04 -1.523326E+03  1.085044E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.264346E+05
  P =   2.890473E+03 -7.858530E+04 -2.123408E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.236217E+05
  P =   3.030647E+04  8.319946E+04  2.053437E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.422644E+04
  P =   4.662097E+02  5.685827E+03  1.303249E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   3.571726E+04
  P =  -3.366315E+04 -1.029999E+04 -6.035314E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  1.40317E-10
 sqme_ref* =>  1.02232E-08
 event_index* => 9
 event_weight* =>  2.02050E-08
 event_weight_ref* =>  1.47210E-06
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-2| 2.3715208E+05;-3.3083935E+04,-7.6538582E+04,-2.2200993E+05| 0.0000000E+00| 3)
  4 prt(o:2| 2.1358075E+05;-3.4428080E+03, 7.3280321E+04, 2.0058634E+05| 0.0000000E+00| 4)
  5 prt(o:21| 1.1615045E+04; 5.0411647E+02, 4.7815877E+03, 1.0573152E+04| 0.0000000E+00| 5)
  6 prt(o:21| 3.7652121E+04; 3.6022627E+04,-1.5233261E+03, 1.0850441E+04| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #9
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  1.02232E-08
    Squared matrix el. (prc) =  1.49456E-10
    Event weight (ref)       =  1.47210E-06
    Event weight (prc)       =  2.15209E-08
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            1484659988.0,         1927671876.0,         4126230753.0,
            2962609785.0,         2346280463.0,         1525515485.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   2.499775E+05
  P =   3.262805E+03 -8.667148E+04 -2.344486E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.371317E+05
  P =  -3.750207E+03  8.144592E+04  2.226745E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.289085E+04
  P =   4.874027E+02  5.225563E+03  1.177412E+04
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            1981754768.0,         1371881432.0,         1113999651.0,
             130493356.0,         4030926615.0,         1806134700.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.264346E+05
  P =   2.890473E+03 -7.858530E+04 -2.123408E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.236217E+05
  P =   3.030647E+04  8.319946E+04  2.053437E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.422644E+04
  P =   4.662097E+02  5.685827E+03  1.303249E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   3.571726E+04
  P =  -3.366315E+04 -1.029999E+04 -6.035314E+03
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  1.494556903E-10
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499775E+05
  P =   3.262805E+03 -8.667148E+04 -2.344486E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.371317E+05
  P =  -3.750207E+03  8.144592E+04  2.226745E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.289085E+04
  P =   4.874027E+02  5.225563E+03  1.177412E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.487096E+05
  P =   3.310905E+03 -8.615579E+04 -2.332867E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.383402E+05
  P =  -3.704346E+03  8.193761E+04  2.237824E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.100863E+04
  P =   2.291857E+03  4.527782E+03  9.769162E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.941646E+03
  P =  -1.898416E+03 -3.096039E+02 -2.648602E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.371521E+05
  P =  -3.308394E+04 -7.653858E+04 -2.220099E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.135808E+05
  P =  -3.442808E+03  7.328032E+04  2.005863E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.161504E+04
  P =   5.041165E+02  4.781588E+03  1.057315E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   3.765212E+04
  P =   3.602263E+04 -1.523326E+03  1.085044E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.264346E+05
  P =   2.890473E+03 -7.858530E+04 -2.123408E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.236217E+05
  P =   3.030647E+04  8.319946E+04  2.053437E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.422644E+04
  P =   4.662097E+02  5.685827E+03  1.303249E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   3.571726E+04
  P =  -3.366315E+04 -1.029999E+04 -6.035314E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  1.49456E-10
 sqme_ref* =>  1.02232E-08
 event_index* => 9
 event_weight* =>  2.15209E-08
 event_weight_ref* =>  1.47210E-06
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-2| 2.2643462E+05; 2.8904732E+03,-7.8585296E+04,-2.1234084E+05| 0.0000000E+00| 3)
  4 prt(o:2| 2.2362168E+05; 3.0306470E+04, 8.3199455E+04, 2.0534367E+05| 0.0000000E+00| 4)
  5 prt(o:21| 1.4226444E+04; 4.6620970E+02, 5.6858273E+03, 1.3032487E+04| 0.0000000E+00| 5)
  6 prt(o:21| 3.5717259E+04;-3.3663153E+04,-1.0299987E+04,-6.0353138E+03| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #10
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  4.92778E-09
    Squared matrix el. (prc) =  7.74654E-07
    Event weight (ref)       =  1.03134E-04
    Event weight (prc)       =  0.00000E+00
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            2574779949.0,            1613258.0,          957203242.0,
            1832886249.0,         3404761797.0,         1098311093.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.498989E+05
  P =   1.189037E+05  2.145963E+05  4.753702E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.291126E+05
  P =  -1.114478E+05 -1.954003E+05 -4.348233E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.098856E+04
  P =  -7.455988E+03 -1.919602E+04 -4.054693E+03
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
             379220129.0,          955940867.0,          625050135.0,
            1046562733.0,         2664737320.0,          326107529.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.434709E+05
  P =   1.157767E+05  2.091137E+05  4.631699E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.217269E+05
  P =  -9.968093E+04 -1.951835E+05 -3.361440E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.153698E+04
  P =  -7.725518E+03 -1.966859E+04 -4.159853E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.326530E+04
  P =  -8.370269E+03  5.738346E+03 -8.542730E+03
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  5.293057881E-10
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.498989E+05
  P =   1.189037E+05  2.145963E+05  4.753702E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.291126E+05
  P =  -1.114478E+05 -1.954003E+05 -4.348233E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.098856E+04
  P =  -7.455988E+03 -1.919602E+04 -4.054693E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.493156E+05
  P =   1.186947E+05  2.140581E+05  4.742334E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.296477E+05
  P =  -1.116399E+05 -1.958949E+05 -4.358680E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.982150E+04
  P =  -6.219397E+03 -1.857106E+04 -3.053953E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.215208E+03
  P =  -8.354423E+02  4.078269E+02 -7.825887E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.424422E+05
  P =   1.046423E+05  2.116187E+05  5.518837E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.226841E+05
  P =  -1.083888E+05 -1.898795E+05 -4.225938E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.040489E+04
  P =  -7.175727E+03 -1.869021E+04 -3.942647E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.446880E+04
  P =   1.092225E+04 -3.048961E+03 -8.986342E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.434709E+05
  P =   1.157767E+05  2.091137E+05  4.631699E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.217269E+05
  P =  -9.968093E+04 -1.951835E+05 -3.361440E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.153698E+04
  P =  -7.725518E+03 -1.966859E+04 -4.159853E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.326530E+04
  P =  -8.370269E+03  5.738346E+03 -8.542730E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 3
 n_tot* => 5
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  7.74654E-07
 sqme_ref* =>  4.92778E-09
 event_index* => 10
 event_weight* =>  0.00000E+00
 event_weight_ref* =>  1.03134E-04
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-2| 2.4989885E+05; 1.1890374E+05, 2.1459629E+05, 4.7537023E+04| 0.0000000E+00| 3)
  4 prt(o:2| 2.2911259E+05;-1.1144776E+05,-1.9540027E+05,-4.3482329E+04| 0.0000000E+00| 4)
  5 prt(o:21| 2.0988556E+04;-7.4559875E+03,-1.9196021E+04,-4.0546932E+03| 0.0000000E+00| 5)
 ========================================================================
 ========================================================================
  Event #10
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  4.92778E-09
    Squared matrix el. (prc) =  3.94883E-09
    Event weight (ref)       =  1.03134E-04
    Event weight (prc)       =  8.26455E-05
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            2574779949.0,            1613258.0,          957203242.0,
            1832886249.0,         3404761797.0,         1098311093.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.498989E+05
  P =   1.189037E+05  2.145963E+05  4.753702E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.291126E+05
  P =  -1.114478E+05 -1.954003E+05 -4.348233E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.098856E+04
  P =  -7.455988E+03 -1.919602E+04 -4.054693E+03
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
             379220129.0,          955940867.0,          625050135.0,
            1046562733.0,         2664737320.0,          326107529.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.434709E+05
  P =   1.157767E+05  2.091137E+05  4.631699E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.217269E+05
  P =  -9.968093E+04 -1.951835E+05 -3.361440E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.153698E+04
  P =  -7.725518E+03 -1.966859E+04 -4.159853E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.326530E+04
  P =  -8.370269E+03  5.738346E+03 -8.542730E+03
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  5.293057881E-10
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.498989E+05
  P =   1.189037E+05  2.145963E+05  4.753702E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.291126E+05
  P =  -1.114478E+05 -1.954003E+05 -4.348233E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.098856E+04
  P =  -7.455988E+03 -1.919602E+04 -4.054693E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.493156E+05
  P =   1.186947E+05  2.140581E+05  4.742334E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.296477E+05
  P =  -1.116399E+05 -1.958949E+05 -4.358680E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.982150E+04
  P =  -6.219397E+03 -1.857106E+04 -3.053953E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.215208E+03
  P =  -8.354423E+02  4.078269E+02 -7.825887E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.424422E+05
  P =   1.046423E+05  2.116187E+05  5.518837E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.226841E+05
  P =  -1.083888E+05 -1.898795E+05 -4.225938E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.040489E+04
  P =  -7.175727E+03 -1.869021E+04 -3.942647E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.446880E+04
  P =   1.092225E+04 -3.048961E+03 -8.986342E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.434709E+05
  P =   1.157767E+05  2.091137E+05  4.631699E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.217269E+05
  P =  -9.968093E+04 -1.951835E+05 -3.361440E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.153698E+04
  P =  -7.725518E+03 -1.966859E+04 -4.159853E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.326530E+04
  P =  -8.370269E+03  5.738346E+03 -8.542730E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  3.94883E-09
 sqme_ref* =>  4.92778E-09
 event_index* => 10
 event_weight* =>  8.26455E-05
 event_weight_ref* =>  1.03134E-04
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-2| 2.4931560E+05; 1.1869470E+05, 2.1405809E+05, 4.7423341E+04| 0.0000000E+00| 3)
  4 prt(o:2| 2.2964769E+05;-1.1163986E+05,-1.9589486E+05,-4.3586799E+04| 0.0000000E+00| 4)
  5 prt(o:21| 1.9821498E+04;-6.2193968E+03,-1.8571060E+04,-3.0539532E+03| 0.0000000E+00| 5)
  6 prt(o:21| 1.2152085E+03;-8.3544227E+02, 4.0782685E+02,-7.8258868E+02| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #10
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  4.92778E-09
    Squared matrix el. (prc) =  4.49653E-10
    Event weight (ref)       =  1.03134E-04
    Event weight (prc)       =  9.41086E-06
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            2574779949.0,            1613258.0,          957203242.0,
            1832886249.0,         3404761797.0,         1098311093.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.498989E+05
  P =   1.189037E+05  2.145963E+05  4.753702E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.291126E+05
  P =  -1.114478E+05 -1.954003E+05 -4.348233E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.098856E+04
  P =  -7.455988E+03 -1.919602E+04 -4.054693E+03
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
             379220129.0,          955940867.0,          625050135.0,
            1046562733.0,         2664737320.0,          326107529.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.434709E+05
  P =   1.157767E+05  2.091137E+05  4.631699E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.217269E+05
  P =  -9.968093E+04 -1.951835E+05 -3.361440E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.153698E+04
  P =  -7.725518E+03 -1.966859E+04 -4.159853E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.326530E+04
  P =  -8.370269E+03  5.738346E+03 -8.542730E+03
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  5.293057881E-10
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.498989E+05
  P =   1.189037E+05  2.145963E+05  4.753702E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.291126E+05
  P =  -1.114478E+05 -1.954003E+05 -4.348233E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.098856E+04
  P =  -7.455988E+03 -1.919602E+04 -4.054693E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.493156E+05
  P =   1.186947E+05  2.140581E+05  4.742334E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.296477E+05
  P =  -1.116399E+05 -1.958949E+05 -4.358680E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.982150E+04
  P =  -6.219397E+03 -1.857106E+04 -3.053953E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.215208E+03
  P =  -8.354423E+02  4.078269E+02 -7.825887E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.424422E+05
  P =   1.046423E+05  2.116187E+05  5.518837E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.226841E+05
  P =  -1.083888E+05 -1.898795E+05 -4.225938E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.040489E+04
  P =  -7.175727E+03 -1.869021E+04 -3.942647E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.446880E+04
  P =   1.092225E+04 -3.048961E+03 -8.986342E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.434709E+05
  P =   1.157767E+05  2.091137E+05  4.631699E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.217269E+05
  P =  -9.968093E+04 -1.951835E+05 -3.361440E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.153698E+04
  P =  -7.725518E+03 -1.966859E+04 -4.159853E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.326530E+04
  P =  -8.370269E+03  5.738346E+03 -8.542730E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  4.49653E-10
 sqme_ref* =>  4.92778E-09
 event_index* => 10
 event_weight* =>  9.41086E-06
 event_weight_ref* =>  1.03134E-04
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-2| 2.4244221E+05; 1.0464228E+05, 2.1161867E+05, 5.5188366E+04| 0.0000000E+00| 3)
  4 prt(o:2| 2.2268411E+05;-1.0838880E+05,-1.8987950E+05,-4.2259378E+04| 0.0000000E+00| 4)
  5 prt(o:21| 2.0404888E+04;-7.1757273E+03,-1.8690210E+04,-3.9426468E+03| 0.0000000E+00| 5)
  6 prt(o:21| 1.4468799E+04; 1.0922254E+04,-3.0489615E+03,-8.9863419E+03| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #10
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  4.92778E-09
    Squared matrix el. (prc) =  5.29306E-10
    Event weight (ref)       =  1.03134E-04
    Event weight (prc)       =  1.10779E-05
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            2574779949.0,            1613258.0,          957203242.0,
            1832886249.0,         3404761797.0,         1098311093.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.498989E+05
  P =   1.189037E+05  2.145963E+05  4.753702E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.291126E+05
  P =  -1.114478E+05 -1.954003E+05 -4.348233E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.098856E+04
  P =  -7.455988E+03 -1.919602E+04 -4.054693E+03
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
             379220129.0,          955940867.0,          625050135.0,
            1046562733.0,         2664737320.0,          326107529.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.434709E+05
  P =   1.157767E+05  2.091137E+05  4.631699E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.217269E+05
  P =  -9.968093E+04 -1.951835E+05 -3.361440E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.153698E+04
  P =  -7.725518E+03 -1.966859E+04 -4.159853E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.326530E+04
  P =  -8.370269E+03  5.738346E+03 -8.542730E+03
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  5.293057881E-10
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.498989E+05
  P =   1.189037E+05  2.145963E+05  4.753702E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.291126E+05
  P =  -1.114478E+05 -1.954003E+05 -4.348233E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.098856E+04
  P =  -7.455988E+03 -1.919602E+04 -4.054693E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.493156E+05
  P =   1.186947E+05  2.140581E+05  4.742334E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.296477E+05
  P =  -1.116399E+05 -1.958949E+05 -4.358680E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.982150E+04
  P =  -6.219397E+03 -1.857106E+04 -3.053953E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.215208E+03
  P =  -8.354423E+02  4.078269E+02 -7.825887E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.424422E+05
  P =   1.046423E+05  2.116187E+05  5.518837E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.226841E+05
  P =  -1.083888E+05 -1.898795E+05 -4.225938E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.040489E+04
  P =  -7.175727E+03 -1.869021E+04 -3.942647E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.446880E+04
  P =   1.092225E+04 -3.048961E+03 -8.986342E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.434709E+05
  P =   1.157767E+05  2.091137E+05  4.631699E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.217269E+05
  P =  -9.968093E+04 -1.951835E+05 -3.361440E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.153698E+04
  P =  -7.725518E+03 -1.966859E+04 -4.159853E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.326530E+04
  P =  -8.370269E+03  5.738346E+03 -8.542730E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  5.29306E-10
 sqme_ref* =>  4.92778E-09
 event_index* => 10
 event_weight* =>  1.10779E-05
 event_weight_ref* =>  1.03134E-04
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-1| 2.4347085E+05; 1.1577672E+05, 2.0911371E+05, 4.6316987E+04| 0.0000000E+00| 3)
  4 prt(o:1| 2.2172687E+05;-9.9680934E+04,-1.9518347E+05,-3.3614404E+04| 0.0000000E+00| 4)
  5 prt(o:21| 2.1536975E+04;-7.7255182E+03,-1.9668586E+04,-4.1598530E+03| 0.0000000E+00| 5)
  6 prt(o:21| 1.3265303E+04;-8.3702695E+03, 5.7383460E+03,-8.5427301E+03| 0.0000000E+00| 6)
 ========================================================================
Index: trunk/share/tests/functional_tests/ref-output-quad/openloops_14.ref
===================================================================
--- trunk/share/tests/functional_tests/ref-output-quad/openloops_14.ref	(revision 8818)
+++ trunk/share/tests/functional_tests/ref-output-quad/openloops_14.ref	(revision 8819)
@@ -1,11136 +1,11137 @@
 ?openmp_logging = false
 ?vis_history = false
 ?integration_timer = false
 ?pacify = true
 | Switching to model 'SM', scheme 'GF_MW_MZ'
 $blha_ew_scheme = "alpha_qed"
 SM.mZ =>  9.11880E+01
 SM.mW =>  8.04190E+01
 SM.mH =>  1.25000E+02
 SM.GF =>  1.16639E-05
 SM.wZ =>  0.00000E+00
 SM.wtop =>  0.00000E+00
 SM.wW =>  0.00000E+00
 SM.wH =>  0.00000E+00
 SM.ms =>  0.00000E+00
 SM.mc =>  0.00000E+00
 SM.mb =>  0.00000E+00
 SM.mtop =>  1.73200E+02
 SM.me =>  0.00000E+00
 SM.mmu =>  0.00000E+00
 SM.mtau =>  1.77700E+00
 SM.alphas =>  1.18000E-01
 ?alphas_is_fixed = false
 ?alphas_from_mz = true
 ?alphas_from_lambda_qcd = false
 alphas_nf = 5
 [user variable] jet = PDG(2, -2, 1, -1, 3, -3, 21)
 $exclude_gauge_splittings = "c:b:t"
 $method = "openloops"
 ?use_vamp_equivalences = false
 $integration_method = "vamp2"
 $rng_method = "rng_stream"
 openmp_num_threads = 1
 jet_algorithm = 2
 jet_r =  5.00000E-01
 alpha_power = 2
 alphas_power = 1
+$openloops_allowed_libs = "ppllj"
 seed = 8131
 sqrts =  1.00000E+03
 ?combined_nlo_integration = true
 | Process library 'openloops_14_lib': recorded process 'openloops_14_p1'
 | Integrate: current process library needs compilation
 | Process library 'openloops_14_lib': compiling ...
 | Process library 'openloops_14_lib': writing makefile
 | Process library 'openloops_14_lib': removing old files
 | Process library 'openloops_14_lib': writing driver
 | Process library 'openloops_14_lib': creating source code
 | Process library 'openloops_14_lib': compiling sources
 | Process library 'openloops_14_lib': linking
 | Process library 'openloops_14_lib': loading
 | Process library 'openloops_14_lib': ... success.
 | Integrate: compilation done
 | QCD alpha: using a running strong coupling
 | RNG: Initializing RNG Stream random-number generator
 | RNG: Setting seed for random-number generator to 8131
 | Initializing integration for process openloops_14_p1:
 | Beam structure: [any particles]
 | Beam data (collision):
 |   e-  (mass = 0.0000000E+00 GeV)
 |   e+  (mass = 0.0000000E+00 GeV)
 |   sqrts = 1.000000000000E+03 GeV
 | Phase space: generating configuration ...
 Warning:  Intermediate decay of zero-width particle Z may be possible.
 | Phase space: ... success.
 | Phase space: writing configuration file 'openloops_14_p1.i1.phs'
 | Phase space: generating configuration ...
 | Phase space: ... success.
 | Phase space: writing configuration file 'openloops_14_p1.i3.phs'
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | ------------------------------------------------------------------------
 | Process [scattering]: 'openloops_14_p1'
 |   Library name  = 'openloops_14_lib'
 |   Process index = 1
 |   Process components:
 |     1: 'openloops_14_p1_i1':   e-, e+ => u:ubar:d:dbar:s:sbar:gl, u:ubar:d:dbar:s:sbar:gl, u:ubar:d:dbar:s:sbar:gl [openloops]
 |     2: 'openloops_14_p1_i2':   e-, e+ => d:dbar:u:ubar:s:sbar:gl, d:dbar:u:ubar:s:sbar:gl, d:dbar:u:ubar:s:sbar:gl, d:dbar:u:ubar:s:sbar:gl [openloops], [real]
 |     3: 'openloops_14_p1_i3':   e-, e+ => u:ubar:d:dbar:s:sbar:gl, u:ubar:d:dbar:s:sbar:gl, u:ubar:d:dbar:s:sbar:gl [openloops], [virtual]
 |     4: 'openloops_14_p1_i4':   e-, e+ => u:ubar:d:dbar:s:sbar:gl, u:ubar:d:dbar:s:sbar:gl, u:ubar:d:dbar:s:sbar:gl [inactive], [subtraction]
 | ------------------------------------------------------------------------
 | Phase space: 2 channels, 8 dimensions
 | Phase space: found 2 channels, collected in 1 grove.
 | Phase space: no equivalences between channels used.
 | Phase space: wood
 | Phase space: 2 channels, 8 dimensions
 | Phase space: found 2 channels, collected in 1 grove.
 | Phase space: no equivalences between channels used.
 | Phase space: wood
 | Phase space: 2 channels, 8 dimensions
 | Phase space: found 2 channels, collected in 1 grove.
 | Phase space: no equivalences between channels used.
 | Phase space: wood
 | Applying user-defined cuts.
 | Using user-defined general scale.
 | Starting integration for process 'openloops_14_p1'
 | Integrate: iterations = 1:100:"gw"
 | Integrator: 1 chains, 2 channels, 8 dimensions
 | Integrator: Write grid header and grids to 'openloops_14_p1.m1.vg2'
 | Integrator: Grid checkpoint after each iteration
 | Integrator: 100 initial calls, 20 max. bins, stratified = T
 | Integrator: VAMP2
 |=============================================================================|
 | It      Calls  Integral[fb]  Error[fb]   Err[%]    Acc  Eff[%]   Chi2 N[It] |
 |=============================================================================|
 | VAMP2: Initialize new grids and write to file 'openloops_14_p1.m1.vg2'.
 | VAMP2: set chain: use chained weights.
    1        100     2.884E+02   1.10E+02   37.98    3.80     6.8
 |-----------------------------------------------------------------------------|
    1        100     2.884E+02   1.10E+02   37.98    3.80     6.8
 |=============================================================================|
 n_events = 10
 $sample_normalization = "sigma"
 ?unweighted = false
 ?negative_weights = true
 ?keep_failed_events = true
 ?fixed_order_nlo_events = true
 ?debug_decay = false
 ?debug_process = false
 ?debug_verbose = false
 ?sample_pacify = true
 ?write_raw = false
 | Starting simulation for process 'openloops_14_p1'
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | Simulate: activating fixed-order NLO events
 | QCD alpha: using a running strong coupling
 | RNG: Initializing RNG Stream random-number generator
 | RNG: Setting seed for random-number generator to 8132
 | Events: writing to ASCII file 'openloops_14_p1.debug'
 | Events: generating 40 weighted, unpolarized NLO events ...
 | Events: event normalization mode 'sigma'
 |         ... event sample complete.
 | Events: closing ASCII file 'openloops_14_p1.debug'
 | There were no errors and    1 warning(s).
 | WHIZARD run finished.
 |=============================================================================|
 Total number of regions:    18
  alr ||                 flst_real || i_real ||  em || mul || nreg ||                         ftuples ||             flst_born ||  i_born || corr
    1 || [ 11,-11, -2,  2, -2,  2] ||      1 ||   5 ||   4 ||    4 || {(3,4),(3,6),(4,5),(5,6)} || [ 11,-11, -2,  2, 21] ||       1 ||  qcd
    2 || [ 11,-11, -2,  2, 21, 21] ||      2 ||   3 ||   2 ||    5 || {(3,5),(3,6),(4,5),(4,6),(5,6)} || [ 11,-11, -2,  2, 21] ||       1 ||  qcd
    3 || [ 11,-11, -2,  2, 21, 21] ||      2 ||   4 ||   2 ||    5 || {(3,5),(3,6),(4,5),(4,6),(5,6)} || [ 11,-11, -2,  2, 21] ||       1 ||  qcd
    4 || [ 11,-11, -2,  2, 21, 21] ||      2 ||   5 ||   1 ||    5 || {(3,5),(3,6),(4,5),(4,6),(5,6)} || [ 11,-11, -2,  2, 21] ||       1 ||  qcd
    5 || [ 11,-11, -2,  2, -3,  3] ||      3 ||   5 ||   1 ||    2 ||         {(3,4),(5,6)} || [ 11,-11, -2,  2, 21] ||       1 ||  qcd
    6 || [ 11,-11, -3,  3, -2,  2] ||      4 ||   5 ||   1 ||    2 ||         {(3,4),(5,6)} || [ 11,-11, -3,  3, 21] ||       2 ||  qcd
    7 || [ 11,-11, -2,  2, -1,  1] ||      5 ||   5 ||   1 ||    2 ||         {(3,4),(5,6)} || [ 11,-11, -2,  2, 21] ||       1 ||  qcd
    8 || [ 11,-11, -1,  1, -2,  2] ||      6 ||   5 ||   1 ||    2 ||         {(3,4),(5,6)} || [ 11,-11, -1,  1, 21] ||       3 ||  qcd
    9 || [ 11,-11, -3,  3, -3,  3] ||      7 ||   5 ||   4 ||    4 || {(3,4),(3,6),(4,5),(5,6)} || [ 11,-11, -3,  3, 21] ||       2 ||  qcd
   10 || [ 11,-11, -3,  3, -1,  1] ||      8 ||   5 ||   1 ||    2 ||         {(3,4),(5,6)} || [ 11,-11, -3,  3, 21] ||       2 ||  qcd
   11 || [ 11,-11, -1,  1, -3,  3] ||      9 ||   5 ||   1 ||    2 ||         {(3,4),(5,6)} || [ 11,-11, -1,  1, 21] ||       3 ||  qcd
   12 || [ 11,-11, -3,  3, 21, 21] ||     10 ||   3 ||   2 ||    5 || {(3,5),(3,6),(4,5),(4,6),(5,6)} || [ 11,-11, -3,  3, 21] ||       2 ||  qcd
   13 || [ 11,-11, -3,  3, 21, 21] ||     10 ||   4 ||   2 ||    5 || {(3,5),(3,6),(4,5),(4,6),(5,6)} || [ 11,-11, -3,  3, 21] ||       2 ||  qcd
   14 || [ 11,-11, -3,  3, 21, 21] ||     10 ||   5 ||   1 ||    5 || {(3,5),(3,6),(4,5),(4,6),(5,6)} || [ 11,-11, -3,  3, 21] ||       2 ||  qcd
   15 || [ 11,-11, -1,  1, -1,  1] ||     11 ||   5 ||   4 ||    4 || {(3,4),(3,6),(4,5),(5,6)} || [ 11,-11, -1,  1, 21] ||       3 ||  qcd
   16 || [ 11,-11, -1,  1, 21, 21] ||     12 ||   3 ||   2 ||    5 || {(3,5),(3,6),(4,5),(4,6),(5,6)} || [ 11,-11, -1,  1, 21] ||       3 ||  qcd
   17 || [ 11,-11, -1,  1, 21, 21] ||     12 ||   4 ||   2 ||    5 || {(3,5),(3,6),(4,5),(4,6),(5,6)} || [ 11,-11, -1,  1, 21] ||       3 ||  qcd
   18 || [ 11,-11, -1,  1, 21, 21] ||     12 ||   5 ||   1 ||    5 || {(3,5),(3,6),(4,5),(4,6),(5,6)} || [ 11,-11, -1,  1, 21] ||       3 ||  qcd
 ------------------------------------------------------------------------
 Contents of openloops_14_p1.debug:
 ========================================================================
  Event #1
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  5.08110E-05
    Squared matrix el. (prc) =  4.23657E-05
    Event weight (ref)       =  1.21665E+01
    Event weight (prc)       =  1.01443E+01
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3783293072.0,          709384797.0,         2916062426.0,
             235869783.0,          911733607.0,          940006607.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   4.867648E+02
  P =  -2.820047E+02  7.342522E+01 -3.899001E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.166196E+02
  P =   1.864136E+02  3.164927E+01  2.539612E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.966156E+02
  P =   9.559113E+01 -1.050745E+02  1.359388E+02
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            2861163583.0,         4290486744.0,          308936849.0,
            2121445242.0,         1709259940.0,         2314870259.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.260885E+02
  P =  -2.449437E+02  7.971743E+01 -3.394099E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.131457E+02
  P =   1.700840E+02 -8.440522E+01  9.684157E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.199472E+02
  P =   1.125032E+02 -1.022032E+02  1.589790E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.408186E+02
  P =  -3.764346E+01  1.068910E+02  8.358928E+01
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  2.751274088E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.867648E+02
  P =  -2.820047E+02  7.342522E+01 -3.899001E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.166196E+02
  P =   1.864136E+02  3.164927E+01  2.539612E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.966156E+02
  P =   9.559113E+01 -1.050745E+02  1.359388E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   4.521371E+02
  P =  -2.634904E+02  5.307415E+01 -3.635711E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.379195E+02
  P =   1.993205E+02  1.746188E+01  2.723160E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.224974E+02
  P =   1.387914E+01 -1.162034E+02  3.619029E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   8.744602E+01
  P =   5.029075E+01  4.566740E+01  5.506483E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.699128E+02
  P =  -5.432913E+01  1.963038E+02 -3.087858E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.536701E+02
  P =   1.484438E+02  4.153543E+01  2.014641E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.599253E+02
  P =   7.185269E+01 -9.889374E+01  1.031180E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.164917E+02
  P =  -1.659673E+02 -1.389455E+02  4.203659E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.260885E+02
  P =  -2.449437E+02  7.971743E+01 -3.394099E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.131457E+02
  P =   1.700840E+02 -8.440522E+01  9.684157E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.199472E+02
  P =   1.125032E+02 -1.022032E+02  1.589790E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.408186E+02
  P =  -3.764346E+01  1.068910E+02  8.358928E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 3
 n_tot* => 5
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  4.23657E-05
 sqme_ref* =>  5.08110E-05
 event_index* => 1
 event_weight* =>  1.01443E+01
 event_weight_ref* =>  1.21665E+01
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-2| 4.8676480E+02;-2.8200470E+02, 7.3425219E+01,-3.8990006E+02| 0.0000000E+00| 3)
  4 prt(o:2| 3.1661963E+02; 1.8641357E+02, 3.1649272E+01, 2.5396121E+02| 0.0000000E+00| 4)
  5 prt(o:21| 1.9661557E+02; 9.5591132E+01,-1.0507449E+02, 1.3593885E+02| 0.0000000E+00| 5)
 ========================================================================
 ========================================================================
  Event #1
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  5.08110E-05
    Squared matrix el. (prc) =  4.02751E-06
    Event weight (ref)       =  1.21665E+01
    Event weight (prc)       =  9.64373E-01
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3783293072.0,          709384797.0,         2916062426.0,
             235869783.0,          911733607.0,          940006607.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   4.867648E+02
  P =  -2.820047E+02  7.342522E+01 -3.899001E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.166196E+02
  P =   1.864136E+02  3.164927E+01  2.539612E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.966156E+02
  P =   9.559113E+01 -1.050745E+02  1.359388E+02
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            2861163583.0,         4290486744.0,          308936849.0,
            2121445242.0,         1709259940.0,         2314870259.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.260885E+02
  P =  -2.449437E+02  7.971743E+01 -3.394099E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.131457E+02
  P =   1.700840E+02 -8.440522E+01  9.684157E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.199472E+02
  P =   1.125032E+02 -1.022032E+02  1.589790E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.408186E+02
  P =  -3.764346E+01  1.068910E+02  8.358928E+01
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  2.751274088E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.867648E+02
  P =  -2.820047E+02  7.342522E+01 -3.899001E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.166196E+02
  P =   1.864136E+02  3.164927E+01  2.539612E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.966156E+02
  P =   9.559113E+01 -1.050745E+02  1.359388E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   4.521371E+02
  P =  -2.634904E+02  5.307415E+01 -3.635711E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.379195E+02
  P =   1.993205E+02  1.746188E+01  2.723160E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.224974E+02
  P =   1.387914E+01 -1.162034E+02  3.619029E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   8.744602E+01
  P =   5.029075E+01  4.566740E+01  5.506483E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.699128E+02
  P =  -5.432913E+01  1.963038E+02 -3.087858E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.536701E+02
  P =   1.484438E+02  4.153543E+01  2.014641E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.599253E+02
  P =   7.185269E+01 -9.889374E+01  1.031180E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.164917E+02
  P =  -1.659673E+02 -1.389455E+02  4.203659E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.260885E+02
  P =  -2.449437E+02  7.971743E+01 -3.394099E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.131457E+02
  P =   1.700840E+02 -8.440522E+01  9.684157E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.199472E+02
  P =   1.125032E+02 -1.022032E+02  1.589790E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.408186E+02
  P =  -3.764346E+01  1.068910E+02  8.358928E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  4.02751E-06
 sqme_ref* =>  5.08110E-05
 event_index* => 1
 event_weight* =>  9.64373E-01
 event_weight_ref* =>  1.21665E+01
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-1| 4.5213715E+02;-2.6349039E+02, 5.3074148E+01,-3.6357111E+02| 0.0000000E+00| 3)
  4 prt(o:1| 3.3791947E+02; 1.9932050E+02, 1.7461878E+01, 2.7231598E+02| 0.0000000E+00| 4)
  5 prt(o:21| 1.2249736E+02; 1.3879141E+01,-1.1620342E+02, 3.6190292E+01| 0.0000000E+00| 5)
  6 prt(o:21| 8.7446021E+01; 5.0290749E+01, 4.5667396E+01, 5.5064835E+01| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #1
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  5.08110E-05
    Squared matrix el. (prc) =  1.66644E-06
    Event weight (ref)       =  1.21665E+01
    Event weight (prc)       =  3.99023E-01
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3783293072.0,          709384797.0,         2916062426.0,
             235869783.0,          911733607.0,          940006607.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   4.867648E+02
  P =  -2.820047E+02  7.342522E+01 -3.899001E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.166196E+02
  P =   1.864136E+02  3.164927E+01  2.539612E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.966156E+02
  P =   9.559113E+01 -1.050745E+02  1.359388E+02
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            2861163583.0,         4290486744.0,          308936849.0,
            2121445242.0,         1709259940.0,         2314870259.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.260885E+02
  P =  -2.449437E+02  7.971743E+01 -3.394099E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.131457E+02
  P =   1.700840E+02 -8.440522E+01  9.684157E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.199472E+02
  P =   1.125032E+02 -1.022032E+02  1.589790E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.408186E+02
  P =  -3.764346E+01  1.068910E+02  8.358928E+01
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  2.751274088E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.867648E+02
  P =  -2.820047E+02  7.342522E+01 -3.899001E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.166196E+02
  P =   1.864136E+02  3.164927E+01  2.539612E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.966156E+02
  P =   9.559113E+01 -1.050745E+02  1.359388E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   4.521371E+02
  P =  -2.634904E+02  5.307415E+01 -3.635711E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.379195E+02
  P =   1.993205E+02  1.746188E+01  2.723160E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.224974E+02
  P =   1.387914E+01 -1.162034E+02  3.619029E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   8.744602E+01
  P =   5.029075E+01  4.566740E+01  5.506483E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.699128E+02
  P =  -5.432913E+01  1.963038E+02 -3.087858E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.536701E+02
  P =   1.484438E+02  4.153543E+01  2.014641E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.599253E+02
  P =   7.185269E+01 -9.889374E+01  1.031180E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.164917E+02
  P =  -1.659673E+02 -1.389455E+02  4.203659E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.260885E+02
  P =  -2.449437E+02  7.971743E+01 -3.394099E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.131457E+02
  P =   1.700840E+02 -8.440522E+01  9.684157E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.199472E+02
  P =   1.125032E+02 -1.022032E+02  1.589790E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.408186E+02
  P =  -3.764346E+01  1.068910E+02  8.358928E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  1.66644E-06
 sqme_ref* =>  5.08110E-05
 event_index* => 1
 event_weight* =>  3.99023E-01
 event_weight_ref* =>  1.21665E+01
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-2| 3.6991284E+02;-5.4329130E+01, 1.9630380E+02,-3.0878580E+02| 0.0000000E+00| 3)
  4 prt(o:2| 2.5367011E+02; 1.4844375E+02, 4.1535426E+01, 2.0146410E+02| 0.0000000E+00| 4)
  5 prt(o:21| 1.5992533E+02; 7.1852687E+01,-9.8893741E+01, 1.0311804E+02| 0.0000000E+00| 5)
  6 prt(o:21| 2.1649173E+02;-1.6596731E+02,-1.3894549E+02, 4.2036586E+00| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #1
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  5.08110E-05
    Squared matrix el. (prc) =  2.75127E-06
    Event weight (ref)       =  1.21665E+01
    Event weight (prc)       =  6.58782E-01
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3783293072.0,          709384797.0,         2916062426.0,
             235869783.0,          911733607.0,          940006607.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   4.867648E+02
  P =  -2.820047E+02  7.342522E+01 -3.899001E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.166196E+02
  P =   1.864136E+02  3.164927E+01  2.539612E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.966156E+02
  P =   9.559113E+01 -1.050745E+02  1.359388E+02
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            2861163583.0,         4290486744.0,          308936849.0,
            2121445242.0,         1709259940.0,         2314870259.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.260885E+02
  P =  -2.449437E+02  7.971743E+01 -3.394099E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.131457E+02
  P =   1.700840E+02 -8.440522E+01  9.684157E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.199472E+02
  P =   1.125032E+02 -1.022032E+02  1.589790E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.408186E+02
  P =  -3.764346E+01  1.068910E+02  8.358928E+01
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  2.751274088E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.867648E+02
  P =  -2.820047E+02  7.342522E+01 -3.899001E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.166196E+02
  P =   1.864136E+02  3.164927E+01  2.539612E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.966156E+02
  P =   9.559113E+01 -1.050745E+02  1.359388E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   4.521371E+02
  P =  -2.634904E+02  5.307415E+01 -3.635711E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.379195E+02
  P =   1.993205E+02  1.746188E+01  2.723160E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.224974E+02
  P =   1.387914E+01 -1.162034E+02  3.619029E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   8.744602E+01
  P =   5.029075E+01  4.566740E+01  5.506483E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.699128E+02
  P =  -5.432913E+01  1.963038E+02 -3.087858E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.536701E+02
  P =   1.484438E+02  4.153543E+01  2.014641E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.599253E+02
  P =   7.185269E+01 -9.889374E+01  1.031180E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.164917E+02
  P =  -1.659673E+02 -1.389455E+02  4.203659E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.260885E+02
  P =  -2.449437E+02  7.971743E+01 -3.394099E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.131457E+02
  P =   1.700840E+02 -8.440522E+01  9.684157E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.199472E+02
  P =   1.125032E+02 -1.022032E+02  1.589790E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.408186E+02
  P =  -3.764346E+01  1.068910E+02  8.358928E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  2.75127E-06
 sqme_ref* =>  5.08110E-05
 event_index* => 1
 event_weight* =>  6.58782E-01
 event_weight_ref* =>  1.21665E+01
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-2| 4.2608845E+02;-2.4494372E+02, 7.9717428E+01,-3.3940989E+02| 0.0000000E+00| 3)
  4 prt(o:2| 2.1314571E+02; 1.7008399E+02,-8.4405220E+01, 9.6841566E+01| 0.0000000E+00| 4)
  5 prt(o:21| 2.1994725E+02; 1.1250319E+02,-1.0220316E+02, 1.5897905E+02| 0.0000000E+00| 5)
  6 prt(o:21| 1.4081859E+02;-3.7643460E+01, 1.0689096E+02, 8.3589280E+01| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #2
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  1.51013E-06
    Squared matrix el. (prc) =  0.00000E+00
    Event weight (ref)       =  2.74570E+00
    Event weight (prc)       =  0.00000E+00
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            4165064571.0,          414625962.0,         4233066201.0,
            2875702212.0,         3446017903.0,         1634757042.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.168398E+02
  P =  -1.107928E+02  3.828032E+02  1.222379E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.970185E+02
  P =   9.877068E+01 -4.648819E+02 -1.454532E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   8.614165E+01
  P =   1.202207E+01  8.207865E+01  2.321529E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3087608709.0,          767449262.0,         1469258714.0,
            1380739968.0,         2673555668.0,          204756280.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.520100E+02
  P =  -9.787273E+01  3.219928E+02  1.032114E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.185620E+02
  P =   2.344786E+02 -2.150960E+02 -1.533719E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   7.355495E+01
  P =   1.470567E+01  6.944781E+01  1.926333E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.558731E+02
  P =  -1.513115E+02 -1.763446E+02 -1.071375E+02
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  5.723454616E-07
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   4.168398E+02
  P =  -1.107928E+02  3.828032E+02  1.222379E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   4.970185E+02
  P =   9.877068E+01 -4.648819E+02 -1.454532E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   8.614165E+01
  P =   1.202207E+01  8.207865E+01  2.321529E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.263389E+02
  P =  -1.093500E+02  3.926531E+02  1.250238E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.856817E+02
  P =   1.004521E+02 -4.534021E+02 -1.422062E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   4.363231E+01
  P =  -2.446189E+01  3.153295E+01  1.763709E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   4.434710E+01
  P =   3.335982E+01  2.921612E+01 -4.546966E-01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.540164E+02
  P =  -1.941060E+02  1.249916E+02  1.059447E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.335897E+02
  P =   8.186542E+01 -4.064720E+02 -1.268016E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.779804E+01
  P =   8.680655E+00  9.362367E+01  2.690188E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.145958E+02
  P =   1.035600E+02  1.878568E+02 -6.045037E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.520100E+02
  P =  -9.787273E+01  3.219928E+02  1.032114E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.185620E+02
  P =   2.344786E+02 -2.150960E+02 -1.533719E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   7.355495E+01
  P =   1.470567E+01  6.944781E+01  1.926333E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.558731E+02
  P =  -1.513115E+02 -1.763446E+02 -1.071375E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 3
 n_tot* => 5
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  0.00000E+00
 sqme_ref* =>  1.51013E-06
 event_index* => 2
 event_weight* =>  0.00000E+00
 event_weight_ref* =>  2.74570E+00
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-1| 4.1683982E+02;-1.1079275E+02, 3.8280322E+02, 1.2223787E+02| 0.0000000E+00| 3)
  4 prt(o:1| 4.9701853E+02; 9.8770684E+01,-4.6488186E+02,-1.4545317E+02| 0.0000000E+00| 4)
  5 prt(o:21| 8.6141652E+01; 1.2022071E+01, 8.2078647E+01, 2.3215293E+01| 0.0000000E+00| 5)
 ========================================================================
 ========================================================================
  Event #2
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  1.51013E-06
    Squared matrix el. (prc) =  9.18299E-06
    Event weight (ref)       =  2.74570E+00
    Event weight (prc)       =  0.00000E+00
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            4165064571.0,          414625962.0,         4233066201.0,
            2875702212.0,         3446017903.0,         1634757042.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.168398E+02
  P =  -1.107928E+02  3.828032E+02  1.222379E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.970185E+02
  P =   9.877068E+01 -4.648819E+02 -1.454532E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   8.614165E+01
  P =   1.202207E+01  8.207865E+01  2.321529E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3087608709.0,          767449262.0,         1469258714.0,
            1380739968.0,         2673555668.0,          204756280.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.520100E+02
  P =  -9.787273E+01  3.219928E+02  1.032114E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.185620E+02
  P =   2.344786E+02 -2.150960E+02 -1.533719E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   7.355495E+01
  P =   1.470567E+01  6.944781E+01  1.926333E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.558731E+02
  P =  -1.513115E+02 -1.763446E+02 -1.071375E+02
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  5.723454616E-07
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   4.168398E+02
  P =  -1.107928E+02  3.828032E+02  1.222379E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   4.970185E+02
  P =   9.877068E+01 -4.648819E+02 -1.454532E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   8.614165E+01
  P =   1.202207E+01  8.207865E+01  2.321529E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.263389E+02
  P =  -1.093500E+02  3.926531E+02  1.250238E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.856817E+02
  P =   1.004521E+02 -4.534021E+02 -1.422062E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   4.363231E+01
  P =  -2.446189E+01  3.153295E+01  1.763709E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   4.434710E+01
  P =   3.335982E+01  2.921612E+01 -4.546966E-01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.540164E+02
  P =  -1.941060E+02  1.249916E+02  1.059447E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.335897E+02
  P =   8.186542E+01 -4.064720E+02 -1.268016E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.779804E+01
  P =   8.680655E+00  9.362367E+01  2.690188E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.145958E+02
  P =   1.035600E+02  1.878568E+02 -6.045037E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.520100E+02
  P =  -9.787273E+01  3.219928E+02  1.032114E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.185620E+02
  P =   2.344786E+02 -2.150960E+02 -1.533719E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   7.355495E+01
  P =   1.470567E+01  6.944781E+01  1.926333E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.558731E+02
  P =  -1.513115E+02 -1.763446E+02 -1.071375E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  9.18299E-06
 sqme_ref* =>  1.51013E-06
 event_index* => 2
 event_weight* =>  0.00000E+00
 event_weight_ref* =>  2.74570E+00
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-2| 4.2633886E+02;-1.0935005E+02, 3.9265307E+02, 1.2502383E+02| 0.0000000E+00| 3)
  4 prt(o:2| 4.8568173E+02; 1.0045212E+02,-4.5340214E+02,-1.4220622E+02| 0.0000000E+00| 4)
  5 prt(o:-2| 4.3632307E+01;-2.4461891E+01, 3.1532955E+01, 1.7637090E+01| 0.0000000E+00| 5)
  6 prt(o:2| 4.4347105E+01; 3.3359816E+01, 2.9216119E+01,-4.5469661E-01| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #2
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  1.51013E-06
    Squared matrix el. (prc) =  9.37781E-07
    Event weight (ref)       =  2.74570E+00
    Event weight (prc)       =  1.70507E+00
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            4165064571.0,          414625962.0,         4233066201.0,
            2875702212.0,         3446017903.0,         1634757042.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.168398E+02
  P =  -1.107928E+02  3.828032E+02  1.222379E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.970185E+02
  P =   9.877068E+01 -4.648819E+02 -1.454532E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   8.614165E+01
  P =   1.202207E+01  8.207865E+01  2.321529E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3087608709.0,          767449262.0,         1469258714.0,
            1380739968.0,         2673555668.0,          204756280.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.520100E+02
  P =  -9.787273E+01  3.219928E+02  1.032114E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.185620E+02
  P =   2.344786E+02 -2.150960E+02 -1.533719E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   7.355495E+01
  P =   1.470567E+01  6.944781E+01  1.926333E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.558731E+02
  P =  -1.513115E+02 -1.763446E+02 -1.071375E+02
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  5.723454616E-07
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   4.168398E+02
  P =  -1.107928E+02  3.828032E+02  1.222379E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   4.970185E+02
  P =   9.877068E+01 -4.648819E+02 -1.454532E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   8.614165E+01
  P =   1.202207E+01  8.207865E+01  2.321529E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.263389E+02
  P =  -1.093500E+02  3.926531E+02  1.250238E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.856817E+02
  P =   1.004521E+02 -4.534021E+02 -1.422062E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   4.363231E+01
  P =  -2.446189E+01  3.153295E+01  1.763709E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   4.434710E+01
  P =   3.335982E+01  2.921612E+01 -4.546966E-01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.540164E+02
  P =  -1.941060E+02  1.249916E+02  1.059447E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.335897E+02
  P =   8.186542E+01 -4.064720E+02 -1.268016E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.779804E+01
  P =   8.680655E+00  9.362367E+01  2.690188E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.145958E+02
  P =   1.035600E+02  1.878568E+02 -6.045037E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.520100E+02
  P =  -9.787273E+01  3.219928E+02  1.032114E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.185620E+02
  P =   2.344786E+02 -2.150960E+02 -1.533719E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   7.355495E+01
  P =   1.470567E+01  6.944781E+01  1.926333E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.558731E+02
  P =  -1.513115E+02 -1.763446E+02 -1.071375E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  9.37781E-07
 sqme_ref* =>  1.51013E-06
 event_index* => 2
 event_weight* =>  1.70507E+00
 event_weight_ref* =>  2.74570E+00
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-2| 2.5401639E+02;-1.9410603E+02, 1.2499158E+02, 1.0594471E+02| 0.0000000E+00| 3)
  4 prt(o:2| 4.3358975E+02; 8.1865420E+01,-4.0647200E+02,-1.2680155E+02| 0.0000000E+00| 4)
  5 prt(o:21| 9.7798038E+01; 8.6806553E+00, 9.3623668E+01, 2.6901884E+01| 0.0000000E+00| 5)
  6 prt(o:21| 2.1459583E+02; 1.0355996E+02, 1.8785676E+02,-6.0450375E+00| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #2
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  1.51013E-06
    Squared matrix el. (prc) =  5.72345E-07
    Event weight (ref)       =  2.74570E+00
    Event weight (prc)       =  1.04063E+00
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            4165064571.0,          414625962.0,         4233066201.0,
            2875702212.0,         3446017903.0,         1634757042.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.168398E+02
  P =  -1.107928E+02  3.828032E+02  1.222379E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.970185E+02
  P =   9.877068E+01 -4.648819E+02 -1.454532E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   8.614165E+01
  P =   1.202207E+01  8.207865E+01  2.321529E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3087608709.0,          767449262.0,         1469258714.0,
            1380739968.0,         2673555668.0,          204756280.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.520100E+02
  P =  -9.787273E+01  3.219928E+02  1.032114E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.185620E+02
  P =   2.344786E+02 -2.150960E+02 -1.533719E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   7.355495E+01
  P =   1.470567E+01  6.944781E+01  1.926333E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.558731E+02
  P =  -1.513115E+02 -1.763446E+02 -1.071375E+02
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  5.723454616E-07
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   4.168398E+02
  P =  -1.107928E+02  3.828032E+02  1.222379E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   4.970185E+02
  P =   9.877068E+01 -4.648819E+02 -1.454532E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   8.614165E+01
  P =   1.202207E+01  8.207865E+01  2.321529E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.263389E+02
  P =  -1.093500E+02  3.926531E+02  1.250238E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.856817E+02
  P =   1.004521E+02 -4.534021E+02 -1.422062E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   4.363231E+01
  P =  -2.446189E+01  3.153295E+01  1.763709E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   4.434710E+01
  P =   3.335982E+01  2.921612E+01 -4.546966E-01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.540164E+02
  P =  -1.941060E+02  1.249916E+02  1.059447E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.335897E+02
  P =   8.186542E+01 -4.064720E+02 -1.268016E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.779804E+01
  P =   8.680655E+00  9.362367E+01  2.690188E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.145958E+02
  P =   1.035600E+02  1.878568E+02 -6.045037E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.520100E+02
  P =  -9.787273E+01  3.219928E+02  1.032114E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.185620E+02
  P =   2.344786E+02 -2.150960E+02 -1.533719E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   7.355495E+01
  P =   1.470567E+01  6.944781E+01  1.926333E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.558731E+02
  P =  -1.513115E+02 -1.763446E+02 -1.071375E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  5.72345E-07
 sqme_ref* =>  1.51013E-06
 event_index* => 2
 event_weight* =>  1.04063E+00
 event_weight_ref* =>  2.74570E+00
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-2| 3.5200997E+02;-9.7872725E+01, 3.2199279E+02, 1.0321138E+02| 0.0000000E+00| 3)
  4 prt(o:2| 3.1856197E+02; 2.3447860E+02,-2.1509600E+02,-1.5337190E+01| 0.0000000E+00| 4)
  5 prt(o:21| 7.3554949E+01; 1.4705670E+01, 6.9447807E+01, 1.9263331E+01| 0.0000000E+00| 5)
  6 prt(o:21| 2.5587311E+02;-1.5131154E+02,-1.7634460E+02,-1.0713753E+02| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #3
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  4.20368E-06
    Squared matrix el. (prc) =  0.00000E+00
    Event weight (ref)       =  1.74458E+02
    Event weight (prc)       =  0.00000E+00
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
             198170154.0,         2986732709.0,          838792232.0,
            3801322254.0,          681541859.0,         2204767654.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.972053E+02
  P =  -4.063990E+02  1.664730E+02  2.331089E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.819076E+02
  P =   2.088244E+02 -1.217828E+02 -1.450283E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.208871E+02
  P =   1.975746E+02 -4.469020E+01 -8.808058E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3938720326.0,         2431070917.0,         2314646599.0,
              95161108.0,         2834580314.0,         1263481919.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   4.761551E+02
  P =  -3.906630E+02  1.572960E+02  2.221802E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   1.573195E+02
  P =   5.129706E+01 -1.016855E+02 -1.085270E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.303108E+02
  P =   2.048689E+02 -4.894416E+01 -9.314652E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.362145E+02
  P =   1.344970E+02 -6.666337E+00 -2.050674E+01
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  1.474935331E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.972053E+02
  P =  -4.063990E+02  1.664730E+02  2.331089E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.819076E+02
  P =   2.088244E+02 -1.217828E+02 -1.450283E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.208871E+02
  P =   1.975746E+02 -4.469020E+01 -8.808058E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.809328E+02
  P =  -3.916269E+02  1.631316E+02  2.265234E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.911633E+02
  P =   2.174791E+02 -1.237404E+02 -1.488866E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.211738E+02
  P =   7.072204E+01 -6.541641E+01 -7.349943E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.067301E+02
  P =   1.034258E+02  2.602519E+01 -4.137296E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.954752E+02
  P =  -2.055906E+02  2.056963E+02  5.222165E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.602585E+02
  P =   1.909608E+02 -1.144653E+02 -1.347818E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.040223E+02
  P =   1.835744E+02 -3.895534E+01 -8.005016E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.402440E+02
  P =  -1.689446E+02 -5.227564E+01  1.626103E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   4.761551E+02
  P =  -3.906630E+02  1.572960E+02  2.221802E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   1.573195E+02
  P =   5.129706E+01 -1.016855E+02 -1.085270E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.303108E+02
  P =   2.048689E+02 -4.894416E+01 -9.314652E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.362145E+02
  P =   1.344970E+02 -6.666337E+00 -2.050674E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 3
 n_tot* => 5
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  0.00000E+00
 sqme_ref* =>  4.20368E-06
 event_index* => 3
 event_weight* =>  0.00000E+00
 event_weight_ref* =>  1.74458E+02
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-3| 4.9720532E+02;-4.0639897E+02, 1.6647298E+02, 2.3310889E+02| 0.0000000E+00| 3)
  4 prt(o:3| 2.8190758E+02; 2.0882440E+02,-1.2178277E+02,-1.4502830E+02| 0.0000000E+00| 4)
  5 prt(o:21| 2.2088710E+02; 1.9757457E+02,-4.4690205E+01,-8.8080583E+01| 0.0000000E+00| 5)
 ========================================================================
 ========================================================================
  Event #3
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  4.20368E-06
    Squared matrix el. (prc) =  2.07034E-06
    Event weight (ref)       =  1.74458E+02
    Event weight (prc)       =  8.59218E+01
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
             198170154.0,         2986732709.0,          838792232.0,
            3801322254.0,          681541859.0,         2204767654.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.972053E+02
  P =  -4.063990E+02  1.664730E+02  2.331089E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.819076E+02
  P =   2.088244E+02 -1.217828E+02 -1.450283E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.208871E+02
  P =   1.975746E+02 -4.469020E+01 -8.808058E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3938720326.0,         2431070917.0,         2314646599.0,
              95161108.0,         2834580314.0,         1263481919.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   4.761551E+02
  P =  -3.906630E+02  1.572960E+02  2.221802E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   1.573195E+02
  P =   5.129706E+01 -1.016855E+02 -1.085270E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.303108E+02
  P =   2.048689E+02 -4.894416E+01 -9.314652E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.362145E+02
  P =   1.344970E+02 -6.666337E+00 -2.050674E+01
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  1.474935331E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.972053E+02
  P =  -4.063990E+02  1.664730E+02  2.331089E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.819076E+02
  P =   2.088244E+02 -1.217828E+02 -1.450283E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.208871E+02
  P =   1.975746E+02 -4.469020E+01 -8.808058E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.809328E+02
  P =  -3.916269E+02  1.631316E+02  2.265234E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.911633E+02
  P =   2.174791E+02 -1.237404E+02 -1.488866E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.211738E+02
  P =   7.072204E+01 -6.541641E+01 -7.349943E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.067301E+02
  P =   1.034258E+02  2.602519E+01 -4.137296E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.954752E+02
  P =  -2.055906E+02  2.056963E+02  5.222165E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.602585E+02
  P =   1.909608E+02 -1.144653E+02 -1.347818E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.040223E+02
  P =   1.835744E+02 -3.895534E+01 -8.005016E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.402440E+02
  P =  -1.689446E+02 -5.227564E+01  1.626103E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   4.761551E+02
  P =  -3.906630E+02  1.572960E+02  2.221802E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   1.573195E+02
  P =   5.129706E+01 -1.016855E+02 -1.085270E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.303108E+02
  P =   2.048689E+02 -4.894416E+01 -9.314652E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.362145E+02
  P =   1.344970E+02 -6.666337E+00 -2.050674E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  2.07034E-06
 sqme_ref* =>  4.20368E-06
 event_index* => 3
 event_weight* =>  8.59218E+01
 event_weight_ref* =>  1.74458E+02
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-2| 4.8093282E+02;-3.9162689E+02, 1.6313162E+02, 2.2652336E+02| 0.0000000E+00| 3)
  4 prt(o:2| 2.9116328E+02; 2.1747906E+02,-1.2374040E+02,-1.4888663E+02| 0.0000000E+00| 4)
  5 prt(o:21| 1.2117376E+02; 7.0722044E+01,-6.5416407E+01,-7.3499432E+01| 0.0000000E+00| 5)
  6 prt(o:21| 1.0673014E+02; 1.0342579E+02, 2.6025191E+01,-4.1372964E+00| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #3
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  4.20368E-06
    Squared matrix el. (prc) =  6.58398E-07
    Event weight (ref)       =  1.74458E+02
    Event weight (prc)       =  2.73243E+01
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
             198170154.0,         2986732709.0,          838792232.0,
            3801322254.0,          681541859.0,         2204767654.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.972053E+02
  P =  -4.063990E+02  1.664730E+02  2.331089E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.819076E+02
  P =   2.088244E+02 -1.217828E+02 -1.450283E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.208871E+02
  P =   1.975746E+02 -4.469020E+01 -8.808058E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3938720326.0,         2431070917.0,         2314646599.0,
              95161108.0,         2834580314.0,         1263481919.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   4.761551E+02
  P =  -3.906630E+02  1.572960E+02  2.221802E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   1.573195E+02
  P =   5.129706E+01 -1.016855E+02 -1.085270E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.303108E+02
  P =   2.048689E+02 -4.894416E+01 -9.314652E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.362145E+02
  P =   1.344970E+02 -6.666337E+00 -2.050674E+01
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  1.474935331E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.972053E+02
  P =  -4.063990E+02  1.664730E+02  2.331089E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.819076E+02
  P =   2.088244E+02 -1.217828E+02 -1.450283E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.208871E+02
  P =   1.975746E+02 -4.469020E+01 -8.808058E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.809328E+02
  P =  -3.916269E+02  1.631316E+02  2.265234E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.911633E+02
  P =   2.174791E+02 -1.237404E+02 -1.488866E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.211738E+02
  P =   7.072204E+01 -6.541641E+01 -7.349943E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.067301E+02
  P =   1.034258E+02  2.602519E+01 -4.137296E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.954752E+02
  P =  -2.055906E+02  2.056963E+02  5.222165E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.602585E+02
  P =   1.909608E+02 -1.144653E+02 -1.347818E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.040223E+02
  P =   1.835744E+02 -3.895534E+01 -8.005016E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.402440E+02
  P =  -1.689446E+02 -5.227564E+01  1.626103E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   4.761551E+02
  P =  -3.906630E+02  1.572960E+02  2.221802E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   1.573195E+02
  P =   5.129706E+01 -1.016855E+02 -1.085270E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.303108E+02
  P =   2.048689E+02 -4.894416E+01 -9.314652E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.362145E+02
  P =   1.344970E+02 -6.666337E+00 -2.050674E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  6.58398E-07
 sqme_ref* =>  4.20368E-06
 event_index* => 3
 event_weight* =>  2.73243E+01
 event_weight_ref* =>  1.74458E+02
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-2| 2.9547518E+02;-2.0559063E+02, 2.0569631E+02, 5.2221649E+01| 0.0000000E+00| 3)
  4 prt(o:2| 2.6025852E+02; 1.9096084E+02,-1.1446533E+02,-1.3478183E+02| 0.0000000E+00| 4)
  5 prt(o:21| 2.0402235E+02; 1.8357443E+02,-3.8955338E+01,-8.0050161E+01| 0.0000000E+00| 5)
  6 prt(o:21| 2.4024396E+02;-1.6894464E+02,-5.2275644E+01, 1.6261034E+02| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #3
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  4.20368E-06
    Squared matrix el. (prc) =  1.47494E-06
    Event weight (ref)       =  1.74458E+02
    Event weight (prc)       =  6.12116E+01
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
             198170154.0,         2986732709.0,          838792232.0,
            3801322254.0,          681541859.0,         2204767654.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.972053E+02
  P =  -4.063990E+02  1.664730E+02  2.331089E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.819076E+02
  P =   2.088244E+02 -1.217828E+02 -1.450283E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.208871E+02
  P =   1.975746E+02 -4.469020E+01 -8.808058E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3938720326.0,         2431070917.0,         2314646599.0,
              95161108.0,         2834580314.0,         1263481919.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   4.761551E+02
  P =  -3.906630E+02  1.572960E+02  2.221802E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   1.573195E+02
  P =   5.129706E+01 -1.016855E+02 -1.085270E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.303108E+02
  P =   2.048689E+02 -4.894416E+01 -9.314652E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.362145E+02
  P =   1.344970E+02 -6.666337E+00 -2.050674E+01
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  1.474935331E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.972053E+02
  P =  -4.063990E+02  1.664730E+02  2.331089E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.819076E+02
  P =   2.088244E+02 -1.217828E+02 -1.450283E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.208871E+02
  P =   1.975746E+02 -4.469020E+01 -8.808058E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.809328E+02
  P =  -3.916269E+02  1.631316E+02  2.265234E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.911633E+02
  P =   2.174791E+02 -1.237404E+02 -1.488866E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.211738E+02
  P =   7.072204E+01 -6.541641E+01 -7.349943E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.067301E+02
  P =   1.034258E+02  2.602519E+01 -4.137296E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.954752E+02
  P =  -2.055906E+02  2.056963E+02  5.222165E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.602585E+02
  P =   1.909608E+02 -1.144653E+02 -1.347818E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.040223E+02
  P =   1.835744E+02 -3.895534E+01 -8.005016E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.402440E+02
  P =  -1.689446E+02 -5.227564E+01  1.626103E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   4.761551E+02
  P =  -3.906630E+02  1.572960E+02  2.221802E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   1.573195E+02
  P =   5.129706E+01 -1.016855E+02 -1.085270E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.303108E+02
  P =   2.048689E+02 -4.894416E+01 -9.314652E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.362145E+02
  P =   1.344970E+02 -6.666337E+00 -2.050674E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  1.47494E-06
 sqme_ref* =>  4.20368E-06
 event_index* => 3
 event_weight* =>  6.12116E+01
 event_weight_ref* =>  1.74458E+02
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-1| 4.7615507E+02;-3.9066296E+02, 1.5729601E+02, 2.2218025E+02| 0.0000000E+00| 3)
  4 prt(o:1| 1.5731955E+02; 5.1297057E+01,-1.0168552E+02,-1.0852699E+02| 0.0000000E+00| 4)
  5 prt(o:21| 2.3031085E+02; 2.0486894E+02,-4.8944157E+01,-9.3146517E+01| 0.0000000E+00| 5)
  6 prt(o:21| 1.3621454E+02; 1.3449697E+02,-6.6663370E+00,-2.0506737E+01| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #4
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  1.39147E-04
    Squared matrix el. (prc) =  1.02978E-04
    Event weight (ref)       =  4.47408E+02
    Event weight (prc)       =  3.31113E+02
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3904717424.0,          428371300.0,         2138618469.0,
            1125469886.0,         3340714319.0,         3263928336.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.928933E+02
  P =   2.057274E+01 -4.395150E+02 -2.221423E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.001453E+02
  P =  -6.445456E+01  3.522225E+02  1.786090E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.069614E+02
  P =   4.388182E+01  8.729245E+01  4.353329E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3820322671.0,         2196113481.0,         3143668624.0,
             175143050.0,         2601236033.0,         2067774727.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   4.554759E+02
  P =   1.449831E+01 -4.063202E+02 -2.053095E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.874756E+02
  P =  -7.601786E+01  2.764585E+02  2.083831E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.144054E+02
  P =   4.246393E+01  9.504072E+01  4.746237E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.426431E+02
  P =   1.905562E+01  3.482101E+01  1.370089E+02
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  5.364144351E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.928933E+02
  P =   2.057274E+01 -4.395150E+02 -2.221423E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   4.001453E+02
  P =  -6.445456E+01  3.522225E+02  1.786090E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.069614E+02
  P =   4.388182E+01  8.729245E+01  4.353329E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.841170E+02
  P =   2.460928E+01 -4.314852E+02 -2.181378E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.069483E+02
  P =  -6.112004E+01  3.588557E+02  1.819171E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   7.080535E+01
  P =   2.581891E+01  6.592969E+01  2.395742E-01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   3.812939E+01
  P =   1.069185E+01  6.699810E+00  3.598121E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.639271E+02
  P =   4.218713E+01 -2.378766E+02 -2.721726E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.624311E+02
  P =  -6.286781E+01  3.183232E+02  1.614754E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.793605E+01
  P =   4.430817E+01  7.818400E+01  3.892964E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.757057E+02
  P =  -2.362748E+01 -1.586306E+02  7.176757E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   4.554759E+02
  P =   1.449831E+01 -4.063202E+02 -2.053095E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.874756E+02
  P =  -7.601786E+01  2.764585E+02  2.083831E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.144054E+02
  P =   4.246393E+01  9.504072E+01  4.746237E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.426431E+02
  P =   1.905562E+01  3.482101E+01  1.370089E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 3
 n_tot* => 5
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  1.02978E-04
 sqme_ref* =>  1.39147E-04
 event_index* => 4
 event_weight* =>  3.31113E+02
 event_weight_ref* =>  4.47408E+02
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-3| 4.9289333E+02; 2.0572744E+01,-4.3951495E+02,-2.2214231E+02| 0.0000000E+00| 3)
  4 prt(o:3| 4.0014530E+02;-6.4454563E+01, 3.5222250E+02, 1.7860902E+02| 0.0000000E+00| 4)
  5 prt(o:21| 1.0696136E+02; 4.3881819E+01, 8.7292452E+01, 4.3533289E+01| 0.0000000E+00| 5)
 ========================================================================
 ========================================================================
  Event #4
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  1.39147E-04
    Squared matrix el. (prc) =  2.54452E-05
    Event weight (ref)       =  4.47408E+02
    Event weight (prc)       =  8.18156E+01
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3904717424.0,          428371300.0,         2138618469.0,
            1125469886.0,         3340714319.0,         3263928336.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.928933E+02
  P =   2.057274E+01 -4.395150E+02 -2.221423E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.001453E+02
  P =  -6.445456E+01  3.522225E+02  1.786090E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.069614E+02
  P =   4.388182E+01  8.729245E+01  4.353329E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3820322671.0,         2196113481.0,         3143668624.0,
             175143050.0,         2601236033.0,         2067774727.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   4.554759E+02
  P =   1.449831E+01 -4.063202E+02 -2.053095E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.874756E+02
  P =  -7.601786E+01  2.764585E+02  2.083831E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.144054E+02
  P =   4.246393E+01  9.504072E+01  4.746237E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.426431E+02
  P =   1.905562E+01  3.482101E+01  1.370089E+02
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  5.364144351E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.928933E+02
  P =   2.057274E+01 -4.395150E+02 -2.221423E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   4.001453E+02
  P =  -6.445456E+01  3.522225E+02  1.786090E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.069614E+02
  P =   4.388182E+01  8.729245E+01  4.353329E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.841170E+02
  P =   2.460928E+01 -4.314852E+02 -2.181378E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.069483E+02
  P =  -6.112004E+01  3.588557E+02  1.819171E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   7.080535E+01
  P =   2.581891E+01  6.592969E+01  2.395742E-01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   3.812939E+01
  P =   1.069185E+01  6.699810E+00  3.598121E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.639271E+02
  P =   4.218713E+01 -2.378766E+02 -2.721726E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.624311E+02
  P =  -6.286781E+01  3.183232E+02  1.614754E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.793605E+01
  P =   4.430817E+01  7.818400E+01  3.892964E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.757057E+02
  P =  -2.362748E+01 -1.586306E+02  7.176757E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   4.554759E+02
  P =   1.449831E+01 -4.063202E+02 -2.053095E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.874756E+02
  P =  -7.601786E+01  2.764585E+02  2.083831E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.144054E+02
  P =   4.246393E+01  9.504072E+01  4.746237E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.426431E+02
  P =   1.905562E+01  3.482101E+01  1.370089E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  2.54452E-05
 sqme_ref* =>  1.39147E-04
 event_index* => 4
 event_weight* =>  8.18156E+01
 event_weight_ref* =>  4.47408E+02
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-2| 4.8411697E+02; 2.4609277E+01,-4.3148523E+02,-2.1813784E+02| 0.0000000E+00| 3)
  4 prt(o:2| 4.0694829E+02;-6.1120044E+01, 3.5885573E+02, 1.8191706E+02| 0.0000000E+00| 4)
  5 prt(o:21| 7.0805349E+01; 2.5818913E+01, 6.5929688E+01, 2.3957423E-01| 0.0000000E+00| 5)
  6 prt(o:21| 3.8129392E+01; 1.0691855E+01, 6.6998097E+00, 3.5981208E+01| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #4
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  1.39147E-04
    Squared matrix el. (prc) =  5.35905E-06
    Event weight (ref)       =  4.47408E+02
    Event weight (prc)       =  1.72313E+01
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3904717424.0,          428371300.0,         2138618469.0,
            1125469886.0,         3340714319.0,         3263928336.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.928933E+02
  P =   2.057274E+01 -4.395150E+02 -2.221423E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.001453E+02
  P =  -6.445456E+01  3.522225E+02  1.786090E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.069614E+02
  P =   4.388182E+01  8.729245E+01  4.353329E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3820322671.0,         2196113481.0,         3143668624.0,
             175143050.0,         2601236033.0,         2067774727.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   4.554759E+02
  P =   1.449831E+01 -4.063202E+02 -2.053095E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.874756E+02
  P =  -7.601786E+01  2.764585E+02  2.083831E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.144054E+02
  P =   4.246393E+01  9.504072E+01  4.746237E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.426431E+02
  P =   1.905562E+01  3.482101E+01  1.370089E+02
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  5.364144351E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.928933E+02
  P =   2.057274E+01 -4.395150E+02 -2.221423E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   4.001453E+02
  P =  -6.445456E+01  3.522225E+02  1.786090E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.069614E+02
  P =   4.388182E+01  8.729245E+01  4.353329E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.841170E+02
  P =   2.460928E+01 -4.314852E+02 -2.181378E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.069483E+02
  P =  -6.112004E+01  3.588557E+02  1.819171E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   7.080535E+01
  P =   2.581891E+01  6.592969E+01  2.395742E-01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   3.812939E+01
  P =   1.069185E+01  6.699810E+00  3.598121E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.639271E+02
  P =   4.218713E+01 -2.378766E+02 -2.721726E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.624311E+02
  P =  -6.286781E+01  3.183232E+02  1.614754E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.793605E+01
  P =   4.430817E+01  7.818400E+01  3.892964E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.757057E+02
  P =  -2.362748E+01 -1.586306E+02  7.176757E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   4.554759E+02
  P =   1.449831E+01 -4.063202E+02 -2.053095E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.874756E+02
  P =  -7.601786E+01  2.764585E+02  2.083831E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.144054E+02
  P =   4.246393E+01  9.504072E+01  4.746237E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.426431E+02
  P =   1.905562E+01  3.482101E+01  1.370089E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  5.35905E-06
 sqme_ref* =>  1.39147E-04
 event_index* => 4
 event_weight* =>  1.72313E+01
 event_weight_ref* =>  4.47408E+02
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-2| 3.6392714E+02; 4.2187127E+01,-2.3787659E+02,-2.7217263E+02| 0.0000000E+00| 3)
  4 prt(o:2| 3.6243110E+02;-6.2867808E+01, 3.1832315E+02, 1.6147541E+02| 0.0000000E+00| 4)
  5 prt(o:21| 9.7936045E+01; 4.4308165E+01, 7.8184004E+01, 3.8929642E+01| 0.0000000E+00| 5)
  6 prt(o:21| 1.7570572E+02;-2.3627484E+01,-1.5863057E+02, 7.1767573E+01| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #4
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  1.39147E-04
    Squared matrix el. (prc) =  5.36414E-06
    Event weight (ref)       =  4.47408E+02
    Event weight (prc)       =  1.72477E+01
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3904717424.0,          428371300.0,         2138618469.0,
            1125469886.0,         3340714319.0,         3263928336.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.928933E+02
  P =   2.057274E+01 -4.395150E+02 -2.221423E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.001453E+02
  P =  -6.445456E+01  3.522225E+02  1.786090E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.069614E+02
  P =   4.388182E+01  8.729245E+01  4.353329E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3820322671.0,         2196113481.0,         3143668624.0,
             175143050.0,         2601236033.0,         2067774727.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   4.554759E+02
  P =   1.449831E+01 -4.063202E+02 -2.053095E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.874756E+02
  P =  -7.601786E+01  2.764585E+02  2.083831E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.144054E+02
  P =   4.246393E+01  9.504072E+01  4.746237E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.426431E+02
  P =   1.905562E+01  3.482101E+01  1.370089E+02
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  5.364144351E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.928933E+02
  P =   2.057274E+01 -4.395150E+02 -2.221423E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   4.001453E+02
  P =  -6.445456E+01  3.522225E+02  1.786090E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.069614E+02
  P =   4.388182E+01  8.729245E+01  4.353329E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.841170E+02
  P =   2.460928E+01 -4.314852E+02 -2.181378E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.069483E+02
  P =  -6.112004E+01  3.588557E+02  1.819171E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   7.080535E+01
  P =   2.581891E+01  6.592969E+01  2.395742E-01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   3.812939E+01
  P =   1.069185E+01  6.699810E+00  3.598121E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.639271E+02
  P =   4.218713E+01 -2.378766E+02 -2.721726E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.624311E+02
  P =  -6.286781E+01  3.183232E+02  1.614754E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.793605E+01
  P =   4.430817E+01  7.818400E+01  3.892964E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.757057E+02
  P =  -2.362748E+01 -1.586306E+02  7.176757E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   4.554759E+02
  P =   1.449831E+01 -4.063202E+02 -2.053095E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.874756E+02
  P =  -7.601786E+01  2.764585E+02  2.083831E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.144054E+02
  P =   4.246393E+01  9.504072E+01  4.746237E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.426431E+02
  P =   1.905562E+01  3.482101E+01  1.370089E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  5.36414E-06
 sqme_ref* =>  1.39147E-04
 event_index* => 4
 event_weight* =>  1.72477E+01
 event_weight_ref* =>  4.47408E+02
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-1| 4.5547590E+02; 1.4498305E+01,-4.0632018E+02,-2.0530953E+02| 0.0000000E+00| 3)
  4 prt(o:1| 2.8747561E+02;-7.6017859E+01, 2.7645845E+02, 2.0838310E+01| 0.0000000E+00| 4)
  5 prt(o:21| 1.1440542E+02; 4.2463933E+01, 9.5040720E+01, 4.7462370E+01| 0.0000000E+00| 5)
  6 prt(o:21| 1.4264307E+02; 1.9055620E+01, 3.4821012E+01, 1.3700885E+02| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #5
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  4.22124E-05
    Squared matrix el. (prc) =  0.00000E+00
    Event weight (ref)       =  3.48737E+00
    Event weight (prc)       =  0.00000E+00
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            2521457625.0,          484146147.0,         3618491698.0,
             461169559.0,         2286753282.0,         1064694027.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.027235E+02
  P =  -2.209137E+02  2.643626E+02 -2.085564E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   4.982950E+02
  P =   2.502364E+02 -3.439787E+02  2.595348E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.898149E+01
  P =  -2.932271E+01  7.961611E+01 -5.097833E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            2874489411.0,         1536154006.0,          964092590.0,
            1871199702.0,           55084237.0,         1682756482.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.538676E+02
  P =  -1.963328E+02  2.305732E+02 -1.830621E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.444991E+02
  P =   1.790454E+02 -9.743339E+01  2.777213E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   8.730900E+01
  P =  -2.327030E+01  7.129638E+01 -4.470102E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.143243E+02
  P =   4.055761E+01 -2.044362E+02 -4.995816E+01
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  4.118596831E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.027235E+02
  P =  -2.209137E+02  2.643626E+02 -2.085564E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   4.982950E+02
  P =   2.502364E+02 -3.439787E+02  2.595348E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.898149E+01
  P =  -2.932271E+01  7.961611E+01 -5.097833E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.117046E+02
  P =  -2.236904E+02  2.719018E+02 -2.133838E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.872740E+02
  P =   2.468762E+02 -3.348552E+02  2.536930E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   5.844794E+01
  P =  -3.481524E+01  4.687292E+01 -2.643835E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   4.257345E+01
  P =   1.162944E+01  1.608042E+01 -3.766530E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.674898E+02
  P =  -2.184275E+02  1.525344E+02 -2.394802E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   4.501318E+02
  P =   2.237681E+02 -3.123046E+02  2.345470E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.091609E+02
  P =  -3.513147E+01  8.656732E+01 -5.646216E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.732175E+02
  P =   2.979084E+01  7.320287E+01 -1.541368E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.538676E+02
  P =  -1.963328E+02  2.305732E+02 -1.830621E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.444991E+02
  P =   1.790454E+02 -9.743339E+01  2.777213E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   8.730900E+01
  P =  -2.327030E+01  7.129638E+01 -4.470102E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.143243E+02
  P =   4.055761E+01 -2.044362E+02 -4.995816E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 3
 n_tot* => 5
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  0.00000E+00
 sqme_ref* =>  4.22124E-05
 event_index* => 5
 event_weight* =>  0.00000E+00
 event_weight_ref* =>  3.48737E+00
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-3| 4.0272351E+02;-2.2091372E+02, 2.6436257E+02,-2.0855644E+02| 0.0000000E+00| 3)
  4 prt(o:3| 4.9829499E+02; 2.5023643E+02,-3.4397868E+02, 2.5953477E+02| 0.0000000E+00| 4)
  5 prt(o:21| 9.8981494E+01;-2.9322709E+01, 7.9616110E+01,-5.0978327E+01| 0.0000000E+00| 5)
 ========================================================================
 ========================================================================
  Event #5
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  4.22124E-05
    Squared matrix el. (prc) =  3.28584E-05
    Event weight (ref)       =  3.48737E+00
    Event weight (prc)       =  2.71460E+00
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            2521457625.0,          484146147.0,         3618491698.0,
             461169559.0,         2286753282.0,         1064694027.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.027235E+02
  P =  -2.209137E+02  2.643626E+02 -2.085564E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   4.982950E+02
  P =   2.502364E+02 -3.439787E+02  2.595348E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.898149E+01
  P =  -2.932271E+01  7.961611E+01 -5.097833E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            2874489411.0,         1536154006.0,          964092590.0,
            1871199702.0,           55084237.0,         1682756482.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.538676E+02
  P =  -1.963328E+02  2.305732E+02 -1.830621E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.444991E+02
  P =   1.790454E+02 -9.743339E+01  2.777213E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   8.730900E+01
  P =  -2.327030E+01  7.129638E+01 -4.470102E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.143243E+02
  P =   4.055761E+01 -2.044362E+02 -4.995816E+01
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  4.118596831E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.027235E+02
  P =  -2.209137E+02  2.643626E+02 -2.085564E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   4.982950E+02
  P =   2.502364E+02 -3.439787E+02  2.595348E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.898149E+01
  P =  -2.932271E+01  7.961611E+01 -5.097833E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.117046E+02
  P =  -2.236904E+02  2.719018E+02 -2.133838E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.872740E+02
  P =   2.468762E+02 -3.348552E+02  2.536930E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   5.844794E+01
  P =  -3.481524E+01  4.687292E+01 -2.643835E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   4.257345E+01
  P =   1.162944E+01  1.608042E+01 -3.766530E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.674898E+02
  P =  -2.184275E+02  1.525344E+02 -2.394802E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   4.501318E+02
  P =   2.237681E+02 -3.123046E+02  2.345470E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.091609E+02
  P =  -3.513147E+01  8.656732E+01 -5.646216E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.732175E+02
  P =   2.979084E+01  7.320287E+01 -1.541368E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.538676E+02
  P =  -1.963328E+02  2.305732E+02 -1.830621E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.444991E+02
  P =   1.790454E+02 -9.743339E+01  2.777213E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   8.730900E+01
  P =  -2.327030E+01  7.129638E+01 -4.470102E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.143243E+02
  P =   4.055761E+01 -2.044362E+02 -4.995816E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  3.28584E-05
 sqme_ref* =>  4.22124E-05
 event_index* => 5
 event_weight* =>  2.71460E+00
 event_weight_ref* =>  3.48737E+00
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-2| 4.1170459E+02;-2.2369044E+02, 2.7190181E+02,-2.1338383E+02| 0.0000000E+00| 3)
  4 prt(o:2| 4.8727402E+02; 2.4687623E+02,-3.3485516E+02, 2.5369297E+02| 0.0000000E+00| 4)
  5 prt(o:-2| 5.8447938E+01;-3.4815235E+01, 4.6872924E+01,-2.6438351E+00| 0.0000000E+00| 5)
  6 prt(o:2| 4.2573450E+01; 1.1629442E+01, 1.6080425E+01,-3.7665298E+01| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #5
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  4.22124E-05
    Squared matrix el. (prc) =  5.23534E-06
    Event weight (ref)       =  3.48737E+00
    Event weight (prc)       =  4.32517E-01
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            2521457625.0,          484146147.0,         3618491698.0,
             461169559.0,         2286753282.0,         1064694027.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.027235E+02
  P =  -2.209137E+02  2.643626E+02 -2.085564E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   4.982950E+02
  P =   2.502364E+02 -3.439787E+02  2.595348E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.898149E+01
  P =  -2.932271E+01  7.961611E+01 -5.097833E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            2874489411.0,         1536154006.0,          964092590.0,
            1871199702.0,           55084237.0,         1682756482.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.538676E+02
  P =  -1.963328E+02  2.305732E+02 -1.830621E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.444991E+02
  P =   1.790454E+02 -9.743339E+01  2.777213E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   8.730900E+01
  P =  -2.327030E+01  7.129638E+01 -4.470102E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.143243E+02
  P =   4.055761E+01 -2.044362E+02 -4.995816E+01
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  4.118596831E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.027235E+02
  P =  -2.209137E+02  2.643626E+02 -2.085564E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   4.982950E+02
  P =   2.502364E+02 -3.439787E+02  2.595348E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.898149E+01
  P =  -2.932271E+01  7.961611E+01 -5.097833E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.117046E+02
  P =  -2.236904E+02  2.719018E+02 -2.133838E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.872740E+02
  P =   2.468762E+02 -3.348552E+02  2.536930E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   5.844794E+01
  P =  -3.481524E+01  4.687292E+01 -2.643835E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   4.257345E+01
  P =   1.162944E+01  1.608042E+01 -3.766530E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.674898E+02
  P =  -2.184275E+02  1.525344E+02 -2.394802E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   4.501318E+02
  P =   2.237681E+02 -3.123046E+02  2.345470E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.091609E+02
  P =  -3.513147E+01  8.656732E+01 -5.646216E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.732175E+02
  P =   2.979084E+01  7.320287E+01 -1.541368E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.538676E+02
  P =  -1.963328E+02  2.305732E+02 -1.830621E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.444991E+02
  P =   1.790454E+02 -9.743339E+01  2.777213E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   8.730900E+01
  P =  -2.327030E+01  7.129638E+01 -4.470102E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.143243E+02
  P =   4.055761E+01 -2.044362E+02 -4.995816E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  5.23534E-06
 sqme_ref* =>  4.22124E-05
 event_index* => 5
 event_weight* =>  4.32517E-01
 event_weight_ref* =>  3.48737E+00
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-1| 2.6748982E+02;-2.1842746E+02, 1.5253440E+02,-2.3948016E+01| 0.0000000E+00| 3)
  4 prt(o:1| 4.5013177E+02; 2.2376809E+02,-3.1230460E+02, 2.3454699E+02| 0.0000000E+00| 4)
  5 prt(o:21| 1.0916088E+02;-3.5131469E+01, 8.6567325E+01,-5.6462162E+01| 0.0000000E+00| 5)
  6 prt(o:21| 1.7321753E+02; 2.9790839E+01, 7.3202871E+01,-1.5413681E+02| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #5
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  4.22124E-05
    Squared matrix el. (prc) =  4.11860E-06
    Event weight (ref)       =  3.48737E+00
    Event weight (prc)       =  3.40258E-01
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            2521457625.0,          484146147.0,         3618491698.0,
             461169559.0,         2286753282.0,         1064694027.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.027235E+02
  P =  -2.209137E+02  2.643626E+02 -2.085564E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   4.982950E+02
  P =   2.502364E+02 -3.439787E+02  2.595348E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.898149E+01
  P =  -2.932271E+01  7.961611E+01 -5.097833E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            2874489411.0,         1536154006.0,          964092590.0,
            1871199702.0,           55084237.0,         1682756482.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.538676E+02
  P =  -1.963328E+02  2.305732E+02 -1.830621E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.444991E+02
  P =   1.790454E+02 -9.743339E+01  2.777213E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   8.730900E+01
  P =  -2.327030E+01  7.129638E+01 -4.470102E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.143243E+02
  P =   4.055761E+01 -2.044362E+02 -4.995816E+01
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  4.118596831E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.027235E+02
  P =  -2.209137E+02  2.643626E+02 -2.085564E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   4.982950E+02
  P =   2.502364E+02 -3.439787E+02  2.595348E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.898149E+01
  P =  -2.932271E+01  7.961611E+01 -5.097833E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.117046E+02
  P =  -2.236904E+02  2.719018E+02 -2.133838E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.872740E+02
  P =   2.468762E+02 -3.348552E+02  2.536930E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   5.844794E+01
  P =  -3.481524E+01  4.687292E+01 -2.643835E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   4.257345E+01
  P =   1.162944E+01  1.608042E+01 -3.766530E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.674898E+02
  P =  -2.184275E+02  1.525344E+02 -2.394802E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   4.501318E+02
  P =   2.237681E+02 -3.123046E+02  2.345470E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.091609E+02
  P =  -3.513147E+01  8.656732E+01 -5.646216E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.732175E+02
  P =   2.979084E+01  7.320287E+01 -1.541368E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.538676E+02
  P =  -1.963328E+02  2.305732E+02 -1.830621E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.444991E+02
  P =   1.790454E+02 -9.743339E+01  2.777213E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   8.730900E+01
  P =  -2.327030E+01  7.129638E+01 -4.470102E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.143243E+02
  P =   4.055761E+01 -2.044362E+02 -4.995816E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  4.11860E-06
 sqme_ref* =>  4.22124E-05
 event_index* => 5
 event_weight* =>  3.40258E-01
 event_weight_ref* =>  3.48737E+00
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-2| 3.5386761E+02;-1.9633276E+02, 2.3057321E+02,-1.8306209E+02| 0.0000000E+00| 3)
  4 prt(o:2| 3.4449912E+02; 1.7904544E+02,-9.7433390E+01, 2.7772127E+02| 0.0000000E+00| 4)
  5 prt(o:21| 8.7308999E+01;-2.3270298E+01, 7.1296377E+01,-4.4701020E+01| 0.0000000E+00| 5)
  6 prt(o:21| 2.1432428E+02; 4.0557612E+01,-2.0443620E+02,-4.9958162E+01| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #6
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  1.60249E-05
    Squared matrix el. (prc) =  1.08606E-05
    Event weight (ref)       =  2.07735E+02
    Event weight (prc)       =  1.40789E+02
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            4125922664.0,         1099593662.0,          947678322.0,
            1549828072.0,         1211032067.0,         3439727021.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   4.316672E+02
  P =  -5.171632E+01  3.335645E+02 -2.690664E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.550626E+02
  P =  -1.282024E+01 -1.386159E+02  3.266355E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.132701E+02
  P =   6.453657E+01 -1.949487E+02 -5.756910E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            2642801743.0,         4156652070.0,         1063163963.0,
            1965590681.0,         3112607032.0,          766456187.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.707584E+02
  P =  -5.431199E+01  3.054995E+02 -2.029337E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.045895E+02
  P =  -7.779699E+01 -1.816366E+02  5.303444E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.204815E+02
  P =   6.313348E+01 -2.101192E+02 -2.182103E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.041706E+02
  P =   6.897550E+01  8.625634E+01  1.717203E+02
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  5.005650005E-07
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.316672E+02
  P =  -5.171632E+01  3.335645E+02 -2.690664E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   3.550626E+02
  P =  -1.282024E+01 -1.386159E+02  3.266355E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.132701E+02
  P =   6.453657E+01 -1.949487E+02 -5.756910E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   4.096923E+02
  P =  -3.942661E+01  2.964404E+02 -2.800293E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.600749E+02
  P =  -2.374253E+00 -1.701706E+02  3.173173E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.075967E+02
  P =  -2.232057E+01 -4.055497E+01 -9.712951E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.226361E+02
  P =   6.412144E+01 -8.571487E+01  5.984153E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.694147E+02
  P =   7.343066E+01  2.681650E+01 -2.578238E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.920726E+02
  P =  -2.180870E+01 -8.064133E+01  2.798710E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.902924E+02
  P =   5.893124E+01 -1.587949E+02 -8.673213E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.482203E+02
  P =  -1.105532E+02  2.126198E+02  6.468497E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.707584E+02
  P =  -5.431199E+01  3.054995E+02 -2.029337E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.045895E+02
  P =  -7.779699E+01 -1.816366E+02  5.303444E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.204815E+02
  P =   6.313348E+01 -2.101192E+02 -2.182103E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.041706E+02
  P =   6.897550E+01  8.625634E+01  1.717203E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 3
 n_tot* => 5
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  1.08606E-05
 sqme_ref* =>  1.60249E-05
 event_index* => 6
 event_weight* =>  1.40789E+02
 event_weight_ref* =>  2.07735E+02
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-3| 4.3166723E+02;-5.1716323E+01, 3.3356451E+02,-2.6906642E+02| 0.0000000E+00| 3)
  4 prt(o:3| 3.5506264E+02;-1.2820243E+01,-1.3861586E+02, 3.2663552E+02| 0.0000000E+00| 4)
  5 prt(o:21| 2.1327013E+02; 6.4536566E+01,-1.9494865E+02,-5.7569101E+01| 0.0000000E+00| 5)
 ========================================================================
 ========================================================================
  Event #6
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  1.60249E-05
    Squared matrix el. (prc) =  3.96152E-06
    Event weight (ref)       =  2.07735E+02
    Event weight (prc)       =  5.13541E+01
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            4125922664.0,         1099593662.0,          947678322.0,
            1549828072.0,         1211032067.0,         3439727021.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   4.316672E+02
  P =  -5.171632E+01  3.335645E+02 -2.690664E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.550626E+02
  P =  -1.282024E+01 -1.386159E+02  3.266355E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.132701E+02
  P =   6.453657E+01 -1.949487E+02 -5.756910E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            2642801743.0,         4156652070.0,         1063163963.0,
            1965590681.0,         3112607032.0,          766456187.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.707584E+02
  P =  -5.431199E+01  3.054995E+02 -2.029337E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.045895E+02
  P =  -7.779699E+01 -1.816366E+02  5.303444E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.204815E+02
  P =   6.313348E+01 -2.101192E+02 -2.182103E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.041706E+02
  P =   6.897550E+01  8.625634E+01  1.717203E+02
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  5.005650005E-07
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.316672E+02
  P =  -5.171632E+01  3.335645E+02 -2.690664E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   3.550626E+02
  P =  -1.282024E+01 -1.386159E+02  3.266355E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.132701E+02
  P =   6.453657E+01 -1.949487E+02 -5.756910E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   4.096923E+02
  P =  -3.942661E+01  2.964404E+02 -2.800293E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.600749E+02
  P =  -2.374253E+00 -1.701706E+02  3.173173E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.075967E+02
  P =  -2.232057E+01 -4.055497E+01 -9.712951E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.226361E+02
  P =   6.412144E+01 -8.571487E+01  5.984153E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.694147E+02
  P =   7.343066E+01  2.681650E+01 -2.578238E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.920726E+02
  P =  -2.180870E+01 -8.064133E+01  2.798710E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.902924E+02
  P =   5.893124E+01 -1.587949E+02 -8.673213E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.482203E+02
  P =  -1.105532E+02  2.126198E+02  6.468497E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.707584E+02
  P =  -5.431199E+01  3.054995E+02 -2.029337E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.045895E+02
  P =  -7.779699E+01 -1.816366E+02  5.303444E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.204815E+02
  P =   6.313348E+01 -2.101192E+02 -2.182103E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.041706E+02
  P =   6.897550E+01  8.625634E+01  1.717203E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  3.96152E-06
 sqme_ref* =>  1.60249E-05
 event_index* => 6
 event_weight* =>  5.13541E+01
 event_weight_ref* =>  2.07735E+02
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-1| 4.0969231E+02;-3.9426612E+01, 2.9644040E+02,-2.8002932E+02| 0.0000000E+00| 3)
  4 prt(o:1| 3.6007488E+02;-2.3742530E+00,-1.7017055E+02, 3.1731730E+02| 0.0000000E+00| 4)
  5 prt(o:21| 1.0759673E+02;-2.2320574E+01,-4.0554975E+01,-9.7129514E+01| 0.0000000E+00| 5)
  6 prt(o:21| 1.2263608E+02; 6.4121440E+01,-8.5714872E+01, 5.9841533E+01| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #6
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  1.60249E-05
    Squared matrix el. (prc) =  7.02181E-07
    Event weight (ref)       =  2.07735E+02
    Event weight (prc)       =  9.10255E+00
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            4125922664.0,         1099593662.0,          947678322.0,
            1549828072.0,         1211032067.0,         3439727021.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   4.316672E+02
  P =  -5.171632E+01  3.335645E+02 -2.690664E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.550626E+02
  P =  -1.282024E+01 -1.386159E+02  3.266355E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.132701E+02
  P =   6.453657E+01 -1.949487E+02 -5.756910E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            2642801743.0,         4156652070.0,         1063163963.0,
            1965590681.0,         3112607032.0,          766456187.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.707584E+02
  P =  -5.431199E+01  3.054995E+02 -2.029337E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.045895E+02
  P =  -7.779699E+01 -1.816366E+02  5.303444E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.204815E+02
  P =   6.313348E+01 -2.101192E+02 -2.182103E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.041706E+02
  P =   6.897550E+01  8.625634E+01  1.717203E+02
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  5.005650005E-07
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.316672E+02
  P =  -5.171632E+01  3.335645E+02 -2.690664E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   3.550626E+02
  P =  -1.282024E+01 -1.386159E+02  3.266355E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.132701E+02
  P =   6.453657E+01 -1.949487E+02 -5.756910E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   4.096923E+02
  P =  -3.942661E+01  2.964404E+02 -2.800293E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.600749E+02
  P =  -2.374253E+00 -1.701706E+02  3.173173E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.075967E+02
  P =  -2.232057E+01 -4.055497E+01 -9.712951E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.226361E+02
  P =   6.412144E+01 -8.571487E+01  5.984153E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.694147E+02
  P =   7.343066E+01  2.681650E+01 -2.578238E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.920726E+02
  P =  -2.180870E+01 -8.064133E+01  2.798710E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.902924E+02
  P =   5.893124E+01 -1.587949E+02 -8.673213E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.482203E+02
  P =  -1.105532E+02  2.126198E+02  6.468497E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.707584E+02
  P =  -5.431199E+01  3.054995E+02 -2.029337E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.045895E+02
  P =  -7.779699E+01 -1.816366E+02  5.303444E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.204815E+02
  P =   6.313348E+01 -2.101192E+02 -2.182103E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.041706E+02
  P =   6.897550E+01  8.625634E+01  1.717203E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  7.02181E-07
 sqme_ref* =>  1.60249E-05
 event_index* => 6
 event_weight* =>  9.10255E+00
 event_weight_ref* =>  2.07735E+02
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-1| 2.6941474E+02; 7.3430662E+01, 2.6816499E+01,-2.5782380E+02| 0.0000000E+00| 3)
  4 prt(o:1| 2.9207259E+02;-2.1808697E+01,-8.0641329E+01, 2.7987096E+02| 0.0000000E+00| 4)
  5 prt(o:21| 1.9029237E+02; 5.8931241E+01,-1.5879493E+02,-8.6732130E+01| 0.0000000E+00| 5)
  6 prt(o:21| 2.4822031E+02;-1.1055321E+02, 2.1261976E+02, 6.4684974E+01| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #6
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  1.60249E-05
    Squared matrix el. (prc) =  5.00565E-07
    Event weight (ref)       =  2.07735E+02
    Event weight (prc)       =  6.48895E+00
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            4125922664.0,         1099593662.0,          947678322.0,
            1549828072.0,         1211032067.0,         3439727021.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   4.316672E+02
  P =  -5.171632E+01  3.335645E+02 -2.690664E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.550626E+02
  P =  -1.282024E+01 -1.386159E+02  3.266355E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.132701E+02
  P =   6.453657E+01 -1.949487E+02 -5.756910E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            2642801743.0,         4156652070.0,         1063163963.0,
            1965590681.0,         3112607032.0,          766456187.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.707584E+02
  P =  -5.431199E+01  3.054995E+02 -2.029337E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.045895E+02
  P =  -7.779699E+01 -1.816366E+02  5.303444E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.204815E+02
  P =   6.313348E+01 -2.101192E+02 -2.182103E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.041706E+02
  P =   6.897550E+01  8.625634E+01  1.717203E+02
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  5.005650005E-07
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.316672E+02
  P =  -5.171632E+01  3.335645E+02 -2.690664E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   3.550626E+02
  P =  -1.282024E+01 -1.386159E+02  3.266355E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.132701E+02
  P =   6.453657E+01 -1.949487E+02 -5.756910E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   4.096923E+02
  P =  -3.942661E+01  2.964404E+02 -2.800293E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.600749E+02
  P =  -2.374253E+00 -1.701706E+02  3.173173E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.075967E+02
  P =  -2.232057E+01 -4.055497E+01 -9.712951E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.226361E+02
  P =   6.412144E+01 -8.571487E+01  5.984153E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.694147E+02
  P =   7.343066E+01  2.681650E+01 -2.578238E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.920726E+02
  P =  -2.180870E+01 -8.064133E+01  2.798710E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.902924E+02
  P =   5.893124E+01 -1.587949E+02 -8.673213E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.482203E+02
  P =  -1.105532E+02  2.126198E+02  6.468497E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.707584E+02
  P =  -5.431199E+01  3.054995E+02 -2.029337E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.045895E+02
  P =  -7.779699E+01 -1.816366E+02  5.303444E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.204815E+02
  P =   6.313348E+01 -2.101192E+02 -2.182103E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.041706E+02
  P =   6.897550E+01  8.625634E+01  1.717203E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  5.00565E-07
 sqme_ref* =>  1.60249E-05
 event_index* => 6
 event_weight* =>  6.48895E+00
 event_weight_ref* =>  2.07735E+02
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-2| 3.7075841E+02;-5.4311991E+01, 3.0549946E+02,-2.0293371E+02| 0.0000000E+00| 3)
  4 prt(o:2| 2.0458951E+02;-7.7796989E+01,-1.8163657E+02, 5.3034445E+01| 0.0000000E+00| 4)
  5 prt(o:21| 2.2048148E+02; 6.3133476E+01,-2.1011923E+02,-2.1821026E+01| 0.0000000E+00| 5)
  6 prt(o:21| 2.0417060E+02; 6.8975504E+01, 8.6256341E+01, 1.7172029E+02| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #7
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  8.83369E-06
    Squared matrix el. (prc) =  0.00000E+00
    Event weight (ref)       =  8.10008E+00
    Event weight (prc)       =  0.00000E+00
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3576035536.0,         2293616308.0,         1936885241.0,
            2020414557.0,         2733429172.0,         2006815896.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   4.788800E+02
  P =   2.318826E+01  3.522619E+02 -3.235737E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   4.881018E+02
  P =  -3.890385E+01 -3.387347E+02  3.492687E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.301819E+01
  P =   1.571558E+01 -1.352722E+01 -2.569506E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            2983838794.0,         1385001890.0,         2744238164.0,
            3397930769.0,         3140992418.0,         2193146513.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   3.942560E+02
  P =   1.642569E+01  2.933804E+02 -2.628610E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.951924E+02
  P =  -2.015823E+02 -2.393926E+02  2.413147E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.163637E+01
  P =   1.521482E+01 -1.788732E+01 -2.119936E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.789152E+02
  P =   1.699418E+02 -3.610042E+01  4.274566E+01
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  4.890198089E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.788800E+02
  P =   2.318826E+01  3.522619E+02 -3.235737E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   4.881018E+02
  P =  -3.890385E+01 -3.387347E+02  3.492687E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.301819E+01
  P =   1.571558E+01 -1.352722E+01 -2.569506E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.802564E+02
  P =   2.577931E+01  3.500317E+02 -3.278101E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.864129E+02
  P =  -3.627125E+01 -3.410007E+02  3.449644E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   2.122778E+01
  P =   4.489502E-01 -1.531889E+01 -1.468839E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   1.210292E+01
  P =   1.004299E+01  6.287933E+00 -2.465977E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   3.856990E+02
  P =   1.851879E+02  2.314010E+02 -2.468253E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   4.035784E+02
  P =  -3.480039E+01 -2.763976E+02  2.920083E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.518761E+01
  P =   1.602946E+01 -8.758970E+00 -3.007498E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.755350E+02
  P =  -1.664170E+02  5.375550E+01 -1.510808E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   3.942560E+02
  P =   1.642569E+01  2.933804E+02 -2.628610E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.951924E+02
  P =  -2.015823E+02 -2.393926E+02  2.413147E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.163637E+01
  P =   1.521482E+01 -1.788732E+01 -2.119936E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.789152E+02
  P =   1.699418E+02 -3.610042E+01  4.274566E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 3
 n_tot* => 5
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  0.00000E+00
 sqme_ref* =>  8.83369E-06
 event_index* => 7
 event_weight* =>  0.00000E+00
 event_weight_ref* =>  8.10008E+00
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-3| 4.7888002E+02; 2.3188264E+01, 3.5226191E+02,-3.2357368E+02| 0.0000000E+00| 3)
  4 prt(o:3| 4.8810178E+02;-3.8903846E+01,-3.3873469E+02, 3.4926874E+02| 0.0000000E+00| 4)
  5 prt(o:21| 3.3018195E+01; 1.5715582E+01,-1.3527221E+01,-2.5695057E+01| 0.0000000E+00| 5)
 ========================================================================
 ========================================================================
  Event #7
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  8.83369E-06
    Squared matrix el. (prc) =  1.55977E-04
    Event weight (ref)       =  8.10008E+00
    Event weight (prc)       =  0.00000E+00
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3576035536.0,         2293616308.0,         1936885241.0,
            2020414557.0,         2733429172.0,         2006815896.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   4.788800E+02
  P =   2.318826E+01  3.522619E+02 -3.235737E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   4.881018E+02
  P =  -3.890385E+01 -3.387347E+02  3.492687E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.301819E+01
  P =   1.571558E+01 -1.352722E+01 -2.569506E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            2983838794.0,         1385001890.0,         2744238164.0,
            3397930769.0,         3140992418.0,         2193146513.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   3.942560E+02
  P =   1.642569E+01  2.933804E+02 -2.628610E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.951924E+02
  P =  -2.015823E+02 -2.393926E+02  2.413147E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.163637E+01
  P =   1.521482E+01 -1.788732E+01 -2.119936E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.789152E+02
  P =   1.699418E+02 -3.610042E+01  4.274566E+01
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  4.890198089E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.788800E+02
  P =   2.318826E+01  3.522619E+02 -3.235737E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   4.881018E+02
  P =  -3.890385E+01 -3.387347E+02  3.492687E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.301819E+01
  P =   1.571558E+01 -1.352722E+01 -2.569506E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.802564E+02
  P =   2.577931E+01  3.500317E+02 -3.278101E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.864129E+02
  P =  -3.627125E+01 -3.410007E+02  3.449644E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   2.122778E+01
  P =   4.489502E-01 -1.531889E+01 -1.468839E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   1.210292E+01
  P =   1.004299E+01  6.287933E+00 -2.465977E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   3.856990E+02
  P =   1.851879E+02  2.314010E+02 -2.468253E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   4.035784E+02
  P =  -3.480039E+01 -2.763976E+02  2.920083E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.518761E+01
  P =   1.602946E+01 -8.758970E+00 -3.007498E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.755350E+02
  P =  -1.664170E+02  5.375550E+01 -1.510808E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   3.942560E+02
  P =   1.642569E+01  2.933804E+02 -2.628610E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.951924E+02
  P =  -2.015823E+02 -2.393926E+02  2.413147E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.163637E+01
  P =   1.521482E+01 -1.788732E+01 -2.119936E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.789152E+02
  P =   1.699418E+02 -3.610042E+01  4.274566E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  1.55977E-04
 sqme_ref* =>  8.83369E-06
 event_index* => 7
 event_weight* =>  0.00000E+00
 event_weight_ref* =>  8.10008E+00
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-2| 4.8025636E+02; 2.5779315E+01, 3.5003166E+02,-3.2781006E+02| 0.0000000E+00| 3)
  4 prt(o:2| 4.8641293E+02;-3.6271251E+01,-3.4100070E+02, 3.4496443E+02| 0.0000000E+00| 4)
  5 prt(o:-2| 2.1227785E+01; 4.4895023E-01,-1.5318890E+01,-1.4688394E+01| 0.0000000E+00| 5)
  6 prt(o:2| 1.2102922E+01; 1.0042987E+01, 6.2879328E+00,-2.4659768E+00| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #7
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  8.83369E-06
    Squared matrix el. (prc) =  3.94349E-06
    Event weight (ref)       =  8.10008E+00
    Event weight (prc)       =  3.61600E+00
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3576035536.0,         2293616308.0,         1936885241.0,
            2020414557.0,         2733429172.0,         2006815896.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   4.788800E+02
  P =   2.318826E+01  3.522619E+02 -3.235737E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   4.881018E+02
  P =  -3.890385E+01 -3.387347E+02  3.492687E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.301819E+01
  P =   1.571558E+01 -1.352722E+01 -2.569506E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            2983838794.0,         1385001890.0,         2744238164.0,
            3397930769.0,         3140992418.0,         2193146513.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   3.942560E+02
  P =   1.642569E+01  2.933804E+02 -2.628610E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.951924E+02
  P =  -2.015823E+02 -2.393926E+02  2.413147E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.163637E+01
  P =   1.521482E+01 -1.788732E+01 -2.119936E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.789152E+02
  P =   1.699418E+02 -3.610042E+01  4.274566E+01
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  4.890198089E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.788800E+02
  P =   2.318826E+01  3.522619E+02 -3.235737E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   4.881018E+02
  P =  -3.890385E+01 -3.387347E+02  3.492687E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.301819E+01
  P =   1.571558E+01 -1.352722E+01 -2.569506E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.802564E+02
  P =   2.577931E+01  3.500317E+02 -3.278101E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.864129E+02
  P =  -3.627125E+01 -3.410007E+02  3.449644E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   2.122778E+01
  P =   4.489502E-01 -1.531889E+01 -1.468839E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   1.210292E+01
  P =   1.004299E+01  6.287933E+00 -2.465977E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   3.856990E+02
  P =   1.851879E+02  2.314010E+02 -2.468253E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   4.035784E+02
  P =  -3.480039E+01 -2.763976E+02  2.920083E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.518761E+01
  P =   1.602946E+01 -8.758970E+00 -3.007498E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.755350E+02
  P =  -1.664170E+02  5.375550E+01 -1.510808E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   3.942560E+02
  P =   1.642569E+01  2.933804E+02 -2.628610E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.951924E+02
  P =  -2.015823E+02 -2.393926E+02  2.413147E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.163637E+01
  P =   1.521482E+01 -1.788732E+01 -2.119936E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.789152E+02
  P =   1.699418E+02 -3.610042E+01  4.274566E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  3.94349E-06
 sqme_ref* =>  8.83369E-06
 event_index* => 7
 event_weight* =>  3.61600E+00
 event_weight_ref* =>  8.10008E+00
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-3| 3.8569900E+02; 1.8518792E+02, 2.3140102E+02,-2.4682528E+02| 0.0000000E+00| 3)
  4 prt(o:3| 4.0357843E+02;-3.4800393E+01,-2.7639756E+02, 2.9200834E+02| 0.0000000E+00| 4)
  5 prt(o:21| 3.5187606E+01; 1.6029460E+01,-8.7589704E+00,-3.0074981E+01| 0.0000000E+00| 5)
  6 prt(o:21| 1.7553496E+02;-1.6641699E+02, 5.3755504E+01,-1.5108077E+01| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #7
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  8.83369E-06
    Squared matrix el. (prc) =  4.89020E-06
    Event weight (ref)       =  8.10008E+00
    Event weight (prc)       =  4.48408E+00
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3576035536.0,         2293616308.0,         1936885241.0,
            2020414557.0,         2733429172.0,         2006815896.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   4.788800E+02
  P =   2.318826E+01  3.522619E+02 -3.235737E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   4.881018E+02
  P =  -3.890385E+01 -3.387347E+02  3.492687E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.301819E+01
  P =   1.571558E+01 -1.352722E+01 -2.569506E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            2983838794.0,         1385001890.0,         2744238164.0,
            3397930769.0,         3140992418.0,         2193146513.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   3.942560E+02
  P =   1.642569E+01  2.933804E+02 -2.628610E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.951924E+02
  P =  -2.015823E+02 -2.393926E+02  2.413147E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.163637E+01
  P =   1.521482E+01 -1.788732E+01 -2.119936E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.789152E+02
  P =   1.699418E+02 -3.610042E+01  4.274566E+01
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  4.890198089E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.788800E+02
  P =   2.318826E+01  3.522619E+02 -3.235737E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   4.881018E+02
  P =  -3.890385E+01 -3.387347E+02  3.492687E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.301819E+01
  P =   1.571558E+01 -1.352722E+01 -2.569506E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.802564E+02
  P =   2.577931E+01  3.500317E+02 -3.278101E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.864129E+02
  P =  -3.627125E+01 -3.410007E+02  3.449644E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   2.122778E+01
  P =   4.489502E-01 -1.531889E+01 -1.468839E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   1.210292E+01
  P =   1.004299E+01  6.287933E+00 -2.465977E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   3.856990E+02
  P =   1.851879E+02  2.314010E+02 -2.468253E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   4.035784E+02
  P =  -3.480039E+01 -2.763976E+02  2.920083E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.518761E+01
  P =   1.602946E+01 -8.758970E+00 -3.007498E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.755350E+02
  P =  -1.664170E+02  5.375550E+01 -1.510808E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   3.942560E+02
  P =   1.642569E+01  2.933804E+02 -2.628610E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.951924E+02
  P =  -2.015823E+02 -2.393926E+02  2.413147E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.163637E+01
  P =   1.521482E+01 -1.788732E+01 -2.119936E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.789152E+02
  P =   1.699418E+02 -3.610042E+01  4.274566E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  4.89020E-06
 sqme_ref* =>  8.83369E-06
 event_index* => 7
 event_weight* =>  4.48408E+00
 event_weight_ref* =>  8.10008E+00
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-1| 3.9425595E+02; 1.6425689E+01, 2.9338037E+02,-2.6286102E+02| 0.0000000E+00| 3)
  4 prt(o:1| 3.9519244E+02;-2.0158234E+02,-2.3939263E+02, 2.4131472E+02| 0.0000000E+00| 4)
  5 prt(o:21| 3.1636374E+01; 1.5214822E+01,-1.7887322E+01,-2.1199365E+01| 0.0000000E+00| 5)
  6 prt(o:21| 1.7891523E+02; 1.6994183E+02,-3.6100416E+01, 4.2745660E+01| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #8
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  0.00000E+00
    Squared matrix el. (prc) =  0.00000E+00
    Event weight (ref)       =  0.00000E+00
    Event weight (prc)       =  0.00000E+00
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
             265363073.0,         2498283046.0,          987287394.0,
            1610688028.0,         4034146020.0,         3552764251.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.870751E+02
  P =  -3.736493E+02  1.987958E+02 -2.410570E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   4.661453E+02
  P =   3.301426E+02 -2.128020E+02  2.510232E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   4.677963E+01
  P =   4.350675E+01  1.400614E+01 -9.966171E+00
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            2286692505.0,         4134998199.0,         2039489375.0,
            2133112660.0,         2120463776.0,          417067873.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.857981E+02
  P =  -3.727414E+02  1.982106E+02 -2.403667E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.281892E+02
  P =   7.746421E+01 -7.618367E+01  6.802796E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   4.683000E+01
  P =   4.359411E+01  1.394983E+01 -9.899748E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   3.391828E+02
  P =   2.516831E+02 -1.359768E+02  1.822385E+02
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  4.890198089E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.870751E+02
  P =  -3.736493E+02  1.987958E+02 -2.410570E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.661453E+02
  P =   3.301426E+02 -2.128020E+02  2.510232E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   4.677963E+01
  P =   4.350675E+01  1.400614E+01 -9.966171E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.870130E+02
  P =  -3.735304E+02  1.988341E+02 -2.410842E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.661952E+02
  P =   3.302564E+02 -2.127654E+02  2.509971E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   1.275347E+01
  P =   1.235827E+01  1.666857E+00 -2.673150E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   3.403841E+01
  P =   3.091577E+01  1.226437E+01 -7.239714E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.340029E+02
  P =  -9.044550E+01  7.424502E+01 -6.529986E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.648680E+02
  P =   3.291589E+02 -2.122786E+02  2.503885E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   4.671720E+01
  P =   4.340796E+01  1.405870E+01 -1.002990E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   3.544119E+02
  P =  -2.821214E+02  1.239749E+02 -1.750588E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.857981E+02
  P =  -3.727414E+02  1.982106E+02 -2.403667E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.281892E+02
  P =   7.746421E+01 -7.618367E+01  6.802796E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   4.683000E+01
  P =   4.359411E+01  1.394983E+01 -9.899748E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   3.391828E+02
  P =   2.516831E+02 -1.359768E+02  1.822385E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 3
 n_tot* => 5
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  0.00000E+00
 sqme_ref* =>  0.00000E+00
 event_index* => 8
 event_weight* =>  0.00000E+00
 event_weight_ref* =>  0.00000E+00
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-2| 4.8707505E+02;-3.7364935E+02, 1.9879585E+02,-2.4105701E+02| 0.0000000E+00| 3)
  4 prt(o:2| 4.6614532E+02; 3.3014260E+02,-2.1280199E+02, 2.5102318E+02| 0.0000000E+00| 4)
  5 prt(o:21| 4.6779628E+01; 4.3506748E+01, 1.4006140E+01,-9.9661711E+00| 0.0000000E+00| 5)
 ========================================================================
 ========================================================================
  Event #8
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  0.00000E+00
    Squared matrix el. (prc) =  0.00000E+00
    Event weight (ref)       =  0.00000E+00
    Event weight (prc)       =  0.00000E+00
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
             265363073.0,         2498283046.0,          987287394.0,
            1610688028.0,         4034146020.0,         3552764251.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.870751E+02
  P =  -3.736493E+02  1.987958E+02 -2.410570E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   4.661453E+02
  P =   3.301426E+02 -2.128020E+02  2.510232E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   4.677963E+01
  P =   4.350675E+01  1.400614E+01 -9.966171E+00
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            2286692505.0,         4134998199.0,         2039489375.0,
            2133112660.0,         2120463776.0,          417067873.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.857981E+02
  P =  -3.727414E+02  1.982106E+02 -2.403667E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.281892E+02
  P =   7.746421E+01 -7.618367E+01  6.802796E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   4.683000E+01
  P =   4.359411E+01  1.394983E+01 -9.899748E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   3.391828E+02
  P =   2.516831E+02 -1.359768E+02  1.822385E+02
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  4.890198089E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.870751E+02
  P =  -3.736493E+02  1.987958E+02 -2.410570E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.661453E+02
  P =   3.301426E+02 -2.128020E+02  2.510232E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   4.677963E+01
  P =   4.350675E+01  1.400614E+01 -9.966171E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.870130E+02
  P =  -3.735304E+02  1.988341E+02 -2.410842E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.661952E+02
  P =   3.302564E+02 -2.127654E+02  2.509971E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   1.275347E+01
  P =   1.235827E+01  1.666857E+00 -2.673150E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   3.403841E+01
  P =   3.091577E+01  1.226437E+01 -7.239714E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.340029E+02
  P =  -9.044550E+01  7.424502E+01 -6.529986E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.648680E+02
  P =   3.291589E+02 -2.122786E+02  2.503885E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   4.671720E+01
  P =   4.340796E+01  1.405870E+01 -1.002990E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   3.544119E+02
  P =  -2.821214E+02  1.239749E+02 -1.750588E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.857981E+02
  P =  -3.727414E+02  1.982106E+02 -2.403667E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.281892E+02
  P =   7.746421E+01 -7.618367E+01  6.802796E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   4.683000E+01
  P =   4.359411E+01  1.394983E+01 -9.899748E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   3.391828E+02
  P =   2.516831E+02 -1.359768E+02  1.822385E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  0.00000E+00
 sqme_ref* =>  0.00000E+00
 event_index* => 8
 event_weight* =>  0.00000E+00
 event_weight_ref* =>  0.00000E+00
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-2| 4.8701295E+02;-3.7353045E+02, 1.9883413E+02,-2.4108424E+02| 0.0000000E+00| 3)
  4 prt(o:2| 4.6619517E+02; 3.3025641E+02,-2.1276535E+02, 2.5099711E+02| 0.0000000E+00| 4)
  5 prt(o:-2| 1.2753469E+01; 1.2358270E+01, 1.6668573E+00,-2.6731503E+00| 0.0000000E+00| 5)
  6 prt(o:2| 3.4038406E+01; 3.0915771E+01, 1.2264367E+01,-7.2397142E+00| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #8
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  0.00000E+00
    Squared matrix el. (prc) =  0.00000E+00
    Event weight (ref)       =  0.00000E+00
    Event weight (prc)       =  0.00000E+00
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
             265363073.0,         2498283046.0,          987287394.0,
            1610688028.0,         4034146020.0,         3552764251.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.870751E+02
  P =  -3.736493E+02  1.987958E+02 -2.410570E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   4.661453E+02
  P =   3.301426E+02 -2.128020E+02  2.510232E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   4.677963E+01
  P =   4.350675E+01  1.400614E+01 -9.966171E+00
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            2286692505.0,         4134998199.0,         2039489375.0,
            2133112660.0,         2120463776.0,          417067873.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.857981E+02
  P =  -3.727414E+02  1.982106E+02 -2.403667E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.281892E+02
  P =   7.746421E+01 -7.618367E+01  6.802796E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   4.683000E+01
  P =   4.359411E+01  1.394983E+01 -9.899748E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   3.391828E+02
  P =   2.516831E+02 -1.359768E+02  1.822385E+02
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  4.890198089E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.870751E+02
  P =  -3.736493E+02  1.987958E+02 -2.410570E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.661453E+02
  P =   3.301426E+02 -2.128020E+02  2.510232E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   4.677963E+01
  P =   4.350675E+01  1.400614E+01 -9.966171E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.870130E+02
  P =  -3.735304E+02  1.988341E+02 -2.410842E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.661952E+02
  P =   3.302564E+02 -2.127654E+02  2.509971E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   1.275347E+01
  P =   1.235827E+01  1.666857E+00 -2.673150E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   3.403841E+01
  P =   3.091577E+01  1.226437E+01 -7.239714E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.340029E+02
  P =  -9.044550E+01  7.424502E+01 -6.529986E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.648680E+02
  P =   3.291589E+02 -2.122786E+02  2.503885E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   4.671720E+01
  P =   4.340796E+01  1.405870E+01 -1.002990E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   3.544119E+02
  P =  -2.821214E+02  1.239749E+02 -1.750588E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.857981E+02
  P =  -3.727414E+02  1.982106E+02 -2.403667E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.281892E+02
  P =   7.746421E+01 -7.618367E+01  6.802796E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   4.683000E+01
  P =   4.359411E+01  1.394983E+01 -9.899748E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   3.391828E+02
  P =   2.516831E+02 -1.359768E+02  1.822385E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  0.00000E+00
 sqme_ref* =>  0.00000E+00
 event_index* => 8
 event_weight* =>  0.00000E+00
 event_weight_ref* =>  0.00000E+00
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-2| 1.3400292E+02;-9.0445497E+01, 7.4245022E+01,-6.5299856E+01| 0.0000000E+00| 3)
  4 prt(o:2| 4.6486795E+02; 3.2915889E+02,-2.1227862E+02, 2.5038855E+02| 0.0000000E+00| 4)
  5 prt(o:-2| 4.6717201E+01; 4.3407959E+01, 1.4058700E+01,-1.0029904E+01| 0.0000000E+00| 5)
  6 prt(o:2| 3.5441193E+02;-2.8212136E+02, 1.2397490E+02,-1.7505879E+02| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #8
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  0.00000E+00
    Squared matrix el. (prc) =  0.00000E+00
    Event weight (ref)       =  0.00000E+00
    Event weight (prc)       =  0.00000E+00
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
             265363073.0,         2498283046.0,          987287394.0,
            1610688028.0,         4034146020.0,         3552764251.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.870751E+02
  P =  -3.736493E+02  1.987958E+02 -2.410570E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   4.661453E+02
  P =   3.301426E+02 -2.128020E+02  2.510232E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   4.677963E+01
  P =   4.350675E+01  1.400614E+01 -9.966171E+00
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            2286692505.0,         4134998199.0,         2039489375.0,
            2133112660.0,         2120463776.0,          417067873.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.857981E+02
  P =  -3.727414E+02  1.982106E+02 -2.403667E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.281892E+02
  P =   7.746421E+01 -7.618367E+01  6.802796E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   4.683000E+01
  P =   4.359411E+01  1.394983E+01 -9.899748E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   3.391828E+02
  P =   2.516831E+02 -1.359768E+02  1.822385E+02
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  4.890198089E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.870751E+02
  P =  -3.736493E+02  1.987958E+02 -2.410570E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.661453E+02
  P =   3.301426E+02 -2.128020E+02  2.510232E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   4.677963E+01
  P =   4.350675E+01  1.400614E+01 -9.966171E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.870130E+02
  P =  -3.735304E+02  1.988341E+02 -2.410842E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.661952E+02
  P =   3.302564E+02 -2.127654E+02  2.509971E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   1.275347E+01
  P =   1.235827E+01  1.666857E+00 -2.673150E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   3.403841E+01
  P =   3.091577E+01  1.226437E+01 -7.239714E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.340029E+02
  P =  -9.044550E+01  7.424502E+01 -6.529986E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.648680E+02
  P =   3.291589E+02 -2.122786E+02  2.503885E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   4.671720E+01
  P =   4.340796E+01  1.405870E+01 -1.002990E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   3.544119E+02
  P =  -2.821214E+02  1.239749E+02 -1.750588E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.857981E+02
  P =  -3.727414E+02  1.982106E+02 -2.403667E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.281892E+02
  P =   7.746421E+01 -7.618367E+01  6.802796E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   4.683000E+01
  P =   4.359411E+01  1.394983E+01 -9.899748E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   3.391828E+02
  P =   2.516831E+02 -1.359768E+02  1.822385E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  0.00000E+00
 sqme_ref* =>  0.00000E+00
 event_index* => 8
 event_weight* =>  0.00000E+00
 event_weight_ref* =>  0.00000E+00
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-2| 4.8579809E+02;-3.7274144E+02, 1.9821063E+02,-2.4036668E+02| 0.0000000E+00| 3)
  4 prt(o:2| 1.2818915E+02; 7.7464211E+01,-7.6183668E+01, 6.8027961E+01| 0.0000000E+00| 4)
  5 prt(o:-2| 4.6830000E+01; 4.3594106E+01, 1.3949831E+01,-9.8997483E+00| 0.0000000E+00| 5)
  6 prt(o:2| 3.3918276E+02; 2.5168313E+02,-1.3597680E+02, 1.8223847E+02| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #9
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  1.04106E-05
    Squared matrix el. (prc) =  8.63202E-07
    Event weight (ref)       =  7.89829E+01
    Event weight (prc)       =  6.54895E+00
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3788034272.0,         3633530561.0,          205946851.0,
            3071111705.0,         3622279560.0,         2218066770.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.393114E+02
  P =  -1.177910E+02 -3.816695E+02 -1.828884E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.679230E+02
  P =   2.249316E+00  2.526218E+02  2.674780E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.927656E+02
  P =   1.155417E+02  1.290476E+02 -8.458965E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
             593630244.0,         2352310477.0,          331428453.0,
            2567512357.0,         1557825531.0,          961477674.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   3.984514E+02
  P =  -1.175103E+02 -3.501451E+02 -1.495101E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.811992E+02
  P =  -9.428742E+01  1.300805E+02  2.307854E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.969851E+02
  P =   1.156723E+02  1.437136E+02 -6.906113E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.233643E+02
  P =   9.612546E+01  7.635090E+01 -1.221421E+01
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  1.961097327E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   4.393114E+02
  P =  -1.177910E+02 -3.816695E+02 -1.828884E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.679230E+02
  P =   2.249316E+00  2.526218E+02  2.674780E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.927656E+02
  P =   1.155417E+02  1.290476E+02 -8.458965E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.264440E+02
  P =  -1.035206E+02 -3.657310E+02 -1.933359E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.714022E+02
  P =   1.443574E+01  2.662328E+02  2.585562E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.375197E+02
  P =   4.718564E+01  1.268620E+02 -2.431489E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   6.463416E+01
  P =   4.189927E+01 -2.736380E+01 -4.090536E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   3.458133E+02
  P =   1.485231E+01 -3.399500E+02 -6.164615E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   3.268412E+02
  P =  -1.016274E+01  2.124040E+02  2.482064E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.800447E+02
  P =   1.088814E+02  1.074667E+02 -9.493078E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.473008E+02
  P =  -1.135710E+02  2.007927E+01 -9.162951E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   3.984514E+02
  P =  -1.175103E+02 -3.501451E+02 -1.495101E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.811992E+02
  P =  -9.428742E+01  1.300805E+02  2.307854E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.969851E+02
  P =   1.156723E+02  1.437136E+02 -6.906113E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.233643E+02
  P =   9.612546E+01  7.635090E+01 -1.221421E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 3
 n_tot* => 5
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  8.63202E-07
 sqme_ref* =>  1.04106E-05
 event_index* => 9
 event_weight* =>  6.54895E+00
 event_weight_ref* =>  7.89829E+01
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-1| 4.3931136E+02;-1.1779104E+02,-3.8166947E+02,-1.8288838E+02| 0.0000000E+00| 3)
  4 prt(o:1| 3.6792302E+02; 2.2493160E+00, 2.5262185E+02, 2.6747802E+02| 0.0000000E+00| 4)
  5 prt(o:21| 1.9276562E+02; 1.1554172E+02, 1.2904762E+02,-8.4589646E+01| 0.0000000E+00| 5)
 ========================================================================
 ========================================================================
  Event #9
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  1.04106E-05
    Squared matrix el. (prc) =  6.58562E-06
    Event weight (ref)       =  7.89829E+01
    Event weight (prc)       =  4.99638E+01
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3788034272.0,         3633530561.0,          205946851.0,
            3071111705.0,         3622279560.0,         2218066770.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.393114E+02
  P =  -1.177910E+02 -3.816695E+02 -1.828884E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.679230E+02
  P =   2.249316E+00  2.526218E+02  2.674780E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.927656E+02
  P =   1.155417E+02  1.290476E+02 -8.458965E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
             593630244.0,         2352310477.0,          331428453.0,
            2567512357.0,         1557825531.0,          961477674.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   3.984514E+02
  P =  -1.175103E+02 -3.501451E+02 -1.495101E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.811992E+02
  P =  -9.428742E+01  1.300805E+02  2.307854E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.969851E+02
  P =   1.156723E+02  1.437136E+02 -6.906113E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.233643E+02
  P =   9.612546E+01  7.635090E+01 -1.221421E+01
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  1.961097327E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   4.393114E+02
  P =  -1.177910E+02 -3.816695E+02 -1.828884E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.679230E+02
  P =   2.249316E+00  2.526218E+02  2.674780E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.927656E+02
  P =   1.155417E+02  1.290476E+02 -8.458965E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.264440E+02
  P =  -1.035206E+02 -3.657310E+02 -1.933359E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.714022E+02
  P =   1.443574E+01  2.662328E+02  2.585562E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.375197E+02
  P =   4.718564E+01  1.268620E+02 -2.431489E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   6.463416E+01
  P =   4.189927E+01 -2.736380E+01 -4.090536E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   3.458133E+02
  P =   1.485231E+01 -3.399500E+02 -6.164615E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   3.268412E+02
  P =  -1.016274E+01  2.124040E+02  2.482064E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.800447E+02
  P =   1.088814E+02  1.074667E+02 -9.493078E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.473008E+02
  P =  -1.135710E+02  2.007927E+01 -9.162951E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   3.984514E+02
  P =  -1.175103E+02 -3.501451E+02 -1.495101E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.811992E+02
  P =  -9.428742E+01  1.300805E+02  2.307854E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.969851E+02
  P =   1.156723E+02  1.437136E+02 -6.906113E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.233643E+02
  P =   9.612546E+01  7.635090E+01 -1.221421E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  6.58562E-06
 sqme_ref* =>  1.04106E-05
 event_index* => 9
 event_weight* =>  4.99638E+01
 event_weight_ref* =>  7.89829E+01
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-2| 4.2644396E+02;-1.0352064E+02,-3.6573098E+02,-1.9333592E+02| 0.0000000E+00| 3)
  4 prt(o:2| 3.7140217E+02; 1.4435739E+01, 2.6623277E+02, 2.5855618E+02| 0.0000000E+00| 4)
  5 prt(o:21| 1.3751970E+02; 4.7185638E+01, 1.2686201E+02,-2.4314893E+01| 0.0000000E+00| 5)
  6 prt(o:21| 6.4634162E+01; 4.1899267E+01,-2.7363802E+01,-4.0905363E+01| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #9
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  1.04106E-05
    Squared matrix el. (prc) =  1.00064E-06
    Event weight (ref)       =  7.89829E+01
    Event weight (prc)       =  7.59165E+00
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3788034272.0,         3633530561.0,          205946851.0,
            3071111705.0,         3622279560.0,         2218066770.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.393114E+02
  P =  -1.177910E+02 -3.816695E+02 -1.828884E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.679230E+02
  P =   2.249316E+00  2.526218E+02  2.674780E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.927656E+02
  P =   1.155417E+02  1.290476E+02 -8.458965E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
             593630244.0,         2352310477.0,          331428453.0,
            2567512357.0,         1557825531.0,          961477674.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   3.984514E+02
  P =  -1.175103E+02 -3.501451E+02 -1.495101E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.811992E+02
  P =  -9.428742E+01  1.300805E+02  2.307854E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.969851E+02
  P =   1.156723E+02  1.437136E+02 -6.906113E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.233643E+02
  P =   9.612546E+01  7.635090E+01 -1.221421E+01
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  1.961097327E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   4.393114E+02
  P =  -1.177910E+02 -3.816695E+02 -1.828884E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.679230E+02
  P =   2.249316E+00  2.526218E+02  2.674780E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.927656E+02
  P =   1.155417E+02  1.290476E+02 -8.458965E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.264440E+02
  P =  -1.035206E+02 -3.657310E+02 -1.933359E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.714022E+02
  P =   1.443574E+01  2.662328E+02  2.585562E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.375197E+02
  P =   4.718564E+01  1.268620E+02 -2.431489E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   6.463416E+01
  P =   4.189927E+01 -2.736380E+01 -4.090536E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   3.458133E+02
  P =   1.485231E+01 -3.399500E+02 -6.164615E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   3.268412E+02
  P =  -1.016274E+01  2.124040E+02  2.482064E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.800447E+02
  P =   1.088814E+02  1.074667E+02 -9.493078E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.473008E+02
  P =  -1.135710E+02  2.007927E+01 -9.162951E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   3.984514E+02
  P =  -1.175103E+02 -3.501451E+02 -1.495101E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.811992E+02
  P =  -9.428742E+01  1.300805E+02  2.307854E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.969851E+02
  P =   1.156723E+02  1.437136E+02 -6.906113E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.233643E+02
  P =   9.612546E+01  7.635090E+01 -1.221421E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  1.00064E-06
 sqme_ref* =>  1.04106E-05
 event_index* => 9
 event_weight* =>  7.59165E+00
 event_weight_ref* =>  7.89829E+01
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-3| 3.4581329E+02; 1.4852312E+01,-3.3994999E+02,-6.1646148E+01| 0.0000000E+00| 3)
  4 prt(o:3| 3.2684120E+02;-1.0162739E+01, 2.1240400E+02, 2.4820643E+02| 0.0000000E+00| 4)
  5 prt(o:21| 1.8004475E+02; 1.0888141E+02, 1.0746672E+02,-9.4930778E+01| 0.0000000E+00| 5)
  6 prt(o:21| 1.4730075E+02;-1.1357099E+02, 2.0079268E+01,-9.1629505E+01| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #9
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  1.04106E-05
    Squared matrix el. (prc) =  1.96110E-06
    Event weight (ref)       =  7.89829E+01
    Event weight (prc)       =  1.48785E+01
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3788034272.0,         3633530561.0,          205946851.0,
            3071111705.0,         3622279560.0,         2218066770.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.393114E+02
  P =  -1.177910E+02 -3.816695E+02 -1.828884E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.679230E+02
  P =   2.249316E+00  2.526218E+02  2.674780E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.927656E+02
  P =   1.155417E+02  1.290476E+02 -8.458965E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
             593630244.0,         2352310477.0,          331428453.0,
            2567512357.0,         1557825531.0,          961477674.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   3.984514E+02
  P =  -1.175103E+02 -3.501451E+02 -1.495101E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.811992E+02
  P =  -9.428742E+01  1.300805E+02  2.307854E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.969851E+02
  P =   1.156723E+02  1.437136E+02 -6.906113E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.233643E+02
  P =   9.612546E+01  7.635090E+01 -1.221421E+01
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  1.961097327E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   4.393114E+02
  P =  -1.177910E+02 -3.816695E+02 -1.828884E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.679230E+02
  P =   2.249316E+00  2.526218E+02  2.674780E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.927656E+02
  P =   1.155417E+02  1.290476E+02 -8.458965E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.264440E+02
  P =  -1.035206E+02 -3.657310E+02 -1.933359E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.714022E+02
  P =   1.443574E+01  2.662328E+02  2.585562E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.375197E+02
  P =   4.718564E+01  1.268620E+02 -2.431489E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   6.463416E+01
  P =   4.189927E+01 -2.736380E+01 -4.090536E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   3.458133E+02
  P =   1.485231E+01 -3.399500E+02 -6.164615E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   3.268412E+02
  P =  -1.016274E+01  2.124040E+02  2.482064E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.800447E+02
  P =   1.088814E+02  1.074667E+02 -9.493078E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.473008E+02
  P =  -1.135710E+02  2.007927E+01 -9.162951E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   3.984514E+02
  P =  -1.175103E+02 -3.501451E+02 -1.495101E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.811992E+02
  P =  -9.428742E+01  1.300805E+02  2.307854E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.969851E+02
  P =   1.156723E+02  1.437136E+02 -6.906113E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.233643E+02
  P =   9.612546E+01  7.635090E+01 -1.221421E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  1.96110E-06
 sqme_ref* =>  1.04106E-05
 event_index* => 9
 event_weight* =>  1.48785E+01
 event_weight_ref* =>  7.89829E+01
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-3| 3.9845140E+02;-1.1751035E+02,-3.5014507E+02,-1.4951010E+02| 0.0000000E+00| 3)
  4 prt(o:3| 2.8119918E+02;-9.4287416E+01, 1.3008052E+02, 2.3078544E+02| 0.0000000E+00| 4)
  5 prt(o:21| 1.9698511E+02; 1.1567230E+02, 1.4371365E+02,-6.9061134E+01| 0.0000000E+00| 5)
  6 prt(o:21| 1.2336430E+02; 9.6125458E+01, 7.6350903E+01,-1.2214212E+01| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #10
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  5.23049E-06
    Squared matrix el. (prc) =  0.00000E+00
    Event weight (ref)       =  6.51320E-01
    Event weight (prc)       =  0.00000E+00
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3430917671.0,         2920101317.0,         3284936197.0,
            1240801204.0,         2700418016.0,          622190086.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.808477E+02
  P =   7.201853E+01 -3.867396E+02 -2.765146E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.861878E+02
  P =  -1.049511E+02  3.854312E+02  2.771401E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.296446E+01
  P =   3.293255E+01  1.308376E+00 -6.254124E-01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            1519245727.0,         1936352122.0,         2549247759.0,
             415345958.0,         3249397019.0,         3432810946.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.626320E+02
  P =   4.642301E+01 -2.927405E+02 -2.089256E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.004325E+02
  P =  -1.328601E+02  3.765141E+02  3.052001E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.244982E+01
  P =   3.094754E+01  8.598280E+00  4.616312E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.044857E+02
  P =   5.548959E+01 -9.237195E+01  1.737893E+02
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  1.877537933E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.808477E+02
  P =   7.201853E+01 -3.867396E+02 -2.765146E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.861878E+02
  P =  -1.049511E+02  3.854312E+02  2.771401E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.296446E+01
  P =   3.293255E+01  1.308376E+00 -6.254124E-01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.818528E+02
  P =   7.939363E+01 -3.864466E+02 -2.766547E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.847908E+02
  P =  -9.751256E+01  3.857268E+02  2.769988E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   1.949180E+01
  P =   1.390382E+01  2.463073E+00 -1.343679E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   1.386452E+01
  P =   4.215115E+00 -1.743227E+00  1.309270E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.942094E+02
  P =   5.816200E+01 -1.542254E+02 -3.580961E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.680955E+02
  P =  -8.721085E+01  2.901662E+02  2.090266E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.545545E+01
  P =   3.435337E+01 -6.321442E+00 -6.080650E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.022397E+02
  P =  -5.304517E+00 -1.296194E+02  1.551501E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.626320E+02
  P =   4.642301E+01 -2.927405E+02 -2.089256E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.004325E+02
  P =  -1.328601E+02  3.765141E+02  3.052001E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.244982E+01
  P =   3.094754E+01  8.598280E+00  4.616312E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.044857E+02
  P =   5.548959E+01 -9.237195E+01  1.737893E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 3
 n_tot* => 5
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  0.00000E+00
 sqme_ref* =>  5.23049E-06
 event_index* => 10
 event_weight* =>  0.00000E+00
 event_weight_ref* =>  6.51320E-01
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-2| 4.8084774E+02; 7.2018531E+01,-3.8673961E+02,-2.7651464E+02| 0.0000000E+00| 3)
  4 prt(o:2| 4.8618780E+02;-1.0495108E+02, 3.8543124E+02, 2.7714006E+02| 0.0000000E+00| 4)
  5 prt(o:21| 3.2964459E+01; 3.2932546E+01, 1.3083757E+00,-6.2541239E-01| 0.0000000E+00| 5)
 ========================================================================
 ========================================================================
  Event #10
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  5.23049E-06
    Squared matrix el. (prc) =  1.01933E-04
    Event weight (ref)       =  6.51320E-01
    Event weight (prc)       =  0.00000E+00
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3430917671.0,         2920101317.0,         3284936197.0,
            1240801204.0,         2700418016.0,          622190086.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.808477E+02
  P =   7.201853E+01 -3.867396E+02 -2.765146E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.861878E+02
  P =  -1.049511E+02  3.854312E+02  2.771401E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.296446E+01
  P =   3.293255E+01  1.308376E+00 -6.254124E-01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            1519245727.0,         1936352122.0,         2549247759.0,
             415345958.0,         3249397019.0,         3432810946.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.626320E+02
  P =   4.642301E+01 -2.927405E+02 -2.089256E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.004325E+02
  P =  -1.328601E+02  3.765141E+02  3.052001E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.244982E+01
  P =   3.094754E+01  8.598280E+00  4.616312E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.044857E+02
  P =   5.548959E+01 -9.237195E+01  1.737893E+02
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  1.877537933E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.808477E+02
  P =   7.201853E+01 -3.867396E+02 -2.765146E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.861878E+02
  P =  -1.049511E+02  3.854312E+02  2.771401E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.296446E+01
  P =   3.293255E+01  1.308376E+00 -6.254124E-01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.818528E+02
  P =   7.939363E+01 -3.864466E+02 -2.766547E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.847908E+02
  P =  -9.751256E+01  3.857268E+02  2.769988E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   1.949180E+01
  P =   1.390382E+01  2.463073E+00 -1.343679E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   1.386452E+01
  P =   4.215115E+00 -1.743227E+00  1.309270E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.942094E+02
  P =   5.816200E+01 -1.542254E+02 -3.580961E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.680955E+02
  P =  -8.721085E+01  2.901662E+02  2.090266E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.545545E+01
  P =   3.435337E+01 -6.321442E+00 -6.080650E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.022397E+02
  P =  -5.304517E+00 -1.296194E+02  1.551501E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.626320E+02
  P =   4.642301E+01 -2.927405E+02 -2.089256E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.004325E+02
  P =  -1.328601E+02  3.765141E+02  3.052001E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.244982E+01
  P =   3.094754E+01  8.598280E+00  4.616312E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.044857E+02
  P =   5.548959E+01 -9.237195E+01  1.737893E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  1.01933E-04
 sqme_ref* =>  5.23049E-06
 event_index* => 10
 event_weight* =>  0.00000E+00
 event_weight_ref* =>  6.51320E-01
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-2| 4.8185284E+02; 7.9393630E+01,-3.8644661E+02,-2.7665470E+02| 0.0000000E+00| 3)
  4 prt(o:2| 4.8479085E+02;-9.7512561E+01, 3.8572676E+02, 2.7699879E+02| 0.0000000E+00| 4)
  5 prt(o:-2| 1.9491798E+01; 1.3903816E+01, 2.4630731E+00,-1.3436791E+01| 0.0000000E+00| 5)
  6 prt(o:2| 1.3864517E+01; 4.2151151E+00,-1.7432269E+00, 1.3092700E+01| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #10
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  5.23049E-06
    Squared matrix el. (prc) =  3.35295E-06
    Event weight (ref)       =  6.51320E-01
    Event weight (prc)       =  4.17522E-01
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3430917671.0,         2920101317.0,         3284936197.0,
            1240801204.0,         2700418016.0,          622190086.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.808477E+02
  P =   7.201853E+01 -3.867396E+02 -2.765146E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.861878E+02
  P =  -1.049511E+02  3.854312E+02  2.771401E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.296446E+01
  P =   3.293255E+01  1.308376E+00 -6.254124E-01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            1519245727.0,         1936352122.0,         2549247759.0,
             415345958.0,         3249397019.0,         3432810946.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.626320E+02
  P =   4.642301E+01 -2.927405E+02 -2.089256E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.004325E+02
  P =  -1.328601E+02  3.765141E+02  3.052001E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.244982E+01
  P =   3.094754E+01  8.598280E+00  4.616312E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.044857E+02
  P =   5.548959E+01 -9.237195E+01  1.737893E+02
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  1.877537933E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.808477E+02
  P =   7.201853E+01 -3.867396E+02 -2.765146E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.861878E+02
  P =  -1.049511E+02  3.854312E+02  2.771401E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.296446E+01
  P =   3.293255E+01  1.308376E+00 -6.254124E-01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.818528E+02
  P =   7.939363E+01 -3.864466E+02 -2.766547E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.847908E+02
  P =  -9.751256E+01  3.857268E+02  2.769988E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   1.949180E+01
  P =   1.390382E+01  2.463073E+00 -1.343679E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   1.386452E+01
  P =   4.215115E+00 -1.743227E+00  1.309270E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.942094E+02
  P =   5.816200E+01 -1.542254E+02 -3.580961E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.680955E+02
  P =  -8.721085E+01  2.901662E+02  2.090266E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.545545E+01
  P =   3.435337E+01 -6.321442E+00 -6.080650E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.022397E+02
  P =  -5.304517E+00 -1.296194E+02  1.551501E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.626320E+02
  P =   4.642301E+01 -2.927405E+02 -2.089256E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.004325E+02
  P =  -1.328601E+02  3.765141E+02  3.052001E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.244982E+01
  P =   3.094754E+01  8.598280E+00  4.616312E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.044857E+02
  P =   5.548959E+01 -9.237195E+01  1.737893E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  3.35295E-06
 sqme_ref* =>  5.23049E-06
 event_index* => 10
 event_weight* =>  4.17522E-01
 event_weight_ref* =>  6.51320E-01
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-2| 3.9420942E+02; 5.8161998E+01,-1.5422536E+02,-3.5809606E+02| 0.0000000E+00| 3)
  4 prt(o:2| 3.6809545E+02;-8.7210849E+01, 2.9016619E+02, 2.0902658E+02| 0.0000000E+00| 4)
  5 prt(o:21| 3.5455449E+01; 3.4353368E+01,-6.3214423E+00,-6.0806498E+00| 0.0000000E+00| 5)
  6 prt(o:21| 2.0223968E+02;-5.3045172E+00,-1.2961939E+02, 1.5515013E+02| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #10
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  5.23049E-06
    Squared matrix el. (prc) =  1.87754E-06
    Event weight (ref)       =  6.51320E-01
    Event weight (prc)       =  2.33798E-01
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3430917671.0,         2920101317.0,         3284936197.0,
            1240801204.0,         2700418016.0,          622190086.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.808477E+02
  P =   7.201853E+01 -3.867396E+02 -2.765146E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.861878E+02
  P =  -1.049511E+02  3.854312E+02  2.771401E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.296446E+01
  P =   3.293255E+01  1.308376E+00 -6.254124E-01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            1519245727.0,         1936352122.0,         2549247759.0,
             415345958.0,         3249397019.0,         3432810946.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.626320E+02
  P =   4.642301E+01 -2.927405E+02 -2.089256E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.004325E+02
  P =  -1.328601E+02  3.765141E+02  3.052001E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.244982E+01
  P =   3.094754E+01  8.598280E+00  4.616312E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.044857E+02
  P =   5.548959E+01 -9.237195E+01  1.737893E+02
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  1.877537933E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.808477E+02
  P =   7.201853E+01 -3.867396E+02 -2.765146E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.861878E+02
  P =  -1.049511E+02  3.854312E+02  2.771401E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.296446E+01
  P =   3.293255E+01  1.308376E+00 -6.254124E-01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.818528E+02
  P =   7.939363E+01 -3.864466E+02 -2.766547E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.847908E+02
  P =  -9.751256E+01  3.857268E+02  2.769988E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   1.949180E+01
  P =   1.390382E+01  2.463073E+00 -1.343679E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   1.386452E+01
  P =   4.215115E+00 -1.743227E+00  1.309270E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.942094E+02
  P =   5.816200E+01 -1.542254E+02 -3.580961E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.680955E+02
  P =  -8.721085E+01  2.901662E+02  2.090266E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.545545E+01
  P =   3.435337E+01 -6.321442E+00 -6.080650E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.022397E+02
  P =  -5.304517E+00 -1.296194E+02  1.551501E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.626320E+02
  P =   4.642301E+01 -2.927405E+02 -2.089256E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.004325E+02
  P =  -1.328601E+02  3.765141E+02  3.052001E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.244982E+01
  P =   3.094754E+01  8.598280E+00  4.616312E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.044857E+02
  P =   5.548959E+01 -9.237195E+01  1.737893E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  1.87754E-06
 sqme_ref* =>  5.23049E-06
 event_index* => 10
 event_weight* =>  2.33798E-01
 event_weight_ref* =>  6.51320E-01
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-2| 3.6263202E+02; 4.6423015E+01,-2.9274047E+02,-2.0892560E+02| 0.0000000E+00| 3)
  4 prt(o:2| 4.0043250E+02;-1.3286014E+02, 3.7651414E+02, 3.0520014E+01| 0.0000000E+00| 4)
  5 prt(o:21| 3.2449822E+01; 3.0947540E+01, 8.5982799E+00, 4.6163124E+00| 0.0000000E+00| 5)
  6 prt(o:21| 2.0448566E+02; 5.5489590E+01,-9.2371950E+01, 1.7378927E+02| 0.0000000E+00| 6)
 ========================================================================
Index: trunk/share/tests/functional_tests/ref-output-ext/openloops_12.ref
===================================================================
--- trunk/share/tests/functional_tests/ref-output-ext/openloops_12.ref	(revision 8818)
+++ trunk/share/tests/functional_tests/ref-output-ext/openloops_12.ref	(revision 8819)
@@ -1,11125 +1,11126 @@
 ?openmp_logging = false
 ?vis_history = false
 ?integration_timer = false
 ?pacify = true
 | Switching to model 'SM', scheme 'GF_MW_MZ'
 $blha_ew_scheme = "alpha_qed"
 SM.mZ =>  9.11880E+01
 SM.mW =>  8.04190E+01
 SM.mH =>  1.25000E+02
 SM.GF =>  1.16639E-05
 SM.wZ =>  0.00000E+00
 SM.wtop =>  0.00000E+00
 SM.wW =>  0.00000E+00
 SM.wH =>  0.00000E+00
 SM.ms =>  0.00000E+00
 SM.mc =>  0.00000E+00
 SM.mb =>  0.00000E+00
 SM.mtop =>  1.73200E+02
 SM.me =>  0.00000E+00
 SM.mmu =>  0.00000E+00
 SM.mtau =>  1.77700E+00
 SM.alphas =>  1.18000E-01
 ?alphas_is_fixed = false
 ?alphas_from_mz = true
 ?alphas_from_lambda_qcd = false
 alphas_nf = 5
 [user variable] jet = PDG(2, -2, 1, -1, 3, -3, 21)
 $exclude_gauge_splittings = "c:b:t"
 $method = "openloops"
 alpha_power = 2
 alphas_power = 1
+$openloops_allowed_libs = "ppllj"
 ?use_vamp_equivalences = false
 $integration_method = "vamp2"
 $rng_method = "rng_stream"
 openmp_num_threads = 1
 jet_algorithm = 2
 jet_r =  5.00000E-01
 seed = 99
 sqrts =  5.00000E+05
 | Process library 'openloops_12_lib': recorded process 'openloops_12_p1'
 | Integrate: current process library needs compilation
 | Process library 'openloops_12_lib': compiling ...
 | Process library 'openloops_12_lib': writing makefile
 | Process library 'openloops_12_lib': removing old files
 | Process library 'openloops_12_lib': writing driver
 | Process library 'openloops_12_lib': creating source code
 | Process library 'openloops_12_lib': compiling sources
 | Process library 'openloops_12_lib': linking
 | Process library 'openloops_12_lib': loading
 | Process library 'openloops_12_lib': ... success.
 | Integrate: compilation done
 | QCD alpha: using a running strong coupling
 | RNG: Initializing RNG Stream random-number generator
 | RNG: Setting seed for random-number generator to 99
 | Initializing integration for process openloops_12_p1:
 | Beam structure: [any particles]
 | Beam data (collision):
 |   e-  (mass = 0.0000000E+00 GeV)
 |   e+  (mass = 0.0000000E+00 GeV)
 |   sqrts = 5.000000000000E+05 GeV
 | Phase space: generating configuration ...
 Warning:  Intermediate decay of zero-width particle Z may be possible.
 | Phase space: ... success.
 | Phase space: writing configuration file 'openloops_12_p1.i1.phs'
 | Phase space: generating configuration ...
 | Phase space: ... success.
 | Phase space: writing configuration file 'openloops_12_p1.i3.phs'
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | ------------------------------------------------------------------------
 | Process [scattering]: 'openloops_12_p1'
 |   Library name  = 'openloops_12_lib'
 |   Process index = 1
 |   Process components:
 |     1: 'openloops_12_p1_i1':   e-, e+ => u:ubar:d:dbar:s:sbar:gl, u:ubar:d:dbar:s:sbar:gl, u:ubar:d:dbar:s:sbar:gl [inactive]
 |     2: 'openloops_12_p1_i2':   e-, e+ => d:dbar:u:ubar:s:sbar:gl, d:dbar:u:ubar:s:sbar:gl, d:dbar:u:ubar:s:sbar:gl, d:dbar:u:ubar:s:sbar:gl [openloops], [real]
 |     3: 'openloops_12_p1_i3':   e-, e+ => u:ubar:d:dbar:s:sbar:gl, u:ubar:d:dbar:s:sbar:gl, u:ubar:d:dbar:s:sbar:gl [inactive], [virtual]
 |     4: 'openloops_12_p1_i4':   e-, e+ => u:ubar:d:dbar:s:sbar:gl, u:ubar:d:dbar:s:sbar:gl, u:ubar:d:dbar:s:sbar:gl [inactive], [subtraction]
 | ------------------------------------------------------------------------
 | Phase space: 2 channels, 5 dimensions
 | Phase space: found 2 channels, collected in 1 grove.
 | Phase space: no equivalences between channels used.
 | Phase space: wood
 | Phase space: 2 channels, 8 dimensions
 | Phase space: found 2 channels, collected in 1 grove.
 | Phase space: no equivalences between channels used.
 | Phase space: wood
 | Phase space: 2 channels, 5 dimensions
 | Phase space: found 2 channels, collected in 1 grove.
 | Phase space: no equivalences between channels used.
 | Phase space: wood
 | Applying user-defined cuts.
 | Using user-defined general scale.
 | Starting integration for process 'openloops_12_p1' part 'real'
 | Integrate: iterations = 1:100:"gw"
 | Integrator: 1 chains, 2 channels, 8 dimensions
 | Integrator: Write grid header and grids to 'openloops_12_p1.m2.vg2'
 | Integrator: Grid checkpoint after each iteration
 | Integrator: 100 initial calls, 20 max. bins, stratified = T
 | Integrator: VAMP2
 |=============================================================================|
 | It      Calls  Integral[fb]  Error[fb]   Err[%]    Acc  Eff[%]   Chi2 N[It] |
 |=============================================================================|
 | VAMP2: Initialize new grids and write to file 'openloops_12_p1.m2.vg2'.
 | VAMP2: set chain: use chained weights.
    1        100     9.645E-04   4.01E-04   41.60    4.16     5.0
 |-----------------------------------------------------------------------------|
    1        100     9.645E-04   4.01E-04   41.60    4.16     5.0
 |=============================================================================|
 | Integrate: sum of all components
 |=============================================================================|
 | It      Calls  Integral[fb]  Error[fb]   Err[%]    Acc  Eff[%]   Chi2 N[It] |
 |=============================================================================|
    1          0     9.645E-04   4.01E-04   41.60    0.00     5.0
 |=============================================================================|
 n_events = 10
 $sample_normalization = "sigma"
 ?unweighted = false
 ?negative_weights = true
 ?keep_failed_events = true
 ?fixed_order_nlo_events = true
 ?debug_decay = false
 ?debug_process = false
 ?debug_verbose = false
 ?sample_pacify = true
 ?write_raw = false
 | Starting simulation for process 'openloops_12_p1'
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | Simulate: activating fixed-order NLO events
 | QCD alpha: using a running strong coupling
 | RNG: Initializing RNG Stream random-number generator
 | RNG: Setting seed for random-number generator to 100
 | Events: writing to ASCII file 'openloops_12_p1.debug'
 | Events: generating 40 weighted, unpolarized NLO events ...
 | Events: event normalization mode 'sigma'
 |         ... event sample complete.
 | Events: closing ASCII file 'openloops_12_p1.debug'
 | There were no errors and    1 warning(s).
 | WHIZARD run finished.
 |=============================================================================|
 Total number of regions:    18
  alr ||                 flst_real || i_real ||  em || mul || nreg ||                         ftuples ||             flst_born ||  i_born || corr
    1 || [ 11,-11, -2,  2, -2,  2] ||      1 ||   5 ||   4 ||    4 || {(3,4),(3,6),(4,5),(5,6)} || [ 11,-11, -2,  2, 21] ||       1 ||  qcd
    2 || [ 11,-11, -2,  2, 21, 21] ||      2 ||   3 ||   2 ||    5 || {(3,5),(3,6),(4,5),(4,6),(5,6)} || [ 11,-11, -2,  2, 21] ||       1 ||  qcd
    3 || [ 11,-11, -2,  2, 21, 21] ||      2 ||   4 ||   2 ||    5 || {(3,5),(3,6),(4,5),(4,6),(5,6)} || [ 11,-11, -2,  2, 21] ||       1 ||  qcd
    4 || [ 11,-11, -2,  2, 21, 21] ||      2 ||   5 ||   1 ||    5 || {(3,5),(3,6),(4,5),(4,6),(5,6)} || [ 11,-11, -2,  2, 21] ||       1 ||  qcd
    5 || [ 11,-11, -2,  2, -3,  3] ||      3 ||   5 ||   1 ||    2 ||         {(3,4),(5,6)} || [ 11,-11, -2,  2, 21] ||       1 ||  qcd
    6 || [ 11,-11, -3,  3, -2,  2] ||      4 ||   5 ||   1 ||    2 ||         {(3,4),(5,6)} || [ 11,-11, -3,  3, 21] ||       2 ||  qcd
    7 || [ 11,-11, -2,  2, -1,  1] ||      5 ||   5 ||   1 ||    2 ||         {(3,4),(5,6)} || [ 11,-11, -2,  2, 21] ||       1 ||  qcd
    8 || [ 11,-11, -1,  1, -2,  2] ||      6 ||   5 ||   1 ||    2 ||         {(3,4),(5,6)} || [ 11,-11, -1,  1, 21] ||       3 ||  qcd
    9 || [ 11,-11, -3,  3, -3,  3] ||      7 ||   5 ||   4 ||    4 || {(3,4),(3,6),(4,5),(5,6)} || [ 11,-11, -3,  3, 21] ||       2 ||  qcd
   10 || [ 11,-11, -3,  3, -1,  1] ||      8 ||   5 ||   1 ||    2 ||         {(3,4),(5,6)} || [ 11,-11, -3,  3, 21] ||       2 ||  qcd
   11 || [ 11,-11, -1,  1, -3,  3] ||      9 ||   5 ||   1 ||    2 ||         {(3,4),(5,6)} || [ 11,-11, -1,  1, 21] ||       3 ||  qcd
   12 || [ 11,-11, -3,  3, 21, 21] ||     10 ||   3 ||   2 ||    5 || {(3,5),(3,6),(4,5),(4,6),(5,6)} || [ 11,-11, -3,  3, 21] ||       2 ||  qcd
   13 || [ 11,-11, -3,  3, 21, 21] ||     10 ||   4 ||   2 ||    5 || {(3,5),(3,6),(4,5),(4,6),(5,6)} || [ 11,-11, -3,  3, 21] ||       2 ||  qcd
   14 || [ 11,-11, -3,  3, 21, 21] ||     10 ||   5 ||   1 ||    5 || {(3,5),(3,6),(4,5),(4,6),(5,6)} || [ 11,-11, -3,  3, 21] ||       2 ||  qcd
   15 || [ 11,-11, -1,  1, -1,  1] ||     11 ||   5 ||   4 ||    4 || {(3,4),(3,6),(4,5),(5,6)} || [ 11,-11, -1,  1, 21] ||       3 ||  qcd
   16 || [ 11,-11, -1,  1, 21, 21] ||     12 ||   3 ||   2 ||    5 || {(3,5),(3,6),(4,5),(4,6),(5,6)} || [ 11,-11, -1,  1, 21] ||       3 ||  qcd
   17 || [ 11,-11, -1,  1, 21, 21] ||     12 ||   4 ||   2 ||    5 || {(3,5),(3,6),(4,5),(4,6),(5,6)} || [ 11,-11, -1,  1, 21] ||       3 ||  qcd
   18 || [ 11,-11, -1,  1, 21, 21] ||     12 ||   5 ||   1 ||    5 || {(3,5),(3,6),(4,5),(4,6),(5,6)} || [ 11,-11, -1,  1, 21] ||       3 ||  qcd
 ------------------------------------------------------------------------
 Contents of openloops_12_p1.debug:
 ========================================================================
  Event #1
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  3.89241E-10
    Squared matrix el. (prc) = -2.49037E-07
    Event weight (ref)       =  1.60826E-08
    Event weight (prc)       =  0.00000E+00
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            3913894726.0,         1013504363.0,         4004029631.0,
            3745048320.0,         2602019895.0,         3943078012.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   2.499915E+05
  P =   4.862173E+04 -4.973561E+04 -2.401209E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.370804E+05
  P =  -4.571149E+04  4.767555E+04  2.276941E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.292817E+04
  P =  -2.910240E+03  2.060060E+03  1.242676E+04
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
             691625295.0,         3378437961.0,         1571131719.0,
             108026903.0,         3340318134.0,         3620710479.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.629667E+05
  P =   3.184238E+04 -3.223531E+04 -1.565410E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.633022E+05
  P =  -1.040587E+05  1.195116E+05  3.945081E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.982397E+04
  P =  -4.241028E+03  3.448027E+03  1.905556E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.539072E+05
  P =   7.645734E+04 -9.072433E+04  9.803463E+04
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  2.141170135E-12
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499915E+05
  P =   4.862173E+04 -4.973561E+04 -2.401209E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.370804E+05
  P =  -4.571149E+04  4.767555E+04  2.276941E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.292817E+04
  P =  -2.910240E+03  2.060060E+03  1.242676E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.468486E+05
  P =   4.791335E+04 -4.923417E+04 -2.370961E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.400985E+05
  P =  -4.639184E+04  4.815715E+04  2.305992E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   4.660191E+03
  P =  -3.451326E+03  2.749984E+03 -1.497770E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   8.392675E+03
  P =   1.929819E+03 -1.672961E+03  7.994623E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   1.817300E+05
  P =  -8.851315E+04  7.882993E+04 -1.377572E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   1.479079E+05
  P =  -2.836791E+04  2.993464E+04  1.420419E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   8.073434E+03
  P =  -1.964125E+03  1.092270E+03  7.754321E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.622888E+05
  P =   1.188452E+05 -1.098568E+05 -1.203907E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.629667E+05
  P =   3.184238E+04 -3.223531E+04 -1.565410E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.633022E+05
  P =  -1.040587E+05  1.195116E+05  3.945081E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.982397E+04
  P =  -4.241028E+03  3.448027E+03  1.905556E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.539072E+05
  P =   7.645734E+04 -9.072433E+04  9.803463E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 3
 n_tot* => 5
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* => -2.49037E-07
 sqme_ref* =>  3.89241E-10
 event_index* => 1
 event_weight* =>  0.00000E+00
 event_weight_ref* =>  1.60826E-08
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-2| 2.4999146E+05; 4.8621734E+04,-4.9735609E+04,-2.4012086E+05| 0.0000000E+00| 3)
  4 prt(o:2| 2.3708037E+05;-4.5711494E+04, 4.7675549E+04, 2.2769410E+05| 0.0000000E+00| 4)
  5 prt(o:21| 1.2928173E+04;-2.9102400E+03, 2.0600599E+03, 1.2426758E+04| 0.0000000E+00| 5)
 ========================================================================
 ========================================================================
  Event #1
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  3.89241E-10
    Squared matrix el. (prc) =  3.85037E-10
    Event weight (ref)       =  1.60826E-08
    Event weight (prc)       =  1.59089E-08
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            3913894726.0,         1013504363.0,         4004029631.0,
            3745048320.0,         2602019895.0,         3943078012.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   2.499915E+05
  P =   4.862173E+04 -4.973561E+04 -2.401209E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.370804E+05
  P =  -4.571149E+04  4.767555E+04  2.276941E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.292817E+04
  P =  -2.910240E+03  2.060060E+03  1.242676E+04
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
             691625295.0,         3378437961.0,         1571131719.0,
             108026903.0,         3340318134.0,         3620710479.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.629667E+05
  P =   3.184238E+04 -3.223531E+04 -1.565410E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.633022E+05
  P =  -1.040587E+05  1.195116E+05  3.945081E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.982397E+04
  P =  -4.241028E+03  3.448027E+03  1.905556E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.539072E+05
  P =   7.645734E+04 -9.072433E+04  9.803463E+04
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  2.141170135E-12
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499915E+05
  P =   4.862173E+04 -4.973561E+04 -2.401209E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.370804E+05
  P =  -4.571149E+04  4.767555E+04  2.276941E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.292817E+04
  P =  -2.910240E+03  2.060060E+03  1.242676E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.468486E+05
  P =   4.791335E+04 -4.923417E+04 -2.370961E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.400985E+05
  P =  -4.639184E+04  4.815715E+04  2.305992E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   4.660191E+03
  P =  -3.451326E+03  2.749984E+03 -1.497770E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   8.392675E+03
  P =   1.929819E+03 -1.672961E+03  7.994623E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   1.817300E+05
  P =  -8.851315E+04  7.882993E+04 -1.377572E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   1.479079E+05
  P =  -2.836791E+04  2.993464E+04  1.420419E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   8.073434E+03
  P =  -1.964125E+03  1.092270E+03  7.754321E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.622888E+05
  P =   1.188452E+05 -1.098568E+05 -1.203907E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.629667E+05
  P =   3.184238E+04 -3.223531E+04 -1.565410E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.633022E+05
  P =  -1.040587E+05  1.195116E+05  3.945081E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.982397E+04
  P =  -4.241028E+03  3.448027E+03  1.905556E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.539072E+05
  P =   7.645734E+04 -9.072433E+04  9.803463E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  3.85037E-10
 sqme_ref* =>  3.89241E-10
 event_index* => 1
 event_weight* =>  1.59089E-08
 event_weight_ref* =>  1.60826E-08
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-1| 2.4684860E+05; 4.7913352E+04,-4.9234169E+04,-2.3709605E+05| 0.0000000E+00| 3)
  4 prt(o:1| 2.4009853E+05;-4.6391844E+04, 4.8157146E+04, 2.3059920E+05| 0.0000000E+00| 4)
  5 prt(o:21| 4.6601911E+03;-3.4513264E+03, 2.7499842E+03,-1.4977696E+03| 0.0000000E+00| 5)
  6 prt(o:21| 8.3926755E+03; 1.9298191E+03,-1.6729609E+03, 7.9946233E+03| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #1
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  3.89241E-10
    Squared matrix el. (prc) =  2.06251E-12
    Event weight (ref)       =  1.60826E-08
    Event weight (prc)       =  8.52183E-11
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            3913894726.0,         1013504363.0,         4004029631.0,
            3745048320.0,         2602019895.0,         3943078012.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   2.499915E+05
  P =   4.862173E+04 -4.973561E+04 -2.401209E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.370804E+05
  P =  -4.571149E+04  4.767555E+04  2.276941E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.292817E+04
  P =  -2.910240E+03  2.060060E+03  1.242676E+04
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
             691625295.0,         3378437961.0,         1571131719.0,
             108026903.0,         3340318134.0,         3620710479.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.629667E+05
  P =   3.184238E+04 -3.223531E+04 -1.565410E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.633022E+05
  P =  -1.040587E+05  1.195116E+05  3.945081E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.982397E+04
  P =  -4.241028E+03  3.448027E+03  1.905556E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.539072E+05
  P =   7.645734E+04 -9.072433E+04  9.803463E+04
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  2.141170135E-12
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499915E+05
  P =   4.862173E+04 -4.973561E+04 -2.401209E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.370804E+05
  P =  -4.571149E+04  4.767555E+04  2.276941E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.292817E+04
  P =  -2.910240E+03  2.060060E+03  1.242676E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.468486E+05
  P =   4.791335E+04 -4.923417E+04 -2.370961E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.400985E+05
  P =  -4.639184E+04  4.815715E+04  2.305992E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   4.660191E+03
  P =  -3.451326E+03  2.749984E+03 -1.497770E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   8.392675E+03
  P =   1.929819E+03 -1.672961E+03  7.994623E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   1.817300E+05
  P =  -8.851315E+04  7.882993E+04 -1.377572E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   1.479079E+05
  P =  -2.836791E+04  2.993464E+04  1.420419E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   8.073434E+03
  P =  -1.964125E+03  1.092270E+03  7.754321E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.622888E+05
  P =   1.188452E+05 -1.098568E+05 -1.203907E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.629667E+05
  P =   3.184238E+04 -3.223531E+04 -1.565410E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.633022E+05
  P =  -1.040587E+05  1.195116E+05  3.945081E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.982397E+04
  P =  -4.241028E+03  3.448027E+03  1.905556E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.539072E+05
  P =   7.645734E+04 -9.072433E+04  9.803463E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  2.06251E-12
 sqme_ref* =>  3.89241E-10
 event_index* => 1
 event_weight* =>  8.52183E-11
 event_weight_ref* =>  1.60826E-08
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-1| 1.8172996E+05;-8.8513148E+04, 7.8829927E+04,-1.3775719E+05| 0.0000000E+00| 3)
  4 prt(o:1| 1.4790785E+05;-2.8367908E+04, 2.9934639E+04, 1.4204194E+05| 0.0000000E+00| 4)
  5 prt(o:21| 8.0734344E+03;-1.9641249E+03, 1.0922702E+03, 7.7543215E+03| 0.0000000E+00| 5)
  6 prt(o:21| 1.6228876E+05; 1.1884518E+05,-1.0985684E+05,-1.2039071E+04| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #1
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  3.89241E-10
    Squared matrix el. (prc) =  2.14117E-12
    Event weight (ref)       =  1.60826E-08
    Event weight (prc)       =  8.84686E-11
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            3913894726.0,         1013504363.0,         4004029631.0,
            3745048320.0,         2602019895.0,         3943078012.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   2.499915E+05
  P =   4.862173E+04 -4.973561E+04 -2.401209E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.370804E+05
  P =  -4.571149E+04  4.767555E+04  2.276941E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.292817E+04
  P =  -2.910240E+03  2.060060E+03  1.242676E+04
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
             691625295.0,         3378437961.0,         1571131719.0,
             108026903.0,         3340318134.0,         3620710479.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.629667E+05
  P =   3.184238E+04 -3.223531E+04 -1.565410E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.633022E+05
  P =  -1.040587E+05  1.195116E+05  3.945081E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.982397E+04
  P =  -4.241028E+03  3.448027E+03  1.905556E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.539072E+05
  P =   7.645734E+04 -9.072433E+04  9.803463E+04
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  2.141170135E-12
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499915E+05
  P =   4.862173E+04 -4.973561E+04 -2.401209E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.370804E+05
  P =  -4.571149E+04  4.767555E+04  2.276941E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.292817E+04
  P =  -2.910240E+03  2.060060E+03  1.242676E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.468486E+05
  P =   4.791335E+04 -4.923417E+04 -2.370961E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.400985E+05
  P =  -4.639184E+04  4.815715E+04  2.305992E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   4.660191E+03
  P =  -3.451326E+03  2.749984E+03 -1.497770E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   8.392675E+03
  P =   1.929819E+03 -1.672961E+03  7.994623E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   1.817300E+05
  P =  -8.851315E+04  7.882993E+04 -1.377572E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   1.479079E+05
  P =  -2.836791E+04  2.993464E+04  1.420419E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   8.073434E+03
  P =  -1.964125E+03  1.092270E+03  7.754321E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.622888E+05
  P =   1.188452E+05 -1.098568E+05 -1.203907E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.629667E+05
  P =   3.184238E+04 -3.223531E+04 -1.565410E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.633022E+05
  P =  -1.040587E+05  1.195116E+05  3.945081E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.982397E+04
  P =  -4.241028E+03  3.448027E+03  1.905556E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.539072E+05
  P =   7.645734E+04 -9.072433E+04  9.803463E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  2.14117E-12
 sqme_ref* =>  3.89241E-10
 event_index* => 1
 event_weight* =>  8.84686E-11
 event_weight_ref* =>  1.60826E-08
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-2| 1.6296668E+05; 3.1842380E+04,-3.2235307E+04,-1.5654100E+05| 0.0000000E+00| 3)
  4 prt(o:2| 1.6330218E+05;-1.0405869E+05, 1.1951161E+05, 3.9450809E+04| 0.0000000E+00| 4)
  5 prt(o:21| 1.9823968E+04;-4.2410282E+03, 3.4480271E+03, 1.9055564E+04| 0.0000000E+00| 5)
  6 prt(o:21| 1.5390717E+05; 7.6457341E+04,-9.0724330E+04, 9.8034630E+04| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #2
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  2.99461E-09
    Squared matrix el. (prc) = -5.90914E-08
    Event weight (ref)       =  6.26874E-05
    Event weight (prc)       =  0.00000E+00
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            2566007711.0,         2240170159.0,         3022189282.0,
             484554216.0,         1681294000.0,         1422185293.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.498922E+05
  P =   1.467270E+04  1.078419E+05 -2.249466E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.373179E+05
  P =  -1.246891E+04 -1.008762E+05  2.144488E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.278990E+04
  P =  -2.203788E+03 -6.965738E+03  1.049778E+04
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            3393932940.0,         2952039924.0,         1817149397.0,
            3151505971.0,         2985798367.0,         2791898150.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.281457E+05
  P =   1.353006E+04  9.859771E+04 -2.052946E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.053352E+05
  P =  -3.309403E+03 -1.298055E+05  1.590664E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.398838E+04
  P =  -2.267795E+03 -7.483572E+03  1.159862E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   5.253073E+04
  P =  -7.952860E+03  3.869137E+04  3.462957E+04
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  6.319084949E-11
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.498922E+05
  P =   1.467270E+04  1.078419E+05 -2.249466E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.373179E+05
  P =  -1.246891E+04 -1.008762E+05  2.144488E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.278990E+04
  P =  -2.203788E+03 -6.965738E+03  1.049778E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.487563E+05
  P =   1.447377E+04  1.072132E+05 -2.239990E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.383998E+05
  P =  -1.265869E+04 -1.014761E+05  2.153528E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.001283E+04
  P =  -1.661639E+03 -7.492873E+03  6.430601E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.831067E+03
  P =  -1.534389E+02  1.755770E+03  2.215551E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.174964E+05
  P =  -7.025912E+03  4.712115E+04 -2.122144E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.155529E+05
  P =  -1.119089E+04 -9.148298E+04  1.948555E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.163656E+04
  P =  -2.134855E+03 -6.459096E+03  9.440977E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   5.531409E+04
  P =   2.035166E+04  5.082092E+04  7.917847E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.281457E+05
  P =   1.353006E+04  9.859771E+04 -2.052946E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.053352E+05
  P =  -3.309403E+03 -1.298055E+05  1.590664E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.398838E+04
  P =  -2.267795E+03 -7.483572E+03  1.159862E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   5.253073E+04
  P =  -7.952860E+03  3.869137E+04  3.462957E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 3
 n_tot* => 5
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* => -5.90914E-08
 sqme_ref* =>  2.99461E-09
 event_index* => 2
 event_weight* =>  0.00000E+00
 event_weight_ref* =>  6.26874E-05
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-2| 2.4989224E+05; 1.4672701E+04, 1.0784194E+05,-2.2494657E+05| 0.0000000E+00| 3)
  4 prt(o:2| 2.3731786E+05;-1.2468913E+04,-1.0087620E+05, 2.1444879E+05| 0.0000000E+00| 4)
  5 prt(o:21| 1.2789898E+04;-2.2037877E+03,-6.9657375E+03, 1.0497777E+04| 0.0000000E+00| 5)
 ========================================================================
 ========================================================================
  Event #2
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  2.99461E-09
    Squared matrix el. (prc) =  2.87907E-09
    Event weight (ref)       =  6.26874E-05
    Event weight (prc)       =  6.02689E-05
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            2566007711.0,         2240170159.0,         3022189282.0,
             484554216.0,         1681294000.0,         1422185293.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.498922E+05
  P =   1.467270E+04  1.078419E+05 -2.249466E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.373179E+05
  P =  -1.246891E+04 -1.008762E+05  2.144488E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.278990E+04
  P =  -2.203788E+03 -6.965738E+03  1.049778E+04
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            3393932940.0,         2952039924.0,         1817149397.0,
            3151505971.0,         2985798367.0,         2791898150.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.281457E+05
  P =   1.353006E+04  9.859771E+04 -2.052946E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.053352E+05
  P =  -3.309403E+03 -1.298055E+05  1.590664E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.398838E+04
  P =  -2.267795E+03 -7.483572E+03  1.159862E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   5.253073E+04
  P =  -7.952860E+03  3.869137E+04  3.462957E+04
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  6.319084949E-11
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.498922E+05
  P =   1.467270E+04  1.078419E+05 -2.249466E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.373179E+05
  P =  -1.246891E+04 -1.008762E+05  2.144488E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.278990E+04
  P =  -2.203788E+03 -6.965738E+03  1.049778E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.487563E+05
  P =   1.447377E+04  1.072132E+05 -2.239990E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.383998E+05
  P =  -1.265869E+04 -1.014761E+05  2.153528E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.001283E+04
  P =  -1.661639E+03 -7.492873E+03  6.430601E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.831067E+03
  P =  -1.534389E+02  1.755770E+03  2.215551E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.174964E+05
  P =  -7.025912E+03  4.712115E+04 -2.122144E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.155529E+05
  P =  -1.119089E+04 -9.148298E+04  1.948555E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.163656E+04
  P =  -2.134855E+03 -6.459096E+03  9.440977E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   5.531409E+04
  P =   2.035166E+04  5.082092E+04  7.917847E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.281457E+05
  P =   1.353006E+04  9.859771E+04 -2.052946E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.053352E+05
  P =  -3.309403E+03 -1.298055E+05  1.590664E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.398838E+04
  P =  -2.267795E+03 -7.483572E+03  1.159862E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   5.253073E+04
  P =  -7.952860E+03  3.869137E+04  3.462957E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  2.87907E-09
 sqme_ref* =>  2.99461E-09
 event_index* => 2
 event_weight* =>  6.02689E-05
 event_weight_ref* =>  6.26874E-05
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-1| 2.4875629E+05; 1.4473772E+04, 1.0721317E+05,-2.2399897E+05| 0.0000000E+00| 3)
  4 prt(o:1| 2.3839981E+05;-1.2658694E+04,-1.0147606E+05, 2.1535282E+05| 0.0000000E+00| 4)
  5 prt(o:21| 1.0012832E+04;-1.6616390E+03,-7.4928729E+03, 6.4306006E+03| 0.0000000E+00| 5)
  6 prt(o:21| 2.8310666E+03;-1.5343894E+02, 1.7557702E+03, 2.2155509E+03| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #2
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  2.99461E-09
    Squared matrix el. (prc) =  5.23412E-11
    Event weight (ref)       =  6.26874E-05
    Event weight (prc)       =  1.09568E-06
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            2566007711.0,         2240170159.0,         3022189282.0,
             484554216.0,         1681294000.0,         1422185293.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.498922E+05
  P =   1.467270E+04  1.078419E+05 -2.249466E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.373179E+05
  P =  -1.246891E+04 -1.008762E+05  2.144488E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.278990E+04
  P =  -2.203788E+03 -6.965738E+03  1.049778E+04
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            3393932940.0,         2952039924.0,         1817149397.0,
            3151505971.0,         2985798367.0,         2791898150.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.281457E+05
  P =   1.353006E+04  9.859771E+04 -2.052946E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.053352E+05
  P =  -3.309403E+03 -1.298055E+05  1.590664E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.398838E+04
  P =  -2.267795E+03 -7.483572E+03  1.159862E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   5.253073E+04
  P =  -7.952860E+03  3.869137E+04  3.462957E+04
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  6.319084949E-11
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.498922E+05
  P =   1.467270E+04  1.078419E+05 -2.249466E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.373179E+05
  P =  -1.246891E+04 -1.008762E+05  2.144488E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.278990E+04
  P =  -2.203788E+03 -6.965738E+03  1.049778E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.487563E+05
  P =   1.447377E+04  1.072132E+05 -2.239990E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.383998E+05
  P =  -1.265869E+04 -1.014761E+05  2.153528E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.001283E+04
  P =  -1.661639E+03 -7.492873E+03  6.430601E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.831067E+03
  P =  -1.534389E+02  1.755770E+03  2.215551E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.174964E+05
  P =  -7.025912E+03  4.712115E+04 -2.122144E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.155529E+05
  P =  -1.119089E+04 -9.148298E+04  1.948555E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.163656E+04
  P =  -2.134855E+03 -6.459096E+03  9.440977E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   5.531409E+04
  P =   2.035166E+04  5.082092E+04  7.917847E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.281457E+05
  P =   1.353006E+04  9.859771E+04 -2.052946E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.053352E+05
  P =  -3.309403E+03 -1.298055E+05  1.590664E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.398838E+04
  P =  -2.267795E+03 -7.483572E+03  1.159862E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   5.253073E+04
  P =  -7.952860E+03  3.869137E+04  3.462957E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  5.23412E-11
 sqme_ref* =>  2.99461E-09
 event_index* => 2
 event_weight* =>  1.09568E-06
 event_weight_ref* =>  6.26874E-05
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-1| 2.1749644E+05;-7.0259125E+03, 4.7121148E+04,-2.1221437E+05| 0.0000000E+00| 3)
  4 prt(o:1| 2.1555290E+05;-1.1190894E+04,-9.1482976E+04, 1.9485554E+05| 0.0000000E+00| 4)
  5 prt(o:21| 1.1636562E+04;-2.1348553E+03,-6.4590957E+03, 9.4409767E+03| 0.0000000E+00| 5)
  6 prt(o:21| 5.5314091E+04; 2.0351662E+04, 5.0820923E+04, 7.9178466E+03| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #2
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  2.99461E-09
    Squared matrix el. (prc) =  6.31908E-11
    Event weight (ref)       =  6.26874E-05
    Event weight (prc)       =  1.32280E-06
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            2566007711.0,         2240170159.0,         3022189282.0,
             484554216.0,         1681294000.0,         1422185293.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.498922E+05
  P =   1.467270E+04  1.078419E+05 -2.249466E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.373179E+05
  P =  -1.246891E+04 -1.008762E+05  2.144488E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.278990E+04
  P =  -2.203788E+03 -6.965738E+03  1.049778E+04
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            3393932940.0,         2952039924.0,         1817149397.0,
            3151505971.0,         2985798367.0,         2791898150.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.281457E+05
  P =   1.353006E+04  9.859771E+04 -2.052946E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.053352E+05
  P =  -3.309403E+03 -1.298055E+05  1.590664E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.398838E+04
  P =  -2.267795E+03 -7.483572E+03  1.159862E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   5.253073E+04
  P =  -7.952860E+03  3.869137E+04  3.462957E+04
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  6.319084949E-11
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.498922E+05
  P =   1.467270E+04  1.078419E+05 -2.249466E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.373179E+05
  P =  -1.246891E+04 -1.008762E+05  2.144488E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.278990E+04
  P =  -2.203788E+03 -6.965738E+03  1.049778E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.487563E+05
  P =   1.447377E+04  1.072132E+05 -2.239990E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.383998E+05
  P =  -1.265869E+04 -1.014761E+05  2.153528E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.001283E+04
  P =  -1.661639E+03 -7.492873E+03  6.430601E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.831067E+03
  P =  -1.534389E+02  1.755770E+03  2.215551E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.174964E+05
  P =  -7.025912E+03  4.712115E+04 -2.122144E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.155529E+05
  P =  -1.119089E+04 -9.148298E+04  1.948555E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.163656E+04
  P =  -2.134855E+03 -6.459096E+03  9.440977E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   5.531409E+04
  P =   2.035166E+04  5.082092E+04  7.917847E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.281457E+05
  P =   1.353006E+04  9.859771E+04 -2.052946E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.053352E+05
  P =  -3.309403E+03 -1.298055E+05  1.590664E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.398838E+04
  P =  -2.267795E+03 -7.483572E+03  1.159862E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   5.253073E+04
  P =  -7.952860E+03  3.869137E+04  3.462957E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  6.31908E-11
 sqme_ref* =>  2.99461E-09
 event_index* => 2
 event_weight* =>  1.32280E-06
 event_weight_ref* =>  6.26874E-05
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-2| 2.2814568E+05; 1.3530057E+04, 9.8597709E+04,-2.0529462E+05| 0.0000000E+00| 3)
  4 prt(o:2| 2.0533521E+05;-3.3094026E+03,-1.2980551E+05, 1.5906642E+05| 0.0000000E+00| 4)
  5 prt(o:21| 1.3988379E+04;-2.2677952E+03,-7.4835722E+03, 1.1598621E+04| 0.0000000E+00| 5)
  6 prt(o:21| 5.2530730E+04;-7.9528596E+03, 3.8691371E+04, 3.4629575E+04| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #3
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  5.35571E-11
    Squared matrix el. (prc) = -1.05790E-03
    Event weight (ref)       =  4.09767E-11
    Event weight (prc)       =  0.00000E+00
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
             658726814.0,          695277609.0,         1316830081.0,
            2131992430.0,          749504030.0,          880099028.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   2.499928E+05
  P =   5.475444E+04  2.208097E+05 -1.036409E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.499951E+05
  P =  -5.474567E+04 -2.208105E+05  1.036492E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.210257E+01
  P =  -8.773280E+00  8.058842E-01 -8.297732E+00
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            1100463693.0,         3654384047.0,          647619641.0,
             459938003.0,         1733458346.0,         3954010958.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.194056E+05
  P =   4.805624E+04  1.937933E+05 -9.095929E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.378724E+05
  P =  -6.655189E+04 -2.196641E+05  6.246438E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.191381E+01
  P =  -9.115988E+00 -5.763905E-01 -7.648888E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   4.271009E+04
  P =   1.850477E+04  2.587141E+04  2.850256E+04
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  1.923323084E-11
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499928E+05
  P =   5.475444E+04  2.208097E+05 -1.036409E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.499951E+05
  P =  -5.474567E+04 -2.208105E+05  1.036492E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.210257E+01
  P =  -8.773280E+00  8.058842E-01 -8.297732E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.499931E+05
  P =   5.475338E+04  2.208098E+05 -1.036419E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.499948E+05
  P =  -5.474673E+04 -2.208104E+05  1.036482E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   1.003499E+01
  P =  -5.807919E+00  1.109636E+00 -8.107880E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   2.067649E+00
  P =  -8.361985E-01 -4.993300E-01  1.823900E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.378699E+05
  P =   5.893797E+04  1.889232E+05 -1.319714E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.194078E+05
  P =  -4.804633E+04 -1.937939E+05  9.096849E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.249769E+01
  P =  -8.422184E+00  2.221758E+00 -8.962297E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   4.270971E+04
  P =  -1.088321E+04  4.868496E+03  4.101186E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.194056E+05
  P =   4.805624E+04  1.937933E+05 -9.095929E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.378724E+05
  P =  -6.655189E+04 -2.196641E+05  6.246438E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.191381E+01
  P =  -9.115988E+00 -5.763905E-01 -7.648888E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   4.271009E+04
  P =   1.850477E+04  2.587141E+04  2.850256E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 3
 n_tot* => 5
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* => -1.05790E-03
 sqme_ref* =>  5.35571E-11
 event_index* => 3
 event_weight* =>  0.00000E+00
 event_weight_ref* =>  4.09767E-11
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-2| 2.4999283E+05; 5.4754444E+04, 2.2080972E+05,-1.0364090E+05| 0.0000000E+00| 3)
  4 prt(o:2| 2.4999506E+05;-5.4745670E+04,-2.2081052E+05, 1.0364920E+05| 0.0000000E+00| 4)
  5 prt(o:21| 1.2102572E+01;-8.7732797E+00, 8.0588417E-01,-8.2977325E+00| 0.0000000E+00| 5)
 ========================================================================
 ========================================================================
  Event #3
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  5.35571E-11
    Squared matrix el. (prc) =  4.00259E-04
    Event weight (ref)       =  4.09767E-11
    Event weight (prc)       =  0.00000E+00
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
             658726814.0,          695277609.0,         1316830081.0,
            2131992430.0,          749504030.0,          880099028.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   2.499928E+05
  P =   5.475444E+04  2.208097E+05 -1.036409E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.499951E+05
  P =  -5.474567E+04 -2.208105E+05  1.036492E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.210257E+01
  P =  -8.773280E+00  8.058842E-01 -8.297732E+00
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            1100463693.0,         3654384047.0,          647619641.0,
             459938003.0,         1733458346.0,         3954010958.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.194056E+05
  P =   4.805624E+04  1.937933E+05 -9.095929E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.378724E+05
  P =  -6.655189E+04 -2.196641E+05  6.246438E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.191381E+01
  P =  -9.115988E+00 -5.763905E-01 -7.648888E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   4.271009E+04
  P =   1.850477E+04  2.587141E+04  2.850256E+04
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  1.923323084E-11
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499928E+05
  P =   5.475444E+04  2.208097E+05 -1.036409E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.499951E+05
  P =  -5.474567E+04 -2.208105E+05  1.036492E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.210257E+01
  P =  -8.773280E+00  8.058842E-01 -8.297732E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.499931E+05
  P =   5.475338E+04  2.208098E+05 -1.036419E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.499948E+05
  P =  -5.474673E+04 -2.208104E+05  1.036482E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   1.003499E+01
  P =  -5.807919E+00  1.109636E+00 -8.107880E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   2.067649E+00
  P =  -8.361985E-01 -4.993300E-01  1.823900E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.378699E+05
  P =   5.893797E+04  1.889232E+05 -1.319714E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.194078E+05
  P =  -4.804633E+04 -1.937939E+05  9.096849E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.249769E+01
  P =  -8.422184E+00  2.221758E+00 -8.962297E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   4.270971E+04
  P =  -1.088321E+04  4.868496E+03  4.101186E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.194056E+05
  P =   4.805624E+04  1.937933E+05 -9.095929E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.378724E+05
  P =  -6.655189E+04 -2.196641E+05  6.246438E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.191381E+01
  P =  -9.115988E+00 -5.763905E-01 -7.648888E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   4.271009E+04
  P =   1.850477E+04  2.587141E+04  2.850256E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  4.00259E-04
 sqme_ref* =>  5.35571E-11
 event_index* => 3
 event_weight* =>  0.00000E+00
 event_weight_ref* =>  4.09767E-11
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-2| 2.4999310E+05; 5.4753379E+04, 2.2080982E+05,-1.0364191E+05| 0.0000000E+00| 3)
  4 prt(o:2| 2.4999479E+05;-5.4746735E+04,-2.2081043E+05, 1.0364819E+05| 0.0000000E+00| 4)
  5 prt(o:-2| 1.0034986E+01;-5.8079193E+00, 1.1096365E+00,-8.1078801E+00| 0.0000000E+00| 5)
  6 prt(o:2| 2.0676487E+00;-8.3619846E-01,-4.9933002E-01, 1.8239005E+00| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #3
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  5.35571E-11
    Squared matrix el. (prc) =  3.43239E-11
    Event weight (ref)       =  4.09767E-11
    Event weight (prc)       =  2.62613E-11
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
             658726814.0,          695277609.0,         1316830081.0,
            2131992430.0,          749504030.0,          880099028.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   2.499928E+05
  P =   5.475444E+04  2.208097E+05 -1.036409E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.499951E+05
  P =  -5.474567E+04 -2.208105E+05  1.036492E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.210257E+01
  P =  -8.773280E+00  8.058842E-01 -8.297732E+00
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            1100463693.0,         3654384047.0,          647619641.0,
             459938003.0,         1733458346.0,         3954010958.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.194056E+05
  P =   4.805624E+04  1.937933E+05 -9.095929E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.378724E+05
  P =  -6.655189E+04 -2.196641E+05  6.246438E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.191381E+01
  P =  -9.115988E+00 -5.763905E-01 -7.648888E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   4.271009E+04
  P =   1.850477E+04  2.587141E+04  2.850256E+04
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  1.923323084E-11
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499928E+05
  P =   5.475444E+04  2.208097E+05 -1.036409E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.499951E+05
  P =  -5.474567E+04 -2.208105E+05  1.036492E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.210257E+01
  P =  -8.773280E+00  8.058842E-01 -8.297732E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.499931E+05
  P =   5.475338E+04  2.208098E+05 -1.036419E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.499948E+05
  P =  -5.474673E+04 -2.208104E+05  1.036482E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   1.003499E+01
  P =  -5.807919E+00  1.109636E+00 -8.107880E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   2.067649E+00
  P =  -8.361985E-01 -4.993300E-01  1.823900E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.378699E+05
  P =   5.893797E+04  1.889232E+05 -1.319714E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.194078E+05
  P =  -4.804633E+04 -1.937939E+05  9.096849E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.249769E+01
  P =  -8.422184E+00  2.221758E+00 -8.962297E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   4.270971E+04
  P =  -1.088321E+04  4.868496E+03  4.101186E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.194056E+05
  P =   4.805624E+04  1.937933E+05 -9.095929E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.378724E+05
  P =  -6.655189E+04 -2.196641E+05  6.246438E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.191381E+01
  P =  -9.115988E+00 -5.763905E-01 -7.648888E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   4.271009E+04
  P =   1.850477E+04  2.587141E+04  2.850256E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  3.43239E-11
 sqme_ref* =>  5.35571E-11
 event_index* => 3
 event_weight* =>  2.62613E-11
 event_weight_ref* =>  4.09767E-11
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-1| 2.3786995E+05; 5.8937970E+04, 1.8892321E+05,-1.3197139E+05| 0.0000000E+00| 3)
  4 prt(o:1| 2.1940785E+05;-4.8046334E+04,-1.9379393E+05, 9.0968487E+04| 0.0000000E+00| 4)
  5 prt(o:21| 1.2497686E+01;-8.4221839E+00, 2.2217578E+00,-8.9622975E+00| 0.0000000E+00| 5)
  6 prt(o:21| 4.2709712E+04;-1.0883214E+04, 4.8684964E+03, 4.1011862E+04| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #3
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  5.35571E-11
    Squared matrix el. (prc) =  1.92332E-11
    Event weight (ref)       =  4.09767E-11
    Event weight (prc)       =  1.47154E-11
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
             658726814.0,          695277609.0,         1316830081.0,
            2131992430.0,          749504030.0,          880099028.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   2.499928E+05
  P =   5.475444E+04  2.208097E+05 -1.036409E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.499951E+05
  P =  -5.474567E+04 -2.208105E+05  1.036492E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.210257E+01
  P =  -8.773280E+00  8.058842E-01 -8.297732E+00
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            1100463693.0,         3654384047.0,          647619641.0,
             459938003.0,         1733458346.0,         3954010958.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.194056E+05
  P =   4.805624E+04  1.937933E+05 -9.095929E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.378724E+05
  P =  -6.655189E+04 -2.196641E+05  6.246438E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.191381E+01
  P =  -9.115988E+00 -5.763905E-01 -7.648888E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   4.271009E+04
  P =   1.850477E+04  2.587141E+04  2.850256E+04
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  1.923323084E-11
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499928E+05
  P =   5.475444E+04  2.208097E+05 -1.036409E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.499951E+05
  P =  -5.474567E+04 -2.208105E+05  1.036492E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.210257E+01
  P =  -8.773280E+00  8.058842E-01 -8.297732E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.499931E+05
  P =   5.475338E+04  2.208098E+05 -1.036419E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.499948E+05
  P =  -5.474673E+04 -2.208104E+05  1.036482E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   1.003499E+01
  P =  -5.807919E+00  1.109636E+00 -8.107880E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   2.067649E+00
  P =  -8.361985E-01 -4.993300E-01  1.823900E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.378699E+05
  P =   5.893797E+04  1.889232E+05 -1.319714E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.194078E+05
  P =  -4.804633E+04 -1.937939E+05  9.096849E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.249769E+01
  P =  -8.422184E+00  2.221758E+00 -8.962297E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   4.270971E+04
  P =  -1.088321E+04  4.868496E+03  4.101186E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.194056E+05
  P =   4.805624E+04  1.937933E+05 -9.095929E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.378724E+05
  P =  -6.655189E+04 -2.196641E+05  6.246438E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.191381E+01
  P =  -9.115988E+00 -5.763905E-01 -7.648888E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   4.271009E+04
  P =   1.850477E+04  2.587141E+04  2.850256E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  1.92332E-11
 sqme_ref* =>  5.35571E-11
 event_index* => 3
 event_weight* =>  1.47154E-11
 event_weight_ref* =>  4.09767E-11
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-2| 2.1940561E+05; 4.8056240E+04, 1.9379326E+05,-9.0959286E+04| 0.0000000E+00| 3)
  4 prt(o:2| 2.3787238E+05;-6.6551890E+04,-2.1966410E+05, 6.2464380E+04| 0.0000000E+00| 4)
  5 prt(o:21| 1.1913813E+01;-9.1159878E+00,-5.7639049E-01,-7.6488881E+00| 0.0000000E+00| 5)
  6 prt(o:21| 4.2710093E+04; 1.8504766E+04, 2.5871413E+04, 2.8502555E+04| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #4
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  2.11517E-10
    Squared matrix el. (prc) = -4.20084E-09
    Event weight (ref)       =  2.67265E-07
    Event weight (prc)       =  0.00000E+00
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
             852933358.0,         3802412940.0,         3514872455.0,
            1024477926.0,         3849273974.0,          775318609.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   2.376849E+05
  P =  -9.734745E+04 -1.760988E+05 -1.265181E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.496755E+05
  P =   1.059795E+05  1.834956E+05  1.320437E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.263958E+04
  P =  -8.632067E+03 -7.396841E+03 -5.525686E+03
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
             598672993.0,          229519251.0,         2192350721.0,
            2167080660.0,         1984333633.0,         1125498793.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   1.681412E+05
  P =  -6.782269E+04 -1.249789E+05 -8.973208E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   1.734932E+05
  P =  -1.186191E+04  3.511476E+04  1.694879E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.158701E+03
  P =  -7.046193E+03 -4.651018E+03 -3.549788E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.492069E+05
  P =   8.673079E+04  9.451512E+04 -7.620600E+04
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  2.057479501E-12
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.376849E+05
  P =  -9.734745E+04 -1.760988E+05 -1.265181E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.496755E+05
  P =   1.059795E+05  1.834956E+05  1.320437E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.263958E+04
  P =  -8.632067E+03 -7.396841E+03 -5.525686E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   2.402098E+05
  P =  -9.916913E+04 -1.776598E+05 -1.276842E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.470398E+05
  P =   1.040861E+05  1.818731E+05  1.308317E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   5.196862E+03
  P =  -1.974904E+03 -3.054029E+03  3.712147E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   7.553455E+03
  P =  -2.942054E+03 -1.159324E+03 -6.859662E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.595906E+05
  P =  -4.904747E+04 -1.427702E+05  5.177032E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.811710E+05
  P =   7.791726E+04  1.327318E+05  9.557250E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.719717E+04
  P =  -1.057542E+04 -1.091231E+04 -8.051372E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.420413E+05
  P =  -1.829437E+04  2.095069E+04 -1.392914E+05
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   1.681412E+05
  P =  -6.782269E+04 -1.249789E+05 -8.973208E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   1.734932E+05
  P =  -1.186191E+04  3.511476E+04  1.694879E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.158701E+03
  P =  -7.046193E+03 -4.651018E+03 -3.549788E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.492069E+05
  P =   8.673079E+04  9.451512E+04 -7.620600E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 3
 n_tot* => 5
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* => -4.20084E-09
 sqme_ref* =>  2.11517E-10
 event_index* => 4
 event_weight* =>  0.00000E+00
 event_weight_ref* =>  2.67265E-07
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-2| 2.3768493E+05;-9.7347450E+04,-1.7609878E+05,-1.2651805E+05| 0.0000000E+00| 3)
  4 prt(o:2| 2.4967549E+05; 1.0597952E+05, 1.8349562E+05, 1.3204374E+05| 0.0000000E+00| 4)
  5 prt(o:21| 1.2639582E+04;-8.6320673E+03,-7.3968406E+03,-5.5256857E+03| 0.0000000E+00| 5)
 ========================================================================
 ========================================================================
  Event #4
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  2.11517E-10
    Squared matrix el. (prc) =  2.07646E-10
    Event weight (ref)       =  2.67265E-07
    Event weight (prc)       =  2.62373E-07
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
             852933358.0,         3802412940.0,         3514872455.0,
            1024477926.0,         3849273974.0,          775318609.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   2.376849E+05
  P =  -9.734745E+04 -1.760988E+05 -1.265181E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.496755E+05
  P =   1.059795E+05  1.834956E+05  1.320437E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.263958E+04
  P =  -8.632067E+03 -7.396841E+03 -5.525686E+03
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
             598672993.0,          229519251.0,         2192350721.0,
            2167080660.0,         1984333633.0,         1125498793.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   1.681412E+05
  P =  -6.782269E+04 -1.249789E+05 -8.973208E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   1.734932E+05
  P =  -1.186191E+04  3.511476E+04  1.694879E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.158701E+03
  P =  -7.046193E+03 -4.651018E+03 -3.549788E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.492069E+05
  P =   8.673079E+04  9.451512E+04 -7.620600E+04
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  2.057479501E-12
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.376849E+05
  P =  -9.734745E+04 -1.760988E+05 -1.265181E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.496755E+05
  P =   1.059795E+05  1.834956E+05  1.320437E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.263958E+04
  P =  -8.632067E+03 -7.396841E+03 -5.525686E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   2.402098E+05
  P =  -9.916913E+04 -1.776598E+05 -1.276842E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.470398E+05
  P =   1.040861E+05  1.818731E+05  1.308317E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   5.196862E+03
  P =  -1.974904E+03 -3.054029E+03  3.712147E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   7.553455E+03
  P =  -2.942054E+03 -1.159324E+03 -6.859662E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.595906E+05
  P =  -4.904747E+04 -1.427702E+05  5.177032E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.811710E+05
  P =   7.791726E+04  1.327318E+05  9.557250E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.719717E+04
  P =  -1.057542E+04 -1.091231E+04 -8.051372E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.420413E+05
  P =  -1.829437E+04  2.095069E+04 -1.392914E+05
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   1.681412E+05
  P =  -6.782269E+04 -1.249789E+05 -8.973208E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   1.734932E+05
  P =  -1.186191E+04  3.511476E+04  1.694879E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.158701E+03
  P =  -7.046193E+03 -4.651018E+03 -3.549788E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.492069E+05
  P =   8.673079E+04  9.451512E+04 -7.620600E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  2.07646E-10
 sqme_ref* =>  2.11517E-10
 event_index* => 4
 event_weight* =>  2.62373E-07
 event_weight_ref* =>  2.67265E-07
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-3| 2.4020984E+05;-9.9169134E+04,-1.7765979E+05,-1.2768418E+05| 0.0000000E+00| 3)
  4 prt(o:3| 2.4703985E+05; 1.0408609E+05, 1.8187314E+05, 1.3083169E+05| 0.0000000E+00| 4)
  5 prt(o:21| 5.1968624E+03;-1.9749038E+03,-3.0540295E+03, 3.7121473E+03| 0.0000000E+00| 5)
  6 prt(o:21| 7.5534548E+03;-2.9420537E+03,-1.1593240E+03,-6.8596623E+03| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #4
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  2.11517E-10
    Squared matrix el. (prc) =  1.81416E-12
    Event weight (ref)       =  2.67265E-07
    Event weight (prc)       =  2.29231E-09
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
             852933358.0,         3802412940.0,         3514872455.0,
            1024477926.0,         3849273974.0,          775318609.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   2.376849E+05
  P =  -9.734745E+04 -1.760988E+05 -1.265181E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.496755E+05
  P =   1.059795E+05  1.834956E+05  1.320437E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.263958E+04
  P =  -8.632067E+03 -7.396841E+03 -5.525686E+03
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
             598672993.0,          229519251.0,         2192350721.0,
            2167080660.0,         1984333633.0,         1125498793.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   1.681412E+05
  P =  -6.782269E+04 -1.249789E+05 -8.973208E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   1.734932E+05
  P =  -1.186191E+04  3.511476E+04  1.694879E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.158701E+03
  P =  -7.046193E+03 -4.651018E+03 -3.549788E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.492069E+05
  P =   8.673079E+04  9.451512E+04 -7.620600E+04
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  2.057479501E-12
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.376849E+05
  P =  -9.734745E+04 -1.760988E+05 -1.265181E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.496755E+05
  P =   1.059795E+05  1.834956E+05  1.320437E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.263958E+04
  P =  -8.632067E+03 -7.396841E+03 -5.525686E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   2.402098E+05
  P =  -9.916913E+04 -1.776598E+05 -1.276842E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.470398E+05
  P =   1.040861E+05  1.818731E+05  1.308317E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   5.196862E+03
  P =  -1.974904E+03 -3.054029E+03  3.712147E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   7.553455E+03
  P =  -2.942054E+03 -1.159324E+03 -6.859662E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.595906E+05
  P =  -4.904747E+04 -1.427702E+05  5.177032E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.811710E+05
  P =   7.791726E+04  1.327318E+05  9.557250E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.719717E+04
  P =  -1.057542E+04 -1.091231E+04 -8.051372E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.420413E+05
  P =  -1.829437E+04  2.095069E+04 -1.392914E+05
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   1.681412E+05
  P =  -6.782269E+04 -1.249789E+05 -8.973208E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   1.734932E+05
  P =  -1.186191E+04  3.511476E+04  1.694879E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.158701E+03
  P =  -7.046193E+03 -4.651018E+03 -3.549788E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.492069E+05
  P =   8.673079E+04  9.451512E+04 -7.620600E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  1.81416E-12
 sqme_ref* =>  2.11517E-10
 event_index* => 4
 event_weight* =>  2.29231E-09
 event_weight_ref* =>  2.67265E-07
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-2| 1.5959055E+05;-4.9047475E+04,-1.4277018E+05, 5.1770318E+04| 0.0000000E+00| 3)
  4 prt(o:2| 1.8117101E+05; 7.7917264E+04, 1.3273180E+05, 9.5572504E+04| 0.0000000E+00| 4)
  5 prt(o:21| 1.7197168E+04;-1.0575419E+04,-1.0912310E+04,-8.0513721E+03| 0.0000000E+00| 5)
  6 prt(o:21| 1.4204127E+05;-1.8294370E+04, 2.0950687E+04,-1.3929145E+05| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #4
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  2.11517E-10
    Squared matrix el. (prc) =  2.05748E-12
    Event weight (ref)       =  2.67265E-07
    Event weight (prc)       =  2.59975E-09
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
             852933358.0,         3802412940.0,         3514872455.0,
            1024477926.0,         3849273974.0,          775318609.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   2.376849E+05
  P =  -9.734745E+04 -1.760988E+05 -1.265181E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.496755E+05
  P =   1.059795E+05  1.834956E+05  1.320437E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.263958E+04
  P =  -8.632067E+03 -7.396841E+03 -5.525686E+03
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
             598672993.0,          229519251.0,         2192350721.0,
            2167080660.0,         1984333633.0,         1125498793.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   1.681412E+05
  P =  -6.782269E+04 -1.249789E+05 -8.973208E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   1.734932E+05
  P =  -1.186191E+04  3.511476E+04  1.694879E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.158701E+03
  P =  -7.046193E+03 -4.651018E+03 -3.549788E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.492069E+05
  P =   8.673079E+04  9.451512E+04 -7.620600E+04
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  2.057479501E-12
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.376849E+05
  P =  -9.734745E+04 -1.760988E+05 -1.265181E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.496755E+05
  P =   1.059795E+05  1.834956E+05  1.320437E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.263958E+04
  P =  -8.632067E+03 -7.396841E+03 -5.525686E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   2.402098E+05
  P =  -9.916913E+04 -1.776598E+05 -1.276842E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.470398E+05
  P =   1.040861E+05  1.818731E+05  1.308317E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   5.196862E+03
  P =  -1.974904E+03 -3.054029E+03  3.712147E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   7.553455E+03
  P =  -2.942054E+03 -1.159324E+03 -6.859662E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.595906E+05
  P =  -4.904747E+04 -1.427702E+05  5.177032E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.811710E+05
  P =   7.791726E+04  1.327318E+05  9.557250E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.719717E+04
  P =  -1.057542E+04 -1.091231E+04 -8.051372E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.420413E+05
  P =  -1.829437E+04  2.095069E+04 -1.392914E+05
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   1.681412E+05
  P =  -6.782269E+04 -1.249789E+05 -8.973208E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   1.734932E+05
  P =  -1.186191E+04  3.511476E+04  1.694879E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.158701E+03
  P =  -7.046193E+03 -4.651018E+03 -3.549788E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.492069E+05
  P =   8.673079E+04  9.451512E+04 -7.620600E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  2.05748E-12
 sqme_ref* =>  2.11517E-10
 event_index* => 4
 event_weight* =>  2.59975E-09
 event_weight_ref* =>  2.67265E-07
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-3| 1.6814124E+05;-6.7822687E+04,-1.2497886E+05,-8.9732076E+04| 0.0000000E+00| 3)
  4 prt(o:3| 1.7349319E+05;-1.1861907E+04, 3.5114759E+04, 1.6948786E+05| 0.0000000E+00| 4)
  5 prt(o:21| 9.1587010E+03;-7.0461933E+03,-4.6510183E+03,-3.5497876E+03| 0.0000000E+00| 5)
  6 prt(o:21| 1.4920687E+05; 8.6730787E+04, 9.4515117E+04,-7.6205995E+04| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #5
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  9.37951E-07
    Squared matrix el. (prc) =  7.86870E-07
    Event weight (ref)       =  6.19701E-04
    Event weight (prc)       =  5.19882E-04
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            1095625977.0,          443063532.0,         2957163220.0,
             222499157.0,         3835620558.0,         2328100909.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499472E+05
  P =  -3.012358E+04  1.513505E+05 -1.966195E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.488282E+05
  P =   2.951637E+04 -1.505959E+05  1.958702E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.224537E+03
  P =   6.072091E+02 -7.545419E+02  7.493023E+02
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            1106982763.0,         4232153153.0,         2882700880.0,
            3746330306.0,          161521528.0,         2991739543.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.920514E+05
  P =  -2.325588E+04  1.163106E+05 -1.510455E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.351515E+05
  P =   1.237788E+05 -4.406957E+04  3.166401E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.565428E+03
  P =   6.505592E+02 -9.757187E+02  1.036972E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.712316E+05
  P =  -1.011735E+05 -7.126537E+04  1.183445E+05
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  3.848906258E-12
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499472E+05
  P =  -3.012358E+04  1.513505E+05 -1.966195E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.488282E+05
  P =   2.951637E+04 -1.505959E+05  1.958702E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.224537E+03
  P =   6.072091E+02 -7.545419E+02  7.493023E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   2.497695E+05
  P =  -3.002715E+04  1.512306E+05 -1.965005E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.490052E+05
  P =   2.961243E+04 -1.507153E+05  1.959887E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.826715E+02
  P =   3.602545E+02  1.245413E+02 -3.381796E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   8.426673E+02
  P =   5.446535E+01 -6.398884E+02  5.455864E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   1.362137E+05
  P =  -1.144984E+05 -7.433487E+03 -7.340993E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   1.908174E+05
  P =   2.252490E+04 -1.154686E+05  1.502362E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.672594E+02
  P =   5.723541E+02 -5.794190E+02  5.218000E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.720017E+05
  P =   9.140118E+04  1.234815E+05 -7.734808E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.920514E+05
  P =  -2.325588E+04  1.163106E+05 -1.510455E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.351515E+05
  P =   1.237788E+05 -4.406957E+04  3.166401E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.565428E+03
  P =   6.505592E+02 -9.757187E+02  1.036972E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.712316E+05
  P =  -1.011735E+05 -7.126537E+04  1.183445E+05
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 3
 n_tot* => 5
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  7.86870E-07
 sqme_ref* =>  9.37951E-07
 event_index* => 5
 event_weight* =>  5.19882E-04
 event_weight_ref* =>  6.19701E-04
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-2| 2.4994724E+05;-3.0123578E+04, 1.5135046E+05,-1.9661951E+05| 0.0000000E+00| 3)
  4 prt(o:2| 2.4882822E+05; 2.9516369E+04,-1.5059592E+05, 1.9587020E+05| 0.0000000E+00| 4)
  5 prt(o:21| 1.2245368E+03; 6.0720914E+02,-7.5454193E+02, 7.4930231E+02| 0.0000000E+00| 5)
 ========================================================================
 ========================================================================
  Event #5
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  9.37951E-07
    Squared matrix el. (prc) =  1.51075E-07
    Event weight (ref)       =  6.19701E-04
    Event weight (prc)       =  9.98147E-05
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            1095625977.0,          443063532.0,         2957163220.0,
             222499157.0,         3835620558.0,         2328100909.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499472E+05
  P =  -3.012358E+04  1.513505E+05 -1.966195E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.488282E+05
  P =   2.951637E+04 -1.505959E+05  1.958702E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.224537E+03
  P =   6.072091E+02 -7.545419E+02  7.493023E+02
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            1106982763.0,         4232153153.0,         2882700880.0,
            3746330306.0,          161521528.0,         2991739543.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.920514E+05
  P =  -2.325588E+04  1.163106E+05 -1.510455E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.351515E+05
  P =   1.237788E+05 -4.406957E+04  3.166401E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.565428E+03
  P =   6.505592E+02 -9.757187E+02  1.036972E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.712316E+05
  P =  -1.011735E+05 -7.126537E+04  1.183445E+05
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  3.848906258E-12
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499472E+05
  P =  -3.012358E+04  1.513505E+05 -1.966195E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.488282E+05
  P =   2.951637E+04 -1.505959E+05  1.958702E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.224537E+03
  P =   6.072091E+02 -7.545419E+02  7.493023E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   2.497695E+05
  P =  -3.002715E+04  1.512306E+05 -1.965005E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.490052E+05
  P =   2.961243E+04 -1.507153E+05  1.959887E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.826715E+02
  P =   3.602545E+02  1.245413E+02 -3.381796E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   8.426673E+02
  P =   5.446535E+01 -6.398884E+02  5.455864E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   1.362137E+05
  P =  -1.144984E+05 -7.433487E+03 -7.340993E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   1.908174E+05
  P =   2.252490E+04 -1.154686E+05  1.502362E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.672594E+02
  P =   5.723541E+02 -5.794190E+02  5.218000E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.720017E+05
  P =   9.140118E+04  1.234815E+05 -7.734808E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.920514E+05
  P =  -2.325588E+04  1.163106E+05 -1.510455E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.351515E+05
  P =   1.237788E+05 -4.406957E+04  3.166401E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.565428E+03
  P =   6.505592E+02 -9.757187E+02  1.036972E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.712316E+05
  P =  -1.011735E+05 -7.126537E+04  1.183445E+05
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  1.51075E-07
 sqme_ref* =>  9.37951E-07
 event_index* => 5
 event_weight* =>  9.98147E-05
 event_weight_ref* =>  6.19701E-04
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-3| 2.4976947E+05;-3.0027152E+04, 1.5123064E+05,-1.9650052E+05| 0.0000000E+00| 3)
  4 prt(o:3| 2.4900519E+05; 2.9612432E+04,-1.5071529E+05, 1.9598875E+05| 0.0000000E+00| 4)
  5 prt(o:21| 3.8267147E+02; 3.6025445E+02, 1.2454128E+02,-3.3817956E+01| 0.0000000E+00| 5)
  6 prt(o:21| 8.4266732E+02; 5.4465352E+01,-6.3988840E+02, 5.4558645E+02| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #5
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  9.37951E-07
    Squared matrix el. (prc) =  2.69142E-12
    Event weight (ref)       =  6.19701E-04
    Event weight (prc)       =  1.77821E-09
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            1095625977.0,          443063532.0,         2957163220.0,
             222499157.0,         3835620558.0,         2328100909.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499472E+05
  P =  -3.012358E+04  1.513505E+05 -1.966195E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.488282E+05
  P =   2.951637E+04 -1.505959E+05  1.958702E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.224537E+03
  P =   6.072091E+02 -7.545419E+02  7.493023E+02
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            1106982763.0,         4232153153.0,         2882700880.0,
            3746330306.0,          161521528.0,         2991739543.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.920514E+05
  P =  -2.325588E+04  1.163106E+05 -1.510455E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.351515E+05
  P =   1.237788E+05 -4.406957E+04  3.166401E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.565428E+03
  P =   6.505592E+02 -9.757187E+02  1.036972E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.712316E+05
  P =  -1.011735E+05 -7.126537E+04  1.183445E+05
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  3.848906258E-12
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499472E+05
  P =  -3.012358E+04  1.513505E+05 -1.966195E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.488282E+05
  P =   2.951637E+04 -1.505959E+05  1.958702E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.224537E+03
  P =   6.072091E+02 -7.545419E+02  7.493023E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   2.497695E+05
  P =  -3.002715E+04  1.512306E+05 -1.965005E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.490052E+05
  P =   2.961243E+04 -1.507153E+05  1.959887E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.826715E+02
  P =   3.602545E+02  1.245413E+02 -3.381796E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   8.426673E+02
  P =   5.446535E+01 -6.398884E+02  5.455864E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   1.362137E+05
  P =  -1.144984E+05 -7.433487E+03 -7.340993E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   1.908174E+05
  P =   2.252490E+04 -1.154686E+05  1.502362E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.672594E+02
  P =   5.723541E+02 -5.794190E+02  5.218000E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.720017E+05
  P =   9.140118E+04  1.234815E+05 -7.734808E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.920514E+05
  P =  -2.325588E+04  1.163106E+05 -1.510455E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.351515E+05
  P =   1.237788E+05 -4.406957E+04  3.166401E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.565428E+03
  P =   6.505592E+02 -9.757187E+02  1.036972E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.712316E+05
  P =  -1.011735E+05 -7.126537E+04  1.183445E+05
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  2.69142E-12
 sqme_ref* =>  9.37951E-07
 event_index* => 5
 event_weight* =>  1.77821E-09
 event_weight_ref* =>  6.19701E-04
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-1| 1.3621368E+05;-1.1449843E+05,-7.4334869E+03,-7.3409933E+04| 0.0000000E+00| 3)
  4 prt(o:1| 1.9081740E+05; 2.2524901E+04,-1.1546856E+05, 1.5023622E+05| 0.0000000E+00| 4)
  5 prt(o:21| 9.6725942E+02; 5.7235408E+02,-5.7941900E+02, 5.2179998E+02| 0.0000000E+00| 5)
  6 prt(o:21| 1.7200166E+05; 9.1401178E+04, 1.2348146E+05,-7.7348083E+04| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #5
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  9.37951E-07
    Squared matrix el. (prc) =  3.84891E-12
    Event weight (ref)       =  6.19701E-04
    Event weight (prc)       =  2.54296E-09
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            1095625977.0,          443063532.0,         2957163220.0,
             222499157.0,         3835620558.0,         2328100909.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499472E+05
  P =  -3.012358E+04  1.513505E+05 -1.966195E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.488282E+05
  P =   2.951637E+04 -1.505959E+05  1.958702E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.224537E+03
  P =   6.072091E+02 -7.545419E+02  7.493023E+02
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            1106982763.0,         4232153153.0,         2882700880.0,
            3746330306.0,          161521528.0,         2991739543.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.920514E+05
  P =  -2.325588E+04  1.163106E+05 -1.510455E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.351515E+05
  P =   1.237788E+05 -4.406957E+04  3.166401E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.565428E+03
  P =   6.505592E+02 -9.757187E+02  1.036972E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.712316E+05
  P =  -1.011735E+05 -7.126537E+04  1.183445E+05
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  3.848906258E-12
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499472E+05
  P =  -3.012358E+04  1.513505E+05 -1.966195E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.488282E+05
  P =   2.951637E+04 -1.505959E+05  1.958702E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.224537E+03
  P =   6.072091E+02 -7.545419E+02  7.493023E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   2.497695E+05
  P =  -3.002715E+04  1.512306E+05 -1.965005E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.490052E+05
  P =   2.961243E+04 -1.507153E+05  1.959887E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.826715E+02
  P =   3.602545E+02  1.245413E+02 -3.381796E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   8.426673E+02
  P =   5.446535E+01 -6.398884E+02  5.455864E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   1.362137E+05
  P =  -1.144984E+05 -7.433487E+03 -7.340993E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   1.908174E+05
  P =   2.252490E+04 -1.154686E+05  1.502362E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.672594E+02
  P =   5.723541E+02 -5.794190E+02  5.218000E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.720017E+05
  P =   9.140118E+04  1.234815E+05 -7.734808E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.920514E+05
  P =  -2.325588E+04  1.163106E+05 -1.510455E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.351515E+05
  P =   1.237788E+05 -4.406957E+04  3.166401E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.565428E+03
  P =   6.505592E+02 -9.757187E+02  1.036972E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.712316E+05
  P =  -1.011735E+05 -7.126537E+04  1.183445E+05
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  3.84891E-12
 sqme_ref* =>  9.37951E-07
 event_index* => 5
 event_weight* =>  2.54296E-09
 event_weight_ref* =>  6.19701E-04
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-2| 1.9205144E+05;-2.3255875E+04, 1.1631065E+05,-1.5104553E+05| 0.0000000E+00| 3)
  4 prt(o:2| 1.3515152E+05; 1.2377883E+05,-4.4069566E+04, 3.1664006E+04| 0.0000000E+00| 4)
  5 prt(o:21| 1.5654284E+03; 6.5055916E+02,-9.7571875E+02, 1.0369724E+03| 0.0000000E+00| 5)
  6 prt(o:21| 1.7123161E+05;-1.0117351E+05,-7.1265365E+04, 1.1834455E+05| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #6
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  0.00000E+00
    Squared matrix el. (prc) =  0.00000E+00
    Event weight (ref)       =  0.00000E+00
    Event weight (prc)       =  0.00000E+00
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            2643453732.0,          343801519.0,         3374377404.0,
            2585822891.0,         2834629654.0,          677007669.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499984E+05
  P =   1.706016E+03  5.495281E+04 -2.438780E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.754199E+05
  P =  -1.752223E+03 -3.868982E+04  1.710911E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   7.458170E+04
  P =   4.620751E+01 -1.626299E+04  7.278697E+04
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            2714720639.0,         1946415819.0,         2496115977.0,
            2267707328.0,         4192754391.0,         3326698294.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.499674E+05
  P =   1.705706E+03  5.494597E+04 -2.438478E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   7.201882E+04
  P =   8.513592E+02 -1.424709E+04  7.059041E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   7.459095E+04
  P =   4.611505E+01 -1.626503E+04  7.279599E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   1.034228E+05
  P =  -2.603180E+03 -2.443384E+04  1.004614E+05
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  3.848906258E-12
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499984E+05
  P =   1.706016E+03  5.495281E+04 -2.438780E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.754199E+05
  P =  -1.752223E+03 -3.868982E+04  1.710911E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   7.458170E+04
  P =   4.620751E+01 -1.626299E+04  7.278697E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.499853E+05
  P =   1.706024E+03  5.494993E+04 -2.438652E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.754291E+05
  P =  -1.752218E+03 -3.869184E+04  1.711001E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   3.061428E+04
  P =   6.524800E+02 -5.947974E+03  3.002382E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   4.397135E+04
  P =  -6.062864E+02 -1.031012E+04  4.274124E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.026503E+05
  P =  -1.354547E+03  2.503842E+04 -9.954061E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.753888E+05
  P =  -1.752012E+03 -3.868300E+04  1.710608E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   7.456851E+04
  P =   4.629753E+01 -1.626009E+04  7.277410E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   1.473923E+05
  P =   3.060261E+03  2.990467E+04 -1.442943E+05
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.499674E+05
  P =   1.705706E+03  5.494597E+04 -2.438478E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   7.201882E+04
  P =   8.513592E+02 -1.424709E+04  7.059041E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   7.459095E+04
  P =   4.611505E+01 -1.626503E+04  7.279599E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   1.034228E+05
  P =  -2.603180E+03 -2.443384E+04  1.004614E+05
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 3
 n_tot* => 5
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  0.00000E+00
 sqme_ref* =>  0.00000E+00
 event_index* => 6
 event_weight* =>  0.00000E+00
 event_weight_ref* =>  0.00000E+00
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-2| 2.4999844E+05; 1.7060160E+03, 5.4952809E+04,-2.4387804E+05| 0.0000000E+00| 3)
  4 prt(o:2| 1.7541986E+05;-1.7522235E+03,-3.8689819E+04, 1.7109108E+05| 0.0000000E+00| 4)
  5 prt(o:21| 7.4581696E+04; 4.6207513E+01,-1.6262989E+04, 7.2786966E+04| 0.0000000E+00| 5)
 ========================================================================
 ========================================================================
  Event #6
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  0.00000E+00
    Squared matrix el. (prc) =  0.00000E+00
    Event weight (ref)       =  0.00000E+00
    Event weight (prc)       =  0.00000E+00
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            2643453732.0,          343801519.0,         3374377404.0,
            2585822891.0,         2834629654.0,          677007669.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499984E+05
  P =   1.706016E+03  5.495281E+04 -2.438780E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.754199E+05
  P =  -1.752223E+03 -3.868982E+04  1.710911E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   7.458170E+04
  P =   4.620751E+01 -1.626299E+04  7.278697E+04
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            2714720639.0,         1946415819.0,         2496115977.0,
            2267707328.0,         4192754391.0,         3326698294.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.499674E+05
  P =   1.705706E+03  5.494597E+04 -2.438478E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   7.201882E+04
  P =   8.513592E+02 -1.424709E+04  7.059041E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   7.459095E+04
  P =   4.611505E+01 -1.626503E+04  7.279599E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   1.034228E+05
  P =  -2.603180E+03 -2.443384E+04  1.004614E+05
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  3.848906258E-12
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499984E+05
  P =   1.706016E+03  5.495281E+04 -2.438780E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.754199E+05
  P =  -1.752223E+03 -3.868982E+04  1.710911E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   7.458170E+04
  P =   4.620751E+01 -1.626299E+04  7.278697E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.499853E+05
  P =   1.706024E+03  5.494993E+04 -2.438652E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.754291E+05
  P =  -1.752218E+03 -3.869184E+04  1.711001E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   3.061428E+04
  P =   6.524800E+02 -5.947974E+03  3.002382E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   4.397135E+04
  P =  -6.062864E+02 -1.031012E+04  4.274124E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.026503E+05
  P =  -1.354547E+03  2.503842E+04 -9.954061E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.753888E+05
  P =  -1.752012E+03 -3.868300E+04  1.710608E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   7.456851E+04
  P =   4.629753E+01 -1.626009E+04  7.277410E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   1.473923E+05
  P =   3.060261E+03  2.990467E+04 -1.442943E+05
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.499674E+05
  P =   1.705706E+03  5.494597E+04 -2.438478E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   7.201882E+04
  P =   8.513592E+02 -1.424709E+04  7.059041E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   7.459095E+04
  P =   4.611505E+01 -1.626503E+04  7.279599E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   1.034228E+05
  P =  -2.603180E+03 -2.443384E+04  1.004614E+05
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  0.00000E+00
 sqme_ref* =>  0.00000E+00
 event_index* => 6
 event_weight* =>  0.00000E+00
 event_weight_ref* =>  0.00000E+00
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-2| 2.4998525E+05; 1.7060241E+03, 5.4949933E+04,-2.4386517E+05| 0.0000000E+00| 3)
  4 prt(o:2| 1.7542912E+05;-1.7522177E+03,-3.8691837E+04, 1.7110011E+05| 0.0000000E+00| 4)
  5 prt(o:-2| 3.0614277E+04; 6.5247997E+02,-5.9479744E+03, 3.0023821E+04| 0.0000000E+00| 5)
  6 prt(o:2| 4.3971353E+04;-6.0628636E+02,-1.0310121E+04, 4.2741241E+04| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #6
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  0.00000E+00
    Squared matrix el. (prc) =  0.00000E+00
    Event weight (ref)       =  0.00000E+00
    Event weight (prc)       =  0.00000E+00
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            2643453732.0,          343801519.0,         3374377404.0,
            2585822891.0,         2834629654.0,          677007669.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499984E+05
  P =   1.706016E+03  5.495281E+04 -2.438780E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.754199E+05
  P =  -1.752223E+03 -3.868982E+04  1.710911E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   7.458170E+04
  P =   4.620751E+01 -1.626299E+04  7.278697E+04
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            2714720639.0,         1946415819.0,         2496115977.0,
            2267707328.0,         4192754391.0,         3326698294.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.499674E+05
  P =   1.705706E+03  5.494597E+04 -2.438478E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   7.201882E+04
  P =   8.513592E+02 -1.424709E+04  7.059041E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   7.459095E+04
  P =   4.611505E+01 -1.626503E+04  7.279599E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   1.034228E+05
  P =  -2.603180E+03 -2.443384E+04  1.004614E+05
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  3.848906258E-12
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499984E+05
  P =   1.706016E+03  5.495281E+04 -2.438780E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.754199E+05
  P =  -1.752223E+03 -3.868982E+04  1.710911E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   7.458170E+04
  P =   4.620751E+01 -1.626299E+04  7.278697E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.499853E+05
  P =   1.706024E+03  5.494993E+04 -2.438652E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.754291E+05
  P =  -1.752218E+03 -3.869184E+04  1.711001E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   3.061428E+04
  P =   6.524800E+02 -5.947974E+03  3.002382E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   4.397135E+04
  P =  -6.062864E+02 -1.031012E+04  4.274124E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.026503E+05
  P =  -1.354547E+03  2.503842E+04 -9.954061E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.753888E+05
  P =  -1.752012E+03 -3.868300E+04  1.710608E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   7.456851E+04
  P =   4.629753E+01 -1.626009E+04  7.277410E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   1.473923E+05
  P =   3.060261E+03  2.990467E+04 -1.442943E+05
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.499674E+05
  P =   1.705706E+03  5.494597E+04 -2.438478E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   7.201882E+04
  P =   8.513592E+02 -1.424709E+04  7.059041E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   7.459095E+04
  P =   4.611505E+01 -1.626503E+04  7.279599E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   1.034228E+05
  P =  -2.603180E+03 -2.443384E+04  1.004614E+05
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  0.00000E+00
 sqme_ref* =>  0.00000E+00
 event_index* => 6
 event_weight* =>  0.00000E+00
 event_weight_ref* =>  0.00000E+00
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-2| 1.0265033E+05;-1.3545472E+03, 2.5038418E+04,-9.9540612E+04| 0.0000000E+00| 3)
  4 prt(o:2| 1.7538884E+05;-1.7520118E+03,-3.8682999E+04, 1.7106081E+05| 0.0000000E+00| 4)
  5 prt(o:-2| 7.4568505E+04; 4.6297531E+01,-1.6260090E+04, 7.2774098E+04| 0.0000000E+00| 5)
  6 prt(o:2| 1.4739233E+05; 3.0602614E+03, 2.9904671E+04,-1.4429429E+05| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #6
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  0.00000E+00
    Squared matrix el. (prc) =  0.00000E+00
    Event weight (ref)       =  0.00000E+00
    Event weight (prc)       =  0.00000E+00
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            2643453732.0,          343801519.0,         3374377404.0,
            2585822891.0,         2834629654.0,          677007669.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499984E+05
  P =   1.706016E+03  5.495281E+04 -2.438780E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.754199E+05
  P =  -1.752223E+03 -3.868982E+04  1.710911E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   7.458170E+04
  P =   4.620751E+01 -1.626299E+04  7.278697E+04
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            2714720639.0,         1946415819.0,         2496115977.0,
            2267707328.0,         4192754391.0,         3326698294.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.499674E+05
  P =   1.705706E+03  5.494597E+04 -2.438478E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   7.201882E+04
  P =   8.513592E+02 -1.424709E+04  7.059041E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   7.459095E+04
  P =   4.611505E+01 -1.626503E+04  7.279599E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   1.034228E+05
  P =  -2.603180E+03 -2.443384E+04  1.004614E+05
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  3.848906258E-12
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499984E+05
  P =   1.706016E+03  5.495281E+04 -2.438780E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.754199E+05
  P =  -1.752223E+03 -3.868982E+04  1.710911E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   7.458170E+04
  P =   4.620751E+01 -1.626299E+04  7.278697E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.499853E+05
  P =   1.706024E+03  5.494993E+04 -2.438652E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.754291E+05
  P =  -1.752218E+03 -3.869184E+04  1.711001E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   3.061428E+04
  P =   6.524800E+02 -5.947974E+03  3.002382E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   4.397135E+04
  P =  -6.062864E+02 -1.031012E+04  4.274124E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.026503E+05
  P =  -1.354547E+03  2.503842E+04 -9.954061E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.753888E+05
  P =  -1.752012E+03 -3.868300E+04  1.710608E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   7.456851E+04
  P =   4.629753E+01 -1.626009E+04  7.277410E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   1.473923E+05
  P =   3.060261E+03  2.990467E+04 -1.442943E+05
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.499674E+05
  P =   1.705706E+03  5.494597E+04 -2.438478E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   7.201882E+04
  P =   8.513592E+02 -1.424709E+04  7.059041E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   7.459095E+04
  P =   4.611505E+01 -1.626503E+04  7.279599E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   1.034228E+05
  P =  -2.603180E+03 -2.443384E+04  1.004614E+05
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  0.00000E+00
 sqme_ref* =>  0.00000E+00
 event_index* => 6
 event_weight* =>  0.00000E+00
 event_weight_ref* =>  0.00000E+00
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-2| 2.4996742E+05; 1.7057061E+03, 5.4945966E+04,-2.4384778E+05| 0.0000000E+00| 3)
  4 prt(o:2| 7.2018820E+04; 8.5135922E+02,-1.4247092E+04, 7.0590410E+04| 0.0000000E+00| 4)
  5 prt(o:-2| 7.4590952E+04; 4.6115053E+01,-1.6265031E+04, 7.2795994E+04| 0.0000000E+00| 5)
  6 prt(o:2| 1.0342281E+05;-2.6031803E+03,-2.4433843E+04, 1.0046138E+05| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #7
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  8.55503E-11
    Squared matrix el. (prc) =  3.55893E-11
    Event weight (ref)       =  7.63602E-07
    Event weight (prc)       =  3.17662E-07
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            2042523454.0,         1790911384.0,         3715479539.0,
            3582083863.0,         2240445629.0,         3470253870.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   2.195208E+05
  P =   1.239610E+04  7.088129E+04 -2.073923E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.402876E+05
  P =  -4.887422E+04 -7.109854E+04  2.242643E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   4.019160E+04
  P =   3.647812E+04  2.172480E+02 -1.687199E+04
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            3203562530.0,          370100846.0,         1647107524.0,
            1466280485.0,         4189984473.0,          360074395.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.444813E+05
  P =  -3.132862E+03  4.829092E+04 -1.361361E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.873602E+05
  P =   7.577496E+04  3.340176E+04  1.680664E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.369711E+04
  P =   3.332590E+04 -4.368366E+03 -2.407710E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.344614E+05
  P =  -1.059680E+05 -7.732432E+04 -2.952268E+04
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  1.501742439E-12
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.195208E+05
  P =   1.239610E+04  7.088129E+04 -2.073923E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.402876E+05
  P =  -4.887422E+04 -7.109854E+04  2.242643E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   4.019160E+04
  P =   3.647812E+04  2.172480E+02 -1.687199E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   2.244498E+05
  P =   2.194884E+04  7.093818E+04 -2.118106E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.339690E+05
  P =  -3.866983E+04 -7.103777E+04  2.195445E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.909056E+04
  P =   1.211138E+04  6.048845E+03  1.346014E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.249061E+04
  P =   4.609609E+03 -5.949262E+03 -2.119400E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   1.604817E+05
  P =  -1.425889E+04  1.471368E+05 -6.246461E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   1.668286E+05
  P =  -4.465765E+04 -4.698808E+04  1.537192E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   4.984911E+04
  P =   3.741068E+04  5.549687E+03 -3.247423E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.228405E+05
  P =   2.150586E+04 -1.056984E+05 -5.878040E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.444813E+05
  P =  -3.132862E+03  4.829092E+04 -1.361361E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.873602E+05
  P =   7.577496E+04  3.340176E+04  1.680664E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.369711E+04
  P =   3.332590E+04 -4.368366E+03 -2.407710E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.344614E+05
  P =  -1.059680E+05 -7.732432E+04 -2.952268E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 3
 n_tot* => 5
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  3.55893E-11
 sqme_ref* =>  8.55503E-11
 event_index* => 7
 event_weight* =>  3.17662E-07
 event_weight_ref* =>  7.63602E-07
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-2| 2.1952077E+05; 1.2396103E+04, 7.0881292E+04,-2.0739226E+05| 0.0000000E+00| 3)
  4 prt(o:2| 2.4028763E+05;-4.8874220E+04,-7.1098540E+04, 2.2426425E+05| 0.0000000E+00| 4)
  5 prt(o:21| 4.0191596E+04; 3.6478117E+04, 2.1724804E+02,-1.6871992E+04| 0.0000000E+00| 5)
 ========================================================================
 ========================================================================
  Event #7
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  8.55503E-11
    Squared matrix el. (prc) =  4.70453E-11
    Event weight (ref)       =  7.63602E-07
    Event weight (prc)       =  4.19915E-07
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            2042523454.0,         1790911384.0,         3715479539.0,
            3582083863.0,         2240445629.0,         3470253870.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   2.195208E+05
  P =   1.239610E+04  7.088129E+04 -2.073923E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.402876E+05
  P =  -4.887422E+04 -7.109854E+04  2.242643E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   4.019160E+04
  P =   3.647812E+04  2.172480E+02 -1.687199E+04
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            3203562530.0,          370100846.0,         1647107524.0,
            1466280485.0,         4189984473.0,          360074395.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.444813E+05
  P =  -3.132862E+03  4.829092E+04 -1.361361E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.873602E+05
  P =   7.577496E+04  3.340176E+04  1.680664E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.369711E+04
  P =   3.332590E+04 -4.368366E+03 -2.407710E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.344614E+05
  P =  -1.059680E+05 -7.732432E+04 -2.952268E+04
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  1.501742439E-12
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.195208E+05
  P =   1.239610E+04  7.088129E+04 -2.073923E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.402876E+05
  P =  -4.887422E+04 -7.109854E+04  2.242643E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   4.019160E+04
  P =   3.647812E+04  2.172480E+02 -1.687199E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   2.244498E+05
  P =   2.194884E+04  7.093818E+04 -2.118106E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.339690E+05
  P =  -3.866983E+04 -7.103777E+04  2.195445E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.909056E+04
  P =   1.211138E+04  6.048845E+03  1.346014E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.249061E+04
  P =   4.609609E+03 -5.949262E+03 -2.119400E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   1.604817E+05
  P =  -1.425889E+04  1.471368E+05 -6.246461E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   1.668286E+05
  P =  -4.465765E+04 -4.698808E+04  1.537192E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   4.984911E+04
  P =   3.741068E+04  5.549687E+03 -3.247423E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.228405E+05
  P =   2.150586E+04 -1.056984E+05 -5.878040E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.444813E+05
  P =  -3.132862E+03  4.829092E+04 -1.361361E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.873602E+05
  P =   7.577496E+04  3.340176E+04  1.680664E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.369711E+04
  P =   3.332590E+04 -4.368366E+03 -2.407710E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.344614E+05
  P =  -1.059680E+05 -7.732432E+04 -2.952268E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  4.70453E-11
 sqme_ref* =>  8.55503E-11
 event_index* => 7
 event_weight* =>  4.19915E-07
 event_weight_ref* =>  7.63602E-07
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-3| 2.2444981E+05; 2.1948838E+04, 7.0938184E+04,-2.1181062E+05| 0.0000000E+00| 3)
  4 prt(o:3| 2.3396901E+05;-3.8669832E+04,-7.1037767E+04, 2.1954448E+05| 0.0000000E+00| 4)
  5 prt(o:21| 1.9090562E+04; 1.2111384E+04, 6.0488448E+03, 1.3460141E+04| 0.0000000E+00| 5)
  6 prt(o:21| 2.2490614E+04; 4.6096094E+03,-5.9492617E+03,-2.1193996E+04| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #7
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  8.55503E-11
    Squared matrix el. (prc) =  1.41404E-12
    Event weight (ref)       =  7.63602E-07
    Event weight (prc)       =  1.26214E-08
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            2042523454.0,         1790911384.0,         3715479539.0,
            3582083863.0,         2240445629.0,         3470253870.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   2.195208E+05
  P =   1.239610E+04  7.088129E+04 -2.073923E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.402876E+05
  P =  -4.887422E+04 -7.109854E+04  2.242643E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   4.019160E+04
  P =   3.647812E+04  2.172480E+02 -1.687199E+04
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            3203562530.0,          370100846.0,         1647107524.0,
            1466280485.0,         4189984473.0,          360074395.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.444813E+05
  P =  -3.132862E+03  4.829092E+04 -1.361361E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.873602E+05
  P =   7.577496E+04  3.340176E+04  1.680664E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.369711E+04
  P =   3.332590E+04 -4.368366E+03 -2.407710E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.344614E+05
  P =  -1.059680E+05 -7.732432E+04 -2.952268E+04
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  1.501742439E-12
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.195208E+05
  P =   1.239610E+04  7.088129E+04 -2.073923E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.402876E+05
  P =  -4.887422E+04 -7.109854E+04  2.242643E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   4.019160E+04
  P =   3.647812E+04  2.172480E+02 -1.687199E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   2.244498E+05
  P =   2.194884E+04  7.093818E+04 -2.118106E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.339690E+05
  P =  -3.866983E+04 -7.103777E+04  2.195445E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.909056E+04
  P =   1.211138E+04  6.048845E+03  1.346014E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.249061E+04
  P =   4.609609E+03 -5.949262E+03 -2.119400E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   1.604817E+05
  P =  -1.425889E+04  1.471368E+05 -6.246461E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   1.668286E+05
  P =  -4.465765E+04 -4.698808E+04  1.537192E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   4.984911E+04
  P =   3.741068E+04  5.549687E+03 -3.247423E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.228405E+05
  P =   2.150586E+04 -1.056984E+05 -5.878040E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.444813E+05
  P =  -3.132862E+03  4.829092E+04 -1.361361E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.873602E+05
  P =   7.577496E+04  3.340176E+04  1.680664E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.369711E+04
  P =   3.332590E+04 -4.368366E+03 -2.407710E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.344614E+05
  P =  -1.059680E+05 -7.732432E+04 -2.952268E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  1.41404E-12
 sqme_ref* =>  8.55503E-11
 event_index* => 7
 event_weight* =>  1.26214E-08
 event_weight_ref* =>  7.63602E-07
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-1| 1.6048174E+05;-1.4258890E+04, 1.4713683E+05,-6.2464608E+04| 0.0000000E+00| 3)
  4 prt(o:1| 1.6682862E+05;-4.4657654E+04,-4.6988084E+04, 1.5371923E+05| 0.0000000E+00| 4)
  5 prt(o:21| 4.9849108E+04; 3.7410683E+04, 5.5496867E+03,-3.2474226E+04| 0.0000000E+00| 5)
  6 prt(o:21| 1.2284053E+05; 2.1505860E+04,-1.0569843E+05,-5.8780399E+04| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #7
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  8.55503E-11
    Squared matrix el. (prc) =  1.50174E-12
    Event weight (ref)       =  7.63602E-07
    Event weight (prc)       =  1.34042E-08
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            2042523454.0,         1790911384.0,         3715479539.0,
            3582083863.0,         2240445629.0,         3470253870.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   2.195208E+05
  P =   1.239610E+04  7.088129E+04 -2.073923E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.402876E+05
  P =  -4.887422E+04 -7.109854E+04  2.242643E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   4.019160E+04
  P =   3.647812E+04  2.172480E+02 -1.687199E+04
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            3203562530.0,          370100846.0,         1647107524.0,
            1466280485.0,         4189984473.0,          360074395.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.444813E+05
  P =  -3.132862E+03  4.829092E+04 -1.361361E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.873602E+05
  P =   7.577496E+04  3.340176E+04  1.680664E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.369711E+04
  P =   3.332590E+04 -4.368366E+03 -2.407710E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.344614E+05
  P =  -1.059680E+05 -7.732432E+04 -2.952268E+04
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  1.501742439E-12
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.195208E+05
  P =   1.239610E+04  7.088129E+04 -2.073923E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.402876E+05
  P =  -4.887422E+04 -7.109854E+04  2.242643E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   4.019160E+04
  P =   3.647812E+04  2.172480E+02 -1.687199E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   2.244498E+05
  P =   2.194884E+04  7.093818E+04 -2.118106E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.339690E+05
  P =  -3.866983E+04 -7.103777E+04  2.195445E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.909056E+04
  P =   1.211138E+04  6.048845E+03  1.346014E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.249061E+04
  P =   4.609609E+03 -5.949262E+03 -2.119400E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   1.604817E+05
  P =  -1.425889E+04  1.471368E+05 -6.246461E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   1.668286E+05
  P =  -4.465765E+04 -4.698808E+04  1.537192E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   4.984911E+04
  P =   3.741068E+04  5.549687E+03 -3.247423E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.228405E+05
  P =   2.150586E+04 -1.056984E+05 -5.878040E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.444813E+05
  P =  -3.132862E+03  4.829092E+04 -1.361361E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.873602E+05
  P =   7.577496E+04  3.340176E+04  1.680664E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.369711E+04
  P =   3.332590E+04 -4.368366E+03 -2.407710E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.344614E+05
  P =  -1.059680E+05 -7.732432E+04 -2.952268E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  1.50174E-12
 sqme_ref* =>  8.55503E-11
 event_index* => 7
 event_weight* =>  1.34042E-08
 event_weight_ref* =>  7.63602E-07
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-2| 1.4448132E+05;-3.1328617E+03, 4.8290923E+04,-1.3613605E+05| 0.0000000E+00| 3)
  4 prt(o:2| 1.8736022E+05; 7.5774962E+04, 3.3401761E+04, 1.6806644E+05| 0.0000000E+00| 4)
  5 prt(o:21| 3.3697108E+04; 3.3325896E+04,-4.3683660E+03,-2.4077104E+03| 0.0000000E+00| 5)
  6 prt(o:21| 1.3446135E+05;-1.0596800E+05,-7.7324317E+04,-2.9522682E+04| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #8
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  1.79521E-07
    Squared matrix el. (prc) =  1.56951E-07
    Event weight (ref)       =  1.57909E-05
    Event weight (prc)       =  1.38056E-05
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            3361222980.0,            3601284.0,         3842382860.0,
            2580515999.0,         3568184670.0,          735623006.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499388E+05
  P =   2.534187E+04  5.389475E+04 -2.427396E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.479782E+05
  P =  -2.446564E+04 -5.332377E+04  2.409381E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.083082E+03
  P =  -8.762376E+02 -5.709856E+02  1.801503E+03
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            2280904955.0,         1539004561.0,          852756080.0,
            3258303332.0,         2415368508.0,         1295976056.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   1.868213E+05
  P =   1.911464E+04  4.032226E+04 -1.814137E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   8.644486E+04
  P =   4.529927E+04  7.353426E+04 -3.660886E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.750401E+03
  P =  -9.451524E+02 -7.211880E+02  2.480178E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.239835E+05
  P =  -6.346876E+04 -1.131353E+05  1.825944E+05
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  4.950788936E-12
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499388E+05
  P =   2.534187E+04  5.389475E+04 -2.427396E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.479782E+05
  P =  -2.446564E+04 -5.332377E+04  2.409381E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.083082E+03
  P =  -8.762376E+02 -5.709856E+02  1.801503E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.497882E+05
  P =   2.527464E+04  5.385094E+04 -2.426014E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.481274E+05
  P =  -2.453238E+04 -5.336726E+04  2.410754E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.027923E+02
  P =   1.805539E+02  9.186084E+01 -9.305294E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.881521E+03
  P =  -9.228099E+02 -5.755396E+02  1.535349E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   8.895887E+04
  P =   2.293156E+04  7.424874E+04  4.330067E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.837066E+05
  P =  -1.794896E+04 -3.946469E+04  1.785175E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.580182E+03
  P =  -8.209373E+02 -4.533780E+02  1.271804E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.257544E+05
  P =  -4.161665E+03 -3.433067E+04 -2.230899E+05
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   1.868213E+05
  P =   1.911464E+04  4.032226E+04 -1.814137E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   8.644486E+04
  P =   4.529927E+04  7.353426E+04 -3.660886E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.750401E+03
  P =  -9.451524E+02 -7.211880E+02  2.480178E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.239835E+05
  P =  -6.346876E+04 -1.131353E+05  1.825944E+05
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 3
 n_tot* => 5
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  1.56951E-07
 sqme_ref* =>  1.79521E-07
 event_index* => 8
 event_weight* =>  1.38056E-05
 event_weight_ref* =>  1.57909E-05
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-2| 2.4993875E+05; 2.5341874E+04, 5.3894751E+04,-2.4273963E+05| 0.0000000E+00| 3)
  4 prt(o:2| 2.4797816E+05;-2.4465636E+04,-5.3323765E+04, 2.4093812E+05| 0.0000000E+00| 4)
  5 prt(o:21| 2.0830822E+03;-8.7623760E+02,-5.7098564E+02, 1.8015034E+03| 0.0000000E+00| 5)
 ========================================================================
 ========================================================================
  Event #8
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  1.79521E-07
    Squared matrix el. (prc) =  2.25624E-08
    Event weight (ref)       =  1.57909E-05
    Event weight (prc)       =  1.98461E-06
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            3361222980.0,            3601284.0,         3842382860.0,
            2580515999.0,         3568184670.0,          735623006.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499388E+05
  P =   2.534187E+04  5.389475E+04 -2.427396E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.479782E+05
  P =  -2.446564E+04 -5.332377E+04  2.409381E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.083082E+03
  P =  -8.762376E+02 -5.709856E+02  1.801503E+03
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            2280904955.0,         1539004561.0,          852756080.0,
            3258303332.0,         2415368508.0,         1295976056.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   1.868213E+05
  P =   1.911464E+04  4.032226E+04 -1.814137E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   8.644486E+04
  P =   4.529927E+04  7.353426E+04 -3.660886E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.750401E+03
  P =  -9.451524E+02 -7.211880E+02  2.480178E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.239835E+05
  P =  -6.346876E+04 -1.131353E+05  1.825944E+05
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  4.950788936E-12
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499388E+05
  P =   2.534187E+04  5.389475E+04 -2.427396E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.479782E+05
  P =  -2.446564E+04 -5.332377E+04  2.409381E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.083082E+03
  P =  -8.762376E+02 -5.709856E+02  1.801503E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.497882E+05
  P =   2.527464E+04  5.385094E+04 -2.426014E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.481274E+05
  P =  -2.453238E+04 -5.336726E+04  2.410754E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.027923E+02
  P =   1.805539E+02  9.186084E+01 -9.305294E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.881521E+03
  P =  -9.228099E+02 -5.755396E+02  1.535349E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   8.895887E+04
  P =   2.293156E+04  7.424874E+04  4.330067E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.837066E+05
  P =  -1.794896E+04 -3.946469E+04  1.785175E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.580182E+03
  P =  -8.209373E+02 -4.533780E+02  1.271804E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.257544E+05
  P =  -4.161665E+03 -3.433067E+04 -2.230899E+05
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   1.868213E+05
  P =   1.911464E+04  4.032226E+04 -1.814137E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   8.644486E+04
  P =   4.529927E+04  7.353426E+04 -3.660886E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.750401E+03
  P =  -9.451524E+02 -7.211880E+02  2.480178E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.239835E+05
  P =  -6.346876E+04 -1.131353E+05  1.825944E+05
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  2.25624E-08
 sqme_ref* =>  1.79521E-07
 event_index* => 8
 event_weight* =>  1.98461E-06
 event_weight_ref* =>  1.57909E-05
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-2| 2.4978825E+05; 2.5274639E+04, 5.3850938E+04,-2.4260139E+05| 0.0000000E+00| 3)
  4 prt(o:2| 2.4812744E+05;-2.4532383E+04,-5.3367260E+04, 2.4107535E+05| 0.0000000E+00| 4)
  5 prt(o:21| 2.0279232E+02; 1.8055394E+02, 9.1860838E+01,-9.3052939E+00| 0.0000000E+00| 5)
  6 prt(o:21| 1.8815206E+03;-9.2280989E+02,-5.7553957E+02, 1.5353488E+03| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #8
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  1.79521E-07
    Squared matrix el. (prc) =  2.44130E-12
    Event weight (ref)       =  1.57909E-05
    Event weight (prc)       =  2.14739E-10
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            3361222980.0,            3601284.0,         3842382860.0,
            2580515999.0,         3568184670.0,          735623006.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499388E+05
  P =   2.534187E+04  5.389475E+04 -2.427396E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.479782E+05
  P =  -2.446564E+04 -5.332377E+04  2.409381E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.083082E+03
  P =  -8.762376E+02 -5.709856E+02  1.801503E+03
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            2280904955.0,         1539004561.0,          852756080.0,
            3258303332.0,         2415368508.0,         1295976056.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   1.868213E+05
  P =   1.911464E+04  4.032226E+04 -1.814137E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   8.644486E+04
  P =   4.529927E+04  7.353426E+04 -3.660886E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.750401E+03
  P =  -9.451524E+02 -7.211880E+02  2.480178E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.239835E+05
  P =  -6.346876E+04 -1.131353E+05  1.825944E+05
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  4.950788936E-12
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499388E+05
  P =   2.534187E+04  5.389475E+04 -2.427396E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.479782E+05
  P =  -2.446564E+04 -5.332377E+04  2.409381E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.083082E+03
  P =  -8.762376E+02 -5.709856E+02  1.801503E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.497882E+05
  P =   2.527464E+04  5.385094E+04 -2.426014E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.481274E+05
  P =  -2.453238E+04 -5.336726E+04  2.410754E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.027923E+02
  P =   1.805539E+02  9.186084E+01 -9.305294E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.881521E+03
  P =  -9.228099E+02 -5.755396E+02  1.535349E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   8.895887E+04
  P =   2.293156E+04  7.424874E+04  4.330067E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.837066E+05
  P =  -1.794896E+04 -3.946469E+04  1.785175E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.580182E+03
  P =  -8.209373E+02 -4.533780E+02  1.271804E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.257544E+05
  P =  -4.161665E+03 -3.433067E+04 -2.230899E+05
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   1.868213E+05
  P =   1.911464E+04  4.032226E+04 -1.814137E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   8.644486E+04
  P =   4.529927E+04  7.353426E+04 -3.660886E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.750401E+03
  P =  -9.451524E+02 -7.211880E+02  2.480178E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.239835E+05
  P =  -6.346876E+04 -1.131353E+05  1.825944E+05
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  2.44130E-12
 sqme_ref* =>  1.79521E-07
 event_index* => 8
 event_weight* =>  2.14739E-10
 event_weight_ref* =>  1.57909E-05
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-2| 8.8958866E+04; 2.2931558E+04, 7.4248739E+04, 4.3300672E+04| 0.0000000E+00| 3)
  4 prt(o:2| 1.8370659E+05;-1.7948956E+04,-3.9464693E+04, 1.7851746E+05| 0.0000000E+00| 4)
  5 prt(o:21| 1.5801816E+03;-8.2093725E+02,-4.5337797E+02, 1.2718036E+03| 0.0000000E+00| 5)
  6 prt(o:21| 2.2575437E+05;-4.1616648E+03,-3.4330669E+04,-2.2308994E+05| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #8
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  1.79521E-07
    Squared matrix el. (prc) =  4.95079E-12
    Event weight (ref)       =  1.57909E-05
    Event weight (prc)       =  4.35477E-10
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            3361222980.0,            3601284.0,         3842382860.0,
            2580515999.0,         3568184670.0,          735623006.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499388E+05
  P =   2.534187E+04  5.389475E+04 -2.427396E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.479782E+05
  P =  -2.446564E+04 -5.332377E+04  2.409381E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.083082E+03
  P =  -8.762376E+02 -5.709856E+02  1.801503E+03
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            2280904955.0,         1539004561.0,          852756080.0,
            3258303332.0,         2415368508.0,         1295976056.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   1.868213E+05
  P =   1.911464E+04  4.032226E+04 -1.814137E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   8.644486E+04
  P =   4.529927E+04  7.353426E+04 -3.660886E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.750401E+03
  P =  -9.451524E+02 -7.211880E+02  2.480178E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.239835E+05
  P =  -6.346876E+04 -1.131353E+05  1.825944E+05
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  4.950788936E-12
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499388E+05
  P =   2.534187E+04  5.389475E+04 -2.427396E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.479782E+05
  P =  -2.446564E+04 -5.332377E+04  2.409381E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.083082E+03
  P =  -8.762376E+02 -5.709856E+02  1.801503E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.497882E+05
  P =   2.527464E+04  5.385094E+04 -2.426014E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.481274E+05
  P =  -2.453238E+04 -5.336726E+04  2.410754E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.027923E+02
  P =   1.805539E+02  9.186084E+01 -9.305294E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.881521E+03
  P =  -9.228099E+02 -5.755396E+02  1.535349E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   8.895887E+04
  P =   2.293156E+04  7.424874E+04  4.330067E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.837066E+05
  P =  -1.794896E+04 -3.946469E+04  1.785175E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.580182E+03
  P =  -8.209373E+02 -4.533780E+02  1.271804E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.257544E+05
  P =  -4.161665E+03 -3.433067E+04 -2.230899E+05
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   1.868213E+05
  P =   1.911464E+04  4.032226E+04 -1.814137E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   8.644486E+04
  P =   4.529927E+04  7.353426E+04 -3.660886E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.750401E+03
  P =  -9.451524E+02 -7.211880E+02  2.480178E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.239835E+05
  P =  -6.346876E+04 -1.131353E+05  1.825944E+05
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  4.95079E-12
 sqme_ref* =>  1.79521E-07
 event_index* => 8
 event_weight* =>  4.35477E-10
 event_weight_ref* =>  1.57909E-05
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-1| 1.8682125E+05; 1.9114640E+04, 4.0322263E+04,-1.8141369E+05| 0.0000000E+00| 3)
  4 prt(o:1| 8.6444859E+04; 4.5299272E+04, 7.3534261E+04,-3.6608858E+03| 0.0000000E+00| 4)
  5 prt(o:21| 2.7504015E+03;-9.4515241E+02,-7.2118804E+02, 2.4801780E+03| 0.0000000E+00| 5)
  6 prt(o:21| 2.2398349E+05;-6.3468759E+04,-1.1313534E+05, 1.8259440E+05| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #9
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  1.02232E-08
    Squared matrix el. (prc) =  2.86600E-07
    Event weight (ref)       =  1.47210E-06
    Event weight (prc)       =  0.00000E+00
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            1484659988.0,         1927671876.0,         4126230753.0,
            2962609785.0,         2346280463.0,         1525515485.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   2.499775E+05
  P =   3.262805E+03 -8.667148E+04 -2.344486E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.371317E+05
  P =  -3.750207E+03  8.144592E+04  2.226745E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.289085E+04
  P =   4.874027E+02  5.225563E+03  1.177412E+04
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            1981754768.0,         1371881432.0,         1113999651.0,
             130493356.0,         4030926615.0,         1806134700.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.264346E+05
  P =   2.890473E+03 -7.858530E+04 -2.123408E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.236217E+05
  P =   3.030647E+04  8.319946E+04  2.053437E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.422644E+04
  P =   4.662097E+02  5.685827E+03  1.303249E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   3.571726E+04
  P =  -3.366315E+04 -1.029999E+04 -6.035314E+03
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  1.494556901E-10
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499775E+05
  P =   3.262805E+03 -8.667148E+04 -2.344486E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.371317E+05
  P =  -3.750207E+03  8.144592E+04  2.226745E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.289085E+04
  P =   4.874027E+02  5.225563E+03  1.177412E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.487096E+05
  P =   3.310905E+03 -8.615579E+04 -2.332867E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.383402E+05
  P =  -3.704346E+03  8.193761E+04  2.237824E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.100863E+04
  P =   2.291857E+03  4.527782E+03  9.769162E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.941646E+03
  P =  -1.898416E+03 -3.096039E+02 -2.648602E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.371521E+05
  P =  -3.308394E+04 -7.653858E+04 -2.220099E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.135808E+05
  P =  -3.442808E+03  7.328032E+04  2.005863E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.161504E+04
  P =   5.041165E+02  4.781588E+03  1.057315E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   3.765212E+04
  P =   3.602263E+04 -1.523326E+03  1.085044E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.264346E+05
  P =   2.890473E+03 -7.858530E+04 -2.123408E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.236217E+05
  P =   3.030647E+04  8.319946E+04  2.053437E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.422644E+04
  P =   4.662097E+02  5.685827E+03  1.303249E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   3.571726E+04
  P =  -3.366315E+04 -1.029999E+04 -6.035314E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 3
 n_tot* => 5
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  2.86600E-07
 sqme_ref* =>  1.02232E-08
 event_index* => 9
 event_weight* =>  0.00000E+00
 event_weight_ref* =>  1.47210E-06
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-2| 2.4997748E+05; 3.2628046E+03,-8.6671481E+04,-2.3444861E+05| 0.0000000E+00| 3)
  4 prt(o:2| 2.3713167E+05;-3.7502073E+03, 8.1445918E+04, 2.2267449E+05| 0.0000000E+00| 4)
  5 prt(o:21| 1.2890846E+04; 4.8740273E+02, 5.2255632E+03, 1.1774117E+04| 0.0000000E+00| 5)
 ========================================================================
 ========================================================================
  Event #9
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  1.02232E-08
    Squared matrix el. (prc) =  9.93344E-09
    Event weight (ref)       =  1.47210E-06
    Event weight (prc)       =  1.43037E-06
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            1484659988.0,         1927671876.0,         4126230753.0,
            2962609785.0,         2346280463.0,         1525515485.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   2.499775E+05
  P =   3.262805E+03 -8.667148E+04 -2.344486E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.371317E+05
  P =  -3.750207E+03  8.144592E+04  2.226745E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.289085E+04
  P =   4.874027E+02  5.225563E+03  1.177412E+04
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            1981754768.0,         1371881432.0,         1113999651.0,
             130493356.0,         4030926615.0,         1806134700.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.264346E+05
  P =   2.890473E+03 -7.858530E+04 -2.123408E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.236217E+05
  P =   3.030647E+04  8.319946E+04  2.053437E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.422644E+04
  P =   4.662097E+02  5.685827E+03  1.303249E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   3.571726E+04
  P =  -3.366315E+04 -1.029999E+04 -6.035314E+03
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  1.494556901E-10
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499775E+05
  P =   3.262805E+03 -8.667148E+04 -2.344486E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.371317E+05
  P =  -3.750207E+03  8.144592E+04  2.226745E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.289085E+04
  P =   4.874027E+02  5.225563E+03  1.177412E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.487096E+05
  P =   3.310905E+03 -8.615579E+04 -2.332867E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.383402E+05
  P =  -3.704346E+03  8.193761E+04  2.237824E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.100863E+04
  P =   2.291857E+03  4.527782E+03  9.769162E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.941646E+03
  P =  -1.898416E+03 -3.096039E+02 -2.648602E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.371521E+05
  P =  -3.308394E+04 -7.653858E+04 -2.220099E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.135808E+05
  P =  -3.442808E+03  7.328032E+04  2.005863E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.161504E+04
  P =   5.041165E+02  4.781588E+03  1.057315E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   3.765212E+04
  P =   3.602263E+04 -1.523326E+03  1.085044E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.264346E+05
  P =   2.890473E+03 -7.858530E+04 -2.123408E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.236217E+05
  P =   3.030647E+04  8.319946E+04  2.053437E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.422644E+04
  P =   4.662097E+02  5.685827E+03  1.303249E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   3.571726E+04
  P =  -3.366315E+04 -1.029999E+04 -6.035314E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  9.93344E-09
 sqme_ref* =>  1.02232E-08
 event_index* => 9
 event_weight* =>  1.43037E-06
 event_weight_ref* =>  1.47210E-06
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-1| 2.4870956E+05; 3.3109050E+03,-8.6155785E+04,-2.3328665E+05| 0.0000000E+00| 3)
  4 prt(o:1| 2.3834017E+05;-3.7043461E+03, 8.1937607E+04, 2.2378235E+05| 0.0000000E+00| 4)
  5 prt(o:21| 1.1008630E+04; 2.2918569E+03, 4.5277823E+03, 9.7691618E+03| 0.0000000E+00| 5)
  6 prt(o:21| 1.9416457E+03;-1.8984158E+03,-3.0960385E+02,-2.6486017E+02| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #9
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  1.02232E-08
    Squared matrix el. (prc) =  1.40317E-10
    Event weight (ref)       =  1.47210E-06
    Event weight (prc)       =  2.02050E-08
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            1484659988.0,         1927671876.0,         4126230753.0,
            2962609785.0,         2346280463.0,         1525515485.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   2.499775E+05
  P =   3.262805E+03 -8.667148E+04 -2.344486E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.371317E+05
  P =  -3.750207E+03  8.144592E+04  2.226745E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.289085E+04
  P =   4.874027E+02  5.225563E+03  1.177412E+04
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            1981754768.0,         1371881432.0,         1113999651.0,
             130493356.0,         4030926615.0,         1806134700.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.264346E+05
  P =   2.890473E+03 -7.858530E+04 -2.123408E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.236217E+05
  P =   3.030647E+04  8.319946E+04  2.053437E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.422644E+04
  P =   4.662097E+02  5.685827E+03  1.303249E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   3.571726E+04
  P =  -3.366315E+04 -1.029999E+04 -6.035314E+03
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  1.494556901E-10
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499775E+05
  P =   3.262805E+03 -8.667148E+04 -2.344486E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.371317E+05
  P =  -3.750207E+03  8.144592E+04  2.226745E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.289085E+04
  P =   4.874027E+02  5.225563E+03  1.177412E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.487096E+05
  P =   3.310905E+03 -8.615579E+04 -2.332867E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.383402E+05
  P =  -3.704346E+03  8.193761E+04  2.237824E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.100863E+04
  P =   2.291857E+03  4.527782E+03  9.769162E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.941646E+03
  P =  -1.898416E+03 -3.096039E+02 -2.648602E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.371521E+05
  P =  -3.308394E+04 -7.653858E+04 -2.220099E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.135808E+05
  P =  -3.442808E+03  7.328032E+04  2.005863E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.161504E+04
  P =   5.041165E+02  4.781588E+03  1.057315E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   3.765212E+04
  P =   3.602263E+04 -1.523326E+03  1.085044E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.264346E+05
  P =   2.890473E+03 -7.858530E+04 -2.123408E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.236217E+05
  P =   3.030647E+04  8.319946E+04  2.053437E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.422644E+04
  P =   4.662097E+02  5.685827E+03  1.303249E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   3.571726E+04
  P =  -3.366315E+04 -1.029999E+04 -6.035314E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  1.40317E-10
 sqme_ref* =>  1.02232E-08
 event_index* => 9
 event_weight* =>  2.02050E-08
 event_weight_ref* =>  1.47210E-06
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-2| 2.3715208E+05;-3.3083935E+04,-7.6538582E+04,-2.2200993E+05| 0.0000000E+00| 3)
  4 prt(o:2| 2.1358075E+05;-3.4428081E+03, 7.3280321E+04, 2.0058634E+05| 0.0000000E+00| 4)
  5 prt(o:21| 1.1615045E+04; 5.0411647E+02, 4.7815878E+03, 1.0573152E+04| 0.0000000E+00| 5)
  6 prt(o:21| 3.7652121E+04; 3.6022627E+04,-1.5233261E+03, 1.0850441E+04| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #9
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  1.02232E-08
    Squared matrix el. (prc) =  1.49456E-10
    Event weight (ref)       =  1.47210E-06
    Event weight (prc)       =  2.15209E-08
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            1484659988.0,         1927671876.0,         4126230753.0,
            2962609785.0,         2346280463.0,         1525515485.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   2.499775E+05
  P =   3.262805E+03 -8.667148E+04 -2.344486E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.371317E+05
  P =  -3.750207E+03  8.144592E+04  2.226745E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.289085E+04
  P =   4.874027E+02  5.225563E+03  1.177412E+04
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            1981754768.0,         1371881432.0,         1113999651.0,
             130493356.0,         4030926615.0,         1806134700.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.264346E+05
  P =   2.890473E+03 -7.858530E+04 -2.123408E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.236217E+05
  P =   3.030647E+04  8.319946E+04  2.053437E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.422644E+04
  P =   4.662097E+02  5.685827E+03  1.303249E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   3.571726E+04
  P =  -3.366315E+04 -1.029999E+04 -6.035314E+03
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  1.494556901E-10
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499775E+05
  P =   3.262805E+03 -8.667148E+04 -2.344486E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.371317E+05
  P =  -3.750207E+03  8.144592E+04  2.226745E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.289085E+04
  P =   4.874027E+02  5.225563E+03  1.177412E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.487096E+05
  P =   3.310905E+03 -8.615579E+04 -2.332867E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.383402E+05
  P =  -3.704346E+03  8.193761E+04  2.237824E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.100863E+04
  P =   2.291857E+03  4.527782E+03  9.769162E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.941646E+03
  P =  -1.898416E+03 -3.096039E+02 -2.648602E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.371521E+05
  P =  -3.308394E+04 -7.653858E+04 -2.220099E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.135808E+05
  P =  -3.442808E+03  7.328032E+04  2.005863E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.161504E+04
  P =   5.041165E+02  4.781588E+03  1.057315E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   3.765212E+04
  P =   3.602263E+04 -1.523326E+03  1.085044E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.264346E+05
  P =   2.890473E+03 -7.858530E+04 -2.123408E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.236217E+05
  P =   3.030647E+04  8.319946E+04  2.053437E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.422644E+04
  P =   4.662097E+02  5.685827E+03  1.303249E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   3.571726E+04
  P =  -3.366315E+04 -1.029999E+04 -6.035314E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  1.49456E-10
 sqme_ref* =>  1.02232E-08
 event_index* => 9
 event_weight* =>  2.15209E-08
 event_weight_ref* =>  1.47210E-06
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-2| 2.2643462E+05; 2.8904732E+03,-7.8585296E+04,-2.1234084E+05| 0.0000000E+00| 3)
  4 prt(o:2| 2.2362168E+05; 3.0306470E+04, 8.3199455E+04, 2.0534367E+05| 0.0000000E+00| 4)
  5 prt(o:21| 1.4226444E+04; 4.6620969E+02, 5.6858273E+03, 1.3032487E+04| 0.0000000E+00| 5)
  6 prt(o:21| 3.5717259E+04;-3.3663153E+04,-1.0299987E+04,-6.0353137E+03| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #10
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  4.92778E-09
    Squared matrix el. (prc) =  7.74654E-07
    Event weight (ref)       =  1.03134E-04
    Event weight (prc)       =  0.00000E+00
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            2574779949.0,            1613258.0,          957203242.0,
            1832886249.0,         3404761797.0,         1098311093.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.498989E+05
  P =   1.189037E+05  2.145963E+05  4.753702E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.291126E+05
  P =  -1.114478E+05 -1.954003E+05 -4.348233E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.098856E+04
  P =  -7.455988E+03 -1.919602E+04 -4.054693E+03
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
             379220129.0,          955940867.0,          625050135.0,
            1046562733.0,         2664737320.0,          326107529.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.434709E+05
  P =   1.157767E+05  2.091137E+05  4.631699E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.217269E+05
  P =  -9.968093E+04 -1.951835E+05 -3.361440E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.153698E+04
  P =  -7.725518E+03 -1.966859E+04 -4.159853E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.326530E+04
  P =  -8.370269E+03  5.738346E+03 -8.542730E+03
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  5.293057844E-10
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.498989E+05
  P =   1.189037E+05  2.145963E+05  4.753702E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.291126E+05
  P =  -1.114478E+05 -1.954003E+05 -4.348233E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.098856E+04
  P =  -7.455988E+03 -1.919602E+04 -4.054693E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.493156E+05
  P =   1.186947E+05  2.140581E+05  4.742334E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.296477E+05
  P =  -1.116399E+05 -1.958949E+05 -4.358680E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.982150E+04
  P =  -6.219397E+03 -1.857106E+04 -3.053953E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.215208E+03
  P =  -8.354423E+02  4.078269E+02 -7.825887E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.424422E+05
  P =   1.046423E+05  2.116187E+05  5.518837E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.226841E+05
  P =  -1.083888E+05 -1.898795E+05 -4.225938E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.040489E+04
  P =  -7.175727E+03 -1.869021E+04 -3.942647E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.446880E+04
  P =   1.092225E+04 -3.048961E+03 -8.986342E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.434709E+05
  P =   1.157767E+05  2.091137E+05  4.631699E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.217269E+05
  P =  -9.968093E+04 -1.951835E+05 -3.361440E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.153698E+04
  P =  -7.725518E+03 -1.966859E+04 -4.159853E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.326530E+04
  P =  -8.370269E+03  5.738346E+03 -8.542730E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 3
 n_tot* => 5
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  7.74654E-07
 sqme_ref* =>  4.92778E-09
 event_index* => 10
 event_weight* =>  0.00000E+00
 event_weight_ref* =>  1.03134E-04
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-2| 2.4989885E+05; 1.1890374E+05, 2.1459629E+05, 4.7537023E+04| 0.0000000E+00| 3)
  4 prt(o:2| 2.2911259E+05;-1.1144776E+05,-1.9540027E+05,-4.3482330E+04| 0.0000000E+00| 4)
  5 prt(o:21| 2.0988556E+04;-7.4559875E+03,-1.9196021E+04,-4.0546932E+03| 0.0000000E+00| 5)
 ========================================================================
 ========================================================================
  Event #10
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  4.92778E-09
    Squared matrix el. (prc) =  3.94882E-09
    Event weight (ref)       =  1.03134E-04
    Event weight (prc)       =  8.26455E-05
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            2574779949.0,            1613258.0,          957203242.0,
            1832886249.0,         3404761797.0,         1098311093.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.498989E+05
  P =   1.189037E+05  2.145963E+05  4.753702E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.291126E+05
  P =  -1.114478E+05 -1.954003E+05 -4.348233E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.098856E+04
  P =  -7.455988E+03 -1.919602E+04 -4.054693E+03
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
             379220129.0,          955940867.0,          625050135.0,
            1046562733.0,         2664737320.0,          326107529.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.434709E+05
  P =   1.157767E+05  2.091137E+05  4.631699E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.217269E+05
  P =  -9.968093E+04 -1.951835E+05 -3.361440E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.153698E+04
  P =  -7.725518E+03 -1.966859E+04 -4.159853E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.326530E+04
  P =  -8.370269E+03  5.738346E+03 -8.542730E+03
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  5.293057844E-10
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.498989E+05
  P =   1.189037E+05  2.145963E+05  4.753702E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.291126E+05
  P =  -1.114478E+05 -1.954003E+05 -4.348233E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.098856E+04
  P =  -7.455988E+03 -1.919602E+04 -4.054693E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.493156E+05
  P =   1.186947E+05  2.140581E+05  4.742334E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.296477E+05
  P =  -1.116399E+05 -1.958949E+05 -4.358680E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.982150E+04
  P =  -6.219397E+03 -1.857106E+04 -3.053953E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.215208E+03
  P =  -8.354423E+02  4.078269E+02 -7.825887E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.424422E+05
  P =   1.046423E+05  2.116187E+05  5.518837E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.226841E+05
  P =  -1.083888E+05 -1.898795E+05 -4.225938E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.040489E+04
  P =  -7.175727E+03 -1.869021E+04 -3.942647E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.446880E+04
  P =   1.092225E+04 -3.048961E+03 -8.986342E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.434709E+05
  P =   1.157767E+05  2.091137E+05  4.631699E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.217269E+05
  P =  -9.968093E+04 -1.951835E+05 -3.361440E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.153698E+04
  P =  -7.725518E+03 -1.966859E+04 -4.159853E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.326530E+04
  P =  -8.370269E+03  5.738346E+03 -8.542730E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  3.94882E-09
 sqme_ref* =>  4.92778E-09
 event_index* => 10
 event_weight* =>  8.26455E-05
 event_weight_ref* =>  1.03134E-04
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-2| 2.4931560E+05; 1.1869470E+05, 2.1405809E+05, 4.7423341E+04| 0.0000000E+00| 3)
  4 prt(o:2| 2.2964769E+05;-1.1163986E+05,-1.9589486E+05,-4.3586799E+04| 0.0000000E+00| 4)
  5 prt(o:21| 1.9821498E+04;-6.2193968E+03,-1.8571060E+04,-3.0539532E+03| 0.0000000E+00| 5)
  6 prt(o:21| 1.2152085E+03;-8.3544228E+02, 4.0782685E+02,-7.8258868E+02| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #10
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  4.92778E-09
    Squared matrix el. (prc) =  4.49653E-10
    Event weight (ref)       =  1.03134E-04
    Event weight (prc)       =  9.41086E-06
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            2574779949.0,            1613258.0,          957203242.0,
            1832886249.0,         3404761797.0,         1098311093.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.498989E+05
  P =   1.189037E+05  2.145963E+05  4.753702E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.291126E+05
  P =  -1.114478E+05 -1.954003E+05 -4.348233E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.098856E+04
  P =  -7.455988E+03 -1.919602E+04 -4.054693E+03
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
             379220129.0,          955940867.0,          625050135.0,
            1046562733.0,         2664737320.0,          326107529.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.434709E+05
  P =   1.157767E+05  2.091137E+05  4.631699E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.217269E+05
  P =  -9.968093E+04 -1.951835E+05 -3.361440E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.153698E+04
  P =  -7.725518E+03 -1.966859E+04 -4.159853E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.326530E+04
  P =  -8.370269E+03  5.738346E+03 -8.542730E+03
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  5.293057844E-10
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.498989E+05
  P =   1.189037E+05  2.145963E+05  4.753702E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.291126E+05
  P =  -1.114478E+05 -1.954003E+05 -4.348233E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.098856E+04
  P =  -7.455988E+03 -1.919602E+04 -4.054693E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.493156E+05
  P =   1.186947E+05  2.140581E+05  4.742334E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.296477E+05
  P =  -1.116399E+05 -1.958949E+05 -4.358680E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.982150E+04
  P =  -6.219397E+03 -1.857106E+04 -3.053953E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.215208E+03
  P =  -8.354423E+02  4.078269E+02 -7.825887E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.424422E+05
  P =   1.046423E+05  2.116187E+05  5.518837E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.226841E+05
  P =  -1.083888E+05 -1.898795E+05 -4.225938E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.040489E+04
  P =  -7.175727E+03 -1.869021E+04 -3.942647E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.446880E+04
  P =   1.092225E+04 -3.048961E+03 -8.986342E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.434709E+05
  P =   1.157767E+05  2.091137E+05  4.631699E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.217269E+05
  P =  -9.968093E+04 -1.951835E+05 -3.361440E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.153698E+04
  P =  -7.725518E+03 -1.966859E+04 -4.159853E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.326530E+04
  P =  -8.370269E+03  5.738346E+03 -8.542730E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  4.49653E-10
 sqme_ref* =>  4.92778E-09
 event_index* => 10
 event_weight* =>  9.41086E-06
 event_weight_ref* =>  1.03134E-04
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-2| 2.4244221E+05; 1.0464228E+05, 2.1161867E+05, 5.5188367E+04| 0.0000000E+00| 3)
  4 prt(o:2| 2.2268411E+05;-1.0838880E+05,-1.8987950E+05,-4.2259378E+04| 0.0000000E+00| 4)
  5 prt(o:21| 2.0404888E+04;-7.1757273E+03,-1.8690210E+04,-3.9426468E+03| 0.0000000E+00| 5)
  6 prt(o:21| 1.4468799E+04; 1.0922254E+04,-3.0489615E+03,-8.9863420E+03| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #10
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  4.92778E-09
    Squared matrix el. (prc) =  5.29306E-10
    Event weight (ref)       =  1.03134E-04
    Event weight (prc)       =  1.10779E-05
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            2574779949.0,            1613258.0,          957203242.0,
            1832886249.0,         3404761797.0,         1098311093.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.498989E+05
  P =   1.189037E+05  2.145963E+05  4.753702E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.291126E+05
  P =  -1.114478E+05 -1.954003E+05 -4.348233E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.098856E+04
  P =  -7.455988E+03 -1.919602E+04 -4.054693E+03
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
             379220129.0,          955940867.0,          625050135.0,
            1046562733.0,         2664737320.0,          326107529.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.434709E+05
  P =   1.157767E+05  2.091137E+05  4.631699E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.217269E+05
  P =  -9.968093E+04 -1.951835E+05 -3.361440E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.153698E+04
  P =  -7.725518E+03 -1.966859E+04 -4.159853E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.326530E+04
  P =  -8.370269E+03  5.738346E+03 -8.542730E+03
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  5.293057844E-10
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.498989E+05
  P =   1.189037E+05  2.145963E+05  4.753702E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.291126E+05
  P =  -1.114478E+05 -1.954003E+05 -4.348233E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.098856E+04
  P =  -7.455988E+03 -1.919602E+04 -4.054693E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.493156E+05
  P =   1.186947E+05  2.140581E+05  4.742334E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.296477E+05
  P =  -1.116399E+05 -1.958949E+05 -4.358680E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.982150E+04
  P =  -6.219397E+03 -1.857106E+04 -3.053953E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.215208E+03
  P =  -8.354423E+02  4.078269E+02 -7.825887E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.424422E+05
  P =   1.046423E+05  2.116187E+05  5.518837E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.226841E+05
  P =  -1.083888E+05 -1.898795E+05 -4.225938E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.040489E+04
  P =  -7.175727E+03 -1.869021E+04 -3.942647E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.446880E+04
  P =   1.092225E+04 -3.048961E+03 -8.986342E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.434709E+05
  P =   1.157767E+05  2.091137E+05  4.631699E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.217269E+05
  P =  -9.968093E+04 -1.951835E+05 -3.361440E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.153698E+04
  P =  -7.725518E+03 -1.966859E+04 -4.159853E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.326530E+04
  P =  -8.370269E+03  5.738346E+03 -8.542730E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  5.29306E-10
 sqme_ref* =>  4.92778E-09
 event_index* => 10
 event_weight* =>  1.10779E-05
 event_weight_ref* =>  1.03134E-04
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-1| 2.4347085E+05; 1.1577672E+05, 2.0911371E+05, 4.6316987E+04| 0.0000000E+00| 3)
  4 prt(o:1| 2.2172687E+05;-9.9680934E+04,-1.9518347E+05,-3.3614404E+04| 0.0000000E+00| 4)
  5 prt(o:21| 2.1536975E+04;-7.7255182E+03,-1.9668586E+04,-4.1598530E+03| 0.0000000E+00| 5)
  6 prt(o:21| 1.3265303E+04;-8.3702695E+03, 5.7383460E+03,-8.5427301E+03| 0.0000000E+00| 6)
 ========================================================================
Index: trunk/share/tests/functional_tests/ref-output-ext/openloops_14.ref
===================================================================
--- trunk/share/tests/functional_tests/ref-output-ext/openloops_14.ref	(revision 8818)
+++ trunk/share/tests/functional_tests/ref-output-ext/openloops_14.ref	(revision 8819)
@@ -1,11136 +1,11137 @@
 ?openmp_logging = false
 ?vis_history = false
 ?integration_timer = false
 ?pacify = true
 | Switching to model 'SM', scheme 'GF_MW_MZ'
 $blha_ew_scheme = "alpha_qed"
 SM.mZ =>  9.11880E+01
 SM.mW =>  8.04190E+01
 SM.mH =>  1.25000E+02
 SM.GF =>  1.16639E-05
 SM.wZ =>  0.00000E+00
 SM.wtop =>  0.00000E+00
 SM.wW =>  0.00000E+00
 SM.wH =>  0.00000E+00
 SM.ms =>  0.00000E+00
 SM.mc =>  0.00000E+00
 SM.mb =>  0.00000E+00
 SM.mtop =>  1.73200E+02
 SM.me =>  0.00000E+00
 SM.mmu =>  0.00000E+00
 SM.mtau =>  1.77700E+00
 SM.alphas =>  1.18000E-01
 ?alphas_is_fixed = false
 ?alphas_from_mz = true
 ?alphas_from_lambda_qcd = false
 alphas_nf = 5
 [user variable] jet = PDG(2, -2, 1, -1, 3, -3, 21)
 $exclude_gauge_splittings = "c:b:t"
 $method = "openloops"
 ?use_vamp_equivalences = false
 $integration_method = "vamp2"
 $rng_method = "rng_stream"
 openmp_num_threads = 1
 jet_algorithm = 2
 jet_r =  5.00000E-01
 alpha_power = 2
 alphas_power = 1
+$openloops_allowed_libs = "ppllj"
 seed = 8131
 sqrts =  1.00000E+03
 ?combined_nlo_integration = true
 | Process library 'openloops_14_lib': recorded process 'openloops_14_p1'
 | Integrate: current process library needs compilation
 | Process library 'openloops_14_lib': compiling ...
 | Process library 'openloops_14_lib': writing makefile
 | Process library 'openloops_14_lib': removing old files
 | Process library 'openloops_14_lib': writing driver
 | Process library 'openloops_14_lib': creating source code
 | Process library 'openloops_14_lib': compiling sources
 | Process library 'openloops_14_lib': linking
 | Process library 'openloops_14_lib': loading
 | Process library 'openloops_14_lib': ... success.
 | Integrate: compilation done
 | QCD alpha: using a running strong coupling
 | RNG: Initializing RNG Stream random-number generator
 | RNG: Setting seed for random-number generator to 8131
 | Initializing integration for process openloops_14_p1:
 | Beam structure: [any particles]
 | Beam data (collision):
 |   e-  (mass = 0.0000000E+00 GeV)
 |   e+  (mass = 0.0000000E+00 GeV)
 |   sqrts = 1.000000000000E+03 GeV
 | Phase space: generating configuration ...
 Warning:  Intermediate decay of zero-width particle Z may be possible.
 | Phase space: ... success.
 | Phase space: writing configuration file 'openloops_14_p1.i1.phs'
 | Phase space: generating configuration ...
 | Phase space: ... success.
 | Phase space: writing configuration file 'openloops_14_p1.i3.phs'
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | ------------------------------------------------------------------------
 | Process [scattering]: 'openloops_14_p1'
 |   Library name  = 'openloops_14_lib'
 |   Process index = 1
 |   Process components:
 |     1: 'openloops_14_p1_i1':   e-, e+ => u:ubar:d:dbar:s:sbar:gl, u:ubar:d:dbar:s:sbar:gl, u:ubar:d:dbar:s:sbar:gl [openloops]
 |     2: 'openloops_14_p1_i2':   e-, e+ => d:dbar:u:ubar:s:sbar:gl, d:dbar:u:ubar:s:sbar:gl, d:dbar:u:ubar:s:sbar:gl, d:dbar:u:ubar:s:sbar:gl [openloops], [real]
 |     3: 'openloops_14_p1_i3':   e-, e+ => u:ubar:d:dbar:s:sbar:gl, u:ubar:d:dbar:s:sbar:gl, u:ubar:d:dbar:s:sbar:gl [openloops], [virtual]
 |     4: 'openloops_14_p1_i4':   e-, e+ => u:ubar:d:dbar:s:sbar:gl, u:ubar:d:dbar:s:sbar:gl, u:ubar:d:dbar:s:sbar:gl [inactive], [subtraction]
 | ------------------------------------------------------------------------
 | Phase space: 2 channels, 8 dimensions
 | Phase space: found 2 channels, collected in 1 grove.
 | Phase space: no equivalences between channels used.
 | Phase space: wood
 | Phase space: 2 channels, 8 dimensions
 | Phase space: found 2 channels, collected in 1 grove.
 | Phase space: no equivalences between channels used.
 | Phase space: wood
 | Phase space: 2 channels, 8 dimensions
 | Phase space: found 2 channels, collected in 1 grove.
 | Phase space: no equivalences between channels used.
 | Phase space: wood
 | Applying user-defined cuts.
 | Using user-defined general scale.
 | Starting integration for process 'openloops_14_p1'
 | Integrate: iterations = 1:100:"gw"
 | Integrator: 1 chains, 2 channels, 8 dimensions
 | Integrator: Write grid header and grids to 'openloops_14_p1.m1.vg2'
 | Integrator: Grid checkpoint after each iteration
 | Integrator: 100 initial calls, 20 max. bins, stratified = T
 | Integrator: VAMP2
 |=============================================================================|
 | It      Calls  Integral[fb]  Error[fb]   Err[%]    Acc  Eff[%]   Chi2 N[It] |
 |=============================================================================|
 | VAMP2: Initialize new grids and write to file 'openloops_14_p1.m1.vg2'.
 | VAMP2: set chain: use chained weights.
    1        100     2.884E+02   1.10E+02   37.98    3.80     6.8
 |-----------------------------------------------------------------------------|
    1        100     2.884E+02   1.10E+02   37.98    3.80     6.8
 |=============================================================================|
 n_events = 10
 $sample_normalization = "sigma"
 ?unweighted = false
 ?negative_weights = true
 ?keep_failed_events = true
 ?fixed_order_nlo_events = true
 ?debug_decay = false
 ?debug_process = false
 ?debug_verbose = false
 ?sample_pacify = true
 ?write_raw = false
 | Starting simulation for process 'openloops_14_p1'
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | Simulate: activating fixed-order NLO events
 | QCD alpha: using a running strong coupling
 | RNG: Initializing RNG Stream random-number generator
 | RNG: Setting seed for random-number generator to 8132
 | Events: writing to ASCII file 'openloops_14_p1.debug'
 | Events: generating 40 weighted, unpolarized NLO events ...
 | Events: event normalization mode 'sigma'
 |         ... event sample complete.
 | Events: closing ASCII file 'openloops_14_p1.debug'
 | There were no errors and    1 warning(s).
 | WHIZARD run finished.
 |=============================================================================|
 Total number of regions:    18
  alr ||                 flst_real || i_real ||  em || mul || nreg ||                         ftuples ||             flst_born ||  i_born || corr
    1 || [ 11,-11, -2,  2, -2,  2] ||      1 ||   5 ||   4 ||    4 || {(3,4),(3,6),(4,5),(5,6)} || [ 11,-11, -2,  2, 21] ||       1 ||  qcd
    2 || [ 11,-11, -2,  2, 21, 21] ||      2 ||   3 ||   2 ||    5 || {(3,5),(3,6),(4,5),(4,6),(5,6)} || [ 11,-11, -2,  2, 21] ||       1 ||  qcd
    3 || [ 11,-11, -2,  2, 21, 21] ||      2 ||   4 ||   2 ||    5 || {(3,5),(3,6),(4,5),(4,6),(5,6)} || [ 11,-11, -2,  2, 21] ||       1 ||  qcd
    4 || [ 11,-11, -2,  2, 21, 21] ||      2 ||   5 ||   1 ||    5 || {(3,5),(3,6),(4,5),(4,6),(5,6)} || [ 11,-11, -2,  2, 21] ||       1 ||  qcd
    5 || [ 11,-11, -2,  2, -3,  3] ||      3 ||   5 ||   1 ||    2 ||         {(3,4),(5,6)} || [ 11,-11, -2,  2, 21] ||       1 ||  qcd
    6 || [ 11,-11, -3,  3, -2,  2] ||      4 ||   5 ||   1 ||    2 ||         {(3,4),(5,6)} || [ 11,-11, -3,  3, 21] ||       2 ||  qcd
    7 || [ 11,-11, -2,  2, -1,  1] ||      5 ||   5 ||   1 ||    2 ||         {(3,4),(5,6)} || [ 11,-11, -2,  2, 21] ||       1 ||  qcd
    8 || [ 11,-11, -1,  1, -2,  2] ||      6 ||   5 ||   1 ||    2 ||         {(3,4),(5,6)} || [ 11,-11, -1,  1, 21] ||       3 ||  qcd
    9 || [ 11,-11, -3,  3, -3,  3] ||      7 ||   5 ||   4 ||    4 || {(3,4),(3,6),(4,5),(5,6)} || [ 11,-11, -3,  3, 21] ||       2 ||  qcd
   10 || [ 11,-11, -3,  3, -1,  1] ||      8 ||   5 ||   1 ||    2 ||         {(3,4),(5,6)} || [ 11,-11, -3,  3, 21] ||       2 ||  qcd
   11 || [ 11,-11, -1,  1, -3,  3] ||      9 ||   5 ||   1 ||    2 ||         {(3,4),(5,6)} || [ 11,-11, -1,  1, 21] ||       3 ||  qcd
   12 || [ 11,-11, -3,  3, 21, 21] ||     10 ||   3 ||   2 ||    5 || {(3,5),(3,6),(4,5),(4,6),(5,6)} || [ 11,-11, -3,  3, 21] ||       2 ||  qcd
   13 || [ 11,-11, -3,  3, 21, 21] ||     10 ||   4 ||   2 ||    5 || {(3,5),(3,6),(4,5),(4,6),(5,6)} || [ 11,-11, -3,  3, 21] ||       2 ||  qcd
   14 || [ 11,-11, -3,  3, 21, 21] ||     10 ||   5 ||   1 ||    5 || {(3,5),(3,6),(4,5),(4,6),(5,6)} || [ 11,-11, -3,  3, 21] ||       2 ||  qcd
   15 || [ 11,-11, -1,  1, -1,  1] ||     11 ||   5 ||   4 ||    4 || {(3,4),(3,6),(4,5),(5,6)} || [ 11,-11, -1,  1, 21] ||       3 ||  qcd
   16 || [ 11,-11, -1,  1, 21, 21] ||     12 ||   3 ||   2 ||    5 || {(3,5),(3,6),(4,5),(4,6),(5,6)} || [ 11,-11, -1,  1, 21] ||       3 ||  qcd
   17 || [ 11,-11, -1,  1, 21, 21] ||     12 ||   4 ||   2 ||    5 || {(3,5),(3,6),(4,5),(4,6),(5,6)} || [ 11,-11, -1,  1, 21] ||       3 ||  qcd
   18 || [ 11,-11, -1,  1, 21, 21] ||     12 ||   5 ||   1 ||    5 || {(3,5),(3,6),(4,5),(4,6),(5,6)} || [ 11,-11, -1,  1, 21] ||       3 ||  qcd
 ------------------------------------------------------------------------
 Contents of openloops_14_p1.debug:
 ========================================================================
  Event #1
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  5.08110E-05
    Squared matrix el. (prc) =  4.23657E-05
    Event weight (ref)       =  1.21665E+01
    Event weight (prc)       =  1.01443E+01
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3783293072.0,          709384797.0,         2916062426.0,
             235869783.0,          911733607.0,          940006607.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   4.867648E+02
  P =  -2.820047E+02  7.342522E+01 -3.899001E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.166196E+02
  P =   1.864136E+02  3.164927E+01  2.539612E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.966156E+02
  P =   9.559113E+01 -1.050745E+02  1.359388E+02
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            2861163583.0,         4290486744.0,          308936849.0,
            2121445242.0,         1709259940.0,         2314870259.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.260885E+02
  P =  -2.449437E+02  7.971743E+01 -3.394099E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.131457E+02
  P =   1.700840E+02 -8.440522E+01  9.684157E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.199472E+02
  P =   1.125032E+02 -1.022032E+02  1.589790E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.408186E+02
  P =  -3.764346E+01  1.068910E+02  8.358928E+01
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  2.751274086E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.867648E+02
  P =  -2.820047E+02  7.342522E+01 -3.899001E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.166196E+02
  P =   1.864136E+02  3.164927E+01  2.539612E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.966156E+02
  P =   9.559113E+01 -1.050745E+02  1.359388E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   4.521371E+02
  P =  -2.634904E+02  5.307415E+01 -3.635711E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.379195E+02
  P =   1.993205E+02  1.746188E+01  2.723160E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.224974E+02
  P =   1.387914E+01 -1.162034E+02  3.619029E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   8.744602E+01
  P =   5.029075E+01  4.566740E+01  5.506483E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.699128E+02
  P =  -5.432913E+01  1.963038E+02 -3.087858E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.536701E+02
  P =   1.484438E+02  4.153543E+01  2.014641E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.599253E+02
  P =   7.185269E+01 -9.889374E+01  1.031180E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.164917E+02
  P =  -1.659673E+02 -1.389455E+02  4.203659E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.260885E+02
  P =  -2.449437E+02  7.971743E+01 -3.394099E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.131457E+02
  P =   1.700840E+02 -8.440522E+01  9.684157E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.199472E+02
  P =   1.125032E+02 -1.022032E+02  1.589790E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.408186E+02
  P =  -3.764346E+01  1.068910E+02  8.358928E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 3
 n_tot* => 5
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  4.23657E-05
 sqme_ref* =>  5.08110E-05
 event_index* => 1
 event_weight* =>  1.01443E+01
 event_weight_ref* =>  1.21665E+01
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-2| 4.8676480E+02;-2.8200470E+02, 7.3425219E+01,-3.8990006E+02| 0.0000000E+00| 3)
  4 prt(o:2| 3.1661963E+02; 1.8641357E+02, 3.1649272E+01, 2.5396121E+02| 0.0000000E+00| 4)
  5 prt(o:21| 1.9661557E+02; 9.5591132E+01,-1.0507449E+02, 1.3593885E+02| 0.0000000E+00| 5)
 ========================================================================
 ========================================================================
  Event #1
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  5.08110E-05
    Squared matrix el. (prc) =  4.02751E-06
    Event weight (ref)       =  1.21665E+01
    Event weight (prc)       =  9.64373E-01
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3783293072.0,          709384797.0,         2916062426.0,
             235869783.0,          911733607.0,          940006607.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   4.867648E+02
  P =  -2.820047E+02  7.342522E+01 -3.899001E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.166196E+02
  P =   1.864136E+02  3.164927E+01  2.539612E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.966156E+02
  P =   9.559113E+01 -1.050745E+02  1.359388E+02
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            2861163583.0,         4290486744.0,          308936849.0,
            2121445242.0,         1709259940.0,         2314870259.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.260885E+02
  P =  -2.449437E+02  7.971743E+01 -3.394099E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.131457E+02
  P =   1.700840E+02 -8.440522E+01  9.684157E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.199472E+02
  P =   1.125032E+02 -1.022032E+02  1.589790E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.408186E+02
  P =  -3.764346E+01  1.068910E+02  8.358928E+01
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  2.751274086E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.867648E+02
  P =  -2.820047E+02  7.342522E+01 -3.899001E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.166196E+02
  P =   1.864136E+02  3.164927E+01  2.539612E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.966156E+02
  P =   9.559113E+01 -1.050745E+02  1.359388E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   4.521371E+02
  P =  -2.634904E+02  5.307415E+01 -3.635711E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.379195E+02
  P =   1.993205E+02  1.746188E+01  2.723160E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.224974E+02
  P =   1.387914E+01 -1.162034E+02  3.619029E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   8.744602E+01
  P =   5.029075E+01  4.566740E+01  5.506483E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.699128E+02
  P =  -5.432913E+01  1.963038E+02 -3.087858E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.536701E+02
  P =   1.484438E+02  4.153543E+01  2.014641E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.599253E+02
  P =   7.185269E+01 -9.889374E+01  1.031180E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.164917E+02
  P =  -1.659673E+02 -1.389455E+02  4.203659E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.260885E+02
  P =  -2.449437E+02  7.971743E+01 -3.394099E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.131457E+02
  P =   1.700840E+02 -8.440522E+01  9.684157E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.199472E+02
  P =   1.125032E+02 -1.022032E+02  1.589790E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.408186E+02
  P =  -3.764346E+01  1.068910E+02  8.358928E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  4.02751E-06
 sqme_ref* =>  5.08110E-05
 event_index* => 1
 event_weight* =>  9.64373E-01
 event_weight_ref* =>  1.21665E+01
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-1| 4.5213715E+02;-2.6349039E+02, 5.3074148E+01,-3.6357111E+02| 0.0000000E+00| 3)
  4 prt(o:1| 3.3791947E+02; 1.9932050E+02, 1.7461878E+01, 2.7231598E+02| 0.0000000E+00| 4)
  5 prt(o:21| 1.2249736E+02; 1.3879141E+01,-1.1620342E+02, 3.6190292E+01| 0.0000000E+00| 5)
  6 prt(o:21| 8.7446021E+01; 5.0290749E+01, 4.5667396E+01, 5.5064835E+01| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #1
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  5.08110E-05
    Squared matrix el. (prc) =  1.66644E-06
    Event weight (ref)       =  1.21665E+01
    Event weight (prc)       =  3.99023E-01
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3783293072.0,          709384797.0,         2916062426.0,
             235869783.0,          911733607.0,          940006607.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   4.867648E+02
  P =  -2.820047E+02  7.342522E+01 -3.899001E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.166196E+02
  P =   1.864136E+02  3.164927E+01  2.539612E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.966156E+02
  P =   9.559113E+01 -1.050745E+02  1.359388E+02
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            2861163583.0,         4290486744.0,          308936849.0,
            2121445242.0,         1709259940.0,         2314870259.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.260885E+02
  P =  -2.449437E+02  7.971743E+01 -3.394099E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.131457E+02
  P =   1.700840E+02 -8.440522E+01  9.684157E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.199472E+02
  P =   1.125032E+02 -1.022032E+02  1.589790E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.408186E+02
  P =  -3.764346E+01  1.068910E+02  8.358928E+01
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  2.751274086E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.867648E+02
  P =  -2.820047E+02  7.342522E+01 -3.899001E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.166196E+02
  P =   1.864136E+02  3.164927E+01  2.539612E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.966156E+02
  P =   9.559113E+01 -1.050745E+02  1.359388E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   4.521371E+02
  P =  -2.634904E+02  5.307415E+01 -3.635711E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.379195E+02
  P =   1.993205E+02  1.746188E+01  2.723160E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.224974E+02
  P =   1.387914E+01 -1.162034E+02  3.619029E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   8.744602E+01
  P =   5.029075E+01  4.566740E+01  5.506483E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.699128E+02
  P =  -5.432913E+01  1.963038E+02 -3.087858E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.536701E+02
  P =   1.484438E+02  4.153543E+01  2.014641E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.599253E+02
  P =   7.185269E+01 -9.889374E+01  1.031180E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.164917E+02
  P =  -1.659673E+02 -1.389455E+02  4.203659E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.260885E+02
  P =  -2.449437E+02  7.971743E+01 -3.394099E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.131457E+02
  P =   1.700840E+02 -8.440522E+01  9.684157E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.199472E+02
  P =   1.125032E+02 -1.022032E+02  1.589790E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.408186E+02
  P =  -3.764346E+01  1.068910E+02  8.358928E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  1.66644E-06
 sqme_ref* =>  5.08110E-05
 event_index* => 1
 event_weight* =>  3.99023E-01
 event_weight_ref* =>  1.21665E+01
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-2| 3.6991284E+02;-5.4329130E+01, 1.9630380E+02,-3.0878580E+02| 0.0000000E+00| 3)
  4 prt(o:2| 2.5367011E+02; 1.4844375E+02, 4.1535426E+01, 2.0146410E+02| 0.0000000E+00| 4)
  5 prt(o:21| 1.5992533E+02; 7.1852687E+01,-9.8893741E+01, 1.0311804E+02| 0.0000000E+00| 5)
  6 prt(o:21| 2.1649173E+02;-1.6596731E+02,-1.3894549E+02, 4.2036586E+00| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #1
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  5.08110E-05
    Squared matrix el. (prc) =  2.75127E-06
    Event weight (ref)       =  1.21665E+01
    Event weight (prc)       =  6.58782E-01
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3783293072.0,          709384797.0,         2916062426.0,
             235869783.0,          911733607.0,          940006607.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   4.867648E+02
  P =  -2.820047E+02  7.342522E+01 -3.899001E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.166196E+02
  P =   1.864136E+02  3.164927E+01  2.539612E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.966156E+02
  P =   9.559113E+01 -1.050745E+02  1.359388E+02
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            2861163583.0,         4290486744.0,          308936849.0,
            2121445242.0,         1709259940.0,         2314870259.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.260885E+02
  P =  -2.449437E+02  7.971743E+01 -3.394099E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.131457E+02
  P =   1.700840E+02 -8.440522E+01  9.684157E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.199472E+02
  P =   1.125032E+02 -1.022032E+02  1.589790E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.408186E+02
  P =  -3.764346E+01  1.068910E+02  8.358928E+01
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  2.751274086E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.867648E+02
  P =  -2.820047E+02  7.342522E+01 -3.899001E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.166196E+02
  P =   1.864136E+02  3.164927E+01  2.539612E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.966156E+02
  P =   9.559113E+01 -1.050745E+02  1.359388E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   4.521371E+02
  P =  -2.634904E+02  5.307415E+01 -3.635711E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.379195E+02
  P =   1.993205E+02  1.746188E+01  2.723160E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.224974E+02
  P =   1.387914E+01 -1.162034E+02  3.619029E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   8.744602E+01
  P =   5.029075E+01  4.566740E+01  5.506483E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.699128E+02
  P =  -5.432913E+01  1.963038E+02 -3.087858E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.536701E+02
  P =   1.484438E+02  4.153543E+01  2.014641E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.599253E+02
  P =   7.185269E+01 -9.889374E+01  1.031180E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.164917E+02
  P =  -1.659673E+02 -1.389455E+02  4.203659E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.260885E+02
  P =  -2.449437E+02  7.971743E+01 -3.394099E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.131457E+02
  P =   1.700840E+02 -8.440522E+01  9.684157E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.199472E+02
  P =   1.125032E+02 -1.022032E+02  1.589790E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.408186E+02
  P =  -3.764346E+01  1.068910E+02  8.358928E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  2.75127E-06
 sqme_ref* =>  5.08110E-05
 event_index* => 1
 event_weight* =>  6.58782E-01
 event_weight_ref* =>  1.21665E+01
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-2| 4.2608845E+02;-2.4494372E+02, 7.9717428E+01,-3.3940989E+02| 0.0000000E+00| 3)
  4 prt(o:2| 2.1314571E+02; 1.7008399E+02,-8.4405220E+01, 9.6841566E+01| 0.0000000E+00| 4)
  5 prt(o:21| 2.1994725E+02; 1.1250319E+02,-1.0220316E+02, 1.5897905E+02| 0.0000000E+00| 5)
  6 prt(o:21| 1.4081859E+02;-3.7643460E+01, 1.0689096E+02, 8.3589280E+01| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #2
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  1.51013E-06
    Squared matrix el. (prc) =  0.00000E+00
    Event weight (ref)       =  2.74570E+00
    Event weight (prc)       =  0.00000E+00
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            4165064571.0,          414625962.0,         4233066201.0,
            2875702212.0,         3446017903.0,         1634757042.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.168398E+02
  P =  -1.107928E+02  3.828032E+02  1.222379E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.970185E+02
  P =   9.877068E+01 -4.648819E+02 -1.454532E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   8.614165E+01
  P =   1.202207E+01  8.207865E+01  2.321529E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3087608709.0,          767449262.0,         1469258714.0,
            1380739968.0,         2673555668.0,          204756280.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.520100E+02
  P =  -9.787273E+01  3.219928E+02  1.032114E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.185620E+02
  P =   2.344786E+02 -2.150960E+02 -1.533719E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   7.355495E+01
  P =   1.470567E+01  6.944781E+01  1.926333E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.558731E+02
  P =  -1.513115E+02 -1.763446E+02 -1.071375E+02
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  5.723454616E-07
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   4.168398E+02
  P =  -1.107928E+02  3.828032E+02  1.222379E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   4.970185E+02
  P =   9.877068E+01 -4.648819E+02 -1.454532E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   8.614165E+01
  P =   1.202207E+01  8.207865E+01  2.321529E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.263389E+02
  P =  -1.093500E+02  3.926531E+02  1.250238E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.856817E+02
  P =   1.004521E+02 -4.534021E+02 -1.422062E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   4.363231E+01
  P =  -2.446189E+01  3.153295E+01  1.763709E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   4.434710E+01
  P =   3.335982E+01  2.921612E+01 -4.546966E-01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.540164E+02
  P =  -1.941060E+02  1.249916E+02  1.059447E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.335897E+02
  P =   8.186542E+01 -4.064720E+02 -1.268016E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.779804E+01
  P =   8.680655E+00  9.362367E+01  2.690188E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.145958E+02
  P =   1.035600E+02  1.878568E+02 -6.045038E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.520100E+02
  P =  -9.787273E+01  3.219928E+02  1.032114E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.185620E+02
  P =   2.344786E+02 -2.150960E+02 -1.533719E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   7.355495E+01
  P =   1.470567E+01  6.944781E+01  1.926333E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.558731E+02
  P =  -1.513115E+02 -1.763446E+02 -1.071375E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 3
 n_tot* => 5
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  0.00000E+00
 sqme_ref* =>  1.51013E-06
 event_index* => 2
 event_weight* =>  0.00000E+00
 event_weight_ref* =>  2.74570E+00
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-1| 4.1683982E+02;-1.1079275E+02, 3.8280322E+02, 1.2223787E+02| 0.0000000E+00| 3)
  4 prt(o:1| 4.9701853E+02; 9.8770684E+01,-4.6488186E+02,-1.4545317E+02| 0.0000000E+00| 4)
  5 prt(o:21| 8.6141652E+01; 1.2022071E+01, 8.2078647E+01, 2.3215293E+01| 0.0000000E+00| 5)
 ========================================================================
 ========================================================================
  Event #2
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  1.51013E-06
    Squared matrix el. (prc) =  9.18299E-06
    Event weight (ref)       =  2.74570E+00
    Event weight (prc)       =  0.00000E+00
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            4165064571.0,          414625962.0,         4233066201.0,
            2875702212.0,         3446017903.0,         1634757042.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.168398E+02
  P =  -1.107928E+02  3.828032E+02  1.222379E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.970185E+02
  P =   9.877068E+01 -4.648819E+02 -1.454532E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   8.614165E+01
  P =   1.202207E+01  8.207865E+01  2.321529E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3087608709.0,          767449262.0,         1469258714.0,
            1380739968.0,         2673555668.0,          204756280.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.520100E+02
  P =  -9.787273E+01  3.219928E+02  1.032114E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.185620E+02
  P =   2.344786E+02 -2.150960E+02 -1.533719E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   7.355495E+01
  P =   1.470567E+01  6.944781E+01  1.926333E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.558731E+02
  P =  -1.513115E+02 -1.763446E+02 -1.071375E+02
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  5.723454616E-07
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   4.168398E+02
  P =  -1.107928E+02  3.828032E+02  1.222379E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   4.970185E+02
  P =   9.877068E+01 -4.648819E+02 -1.454532E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   8.614165E+01
  P =   1.202207E+01  8.207865E+01  2.321529E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.263389E+02
  P =  -1.093500E+02  3.926531E+02  1.250238E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.856817E+02
  P =   1.004521E+02 -4.534021E+02 -1.422062E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   4.363231E+01
  P =  -2.446189E+01  3.153295E+01  1.763709E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   4.434710E+01
  P =   3.335982E+01  2.921612E+01 -4.546966E-01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.540164E+02
  P =  -1.941060E+02  1.249916E+02  1.059447E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.335897E+02
  P =   8.186542E+01 -4.064720E+02 -1.268016E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.779804E+01
  P =   8.680655E+00  9.362367E+01  2.690188E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.145958E+02
  P =   1.035600E+02  1.878568E+02 -6.045038E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.520100E+02
  P =  -9.787273E+01  3.219928E+02  1.032114E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.185620E+02
  P =   2.344786E+02 -2.150960E+02 -1.533719E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   7.355495E+01
  P =   1.470567E+01  6.944781E+01  1.926333E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.558731E+02
  P =  -1.513115E+02 -1.763446E+02 -1.071375E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  9.18299E-06
 sqme_ref* =>  1.51013E-06
 event_index* => 2
 event_weight* =>  0.00000E+00
 event_weight_ref* =>  2.74570E+00
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-2| 4.2633886E+02;-1.0935005E+02, 3.9265307E+02, 1.2502383E+02| 0.0000000E+00| 3)
  4 prt(o:2| 4.8568173E+02; 1.0045212E+02,-4.5340214E+02,-1.4220622E+02| 0.0000000E+00| 4)
  5 prt(o:-2| 4.3632307E+01;-2.4461891E+01, 3.1532955E+01, 1.7637090E+01| 0.0000000E+00| 5)
  6 prt(o:2| 4.4347105E+01; 3.3359816E+01, 2.9216119E+01,-4.5469663E-01| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #2
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  1.51013E-06
    Squared matrix el. (prc) =  9.37781E-07
    Event weight (ref)       =  2.74570E+00
    Event weight (prc)       =  1.70507E+00
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            4165064571.0,          414625962.0,         4233066201.0,
            2875702212.0,         3446017903.0,         1634757042.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.168398E+02
  P =  -1.107928E+02  3.828032E+02  1.222379E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.970185E+02
  P =   9.877068E+01 -4.648819E+02 -1.454532E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   8.614165E+01
  P =   1.202207E+01  8.207865E+01  2.321529E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3087608709.0,          767449262.0,         1469258714.0,
            1380739968.0,         2673555668.0,          204756280.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.520100E+02
  P =  -9.787273E+01  3.219928E+02  1.032114E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.185620E+02
  P =   2.344786E+02 -2.150960E+02 -1.533719E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   7.355495E+01
  P =   1.470567E+01  6.944781E+01  1.926333E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.558731E+02
  P =  -1.513115E+02 -1.763446E+02 -1.071375E+02
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  5.723454616E-07
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   4.168398E+02
  P =  -1.107928E+02  3.828032E+02  1.222379E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   4.970185E+02
  P =   9.877068E+01 -4.648819E+02 -1.454532E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   8.614165E+01
  P =   1.202207E+01  8.207865E+01  2.321529E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.263389E+02
  P =  -1.093500E+02  3.926531E+02  1.250238E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.856817E+02
  P =   1.004521E+02 -4.534021E+02 -1.422062E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   4.363231E+01
  P =  -2.446189E+01  3.153295E+01  1.763709E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   4.434710E+01
  P =   3.335982E+01  2.921612E+01 -4.546966E-01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.540164E+02
  P =  -1.941060E+02  1.249916E+02  1.059447E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.335897E+02
  P =   8.186542E+01 -4.064720E+02 -1.268016E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.779804E+01
  P =   8.680655E+00  9.362367E+01  2.690188E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.145958E+02
  P =   1.035600E+02  1.878568E+02 -6.045038E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.520100E+02
  P =  -9.787273E+01  3.219928E+02  1.032114E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.185620E+02
  P =   2.344786E+02 -2.150960E+02 -1.533719E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   7.355495E+01
  P =   1.470567E+01  6.944781E+01  1.926333E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.558731E+02
  P =  -1.513115E+02 -1.763446E+02 -1.071375E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  9.37781E-07
 sqme_ref* =>  1.51013E-06
 event_index* => 2
 event_weight* =>  1.70507E+00
 event_weight_ref* =>  2.74570E+00
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-2| 2.5401639E+02;-1.9410603E+02, 1.2499158E+02, 1.0594471E+02| 0.0000000E+00| 3)
  4 prt(o:2| 4.3358975E+02; 8.1865420E+01,-4.0647200E+02,-1.2680155E+02| 0.0000000E+00| 4)
  5 prt(o:21| 9.7798038E+01; 8.6806553E+00, 9.3623667E+01, 2.6901884E+01| 0.0000000E+00| 5)
  6 prt(o:21| 2.1459583E+02; 1.0355996E+02, 1.8785676E+02,-6.0450376E+00| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #2
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  1.51013E-06
    Squared matrix el. (prc) =  5.72345E-07
    Event weight (ref)       =  2.74570E+00
    Event weight (prc)       =  1.04063E+00
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            4165064571.0,          414625962.0,         4233066201.0,
            2875702212.0,         3446017903.0,         1634757042.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.168398E+02
  P =  -1.107928E+02  3.828032E+02  1.222379E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.970185E+02
  P =   9.877068E+01 -4.648819E+02 -1.454532E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   8.614165E+01
  P =   1.202207E+01  8.207865E+01  2.321529E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3087608709.0,          767449262.0,         1469258714.0,
            1380739968.0,         2673555668.0,          204756280.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.520100E+02
  P =  -9.787273E+01  3.219928E+02  1.032114E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.185620E+02
  P =   2.344786E+02 -2.150960E+02 -1.533719E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   7.355495E+01
  P =   1.470567E+01  6.944781E+01  1.926333E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.558731E+02
  P =  -1.513115E+02 -1.763446E+02 -1.071375E+02
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  5.723454616E-07
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   4.168398E+02
  P =  -1.107928E+02  3.828032E+02  1.222379E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   4.970185E+02
  P =   9.877068E+01 -4.648819E+02 -1.454532E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   8.614165E+01
  P =   1.202207E+01  8.207865E+01  2.321529E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.263389E+02
  P =  -1.093500E+02  3.926531E+02  1.250238E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.856817E+02
  P =   1.004521E+02 -4.534021E+02 -1.422062E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   4.363231E+01
  P =  -2.446189E+01  3.153295E+01  1.763709E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   4.434710E+01
  P =   3.335982E+01  2.921612E+01 -4.546966E-01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.540164E+02
  P =  -1.941060E+02  1.249916E+02  1.059447E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.335897E+02
  P =   8.186542E+01 -4.064720E+02 -1.268016E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.779804E+01
  P =   8.680655E+00  9.362367E+01  2.690188E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.145958E+02
  P =   1.035600E+02  1.878568E+02 -6.045038E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.520100E+02
  P =  -9.787273E+01  3.219928E+02  1.032114E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.185620E+02
  P =   2.344786E+02 -2.150960E+02 -1.533719E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   7.355495E+01
  P =   1.470567E+01  6.944781E+01  1.926333E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.558731E+02
  P =  -1.513115E+02 -1.763446E+02 -1.071375E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  5.72345E-07
 sqme_ref* =>  1.51013E-06
 event_index* => 2
 event_weight* =>  1.04063E+00
 event_weight_ref* =>  2.74570E+00
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-2| 3.5200997E+02;-9.7872725E+01, 3.2199279E+02, 1.0321138E+02| 0.0000000E+00| 3)
  4 prt(o:2| 3.1856197E+02; 2.3447860E+02,-2.1509600E+02,-1.5337190E+01| 0.0000000E+00| 4)
  5 prt(o:21| 7.3554949E+01; 1.4705670E+01, 6.9447807E+01, 1.9263331E+01| 0.0000000E+00| 5)
  6 prt(o:21| 2.5587311E+02;-1.5131154E+02,-1.7634460E+02,-1.0713753E+02| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #3
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  4.20368E-06
    Squared matrix el. (prc) =  0.00000E+00
    Event weight (ref)       =  1.74458E+02
    Event weight (prc)       =  0.00000E+00
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
             198170154.0,         2986732709.0,          838792232.0,
            3801322254.0,          681541859.0,         2204767654.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.972053E+02
  P =  -4.063990E+02  1.664730E+02  2.331089E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.819076E+02
  P =   2.088244E+02 -1.217828E+02 -1.450283E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.208871E+02
  P =   1.975746E+02 -4.469020E+01 -8.808058E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3938720326.0,         2431070917.0,         2314646599.0,
              95161108.0,         2834580314.0,         1263481919.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   4.761551E+02
  P =  -3.906630E+02  1.572960E+02  2.221802E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   1.573195E+02
  P =   5.129706E+01 -1.016855E+02 -1.085270E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.303108E+02
  P =   2.048689E+02 -4.894416E+01 -9.314652E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.362145E+02
  P =   1.344970E+02 -6.666337E+00 -2.050674E+01
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  1.474935331E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.972053E+02
  P =  -4.063990E+02  1.664730E+02  2.331089E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.819076E+02
  P =   2.088244E+02 -1.217828E+02 -1.450283E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.208871E+02
  P =   1.975746E+02 -4.469020E+01 -8.808058E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.809328E+02
  P =  -3.916269E+02  1.631316E+02  2.265234E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.911633E+02
  P =   2.174791E+02 -1.237404E+02 -1.488866E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.211738E+02
  P =   7.072204E+01 -6.541641E+01 -7.349943E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.067301E+02
  P =   1.034258E+02  2.602519E+01 -4.137296E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.954752E+02
  P =  -2.055906E+02  2.056963E+02  5.222165E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.602585E+02
  P =   1.909608E+02 -1.144653E+02 -1.347818E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.040223E+02
  P =   1.835744E+02 -3.895534E+01 -8.005016E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.402440E+02
  P =  -1.689446E+02 -5.227564E+01  1.626103E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   4.761551E+02
  P =  -3.906630E+02  1.572960E+02  2.221802E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   1.573195E+02
  P =   5.129706E+01 -1.016855E+02 -1.085270E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.303108E+02
  P =   2.048689E+02 -4.894416E+01 -9.314652E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.362145E+02
  P =   1.344970E+02 -6.666337E+00 -2.050674E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 3
 n_tot* => 5
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  0.00000E+00
 sqme_ref* =>  4.20368E-06
 event_index* => 3
 event_weight* =>  0.00000E+00
 event_weight_ref* =>  1.74458E+02
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-3| 4.9720532E+02;-4.0639897E+02, 1.6647298E+02, 2.3310889E+02| 0.0000000E+00| 3)
  4 prt(o:3| 2.8190758E+02; 2.0882440E+02,-1.2178277E+02,-1.4502830E+02| 0.0000000E+00| 4)
  5 prt(o:21| 2.2088710E+02; 1.9757457E+02,-4.4690205E+01,-8.8080583E+01| 0.0000000E+00| 5)
 ========================================================================
 ========================================================================
  Event #3
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  4.20368E-06
    Squared matrix el. (prc) =  2.07034E-06
    Event weight (ref)       =  1.74458E+02
    Event weight (prc)       =  8.59218E+01
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
             198170154.0,         2986732709.0,          838792232.0,
            3801322254.0,          681541859.0,         2204767654.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.972053E+02
  P =  -4.063990E+02  1.664730E+02  2.331089E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.819076E+02
  P =   2.088244E+02 -1.217828E+02 -1.450283E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.208871E+02
  P =   1.975746E+02 -4.469020E+01 -8.808058E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3938720326.0,         2431070917.0,         2314646599.0,
              95161108.0,         2834580314.0,         1263481919.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   4.761551E+02
  P =  -3.906630E+02  1.572960E+02  2.221802E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   1.573195E+02
  P =   5.129706E+01 -1.016855E+02 -1.085270E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.303108E+02
  P =   2.048689E+02 -4.894416E+01 -9.314652E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.362145E+02
  P =   1.344970E+02 -6.666337E+00 -2.050674E+01
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  1.474935331E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.972053E+02
  P =  -4.063990E+02  1.664730E+02  2.331089E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.819076E+02
  P =   2.088244E+02 -1.217828E+02 -1.450283E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.208871E+02
  P =   1.975746E+02 -4.469020E+01 -8.808058E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.809328E+02
  P =  -3.916269E+02  1.631316E+02  2.265234E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.911633E+02
  P =   2.174791E+02 -1.237404E+02 -1.488866E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.211738E+02
  P =   7.072204E+01 -6.541641E+01 -7.349943E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.067301E+02
  P =   1.034258E+02  2.602519E+01 -4.137296E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.954752E+02
  P =  -2.055906E+02  2.056963E+02  5.222165E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.602585E+02
  P =   1.909608E+02 -1.144653E+02 -1.347818E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.040223E+02
  P =   1.835744E+02 -3.895534E+01 -8.005016E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.402440E+02
  P =  -1.689446E+02 -5.227564E+01  1.626103E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   4.761551E+02
  P =  -3.906630E+02  1.572960E+02  2.221802E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   1.573195E+02
  P =   5.129706E+01 -1.016855E+02 -1.085270E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.303108E+02
  P =   2.048689E+02 -4.894416E+01 -9.314652E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.362145E+02
  P =   1.344970E+02 -6.666337E+00 -2.050674E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  2.07034E-06
 sqme_ref* =>  4.20368E-06
 event_index* => 3
 event_weight* =>  8.59218E+01
 event_weight_ref* =>  1.74458E+02
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-2| 4.8093282E+02;-3.9162689E+02, 1.6313162E+02, 2.2652336E+02| 0.0000000E+00| 3)
  4 prt(o:2| 2.9116328E+02; 2.1747906E+02,-1.2374040E+02,-1.4888663E+02| 0.0000000E+00| 4)
  5 prt(o:21| 1.2117376E+02; 7.0722044E+01,-6.5416407E+01,-7.3499432E+01| 0.0000000E+00| 5)
  6 prt(o:21| 1.0673014E+02; 1.0342579E+02, 2.6025191E+01,-4.1372964E+00| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #3
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  4.20368E-06
    Squared matrix el. (prc) =  6.58398E-07
    Event weight (ref)       =  1.74458E+02
    Event weight (prc)       =  2.73243E+01
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
             198170154.0,         2986732709.0,          838792232.0,
            3801322254.0,          681541859.0,         2204767654.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.972053E+02
  P =  -4.063990E+02  1.664730E+02  2.331089E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.819076E+02
  P =   2.088244E+02 -1.217828E+02 -1.450283E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.208871E+02
  P =   1.975746E+02 -4.469020E+01 -8.808058E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3938720326.0,         2431070917.0,         2314646599.0,
              95161108.0,         2834580314.0,         1263481919.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   4.761551E+02
  P =  -3.906630E+02  1.572960E+02  2.221802E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   1.573195E+02
  P =   5.129706E+01 -1.016855E+02 -1.085270E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.303108E+02
  P =   2.048689E+02 -4.894416E+01 -9.314652E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.362145E+02
  P =   1.344970E+02 -6.666337E+00 -2.050674E+01
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  1.474935331E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.972053E+02
  P =  -4.063990E+02  1.664730E+02  2.331089E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.819076E+02
  P =   2.088244E+02 -1.217828E+02 -1.450283E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.208871E+02
  P =   1.975746E+02 -4.469020E+01 -8.808058E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.809328E+02
  P =  -3.916269E+02  1.631316E+02  2.265234E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.911633E+02
  P =   2.174791E+02 -1.237404E+02 -1.488866E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.211738E+02
  P =   7.072204E+01 -6.541641E+01 -7.349943E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.067301E+02
  P =   1.034258E+02  2.602519E+01 -4.137296E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.954752E+02
  P =  -2.055906E+02  2.056963E+02  5.222165E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.602585E+02
  P =   1.909608E+02 -1.144653E+02 -1.347818E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.040223E+02
  P =   1.835744E+02 -3.895534E+01 -8.005016E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.402440E+02
  P =  -1.689446E+02 -5.227564E+01  1.626103E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   4.761551E+02
  P =  -3.906630E+02  1.572960E+02  2.221802E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   1.573195E+02
  P =   5.129706E+01 -1.016855E+02 -1.085270E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.303108E+02
  P =   2.048689E+02 -4.894416E+01 -9.314652E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.362145E+02
  P =   1.344970E+02 -6.666337E+00 -2.050674E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  6.58398E-07
 sqme_ref* =>  4.20368E-06
 event_index* => 3
 event_weight* =>  2.73243E+01
 event_weight_ref* =>  1.74458E+02
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-2| 2.9547518E+02;-2.0559063E+02, 2.0569631E+02, 5.2221648E+01| 0.0000000E+00| 3)
  4 prt(o:2| 2.6025852E+02; 1.9096084E+02,-1.1446533E+02,-1.3478183E+02| 0.0000000E+00| 4)
  5 prt(o:21| 2.0402235E+02; 1.8357443E+02,-3.8955338E+01,-8.0050161E+01| 0.0000000E+00| 5)
  6 prt(o:21| 2.4024396E+02;-1.6894464E+02,-5.2275644E+01, 1.6261034E+02| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #3
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  4.20368E-06
    Squared matrix el. (prc) =  1.47494E-06
    Event weight (ref)       =  1.74458E+02
    Event weight (prc)       =  6.12116E+01
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
             198170154.0,         2986732709.0,          838792232.0,
            3801322254.0,          681541859.0,         2204767654.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.972053E+02
  P =  -4.063990E+02  1.664730E+02  2.331089E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.819076E+02
  P =   2.088244E+02 -1.217828E+02 -1.450283E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.208871E+02
  P =   1.975746E+02 -4.469020E+01 -8.808058E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3938720326.0,         2431070917.0,         2314646599.0,
              95161108.0,         2834580314.0,         1263481919.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   4.761551E+02
  P =  -3.906630E+02  1.572960E+02  2.221802E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   1.573195E+02
  P =   5.129706E+01 -1.016855E+02 -1.085270E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.303108E+02
  P =   2.048689E+02 -4.894416E+01 -9.314652E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.362145E+02
  P =   1.344970E+02 -6.666337E+00 -2.050674E+01
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  1.474935331E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.972053E+02
  P =  -4.063990E+02  1.664730E+02  2.331089E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.819076E+02
  P =   2.088244E+02 -1.217828E+02 -1.450283E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.208871E+02
  P =   1.975746E+02 -4.469020E+01 -8.808058E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.809328E+02
  P =  -3.916269E+02  1.631316E+02  2.265234E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.911633E+02
  P =   2.174791E+02 -1.237404E+02 -1.488866E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.211738E+02
  P =   7.072204E+01 -6.541641E+01 -7.349943E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.067301E+02
  P =   1.034258E+02  2.602519E+01 -4.137296E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.954752E+02
  P =  -2.055906E+02  2.056963E+02  5.222165E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.602585E+02
  P =   1.909608E+02 -1.144653E+02 -1.347818E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.040223E+02
  P =   1.835744E+02 -3.895534E+01 -8.005016E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.402440E+02
  P =  -1.689446E+02 -5.227564E+01  1.626103E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   4.761551E+02
  P =  -3.906630E+02  1.572960E+02  2.221802E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   1.573195E+02
  P =   5.129706E+01 -1.016855E+02 -1.085270E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.303108E+02
  P =   2.048689E+02 -4.894416E+01 -9.314652E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.362145E+02
  P =   1.344970E+02 -6.666337E+00 -2.050674E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  1.47494E-06
 sqme_ref* =>  4.20368E-06
 event_index* => 3
 event_weight* =>  6.12116E+01
 event_weight_ref* =>  1.74458E+02
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-1| 4.7615507E+02;-3.9066296E+02, 1.5729601E+02, 2.2218025E+02| 0.0000000E+00| 3)
  4 prt(o:1| 1.5731955E+02; 5.1297057E+01,-1.0168552E+02,-1.0852699E+02| 0.0000000E+00| 4)
  5 prt(o:21| 2.3031085E+02; 2.0486894E+02,-4.8944157E+01,-9.3146517E+01| 0.0000000E+00| 5)
  6 prt(o:21| 1.3621454E+02; 1.3449697E+02,-6.6663370E+00,-2.0506737E+01| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #4
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  1.39147E-04
    Squared matrix el. (prc) =  1.02978E-04
    Event weight (ref)       =  4.47408E+02
    Event weight (prc)       =  3.31113E+02
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3904717424.0,          428371300.0,         2138618469.0,
            1125469886.0,         3340714319.0,         3263928336.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.928933E+02
  P =   2.057274E+01 -4.395150E+02 -2.221423E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.001453E+02
  P =  -6.445456E+01  3.522225E+02  1.786090E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.069614E+02
  P =   4.388182E+01  8.729245E+01  4.353329E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3820322671.0,         2196113481.0,         3143668624.0,
             175143050.0,         2601236033.0,         2067774727.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   4.554759E+02
  P =   1.449831E+01 -4.063202E+02 -2.053095E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.874756E+02
  P =  -7.601786E+01  2.764585E+02  2.083831E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.144054E+02
  P =   4.246393E+01  9.504072E+01  4.746237E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.426431E+02
  P =   1.905562E+01  3.482101E+01  1.370089E+02
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  5.364144346E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.928933E+02
  P =   2.057274E+01 -4.395150E+02 -2.221423E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   4.001453E+02
  P =  -6.445456E+01  3.522225E+02  1.786090E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.069614E+02
  P =   4.388182E+01  8.729245E+01  4.353329E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.841170E+02
  P =   2.460928E+01 -4.314852E+02 -2.181378E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.069483E+02
  P =  -6.112004E+01  3.588557E+02  1.819171E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   7.080535E+01
  P =   2.581891E+01  6.592969E+01  2.395742E-01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   3.812939E+01
  P =   1.069185E+01  6.699810E+00  3.598121E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.639271E+02
  P =   4.218713E+01 -2.378766E+02 -2.721726E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.624311E+02
  P =  -6.286781E+01  3.183232E+02  1.614754E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.793605E+01
  P =   4.430817E+01  7.818400E+01  3.892964E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.757057E+02
  P =  -2.362748E+01 -1.586306E+02  7.176757E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   4.554759E+02
  P =   1.449831E+01 -4.063202E+02 -2.053095E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.874756E+02
  P =  -7.601786E+01  2.764585E+02  2.083831E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.144054E+02
  P =   4.246393E+01  9.504072E+01  4.746237E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.426431E+02
  P =   1.905562E+01  3.482101E+01  1.370089E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 3
 n_tot* => 5
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  1.02978E-04
 sqme_ref* =>  1.39147E-04
 event_index* => 4
 event_weight* =>  3.31113E+02
 event_weight_ref* =>  4.47408E+02
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-3| 4.9289333E+02; 2.0572745E+01,-4.3951495E+02,-2.2214231E+02| 0.0000000E+00| 3)
  4 prt(o:3| 4.0014530E+02;-6.4454563E+01, 3.5222250E+02, 1.7860902E+02| 0.0000000E+00| 4)
  5 prt(o:21| 1.0696136E+02; 4.3881819E+01, 8.7292452E+01, 4.3533289E+01| 0.0000000E+00| 5)
 ========================================================================
 ========================================================================
  Event #4
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  1.39147E-04
    Squared matrix el. (prc) =  2.54452E-05
    Event weight (ref)       =  4.47408E+02
    Event weight (prc)       =  8.18156E+01
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3904717424.0,          428371300.0,         2138618469.0,
            1125469886.0,         3340714319.0,         3263928336.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.928933E+02
  P =   2.057274E+01 -4.395150E+02 -2.221423E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.001453E+02
  P =  -6.445456E+01  3.522225E+02  1.786090E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.069614E+02
  P =   4.388182E+01  8.729245E+01  4.353329E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3820322671.0,         2196113481.0,         3143668624.0,
             175143050.0,         2601236033.0,         2067774727.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   4.554759E+02
  P =   1.449831E+01 -4.063202E+02 -2.053095E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.874756E+02
  P =  -7.601786E+01  2.764585E+02  2.083831E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.144054E+02
  P =   4.246393E+01  9.504072E+01  4.746237E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.426431E+02
  P =   1.905562E+01  3.482101E+01  1.370089E+02
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  5.364144346E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.928933E+02
  P =   2.057274E+01 -4.395150E+02 -2.221423E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   4.001453E+02
  P =  -6.445456E+01  3.522225E+02  1.786090E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.069614E+02
  P =   4.388182E+01  8.729245E+01  4.353329E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.841170E+02
  P =   2.460928E+01 -4.314852E+02 -2.181378E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.069483E+02
  P =  -6.112004E+01  3.588557E+02  1.819171E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   7.080535E+01
  P =   2.581891E+01  6.592969E+01  2.395742E-01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   3.812939E+01
  P =   1.069185E+01  6.699810E+00  3.598121E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.639271E+02
  P =   4.218713E+01 -2.378766E+02 -2.721726E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.624311E+02
  P =  -6.286781E+01  3.183232E+02  1.614754E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.793605E+01
  P =   4.430817E+01  7.818400E+01  3.892964E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.757057E+02
  P =  -2.362748E+01 -1.586306E+02  7.176757E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   4.554759E+02
  P =   1.449831E+01 -4.063202E+02 -2.053095E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.874756E+02
  P =  -7.601786E+01  2.764585E+02  2.083831E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.144054E+02
  P =   4.246393E+01  9.504072E+01  4.746237E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.426431E+02
  P =   1.905562E+01  3.482101E+01  1.370089E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  2.54452E-05
 sqme_ref* =>  1.39147E-04
 event_index* => 4
 event_weight* =>  8.18156E+01
 event_weight_ref* =>  4.47408E+02
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-2| 4.8411697E+02; 2.4609277E+01,-4.3148523E+02,-2.1813784E+02| 0.0000000E+00| 3)
  4 prt(o:2| 4.0694829E+02;-6.1120044E+01, 3.5885573E+02, 1.8191706E+02| 0.0000000E+00| 4)
  5 prt(o:21| 7.0805349E+01; 2.5818913E+01, 6.5929688E+01, 2.3957422E-01| 0.0000000E+00| 5)
  6 prt(o:21| 3.8129392E+01; 1.0691855E+01, 6.6998097E+00, 3.5981208E+01| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #4
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  1.39147E-04
    Squared matrix el. (prc) =  5.35905E-06
    Event weight (ref)       =  4.47408E+02
    Event weight (prc)       =  1.72313E+01
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3904717424.0,          428371300.0,         2138618469.0,
            1125469886.0,         3340714319.0,         3263928336.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.928933E+02
  P =   2.057274E+01 -4.395150E+02 -2.221423E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.001453E+02
  P =  -6.445456E+01  3.522225E+02  1.786090E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.069614E+02
  P =   4.388182E+01  8.729245E+01  4.353329E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3820322671.0,         2196113481.0,         3143668624.0,
             175143050.0,         2601236033.0,         2067774727.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   4.554759E+02
  P =   1.449831E+01 -4.063202E+02 -2.053095E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.874756E+02
  P =  -7.601786E+01  2.764585E+02  2.083831E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.144054E+02
  P =   4.246393E+01  9.504072E+01  4.746237E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.426431E+02
  P =   1.905562E+01  3.482101E+01  1.370089E+02
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  5.364144346E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.928933E+02
  P =   2.057274E+01 -4.395150E+02 -2.221423E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   4.001453E+02
  P =  -6.445456E+01  3.522225E+02  1.786090E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.069614E+02
  P =   4.388182E+01  8.729245E+01  4.353329E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.841170E+02
  P =   2.460928E+01 -4.314852E+02 -2.181378E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.069483E+02
  P =  -6.112004E+01  3.588557E+02  1.819171E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   7.080535E+01
  P =   2.581891E+01  6.592969E+01  2.395742E-01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   3.812939E+01
  P =   1.069185E+01  6.699810E+00  3.598121E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.639271E+02
  P =   4.218713E+01 -2.378766E+02 -2.721726E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.624311E+02
  P =  -6.286781E+01  3.183232E+02  1.614754E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.793605E+01
  P =   4.430817E+01  7.818400E+01  3.892964E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.757057E+02
  P =  -2.362748E+01 -1.586306E+02  7.176757E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   4.554759E+02
  P =   1.449831E+01 -4.063202E+02 -2.053095E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.874756E+02
  P =  -7.601786E+01  2.764585E+02  2.083831E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.144054E+02
  P =   4.246393E+01  9.504072E+01  4.746237E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.426431E+02
  P =   1.905562E+01  3.482101E+01  1.370089E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  5.35905E-06
 sqme_ref* =>  1.39147E-04
 event_index* => 4
 event_weight* =>  1.72313E+01
 event_weight_ref* =>  4.47408E+02
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-2| 3.6392714E+02; 4.2187127E+01,-2.3787659E+02,-2.7217263E+02| 0.0000000E+00| 3)
  4 prt(o:2| 3.6243110E+02;-6.2867808E+01, 3.1832315E+02, 1.6147541E+02| 0.0000000E+00| 4)
  5 prt(o:21| 9.7936045E+01; 4.4308165E+01, 7.8184004E+01, 3.8929642E+01| 0.0000000E+00| 5)
  6 prt(o:21| 1.7570572E+02;-2.3627484E+01,-1.5863057E+02, 7.1767573E+01| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #4
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  1.39147E-04
    Squared matrix el. (prc) =  5.36414E-06
    Event weight (ref)       =  4.47408E+02
    Event weight (prc)       =  1.72477E+01
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3904717424.0,          428371300.0,         2138618469.0,
            1125469886.0,         3340714319.0,         3263928336.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.928933E+02
  P =   2.057274E+01 -4.395150E+02 -2.221423E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.001453E+02
  P =  -6.445456E+01  3.522225E+02  1.786090E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.069614E+02
  P =   4.388182E+01  8.729245E+01  4.353329E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3820322671.0,         2196113481.0,         3143668624.0,
             175143050.0,         2601236033.0,         2067774727.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   4.554759E+02
  P =   1.449831E+01 -4.063202E+02 -2.053095E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.874756E+02
  P =  -7.601786E+01  2.764585E+02  2.083831E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.144054E+02
  P =   4.246393E+01  9.504072E+01  4.746237E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.426431E+02
  P =   1.905562E+01  3.482101E+01  1.370089E+02
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  5.364144346E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.928933E+02
  P =   2.057274E+01 -4.395150E+02 -2.221423E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   4.001453E+02
  P =  -6.445456E+01  3.522225E+02  1.786090E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.069614E+02
  P =   4.388182E+01  8.729245E+01  4.353329E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.841170E+02
  P =   2.460928E+01 -4.314852E+02 -2.181378E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.069483E+02
  P =  -6.112004E+01  3.588557E+02  1.819171E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   7.080535E+01
  P =   2.581891E+01  6.592969E+01  2.395742E-01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   3.812939E+01
  P =   1.069185E+01  6.699810E+00  3.598121E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.639271E+02
  P =   4.218713E+01 -2.378766E+02 -2.721726E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.624311E+02
  P =  -6.286781E+01  3.183232E+02  1.614754E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.793605E+01
  P =   4.430817E+01  7.818400E+01  3.892964E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.757057E+02
  P =  -2.362748E+01 -1.586306E+02  7.176757E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   4.554759E+02
  P =   1.449831E+01 -4.063202E+02 -2.053095E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.874756E+02
  P =  -7.601786E+01  2.764585E+02  2.083831E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.144054E+02
  P =   4.246393E+01  9.504072E+01  4.746237E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.426431E+02
  P =   1.905562E+01  3.482101E+01  1.370089E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  5.36414E-06
 sqme_ref* =>  1.39147E-04
 event_index* => 4
 event_weight* =>  1.72477E+01
 event_weight_ref* =>  4.47408E+02
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-1| 4.5547590E+02; 1.4498305E+01,-4.0632018E+02,-2.0530953E+02| 0.0000000E+00| 3)
  4 prt(o:1| 2.8747561E+02;-7.6017859E+01, 2.7645845E+02, 2.0838310E+01| 0.0000000E+00| 4)
  5 prt(o:21| 1.1440542E+02; 4.2463933E+01, 9.5040720E+01, 4.7462370E+01| 0.0000000E+00| 5)
  6 prt(o:21| 1.4264307E+02; 1.9055620E+01, 3.4821012E+01, 1.3700885E+02| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #5
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  4.22124E-05
    Squared matrix el. (prc) =  0.00000E+00
    Event weight (ref)       =  3.48737E+00
    Event weight (prc)       =  0.00000E+00
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            2521457625.0,          484146147.0,         3618491698.0,
             461169559.0,         2286753282.0,         1064694027.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.027235E+02
  P =  -2.209137E+02  2.643626E+02 -2.085564E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   4.982950E+02
  P =   2.502364E+02 -3.439787E+02  2.595348E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.898149E+01
  P =  -2.932271E+01  7.961611E+01 -5.097833E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            2874489411.0,         1536154006.0,          964092590.0,
            1871199702.0,           55084237.0,         1682756482.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.538676E+02
  P =  -1.963328E+02  2.305732E+02 -1.830621E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.444991E+02
  P =   1.790454E+02 -9.743339E+01  2.777213E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   8.730900E+01
  P =  -2.327030E+01  7.129638E+01 -4.470102E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.143243E+02
  P =   4.055761E+01 -2.044362E+02 -4.995816E+01
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  4.118596829E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.027235E+02
  P =  -2.209137E+02  2.643626E+02 -2.085564E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   4.982950E+02
  P =   2.502364E+02 -3.439787E+02  2.595348E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.898149E+01
  P =  -2.932271E+01  7.961611E+01 -5.097833E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.117046E+02
  P =  -2.236904E+02  2.719018E+02 -2.133838E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.872740E+02
  P =   2.468762E+02 -3.348552E+02  2.536930E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   5.844794E+01
  P =  -3.481524E+01  4.687292E+01 -2.643835E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   4.257345E+01
  P =   1.162944E+01  1.608042E+01 -3.766530E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.674898E+02
  P =  -2.184275E+02  1.525344E+02 -2.394802E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   4.501318E+02
  P =   2.237681E+02 -3.123046E+02  2.345470E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.091609E+02
  P =  -3.513147E+01  8.656732E+01 -5.646216E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.732175E+02
  P =   2.979084E+01  7.320287E+01 -1.541368E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.538676E+02
  P =  -1.963328E+02  2.305732E+02 -1.830621E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.444991E+02
  P =   1.790454E+02 -9.743339E+01  2.777213E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   8.730900E+01
  P =  -2.327030E+01  7.129638E+01 -4.470102E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.143243E+02
  P =   4.055761E+01 -2.044362E+02 -4.995816E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 3
 n_tot* => 5
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  0.00000E+00
 sqme_ref* =>  4.22124E-05
 event_index* => 5
 event_weight* =>  0.00000E+00
 event_weight_ref* =>  3.48737E+00
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-3| 4.0272351E+02;-2.2091372E+02, 2.6436257E+02,-2.0855644E+02| 0.0000000E+00| 3)
  4 prt(o:3| 4.9829499E+02; 2.5023643E+02,-3.4397868E+02, 2.5953477E+02| 0.0000000E+00| 4)
  5 prt(o:21| 9.8981494E+01;-2.9322709E+01, 7.9616110E+01,-5.0978327E+01| 0.0000000E+00| 5)
 ========================================================================
 ========================================================================
  Event #5
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  4.22124E-05
    Squared matrix el. (prc) =  3.28584E-05
    Event weight (ref)       =  3.48737E+00
    Event weight (prc)       =  2.71460E+00
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            2521457625.0,          484146147.0,         3618491698.0,
             461169559.0,         2286753282.0,         1064694027.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.027235E+02
  P =  -2.209137E+02  2.643626E+02 -2.085564E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   4.982950E+02
  P =   2.502364E+02 -3.439787E+02  2.595348E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.898149E+01
  P =  -2.932271E+01  7.961611E+01 -5.097833E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            2874489411.0,         1536154006.0,          964092590.0,
            1871199702.0,           55084237.0,         1682756482.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.538676E+02
  P =  -1.963328E+02  2.305732E+02 -1.830621E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.444991E+02
  P =   1.790454E+02 -9.743339E+01  2.777213E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   8.730900E+01
  P =  -2.327030E+01  7.129638E+01 -4.470102E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.143243E+02
  P =   4.055761E+01 -2.044362E+02 -4.995816E+01
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  4.118596829E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.027235E+02
  P =  -2.209137E+02  2.643626E+02 -2.085564E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   4.982950E+02
  P =   2.502364E+02 -3.439787E+02  2.595348E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.898149E+01
  P =  -2.932271E+01  7.961611E+01 -5.097833E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.117046E+02
  P =  -2.236904E+02  2.719018E+02 -2.133838E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.872740E+02
  P =   2.468762E+02 -3.348552E+02  2.536930E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   5.844794E+01
  P =  -3.481524E+01  4.687292E+01 -2.643835E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   4.257345E+01
  P =   1.162944E+01  1.608042E+01 -3.766530E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.674898E+02
  P =  -2.184275E+02  1.525344E+02 -2.394802E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   4.501318E+02
  P =   2.237681E+02 -3.123046E+02  2.345470E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.091609E+02
  P =  -3.513147E+01  8.656732E+01 -5.646216E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.732175E+02
  P =   2.979084E+01  7.320287E+01 -1.541368E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.538676E+02
  P =  -1.963328E+02  2.305732E+02 -1.830621E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.444991E+02
  P =   1.790454E+02 -9.743339E+01  2.777213E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   8.730900E+01
  P =  -2.327030E+01  7.129638E+01 -4.470102E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.143243E+02
  P =   4.055761E+01 -2.044362E+02 -4.995816E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  3.28584E-05
 sqme_ref* =>  4.22124E-05
 event_index* => 5
 event_weight* =>  2.71460E+00
 event_weight_ref* =>  3.48737E+00
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-2| 4.1170459E+02;-2.2369044E+02, 2.7190181E+02,-2.1338383E+02| 0.0000000E+00| 3)
  4 prt(o:2| 4.8727402E+02; 2.4687623E+02,-3.3485516E+02, 2.5369297E+02| 0.0000000E+00| 4)
  5 prt(o:-2| 5.8447938E+01;-3.4815235E+01, 4.6872924E+01,-2.6438351E+00| 0.0000000E+00| 5)
  6 prt(o:2| 4.2573450E+01; 1.1629442E+01, 1.6080425E+01,-3.7665298E+01| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #5
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  4.22124E-05
    Squared matrix el. (prc) =  5.23534E-06
    Event weight (ref)       =  3.48737E+00
    Event weight (prc)       =  4.32517E-01
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            2521457625.0,          484146147.0,         3618491698.0,
             461169559.0,         2286753282.0,         1064694027.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.027235E+02
  P =  -2.209137E+02  2.643626E+02 -2.085564E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   4.982950E+02
  P =   2.502364E+02 -3.439787E+02  2.595348E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.898149E+01
  P =  -2.932271E+01  7.961611E+01 -5.097833E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            2874489411.0,         1536154006.0,          964092590.0,
            1871199702.0,           55084237.0,         1682756482.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.538676E+02
  P =  -1.963328E+02  2.305732E+02 -1.830621E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.444991E+02
  P =   1.790454E+02 -9.743339E+01  2.777213E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   8.730900E+01
  P =  -2.327030E+01  7.129638E+01 -4.470102E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.143243E+02
  P =   4.055761E+01 -2.044362E+02 -4.995816E+01
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  4.118596829E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.027235E+02
  P =  -2.209137E+02  2.643626E+02 -2.085564E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   4.982950E+02
  P =   2.502364E+02 -3.439787E+02  2.595348E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.898149E+01
  P =  -2.932271E+01  7.961611E+01 -5.097833E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.117046E+02
  P =  -2.236904E+02  2.719018E+02 -2.133838E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.872740E+02
  P =   2.468762E+02 -3.348552E+02  2.536930E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   5.844794E+01
  P =  -3.481524E+01  4.687292E+01 -2.643835E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   4.257345E+01
  P =   1.162944E+01  1.608042E+01 -3.766530E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.674898E+02
  P =  -2.184275E+02  1.525344E+02 -2.394802E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   4.501318E+02
  P =   2.237681E+02 -3.123046E+02  2.345470E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.091609E+02
  P =  -3.513147E+01  8.656732E+01 -5.646216E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.732175E+02
  P =   2.979084E+01  7.320287E+01 -1.541368E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.538676E+02
  P =  -1.963328E+02  2.305732E+02 -1.830621E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.444991E+02
  P =   1.790454E+02 -9.743339E+01  2.777213E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   8.730900E+01
  P =  -2.327030E+01  7.129638E+01 -4.470102E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.143243E+02
  P =   4.055761E+01 -2.044362E+02 -4.995816E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  5.23534E-06
 sqme_ref* =>  4.22124E-05
 event_index* => 5
 event_weight* =>  4.32517E-01
 event_weight_ref* =>  3.48737E+00
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-1| 2.6748982E+02;-2.1842746E+02, 1.5253440E+02,-2.3948016E+01| 0.0000000E+00| 3)
  4 prt(o:1| 4.5013177E+02; 2.2376809E+02,-3.1230460E+02, 2.3454699E+02| 0.0000000E+00| 4)
  5 prt(o:21| 1.0916088E+02;-3.5131469E+01, 8.6567325E+01,-5.6462162E+01| 0.0000000E+00| 5)
  6 prt(o:21| 1.7321753E+02; 2.9790839E+01, 7.3202871E+01,-1.5413681E+02| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #5
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  4.22124E-05
    Squared matrix el. (prc) =  4.11860E-06
    Event weight (ref)       =  3.48737E+00
    Event weight (prc)       =  3.40258E-01
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            2521457625.0,          484146147.0,         3618491698.0,
             461169559.0,         2286753282.0,         1064694027.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.027235E+02
  P =  -2.209137E+02  2.643626E+02 -2.085564E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   4.982950E+02
  P =   2.502364E+02 -3.439787E+02  2.595348E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.898149E+01
  P =  -2.932271E+01  7.961611E+01 -5.097833E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            2874489411.0,         1536154006.0,          964092590.0,
            1871199702.0,           55084237.0,         1682756482.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.538676E+02
  P =  -1.963328E+02  2.305732E+02 -1.830621E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.444991E+02
  P =   1.790454E+02 -9.743339E+01  2.777213E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   8.730900E+01
  P =  -2.327030E+01  7.129638E+01 -4.470102E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.143243E+02
  P =   4.055761E+01 -2.044362E+02 -4.995816E+01
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  4.118596829E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.027235E+02
  P =  -2.209137E+02  2.643626E+02 -2.085564E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   4.982950E+02
  P =   2.502364E+02 -3.439787E+02  2.595348E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.898149E+01
  P =  -2.932271E+01  7.961611E+01 -5.097833E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.117046E+02
  P =  -2.236904E+02  2.719018E+02 -2.133838E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.872740E+02
  P =   2.468762E+02 -3.348552E+02  2.536930E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   5.844794E+01
  P =  -3.481524E+01  4.687292E+01 -2.643835E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   4.257345E+01
  P =   1.162944E+01  1.608042E+01 -3.766530E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.674898E+02
  P =  -2.184275E+02  1.525344E+02 -2.394802E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   4.501318E+02
  P =   2.237681E+02 -3.123046E+02  2.345470E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.091609E+02
  P =  -3.513147E+01  8.656732E+01 -5.646216E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.732175E+02
  P =   2.979084E+01  7.320287E+01 -1.541368E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.538676E+02
  P =  -1.963328E+02  2.305732E+02 -1.830621E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.444991E+02
  P =   1.790454E+02 -9.743339E+01  2.777213E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   8.730900E+01
  P =  -2.327030E+01  7.129638E+01 -4.470102E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.143243E+02
  P =   4.055761E+01 -2.044362E+02 -4.995816E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  4.11860E-06
 sqme_ref* =>  4.22124E-05
 event_index* => 5
 event_weight* =>  3.40258E-01
 event_weight_ref* =>  3.48737E+00
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-2| 3.5386761E+02;-1.9633276E+02, 2.3057321E+02,-1.8306209E+02| 0.0000000E+00| 3)
  4 prt(o:2| 3.4449912E+02; 1.7904544E+02,-9.7433390E+01, 2.7772127E+02| 0.0000000E+00| 4)
  5 prt(o:21| 8.7308999E+01;-2.3270298E+01, 7.1296377E+01,-4.4701020E+01| 0.0000000E+00| 5)
  6 prt(o:21| 2.1432428E+02; 4.0557612E+01,-2.0443620E+02,-4.9958162E+01| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #6
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  1.60249E-05
    Squared matrix el. (prc) =  1.08606E-05
    Event weight (ref)       =  2.07735E+02
    Event weight (prc)       =  1.40789E+02
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            4125922664.0,         1099593662.0,          947678322.0,
            1549828072.0,         1211032067.0,         3439727021.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   4.316672E+02
  P =  -5.171632E+01  3.335645E+02 -2.690664E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.550626E+02
  P =  -1.282024E+01 -1.386159E+02  3.266355E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.132701E+02
  P =   6.453657E+01 -1.949487E+02 -5.756910E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            2642801743.0,         4156652070.0,         1063163963.0,
            1965590681.0,         3112607032.0,          766456187.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.707584E+02
  P =  -5.431199E+01  3.054995E+02 -2.029337E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.045895E+02
  P =  -7.779699E+01 -1.816366E+02  5.303444E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.204815E+02
  P =   6.313348E+01 -2.101192E+02 -2.182103E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.041706E+02
  P =   6.897550E+01  8.625634E+01  1.717203E+02
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  5.005650007E-07
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.316672E+02
  P =  -5.171632E+01  3.335645E+02 -2.690664E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   3.550626E+02
  P =  -1.282024E+01 -1.386159E+02  3.266355E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.132701E+02
  P =   6.453657E+01 -1.949487E+02 -5.756910E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   4.096923E+02
  P =  -3.942661E+01  2.964404E+02 -2.800293E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.600749E+02
  P =  -2.374253E+00 -1.701706E+02  3.173173E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.075967E+02
  P =  -2.232057E+01 -4.055497E+01 -9.712951E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.226361E+02
  P =   6.412144E+01 -8.571487E+01  5.984153E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.694147E+02
  P =   7.343066E+01  2.681650E+01 -2.578238E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.920726E+02
  P =  -2.180870E+01 -8.064133E+01  2.798710E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.902924E+02
  P =   5.893124E+01 -1.587949E+02 -8.673213E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.482203E+02
  P =  -1.105532E+02  2.126198E+02  6.468497E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.707584E+02
  P =  -5.431199E+01  3.054995E+02 -2.029337E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.045895E+02
  P =  -7.779699E+01 -1.816366E+02  5.303444E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.204815E+02
  P =   6.313348E+01 -2.101192E+02 -2.182103E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.041706E+02
  P =   6.897550E+01  8.625634E+01  1.717203E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 3
 n_tot* => 5
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  1.08606E-05
 sqme_ref* =>  1.60249E-05
 event_index* => 6
 event_weight* =>  1.40789E+02
 event_weight_ref* =>  2.07735E+02
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-3| 4.3166723E+02;-5.1716323E+01, 3.3356451E+02,-2.6906642E+02| 0.0000000E+00| 3)
  4 prt(o:3| 3.5506264E+02;-1.2820243E+01,-1.3861586E+02, 3.2663552E+02| 0.0000000E+00| 4)
  5 prt(o:21| 2.1327013E+02; 6.4536566E+01,-1.9494865E+02,-5.7569101E+01| 0.0000000E+00| 5)
 ========================================================================
 ========================================================================
  Event #6
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  1.60249E-05
    Squared matrix el. (prc) =  3.96152E-06
    Event weight (ref)       =  2.07735E+02
    Event weight (prc)       =  5.13541E+01
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            4125922664.0,         1099593662.0,          947678322.0,
            1549828072.0,         1211032067.0,         3439727021.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   4.316672E+02
  P =  -5.171632E+01  3.335645E+02 -2.690664E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.550626E+02
  P =  -1.282024E+01 -1.386159E+02  3.266355E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.132701E+02
  P =   6.453657E+01 -1.949487E+02 -5.756910E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            2642801743.0,         4156652070.0,         1063163963.0,
            1965590681.0,         3112607032.0,          766456187.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.707584E+02
  P =  -5.431199E+01  3.054995E+02 -2.029337E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.045895E+02
  P =  -7.779699E+01 -1.816366E+02  5.303444E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.204815E+02
  P =   6.313348E+01 -2.101192E+02 -2.182103E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.041706E+02
  P =   6.897550E+01  8.625634E+01  1.717203E+02
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  5.005650007E-07
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.316672E+02
  P =  -5.171632E+01  3.335645E+02 -2.690664E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   3.550626E+02
  P =  -1.282024E+01 -1.386159E+02  3.266355E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.132701E+02
  P =   6.453657E+01 -1.949487E+02 -5.756910E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   4.096923E+02
  P =  -3.942661E+01  2.964404E+02 -2.800293E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.600749E+02
  P =  -2.374253E+00 -1.701706E+02  3.173173E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.075967E+02
  P =  -2.232057E+01 -4.055497E+01 -9.712951E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.226361E+02
  P =   6.412144E+01 -8.571487E+01  5.984153E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.694147E+02
  P =   7.343066E+01  2.681650E+01 -2.578238E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.920726E+02
  P =  -2.180870E+01 -8.064133E+01  2.798710E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.902924E+02
  P =   5.893124E+01 -1.587949E+02 -8.673213E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.482203E+02
  P =  -1.105532E+02  2.126198E+02  6.468497E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.707584E+02
  P =  -5.431199E+01  3.054995E+02 -2.029337E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.045895E+02
  P =  -7.779699E+01 -1.816366E+02  5.303444E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.204815E+02
  P =   6.313348E+01 -2.101192E+02 -2.182103E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.041706E+02
  P =   6.897550E+01  8.625634E+01  1.717203E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  3.96152E-06
 sqme_ref* =>  1.60249E-05
 event_index* => 6
 event_weight* =>  5.13541E+01
 event_weight_ref* =>  2.07735E+02
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-1| 4.0969231E+02;-3.9426612E+01, 2.9644040E+02,-2.8002932E+02| 0.0000000E+00| 3)
  4 prt(o:1| 3.6007488E+02;-2.3742530E+00,-1.7017055E+02, 3.1731730E+02| 0.0000000E+00| 4)
  5 prt(o:21| 1.0759673E+02;-2.2320574E+01,-4.0554975E+01,-9.7129514E+01| 0.0000000E+00| 5)
  6 prt(o:21| 1.2263608E+02; 6.4121440E+01,-8.5714872E+01, 5.9841533E+01| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #6
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  1.60249E-05
    Squared matrix el. (prc) =  7.02181E-07
    Event weight (ref)       =  2.07735E+02
    Event weight (prc)       =  9.10255E+00
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            4125922664.0,         1099593662.0,          947678322.0,
            1549828072.0,         1211032067.0,         3439727021.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   4.316672E+02
  P =  -5.171632E+01  3.335645E+02 -2.690664E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.550626E+02
  P =  -1.282024E+01 -1.386159E+02  3.266355E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.132701E+02
  P =   6.453657E+01 -1.949487E+02 -5.756910E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            2642801743.0,         4156652070.0,         1063163963.0,
            1965590681.0,         3112607032.0,          766456187.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.707584E+02
  P =  -5.431199E+01  3.054995E+02 -2.029337E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.045895E+02
  P =  -7.779699E+01 -1.816366E+02  5.303444E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.204815E+02
  P =   6.313348E+01 -2.101192E+02 -2.182103E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.041706E+02
  P =   6.897550E+01  8.625634E+01  1.717203E+02
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  5.005650007E-07
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.316672E+02
  P =  -5.171632E+01  3.335645E+02 -2.690664E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   3.550626E+02
  P =  -1.282024E+01 -1.386159E+02  3.266355E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.132701E+02
  P =   6.453657E+01 -1.949487E+02 -5.756910E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   4.096923E+02
  P =  -3.942661E+01  2.964404E+02 -2.800293E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.600749E+02
  P =  -2.374253E+00 -1.701706E+02  3.173173E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.075967E+02
  P =  -2.232057E+01 -4.055497E+01 -9.712951E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.226361E+02
  P =   6.412144E+01 -8.571487E+01  5.984153E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.694147E+02
  P =   7.343066E+01  2.681650E+01 -2.578238E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.920726E+02
  P =  -2.180870E+01 -8.064133E+01  2.798710E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.902924E+02
  P =   5.893124E+01 -1.587949E+02 -8.673213E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.482203E+02
  P =  -1.105532E+02  2.126198E+02  6.468497E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.707584E+02
  P =  -5.431199E+01  3.054995E+02 -2.029337E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.045895E+02
  P =  -7.779699E+01 -1.816366E+02  5.303444E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.204815E+02
  P =   6.313348E+01 -2.101192E+02 -2.182103E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.041706E+02
  P =   6.897550E+01  8.625634E+01  1.717203E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  7.02181E-07
 sqme_ref* =>  1.60249E-05
 event_index* => 6
 event_weight* =>  9.10255E+00
 event_weight_ref* =>  2.07735E+02
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-1| 2.6941474E+02; 7.3430662E+01, 2.6816499E+01,-2.5782380E+02| 0.0000000E+00| 3)
  4 prt(o:1| 2.9207259E+02;-2.1808697E+01,-8.0641329E+01, 2.7987096E+02| 0.0000000E+00| 4)
  5 prt(o:21| 1.9029237E+02; 5.8931241E+01,-1.5879493E+02,-8.6732130E+01| 0.0000000E+00| 5)
  6 prt(o:21| 2.4822031E+02;-1.1055321E+02, 2.1261976E+02, 6.4684974E+01| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #6
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  1.60249E-05
    Squared matrix el. (prc) =  5.00565E-07
    Event weight (ref)       =  2.07735E+02
    Event weight (prc)       =  6.48895E+00
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            4125922664.0,         1099593662.0,          947678322.0,
            1549828072.0,         1211032067.0,         3439727021.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   4.316672E+02
  P =  -5.171632E+01  3.335645E+02 -2.690664E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.550626E+02
  P =  -1.282024E+01 -1.386159E+02  3.266355E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.132701E+02
  P =   6.453657E+01 -1.949487E+02 -5.756910E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            2642801743.0,         4156652070.0,         1063163963.0,
            1965590681.0,         3112607032.0,          766456187.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.707584E+02
  P =  -5.431199E+01  3.054995E+02 -2.029337E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.045895E+02
  P =  -7.779699E+01 -1.816366E+02  5.303444E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.204815E+02
  P =   6.313348E+01 -2.101192E+02 -2.182103E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.041706E+02
  P =   6.897550E+01  8.625634E+01  1.717203E+02
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  5.005650007E-07
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.316672E+02
  P =  -5.171632E+01  3.335645E+02 -2.690664E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   3.550626E+02
  P =  -1.282024E+01 -1.386159E+02  3.266355E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.132701E+02
  P =   6.453657E+01 -1.949487E+02 -5.756910E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   4.096923E+02
  P =  -3.942661E+01  2.964404E+02 -2.800293E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.600749E+02
  P =  -2.374253E+00 -1.701706E+02  3.173173E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.075967E+02
  P =  -2.232057E+01 -4.055497E+01 -9.712951E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.226361E+02
  P =   6.412144E+01 -8.571487E+01  5.984153E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.694147E+02
  P =   7.343066E+01  2.681650E+01 -2.578238E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.920726E+02
  P =  -2.180870E+01 -8.064133E+01  2.798710E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.902924E+02
  P =   5.893124E+01 -1.587949E+02 -8.673213E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.482203E+02
  P =  -1.105532E+02  2.126198E+02  6.468497E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.707584E+02
  P =  -5.431199E+01  3.054995E+02 -2.029337E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.045895E+02
  P =  -7.779699E+01 -1.816366E+02  5.303444E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.204815E+02
  P =   6.313348E+01 -2.101192E+02 -2.182103E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.041706E+02
  P =   6.897550E+01  8.625634E+01  1.717203E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  5.00565E-07
 sqme_ref* =>  1.60249E-05
 event_index* => 6
 event_weight* =>  6.48895E+00
 event_weight_ref* =>  2.07735E+02
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-2| 3.7075841E+02;-5.4311991E+01, 3.0549946E+02,-2.0293371E+02| 0.0000000E+00| 3)
  4 prt(o:2| 2.0458951E+02;-7.7796989E+01,-1.8163657E+02, 5.3034445E+01| 0.0000000E+00| 4)
  5 prt(o:21| 2.2048148E+02; 6.3133476E+01,-2.1011923E+02,-2.1821026E+01| 0.0000000E+00| 5)
  6 prt(o:21| 2.0417060E+02; 6.8975504E+01, 8.6256341E+01, 1.7172029E+02| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #7
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  8.83369E-06
    Squared matrix el. (prc) =  0.00000E+00
    Event weight (ref)       =  8.10008E+00
    Event weight (prc)       =  0.00000E+00
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3576035536.0,         2293616308.0,         1936885241.0,
            2020414557.0,         2733429172.0,         2006815896.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   4.788800E+02
  P =   2.318826E+01  3.522619E+02 -3.235737E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   4.881018E+02
  P =  -3.890385E+01 -3.387347E+02  3.492687E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.301819E+01
  P =   1.571558E+01 -1.352722E+01 -2.569506E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            2983838794.0,         1385001890.0,         2744238164.0,
            3397930769.0,         3140992418.0,         2193146513.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   3.942560E+02
  P =   1.642569E+01  2.933804E+02 -2.628610E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.951924E+02
  P =  -2.015823E+02 -2.393926E+02  2.413147E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.163637E+01
  P =   1.521482E+01 -1.788732E+01 -2.119936E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.789152E+02
  P =   1.699418E+02 -3.610042E+01  4.274566E+01
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  4.890198083E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.788800E+02
  P =   2.318826E+01  3.522619E+02 -3.235737E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   4.881018E+02
  P =  -3.890385E+01 -3.387347E+02  3.492687E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.301819E+01
  P =   1.571558E+01 -1.352722E+01 -2.569506E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.802564E+02
  P =   2.577931E+01  3.500317E+02 -3.278101E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.864129E+02
  P =  -3.627125E+01 -3.410007E+02  3.449644E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   2.122778E+01
  P =   4.489502E-01 -1.531889E+01 -1.468839E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   1.210292E+01
  P =   1.004299E+01  6.287933E+00 -2.465977E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   3.856990E+02
  P =   1.851879E+02  2.314010E+02 -2.468253E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   4.035784E+02
  P =  -3.480039E+01 -2.763976E+02  2.920083E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.518761E+01
  P =   1.602946E+01 -8.758970E+00 -3.007498E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.755350E+02
  P =  -1.664170E+02  5.375550E+01 -1.510808E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   3.942560E+02
  P =   1.642569E+01  2.933804E+02 -2.628610E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.951924E+02
  P =  -2.015823E+02 -2.393926E+02  2.413147E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.163637E+01
  P =   1.521482E+01 -1.788732E+01 -2.119936E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.789152E+02
  P =   1.699418E+02 -3.610042E+01  4.274566E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 3
 n_tot* => 5
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  0.00000E+00
 sqme_ref* =>  8.83369E-06
 event_index* => 7
 event_weight* =>  0.00000E+00
 event_weight_ref* =>  8.10008E+00
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-3| 4.7888002E+02; 2.3188264E+01, 3.5226191E+02,-3.2357368E+02| 0.0000000E+00| 3)
  4 prt(o:3| 4.8810178E+02;-3.8903846E+01,-3.3873469E+02, 3.4926874E+02| 0.0000000E+00| 4)
  5 prt(o:21| 3.3018195E+01; 1.5715582E+01,-1.3527221E+01,-2.5695057E+01| 0.0000000E+00| 5)
 ========================================================================
 ========================================================================
  Event #7
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  8.83369E-06
    Squared matrix el. (prc) =  1.55977E-04
    Event weight (ref)       =  8.10008E+00
    Event weight (prc)       =  0.00000E+00
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3576035536.0,         2293616308.0,         1936885241.0,
            2020414557.0,         2733429172.0,         2006815896.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   4.788800E+02
  P =   2.318826E+01  3.522619E+02 -3.235737E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   4.881018E+02
  P =  -3.890385E+01 -3.387347E+02  3.492687E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.301819E+01
  P =   1.571558E+01 -1.352722E+01 -2.569506E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            2983838794.0,         1385001890.0,         2744238164.0,
            3397930769.0,         3140992418.0,         2193146513.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   3.942560E+02
  P =   1.642569E+01  2.933804E+02 -2.628610E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.951924E+02
  P =  -2.015823E+02 -2.393926E+02  2.413147E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.163637E+01
  P =   1.521482E+01 -1.788732E+01 -2.119936E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.789152E+02
  P =   1.699418E+02 -3.610042E+01  4.274566E+01
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  4.890198083E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.788800E+02
  P =   2.318826E+01  3.522619E+02 -3.235737E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   4.881018E+02
  P =  -3.890385E+01 -3.387347E+02  3.492687E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.301819E+01
  P =   1.571558E+01 -1.352722E+01 -2.569506E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.802564E+02
  P =   2.577931E+01  3.500317E+02 -3.278101E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.864129E+02
  P =  -3.627125E+01 -3.410007E+02  3.449644E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   2.122778E+01
  P =   4.489502E-01 -1.531889E+01 -1.468839E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   1.210292E+01
  P =   1.004299E+01  6.287933E+00 -2.465977E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   3.856990E+02
  P =   1.851879E+02  2.314010E+02 -2.468253E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   4.035784E+02
  P =  -3.480039E+01 -2.763976E+02  2.920083E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.518761E+01
  P =   1.602946E+01 -8.758970E+00 -3.007498E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.755350E+02
  P =  -1.664170E+02  5.375550E+01 -1.510808E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   3.942560E+02
  P =   1.642569E+01  2.933804E+02 -2.628610E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.951924E+02
  P =  -2.015823E+02 -2.393926E+02  2.413147E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.163637E+01
  P =   1.521482E+01 -1.788732E+01 -2.119936E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.789152E+02
  P =   1.699418E+02 -3.610042E+01  4.274566E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  1.55977E-04
 sqme_ref* =>  8.83369E-06
 event_index* => 7
 event_weight* =>  0.00000E+00
 event_weight_ref* =>  8.10008E+00
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-2| 4.8025636E+02; 2.5779314E+01, 3.5003166E+02,-3.2781006E+02| 0.0000000E+00| 3)
  4 prt(o:2| 4.8641293E+02;-3.6271251E+01,-3.4100070E+02, 3.4496443E+02| 0.0000000E+00| 4)
  5 prt(o:-2| 2.1227785E+01; 4.4895022E-01,-1.5318890E+01,-1.4688394E+01| 0.0000000E+00| 5)
  6 prt(o:2| 1.2102922E+01; 1.0042987E+01, 6.2879328E+00,-2.4659768E+00| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #7
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  8.83369E-06
    Squared matrix el. (prc) =  3.94349E-06
    Event weight (ref)       =  8.10008E+00
    Event weight (prc)       =  3.61600E+00
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3576035536.0,         2293616308.0,         1936885241.0,
            2020414557.0,         2733429172.0,         2006815896.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   4.788800E+02
  P =   2.318826E+01  3.522619E+02 -3.235737E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   4.881018E+02
  P =  -3.890385E+01 -3.387347E+02  3.492687E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.301819E+01
  P =   1.571558E+01 -1.352722E+01 -2.569506E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            2983838794.0,         1385001890.0,         2744238164.0,
            3397930769.0,         3140992418.0,         2193146513.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   3.942560E+02
  P =   1.642569E+01  2.933804E+02 -2.628610E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.951924E+02
  P =  -2.015823E+02 -2.393926E+02  2.413147E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.163637E+01
  P =   1.521482E+01 -1.788732E+01 -2.119936E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.789152E+02
  P =   1.699418E+02 -3.610042E+01  4.274566E+01
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  4.890198083E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.788800E+02
  P =   2.318826E+01  3.522619E+02 -3.235737E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   4.881018E+02
  P =  -3.890385E+01 -3.387347E+02  3.492687E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.301819E+01
  P =   1.571558E+01 -1.352722E+01 -2.569506E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.802564E+02
  P =   2.577931E+01  3.500317E+02 -3.278101E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.864129E+02
  P =  -3.627125E+01 -3.410007E+02  3.449644E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   2.122778E+01
  P =   4.489502E-01 -1.531889E+01 -1.468839E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   1.210292E+01
  P =   1.004299E+01  6.287933E+00 -2.465977E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   3.856990E+02
  P =   1.851879E+02  2.314010E+02 -2.468253E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   4.035784E+02
  P =  -3.480039E+01 -2.763976E+02  2.920083E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.518761E+01
  P =   1.602946E+01 -8.758970E+00 -3.007498E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.755350E+02
  P =  -1.664170E+02  5.375550E+01 -1.510808E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   3.942560E+02
  P =   1.642569E+01  2.933804E+02 -2.628610E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.951924E+02
  P =  -2.015823E+02 -2.393926E+02  2.413147E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.163637E+01
  P =   1.521482E+01 -1.788732E+01 -2.119936E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.789152E+02
  P =   1.699418E+02 -3.610042E+01  4.274566E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  3.94349E-06
 sqme_ref* =>  8.83369E-06
 event_index* => 7
 event_weight* =>  3.61600E+00
 event_weight_ref* =>  8.10008E+00
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-3| 3.8569900E+02; 1.8518792E+02, 2.3140102E+02,-2.4682528E+02| 0.0000000E+00| 3)
  4 prt(o:3| 4.0357843E+02;-3.4800393E+01,-2.7639756E+02, 2.9200834E+02| 0.0000000E+00| 4)
  5 prt(o:21| 3.5187606E+01; 1.6029460E+01,-8.7589705E+00,-3.0074981E+01| 0.0000000E+00| 5)
  6 prt(o:21| 1.7553496E+02;-1.6641699E+02, 5.3755504E+01,-1.5108077E+01| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #7
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  8.83369E-06
    Squared matrix el. (prc) =  4.89020E-06
    Event weight (ref)       =  8.10008E+00
    Event weight (prc)       =  4.48408E+00
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3576035536.0,         2293616308.0,         1936885241.0,
            2020414557.0,         2733429172.0,         2006815896.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   4.788800E+02
  P =   2.318826E+01  3.522619E+02 -3.235737E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   4.881018E+02
  P =  -3.890385E+01 -3.387347E+02  3.492687E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.301819E+01
  P =   1.571558E+01 -1.352722E+01 -2.569506E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            2983838794.0,         1385001890.0,         2744238164.0,
            3397930769.0,         3140992418.0,         2193146513.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   3.942560E+02
  P =   1.642569E+01  2.933804E+02 -2.628610E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.951924E+02
  P =  -2.015823E+02 -2.393926E+02  2.413147E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.163637E+01
  P =   1.521482E+01 -1.788732E+01 -2.119936E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.789152E+02
  P =   1.699418E+02 -3.610042E+01  4.274566E+01
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  4.890198083E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.788800E+02
  P =   2.318826E+01  3.522619E+02 -3.235737E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   4.881018E+02
  P =  -3.890385E+01 -3.387347E+02  3.492687E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.301819E+01
  P =   1.571558E+01 -1.352722E+01 -2.569506E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.802564E+02
  P =   2.577931E+01  3.500317E+02 -3.278101E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.864129E+02
  P =  -3.627125E+01 -3.410007E+02  3.449644E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   2.122778E+01
  P =   4.489502E-01 -1.531889E+01 -1.468839E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   1.210292E+01
  P =   1.004299E+01  6.287933E+00 -2.465977E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   3.856990E+02
  P =   1.851879E+02  2.314010E+02 -2.468253E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   4.035784E+02
  P =  -3.480039E+01 -2.763976E+02  2.920083E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.518761E+01
  P =   1.602946E+01 -8.758970E+00 -3.007498E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.755350E+02
  P =  -1.664170E+02  5.375550E+01 -1.510808E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   3.942560E+02
  P =   1.642569E+01  2.933804E+02 -2.628610E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.951924E+02
  P =  -2.015823E+02 -2.393926E+02  2.413147E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.163637E+01
  P =   1.521482E+01 -1.788732E+01 -2.119936E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.789152E+02
  P =   1.699418E+02 -3.610042E+01  4.274566E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  4.89020E-06
 sqme_ref* =>  8.83369E-06
 event_index* => 7
 event_weight* =>  4.48408E+00
 event_weight_ref* =>  8.10008E+00
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-1| 3.9425595E+02; 1.6425689E+01, 2.9338037E+02,-2.6286102E+02| 0.0000000E+00| 3)
  4 prt(o:1| 3.9519244E+02;-2.0158234E+02,-2.3939263E+02, 2.4131472E+02| 0.0000000E+00| 4)
  5 prt(o:21| 3.1636374E+01; 1.5214822E+01,-1.7887322E+01,-2.1199365E+01| 0.0000000E+00| 5)
  6 prt(o:21| 1.7891523E+02; 1.6994183E+02,-3.6100416E+01, 4.2745660E+01| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #8
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  0.00000E+00
    Squared matrix el. (prc) =  0.00000E+00
    Event weight (ref)       =  0.00000E+00
    Event weight (prc)       =  0.00000E+00
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
             265363073.0,         2498283046.0,          987287394.0,
            1610688028.0,         4034146020.0,         3552764251.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.870751E+02
  P =  -3.736493E+02  1.987958E+02 -2.410570E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   4.661453E+02
  P =   3.301426E+02 -2.128020E+02  2.510232E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   4.677963E+01
  P =   4.350675E+01  1.400614E+01 -9.966171E+00
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            2286692505.0,         4134998199.0,         2039489375.0,
            2133112660.0,         2120463776.0,          417067873.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.857981E+02
  P =  -3.727414E+02  1.982106E+02 -2.403667E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.281892E+02
  P =   7.746421E+01 -7.618367E+01  6.802796E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   4.683000E+01
  P =   4.359411E+01  1.394983E+01 -9.899748E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   3.391828E+02
  P =   2.516831E+02 -1.359768E+02  1.822385E+02
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  4.890198083E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.870751E+02
  P =  -3.736493E+02  1.987958E+02 -2.410570E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.661453E+02
  P =   3.301426E+02 -2.128020E+02  2.510232E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   4.677963E+01
  P =   4.350675E+01  1.400614E+01 -9.966171E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.870130E+02
  P =  -3.735304E+02  1.988341E+02 -2.410842E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.661952E+02
  P =   3.302564E+02 -2.127654E+02  2.509971E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   1.275347E+01
  P =   1.235827E+01  1.666857E+00 -2.673150E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   3.403841E+01
  P =   3.091577E+01  1.226437E+01 -7.239714E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.340029E+02
  P =  -9.044550E+01  7.424502E+01 -6.529986E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.648680E+02
  P =   3.291589E+02 -2.122786E+02  2.503885E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   4.671720E+01
  P =   4.340796E+01  1.405870E+01 -1.002990E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   3.544119E+02
  P =  -2.821214E+02  1.239749E+02 -1.750588E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.857981E+02
  P =  -3.727414E+02  1.982106E+02 -2.403667E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.281892E+02
  P =   7.746421E+01 -7.618367E+01  6.802796E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   4.683000E+01
  P =   4.359411E+01  1.394983E+01 -9.899748E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   3.391828E+02
  P =   2.516831E+02 -1.359768E+02  1.822385E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 3
 n_tot* => 5
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  0.00000E+00
 sqme_ref* =>  0.00000E+00
 event_index* => 8
 event_weight* =>  0.00000E+00
 event_weight_ref* =>  0.00000E+00
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-2| 4.8707505E+02;-3.7364935E+02, 1.9879585E+02,-2.4105701E+02| 0.0000000E+00| 3)
  4 prt(o:2| 4.6614532E+02; 3.3014260E+02,-2.1280199E+02, 2.5102318E+02| 0.0000000E+00| 4)
  5 prt(o:21| 4.6779628E+01; 4.3506748E+01, 1.4006140E+01,-9.9661711E+00| 0.0000000E+00| 5)
 ========================================================================
 ========================================================================
  Event #8
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  0.00000E+00
    Squared matrix el. (prc) =  0.00000E+00
    Event weight (ref)       =  0.00000E+00
    Event weight (prc)       =  0.00000E+00
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
             265363073.0,         2498283046.0,          987287394.0,
            1610688028.0,         4034146020.0,         3552764251.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.870751E+02
  P =  -3.736493E+02  1.987958E+02 -2.410570E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   4.661453E+02
  P =   3.301426E+02 -2.128020E+02  2.510232E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   4.677963E+01
  P =   4.350675E+01  1.400614E+01 -9.966171E+00
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            2286692505.0,         4134998199.0,         2039489375.0,
            2133112660.0,         2120463776.0,          417067873.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.857981E+02
  P =  -3.727414E+02  1.982106E+02 -2.403667E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.281892E+02
  P =   7.746421E+01 -7.618367E+01  6.802796E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   4.683000E+01
  P =   4.359411E+01  1.394983E+01 -9.899748E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   3.391828E+02
  P =   2.516831E+02 -1.359768E+02  1.822385E+02
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  4.890198083E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.870751E+02
  P =  -3.736493E+02  1.987958E+02 -2.410570E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.661453E+02
  P =   3.301426E+02 -2.128020E+02  2.510232E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   4.677963E+01
  P =   4.350675E+01  1.400614E+01 -9.966171E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.870130E+02
  P =  -3.735304E+02  1.988341E+02 -2.410842E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.661952E+02
  P =   3.302564E+02 -2.127654E+02  2.509971E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   1.275347E+01
  P =   1.235827E+01  1.666857E+00 -2.673150E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   3.403841E+01
  P =   3.091577E+01  1.226437E+01 -7.239714E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.340029E+02
  P =  -9.044550E+01  7.424502E+01 -6.529986E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.648680E+02
  P =   3.291589E+02 -2.122786E+02  2.503885E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   4.671720E+01
  P =   4.340796E+01  1.405870E+01 -1.002990E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   3.544119E+02
  P =  -2.821214E+02  1.239749E+02 -1.750588E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.857981E+02
  P =  -3.727414E+02  1.982106E+02 -2.403667E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.281892E+02
  P =   7.746421E+01 -7.618367E+01  6.802796E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   4.683000E+01
  P =   4.359411E+01  1.394983E+01 -9.899748E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   3.391828E+02
  P =   2.516831E+02 -1.359768E+02  1.822385E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  0.00000E+00
 sqme_ref* =>  0.00000E+00
 event_index* => 8
 event_weight* =>  0.00000E+00
 event_weight_ref* =>  0.00000E+00
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-2| 4.8701295E+02;-3.7353045E+02, 1.9883413E+02,-2.4108424E+02| 0.0000000E+00| 3)
  4 prt(o:2| 4.6619517E+02; 3.3025641E+02,-2.1276535E+02, 2.5099711E+02| 0.0000000E+00| 4)
  5 prt(o:-2| 1.2753469E+01; 1.2358270E+01, 1.6668573E+00,-2.6731503E+00| 0.0000000E+00| 5)
  6 prt(o:2| 3.4038406E+01; 3.0915771E+01, 1.2264367E+01,-7.2397142E+00| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #8
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  0.00000E+00
    Squared matrix el. (prc) =  0.00000E+00
    Event weight (ref)       =  0.00000E+00
    Event weight (prc)       =  0.00000E+00
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
             265363073.0,         2498283046.0,          987287394.0,
            1610688028.0,         4034146020.0,         3552764251.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.870751E+02
  P =  -3.736493E+02  1.987958E+02 -2.410570E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   4.661453E+02
  P =   3.301426E+02 -2.128020E+02  2.510232E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   4.677963E+01
  P =   4.350675E+01  1.400614E+01 -9.966171E+00
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            2286692505.0,         4134998199.0,         2039489375.0,
            2133112660.0,         2120463776.0,          417067873.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.857981E+02
  P =  -3.727414E+02  1.982106E+02 -2.403667E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.281892E+02
  P =   7.746421E+01 -7.618367E+01  6.802796E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   4.683000E+01
  P =   4.359411E+01  1.394983E+01 -9.899748E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   3.391828E+02
  P =   2.516831E+02 -1.359768E+02  1.822385E+02
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  4.890198083E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.870751E+02
  P =  -3.736493E+02  1.987958E+02 -2.410570E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.661453E+02
  P =   3.301426E+02 -2.128020E+02  2.510232E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   4.677963E+01
  P =   4.350675E+01  1.400614E+01 -9.966171E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.870130E+02
  P =  -3.735304E+02  1.988341E+02 -2.410842E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.661952E+02
  P =   3.302564E+02 -2.127654E+02  2.509971E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   1.275347E+01
  P =   1.235827E+01  1.666857E+00 -2.673150E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   3.403841E+01
  P =   3.091577E+01  1.226437E+01 -7.239714E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.340029E+02
  P =  -9.044550E+01  7.424502E+01 -6.529986E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.648680E+02
  P =   3.291589E+02 -2.122786E+02  2.503885E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   4.671720E+01
  P =   4.340796E+01  1.405870E+01 -1.002990E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   3.544119E+02
  P =  -2.821214E+02  1.239749E+02 -1.750588E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.857981E+02
  P =  -3.727414E+02  1.982106E+02 -2.403667E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.281892E+02
  P =   7.746421E+01 -7.618367E+01  6.802796E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   4.683000E+01
  P =   4.359411E+01  1.394983E+01 -9.899748E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   3.391828E+02
  P =   2.516831E+02 -1.359768E+02  1.822385E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  0.00000E+00
 sqme_ref* =>  0.00000E+00
 event_index* => 8
 event_weight* =>  0.00000E+00
 event_weight_ref* =>  0.00000E+00
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-2| 1.3400292E+02;-9.0445497E+01, 7.4245022E+01,-6.5299856E+01| 0.0000000E+00| 3)
  4 prt(o:2| 4.6486795E+02; 3.2915889E+02,-2.1227862E+02, 2.5038855E+02| 0.0000000E+00| 4)
  5 prt(o:-2| 4.6717201E+01; 4.3407959E+01, 1.4058700E+01,-1.0029904E+01| 0.0000000E+00| 5)
  6 prt(o:2| 3.5441193E+02;-2.8212136E+02, 1.2397490E+02,-1.7505879E+02| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #8
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  0.00000E+00
    Squared matrix el. (prc) =  0.00000E+00
    Event weight (ref)       =  0.00000E+00
    Event weight (prc)       =  0.00000E+00
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
             265363073.0,         2498283046.0,          987287394.0,
            1610688028.0,         4034146020.0,         3552764251.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.870751E+02
  P =  -3.736493E+02  1.987958E+02 -2.410570E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   4.661453E+02
  P =   3.301426E+02 -2.128020E+02  2.510232E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   4.677963E+01
  P =   4.350675E+01  1.400614E+01 -9.966171E+00
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            2286692505.0,         4134998199.0,         2039489375.0,
            2133112660.0,         2120463776.0,          417067873.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.857981E+02
  P =  -3.727414E+02  1.982106E+02 -2.403667E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.281892E+02
  P =   7.746421E+01 -7.618367E+01  6.802796E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   4.683000E+01
  P =   4.359411E+01  1.394983E+01 -9.899748E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   3.391828E+02
  P =   2.516831E+02 -1.359768E+02  1.822385E+02
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  4.890198083E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.870751E+02
  P =  -3.736493E+02  1.987958E+02 -2.410570E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.661453E+02
  P =   3.301426E+02 -2.128020E+02  2.510232E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   4.677963E+01
  P =   4.350675E+01  1.400614E+01 -9.966171E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.870130E+02
  P =  -3.735304E+02  1.988341E+02 -2.410842E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.661952E+02
  P =   3.302564E+02 -2.127654E+02  2.509971E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   1.275347E+01
  P =   1.235827E+01  1.666857E+00 -2.673150E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   3.403841E+01
  P =   3.091577E+01  1.226437E+01 -7.239714E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.340029E+02
  P =  -9.044550E+01  7.424502E+01 -6.529986E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.648680E+02
  P =   3.291589E+02 -2.122786E+02  2.503885E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   4.671720E+01
  P =   4.340796E+01  1.405870E+01 -1.002990E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   3.544119E+02
  P =  -2.821214E+02  1.239749E+02 -1.750588E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.857981E+02
  P =  -3.727414E+02  1.982106E+02 -2.403667E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.281892E+02
  P =   7.746421E+01 -7.618367E+01  6.802796E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   4.683000E+01
  P =   4.359411E+01  1.394983E+01 -9.899748E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   3.391828E+02
  P =   2.516831E+02 -1.359768E+02  1.822385E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  0.00000E+00
 sqme_ref* =>  0.00000E+00
 event_index* => 8
 event_weight* =>  0.00000E+00
 event_weight_ref* =>  0.00000E+00
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-2| 4.8579809E+02;-3.7274144E+02, 1.9821063E+02,-2.4036668E+02| 0.0000000E+00| 3)
  4 prt(o:2| 1.2818915E+02; 7.7464211E+01,-7.6183668E+01, 6.8027961E+01| 0.0000000E+00| 4)
  5 prt(o:-2| 4.6830000E+01; 4.3594106E+01, 1.3949831E+01,-9.8997483E+00| 0.0000000E+00| 5)
  6 prt(o:2| 3.3918276E+02; 2.5168313E+02,-1.3597680E+02, 1.8223847E+02| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #9
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  1.04106E-05
    Squared matrix el. (prc) =  8.63202E-07
    Event weight (ref)       =  7.89829E+01
    Event weight (prc)       =  6.54895E+00
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3788034272.0,         3633530561.0,          205946851.0,
            3071111705.0,         3622279560.0,         2218066770.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.393114E+02
  P =  -1.177910E+02 -3.816695E+02 -1.828884E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.679230E+02
  P =   2.249316E+00  2.526218E+02  2.674780E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.927656E+02
  P =   1.155417E+02  1.290476E+02 -8.458965E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
             593630244.0,         2352310477.0,          331428453.0,
            2567512357.0,         1557825531.0,          961477674.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   3.984514E+02
  P =  -1.175103E+02 -3.501451E+02 -1.495101E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.811992E+02
  P =  -9.428742E+01  1.300805E+02  2.307854E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.969851E+02
  P =   1.156723E+02  1.437136E+02 -6.906113E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.233643E+02
  P =   9.612546E+01  7.635090E+01 -1.221421E+01
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  1.961097326E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   4.393114E+02
  P =  -1.177910E+02 -3.816695E+02 -1.828884E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.679230E+02
  P =   2.249316E+00  2.526218E+02  2.674780E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.927656E+02
  P =   1.155417E+02  1.290476E+02 -8.458965E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.264440E+02
  P =  -1.035206E+02 -3.657310E+02 -1.933359E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.714022E+02
  P =   1.443574E+01  2.662328E+02  2.585562E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.375197E+02
  P =   4.718564E+01  1.268620E+02 -2.431489E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   6.463416E+01
  P =   4.189927E+01 -2.736380E+01 -4.090536E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   3.458133E+02
  P =   1.485231E+01 -3.399500E+02 -6.164615E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   3.268412E+02
  P =  -1.016274E+01  2.124040E+02  2.482064E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.800447E+02
  P =   1.088814E+02  1.074667E+02 -9.493078E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.473008E+02
  P =  -1.135710E+02  2.007927E+01 -9.162951E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   3.984514E+02
  P =  -1.175103E+02 -3.501451E+02 -1.495101E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.811992E+02
  P =  -9.428742E+01  1.300805E+02  2.307854E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.969851E+02
  P =   1.156723E+02  1.437136E+02 -6.906113E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.233643E+02
  P =   9.612546E+01  7.635090E+01 -1.221421E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 3
 n_tot* => 5
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  8.63202E-07
 sqme_ref* =>  1.04106E-05
 event_index* => 9
 event_weight* =>  6.54895E+00
 event_weight_ref* =>  7.89829E+01
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-1| 4.3931136E+02;-1.1779104E+02,-3.8166947E+02,-1.8288838E+02| 0.0000000E+00| 3)
  4 prt(o:1| 3.6792302E+02; 2.2493159E+00, 2.5262185E+02, 2.6747802E+02| 0.0000000E+00| 4)
  5 prt(o:21| 1.9276562E+02; 1.1554172E+02, 1.2904762E+02,-8.4589646E+01| 0.0000000E+00| 5)
 ========================================================================
 ========================================================================
  Event #9
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  1.04106E-05
    Squared matrix el. (prc) =  6.58562E-06
    Event weight (ref)       =  7.89829E+01
    Event weight (prc)       =  4.99638E+01
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3788034272.0,         3633530561.0,          205946851.0,
            3071111705.0,         3622279560.0,         2218066770.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.393114E+02
  P =  -1.177910E+02 -3.816695E+02 -1.828884E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.679230E+02
  P =   2.249316E+00  2.526218E+02  2.674780E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.927656E+02
  P =   1.155417E+02  1.290476E+02 -8.458965E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
             593630244.0,         2352310477.0,          331428453.0,
            2567512357.0,         1557825531.0,          961477674.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   3.984514E+02
  P =  -1.175103E+02 -3.501451E+02 -1.495101E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.811992E+02
  P =  -9.428742E+01  1.300805E+02  2.307854E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.969851E+02
  P =   1.156723E+02  1.437136E+02 -6.906113E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.233643E+02
  P =   9.612546E+01  7.635090E+01 -1.221421E+01
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  1.961097326E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   4.393114E+02
  P =  -1.177910E+02 -3.816695E+02 -1.828884E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.679230E+02
  P =   2.249316E+00  2.526218E+02  2.674780E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.927656E+02
  P =   1.155417E+02  1.290476E+02 -8.458965E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.264440E+02
  P =  -1.035206E+02 -3.657310E+02 -1.933359E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.714022E+02
  P =   1.443574E+01  2.662328E+02  2.585562E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.375197E+02
  P =   4.718564E+01  1.268620E+02 -2.431489E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   6.463416E+01
  P =   4.189927E+01 -2.736380E+01 -4.090536E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   3.458133E+02
  P =   1.485231E+01 -3.399500E+02 -6.164615E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   3.268412E+02
  P =  -1.016274E+01  2.124040E+02  2.482064E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.800447E+02
  P =   1.088814E+02  1.074667E+02 -9.493078E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.473008E+02
  P =  -1.135710E+02  2.007927E+01 -9.162951E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   3.984514E+02
  P =  -1.175103E+02 -3.501451E+02 -1.495101E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.811992E+02
  P =  -9.428742E+01  1.300805E+02  2.307854E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.969851E+02
  P =   1.156723E+02  1.437136E+02 -6.906113E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.233643E+02
  P =   9.612546E+01  7.635090E+01 -1.221421E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  6.58562E-06
 sqme_ref* =>  1.04106E-05
 event_index* => 9
 event_weight* =>  4.99638E+01
 event_weight_ref* =>  7.89829E+01
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-2| 4.2644396E+02;-1.0352064E+02,-3.6573098E+02,-1.9333592E+02| 0.0000000E+00| 3)
  4 prt(o:2| 3.7140217E+02; 1.4435739E+01, 2.6623277E+02, 2.5855618E+02| 0.0000000E+00| 4)
  5 prt(o:21| 1.3751970E+02; 4.7185638E+01, 1.2686201E+02,-2.4314893E+01| 0.0000000E+00| 5)
  6 prt(o:21| 6.4634162E+01; 4.1899267E+01,-2.7363801E+01,-4.0905363E+01| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #9
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  1.04106E-05
    Squared matrix el. (prc) =  1.00064E-06
    Event weight (ref)       =  7.89829E+01
    Event weight (prc)       =  7.59165E+00
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3788034272.0,         3633530561.0,          205946851.0,
            3071111705.0,         3622279560.0,         2218066770.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.393114E+02
  P =  -1.177910E+02 -3.816695E+02 -1.828884E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.679230E+02
  P =   2.249316E+00  2.526218E+02  2.674780E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.927656E+02
  P =   1.155417E+02  1.290476E+02 -8.458965E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
             593630244.0,         2352310477.0,          331428453.0,
            2567512357.0,         1557825531.0,          961477674.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   3.984514E+02
  P =  -1.175103E+02 -3.501451E+02 -1.495101E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.811992E+02
  P =  -9.428742E+01  1.300805E+02  2.307854E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.969851E+02
  P =   1.156723E+02  1.437136E+02 -6.906113E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.233643E+02
  P =   9.612546E+01  7.635090E+01 -1.221421E+01
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  1.961097326E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   4.393114E+02
  P =  -1.177910E+02 -3.816695E+02 -1.828884E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.679230E+02
  P =   2.249316E+00  2.526218E+02  2.674780E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.927656E+02
  P =   1.155417E+02  1.290476E+02 -8.458965E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.264440E+02
  P =  -1.035206E+02 -3.657310E+02 -1.933359E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.714022E+02
  P =   1.443574E+01  2.662328E+02  2.585562E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.375197E+02
  P =   4.718564E+01  1.268620E+02 -2.431489E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   6.463416E+01
  P =   4.189927E+01 -2.736380E+01 -4.090536E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   3.458133E+02
  P =   1.485231E+01 -3.399500E+02 -6.164615E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   3.268412E+02
  P =  -1.016274E+01  2.124040E+02  2.482064E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.800447E+02
  P =   1.088814E+02  1.074667E+02 -9.493078E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.473008E+02
  P =  -1.135710E+02  2.007927E+01 -9.162951E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   3.984514E+02
  P =  -1.175103E+02 -3.501451E+02 -1.495101E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.811992E+02
  P =  -9.428742E+01  1.300805E+02  2.307854E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.969851E+02
  P =   1.156723E+02  1.437136E+02 -6.906113E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.233643E+02
  P =   9.612546E+01  7.635090E+01 -1.221421E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  1.00064E-06
 sqme_ref* =>  1.04106E-05
 event_index* => 9
 event_weight* =>  7.59165E+00
 event_weight_ref* =>  7.89829E+01
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-3| 3.4581329E+02; 1.4852312E+01,-3.3994999E+02,-6.1646148E+01| 0.0000000E+00| 3)
  4 prt(o:3| 3.2684120E+02;-1.0162739E+01, 2.1240400E+02, 2.4820643E+02| 0.0000000E+00| 4)
  5 prt(o:21| 1.8004475E+02; 1.0888141E+02, 1.0746672E+02,-9.4930778E+01| 0.0000000E+00| 5)
  6 prt(o:21| 1.4730075E+02;-1.1357099E+02, 2.0079268E+01,-9.1629506E+01| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #9
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  1.04106E-05
    Squared matrix el. (prc) =  1.96110E-06
    Event weight (ref)       =  7.89829E+01
    Event weight (prc)       =  1.48785E+01
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3788034272.0,         3633530561.0,          205946851.0,
            3071111705.0,         3622279560.0,         2218066770.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.393114E+02
  P =  -1.177910E+02 -3.816695E+02 -1.828884E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.679230E+02
  P =   2.249316E+00  2.526218E+02  2.674780E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.927656E+02
  P =   1.155417E+02  1.290476E+02 -8.458965E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
             593630244.0,         2352310477.0,          331428453.0,
            2567512357.0,         1557825531.0,          961477674.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   3.984514E+02
  P =  -1.175103E+02 -3.501451E+02 -1.495101E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.811992E+02
  P =  -9.428742E+01  1.300805E+02  2.307854E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.969851E+02
  P =   1.156723E+02  1.437136E+02 -6.906113E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.233643E+02
  P =   9.612546E+01  7.635090E+01 -1.221421E+01
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  1.961097326E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   4.393114E+02
  P =  -1.177910E+02 -3.816695E+02 -1.828884E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.679230E+02
  P =   2.249316E+00  2.526218E+02  2.674780E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.927656E+02
  P =   1.155417E+02  1.290476E+02 -8.458965E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.264440E+02
  P =  -1.035206E+02 -3.657310E+02 -1.933359E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.714022E+02
  P =   1.443574E+01  2.662328E+02  2.585562E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.375197E+02
  P =   4.718564E+01  1.268620E+02 -2.431489E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   6.463416E+01
  P =   4.189927E+01 -2.736380E+01 -4.090536E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   3.458133E+02
  P =   1.485231E+01 -3.399500E+02 -6.164615E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   3.268412E+02
  P =  -1.016274E+01  2.124040E+02  2.482064E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.800447E+02
  P =   1.088814E+02  1.074667E+02 -9.493078E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.473008E+02
  P =  -1.135710E+02  2.007927E+01 -9.162951E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   3.984514E+02
  P =  -1.175103E+02 -3.501451E+02 -1.495101E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.811992E+02
  P =  -9.428742E+01  1.300805E+02  2.307854E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.969851E+02
  P =   1.156723E+02  1.437136E+02 -6.906113E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.233643E+02
  P =   9.612546E+01  7.635090E+01 -1.221421E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  1.96110E-06
 sqme_ref* =>  1.04106E-05
 event_index* => 9
 event_weight* =>  1.48785E+01
 event_weight_ref* =>  7.89829E+01
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-3| 3.9845140E+02;-1.1751035E+02,-3.5014507E+02,-1.4951010E+02| 0.0000000E+00| 3)
  4 prt(o:3| 2.8119918E+02;-9.4287416E+01, 1.3008052E+02, 2.3078544E+02| 0.0000000E+00| 4)
  5 prt(o:21| 1.9698511E+02; 1.1567230E+02, 1.4371365E+02,-6.9061134E+01| 0.0000000E+00| 5)
  6 prt(o:21| 1.2336430E+02; 9.6125458E+01, 7.6350903E+01,-1.2214212E+01| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #10
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  5.23049E-06
    Squared matrix el. (prc) =  0.00000E+00
    Event weight (ref)       =  6.51320E-01
    Event weight (prc)       =  0.00000E+00
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3430917671.0,         2920101317.0,         3284936197.0,
            1240801204.0,         2700418016.0,          622190086.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.808477E+02
  P =   7.201853E+01 -3.867396E+02 -2.765146E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.861878E+02
  P =  -1.049511E+02  3.854312E+02  2.771401E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.296446E+01
  P =   3.293255E+01  1.308376E+00 -6.254124E-01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            1519245727.0,         1936352122.0,         2549247759.0,
             415345958.0,         3249397019.0,         3432810946.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.626320E+02
  P =   4.642301E+01 -2.927405E+02 -2.089256E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.004325E+02
  P =  -1.328601E+02  3.765141E+02  3.052001E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.244982E+01
  P =   3.094754E+01  8.598280E+00  4.616312E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.044857E+02
  P =   5.548959E+01 -9.237195E+01  1.737893E+02
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  1.877537932E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.808477E+02
  P =   7.201853E+01 -3.867396E+02 -2.765146E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.861878E+02
  P =  -1.049511E+02  3.854312E+02  2.771401E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.296446E+01
  P =   3.293255E+01  1.308376E+00 -6.254124E-01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.818528E+02
  P =   7.939363E+01 -3.864466E+02 -2.766547E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.847908E+02
  P =  -9.751256E+01  3.857268E+02  2.769988E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   1.949180E+01
  P =   1.390382E+01  2.463073E+00 -1.343679E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   1.386452E+01
  P =   4.215115E+00 -1.743227E+00  1.309270E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.942094E+02
  P =   5.816200E+01 -1.542254E+02 -3.580961E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.680955E+02
  P =  -8.721085E+01  2.901662E+02  2.090266E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.545545E+01
  P =   3.435337E+01 -6.321442E+00 -6.080650E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.022397E+02
  P =  -5.304517E+00 -1.296194E+02  1.551501E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.626320E+02
  P =   4.642301E+01 -2.927405E+02 -2.089256E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.004325E+02
  P =  -1.328601E+02  3.765141E+02  3.052001E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.244982E+01
  P =   3.094754E+01  8.598280E+00  4.616312E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.044857E+02
  P =   5.548959E+01 -9.237195E+01  1.737893E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 3
 n_tot* => 5
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  0.00000E+00
 sqme_ref* =>  5.23049E-06
 event_index* => 10
 event_weight* =>  0.00000E+00
 event_weight_ref* =>  6.51320E-01
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-2| 4.8084774E+02; 7.2018531E+01,-3.8673961E+02,-2.7651464E+02| 0.0000000E+00| 3)
  4 prt(o:2| 4.8618780E+02;-1.0495108E+02, 3.8543124E+02, 2.7714006E+02| 0.0000000E+00| 4)
  5 prt(o:21| 3.2964459E+01; 3.2932546E+01, 1.3083757E+00,-6.2541238E-01| 0.0000000E+00| 5)
 ========================================================================
 ========================================================================
  Event #10
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  5.23049E-06
    Squared matrix el. (prc) =  1.01933E-04
    Event weight (ref)       =  6.51320E-01
    Event weight (prc)       =  0.00000E+00
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3430917671.0,         2920101317.0,         3284936197.0,
            1240801204.0,         2700418016.0,          622190086.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.808477E+02
  P =   7.201853E+01 -3.867396E+02 -2.765146E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.861878E+02
  P =  -1.049511E+02  3.854312E+02  2.771401E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.296446E+01
  P =   3.293255E+01  1.308376E+00 -6.254124E-01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            1519245727.0,         1936352122.0,         2549247759.0,
             415345958.0,         3249397019.0,         3432810946.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.626320E+02
  P =   4.642301E+01 -2.927405E+02 -2.089256E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.004325E+02
  P =  -1.328601E+02  3.765141E+02  3.052001E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.244982E+01
  P =   3.094754E+01  8.598280E+00  4.616312E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.044857E+02
  P =   5.548959E+01 -9.237195E+01  1.737893E+02
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  1.877537932E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.808477E+02
  P =   7.201853E+01 -3.867396E+02 -2.765146E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.861878E+02
  P =  -1.049511E+02  3.854312E+02  2.771401E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.296446E+01
  P =   3.293255E+01  1.308376E+00 -6.254124E-01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.818528E+02
  P =   7.939363E+01 -3.864466E+02 -2.766547E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.847908E+02
  P =  -9.751256E+01  3.857268E+02  2.769988E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   1.949180E+01
  P =   1.390382E+01  2.463073E+00 -1.343679E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   1.386452E+01
  P =   4.215115E+00 -1.743227E+00  1.309270E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.942094E+02
  P =   5.816200E+01 -1.542254E+02 -3.580961E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.680955E+02
  P =  -8.721085E+01  2.901662E+02  2.090266E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.545545E+01
  P =   3.435337E+01 -6.321442E+00 -6.080650E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.022397E+02
  P =  -5.304517E+00 -1.296194E+02  1.551501E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.626320E+02
  P =   4.642301E+01 -2.927405E+02 -2.089256E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.004325E+02
  P =  -1.328601E+02  3.765141E+02  3.052001E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.244982E+01
  P =   3.094754E+01  8.598280E+00  4.616312E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.044857E+02
  P =   5.548959E+01 -9.237195E+01  1.737893E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  1.01933E-04
 sqme_ref* =>  5.23049E-06
 event_index* => 10
 event_weight* =>  0.00000E+00
 event_weight_ref* =>  6.51320E-01
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-2| 4.8185284E+02; 7.9393630E+01,-3.8644661E+02,-2.7665470E+02| 0.0000000E+00| 3)
  4 prt(o:2| 4.8479085E+02;-9.7512561E+01, 3.8572676E+02, 2.7699879E+02| 0.0000000E+00| 4)
  5 prt(o:-2| 1.9491798E+01; 1.3903816E+01, 2.4630731E+00,-1.3436791E+01| 0.0000000E+00| 5)
  6 prt(o:2| 1.3864517E+01; 4.2151151E+00,-1.7432269E+00, 1.3092700E+01| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #10
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  5.23049E-06
    Squared matrix el. (prc) =  3.35295E-06
    Event weight (ref)       =  6.51320E-01
    Event weight (prc)       =  4.17522E-01
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3430917671.0,         2920101317.0,         3284936197.0,
            1240801204.0,         2700418016.0,          622190086.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.808477E+02
  P =   7.201853E+01 -3.867396E+02 -2.765146E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.861878E+02
  P =  -1.049511E+02  3.854312E+02  2.771401E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.296446E+01
  P =   3.293255E+01  1.308376E+00 -6.254124E-01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            1519245727.0,         1936352122.0,         2549247759.0,
             415345958.0,         3249397019.0,         3432810946.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.626320E+02
  P =   4.642301E+01 -2.927405E+02 -2.089256E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.004325E+02
  P =  -1.328601E+02  3.765141E+02  3.052001E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.244982E+01
  P =   3.094754E+01  8.598280E+00  4.616312E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.044857E+02
  P =   5.548959E+01 -9.237195E+01  1.737893E+02
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  1.877537932E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.808477E+02
  P =   7.201853E+01 -3.867396E+02 -2.765146E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.861878E+02
  P =  -1.049511E+02  3.854312E+02  2.771401E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.296446E+01
  P =   3.293255E+01  1.308376E+00 -6.254124E-01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.818528E+02
  P =   7.939363E+01 -3.864466E+02 -2.766547E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.847908E+02
  P =  -9.751256E+01  3.857268E+02  2.769988E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   1.949180E+01
  P =   1.390382E+01  2.463073E+00 -1.343679E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   1.386452E+01
  P =   4.215115E+00 -1.743227E+00  1.309270E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.942094E+02
  P =   5.816200E+01 -1.542254E+02 -3.580961E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.680955E+02
  P =  -8.721085E+01  2.901662E+02  2.090266E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.545545E+01
  P =   3.435337E+01 -6.321442E+00 -6.080650E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.022397E+02
  P =  -5.304517E+00 -1.296194E+02  1.551501E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.626320E+02
  P =   4.642301E+01 -2.927405E+02 -2.089256E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.004325E+02
  P =  -1.328601E+02  3.765141E+02  3.052001E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.244982E+01
  P =   3.094754E+01  8.598280E+00  4.616312E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.044857E+02
  P =   5.548959E+01 -9.237195E+01  1.737893E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  3.35295E-06
 sqme_ref* =>  5.23049E-06
 event_index* => 10
 event_weight* =>  4.17522E-01
 event_weight_ref* =>  6.51320E-01
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-2| 3.9420942E+02; 5.8161998E+01,-1.5422536E+02,-3.5809606E+02| 0.0000000E+00| 3)
  4 prt(o:2| 3.6809545E+02;-8.7210849E+01, 2.9016619E+02, 2.0902658E+02| 0.0000000E+00| 4)
  5 prt(o:21| 3.5455449E+01; 3.4353368E+01,-6.3214423E+00,-6.0806498E+00| 0.0000000E+00| 5)
  6 prt(o:21| 2.0223968E+02;-5.3045172E+00,-1.2961939E+02, 1.5515013E+02| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #10
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  5.23049E-06
    Squared matrix el. (prc) =  1.87754E-06
    Event weight (ref)       =  6.51320E-01
    Event weight (prc)       =  2.33798E-01
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3430917671.0,         2920101317.0,         3284936197.0,
            1240801204.0,         2700418016.0,          622190086.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.808477E+02
  P =   7.201853E+01 -3.867396E+02 -2.765146E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.861878E+02
  P =  -1.049511E+02  3.854312E+02  2.771401E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.296446E+01
  P =   3.293255E+01  1.308376E+00 -6.254124E-01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            1519245727.0,         1936352122.0,         2549247759.0,
             415345958.0,         3249397019.0,         3432810946.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.626320E+02
  P =   4.642301E+01 -2.927405E+02 -2.089256E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.004325E+02
  P =  -1.328601E+02  3.765141E+02  3.052001E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.244982E+01
  P =   3.094754E+01  8.598280E+00  4.616312E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.044857E+02
  P =   5.548959E+01 -9.237195E+01  1.737893E+02
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  1.877537932E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.808477E+02
  P =   7.201853E+01 -3.867396E+02 -2.765146E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.861878E+02
  P =  -1.049511E+02  3.854312E+02  2.771401E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.296446E+01
  P =   3.293255E+01  1.308376E+00 -6.254124E-01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.818528E+02
  P =   7.939363E+01 -3.864466E+02 -2.766547E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.847908E+02
  P =  -9.751256E+01  3.857268E+02  2.769988E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   1.949180E+01
  P =   1.390382E+01  2.463073E+00 -1.343679E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   1.386452E+01
  P =   4.215115E+00 -1.743227E+00  1.309270E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.942094E+02
  P =   5.816200E+01 -1.542254E+02 -3.580961E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.680955E+02
  P =  -8.721085E+01  2.901662E+02  2.090266E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.545545E+01
  P =   3.435337E+01 -6.321442E+00 -6.080650E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.022397E+02
  P =  -5.304517E+00 -1.296194E+02  1.551501E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.626320E+02
  P =   4.642301E+01 -2.927405E+02 -2.089256E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.004325E+02
  P =  -1.328601E+02  3.765141E+02  3.052001E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.244982E+01
  P =   3.094754E+01  8.598280E+00  4.616312E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.044857E+02
  P =   5.548959E+01 -9.237195E+01  1.737893E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  1.87754E-06
 sqme_ref* =>  5.23049E-06
 event_index* => 10
 event_weight* =>  2.33798E-01
 event_weight_ref* =>  6.51320E-01
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-2| 3.6263202E+02; 4.6423015E+01,-2.9274047E+02,-2.0892560E+02| 0.0000000E+00| 3)
  4 prt(o:2| 4.0043250E+02;-1.3286014E+02, 3.7651414E+02, 3.0520014E+01| 0.0000000E+00| 4)
  5 prt(o:21| 3.2449822E+01; 3.0947540E+01, 8.5982799E+00, 4.6163124E+00| 0.0000000E+00| 5)
  6 prt(o:21| 2.0448566E+02; 5.5489590E+01,-9.2371950E+01, 1.7378927E+02| 0.0000000E+00| 6)
 ========================================================================
Index: trunk/share/tests/functional_tests/ref-output-double/openloops_12.ref
===================================================================
--- trunk/share/tests/functional_tests/ref-output-double/openloops_12.ref	(revision 8818)
+++ trunk/share/tests/functional_tests/ref-output-double/openloops_12.ref	(revision 8819)
@@ -1,11125 +1,11126 @@
 ?openmp_logging = false
 ?vis_history = false
 ?integration_timer = false
 ?pacify = true
 | Switching to model 'SM', scheme 'GF_MW_MZ'
 $blha_ew_scheme = "alpha_qed"
 SM.mZ =>  9.11880E+01
 SM.mW =>  8.04190E+01
 SM.mH =>  1.25000E+02
 SM.GF =>  1.16639E-05
 SM.wZ =>  0.00000E+00
 SM.wtop =>  0.00000E+00
 SM.wW =>  0.00000E+00
 SM.wH =>  0.00000E+00
 SM.ms =>  0.00000E+00
 SM.mc =>  0.00000E+00
 SM.mb =>  0.00000E+00
 SM.mtop =>  1.73200E+02
 SM.me =>  0.00000E+00
 SM.mmu =>  0.00000E+00
 SM.mtau =>  1.77700E+00
 SM.alphas =>  1.18000E-01
 ?alphas_is_fixed = false
 ?alphas_from_mz = true
 ?alphas_from_lambda_qcd = false
 alphas_nf = 5
 [user variable] jet = PDG(2, -2, 1, -1, 3, -3, 21)
 $exclude_gauge_splittings = "c:b:t"
 $method = "openloops"
 alpha_power = 2
 alphas_power = 1
+$openloops_allowed_libs = "ppllj"
 ?use_vamp_equivalences = false
 $integration_method = "vamp2"
 $rng_method = "rng_stream"
 openmp_num_threads = 1
 jet_algorithm = 2
 jet_r =  5.00000E-01
 seed = 99
 sqrts =  5.00000E+05
 | Process library 'openloops_12_lib': recorded process 'openloops_12_p1'
 | Integrate: current process library needs compilation
 | Process library 'openloops_12_lib': compiling ...
 | Process library 'openloops_12_lib': writing makefile
 | Process library 'openloops_12_lib': removing old files
 | Process library 'openloops_12_lib': writing driver
 | Process library 'openloops_12_lib': creating source code
 | Process library 'openloops_12_lib': compiling sources
 | Process library 'openloops_12_lib': linking
 | Process library 'openloops_12_lib': loading
 | Process library 'openloops_12_lib': ... success.
 | Integrate: compilation done
 | QCD alpha: using a running strong coupling
 | RNG: Initializing RNG Stream random-number generator
 | RNG: Setting seed for random-number generator to 99
 | Initializing integration for process openloops_12_p1:
 | Beam structure: [any particles]
 | Beam data (collision):
 |   e-  (mass = 0.0000000E+00 GeV)
 |   e+  (mass = 0.0000000E+00 GeV)
 |   sqrts = 5.000000000000E+05 GeV
 | Phase space: generating configuration ...
 Warning:  Intermediate decay of zero-width particle Z may be possible.
 | Phase space: ... success.
 | Phase space: writing configuration file 'openloops_12_p1.i1.phs'
 | Phase space: generating configuration ...
 | Phase space: ... success.
 | Phase space: writing configuration file 'openloops_12_p1.i3.phs'
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | ------------------------------------------------------------------------
 | Process [scattering]: 'openloops_12_p1'
 |   Library name  = 'openloops_12_lib'
 |   Process index = 1
 |   Process components:
 |     1: 'openloops_12_p1_i1':   e-, e+ => u:ubar:d:dbar:s:sbar:gl, u:ubar:d:dbar:s:sbar:gl, u:ubar:d:dbar:s:sbar:gl [inactive]
 |     2: 'openloops_12_p1_i2':   e-, e+ => d:dbar:u:ubar:s:sbar:gl, d:dbar:u:ubar:s:sbar:gl, d:dbar:u:ubar:s:sbar:gl, d:dbar:u:ubar:s:sbar:gl [openloops], [real]
 |     3: 'openloops_12_p1_i3':   e-, e+ => u:ubar:d:dbar:s:sbar:gl, u:ubar:d:dbar:s:sbar:gl, u:ubar:d:dbar:s:sbar:gl [inactive], [virtual]
 |     4: 'openloops_12_p1_i4':   e-, e+ => u:ubar:d:dbar:s:sbar:gl, u:ubar:d:dbar:s:sbar:gl, u:ubar:d:dbar:s:sbar:gl [inactive], [subtraction]
 | ------------------------------------------------------------------------
 | Phase space: 2 channels, 5 dimensions
 | Phase space: found 2 channels, collected in 1 grove.
 | Phase space: no equivalences between channels used.
 | Phase space: wood
 | Phase space: 2 channels, 8 dimensions
 | Phase space: found 2 channels, collected in 1 grove.
 | Phase space: no equivalences between channels used.
 | Phase space: wood
 | Phase space: 2 channels, 5 dimensions
 | Phase space: found 2 channels, collected in 1 grove.
 | Phase space: no equivalences between channels used.
 | Phase space: wood
 | Applying user-defined cuts.
 | Using user-defined general scale.
 | Starting integration for process 'openloops_12_p1' part 'real'
 | Integrate: iterations = 1:100:"gw"
 | Integrator: 1 chains, 2 channels, 8 dimensions
 | Integrator: Write grid header and grids to 'openloops_12_p1.m2.vg2'
 | Integrator: Grid checkpoint after each iteration
 | Integrator: 100 initial calls, 20 max. bins, stratified = T
 | Integrator: VAMP2
 |=============================================================================|
 | It      Calls  Integral[fb]  Error[fb]   Err[%]    Acc  Eff[%]   Chi2 N[It] |
 |=============================================================================|
 | VAMP2: Initialize new grids and write to file 'openloops_12_p1.m2.vg2'.
 | VAMP2: set chain: use chained weights.
    1        100     9.645E-04   4.01E-04   41.60    4.16     5.0
 |-----------------------------------------------------------------------------|
    1        100     9.645E-04   4.01E-04   41.60    4.16     5.0
 |=============================================================================|
 | Integrate: sum of all components
 |=============================================================================|
 | It      Calls  Integral[fb]  Error[fb]   Err[%]    Acc  Eff[%]   Chi2 N[It] |
 |=============================================================================|
    1          0     9.645E-04   4.01E-04   41.60    0.00     5.0
 |=============================================================================|
 n_events = 10
 $sample_normalization = "sigma"
 ?unweighted = false
 ?negative_weights = true
 ?keep_failed_events = true
 ?fixed_order_nlo_events = true
 ?debug_decay = false
 ?debug_process = false
 ?debug_verbose = false
 ?sample_pacify = true
 ?write_raw = false
 | Starting simulation for process 'openloops_12_p1'
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | Simulate: activating fixed-order NLO events
 | QCD alpha: using a running strong coupling
 | RNG: Initializing RNG Stream random-number generator
 | RNG: Setting seed for random-number generator to 100
 | Events: writing to ASCII file 'openloops_12_p1.debug'
 | Events: generating 40 weighted, unpolarized NLO events ...
 | Events: event normalization mode 'sigma'
 |         ... event sample complete.
 | Events: closing ASCII file 'openloops_12_p1.debug'
 | There were no errors and    1 warning(s).
 | WHIZARD run finished.
 |=============================================================================|
 Total number of regions:    18
  alr ||                 flst_real || i_real ||  em || mul || nreg ||                         ftuples ||             flst_born ||  i_born || corr
    1 || [ 11,-11, -2,  2, -2,  2] ||      1 ||   5 ||   4 ||    4 || {(3,4),(3,6),(4,5),(5,6)} || [ 11,-11, -2,  2, 21] ||       1 ||  qcd
    2 || [ 11,-11, -2,  2, 21, 21] ||      2 ||   3 ||   2 ||    5 || {(3,5),(3,6),(4,5),(4,6),(5,6)} || [ 11,-11, -2,  2, 21] ||       1 ||  qcd
    3 || [ 11,-11, -2,  2, 21, 21] ||      2 ||   4 ||   2 ||    5 || {(3,5),(3,6),(4,5),(4,6),(5,6)} || [ 11,-11, -2,  2, 21] ||       1 ||  qcd
    4 || [ 11,-11, -2,  2, 21, 21] ||      2 ||   5 ||   1 ||    5 || {(3,5),(3,6),(4,5),(4,6),(5,6)} || [ 11,-11, -2,  2, 21] ||       1 ||  qcd
    5 || [ 11,-11, -2,  2, -3,  3] ||      3 ||   5 ||   1 ||    2 ||         {(3,4),(5,6)} || [ 11,-11, -2,  2, 21] ||       1 ||  qcd
    6 || [ 11,-11, -3,  3, -2,  2] ||      4 ||   5 ||   1 ||    2 ||         {(3,4),(5,6)} || [ 11,-11, -3,  3, 21] ||       2 ||  qcd
    7 || [ 11,-11, -2,  2, -1,  1] ||      5 ||   5 ||   1 ||    2 ||         {(3,4),(5,6)} || [ 11,-11, -2,  2, 21] ||       1 ||  qcd
    8 || [ 11,-11, -1,  1, -2,  2] ||      6 ||   5 ||   1 ||    2 ||         {(3,4),(5,6)} || [ 11,-11, -1,  1, 21] ||       3 ||  qcd
    9 || [ 11,-11, -3,  3, -3,  3] ||      7 ||   5 ||   4 ||    4 || {(3,4),(3,6),(4,5),(5,6)} || [ 11,-11, -3,  3, 21] ||       2 ||  qcd
   10 || [ 11,-11, -3,  3, -1,  1] ||      8 ||   5 ||   1 ||    2 ||         {(3,4),(5,6)} || [ 11,-11, -3,  3, 21] ||       2 ||  qcd
   11 || [ 11,-11, -1,  1, -3,  3] ||      9 ||   5 ||   1 ||    2 ||         {(3,4),(5,6)} || [ 11,-11, -1,  1, 21] ||       3 ||  qcd
   12 || [ 11,-11, -3,  3, 21, 21] ||     10 ||   3 ||   2 ||    5 || {(3,5),(3,6),(4,5),(4,6),(5,6)} || [ 11,-11, -3,  3, 21] ||       2 ||  qcd
   13 || [ 11,-11, -3,  3, 21, 21] ||     10 ||   4 ||   2 ||    5 || {(3,5),(3,6),(4,5),(4,6),(5,6)} || [ 11,-11, -3,  3, 21] ||       2 ||  qcd
   14 || [ 11,-11, -3,  3, 21, 21] ||     10 ||   5 ||   1 ||    5 || {(3,5),(3,6),(4,5),(4,6),(5,6)} || [ 11,-11, -3,  3, 21] ||       2 ||  qcd
   15 || [ 11,-11, -1,  1, -1,  1] ||     11 ||   5 ||   4 ||    4 || {(3,4),(3,6),(4,5),(5,6)} || [ 11,-11, -1,  1, 21] ||       3 ||  qcd
   16 || [ 11,-11, -1,  1, 21, 21] ||     12 ||   3 ||   2 ||    5 || {(3,5),(3,6),(4,5),(4,6),(5,6)} || [ 11,-11, -1,  1, 21] ||       3 ||  qcd
   17 || [ 11,-11, -1,  1, 21, 21] ||     12 ||   4 ||   2 ||    5 || {(3,5),(3,6),(4,5),(4,6),(5,6)} || [ 11,-11, -1,  1, 21] ||       3 ||  qcd
   18 || [ 11,-11, -1,  1, 21, 21] ||     12 ||   5 ||   1 ||    5 || {(3,5),(3,6),(4,5),(4,6),(5,6)} || [ 11,-11, -1,  1, 21] ||       3 ||  qcd
 ------------------------------------------------------------------------
 Contents of openloops_12_p1.debug:
 ========================================================================
  Event #1
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  3.89241E-10
    Squared matrix el. (prc) = -2.49037E-07
    Event weight (ref)       =  1.60830E-08
    Event weight (prc)       =  0.00000E+00
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            3913894726.0,         1013504363.0,         4004029631.0,
            3745048320.0,         2602019895.0,         3943078012.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   2.499915E+05
  P =   4.862150E+04 -4.973585E+04 -2.401209E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.370804E+05
  P =  -4.571127E+04  4.767578E+04  2.276941E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.292818E+04
  P =  -2.910232E+03  2.060075E+03  1.242676E+04
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
             691625295.0,         3378437961.0,         1571131719.0,
             108026903.0,         3340318134.0,         3620710479.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.629667E+05
  P =   3.184223E+04 -3.223547E+04 -1.565410E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.633022E+05
  P =  -1.040581E+05  1.195121E+05  3.945076E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.982398E+04
  P =  -4.241014E+03  3.448050E+03  1.905557E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.539072E+05
  P =   7.645690E+04 -9.072468E+04  9.803467E+04
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  2.141168897E-12
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499915E+05
  P =   4.862150E+04 -4.973585E+04 -2.401209E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.370804E+05
  P =  -4.571127E+04  4.767578E+04  2.276941E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.292818E+04
  P =  -2.910232E+03  2.060075E+03  1.242676E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.468486E+05
  P =   4.791312E+04 -4.923441E+04 -2.370961E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.400985E+05
  P =  -4.639161E+04  4.815738E+04  2.305992E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   4.660192E+03
  P =  -3.451314E+03  2.750001E+03 -1.497771E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   8.392680E+03
  P =   1.929811E+03 -1.672970E+03  7.994629E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   1.817299E+05
  P =  -8.851277E+04  7.883037E+04 -1.377572E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   1.479078E+05
  P =  -2.836777E+04  2.993478E+04  1.420419E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   8.073438E+03
  P =  -1.964121E+03  1.092280E+03  7.754325E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.622888E+05
  P =   1.188447E+05 -1.098574E+05 -1.203910E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.629667E+05
  P =   3.184223E+04 -3.223547E+04 -1.565410E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.633022E+05
  P =  -1.040581E+05  1.195121E+05  3.945076E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.982398E+04
  P =  -4.241014E+03  3.448050E+03  1.905557E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.539072E+05
  P =   7.645690E+04 -9.072468E+04  9.803467E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 3
 n_tot* => 5
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* => -2.49037E-07
 sqme_ref* =>  3.89241E-10
 event_index* => 1
 event_weight* =>  0.00000E+00
 event_weight_ref* =>  1.60830E-08
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-2| 2.4999146E+05; 4.8621499E+04,-4.9735851E+04,-2.4012085E+05| 0.0000000E+00| 3)
  4 prt(o:2| 2.3708036E+05;-4.5711267E+04, 4.7675776E+04, 2.2769409E+05| 0.0000000E+00| 4)
  5 prt(o:21| 1.2928179E+04;-2.9102318E+03, 2.0600752E+03, 1.2426764E+04| 0.0000000E+00| 5)
 ========================================================================
 ========================================================================
  Event #1
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  3.89241E-10
    Squared matrix el. (prc) =  3.85037E-10
    Event weight (ref)       =  1.60830E-08
    Event weight (prc)       =  1.59093E-08
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            3913894726.0,         1013504363.0,         4004029631.0,
            3745048320.0,         2602019895.0,         3943078012.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   2.499915E+05
  P =   4.862150E+04 -4.973585E+04 -2.401209E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.370804E+05
  P =  -4.571127E+04  4.767578E+04  2.276941E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.292818E+04
  P =  -2.910232E+03  2.060075E+03  1.242676E+04
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
             691625295.0,         3378437961.0,         1571131719.0,
             108026903.0,         3340318134.0,         3620710479.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.629667E+05
  P =   3.184223E+04 -3.223547E+04 -1.565410E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.633022E+05
  P =  -1.040581E+05  1.195121E+05  3.945076E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.982398E+04
  P =  -4.241014E+03  3.448050E+03  1.905557E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.539072E+05
  P =   7.645690E+04 -9.072468E+04  9.803467E+04
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  2.141168897E-12
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499915E+05
  P =   4.862150E+04 -4.973585E+04 -2.401209E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.370804E+05
  P =  -4.571127E+04  4.767578E+04  2.276941E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.292818E+04
  P =  -2.910232E+03  2.060075E+03  1.242676E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.468486E+05
  P =   4.791312E+04 -4.923441E+04 -2.370961E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.400985E+05
  P =  -4.639161E+04  4.815738E+04  2.305992E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   4.660192E+03
  P =  -3.451314E+03  2.750001E+03 -1.497771E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   8.392680E+03
  P =   1.929811E+03 -1.672970E+03  7.994629E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   1.817299E+05
  P =  -8.851277E+04  7.883037E+04 -1.377572E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   1.479078E+05
  P =  -2.836777E+04  2.993478E+04  1.420419E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   8.073438E+03
  P =  -1.964121E+03  1.092280E+03  7.754325E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.622888E+05
  P =   1.188447E+05 -1.098574E+05 -1.203910E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.629667E+05
  P =   3.184223E+04 -3.223547E+04 -1.565410E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.633022E+05
  P =  -1.040581E+05  1.195121E+05  3.945076E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.982398E+04
  P =  -4.241014E+03  3.448050E+03  1.905557E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.539072E+05
  P =   7.645690E+04 -9.072468E+04  9.803467E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  3.85037E-10
 sqme_ref* =>  3.89241E-10
 event_index* => 1
 event_weight* =>  1.59093E-08
 event_weight_ref* =>  1.60830E-08
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-1| 2.4684860E+05; 4.7913118E+04,-4.9234407E+04,-2.3709605E+05| 0.0000000E+00| 3)
  4 prt(o:1| 2.4009853E+05;-4.6391615E+04, 4.8157376E+04, 2.3059919E+05| 0.0000000E+00| 4)
  5 prt(o:21| 4.6601923E+03;-3.4513140E+03, 2.7500011E+03,-1.4977711E+03| 0.0000000E+00| 5)
  6 prt(o:21| 8.3926803E+03; 1.9298108E+03,-1.6729697E+03, 7.9946285E+03| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #1
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  3.89241E-10
    Squared matrix el. (prc) =  2.06250E-12
    Event weight (ref)       =  1.60830E-08
    Event weight (prc)       =  8.52203E-11
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            3913894726.0,         1013504363.0,         4004029631.0,
            3745048320.0,         2602019895.0,         3943078012.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   2.499915E+05
  P =   4.862150E+04 -4.973585E+04 -2.401209E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.370804E+05
  P =  -4.571127E+04  4.767578E+04  2.276941E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.292818E+04
  P =  -2.910232E+03  2.060075E+03  1.242676E+04
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
             691625295.0,         3378437961.0,         1571131719.0,
             108026903.0,         3340318134.0,         3620710479.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.629667E+05
  P =   3.184223E+04 -3.223547E+04 -1.565410E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.633022E+05
  P =  -1.040581E+05  1.195121E+05  3.945076E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.982398E+04
  P =  -4.241014E+03  3.448050E+03  1.905557E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.539072E+05
  P =   7.645690E+04 -9.072468E+04  9.803467E+04
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  2.141168897E-12
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499915E+05
  P =   4.862150E+04 -4.973585E+04 -2.401209E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.370804E+05
  P =  -4.571127E+04  4.767578E+04  2.276941E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.292818E+04
  P =  -2.910232E+03  2.060075E+03  1.242676E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.468486E+05
  P =   4.791312E+04 -4.923441E+04 -2.370961E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.400985E+05
  P =  -4.639161E+04  4.815738E+04  2.305992E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   4.660192E+03
  P =  -3.451314E+03  2.750001E+03 -1.497771E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   8.392680E+03
  P =   1.929811E+03 -1.672970E+03  7.994629E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   1.817299E+05
  P =  -8.851277E+04  7.883037E+04 -1.377572E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   1.479078E+05
  P =  -2.836777E+04  2.993478E+04  1.420419E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   8.073438E+03
  P =  -1.964121E+03  1.092280E+03  7.754325E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.622888E+05
  P =   1.188447E+05 -1.098574E+05 -1.203910E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.629667E+05
  P =   3.184223E+04 -3.223547E+04 -1.565410E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.633022E+05
  P =  -1.040581E+05  1.195121E+05  3.945076E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.982398E+04
  P =  -4.241014E+03  3.448050E+03  1.905557E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.539072E+05
  P =   7.645690E+04 -9.072468E+04  9.803467E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  2.06250E-12
 sqme_ref* =>  3.89241E-10
 event_index* => 1
 event_weight* =>  8.52203E-11
 event_weight_ref* =>  1.60830E-08
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-1| 1.8172994E+05;-8.8512765E+04, 7.8830375E+04,-1.3775715E+05| 0.0000000E+00| 3)
  4 prt(o:1| 1.4790785E+05;-2.8367765E+04, 2.9934780E+04, 1.4204193E+05| 0.0000000E+00| 4)
  5 prt(o:21| 8.0734380E+03;-1.9641208E+03, 1.0922803E+03, 7.7543249E+03| 0.0000000E+00| 5)
  6 prt(o:21| 1.6228878E+05; 1.1884465E+05,-1.0985743E+05,-1.2039099E+04| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #1
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  3.89241E-10
    Squared matrix el. (prc) =  2.14117E-12
    Event weight (ref)       =  1.60830E-08
    Event weight (prc)       =  8.84706E-11
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            3913894726.0,         1013504363.0,         4004029631.0,
            3745048320.0,         2602019895.0,         3943078012.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   2.499915E+05
  P =   4.862150E+04 -4.973585E+04 -2.401209E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.370804E+05
  P =  -4.571127E+04  4.767578E+04  2.276941E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.292818E+04
  P =  -2.910232E+03  2.060075E+03  1.242676E+04
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
             691625295.0,         3378437961.0,         1571131719.0,
             108026903.0,         3340318134.0,         3620710479.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.629667E+05
  P =   3.184223E+04 -3.223547E+04 -1.565410E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.633022E+05
  P =  -1.040581E+05  1.195121E+05  3.945076E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.982398E+04
  P =  -4.241014E+03  3.448050E+03  1.905557E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.539072E+05
  P =   7.645690E+04 -9.072468E+04  9.803467E+04
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  2.141168897E-12
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499915E+05
  P =   4.862150E+04 -4.973585E+04 -2.401209E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.370804E+05
  P =  -4.571127E+04  4.767578E+04  2.276941E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.292818E+04
  P =  -2.910232E+03  2.060075E+03  1.242676E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.468486E+05
  P =   4.791312E+04 -4.923441E+04 -2.370961E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.400985E+05
  P =  -4.639161E+04  4.815738E+04  2.305992E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   4.660192E+03
  P =  -3.451314E+03  2.750001E+03 -1.497771E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   8.392680E+03
  P =   1.929811E+03 -1.672970E+03  7.994629E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   1.817299E+05
  P =  -8.851277E+04  7.883037E+04 -1.377572E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   1.479078E+05
  P =  -2.836777E+04  2.993478E+04  1.420419E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   8.073438E+03
  P =  -1.964121E+03  1.092280E+03  7.754325E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.622888E+05
  P =   1.188447E+05 -1.098574E+05 -1.203910E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.629667E+05
  P =   3.184223E+04 -3.223547E+04 -1.565410E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.633022E+05
  P =  -1.040581E+05  1.195121E+05  3.945076E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.982398E+04
  P =  -4.241014E+03  3.448050E+03  1.905557E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.539072E+05
  P =   7.645690E+04 -9.072468E+04  9.803467E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  2.14117E-12
 sqme_ref* =>  3.89241E-10
 event_index* => 1
 event_weight* =>  8.84706E-11
 event_weight_ref* =>  1.60830E-08
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-2| 1.6296668E+05; 3.1842228E+04,-3.2235466E+04,-1.5654100E+05| 0.0000000E+00| 3)
  4 prt(o:2| 1.6330216E+05;-1.0405811E+05, 1.1951210E+05, 3.9450760E+04| 0.0000000E+00| 4)
  5 prt(o:21| 1.9823977E+04;-4.2410139E+03, 3.4480496E+03, 1.9055572E+04| 0.0000000E+00| 5)
  6 prt(o:21| 1.5390719E+05; 7.6456897E+04,-9.0724682E+04, 9.8034671E+04| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #2
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  2.99460E-09
    Squared matrix el. (prc) = -5.90912E-08
    Event weight (ref)       =  6.26895E-05
    Event weight (prc)       =  0.00000E+00
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            2566007711.0,         2240170159.0,         3022189282.0,
             484554216.0,         1681294000.0,         1422185293.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.498922E+05
  P =   1.467123E+04  1.078422E+05 -2.249466E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.373179E+05
  P =  -1.246754E+04 -1.008764E+05  2.144488E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.278990E+04
  P =  -2.203695E+03 -6.965772E+03  1.049778E+04
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            3393932940.0,         2952039924.0,         1817149397.0,
            3151505971.0,         2985798367.0,         2791898150.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.281457E+05
  P =   1.352872E+04  9.859791E+04 -2.052946E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.053352E+05
  P =  -3.307599E+03 -1.298056E+05  1.590664E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.398839E+04
  P =  -2.267695E+03 -7.483608E+03  1.159863E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   5.253076E+04
  P =  -7.953421E+03  3.869128E+04  3.462960E+04
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  6.319071901E-11
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.498922E+05
  P =   1.467123E+04  1.078422E+05 -2.249466E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.373179E+05
  P =  -1.246754E+04 -1.008764E+05  2.144488E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.278990E+04
  P =  -2.203695E+03 -6.965772E+03  1.049778E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.487563E+05
  P =   1.447231E+04  1.072134E+05 -2.239990E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.383998E+05
  P =  -1.265731E+04 -1.014763E+05  2.153528E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.001284E+04
  P =  -1.661536E+03 -7.492900E+03  6.430600E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.831070E+03
  P =  -1.534646E+02  1.755770E+03  2.215554E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.174964E+05
  P =  -7.026594E+03  4.712104E+04 -2.122143E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.155529E+05
  P =  -1.118965E+04 -9.148314E+04  1.948555E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.163657E+04
  P =  -2.134769E+03 -6.459129E+03  9.440979E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   5.531413E+04
  P =   2.035101E+04  5.082122E+04  7.917848E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.281457E+05
  P =   1.352872E+04  9.859791E+04 -2.052946E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.053352E+05
  P =  -3.307599E+03 -1.298056E+05  1.590664E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.398839E+04
  P =  -2.267695E+03 -7.483608E+03  1.159863E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   5.253076E+04
  P =  -7.953421E+03  3.869128E+04  3.462960E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 3
 n_tot* => 5
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* => -5.90912E-08
 sqme_ref* =>  2.99460E-09
 event_index* => 2
 event_weight* =>  0.00000E+00
 event_weight_ref* =>  6.26895E-05
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-2| 2.4989224E+05; 1.4671233E+04, 1.0784216E+05,-2.2494656E+05| 0.0000000E+00| 3)
  4 prt(o:2| 2.3731786E+05;-1.2467539E+04,-1.0087639E+05, 2.1444878E+05| 0.0000000E+00| 4)
  5 prt(o:21| 1.2789904E+04;-2.2036947E+03,-6.9657720E+03, 1.0497780E+04| 0.0000000E+00| 5)
 ========================================================================
 ========================================================================
  Event #2
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  2.99460E-09
    Squared matrix el. (prc) =  2.87907E-09
    Event weight (ref)       =  6.26895E-05
    Event weight (prc)       =  6.02709E-05
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            2566007711.0,         2240170159.0,         3022189282.0,
             484554216.0,         1681294000.0,         1422185293.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.498922E+05
  P =   1.467123E+04  1.078422E+05 -2.249466E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.373179E+05
  P =  -1.246754E+04 -1.008764E+05  2.144488E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.278990E+04
  P =  -2.203695E+03 -6.965772E+03  1.049778E+04
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            3393932940.0,         2952039924.0,         1817149397.0,
            3151505971.0,         2985798367.0,         2791898150.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.281457E+05
  P =   1.352872E+04  9.859791E+04 -2.052946E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.053352E+05
  P =  -3.307599E+03 -1.298056E+05  1.590664E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.398839E+04
  P =  -2.267695E+03 -7.483608E+03  1.159863E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   5.253076E+04
  P =  -7.953421E+03  3.869128E+04  3.462960E+04
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  6.319071901E-11
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.498922E+05
  P =   1.467123E+04  1.078422E+05 -2.249466E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.373179E+05
  P =  -1.246754E+04 -1.008764E+05  2.144488E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.278990E+04
  P =  -2.203695E+03 -6.965772E+03  1.049778E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.487563E+05
  P =   1.447231E+04  1.072134E+05 -2.239990E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.383998E+05
  P =  -1.265731E+04 -1.014763E+05  2.153528E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.001284E+04
  P =  -1.661536E+03 -7.492900E+03  6.430600E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.831070E+03
  P =  -1.534646E+02  1.755770E+03  2.215554E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.174964E+05
  P =  -7.026594E+03  4.712104E+04 -2.122143E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.155529E+05
  P =  -1.118965E+04 -9.148314E+04  1.948555E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.163657E+04
  P =  -2.134769E+03 -6.459129E+03  9.440979E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   5.531413E+04
  P =   2.035101E+04  5.082122E+04  7.917848E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.281457E+05
  P =   1.352872E+04  9.859791E+04 -2.052946E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.053352E+05
  P =  -3.307599E+03 -1.298056E+05  1.590664E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.398839E+04
  P =  -2.267695E+03 -7.483608E+03  1.159863E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   5.253076E+04
  P =  -7.953421E+03  3.869128E+04  3.462960E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  2.87907E-09
 sqme_ref* =>  2.99460E-09
 event_index* => 2
 event_weight* =>  6.02709E-05
 event_weight_ref* =>  6.26895E-05
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-1| 2.4875629E+05; 1.4472313E+04, 1.0721338E+05,-2.2399896E+05| 0.0000000E+00| 3)
  4 prt(o:1| 2.3839981E+05;-1.2657312E+04,-1.0147625E+05, 2.1535281E+05| 0.0000000E+00| 4)
  5 prt(o:21| 1.0012835E+04;-1.6615365E+03,-7.4928999E+03, 6.4305999E+03| 0.0000000E+00| 5)
  6 prt(o:21| 2.8310697E+03;-1.5346459E+02, 1.7557696E+03, 2.2155535E+03| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #2
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  2.99460E-09
    Squared matrix el. (prc) =  5.23411E-11
    Event weight (ref)       =  6.26895E-05
    Event weight (prc)       =  1.09572E-06
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            2566007711.0,         2240170159.0,         3022189282.0,
             484554216.0,         1681294000.0,         1422185293.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.498922E+05
  P =   1.467123E+04  1.078422E+05 -2.249466E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.373179E+05
  P =  -1.246754E+04 -1.008764E+05  2.144488E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.278990E+04
  P =  -2.203695E+03 -6.965772E+03  1.049778E+04
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            3393932940.0,         2952039924.0,         1817149397.0,
            3151505971.0,         2985798367.0,         2791898150.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.281457E+05
  P =   1.352872E+04  9.859791E+04 -2.052946E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.053352E+05
  P =  -3.307599E+03 -1.298056E+05  1.590664E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.398839E+04
  P =  -2.267695E+03 -7.483608E+03  1.159863E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   5.253076E+04
  P =  -7.953421E+03  3.869128E+04  3.462960E+04
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  6.319071901E-11
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.498922E+05
  P =   1.467123E+04  1.078422E+05 -2.249466E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.373179E+05
  P =  -1.246754E+04 -1.008764E+05  2.144488E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.278990E+04
  P =  -2.203695E+03 -6.965772E+03  1.049778E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.487563E+05
  P =   1.447231E+04  1.072134E+05 -2.239990E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.383998E+05
  P =  -1.265731E+04 -1.014763E+05  2.153528E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.001284E+04
  P =  -1.661536E+03 -7.492900E+03  6.430600E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.831070E+03
  P =  -1.534646E+02  1.755770E+03  2.215554E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.174964E+05
  P =  -7.026594E+03  4.712104E+04 -2.122143E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.155529E+05
  P =  -1.118965E+04 -9.148314E+04  1.948555E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.163657E+04
  P =  -2.134769E+03 -6.459129E+03  9.440979E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   5.531413E+04
  P =   2.035101E+04  5.082122E+04  7.917848E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.281457E+05
  P =   1.352872E+04  9.859791E+04 -2.052946E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.053352E+05
  P =  -3.307599E+03 -1.298056E+05  1.590664E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.398839E+04
  P =  -2.267695E+03 -7.483608E+03  1.159863E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   5.253076E+04
  P =  -7.953421E+03  3.869128E+04  3.462960E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  5.23411E-11
 sqme_ref* =>  2.99460E-09
 event_index* => 2
 event_weight* =>  1.09572E-06
 event_weight_ref* =>  6.26895E-05
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-1| 2.1749642E+05;-7.0265939E+03, 4.7121042E+04,-2.1221435E+05| 0.0000000E+00| 3)
  4 prt(o:1| 2.1555288E+05;-1.1189647E+04,-9.1483136E+04, 1.9485552E+05| 0.0000000E+00| 4)
  5 prt(o:21| 1.1636566E+04;-2.1347691E+03,-6.4591286E+03, 9.4409793E+03| 0.0000000E+00| 5)
  6 prt(o:21| 5.5314126E+04; 2.0351010E+04, 5.0821222E+04, 7.9178480E+03| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #2
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  2.99460E-09
    Squared matrix el. (prc) =  6.31907E-11
    Event weight (ref)       =  6.26895E-05
    Event weight (prc)       =  1.32285E-06
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            2566007711.0,         2240170159.0,         3022189282.0,
             484554216.0,         1681294000.0,         1422185293.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.498922E+05
  P =   1.467123E+04  1.078422E+05 -2.249466E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.373179E+05
  P =  -1.246754E+04 -1.008764E+05  2.144488E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.278990E+04
  P =  -2.203695E+03 -6.965772E+03  1.049778E+04
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            3393932940.0,         2952039924.0,         1817149397.0,
            3151505971.0,         2985798367.0,         2791898150.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.281457E+05
  P =   1.352872E+04  9.859791E+04 -2.052946E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.053352E+05
  P =  -3.307599E+03 -1.298056E+05  1.590664E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.398839E+04
  P =  -2.267695E+03 -7.483608E+03  1.159863E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   5.253076E+04
  P =  -7.953421E+03  3.869128E+04  3.462960E+04
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  6.319071901E-11
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.498922E+05
  P =   1.467123E+04  1.078422E+05 -2.249466E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.373179E+05
  P =  -1.246754E+04 -1.008764E+05  2.144488E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.278990E+04
  P =  -2.203695E+03 -6.965772E+03  1.049778E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.487563E+05
  P =   1.447231E+04  1.072134E+05 -2.239990E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.383998E+05
  P =  -1.265731E+04 -1.014763E+05  2.153528E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.001284E+04
  P =  -1.661536E+03 -7.492900E+03  6.430600E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.831070E+03
  P =  -1.534646E+02  1.755770E+03  2.215554E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.174964E+05
  P =  -7.026594E+03  4.712104E+04 -2.122143E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.155529E+05
  P =  -1.118965E+04 -9.148314E+04  1.948555E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.163657E+04
  P =  -2.134769E+03 -6.459129E+03  9.440979E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   5.531413E+04
  P =   2.035101E+04  5.082122E+04  7.917848E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.281457E+05
  P =   1.352872E+04  9.859791E+04 -2.052946E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.053352E+05
  P =  -3.307599E+03 -1.298056E+05  1.590664E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.398839E+04
  P =  -2.267695E+03 -7.483608E+03  1.159863E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   5.253076E+04
  P =  -7.953421E+03  3.869128E+04  3.462960E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  6.31907E-11
 sqme_ref* =>  2.99460E-09
 event_index* => 2
 event_weight* =>  1.32285E-06
 event_weight_ref* =>  6.26895E-05
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-2| 2.2814567E+05; 1.3528715E+04, 9.8597905E+04,-2.0529460E+05| 0.0000000E+00| 3)
  4 prt(o:2| 2.0533519E+05;-3.3075988E+03,-1.2980557E+05, 1.5906637E+05| 0.0000000E+00| 4)
  5 prt(o:21| 1.3988386E+04;-2.2676952E+03,-7.4836082E+03, 1.1598626E+04| 0.0000000E+00| 5)
  6 prt(o:21| 5.2530762E+04;-7.9534211E+03, 3.8691276E+04, 3.4629599E+04| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #3
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  5.35570E-11
    Squared matrix el. (prc) = -1.05790E-03
    Event weight (ref)       =  4.09774E-11
    Event weight (prc)       =  0.00000E+00
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
             658726814.0,          695277609.0,         1316830081.0,
            2131992430.0,          749504030.0,          880099028.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   2.499928E+05
  P =   5.475198E+04  2.208103E+05 -1.036409E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.499951E+05
  P =  -5.474321E+04 -2.208111E+05  1.036492E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.210258E+01
  P =  -8.773290E+00  8.057940E-01 -8.297738E+00
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            1100463693.0,         3654384047.0,          647619641.0,
             459938003.0,         1733458346.0,         3954010958.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.194056E+05
  P =   4.805407E+04  1.937938E+05 -9.095926E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.378724E+05
  P =  -6.654943E+04 -2.196648E+05  6.246431E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.191382E+01
  P =  -9.115983E+00 -5.764865E-01 -7.648893E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   4.271014E+04
  P =   1.850448E+04  2.587164E+04  2.850260E+04
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  1.923316838E-11
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499928E+05
  P =   5.475198E+04  2.208103E+05 -1.036409E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.499951E+05
  P =  -5.474321E+04 -2.208111E+05  1.036492E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.210258E+01
  P =  -8.773290E+00  8.057940E-01 -8.297738E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.499931E+05
  P =   5.475092E+04  2.208104E+05 -1.036419E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.499948E+05
  P =  -5.474427E+04 -2.208110E+05  1.036482E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   1.003499E+01
  P =  -5.807928E+00  1.109576E+00 -8.107885E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   2.067652E+00
  P =  -8.361955E-01 -4.993384E-01  1.823903E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.378699E+05
  P =   5.893585E+04  1.889238E+05 -1.319714E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.194078E+05
  P =  -4.804417E+04 -1.937944E+05  9.096846E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.249769E+01
  P =  -8.422210E+00  2.221674E+00 -8.962304E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   4.270975E+04
  P =  -1.088326E+04  4.868384E+03  4.101191E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.194056E+05
  P =   4.805407E+04  1.937938E+05 -9.095926E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.378724E+05
  P =  -6.654943E+04 -2.196648E+05  6.246431E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.191382E+01
  P =  -9.115983E+00 -5.764865E-01 -7.648893E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   4.271014E+04
  P =   1.850448E+04  2.587164E+04  2.850260E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 3
 n_tot* => 5
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* => -1.05790E-03
 sqme_ref* =>  5.35570E-11
 event_index* => 3
 event_weight* =>  0.00000E+00
 event_weight_ref* =>  4.09774E-11
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-2| 2.4999283E+05; 5.4751981E+04, 2.2081034E+05,-1.0364088E+05| 0.0000000E+00| 3)
  4 prt(o:2| 2.4999506E+05;-5.4743208E+04,-2.2081114E+05, 1.0364918E+05| 0.0000000E+00| 4)
  5 prt(o:21| 1.2102578E+01;-8.7732902E+00, 8.0579400E-01,-8.2977382E+00| 0.0000000E+00| 5)
 ========================================================================
 ========================================================================
  Event #3
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  5.35570E-11
    Squared matrix el. (prc) =  4.00258E-04
    Event weight (ref)       =  4.09774E-11
    Event weight (prc)       =  0.00000E+00
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
             658726814.0,          695277609.0,         1316830081.0,
            2131992430.0,          749504030.0,          880099028.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   2.499928E+05
  P =   5.475198E+04  2.208103E+05 -1.036409E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.499951E+05
  P =  -5.474321E+04 -2.208111E+05  1.036492E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.210258E+01
  P =  -8.773290E+00  8.057940E-01 -8.297738E+00
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            1100463693.0,         3654384047.0,          647619641.0,
             459938003.0,         1733458346.0,         3954010958.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.194056E+05
  P =   4.805407E+04  1.937938E+05 -9.095926E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.378724E+05
  P =  -6.654943E+04 -2.196648E+05  6.246431E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.191382E+01
  P =  -9.115983E+00 -5.764865E-01 -7.648893E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   4.271014E+04
  P =   1.850448E+04  2.587164E+04  2.850260E+04
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  1.923316838E-11
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499928E+05
  P =   5.475198E+04  2.208103E+05 -1.036409E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.499951E+05
  P =  -5.474321E+04 -2.208111E+05  1.036492E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.210258E+01
  P =  -8.773290E+00  8.057940E-01 -8.297738E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.499931E+05
  P =   5.475092E+04  2.208104E+05 -1.036419E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.499948E+05
  P =  -5.474427E+04 -2.208110E+05  1.036482E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   1.003499E+01
  P =  -5.807928E+00  1.109576E+00 -8.107885E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   2.067652E+00
  P =  -8.361955E-01 -4.993384E-01  1.823903E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.378699E+05
  P =   5.893585E+04  1.889238E+05 -1.319714E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.194078E+05
  P =  -4.804417E+04 -1.937944E+05  9.096846E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.249769E+01
  P =  -8.422210E+00  2.221674E+00 -8.962304E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   4.270975E+04
  P =  -1.088326E+04  4.868384E+03  4.101191E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.194056E+05
  P =   4.805407E+04  1.937938E+05 -9.095926E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.378724E+05
  P =  -6.654943E+04 -2.196648E+05  6.246431E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.191382E+01
  P =  -9.115983E+00 -5.764865E-01 -7.648893E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   4.271014E+04
  P =   1.850448E+04  2.587164E+04  2.850260E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  4.00258E-04
 sqme_ref* =>  5.35570E-11
 event_index* => 3
 event_weight* =>  0.00000E+00
 event_weight_ref* =>  4.09774E-11
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-2| 2.4999310E+05; 5.4750916E+04, 2.2081043E+05,-1.0364189E+05| 0.0000000E+00| 3)
  4 prt(o:2| 2.4999479E+05;-5.4744272E+04,-2.2081104E+05, 1.0364817E+05| 0.0000000E+00| 4)
  5 prt(o:-2| 1.0034988E+01;-5.8079282E+00, 1.1095764E+00,-8.1078851E+00| 0.0000000E+00| 5)
  6 prt(o:2| 2.0676517E+00;-8.3619554E-01,-4.9933844E-01, 1.8239029E+00| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #3
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  5.35570E-11
    Squared matrix el. (prc) =  3.43238E-11
    Event weight (ref)       =  4.09774E-11
    Event weight (prc)       =  2.62618E-11
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
             658726814.0,          695277609.0,         1316830081.0,
            2131992430.0,          749504030.0,          880099028.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   2.499928E+05
  P =   5.475198E+04  2.208103E+05 -1.036409E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.499951E+05
  P =  -5.474321E+04 -2.208111E+05  1.036492E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.210258E+01
  P =  -8.773290E+00  8.057940E-01 -8.297738E+00
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            1100463693.0,         3654384047.0,          647619641.0,
             459938003.0,         1733458346.0,         3954010958.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.194056E+05
  P =   4.805407E+04  1.937938E+05 -9.095926E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.378724E+05
  P =  -6.654943E+04 -2.196648E+05  6.246431E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.191382E+01
  P =  -9.115983E+00 -5.764865E-01 -7.648893E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   4.271014E+04
  P =   1.850448E+04  2.587164E+04  2.850260E+04
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  1.923316838E-11
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499928E+05
  P =   5.475198E+04  2.208103E+05 -1.036409E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.499951E+05
  P =  -5.474321E+04 -2.208111E+05  1.036492E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.210258E+01
  P =  -8.773290E+00  8.057940E-01 -8.297738E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.499931E+05
  P =   5.475092E+04  2.208104E+05 -1.036419E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.499948E+05
  P =  -5.474427E+04 -2.208110E+05  1.036482E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   1.003499E+01
  P =  -5.807928E+00  1.109576E+00 -8.107885E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   2.067652E+00
  P =  -8.361955E-01 -4.993384E-01  1.823903E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.378699E+05
  P =   5.893585E+04  1.889238E+05 -1.319714E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.194078E+05
  P =  -4.804417E+04 -1.937944E+05  9.096846E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.249769E+01
  P =  -8.422210E+00  2.221674E+00 -8.962304E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   4.270975E+04
  P =  -1.088326E+04  4.868384E+03  4.101191E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.194056E+05
  P =   4.805407E+04  1.937938E+05 -9.095926E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.378724E+05
  P =  -6.654943E+04 -2.196648E+05  6.246431E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.191382E+01
  P =  -9.115983E+00 -5.764865E-01 -7.648893E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   4.271014E+04
  P =   1.850448E+04  2.587164E+04  2.850260E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  3.43238E-11
 sqme_ref* =>  5.35570E-11
 event_index* => 3
 event_weight* =>  2.62618E-11
 event_weight_ref* =>  4.09774E-11
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-1| 2.3786993E+05; 5.8935849E+04, 1.8892384E+05,-1.3197141E+05| 0.0000000E+00| 3)
  4 prt(o:1| 2.1940782E+05;-4.8044166E+04,-1.9379445E+05, 9.0968461E+04| 0.0000000E+00| 4)
  5 prt(o:21| 1.2497694E+01;-8.4222096E+00, 2.2216738E+00,-8.9623041E+00| 0.0000000E+00| 5)
  6 prt(o:21| 4.2709754E+04;-1.0883261E+04, 4.8683835E+03, 4.1011908E+04| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #3
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  5.35570E-11
    Squared matrix el. (prc) =  1.92332E-11
    Event weight (ref)       =  4.09774E-11
    Event weight (prc)       =  1.47156E-11
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
             658726814.0,          695277609.0,         1316830081.0,
            2131992430.0,          749504030.0,          880099028.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   2.499928E+05
  P =   5.475198E+04  2.208103E+05 -1.036409E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.499951E+05
  P =  -5.474321E+04 -2.208111E+05  1.036492E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.210258E+01
  P =  -8.773290E+00  8.057940E-01 -8.297738E+00
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            1100463693.0,         3654384047.0,          647619641.0,
             459938003.0,         1733458346.0,         3954010958.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.194056E+05
  P =   4.805407E+04  1.937938E+05 -9.095926E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.378724E+05
  P =  -6.654943E+04 -2.196648E+05  6.246431E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.191382E+01
  P =  -9.115983E+00 -5.764865E-01 -7.648893E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   4.271014E+04
  P =   1.850448E+04  2.587164E+04  2.850260E+04
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  1.923316838E-11
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499928E+05
  P =   5.475198E+04  2.208103E+05 -1.036409E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.499951E+05
  P =  -5.474321E+04 -2.208111E+05  1.036492E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.210258E+01
  P =  -8.773290E+00  8.057940E-01 -8.297738E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.499931E+05
  P =   5.475092E+04  2.208104E+05 -1.036419E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.499948E+05
  P =  -5.474427E+04 -2.208110E+05  1.036482E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   1.003499E+01
  P =  -5.807928E+00  1.109576E+00 -8.107885E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   2.067652E+00
  P =  -8.361955E-01 -4.993384E-01  1.823903E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.378699E+05
  P =   5.893585E+04  1.889238E+05 -1.319714E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.194078E+05
  P =  -4.804417E+04 -1.937944E+05  9.096846E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.249769E+01
  P =  -8.422210E+00  2.221674E+00 -8.962304E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   4.270975E+04
  P =  -1.088326E+04  4.868384E+03  4.101191E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.194056E+05
  P =   4.805407E+04  1.937938E+05 -9.095926E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.378724E+05
  P =  -6.654943E+04 -2.196648E+05  6.246431E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.191382E+01
  P =  -9.115983E+00 -5.764865E-01 -7.648893E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   4.271014E+04
  P =   1.850448E+04  2.587164E+04  2.850260E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  1.92332E-11
 sqme_ref* =>  5.35570E-11
 event_index* => 3
 event_weight* =>  1.47156E-11
 event_weight_ref* =>  4.09774E-11
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-2| 2.1940558E+05; 4.8054072E+04, 1.9379378E+05,-9.0959260E+04| 0.0000000E+00| 3)
  4 prt(o:2| 2.3787237E+05;-6.6549434E+04,-2.1966485E+05, 6.2464312E+04| 0.0000000E+00| 4)
  5 prt(o:21| 1.1913818E+01;-9.1159833E+00,-5.7648647E-01,-7.6488930E+00| 0.0000000E+00| 5)
  6 prt(o:21| 4.2710135E+04; 1.8504478E+04, 2.5871643E+04, 2.8502597E+04| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #4
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  2.11517E-10
    Squared matrix el. (prc) = -4.20083E-09
    Event weight (ref)       =  2.67271E-07
    Event weight (prc)       =  0.00000E+00
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
             852933358.0,         3802412940.0,         3514872455.0,
            1024477926.0,         3849273974.0,          775318609.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   2.376849E+05
  P =  -9.735941E+04 -1.760922E+05 -1.265180E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.496755E+05
  P =   1.059920E+05  1.834884E+05  1.320437E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.263960E+04
  P =  -8.632579E+03 -7.396266E+03 -5.525692E+03
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
             598672993.0,          229519251.0,         2192350721.0,
            2167080660.0,         1984333633.0,         1125498793.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   1.681412E+05
  P =  -6.783117E+04 -1.249743E+05 -8.973205E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   1.734932E+05
  P =  -1.185949E+04  3.511553E+04  1.694878E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.158712E+03
  P =  -7.046516E+03 -4.650547E+03 -3.549792E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.492069E+05
  P =   8.673718E+04  9.450927E+04 -7.620601E+04
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  2.057478561E-12
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.376849E+05
  P =  -9.735941E+04 -1.760922E+05 -1.265180E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.496755E+05
  P =   1.059920E+05  1.834884E+05  1.320437E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.263960E+04
  P =  -8.632579E+03 -7.396266E+03 -5.525692E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   2.402098E+05
  P =  -9.918120E+04 -1.776531E+05 -1.276841E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.470398E+05
  P =   1.040984E+05  1.818661E+05  1.308317E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   5.196868E+03
  P =  -1.975113E+03 -3.053897E+03  3.712152E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   7.553465E+03
  P =  -2.942136E+03 -1.159129E+03 -6.859671E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.595905E+05
  P =  -4.905718E+04 -1.427668E+05  5.177036E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.811710E+05
  P =   7.792629E+04  1.327265E+05  9.557249E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.719719E+04
  P =  -1.057617E+04 -1.091161E+04 -8.051381E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.420413E+05
  P =  -1.829293E+04  2.095187E+04 -1.392915E+05
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   1.681412E+05
  P =  -6.783117E+04 -1.249743E+05 -8.973205E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   1.734932E+05
  P =  -1.185949E+04  3.511553E+04  1.694878E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.158712E+03
  P =  -7.046516E+03 -4.650547E+03 -3.549792E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.492069E+05
  P =   8.673718E+04  9.450927E+04 -7.620601E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 3
 n_tot* => 5
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* => -4.20083E-09
 sqme_ref* =>  2.11517E-10
 event_index* => 4
 event_weight* =>  0.00000E+00
 event_weight_ref* =>  2.67271E-07
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-2| 2.3768491E+05;-9.7359407E+04,-1.7609218E+05,-1.2651802E+05| 0.0000000E+00| 3)
  4 prt(o:2| 2.4967549E+05; 1.0599199E+05, 1.8348844E+05, 1.3204371E+05| 0.0000000E+00| 4)
  5 prt(o:21| 1.2639598E+04;-8.6325789E+03,-7.3962655E+03,-5.5256921E+03| 0.0000000E+00| 5)
 ========================================================================
 ========================================================================
  Event #4
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  2.11517E-10
    Squared matrix el. (prc) =  2.07645E-10
    Event weight (ref)       =  2.67271E-07
    Event weight (prc)       =  2.62379E-07
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
             852933358.0,         3802412940.0,         3514872455.0,
            1024477926.0,         3849273974.0,          775318609.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   2.376849E+05
  P =  -9.735941E+04 -1.760922E+05 -1.265180E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.496755E+05
  P =   1.059920E+05  1.834884E+05  1.320437E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.263960E+04
  P =  -8.632579E+03 -7.396266E+03 -5.525692E+03
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
             598672993.0,          229519251.0,         2192350721.0,
            2167080660.0,         1984333633.0,         1125498793.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   1.681412E+05
  P =  -6.783117E+04 -1.249743E+05 -8.973205E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   1.734932E+05
  P =  -1.185949E+04  3.511553E+04  1.694878E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.158712E+03
  P =  -7.046516E+03 -4.650547E+03 -3.549792E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.492069E+05
  P =   8.673718E+04  9.450927E+04 -7.620601E+04
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  2.057478561E-12
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.376849E+05
  P =  -9.735941E+04 -1.760922E+05 -1.265180E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.496755E+05
  P =   1.059920E+05  1.834884E+05  1.320437E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.263960E+04
  P =  -8.632579E+03 -7.396266E+03 -5.525692E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   2.402098E+05
  P =  -9.918120E+04 -1.776531E+05 -1.276841E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.470398E+05
  P =   1.040984E+05  1.818661E+05  1.308317E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   5.196868E+03
  P =  -1.975113E+03 -3.053897E+03  3.712152E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   7.553465E+03
  P =  -2.942136E+03 -1.159129E+03 -6.859671E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.595905E+05
  P =  -4.905718E+04 -1.427668E+05  5.177036E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.811710E+05
  P =   7.792629E+04  1.327265E+05  9.557249E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.719719E+04
  P =  -1.057617E+04 -1.091161E+04 -8.051381E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.420413E+05
  P =  -1.829293E+04  2.095187E+04 -1.392915E+05
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   1.681412E+05
  P =  -6.783117E+04 -1.249743E+05 -8.973205E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   1.734932E+05
  P =  -1.185949E+04  3.511553E+04  1.694878E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.158712E+03
  P =  -7.046516E+03 -4.650547E+03 -3.549792E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.492069E+05
  P =   8.673718E+04  9.450927E+04 -7.620601E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  2.07645E-10
 sqme_ref* =>  2.11517E-10
 event_index* => 4
 event_weight* =>  2.62379E-07
 event_weight_ref* =>  2.67271E-07
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-3| 2.4020982E+05;-9.9181199E+04,-1.7765306E+05,-1.2768414E+05| 0.0000000E+00| 3)
  4 prt(o:3| 2.4703984E+05; 1.0409845E+05, 1.8186609E+05, 1.3083166E+05| 0.0000000E+00| 4)
  5 prt(o:21| 5.1968680E+03;-1.9751131E+03,-3.0538975E+03, 3.7121524E+03| 0.0000000E+00| 5)
  6 prt(o:21| 7.5534651E+03;-2.9421361E+03,-1.1591287E+03,-6.8596713E+03| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #4
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  2.11517E-10
    Squared matrix el. (prc) =  1.81416E-12
    Event weight (ref)       =  2.67271E-07
    Event weight (prc)       =  2.29236E-09
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
             852933358.0,         3802412940.0,         3514872455.0,
            1024477926.0,         3849273974.0,          775318609.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   2.376849E+05
  P =  -9.735941E+04 -1.760922E+05 -1.265180E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.496755E+05
  P =   1.059920E+05  1.834884E+05  1.320437E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.263960E+04
  P =  -8.632579E+03 -7.396266E+03 -5.525692E+03
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
             598672993.0,          229519251.0,         2192350721.0,
            2167080660.0,         1984333633.0,         1125498793.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   1.681412E+05
  P =  -6.783117E+04 -1.249743E+05 -8.973205E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   1.734932E+05
  P =  -1.185949E+04  3.511553E+04  1.694878E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.158712E+03
  P =  -7.046516E+03 -4.650547E+03 -3.549792E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.492069E+05
  P =   8.673718E+04  9.450927E+04 -7.620601E+04
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  2.057478561E-12
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.376849E+05
  P =  -9.735941E+04 -1.760922E+05 -1.265180E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.496755E+05
  P =   1.059920E+05  1.834884E+05  1.320437E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.263960E+04
  P =  -8.632579E+03 -7.396266E+03 -5.525692E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   2.402098E+05
  P =  -9.918120E+04 -1.776531E+05 -1.276841E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.470398E+05
  P =   1.040984E+05  1.818661E+05  1.308317E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   5.196868E+03
  P =  -1.975113E+03 -3.053897E+03  3.712152E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   7.553465E+03
  P =  -2.942136E+03 -1.159129E+03 -6.859671E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.595905E+05
  P =  -4.905718E+04 -1.427668E+05  5.177036E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.811710E+05
  P =   7.792629E+04  1.327265E+05  9.557249E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.719719E+04
  P =  -1.057617E+04 -1.091161E+04 -8.051381E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.420413E+05
  P =  -1.829293E+04  2.095187E+04 -1.392915E+05
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   1.681412E+05
  P =  -6.783117E+04 -1.249743E+05 -8.973205E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   1.734932E+05
  P =  -1.185949E+04  3.511553E+04  1.694878E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.158712E+03
  P =  -7.046516E+03 -4.650547E+03 -3.549792E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.492069E+05
  P =   8.673718E+04  9.450927E+04 -7.620601E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  1.81416E-12
 sqme_ref* =>  2.11517E-10
 event_index* => 4
 event_weight* =>  2.29236E-09
 event_weight_ref* =>  2.67271E-07
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-2| 1.5959052E+05;-4.9057181E+04,-1.4276679E+05, 5.1770364E+04| 0.0000000E+00| 3)
  4 prt(o:2| 1.8117101E+05; 7.7926286E+04, 1.3272652E+05, 9.5572486E+04| 0.0000000E+00| 4)
  5 prt(o:21| 1.7197189E+04;-1.0576172E+04,-1.0911607E+04,-8.0513808E+03| 0.0000000E+00| 5)
  6 prt(o:21| 1.4204128E+05;-1.8292933E+04, 2.0951870E+04,-1.3929147E+05| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #4
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  2.11517E-10
    Squared matrix el. (prc) =  2.05748E-12
    Event weight (ref)       =  2.67271E-07
    Event weight (prc)       =  2.59981E-09
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
             852933358.0,         3802412940.0,         3514872455.0,
            1024477926.0,         3849273974.0,          775318609.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   2.376849E+05
  P =  -9.735941E+04 -1.760922E+05 -1.265180E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.496755E+05
  P =   1.059920E+05  1.834884E+05  1.320437E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.263960E+04
  P =  -8.632579E+03 -7.396266E+03 -5.525692E+03
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
             598672993.0,          229519251.0,         2192350721.0,
            2167080660.0,         1984333633.0,         1125498793.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   1.681412E+05
  P =  -6.783117E+04 -1.249743E+05 -8.973205E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   1.734932E+05
  P =  -1.185949E+04  3.511553E+04  1.694878E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.158712E+03
  P =  -7.046516E+03 -4.650547E+03 -3.549792E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.492069E+05
  P =   8.673718E+04  9.450927E+04 -7.620601E+04
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  2.057478561E-12
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.376849E+05
  P =  -9.735941E+04 -1.760922E+05 -1.265180E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.496755E+05
  P =   1.059920E+05  1.834884E+05  1.320437E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.263960E+04
  P =  -8.632579E+03 -7.396266E+03 -5.525692E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   2.402098E+05
  P =  -9.918120E+04 -1.776531E+05 -1.276841E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.470398E+05
  P =   1.040984E+05  1.818661E+05  1.308317E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   5.196868E+03
  P =  -1.975113E+03 -3.053897E+03  3.712152E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   7.553465E+03
  P =  -2.942136E+03 -1.159129E+03 -6.859671E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.595905E+05
  P =  -4.905718E+04 -1.427668E+05  5.177036E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.811710E+05
  P =   7.792629E+04  1.327265E+05  9.557249E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.719719E+04
  P =  -1.057617E+04 -1.091161E+04 -8.051381E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.420413E+05
  P =  -1.829293E+04  2.095187E+04 -1.392915E+05
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   1.681412E+05
  P =  -6.783117E+04 -1.249743E+05 -8.973205E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   1.734932E+05
  P =  -1.185949E+04  3.511553E+04  1.694878E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.158712E+03
  P =  -7.046516E+03 -4.650547E+03 -3.549792E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.492069E+05
  P =   8.673718E+04  9.450927E+04 -7.620601E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  2.05748E-12
 sqme_ref* =>  2.11517E-10
 event_index* => 4
 event_weight* =>  2.59981E-09
 event_weight_ref* =>  2.67271E-07
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-3| 1.6814123E+05;-6.7831172E+04,-1.2497426E+05,-8.9732051E+04| 0.0000000E+00| 3)
  4 prt(o:3| 1.7349317E+05;-1.1859494E+04, 3.5115532E+04, 1.6948785E+05| 0.0000000E+00| 4)
  5 prt(o:21| 9.1587121E+03;-7.0465164E+03,-4.6505472E+03,-3.5497920E+03| 0.0000000E+00| 5)
  6 prt(o:21| 1.4920689E+05; 8.6737182E+04, 9.4509270E+04,-7.6206006E+04| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #5
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  9.37950E-07
    Squared matrix el. (prc) =  7.86867E-07
    Event weight (ref)       =  6.19706E-04
    Event weight (prc)       =  5.19885E-04
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            1095625977.0,          443063532.0,         2957163220.0,
             222499157.0,         3835620558.0,         2328100909.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499472E+05
  P =  -3.012367E+04  1.513506E+05 -1.966194E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.488282E+05
  P =   2.951646E+04 -1.505960E+05  1.958701E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.224531E+03
  P =   6.072096E+02 -7.545382E+02  7.492960E+02
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            1106982763.0,         4232153153.0,         2882700880.0,
            3746330306.0,          161521528.0,         2991739543.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.920514E+05
  P =  -2.325594E+04  1.163107E+05 -1.510454E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.351515E+05
  P =   1.237789E+05 -4.406944E+04  3.166392E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.565421E+03
  P =   6.505595E+02 -9.757142E+02  1.036965E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.712317E+05
  P =  -1.011735E+05 -7.126557E+04  1.183445E+05
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  3.848894375E-12
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499472E+05
  P =  -3.012367E+04  1.513506E+05 -1.966194E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.488282E+05
  P =   2.951646E+04 -1.505960E+05  1.958701E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.224531E+03
  P =   6.072096E+02 -7.545382E+02  7.492960E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   2.497695E+05
  P =  -3.002724E+04  1.512308E+05 -1.965004E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.490052E+05
  P =   2.961252E+04 -1.507154E+05  1.959886E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.826693E+02
  P =   3.602519E+02  1.245420E+02 -3.381823E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   8.426635E+02
  P =   5.446820E+01 -6.398866E+02  5.455824E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   1.362137E+05
  P =  -1.144985E+05 -7.433513E+03 -7.340982E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   1.908174E+05
  P =   2.252497E+04 -1.154686E+05  1.502361E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.672550E+02
  P =   5.723545E+02 -5.794158E+02  5.217948E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.720017E+05
  P =   9.140115E+04  1.234816E+05 -7.734808E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.920514E+05
  P =  -2.325594E+04  1.163107E+05 -1.510454E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.351515E+05
  P =   1.237789E+05 -4.406944E+04  3.166392E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.565421E+03
  P =   6.505595E+02 -9.757142E+02  1.036965E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.712317E+05
  P =  -1.011735E+05 -7.126557E+04  1.183445E+05
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 3
 n_tot* => 5
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  7.86867E-07
 sqme_ref* =>  9.37950E-07
 event_index* => 5
 event_weight* =>  5.19885E-04
 event_weight_ref* =>  6.19706E-04
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-2| 2.4994724E+05;-3.0123669E+04, 1.5135059E+05,-1.9661940E+05| 0.0000000E+00| 3)
  4 prt(o:2| 2.4882823E+05; 2.9516460E+04,-1.5059605E+05, 1.9587010E+05| 0.0000000E+00| 4)
  5 prt(o:21| 1.2245309E+03; 6.0720956E+02,-7.5453818E+02, 7.4929605E+02| 0.0000000E+00| 5)
 ========================================================================
 ========================================================================
  Event #5
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  9.37950E-07
    Squared matrix el. (prc) =  1.51076E-07
    Event weight (ref)       =  6.19706E-04
    Event weight (prc)       =  9.98166E-05
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            1095625977.0,          443063532.0,         2957163220.0,
             222499157.0,         3835620558.0,         2328100909.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499472E+05
  P =  -3.012367E+04  1.513506E+05 -1.966194E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.488282E+05
  P =   2.951646E+04 -1.505960E+05  1.958701E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.224531E+03
  P =   6.072096E+02 -7.545382E+02  7.492960E+02
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            1106982763.0,         4232153153.0,         2882700880.0,
            3746330306.0,          161521528.0,         2991739543.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.920514E+05
  P =  -2.325594E+04  1.163107E+05 -1.510454E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.351515E+05
  P =   1.237789E+05 -4.406944E+04  3.166392E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.565421E+03
  P =   6.505595E+02 -9.757142E+02  1.036965E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.712317E+05
  P =  -1.011735E+05 -7.126557E+04  1.183445E+05
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  3.848894375E-12
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499472E+05
  P =  -3.012367E+04  1.513506E+05 -1.966194E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.488282E+05
  P =   2.951646E+04 -1.505960E+05  1.958701E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.224531E+03
  P =   6.072096E+02 -7.545382E+02  7.492960E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   2.497695E+05
  P =  -3.002724E+04  1.512308E+05 -1.965004E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.490052E+05
  P =   2.961252E+04 -1.507154E+05  1.959886E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.826693E+02
  P =   3.602519E+02  1.245420E+02 -3.381823E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   8.426635E+02
  P =   5.446820E+01 -6.398866E+02  5.455824E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   1.362137E+05
  P =  -1.144985E+05 -7.433513E+03 -7.340982E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   1.908174E+05
  P =   2.252497E+04 -1.154686E+05  1.502361E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.672550E+02
  P =   5.723545E+02 -5.794158E+02  5.217948E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.720017E+05
  P =   9.140115E+04  1.234816E+05 -7.734808E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.920514E+05
  P =  -2.325594E+04  1.163107E+05 -1.510454E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.351515E+05
  P =   1.237789E+05 -4.406944E+04  3.166392E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.565421E+03
  P =   6.505595E+02 -9.757142E+02  1.036965E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.712317E+05
  P =  -1.011735E+05 -7.126557E+04  1.183445E+05
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  1.51076E-07
 sqme_ref* =>  9.37950E-07
 event_index* => 5
 event_weight* =>  9.98166E-05
 event_weight_ref* =>  6.19706E-04
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-3| 2.4976947E+05;-3.0027243E+04, 1.5123076E+05,-1.9650041E+05| 0.0000000E+00| 3)
  4 prt(o:3| 2.4900520E+05; 2.9612523E+04,-1.5071542E+05, 1.9598864E+05| 0.0000000E+00| 4)
  5 prt(o:21| 3.8266933E+02; 3.6025189E+02, 1.2454202E+02,-3.3818229E+01| 0.0000000E+00| 5)
  6 prt(o:21| 8.4266352E+02; 5.4468196E+01,-6.3988657E+02, 5.4558244E+02| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #5
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  9.37950E-07
    Squared matrix el. (prc) =  2.69142E-12
    Event weight (ref)       =  6.19706E-04
    Event weight (prc)       =  1.77823E-09
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            1095625977.0,          443063532.0,         2957163220.0,
             222499157.0,         3835620558.0,         2328100909.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499472E+05
  P =  -3.012367E+04  1.513506E+05 -1.966194E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.488282E+05
  P =   2.951646E+04 -1.505960E+05  1.958701E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.224531E+03
  P =   6.072096E+02 -7.545382E+02  7.492960E+02
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            1106982763.0,         4232153153.0,         2882700880.0,
            3746330306.0,          161521528.0,         2991739543.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.920514E+05
  P =  -2.325594E+04  1.163107E+05 -1.510454E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.351515E+05
  P =   1.237789E+05 -4.406944E+04  3.166392E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.565421E+03
  P =   6.505595E+02 -9.757142E+02  1.036965E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.712317E+05
  P =  -1.011735E+05 -7.126557E+04  1.183445E+05
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  3.848894375E-12
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499472E+05
  P =  -3.012367E+04  1.513506E+05 -1.966194E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.488282E+05
  P =   2.951646E+04 -1.505960E+05  1.958701E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.224531E+03
  P =   6.072096E+02 -7.545382E+02  7.492960E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   2.497695E+05
  P =  -3.002724E+04  1.512308E+05 -1.965004E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.490052E+05
  P =   2.961252E+04 -1.507154E+05  1.959886E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.826693E+02
  P =   3.602519E+02  1.245420E+02 -3.381823E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   8.426635E+02
  P =   5.446820E+01 -6.398866E+02  5.455824E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   1.362137E+05
  P =  -1.144985E+05 -7.433513E+03 -7.340982E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   1.908174E+05
  P =   2.252497E+04 -1.154686E+05  1.502361E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.672550E+02
  P =   5.723545E+02 -5.794158E+02  5.217948E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.720017E+05
  P =   9.140115E+04  1.234816E+05 -7.734808E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.920514E+05
  P =  -2.325594E+04  1.163107E+05 -1.510454E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.351515E+05
  P =   1.237789E+05 -4.406944E+04  3.166392E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.565421E+03
  P =   6.505595E+02 -9.757142E+02  1.036965E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.712317E+05
  P =  -1.011735E+05 -7.126557E+04  1.183445E+05
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  2.69142E-12
 sqme_ref* =>  9.37950E-07
 event_index* => 5
 event_weight* =>  1.77823E-09
 event_weight_ref* =>  6.19706E-04
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-1| 1.3621365E+05;-1.1449847E+05,-7.4335128E+03,-7.3409822E+04| 0.0000000E+00| 3)
  4 prt(o:1| 1.9081737E+05; 2.2524966E+04,-1.1546863E+05, 1.5023611E+05| 0.0000000E+00| 4)
  5 prt(o:21| 9.6725498E+02; 5.7235454E+02,-5.7941582E+02, 5.2179477E+02| 0.0000000E+00| 5)
  6 prt(o:21| 1.7200172E+05; 9.1401152E+04, 1.2348156E+05,-7.7348083E+04| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #5
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  9.37950E-07
    Squared matrix el. (prc) =  3.84889E-12
    Event weight (ref)       =  6.19706E-04
    Event weight (prc)       =  2.54297E-09
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            1095625977.0,          443063532.0,         2957163220.0,
             222499157.0,         3835620558.0,         2328100909.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499472E+05
  P =  -3.012367E+04  1.513506E+05 -1.966194E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.488282E+05
  P =   2.951646E+04 -1.505960E+05  1.958701E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.224531E+03
  P =   6.072096E+02 -7.545382E+02  7.492960E+02
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            1106982763.0,         4232153153.0,         2882700880.0,
            3746330306.0,          161521528.0,         2991739543.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.920514E+05
  P =  -2.325594E+04  1.163107E+05 -1.510454E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.351515E+05
  P =   1.237789E+05 -4.406944E+04  3.166392E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.565421E+03
  P =   6.505595E+02 -9.757142E+02  1.036965E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.712317E+05
  P =  -1.011735E+05 -7.126557E+04  1.183445E+05
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  3.848894375E-12
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499472E+05
  P =  -3.012367E+04  1.513506E+05 -1.966194E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.488282E+05
  P =   2.951646E+04 -1.505960E+05  1.958701E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.224531E+03
  P =   6.072096E+02 -7.545382E+02  7.492960E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   2.497695E+05
  P =  -3.002724E+04  1.512308E+05 -1.965004E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.490052E+05
  P =   2.961252E+04 -1.507154E+05  1.959886E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.826693E+02
  P =   3.602519E+02  1.245420E+02 -3.381823E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   8.426635E+02
  P =   5.446820E+01 -6.398866E+02  5.455824E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   1.362137E+05
  P =  -1.144985E+05 -7.433513E+03 -7.340982E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   1.908174E+05
  P =   2.252497E+04 -1.154686E+05  1.502361E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.672550E+02
  P =   5.723545E+02 -5.794158E+02  5.217948E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.720017E+05
  P =   9.140115E+04  1.234816E+05 -7.734808E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.920514E+05
  P =  -2.325594E+04  1.163107E+05 -1.510454E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.351515E+05
  P =   1.237789E+05 -4.406944E+04  3.166392E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.565421E+03
  P =   6.505595E+02 -9.757142E+02  1.036965E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.712317E+05
  P =  -1.011735E+05 -7.126557E+04  1.183445E+05
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  3.84889E-12
 sqme_ref* =>  9.37950E-07
 event_index* => 5
 event_weight* =>  2.54297E-09
 event_weight_ref* =>  6.19706E-04
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-2| 1.9205140E+05;-2.3255941E+04, 1.1631072E+05,-1.5104542E+05| 0.0000000E+00| 3)
  4 prt(o:2| 1.3515151E+05; 1.2377888E+05,-4.4069441E+04, 3.1663917E+04| 0.0000000E+00| 4)
  5 prt(o:21| 1.5654207E+03; 6.5055954E+02,-9.7571425E+02, 1.0369648E+03| 0.0000000E+00| 5)
  6 prt(o:21| 1.7123167E+05;-1.0117349E+05,-7.1265568E+04, 1.1834453E+05| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #6
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  0.00000E+00
    Squared matrix el. (prc) =  0.00000E+00
    Event weight (ref)       =  0.00000E+00
    Event weight (prc)       =  0.00000E+00
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            2643453732.0,          343801519.0,         3374377404.0,
            2585822891.0,         2834629654.0,          677007669.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499984E+05
  P =   1.705136E+03  5.495284E+04 -2.438780E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.754199E+05
  P =  -1.751606E+03 -3.868985E+04  1.710911E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   7.458170E+04
  P =   4.647034E+01 -1.626299E+04  7.278697E+04
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            2714720639.0,         1946415819.0,         2496115977.0,
            2267707328.0,         4192754391.0,         3326698294.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.499674E+05
  P =   1.704826E+03  5.494600E+04 -2.438478E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   7.201881E+04
  P =   8.515933E+02 -1.424707E+04  7.059040E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   7.459095E+04
  P =   4.637791E+01 -1.626503E+04  7.279599E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   1.034228E+05
  P =  -2.602797E+03 -2.443390E+04  1.004614E+05
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  3.848894375E-12
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499984E+05
  P =   1.705136E+03  5.495284E+04 -2.438780E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.754199E+05
  P =  -1.751606E+03 -3.868985E+04  1.710911E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   7.458170E+04
  P =   4.647034E+01 -1.626299E+04  7.278697E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.499853E+05
  P =   1.705144E+03  5.494997E+04 -2.438652E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.754291E+05
  P =  -1.751600E+03 -3.869187E+04  1.711001E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   3.061427E+04
  P =   6.525787E+02 -5.947960E+03  3.002382E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   4.397136E+04
  P =  -6.061224E+02 -1.031014E+04  4.274125E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.026503E+05
  P =  -1.354957E+03  2.503841E+04 -9.954059E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.753888E+05
  P =  -1.751395E+03 -3.868303E+04  1.710608E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   7.456851E+04
  P =   4.656031E+01 -1.626009E+04  7.277410E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   1.473923E+05
  P =   3.059791E+03  2.990472E+04 -1.442943E+05
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.499674E+05
  P =   1.704826E+03  5.494600E+04 -2.438478E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   7.201881E+04
  P =   8.515933E+02 -1.424707E+04  7.059040E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   7.459095E+04
  P =   4.637791E+01 -1.626503E+04  7.279599E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   1.034228E+05
  P =  -2.602797E+03 -2.443390E+04  1.004614E+05
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 3
 n_tot* => 5
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  0.00000E+00
 sqme_ref* =>  0.00000E+00
 event_index* => 6
 event_weight* =>  0.00000E+00
 event_weight_ref* =>  0.00000E+00
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-2| 2.4999844E+05; 1.7051358E+03, 5.4952843E+04,-2.4387804E+05| 0.0000000E+00| 3)
  4 prt(o:2| 1.7541986E+05;-1.7516062E+03,-3.8689852E+04, 1.7109107E+05| 0.0000000E+00| 4)
  5 prt(o:21| 7.4581696E+04; 4.6470340E+01,-1.6262990E+04, 7.2786966E+04| 0.0000000E+00| 5)
 ========================================================================
 ========================================================================
  Event #6
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  0.00000E+00
    Squared matrix el. (prc) =  0.00000E+00
    Event weight (ref)       =  0.00000E+00
    Event weight (prc)       =  0.00000E+00
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            2643453732.0,          343801519.0,         3374377404.0,
            2585822891.0,         2834629654.0,          677007669.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499984E+05
  P =   1.705136E+03  5.495284E+04 -2.438780E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.754199E+05
  P =  -1.751606E+03 -3.868985E+04  1.710911E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   7.458170E+04
  P =   4.647034E+01 -1.626299E+04  7.278697E+04
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            2714720639.0,         1946415819.0,         2496115977.0,
            2267707328.0,         4192754391.0,         3326698294.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.499674E+05
  P =   1.704826E+03  5.494600E+04 -2.438478E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   7.201881E+04
  P =   8.515933E+02 -1.424707E+04  7.059040E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   7.459095E+04
  P =   4.637791E+01 -1.626503E+04  7.279599E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   1.034228E+05
  P =  -2.602797E+03 -2.443390E+04  1.004614E+05
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  3.848894375E-12
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499984E+05
  P =   1.705136E+03  5.495284E+04 -2.438780E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.754199E+05
  P =  -1.751606E+03 -3.868985E+04  1.710911E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   7.458170E+04
  P =   4.647034E+01 -1.626299E+04  7.278697E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.499853E+05
  P =   1.705144E+03  5.494997E+04 -2.438652E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.754291E+05
  P =  -1.751600E+03 -3.869187E+04  1.711001E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   3.061427E+04
  P =   6.525787E+02 -5.947960E+03  3.002382E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   4.397136E+04
  P =  -6.061224E+02 -1.031014E+04  4.274125E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.026503E+05
  P =  -1.354957E+03  2.503841E+04 -9.954059E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.753888E+05
  P =  -1.751395E+03 -3.868303E+04  1.710608E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   7.456851E+04
  P =   4.656031E+01 -1.626009E+04  7.277410E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   1.473923E+05
  P =   3.059791E+03  2.990472E+04 -1.442943E+05
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.499674E+05
  P =   1.704826E+03  5.494600E+04 -2.438478E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   7.201881E+04
  P =   8.515933E+02 -1.424707E+04  7.059040E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   7.459095E+04
  P =   4.637791E+01 -1.626503E+04  7.279599E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   1.034228E+05
  P =  -2.602797E+03 -2.443390E+04  1.004614E+05
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  0.00000E+00
 sqme_ref* =>  0.00000E+00
 event_index* => 6
 event_weight* =>  0.00000E+00
 event_weight_ref* =>  0.00000E+00
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-2| 2.4998525E+05; 1.7051441E+03, 5.4949967E+04,-2.4386517E+05| 0.0000000E+00| 3)
  4 prt(o:2| 1.7542912E+05;-1.7516004E+03,-3.8691871E+04, 1.7110011E+05| 0.0000000E+00| 4)
  5 prt(o:-2| 3.0614272E+04; 6.5257875E+02,-5.9479598E+03, 3.0023816E+04| 0.0000000E+00| 5)
  6 prt(o:2| 4.3971359E+04;-6.0612239E+02,-1.0310136E+04, 4.2741246E+04| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #6
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  0.00000E+00
    Squared matrix el. (prc) =  0.00000E+00
    Event weight (ref)       =  0.00000E+00
    Event weight (prc)       =  0.00000E+00
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            2643453732.0,          343801519.0,         3374377404.0,
            2585822891.0,         2834629654.0,          677007669.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499984E+05
  P =   1.705136E+03  5.495284E+04 -2.438780E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.754199E+05
  P =  -1.751606E+03 -3.868985E+04  1.710911E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   7.458170E+04
  P =   4.647034E+01 -1.626299E+04  7.278697E+04
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            2714720639.0,         1946415819.0,         2496115977.0,
            2267707328.0,         4192754391.0,         3326698294.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.499674E+05
  P =   1.704826E+03  5.494600E+04 -2.438478E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   7.201881E+04
  P =   8.515933E+02 -1.424707E+04  7.059040E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   7.459095E+04
  P =   4.637791E+01 -1.626503E+04  7.279599E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   1.034228E+05
  P =  -2.602797E+03 -2.443390E+04  1.004614E+05
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  3.848894375E-12
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499984E+05
  P =   1.705136E+03  5.495284E+04 -2.438780E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.754199E+05
  P =  -1.751606E+03 -3.868985E+04  1.710911E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   7.458170E+04
  P =   4.647034E+01 -1.626299E+04  7.278697E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.499853E+05
  P =   1.705144E+03  5.494997E+04 -2.438652E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.754291E+05
  P =  -1.751600E+03 -3.869187E+04  1.711001E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   3.061427E+04
  P =   6.525787E+02 -5.947960E+03  3.002382E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   4.397136E+04
  P =  -6.061224E+02 -1.031014E+04  4.274125E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.026503E+05
  P =  -1.354957E+03  2.503841E+04 -9.954059E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.753888E+05
  P =  -1.751395E+03 -3.868303E+04  1.710608E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   7.456851E+04
  P =   4.656031E+01 -1.626009E+04  7.277410E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   1.473923E+05
  P =   3.059791E+03  2.990472E+04 -1.442943E+05
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.499674E+05
  P =   1.704826E+03  5.494600E+04 -2.438478E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   7.201881E+04
  P =   8.515933E+02 -1.424707E+04  7.059040E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   7.459095E+04
  P =   4.637791E+01 -1.626503E+04  7.279599E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   1.034228E+05
  P =  -2.602797E+03 -2.443390E+04  1.004614E+05
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  0.00000E+00
 sqme_ref* =>  0.00000E+00
 event_index* => 6
 event_weight* =>  0.00000E+00
 event_weight_ref* =>  0.00000E+00
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-2| 1.0265031E+05;-1.3549569E+03, 2.5038406E+04,-9.9540591E+04| 0.0000000E+00| 3)
  4 prt(o:2| 1.7538884E+05;-1.7513946E+03,-3.8683032E+04, 1.7106081E+05| 0.0000000E+00| 4)
  5 prt(o:-2| 7.4568505E+04; 4.6560312E+01,-1.6260091E+04, 7.2774098E+04| 0.0000000E+00| 5)
  6 prt(o:2| 1.4739234E+05; 3.0597912E+03, 2.9904717E+04,-1.4429431E+05| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #6
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  0.00000E+00
    Squared matrix el. (prc) =  0.00000E+00
    Event weight (ref)       =  0.00000E+00
    Event weight (prc)       =  0.00000E+00
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            2643453732.0,          343801519.0,         3374377404.0,
            2585822891.0,         2834629654.0,          677007669.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499984E+05
  P =   1.705136E+03  5.495284E+04 -2.438780E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.754199E+05
  P =  -1.751606E+03 -3.868985E+04  1.710911E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   7.458170E+04
  P =   4.647034E+01 -1.626299E+04  7.278697E+04
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            2714720639.0,         1946415819.0,         2496115977.0,
            2267707328.0,         4192754391.0,         3326698294.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.499674E+05
  P =   1.704826E+03  5.494600E+04 -2.438478E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   7.201881E+04
  P =   8.515933E+02 -1.424707E+04  7.059040E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   7.459095E+04
  P =   4.637791E+01 -1.626503E+04  7.279599E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   1.034228E+05
  P =  -2.602797E+03 -2.443390E+04  1.004614E+05
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  3.848894375E-12
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499984E+05
  P =   1.705136E+03  5.495284E+04 -2.438780E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.754199E+05
  P =  -1.751606E+03 -3.868985E+04  1.710911E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   7.458170E+04
  P =   4.647034E+01 -1.626299E+04  7.278697E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.499853E+05
  P =   1.705144E+03  5.494997E+04 -2.438652E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.754291E+05
  P =  -1.751600E+03 -3.869187E+04  1.711001E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   3.061427E+04
  P =   6.525787E+02 -5.947960E+03  3.002382E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   4.397136E+04
  P =  -6.061224E+02 -1.031014E+04  4.274125E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.026503E+05
  P =  -1.354957E+03  2.503841E+04 -9.954059E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.753888E+05
  P =  -1.751395E+03 -3.868303E+04  1.710608E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   7.456851E+04
  P =   4.656031E+01 -1.626009E+04  7.277410E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   1.473923E+05
  P =   3.059791E+03  2.990472E+04 -1.442943E+05
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.499674E+05
  P =   1.704826E+03  5.494600E+04 -2.438478E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   7.201881E+04
  P =   8.515933E+02 -1.424707E+04  7.059040E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   7.459095E+04
  P =   4.637791E+01 -1.626503E+04  7.279599E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   1.034228E+05
  P =  -2.602797E+03 -2.443390E+04  1.004614E+05
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  0.00000E+00
 sqme_ref* =>  0.00000E+00
 event_index* => 6
 event_weight* =>  0.00000E+00
 event_weight_ref* =>  0.00000E+00
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-2| 2.4996742E+05; 1.7048261E+03, 5.4946000E+04,-2.4384778E+05| 0.0000000E+00| 3)
  4 prt(o:2| 7.2018806E+04; 8.5159327E+02,-1.4247070E+04, 7.0590398E+04| 0.0000000E+00| 4)
  5 prt(o:-2| 7.4590952E+04; 4.6377911E+01,-1.6265032E+04, 7.2795994E+04| 0.0000000E+00| 5)
  6 prt(o:2| 1.0342282E+05;-2.6027972E+03,-2.4433899E+04, 1.0046139E+05| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #7
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  8.55502E-11
    Squared matrix el. (prc) =  3.55892E-11
    Event weight (ref)       =  7.63620E-07
    Event weight (prc)       =  3.17669E-07
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            2042523454.0,         1790911384.0,         3715479539.0,
            3582083863.0,         2240445629.0,         3470253870.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   2.195207E+05
  P =   1.239520E+04  7.088145E+04 -2.073922E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.402876E+05
  P =  -4.887334E+04 -7.109917E+04  2.242642E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   4.019162E+04
  P =   3.647814E+04  2.177158E+02 -1.687201E+04
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            3203562530.0,          370100846.0,         1647107524.0,
            1466280485.0,         4189984473.0,          360074395.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.444813E+05
  P =  -3.133485E+03  4.829088E+04 -1.361360E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.873602E+05
  P =   7.577453E+04  3.340275E+04  1.680664E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.369713E+04
  P =   3.332597E+04 -4.367942E+03 -2.407721E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.344614E+05
  P =  -1.059670E+05 -7.732569E+04 -2.952267E+04
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  1.501741013E-12
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.195207E+05
  P =   1.239520E+04  7.088145E+04 -2.073922E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.402876E+05
  P =  -4.887334E+04 -7.109917E+04  2.242642E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   4.019162E+04
  P =   3.647814E+04  2.177158E+02 -1.687201E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   2.244498E+05
  P =   2.194794E+04  7.093846E+04 -2.118106E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.339690E+05
  P =  -3.866894E+04 -7.103826E+04  2.195445E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.909057E+04
  P =   1.211131E+04  6.048999E+03  1.346015E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.249063E+04
  P =   4.609689E+03 -5.949202E+03 -2.119402E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   1.604817E+05
  P =  -1.426073E+04  1.471366E+05 -6.246454E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   1.668286E+05
  P =  -4.465708E+04 -4.698866E+04  1.537192E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   4.984915E+04
  P =   3.741064E+04  5.550170E+03 -3.247426E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.228405E+05
  P =   2.150718E+04 -1.056981E+05 -5.878044E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.444813E+05
  P =  -3.133485E+03  4.829088E+04 -1.361360E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.873602E+05
  P =   7.577453E+04  3.340275E+04  1.680664E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.369713E+04
  P =   3.332597E+04 -4.367942E+03 -2.407721E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.344614E+05
  P =  -1.059670E+05 -7.732569E+04 -2.952267E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 3
 n_tot* => 5
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  3.55892E-11
 sqme_ref* =>  8.55502E-11
 event_index* => 7
 event_weight* =>  3.17669E-07
 event_weight_ref* =>  7.63620E-07
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-2| 2.1952075E+05; 1.2395198E+04, 7.0881450E+04,-2.0739223E+05| 0.0000000E+00| 3)
  4 prt(o:2| 2.4028763E+05;-4.8873335E+04,-7.1099166E+04, 2.2426424E+05| 0.0000000E+00| 4)
  5 prt(o:21| 4.0191625E+04; 3.6478137E+04, 2.1771584E+02,-1.6872013E+04| 0.0000000E+00| 5)
 ========================================================================
 ========================================================================
  Event #7
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  8.55502E-11
    Squared matrix el. (prc) =  4.70452E-11
    Event weight (ref)       =  7.63620E-07
    Event weight (prc)       =  4.19925E-07
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            2042523454.0,         1790911384.0,         3715479539.0,
            3582083863.0,         2240445629.0,         3470253870.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   2.195207E+05
  P =   1.239520E+04  7.088145E+04 -2.073922E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.402876E+05
  P =  -4.887334E+04 -7.109917E+04  2.242642E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   4.019162E+04
  P =   3.647814E+04  2.177158E+02 -1.687201E+04
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            3203562530.0,          370100846.0,         1647107524.0,
            1466280485.0,         4189984473.0,          360074395.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.444813E+05
  P =  -3.133485E+03  4.829088E+04 -1.361360E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.873602E+05
  P =   7.577453E+04  3.340275E+04  1.680664E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.369713E+04
  P =   3.332597E+04 -4.367942E+03 -2.407721E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.344614E+05
  P =  -1.059670E+05 -7.732569E+04 -2.952267E+04
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  1.501741013E-12
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.195207E+05
  P =   1.239520E+04  7.088145E+04 -2.073922E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.402876E+05
  P =  -4.887334E+04 -7.109917E+04  2.242642E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   4.019162E+04
  P =   3.647814E+04  2.177158E+02 -1.687201E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   2.244498E+05
  P =   2.194794E+04  7.093846E+04 -2.118106E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.339690E+05
  P =  -3.866894E+04 -7.103826E+04  2.195445E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.909057E+04
  P =   1.211131E+04  6.048999E+03  1.346015E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.249063E+04
  P =   4.609689E+03 -5.949202E+03 -2.119402E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   1.604817E+05
  P =  -1.426073E+04  1.471366E+05 -6.246454E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   1.668286E+05
  P =  -4.465708E+04 -4.698866E+04  1.537192E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   4.984915E+04
  P =   3.741064E+04  5.550170E+03 -3.247426E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.228405E+05
  P =   2.150718E+04 -1.056981E+05 -5.878044E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.444813E+05
  P =  -3.133485E+03  4.829088E+04 -1.361360E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.873602E+05
  P =   7.577453E+04  3.340275E+04  1.680664E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.369713E+04
  P =   3.332597E+04 -4.367942E+03 -2.407721E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.344614E+05
  P =  -1.059670E+05 -7.732569E+04 -2.952267E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  4.70452E-11
 sqme_ref* =>  8.55502E-11
 event_index* => 7
 event_weight* =>  4.19925E-07
 event_weight_ref* =>  7.63620E-07
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-3| 2.2444979E+05; 2.1947938E+04, 7.0938465E+04,-2.1181060E+05| 0.0000000E+00| 3)
  4 prt(o:3| 2.3396900E+05;-3.8668942E+04,-7.1038262E+04, 2.1954447E+05| 0.0000000E+00| 4)
  5 prt(o:21| 1.9090574E+04; 1.2111315E+04, 6.0489990E+03, 1.3460152E+04| 0.0000000E+00| 5)
  6 prt(o:21| 2.2490633E+04; 4.6096893E+03,-5.9492015E+03,-2.1194017E+04| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #7
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  8.55502E-11
    Squared matrix el. (prc) =  1.41404E-12
    Event weight (ref)       =  7.63620E-07
    Event weight (prc)       =  1.26217E-08
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            2042523454.0,         1790911384.0,         3715479539.0,
            3582083863.0,         2240445629.0,         3470253870.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   2.195207E+05
  P =   1.239520E+04  7.088145E+04 -2.073922E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.402876E+05
  P =  -4.887334E+04 -7.109917E+04  2.242642E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   4.019162E+04
  P =   3.647814E+04  2.177158E+02 -1.687201E+04
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            3203562530.0,          370100846.0,         1647107524.0,
            1466280485.0,         4189984473.0,          360074395.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.444813E+05
  P =  -3.133485E+03  4.829088E+04 -1.361360E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.873602E+05
  P =   7.577453E+04  3.340275E+04  1.680664E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.369713E+04
  P =   3.332597E+04 -4.367942E+03 -2.407721E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.344614E+05
  P =  -1.059670E+05 -7.732569E+04 -2.952267E+04
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  1.501741013E-12
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.195207E+05
  P =   1.239520E+04  7.088145E+04 -2.073922E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.402876E+05
  P =  -4.887334E+04 -7.109917E+04  2.242642E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   4.019162E+04
  P =   3.647814E+04  2.177158E+02 -1.687201E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   2.244498E+05
  P =   2.194794E+04  7.093846E+04 -2.118106E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.339690E+05
  P =  -3.866894E+04 -7.103826E+04  2.195445E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.909057E+04
  P =   1.211131E+04  6.048999E+03  1.346015E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.249063E+04
  P =   4.609689E+03 -5.949202E+03 -2.119402E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   1.604817E+05
  P =  -1.426073E+04  1.471366E+05 -6.246454E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   1.668286E+05
  P =  -4.465708E+04 -4.698866E+04  1.537192E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   4.984915E+04
  P =   3.741064E+04  5.550170E+03 -3.247426E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.228405E+05
  P =   2.150718E+04 -1.056981E+05 -5.878044E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.444813E+05
  P =  -3.133485E+03  4.829088E+04 -1.361360E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.873602E+05
  P =   7.577453E+04  3.340275E+04  1.680664E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.369713E+04
  P =   3.332597E+04 -4.367942E+03 -2.407721E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.344614E+05
  P =  -1.059670E+05 -7.732569E+04 -2.952267E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  1.41404E-12
 sqme_ref* =>  8.55502E-11
 event_index* => 7
 event_weight* =>  1.26217E-08
 event_weight_ref* =>  7.63620E-07
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-1| 1.6048170E+05;-1.4260734E+04, 1.4713663E+05,-6.2464539E+04| 0.0000000E+00| 3)
  4 prt(o:1| 1.6682863E+05;-4.4657076E+04,-4.6988656E+04, 1.5371923E+05| 0.0000000E+00| 4)
  5 prt(o:21| 4.9849146E+04; 3.7410636E+04, 5.5501704E+03,-3.2474256E+04| 0.0000000E+00| 5)
  6 prt(o:21| 1.2284053E+05; 2.1507175E+04,-1.0569814E+05,-5.8780439E+04| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #7
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  8.55502E-11
    Squared matrix el. (prc) =  1.50174E-12
    Event weight (ref)       =  7.63620E-07
    Event weight (prc)       =  1.34045E-08
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            2042523454.0,         1790911384.0,         3715479539.0,
            3582083863.0,         2240445629.0,         3470253870.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   2.195207E+05
  P =   1.239520E+04  7.088145E+04 -2.073922E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.402876E+05
  P =  -4.887334E+04 -7.109917E+04  2.242642E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   4.019162E+04
  P =   3.647814E+04  2.177158E+02 -1.687201E+04
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            3203562530.0,          370100846.0,         1647107524.0,
            1466280485.0,         4189984473.0,          360074395.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.444813E+05
  P =  -3.133485E+03  4.829088E+04 -1.361360E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.873602E+05
  P =   7.577453E+04  3.340275E+04  1.680664E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.369713E+04
  P =   3.332597E+04 -4.367942E+03 -2.407721E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.344614E+05
  P =  -1.059670E+05 -7.732569E+04 -2.952267E+04
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  1.501741013E-12
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.195207E+05
  P =   1.239520E+04  7.088145E+04 -2.073922E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.402876E+05
  P =  -4.887334E+04 -7.109917E+04  2.242642E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   4.019162E+04
  P =   3.647814E+04  2.177158E+02 -1.687201E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   2.244498E+05
  P =   2.194794E+04  7.093846E+04 -2.118106E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.339690E+05
  P =  -3.866894E+04 -7.103826E+04  2.195445E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.909057E+04
  P =   1.211131E+04  6.048999E+03  1.346015E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.249063E+04
  P =   4.609689E+03 -5.949202E+03 -2.119402E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   1.604817E+05
  P =  -1.426073E+04  1.471366E+05 -6.246454E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   1.668286E+05
  P =  -4.465708E+04 -4.698866E+04  1.537192E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   4.984915E+04
  P =   3.741064E+04  5.550170E+03 -3.247426E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.228405E+05
  P =   2.150718E+04 -1.056981E+05 -5.878044E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.444813E+05
  P =  -3.133485E+03  4.829088E+04 -1.361360E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.873602E+05
  P =   7.577453E+04  3.340275E+04  1.680664E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.369713E+04
  P =   3.332597E+04 -4.367942E+03 -2.407721E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.344614E+05
  P =  -1.059670E+05 -7.732569E+04 -2.952267E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  1.50174E-12
 sqme_ref* =>  8.55502E-11
 event_index* => 7
 event_weight* =>  1.34045E-08
 event_weight_ref* =>  7.63620E-07
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-2| 1.4448130E+05;-3.1334845E+03, 4.8290883E+04,-1.3613603E+05| 0.0000000E+00| 3)
  4 prt(o:2| 1.8736020E+05; 7.5774529E+04, 3.3402753E+04, 1.6806642E+05| 0.0000000E+00| 4)
  5 prt(o:21| 3.3697127E+04; 3.3325971E+04,-4.3679420E+03,-2.4077209E+03| 0.0000000E+00| 5)
  6 prt(o:21| 1.3446137E+05;-1.0596702E+05,-7.7325694E+04,-2.9522673E+04| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #8
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  1.79521E-07
    Squared matrix el. (prc) =  1.56951E-07
    Event weight (ref)       =  1.57912E-05
    Event weight (prc)       =  1.38059E-05
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            3361222980.0,            3601284.0,         3842382860.0,
            2580515999.0,         3568184670.0,          735623006.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499388E+05
  P =   2.534152E+04  5.389493E+04 -2.427396E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.479782E+05
  P =  -2.446529E+04 -5.332393E+04  2.409381E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.083083E+03
  P =  -8.762344E+02 -5.709917E+02  1.801504E+03
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            2280904955.0,         1539004561.0,          852756080.0,
            3258303332.0,         2415368508.0,         1295976056.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   1.868213E+05
  P =   1.911438E+04  4.032240E+04 -1.814137E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   8.644485E+04
  P =   4.529875E+04  7.353456E+04 -3.660889E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.750402E+03
  P =  -9.451482E+02 -7.211946E+02  2.480178E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.239835E+05
  P =  -6.346798E+04 -1.131358E+05  1.825944E+05
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  4.950788956E-12
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499388E+05
  P =   2.534152E+04  5.389493E+04 -2.427396E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.479782E+05
  P =  -2.446529E+04 -5.332393E+04  2.409381E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.083083E+03
  P =  -8.762344E+02 -5.709917E+02  1.801504E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.497882E+05
  P =   2.527429E+04  5.385111E+04 -2.426014E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.481274E+05
  P =  -2.453203E+04 -5.336743E+04  2.410753E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.027923E+02
  P =   1.805533E+02  9.186207E+01 -9.305257E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.881521E+03
  P =  -9.228066E+02 -5.755459E+02  1.535349E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   8.895885E+04
  P =   2.293109E+04  7.424887E+04  4.330067E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.837066E+05
  P =  -1.794870E+04 -3.946482E+04  1.785175E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.580182E+03
  P =  -8.209348E+02 -4.533836E+02  1.271804E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.257544E+05
  P =  -4.161456E+03 -3.433066E+04 -2.230899E+05
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   1.868213E+05
  P =   1.911438E+04  4.032240E+04 -1.814137E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   8.644485E+04
  P =   4.529875E+04  7.353456E+04 -3.660889E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.750402E+03
  P =  -9.451482E+02 -7.211946E+02  2.480178E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.239835E+05
  P =  -6.346798E+04 -1.131358E+05  1.825944E+05
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 3
 n_tot* => 5
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  1.56951E-07
 sqme_ref* =>  1.79521E-07
 event_index* => 8
 event_weight* =>  1.38059E-05
 event_weight_ref* =>  1.57912E-05
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-2| 2.4993875E+05; 2.5341519E+04, 5.3894925E+04,-2.4273962E+05| 0.0000000E+00| 3)
  4 prt(o:2| 2.4797816E+05;-2.4465285E+04,-5.3323933E+04, 2.4093812E+05| 0.0000000E+00| 4)
  5 prt(o:21| 2.0830827E+03;-8.7623438E+02,-5.7099168E+02, 1.8015037E+03| 0.0000000E+00| 5)
 ========================================================================
 ========================================================================
  Event #8
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  1.79521E-07
    Squared matrix el. (prc) =  2.25624E-08
    Event weight (ref)       =  1.57912E-05
    Event weight (prc)       =  1.98466E-06
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            3361222980.0,            3601284.0,         3842382860.0,
            2580515999.0,         3568184670.0,          735623006.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499388E+05
  P =   2.534152E+04  5.389493E+04 -2.427396E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.479782E+05
  P =  -2.446529E+04 -5.332393E+04  2.409381E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.083083E+03
  P =  -8.762344E+02 -5.709917E+02  1.801504E+03
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            2280904955.0,         1539004561.0,          852756080.0,
            3258303332.0,         2415368508.0,         1295976056.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   1.868213E+05
  P =   1.911438E+04  4.032240E+04 -1.814137E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   8.644485E+04
  P =   4.529875E+04  7.353456E+04 -3.660889E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.750402E+03
  P =  -9.451482E+02 -7.211946E+02  2.480178E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.239835E+05
  P =  -6.346798E+04 -1.131358E+05  1.825944E+05
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  4.950788956E-12
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499388E+05
  P =   2.534152E+04  5.389493E+04 -2.427396E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.479782E+05
  P =  -2.446529E+04 -5.332393E+04  2.409381E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.083083E+03
  P =  -8.762344E+02 -5.709917E+02  1.801504E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.497882E+05
  P =   2.527429E+04  5.385111E+04 -2.426014E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.481274E+05
  P =  -2.453203E+04 -5.336743E+04  2.410753E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.027923E+02
  P =   1.805533E+02  9.186207E+01 -9.305257E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.881521E+03
  P =  -9.228066E+02 -5.755459E+02  1.535349E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   8.895885E+04
  P =   2.293109E+04  7.424887E+04  4.330067E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.837066E+05
  P =  -1.794870E+04 -3.946482E+04  1.785175E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.580182E+03
  P =  -8.209348E+02 -4.533836E+02  1.271804E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.257544E+05
  P =  -4.161456E+03 -3.433066E+04 -2.230899E+05
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   1.868213E+05
  P =   1.911438E+04  4.032240E+04 -1.814137E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   8.644485E+04
  P =   4.529875E+04  7.353456E+04 -3.660889E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.750402E+03
  P =  -9.451482E+02 -7.211946E+02  2.480178E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.239835E+05
  P =  -6.346798E+04 -1.131358E+05  1.825944E+05
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  2.25624E-08
 sqme_ref* =>  1.79521E-07
 event_index* => 8
 event_weight* =>  1.98466E-06
 event_weight_ref* =>  1.57912E-05
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-2| 2.4978825E+05; 2.5274285E+04, 5.3851112E+04,-2.4260139E+05| 0.0000000E+00| 3)
  4 prt(o:2| 2.4812744E+05;-2.4532032E+04,-5.3367429E+04, 2.4107535E+05| 0.0000000E+00| 4)
  5 prt(o:21| 2.0279233E+02; 1.8055332E+02, 9.1862071E+01,-9.3052566E+00| 0.0000000E+00| 5)
  6 prt(o:21| 1.8815211E+03;-9.2280657E+02,-5.7554594E+02, 1.5353490E+03| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #8
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  1.79521E-07
    Squared matrix el. (prc) =  2.44130E-12
    Event weight (ref)       =  1.57912E-05
    Event weight (prc)       =  2.14745E-10
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            3361222980.0,            3601284.0,         3842382860.0,
            2580515999.0,         3568184670.0,          735623006.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499388E+05
  P =   2.534152E+04  5.389493E+04 -2.427396E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.479782E+05
  P =  -2.446529E+04 -5.332393E+04  2.409381E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.083083E+03
  P =  -8.762344E+02 -5.709917E+02  1.801504E+03
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            2280904955.0,         1539004561.0,          852756080.0,
            3258303332.0,         2415368508.0,         1295976056.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   1.868213E+05
  P =   1.911438E+04  4.032240E+04 -1.814137E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   8.644485E+04
  P =   4.529875E+04  7.353456E+04 -3.660889E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.750402E+03
  P =  -9.451482E+02 -7.211946E+02  2.480178E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.239835E+05
  P =  -6.346798E+04 -1.131358E+05  1.825944E+05
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  4.950788956E-12
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499388E+05
  P =   2.534152E+04  5.389493E+04 -2.427396E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.479782E+05
  P =  -2.446529E+04 -5.332393E+04  2.409381E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.083083E+03
  P =  -8.762344E+02 -5.709917E+02  1.801504E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.497882E+05
  P =   2.527429E+04  5.385111E+04 -2.426014E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.481274E+05
  P =  -2.453203E+04 -5.336743E+04  2.410753E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.027923E+02
  P =   1.805533E+02  9.186207E+01 -9.305257E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.881521E+03
  P =  -9.228066E+02 -5.755459E+02  1.535349E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   8.895885E+04
  P =   2.293109E+04  7.424887E+04  4.330067E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.837066E+05
  P =  -1.794870E+04 -3.946482E+04  1.785175E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.580182E+03
  P =  -8.209348E+02 -4.533836E+02  1.271804E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.257544E+05
  P =  -4.161456E+03 -3.433066E+04 -2.230899E+05
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   1.868213E+05
  P =   1.911438E+04  4.032240E+04 -1.814137E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   8.644485E+04
  P =   4.529875E+04  7.353456E+04 -3.660889E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.750402E+03
  P =  -9.451482E+02 -7.211946E+02  2.480178E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.239835E+05
  P =  -6.346798E+04 -1.131358E+05  1.825944E+05
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  2.44130E-12
 sqme_ref* =>  1.79521E-07
 event_index* => 8
 event_weight* =>  2.14745E-10
 event_weight_ref* =>  1.57912E-05
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-2| 8.8958852E+04; 2.2931087E+04, 7.4248867E+04, 4.3300675E+04| 0.0000000E+00| 3)
  4 prt(o:2| 1.8370660E+05;-1.7948697E+04,-3.9464818E+04, 1.7851747E+05| 0.0000000E+00| 4)
  5 prt(o:21| 1.5801821E+03;-8.2093479E+02,-4.5338362E+02, 1.2718038E+03| 0.0000000E+00| 5)
  6 prt(o:21| 2.2575437E+05;-4.1614559E+03,-3.4330665E+04,-2.2308994E+05| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #8
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  1.79521E-07
    Squared matrix el. (prc) =  4.95079E-12
    Event weight (ref)       =  1.57912E-05
    Event weight (prc)       =  4.35487E-10
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            3361222980.0,            3601284.0,         3842382860.0,
            2580515999.0,         3568184670.0,          735623006.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499388E+05
  P =   2.534152E+04  5.389493E+04 -2.427396E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.479782E+05
  P =  -2.446529E+04 -5.332393E+04  2.409381E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.083083E+03
  P =  -8.762344E+02 -5.709917E+02  1.801504E+03
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            2280904955.0,         1539004561.0,          852756080.0,
            3258303332.0,         2415368508.0,         1295976056.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   1.868213E+05
  P =   1.911438E+04  4.032240E+04 -1.814137E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   8.644485E+04
  P =   4.529875E+04  7.353456E+04 -3.660889E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.750402E+03
  P =  -9.451482E+02 -7.211946E+02  2.480178E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.239835E+05
  P =  -6.346798E+04 -1.131358E+05  1.825944E+05
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  4.950788956E-12
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499388E+05
  P =   2.534152E+04  5.389493E+04 -2.427396E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.479782E+05
  P =  -2.446529E+04 -5.332393E+04  2.409381E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.083083E+03
  P =  -8.762344E+02 -5.709917E+02  1.801504E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.497882E+05
  P =   2.527429E+04  5.385111E+04 -2.426014E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.481274E+05
  P =  -2.453203E+04 -5.336743E+04  2.410753E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.027923E+02
  P =   1.805533E+02  9.186207E+01 -9.305257E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.881521E+03
  P =  -9.228066E+02 -5.755459E+02  1.535349E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   8.895885E+04
  P =   2.293109E+04  7.424887E+04  4.330067E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.837066E+05
  P =  -1.794870E+04 -3.946482E+04  1.785175E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.580182E+03
  P =  -8.209348E+02 -4.533836E+02  1.271804E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.257544E+05
  P =  -4.161456E+03 -3.433066E+04 -2.230899E+05
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   1.868213E+05
  P =   1.911438E+04  4.032240E+04 -1.814137E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   8.644485E+04
  P =   4.529875E+04  7.353456E+04 -3.660889E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.750402E+03
  P =  -9.451482E+02 -7.211946E+02  2.480178E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.239835E+05
  P =  -6.346798E+04 -1.131358E+05  1.825944E+05
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  4.95079E-12
 sqme_ref* =>  1.79521E-07
 event_index* => 8
 event_weight* =>  4.35487E-10
 event_weight_ref* =>  1.57912E-05
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-1| 1.8682126E+05; 1.9114376E+04, 4.0322396E+04,-1.8141370E+05| 0.0000000E+00| 3)
  4 prt(o:1| 8.6444845E+04; 4.5298753E+04, 7.3534564E+04,-3.6608886E+03| 0.0000000E+00| 4)
  5 prt(o:21| 2.7504020E+03;-9.4514820E+02,-7.2119456E+02, 2.4801783E+03| 0.0000000E+00| 5)
  6 prt(o:21| 2.2398349E+05;-6.3467980E+04,-1.1313577E+05, 1.8259441E+05| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #9
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  1.02232E-08
    Squared matrix el. (prc) =  2.86600E-07
    Event weight (ref)       =  1.47236E-06
    Event weight (prc)       =  0.00000E+00
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            1484659988.0,         1927671876.0,         4126230753.0,
            2962609785.0,         2346280463.0,         1525515485.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   2.499775E+05
  P =   3.259522E+03 -8.667161E+04 -2.344486E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.371317E+05
  P =  -3.747124E+03  8.144607E+04  2.226745E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.289085E+04
  P =   4.876011E+02  5.225548E+03  1.177412E+04
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            1981754768.0,         1371881432.0,         1113999651.0,
             130493356.0,         4030926615.0,         1806134700.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.264346E+05
  P =   2.887497E+03 -7.858541E+04 -2.123408E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.236217E+05
  P =   3.030966E+04  8.319833E+04  2.053436E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.422645E+04
  P =   4.664255E+02  5.685814E+03  1.303249E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   3.571730E+04
  P =  -3.366358E+04 -1.029874E+04 -6.035308E+03
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  1.494551151E-10
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499775E+05
  P =   3.259522E+03 -8.667161E+04 -2.344486E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.371317E+05
  P =  -3.747124E+03  8.144607E+04  2.226745E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.289085E+04
  P =   4.876011E+02  5.225548E+03  1.177412E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.487096E+05
  P =   3.307642E+03 -8.615592E+04 -2.332866E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.383402E+05
  P =  -3.701244E+03  8.193776E+04  2.237823E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.100863E+04
  P =   2.292032E+03  4.527698E+03  9.769163E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.941649E+03
  P =  -1.898431E+03 -3.095330E+02 -2.648597E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.371521E+05
  P =  -3.308688E+04 -7.653731E+04 -2.220099E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.135807E+05
  P =  -3.440033E+03  7.328045E+04  2.005863E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.161505E+04
  P =   5.042981E+02  4.781571E+03  1.057316E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   3.765217E+04
  P =   3.602261E+04 -1.524710E+03  1.085045E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.264346E+05
  P =   2.887497E+03 -7.858541E+04 -2.123408E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.236217E+05
  P =   3.030966E+04  8.319833E+04  2.053436E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.422645E+04
  P =   4.664255E+02  5.685814E+03  1.303249E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   3.571730E+04
  P =  -3.366358E+04 -1.029874E+04 -6.035308E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 3
 n_tot* => 5
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  2.86600E-07
 sqme_ref* =>  1.02232E-08
 event_index* => 9
 event_weight* =>  0.00000E+00
 event_weight_ref* =>  1.47236E-06
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-2| 2.4997748E+05; 3.2595224E+03,-8.6671615E+04,-2.3444860E+05| 0.0000000E+00| 3)
  4 prt(o:2| 2.3713167E+05;-3.7471236E+03, 8.1446067E+04, 2.2267448E+05| 0.0000000E+00| 4)
  5 prt(o:21| 1.2890852E+04; 4.8760113E+02, 5.2255478E+03, 1.1774122E+04| 0.0000000E+00| 5)
 ========================================================================
 ========================================================================
  Event #9
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  1.02232E-08
    Squared matrix el. (prc) =  9.93340E-09
    Event weight (ref)       =  1.47236E-06
    Event weight (prc)       =  1.43062E-06
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            1484659988.0,         1927671876.0,         4126230753.0,
            2962609785.0,         2346280463.0,         1525515485.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   2.499775E+05
  P =   3.259522E+03 -8.667161E+04 -2.344486E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.371317E+05
  P =  -3.747124E+03  8.144607E+04  2.226745E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.289085E+04
  P =   4.876011E+02  5.225548E+03  1.177412E+04
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            1981754768.0,         1371881432.0,         1113999651.0,
             130493356.0,         4030926615.0,         1806134700.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.264346E+05
  P =   2.887497E+03 -7.858541E+04 -2.123408E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.236217E+05
  P =   3.030966E+04  8.319833E+04  2.053436E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.422645E+04
  P =   4.664255E+02  5.685814E+03  1.303249E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   3.571730E+04
  P =  -3.366358E+04 -1.029874E+04 -6.035308E+03
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  1.494551151E-10
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499775E+05
  P =   3.259522E+03 -8.667161E+04 -2.344486E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.371317E+05
  P =  -3.747124E+03  8.144607E+04  2.226745E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.289085E+04
  P =   4.876011E+02  5.225548E+03  1.177412E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.487096E+05
  P =   3.307642E+03 -8.615592E+04 -2.332866E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.383402E+05
  P =  -3.701244E+03  8.193776E+04  2.237823E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.100863E+04
  P =   2.292032E+03  4.527698E+03  9.769163E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.941649E+03
  P =  -1.898431E+03 -3.095330E+02 -2.648597E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.371521E+05
  P =  -3.308688E+04 -7.653731E+04 -2.220099E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.135807E+05
  P =  -3.440033E+03  7.328045E+04  2.005863E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.161505E+04
  P =   5.042981E+02  4.781571E+03  1.057316E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   3.765217E+04
  P =   3.602261E+04 -1.524710E+03  1.085045E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.264346E+05
  P =   2.887497E+03 -7.858541E+04 -2.123408E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.236217E+05
  P =   3.030966E+04  8.319833E+04  2.053436E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.422645E+04
  P =   4.664255E+02  5.685814E+03  1.303249E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   3.571730E+04
  P =  -3.366358E+04 -1.029874E+04 -6.035308E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  9.93340E-09
 sqme_ref* =>  1.02232E-08
 event_index* => 9
 event_weight* =>  1.43062E-06
 event_weight_ref* =>  1.47236E-06
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-1| 2.4870956E+05; 3.3076425E+03,-8.6155920E+04,-2.3328665E+05| 0.0000000E+00| 3)
  4 prt(o:1| 2.3834016E+05;-3.7012437E+03, 8.1937755E+04, 2.2378234E+05| 0.0000000E+00| 4)
  5 prt(o:21| 1.1008633E+04; 2.2920320E+03, 4.5276979E+03, 9.7691629E+03| 0.0000000E+00| 5)
  6 prt(o:21| 1.9416490E+03;-1.8984308E+03,-3.0953299E+02,-2.6485975E+02| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #9
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  1.02232E-08
    Squared matrix el. (prc) =  1.40316E-10
    Event weight (ref)       =  1.47236E-06
    Event weight (prc)       =  2.02086E-08
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            1484659988.0,         1927671876.0,         4126230753.0,
            2962609785.0,         2346280463.0,         1525515485.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   2.499775E+05
  P =   3.259522E+03 -8.667161E+04 -2.344486E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.371317E+05
  P =  -3.747124E+03  8.144607E+04  2.226745E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.289085E+04
  P =   4.876011E+02  5.225548E+03  1.177412E+04
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            1981754768.0,         1371881432.0,         1113999651.0,
             130493356.0,         4030926615.0,         1806134700.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.264346E+05
  P =   2.887497E+03 -7.858541E+04 -2.123408E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.236217E+05
  P =   3.030966E+04  8.319833E+04  2.053436E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.422645E+04
  P =   4.664255E+02  5.685814E+03  1.303249E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   3.571730E+04
  P =  -3.366358E+04 -1.029874E+04 -6.035308E+03
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  1.494551151E-10
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499775E+05
  P =   3.259522E+03 -8.667161E+04 -2.344486E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.371317E+05
  P =  -3.747124E+03  8.144607E+04  2.226745E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.289085E+04
  P =   4.876011E+02  5.225548E+03  1.177412E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.487096E+05
  P =   3.307642E+03 -8.615592E+04 -2.332866E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.383402E+05
  P =  -3.701244E+03  8.193776E+04  2.237823E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.100863E+04
  P =   2.292032E+03  4.527698E+03  9.769163E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.941649E+03
  P =  -1.898431E+03 -3.095330E+02 -2.648597E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.371521E+05
  P =  -3.308688E+04 -7.653731E+04 -2.220099E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.135807E+05
  P =  -3.440033E+03  7.328045E+04  2.005863E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.161505E+04
  P =   5.042981E+02  4.781571E+03  1.057316E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   3.765217E+04
  P =   3.602261E+04 -1.524710E+03  1.085045E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.264346E+05
  P =   2.887497E+03 -7.858541E+04 -2.123408E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.236217E+05
  P =   3.030966E+04  8.319833E+04  2.053436E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.422645E+04
  P =   4.664255E+02  5.685814E+03  1.303249E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   3.571730E+04
  P =  -3.366358E+04 -1.029874E+04 -6.035308E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  1.40316E-10
 sqme_ref* =>  1.02232E-08
 event_index* => 9
 event_weight* =>  2.02086E-08
 event_weight_ref* =>  1.47236E-06
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-2| 2.3715207E+05;-3.3086878E+04,-7.6537309E+04,-2.2200991E+05| 0.0000000E+00| 3)
  4 prt(o:2| 2.1358072E+05;-3.4400332E+03, 7.3280448E+04, 2.0058630E+05| 0.0000000E+00| 4)
  5 prt(o:21| 1.1615049E+04; 5.0429809E+02, 4.7815710E+03, 1.0573155E+04| 0.0000000E+00| 5)
  6 prt(o:21| 3.7652168E+04; 3.6022614E+04,-1.5247103E+03, 1.0850452E+04| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #9
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  1.02232E-08
    Squared matrix el. (prc) =  1.49455E-10
    Event weight (ref)       =  1.47236E-06
    Event weight (prc)       =  2.15248E-08
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            1484659988.0,         1927671876.0,         4126230753.0,
            2962609785.0,         2346280463.0,         1525515485.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   2.499775E+05
  P =   3.259522E+03 -8.667161E+04 -2.344486E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.371317E+05
  P =  -3.747124E+03  8.144607E+04  2.226745E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.289085E+04
  P =   4.876011E+02  5.225548E+03  1.177412E+04
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            1981754768.0,         1371881432.0,         1113999651.0,
             130493356.0,         4030926615.0,         1806134700.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.264346E+05
  P =   2.887497E+03 -7.858541E+04 -2.123408E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.236217E+05
  P =   3.030966E+04  8.319833E+04  2.053436E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.422645E+04
  P =   4.664255E+02  5.685814E+03  1.303249E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   3.571730E+04
  P =  -3.366358E+04 -1.029874E+04 -6.035308E+03
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  1.494551151E-10
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.499775E+05
  P =   3.259522E+03 -8.667161E+04 -2.344486E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.371317E+05
  P =  -3.747124E+03  8.144607E+04  2.226745E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.289085E+04
  P =   4.876011E+02  5.225548E+03  1.177412E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.487096E+05
  P =   3.307642E+03 -8.615592E+04 -2.332866E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.383402E+05
  P =  -3.701244E+03  8.193776E+04  2.237823E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.100863E+04
  P =   2.292032E+03  4.527698E+03  9.769163E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.941649E+03
  P =  -1.898431E+03 -3.095330E+02 -2.648597E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.371521E+05
  P =  -3.308688E+04 -7.653731E+04 -2.220099E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.135807E+05
  P =  -3.440033E+03  7.328045E+04  2.005863E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.161505E+04
  P =   5.042981E+02  4.781571E+03  1.057316E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   3.765217E+04
  P =   3.602261E+04 -1.524710E+03  1.085045E+04
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.264346E+05
  P =   2.887497E+03 -7.858541E+04 -2.123408E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.236217E+05
  P =   3.030966E+04  8.319833E+04  2.053436E+05
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.422645E+04
  P =   4.664255E+02  5.685814E+03  1.303249E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   3.571730E+04
  P =  -3.366358E+04 -1.029874E+04 -6.035308E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  1.49455E-10
 sqme_ref* =>  1.02232E-08
 event_index* => 9
 event_weight* =>  2.15248E-08
 event_weight_ref* =>  1.47236E-06
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-2| 2.2643459E+05; 2.8874968E+03,-7.8585406E+04,-2.1234081E+05| 0.0000000E+00| 3)
  4 prt(o:2| 2.2362165E+05; 3.0309660E+04, 8.3198329E+04, 2.0534363E+05| 0.0000000E+00| 4)
  5 prt(o:21| 1.4226452E+04; 4.6642548E+02, 5.6858136E+03, 1.3032494E+04| 0.0000000E+00| 5)
  6 prt(o:21| 3.5717302E+04;-3.3663582E+04,-1.0298737E+04,-6.0353076E+03| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #10
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  4.92773E-09
    Squared matrix el. (prc) =  7.74653E-07
    Event weight (ref)       =  1.03136E-04
    Event weight (prc)       =  0.00000E+00
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            2574779949.0,            1613258.0,          957203242.0,
            1832886249.0,         3404761797.0,         1098311093.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.498989E+05
  P =   1.189026E+05  2.145968E+05  4.753746E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.291126E+05
  P =  -1.114467E+05 -1.954008E+05 -4.348273E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.098857E+04
  P =  -7.455888E+03 -1.919606E+04 -4.054732E+03
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
             379220129.0,          955940867.0,          625050135.0,
            1046562733.0,         2664737320.0,          326107529.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.434708E+05
  P =   1.157756E+05  2.091142E+05  4.631741E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.217268E+05
  P =  -9.967986E+04 -1.951839E+05 -3.361475E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.153699E+04
  P =  -7.725418E+03 -1.966863E+04 -4.159893E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.326535E+04
  P =  -8.370322E+03  5.738335E+03 -8.542763E+03
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  5.292983914E-10
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.498989E+05
  P =   1.189026E+05  2.145968E+05  4.753746E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.291126E+05
  P =  -1.114467E+05 -1.954008E+05 -4.348273E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.098857E+04
  P =  -7.455888E+03 -1.919606E+04 -4.054732E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.493156E+05
  P =   1.186936E+05  2.140586E+05  4.742378E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.296477E+05
  P =  -1.116388E+05 -1.958953E+05 -4.358720E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.982150E+04
  P =  -6.219297E+03 -1.857109E+04 -3.053985E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.215214E+03
  P =  -8.354473E+02  4.078253E+02 -7.825921E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.424422E+05
  P =   1.046411E+05  2.116191E+05  5.518882E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.226841E+05
  P =  -1.083878E+05 -1.898800E+05 -4.225976E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.040490E+04
  P =  -7.175630E+03 -1.869025E+04 -3.942684E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.446885E+04
  P =   1.092232E+04 -3.048900E+03 -8.986373E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.434708E+05
  P =   1.157756E+05  2.091142E+05  4.631741E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.217268E+05
  P =  -9.967986E+04 -1.951839E+05 -3.361475E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.153699E+04
  P =  -7.725418E+03 -1.966863E+04 -4.159893E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.326535E+04
  P =  -8.370322E+03  5.738335E+03 -8.542763E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 3
 n_tot* => 5
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  7.74653E-07
 sqme_ref* =>  4.92773E-09
 event_index* => 10
 event_weight* =>  0.00000E+00
 event_weight_ref* =>  1.03136E-04
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-2| 2.4989885E+05; 1.1890261E+05, 2.1459682E+05, 4.7537459E+04| 0.0000000E+00| 3)
  4 prt(o:2| 2.2911258E+05;-1.1144672E+05,-1.9540076E+05,-4.3482727E+04| 0.0000000E+00| 4)
  5 prt(o:21| 2.0988566E+04;-7.4558885E+03,-1.9196062E+04,-4.0547316E+03| 0.0000000E+00| 5)
 ========================================================================
 ========================================================================
  Event #10
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  4.92773E-09
    Squared matrix el. (prc) =  3.94878E-09
    Event weight (ref)       =  1.03136E-04
    Event weight (prc)       =  8.26470E-05
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            2574779949.0,            1613258.0,          957203242.0,
            1832886249.0,         3404761797.0,         1098311093.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.498989E+05
  P =   1.189026E+05  2.145968E+05  4.753746E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.291126E+05
  P =  -1.114467E+05 -1.954008E+05 -4.348273E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.098857E+04
  P =  -7.455888E+03 -1.919606E+04 -4.054732E+03
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
             379220129.0,          955940867.0,          625050135.0,
            1046562733.0,         2664737320.0,          326107529.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.434708E+05
  P =   1.157756E+05  2.091142E+05  4.631741E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.217268E+05
  P =  -9.967986E+04 -1.951839E+05 -3.361475E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.153699E+04
  P =  -7.725418E+03 -1.966863E+04 -4.159893E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.326535E+04
  P =  -8.370322E+03  5.738335E+03 -8.542763E+03
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  5.292983914E-10
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.498989E+05
  P =   1.189026E+05  2.145968E+05  4.753746E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.291126E+05
  P =  -1.114467E+05 -1.954008E+05 -4.348273E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.098857E+04
  P =  -7.455888E+03 -1.919606E+04 -4.054732E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.493156E+05
  P =   1.186936E+05  2.140586E+05  4.742378E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.296477E+05
  P =  -1.116388E+05 -1.958953E+05 -4.358720E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.982150E+04
  P =  -6.219297E+03 -1.857109E+04 -3.053985E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.215214E+03
  P =  -8.354473E+02  4.078253E+02 -7.825921E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.424422E+05
  P =   1.046411E+05  2.116191E+05  5.518882E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.226841E+05
  P =  -1.083878E+05 -1.898800E+05 -4.225976E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.040490E+04
  P =  -7.175630E+03 -1.869025E+04 -3.942684E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.446885E+04
  P =   1.092232E+04 -3.048900E+03 -8.986373E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.434708E+05
  P =   1.157756E+05  2.091142E+05  4.631741E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.217268E+05
  P =  -9.967986E+04 -1.951839E+05 -3.361475E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.153699E+04
  P =  -7.725418E+03 -1.966863E+04 -4.159893E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.326535E+04
  P =  -8.370322E+03  5.738335E+03 -8.542763E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  3.94878E-09
 sqme_ref* =>  4.92773E-09
 event_index* => 10
 event_weight* =>  8.26470E-05
 event_weight_ref* =>  1.03136E-04
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-2| 2.4931560E+05; 1.1869356E+05, 2.1405862E+05, 4.7423776E+04| 0.0000000E+00| 3)
  4 prt(o:2| 2.2964768E+05;-1.1163882E+05,-1.9589535E+05,-4.3587198E+04| 0.0000000E+00| 4)
  5 prt(o:21| 1.9821503E+04;-6.2192966E+03,-1.8571093E+04,-3.0539853E+03| 0.0000000E+00| 5)
  6 prt(o:21| 1.2152136E+03;-8.3544734E+02, 4.0782529E+02,-7.8259212E+02| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #10
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  4.92773E-09
    Squared matrix el. (prc) =  4.49647E-10
    Event weight (ref)       =  1.03136E-04
    Event weight (prc)       =  9.41100E-06
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            2574779949.0,            1613258.0,          957203242.0,
            1832886249.0,         3404761797.0,         1098311093.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.498989E+05
  P =   1.189026E+05  2.145968E+05  4.753746E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.291126E+05
  P =  -1.114467E+05 -1.954008E+05 -4.348273E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.098857E+04
  P =  -7.455888E+03 -1.919606E+04 -4.054732E+03
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
             379220129.0,          955940867.0,          625050135.0,
            1046562733.0,         2664737320.0,          326107529.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.434708E+05
  P =   1.157756E+05  2.091142E+05  4.631741E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.217268E+05
  P =  -9.967986E+04 -1.951839E+05 -3.361475E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.153699E+04
  P =  -7.725418E+03 -1.966863E+04 -4.159893E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.326535E+04
  P =  -8.370322E+03  5.738335E+03 -8.542763E+03
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  5.292983914E-10
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.498989E+05
  P =   1.189026E+05  2.145968E+05  4.753746E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.291126E+05
  P =  -1.114467E+05 -1.954008E+05 -4.348273E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.098857E+04
  P =  -7.455888E+03 -1.919606E+04 -4.054732E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.493156E+05
  P =   1.186936E+05  2.140586E+05  4.742378E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.296477E+05
  P =  -1.116388E+05 -1.958953E+05 -4.358720E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.982150E+04
  P =  -6.219297E+03 -1.857109E+04 -3.053985E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.215214E+03
  P =  -8.354473E+02  4.078253E+02 -7.825921E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.424422E+05
  P =   1.046411E+05  2.116191E+05  5.518882E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.226841E+05
  P =  -1.083878E+05 -1.898800E+05 -4.225976E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.040490E+04
  P =  -7.175630E+03 -1.869025E+04 -3.942684E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.446885E+04
  P =   1.092232E+04 -3.048900E+03 -8.986373E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.434708E+05
  P =   1.157756E+05  2.091142E+05  4.631741E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.217268E+05
  P =  -9.967986E+04 -1.951839E+05 -3.361475E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.153699E+04
  P =  -7.725418E+03 -1.966863E+04 -4.159893E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.326535E+04
  P =  -8.370322E+03  5.738335E+03 -8.542763E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  4.49647E-10
 sqme_ref* =>  4.92773E-09
 event_index* => 10
 event_weight* =>  9.41100E-06
 event_weight_ref* =>  1.03136E-04
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-2| 2.4244218E+05; 1.0464109E+05, 2.1161910E+05, 5.5188817E+04| 0.0000000E+00| 3)
  4 prt(o:2| 2.2268407E+05;-1.0838778E+05,-1.8987996E+05,-4.2259760E+04| 0.0000000E+00| 4)
  5 prt(o:21| 2.0404896E+04;-7.1756298E+03,-1.8690248E+04,-3.9426837E+03| 0.0000000E+00| 5)
  6 prt(o:21| 1.4468853E+04; 1.0922318E+04,-3.0488996E+03,-8.9863732E+03| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #10
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  4.92773E-09
    Squared matrix el. (prc) =  5.29298E-10
    Event weight (ref)       =  1.03136E-04
    Event weight (prc)       =  1.10781E-05
 ------------------------------------------------------------------------
    Selected MCI group = 2
    Selected term      = 5
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
            2574779949.0,            1613258.0,          957203242.0,
            1832886249.0,         3404761797.0,         1098311093.0,
    ]
    Beginning substream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Initial stream = [ 
            1308083549.0,         3131218167.0,         1156925658.0,
            3650761735.0,         3265303909.0,         2003036106.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.498989E+05
  P =   1.189026E+05  2.145968E+05  4.753746E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.291126E+05
  P =  -1.114467E+05 -1.954008E+05 -4.348273E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.098857E+04
  P =  -7.455888E+03 -1.919606E+04 -4.054732E+03
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_12_p1'
    RNG Stream generator
    Current position = [ 
             379220129.0,          955940867.0,          625050135.0,
            1046562733.0,         2664737320.0,          326107529.0,
    ]
    Beginning substream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Initial stream = [ 
            3370997467.0,         4205268159.0,         1216339063.0,
            1879087637.0,          849696509.0,          200114322.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.434708E+05
  P =   1.157756E+05  2.091142E+05  4.631741E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.217268E+05
  P =  -9.967986E+04 -1.951839E+05 -3.361475E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.153699E+04
  P =  -7.725418E+03 -1.966863E+04 -4.159893E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.326535E+04
  P =  -8.370322E+03  5.738335E+03 -8.542763E+03
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  5.292983914E-10
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   2.498989E+05
  P =   1.189026E+05  2.145968E+05  4.753746E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.291126E+05
  P =  -1.114467E+05 -1.954008E+05 -4.348273E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.098857E+04
  P =  -7.455888E+03 -1.919606E+04 -4.054732E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.493156E+05
  P =   1.186936E+05  2.140586E+05  4.742378E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.296477E+05
  P =  -1.116388E+05 -1.958953E+05 -4.358720E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.982150E+04
  P =  -6.219297E+03 -1.857109E+04 -3.053985E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.215214E+03
  P =  -8.354473E+02  4.078253E+02 -7.825921E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.424422E+05
  P =   1.046411E+05  2.116191E+05  5.518882E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.226841E+05
  P =  -1.083878E+05 -1.898800E+05 -4.225976E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.040490E+04
  P =  -7.175630E+03 -1.869025E+04 -3.942684E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.446885E+04
  P =   1.092232E+04 -3.048900E+03 -8.986373E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00  2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   2.500000E+05
  P =   0.000000E+00  0.000000E+00 -2.500000E+05
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.434708E+05
  P =   1.157756E+05  2.091142E+05  4.631741E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.217268E+05
  P =  -9.967986E+04 -1.951839E+05 -3.361475E+04
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.153699E+04
  P =  -7.725418E+03 -1.966863E+04 -4.159893E+03
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.326535E+04
  P =  -8.370322E+03  5.738335E+03 -8.542763E+03
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  5.00000E+05
 sqrts_hat* =>  5.00000E+05
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_12_p1"
 process_num_id* => [unknown integer]
 sqme* =>  5.29298E-10
 sqme_ref* =>  4.92773E-09
 event_index* => 10
 event_weight* =>  1.10781E-05
 event_weight_ref* =>  1.03136E-04
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00,-2.5000000E+05| 0.0000000E+00| 1)
  2 prt(i:-11|-2.5000000E+05; 0.0000000E+00, 0.0000000E+00, 2.5000000E+05| 0.0000000E+00| 2)
  3 prt(o:-1| 2.4347083E+05; 1.1577560E+05, 2.0911421E+05, 4.6317408E+04| 0.0000000E+00| 3)
  4 prt(o:1| 2.2172683E+05;-9.9679863E+04,-1.9518391E+05,-3.3614752E+04| 0.0000000E+00| 4)
  5 prt(o:21| 2.1536987E+04;-7.7254178E+03,-1.9668631E+04,-4.1598928E+03| 0.0000000E+00| 5)
  6 prt(o:21| 1.3265353E+04;-8.3703215E+03, 5.7383354E+03,-8.5427632E+03| 0.0000000E+00| 6)
 ========================================================================
Index: trunk/share/tests/functional_tests/ref-output-double/openloops_14.ref
===================================================================
--- trunk/share/tests/functional_tests/ref-output-double/openloops_14.ref	(revision 8818)
+++ trunk/share/tests/functional_tests/ref-output-double/openloops_14.ref	(revision 8819)
@@ -1,11136 +1,11137 @@
 ?openmp_logging = false
 ?vis_history = false
 ?integration_timer = false
 ?pacify = true
 | Switching to model 'SM', scheme 'GF_MW_MZ'
 $blha_ew_scheme = "alpha_qed"
 SM.mZ =>  9.11880E+01
 SM.mW =>  8.04190E+01
 SM.mH =>  1.25000E+02
 SM.GF =>  1.16639E-05
 SM.wZ =>  0.00000E+00
 SM.wtop =>  0.00000E+00
 SM.wW =>  0.00000E+00
 SM.wH =>  0.00000E+00
 SM.ms =>  0.00000E+00
 SM.mc =>  0.00000E+00
 SM.mb =>  0.00000E+00
 SM.mtop =>  1.73200E+02
 SM.me =>  0.00000E+00
 SM.mmu =>  0.00000E+00
 SM.mtau =>  1.77700E+00
 SM.alphas =>  1.18000E-01
 ?alphas_is_fixed = false
 ?alphas_from_mz = true
 ?alphas_from_lambda_qcd = false
 alphas_nf = 5
 [user variable] jet = PDG(2, -2, 1, -1, 3, -3, 21)
 $exclude_gauge_splittings = "c:b:t"
 $method = "openloops"
 ?use_vamp_equivalences = false
 $integration_method = "vamp2"
 $rng_method = "rng_stream"
 openmp_num_threads = 1
 jet_algorithm = 2
 jet_r =  5.00000E-01
 alpha_power = 2
 alphas_power = 1
+$openloops_allowed_libs = "ppllj"
 seed = 8131
 sqrts =  1.00000E+03
 ?combined_nlo_integration = true
 | Process library 'openloops_14_lib': recorded process 'openloops_14_p1'
 | Integrate: current process library needs compilation
 | Process library 'openloops_14_lib': compiling ...
 | Process library 'openloops_14_lib': writing makefile
 | Process library 'openloops_14_lib': removing old files
 | Process library 'openloops_14_lib': writing driver
 | Process library 'openloops_14_lib': creating source code
 | Process library 'openloops_14_lib': compiling sources
 | Process library 'openloops_14_lib': linking
 | Process library 'openloops_14_lib': loading
 | Process library 'openloops_14_lib': ... success.
 | Integrate: compilation done
 | QCD alpha: using a running strong coupling
 | RNG: Initializing RNG Stream random-number generator
 | RNG: Setting seed for random-number generator to 8131
 | Initializing integration for process openloops_14_p1:
 | Beam structure: [any particles]
 | Beam data (collision):
 |   e-  (mass = 0.0000000E+00 GeV)
 |   e+  (mass = 0.0000000E+00 GeV)
 |   sqrts = 1.000000000000E+03 GeV
 | Phase space: generating configuration ...
 Warning:  Intermediate decay of zero-width particle Z may be possible.
 | Phase space: ... success.
 | Phase space: writing configuration file 'openloops_14_p1.i1.phs'
 | Phase space: generating configuration ...
 | Phase space: ... success.
 | Phase space: writing configuration file 'openloops_14_p1.i3.phs'
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | ------------------------------------------------------------------------
 | Process [scattering]: 'openloops_14_p1'
 |   Library name  = 'openloops_14_lib'
 |   Process index = 1
 |   Process components:
 |     1: 'openloops_14_p1_i1':   e-, e+ => u:ubar:d:dbar:s:sbar:gl, u:ubar:d:dbar:s:sbar:gl, u:ubar:d:dbar:s:sbar:gl [openloops]
 |     2: 'openloops_14_p1_i2':   e-, e+ => d:dbar:u:ubar:s:sbar:gl, d:dbar:u:ubar:s:sbar:gl, d:dbar:u:ubar:s:sbar:gl, d:dbar:u:ubar:s:sbar:gl [openloops], [real]
 |     3: 'openloops_14_p1_i3':   e-, e+ => u:ubar:d:dbar:s:sbar:gl, u:ubar:d:dbar:s:sbar:gl, u:ubar:d:dbar:s:sbar:gl [openloops], [virtual]
 |     4: 'openloops_14_p1_i4':   e-, e+ => u:ubar:d:dbar:s:sbar:gl, u:ubar:d:dbar:s:sbar:gl, u:ubar:d:dbar:s:sbar:gl [inactive], [subtraction]
 | ------------------------------------------------------------------------
 | Phase space: 2 channels, 8 dimensions
 | Phase space: found 2 channels, collected in 1 grove.
 | Phase space: no equivalences between channels used.
 | Phase space: wood
 | Phase space: 2 channels, 8 dimensions
 | Phase space: found 2 channels, collected in 1 grove.
 | Phase space: no equivalences between channels used.
 | Phase space: wood
 | Phase space: 2 channels, 8 dimensions
 | Phase space: found 2 channels, collected in 1 grove.
 | Phase space: no equivalences between channels used.
 | Phase space: wood
 | Applying user-defined cuts.
 | Using user-defined general scale.
 | Starting integration for process 'openloops_14_p1'
 | Integrate: iterations = 1:100:"gw"
 | Integrator: 1 chains, 2 channels, 8 dimensions
 | Integrator: Write grid header and grids to 'openloops_14_p1.m1.vg2'
 | Integrator: Grid checkpoint after each iteration
 | Integrator: 100 initial calls, 20 max. bins, stratified = T
 | Integrator: VAMP2
 |=============================================================================|
 | It      Calls  Integral[fb]  Error[fb]   Err[%]    Acc  Eff[%]   Chi2 N[It] |
 |=============================================================================|
 | VAMP2: Initialize new grids and write to file 'openloops_14_p1.m1.vg2'.
 | VAMP2: set chain: use chained weights.
    1        100     2.884E+02   1.10E+02   37.98    3.80     6.8
 |-----------------------------------------------------------------------------|
    1        100     2.884E+02   1.10E+02   37.98    3.80     6.8
 |=============================================================================|
 n_events = 10
 $sample_normalization = "sigma"
 ?unweighted = false
 ?negative_weights = true
 ?keep_failed_events = true
 ?fixed_order_nlo_events = true
 ?debug_decay = false
 ?debug_process = false
 ?debug_verbose = false
 ?sample_pacify = true
 ?write_raw = false
 | Starting simulation for process 'openloops_14_p1'
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | One-Loop-Provider: Using OpenLoops
 | Loading library: [...]
 | Simulate: activating fixed-order NLO events
 | QCD alpha: using a running strong coupling
 | RNG: Initializing RNG Stream random-number generator
 | RNG: Setting seed for random-number generator to 8132
 | Events: writing to ASCII file 'openloops_14_p1.debug'
 | Events: generating 40 weighted, unpolarized NLO events ...
 | Events: event normalization mode 'sigma'
 |         ... event sample complete.
 | Events: closing ASCII file 'openloops_14_p1.debug'
 | There were no errors and    1 warning(s).
 | WHIZARD run finished.
 |=============================================================================|
 Total number of regions:    18
  alr ||                 flst_real || i_real ||  em || mul || nreg ||                         ftuples ||             flst_born ||  i_born || corr
    1 || [ 11,-11, -2,  2, -2,  2] ||      1 ||   5 ||   4 ||    4 || {(3,4),(3,6),(4,5),(5,6)} || [ 11,-11, -2,  2, 21] ||       1 ||  qcd
    2 || [ 11,-11, -2,  2, 21, 21] ||      2 ||   3 ||   2 ||    5 || {(3,5),(3,6),(4,5),(4,6),(5,6)} || [ 11,-11, -2,  2, 21] ||       1 ||  qcd
    3 || [ 11,-11, -2,  2, 21, 21] ||      2 ||   4 ||   2 ||    5 || {(3,5),(3,6),(4,5),(4,6),(5,6)} || [ 11,-11, -2,  2, 21] ||       1 ||  qcd
    4 || [ 11,-11, -2,  2, 21, 21] ||      2 ||   5 ||   1 ||    5 || {(3,5),(3,6),(4,5),(4,6),(5,6)} || [ 11,-11, -2,  2, 21] ||       1 ||  qcd
    5 || [ 11,-11, -2,  2, -3,  3] ||      3 ||   5 ||   1 ||    2 ||         {(3,4),(5,6)} || [ 11,-11, -2,  2, 21] ||       1 ||  qcd
    6 || [ 11,-11, -3,  3, -2,  2] ||      4 ||   5 ||   1 ||    2 ||         {(3,4),(5,6)} || [ 11,-11, -3,  3, 21] ||       2 ||  qcd
    7 || [ 11,-11, -2,  2, -1,  1] ||      5 ||   5 ||   1 ||    2 ||         {(3,4),(5,6)} || [ 11,-11, -2,  2, 21] ||       1 ||  qcd
    8 || [ 11,-11, -1,  1, -2,  2] ||      6 ||   5 ||   1 ||    2 ||         {(3,4),(5,6)} || [ 11,-11, -1,  1, 21] ||       3 ||  qcd
    9 || [ 11,-11, -3,  3, -3,  3] ||      7 ||   5 ||   4 ||    4 || {(3,4),(3,6),(4,5),(5,6)} || [ 11,-11, -3,  3, 21] ||       2 ||  qcd
   10 || [ 11,-11, -3,  3, -1,  1] ||      8 ||   5 ||   1 ||    2 ||         {(3,4),(5,6)} || [ 11,-11, -3,  3, 21] ||       2 ||  qcd
   11 || [ 11,-11, -1,  1, -3,  3] ||      9 ||   5 ||   1 ||    2 ||         {(3,4),(5,6)} || [ 11,-11, -1,  1, 21] ||       3 ||  qcd
   12 || [ 11,-11, -3,  3, 21, 21] ||     10 ||   3 ||   2 ||    5 || {(3,5),(3,6),(4,5),(4,6),(5,6)} || [ 11,-11, -3,  3, 21] ||       2 ||  qcd
   13 || [ 11,-11, -3,  3, 21, 21] ||     10 ||   4 ||   2 ||    5 || {(3,5),(3,6),(4,5),(4,6),(5,6)} || [ 11,-11, -3,  3, 21] ||       2 ||  qcd
   14 || [ 11,-11, -3,  3, 21, 21] ||     10 ||   5 ||   1 ||    5 || {(3,5),(3,6),(4,5),(4,6),(5,6)} || [ 11,-11, -3,  3, 21] ||       2 ||  qcd
   15 || [ 11,-11, -1,  1, -1,  1] ||     11 ||   5 ||   4 ||    4 || {(3,4),(3,6),(4,5),(5,6)} || [ 11,-11, -1,  1, 21] ||       3 ||  qcd
   16 || [ 11,-11, -1,  1, 21, 21] ||     12 ||   3 ||   2 ||    5 || {(3,5),(3,6),(4,5),(4,6),(5,6)} || [ 11,-11, -1,  1, 21] ||       3 ||  qcd
   17 || [ 11,-11, -1,  1, 21, 21] ||     12 ||   4 ||   2 ||    5 || {(3,5),(3,6),(4,5),(4,6),(5,6)} || [ 11,-11, -1,  1, 21] ||       3 ||  qcd
   18 || [ 11,-11, -1,  1, 21, 21] ||     12 ||   5 ||   1 ||    5 || {(3,5),(3,6),(4,5),(4,6),(5,6)} || [ 11,-11, -1,  1, 21] ||       3 ||  qcd
 ------------------------------------------------------------------------
 Contents of openloops_14_p1.debug:
 ========================================================================
  Event #1
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  5.08117E-05
    Squared matrix el. (prc) =  4.23661E-05
    Event weight (ref)       =  1.21669E+01
    Event weight (prc)       =  1.01446E+01
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3783293072.0,          709384797.0,         2916062426.0,
             235869783.0,          911733607.0,          940006607.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   4.867648E+02
  P =  -2.820047E+02  7.342523E+01 -3.899001E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.166196E+02
  P =   1.864136E+02  3.164926E+01  2.539612E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.966156E+02
  P =   9.559111E+01 -1.050745E+02  1.359389E+02
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            2861163583.0,         4290486744.0,          308936849.0,
            2121445242.0,         1709259940.0,         2314870259.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.260903E+02
  P =  -2.449448E+02  7.971724E+01 -3.394115E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.131446E+02
  P =   1.700831E+02 -8.440417E+01  9.684166E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.199464E+02
  P =   1.125026E+02 -1.022033E+02  1.589783E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.408186E+02
  P =  -3.764085E+01  1.068902E+02  8.359153E+01
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  2.751342555E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.867648E+02
  P =  -2.820047E+02  7.342523E+01 -3.899001E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.166196E+02
  P =   1.864136E+02  3.164926E+01  2.539612E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.966156E+02
  P =   9.559111E+01 -1.050745E+02  1.359389E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   4.521382E+02
  P =  -2.634909E+02  5.307478E+01 -3.635719E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.379188E+02
  P =   1.993201E+02  1.746233E+01  2.723154E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.224970E+02
  P =   1.387961E+01 -1.162028E+02  3.619073E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   8.744606E+01
  P =   5.029125E+01  4.566574E+01  5.506581E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.699097E+02
  P =  -5.432879E+01  1.963019E+02 -3.087833E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.536720E+02
  P =   1.484449E+02  4.153510E+01  2.014657E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.599265E+02
  P =   7.185341E+01 -9.889393E+01  1.031191E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.164918E+02
  P =  -1.659696E+02 -1.389431E+02  4.198463E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.260903E+02
  P =  -2.449448E+02  7.971724E+01 -3.394115E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.131446E+02
  P =   1.700831E+02 -8.440417E+01  9.684166E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.199464E+02
  P =   1.125026E+02 -1.022033E+02  1.589783E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.408186E+02
  P =  -3.764085E+01  1.068902E+02  8.359153E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 3
 n_tot* => 5
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  4.23661E-05
 sqme_ref* =>  5.08117E-05
 event_index* => 1
 event_weight* =>  1.01446E+01
 event_weight_ref* =>  1.21669E+01
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-2| 4.8676480E+02;-2.8200467E+02, 7.3425228E+01,-3.8990008E+02| 0.0000000E+00| 3)
  4 prt(o:2| 3.1661962E+02; 1.8641356E+02, 3.1649257E+01, 2.5396120E+02| 0.0000000E+00| 4)
  5 prt(o:21| 1.9661558E+02; 9.5591110E+01,-1.0507449E+02, 1.3593888E+02| 0.0000000E+00| 5)
 ========================================================================
 ========================================================================
  Event #1
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  5.08117E-05
    Squared matrix el. (prc) =  4.02776E-06
    Event weight (ref)       =  1.21669E+01
    Event weight (prc)       =  9.64448E-01
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3783293072.0,          709384797.0,         2916062426.0,
             235869783.0,          911733607.0,          940006607.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   4.867648E+02
  P =  -2.820047E+02  7.342523E+01 -3.899001E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.166196E+02
  P =   1.864136E+02  3.164926E+01  2.539612E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.966156E+02
  P =   9.559111E+01 -1.050745E+02  1.359389E+02
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            2861163583.0,         4290486744.0,          308936849.0,
            2121445242.0,         1709259940.0,         2314870259.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.260903E+02
  P =  -2.449448E+02  7.971724E+01 -3.394115E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.131446E+02
  P =   1.700831E+02 -8.440417E+01  9.684166E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.199464E+02
  P =   1.125026E+02 -1.022033E+02  1.589783E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.408186E+02
  P =  -3.764085E+01  1.068902E+02  8.359153E+01
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  2.751342555E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.867648E+02
  P =  -2.820047E+02  7.342523E+01 -3.899001E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.166196E+02
  P =   1.864136E+02  3.164926E+01  2.539612E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.966156E+02
  P =   9.559111E+01 -1.050745E+02  1.359389E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   4.521382E+02
  P =  -2.634909E+02  5.307478E+01 -3.635719E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.379188E+02
  P =   1.993201E+02  1.746233E+01  2.723154E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.224970E+02
  P =   1.387961E+01 -1.162028E+02  3.619073E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   8.744606E+01
  P =   5.029125E+01  4.566574E+01  5.506581E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.699097E+02
  P =  -5.432879E+01  1.963019E+02 -3.087833E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.536720E+02
  P =   1.484449E+02  4.153510E+01  2.014657E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.599265E+02
  P =   7.185341E+01 -9.889393E+01  1.031191E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.164918E+02
  P =  -1.659696E+02 -1.389431E+02  4.198463E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.260903E+02
  P =  -2.449448E+02  7.971724E+01 -3.394115E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.131446E+02
  P =   1.700831E+02 -8.440417E+01  9.684166E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.199464E+02
  P =   1.125026E+02 -1.022033E+02  1.589783E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.408186E+02
  P =  -3.764085E+01  1.068902E+02  8.359153E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  4.02776E-06
 sqme_ref* =>  5.08117E-05
 event_index* => 1
 event_weight* =>  9.64448E-01
 event_weight_ref* =>  1.21669E+01
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-1| 4.5213819E+02;-2.6349093E+02, 5.3074775E+01,-3.6357192E+02| 0.0000000E+00| 3)
  4 prt(o:1| 3.3791876E+02; 1.9932007E+02, 1.7462325E+01, 2.7231538E+02| 0.0000000E+00| 4)
  5 prt(o:21| 1.2249699E+02; 1.3879605E+01,-1.1620284E+02, 3.6190734E+01| 0.0000000E+00| 5)
  6 prt(o:21| 8.7446059E+01; 5.0291252E+01, 4.5665743E+01, 5.5065808E+01| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #1
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  5.08117E-05
    Squared matrix el. (prc) =  1.66647E-06
    Event weight (ref)       =  1.21669E+01
    Event weight (prc)       =  3.99035E-01
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3783293072.0,          709384797.0,         2916062426.0,
             235869783.0,          911733607.0,          940006607.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   4.867648E+02
  P =  -2.820047E+02  7.342523E+01 -3.899001E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.166196E+02
  P =   1.864136E+02  3.164926E+01  2.539612E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.966156E+02
  P =   9.559111E+01 -1.050745E+02  1.359389E+02
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            2861163583.0,         4290486744.0,          308936849.0,
            2121445242.0,         1709259940.0,         2314870259.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.260903E+02
  P =  -2.449448E+02  7.971724E+01 -3.394115E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.131446E+02
  P =   1.700831E+02 -8.440417E+01  9.684166E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.199464E+02
  P =   1.125026E+02 -1.022033E+02  1.589783E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.408186E+02
  P =  -3.764085E+01  1.068902E+02  8.359153E+01
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  2.751342555E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.867648E+02
  P =  -2.820047E+02  7.342523E+01 -3.899001E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.166196E+02
  P =   1.864136E+02  3.164926E+01  2.539612E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.966156E+02
  P =   9.559111E+01 -1.050745E+02  1.359389E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   4.521382E+02
  P =  -2.634909E+02  5.307478E+01 -3.635719E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.379188E+02
  P =   1.993201E+02  1.746233E+01  2.723154E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.224970E+02
  P =   1.387961E+01 -1.162028E+02  3.619073E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   8.744606E+01
  P =   5.029125E+01  4.566574E+01  5.506581E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.699097E+02
  P =  -5.432879E+01  1.963019E+02 -3.087833E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.536720E+02
  P =   1.484449E+02  4.153510E+01  2.014657E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.599265E+02
  P =   7.185341E+01 -9.889393E+01  1.031191E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.164918E+02
  P =  -1.659696E+02 -1.389431E+02  4.198463E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.260903E+02
  P =  -2.449448E+02  7.971724E+01 -3.394115E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.131446E+02
  P =   1.700831E+02 -8.440417E+01  9.684166E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.199464E+02
  P =   1.125026E+02 -1.022033E+02  1.589783E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.408186E+02
  P =  -3.764085E+01  1.068902E+02  8.359153E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  1.66647E-06
 sqme_ref* =>  5.08117E-05
 event_index* => 1
 event_weight* =>  3.99035E-01
 event_weight_ref* =>  1.21669E+01
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-2| 3.6990969E+02;-5.4328786E+01, 1.9630191E+02,-3.0878329E+02| 0.0000000E+00| 3)
  4 prt(o:2| 2.5367204E+02; 1.4844494E+02, 4.1535103E+01, 2.0146573E+02| 0.0000000E+00| 4)
  5 prt(o:21| 1.5992646E+02; 7.1853414E+01,-9.8893929E+01, 1.0311910E+02| 0.0000000E+00| 5)
  6 prt(o:21| 2.1649181E+02;-1.6596957E+02,-1.3894309E+02, 4.1984625E+00| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #1
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  5.08117E-05
    Squared matrix el. (prc) =  2.75134E-06
    Event weight (ref)       =  1.21669E+01
    Event weight (prc)       =  6.58809E-01
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3783293072.0,          709384797.0,         2916062426.0,
             235869783.0,          911733607.0,          940006607.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   4.867648E+02
  P =  -2.820047E+02  7.342523E+01 -3.899001E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.166196E+02
  P =   1.864136E+02  3.164926E+01  2.539612E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.966156E+02
  P =   9.559111E+01 -1.050745E+02  1.359389E+02
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            2861163583.0,         4290486744.0,          308936849.0,
            2121445242.0,         1709259940.0,         2314870259.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.260903E+02
  P =  -2.449448E+02  7.971724E+01 -3.394115E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.131446E+02
  P =   1.700831E+02 -8.440417E+01  9.684166E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.199464E+02
  P =   1.125026E+02 -1.022033E+02  1.589783E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.408186E+02
  P =  -3.764085E+01  1.068902E+02  8.359153E+01
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  2.751342555E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.867648E+02
  P =  -2.820047E+02  7.342523E+01 -3.899001E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.166196E+02
  P =   1.864136E+02  3.164926E+01  2.539612E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.966156E+02
  P =   9.559111E+01 -1.050745E+02  1.359389E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   4.521382E+02
  P =  -2.634909E+02  5.307478E+01 -3.635719E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.379188E+02
  P =   1.993201E+02  1.746233E+01  2.723154E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.224970E+02
  P =   1.387961E+01 -1.162028E+02  3.619073E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   8.744606E+01
  P =   5.029125E+01  4.566574E+01  5.506581E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.699097E+02
  P =  -5.432879E+01  1.963019E+02 -3.087833E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.536720E+02
  P =   1.484449E+02  4.153510E+01  2.014657E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.599265E+02
  P =   7.185341E+01 -9.889393E+01  1.031191E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.164918E+02
  P =  -1.659696E+02 -1.389431E+02  4.198463E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.260903E+02
  P =  -2.449448E+02  7.971724E+01 -3.394115E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.131446E+02
  P =   1.700831E+02 -8.440417E+01  9.684166E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.199464E+02
  P =   1.125026E+02 -1.022033E+02  1.589783E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.408186E+02
  P =  -3.764085E+01  1.068902E+02  8.359153E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  2.75134E-06
 sqme_ref* =>  5.08117E-05
 event_index* => 1
 event_weight* =>  6.58809E-01
 event_weight_ref* =>  1.21669E+01
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-2| 4.2609031E+02;-2.4494483E+02, 7.9717241E+01,-3.3941147E+02| 0.0000000E+00| 3)
  4 prt(o:2| 2.1314463E+02; 1.7008310E+02,-8.4404168E+01, 9.6841659E+01| 0.0000000E+00| 4)
  5 prt(o:21| 2.1994643E+02; 1.1250258E+02,-1.0220326E+02, 1.5897828E+02| 0.0000000E+00| 5)
  6 prt(o:21| 1.4081864E+02;-3.7640851E+01, 1.0689019E+02, 8.3591526E+01| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #2
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  1.51020E-06
    Squared matrix el. (prc) =  0.00000E+00
    Event weight (ref)       =  2.74588E+00
    Event weight (prc)       =  0.00000E+00
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            4165064571.0,          414625962.0,         4233066201.0,
            2875702212.0,         3446017903.0,         1634757042.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.168399E+02
  P =  -1.107928E+02  3.828033E+02  1.222379E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.970185E+02
  P =   9.877073E+01 -4.648819E+02 -1.454532E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   8.614157E+01
  P =   1.202209E+01  8.207857E+01  2.321526E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3087608709.0,          767449262.0,         1469258714.0,
            1380739968.0,         2673555668.0,          204756280.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.520124E+02
  P =  -9.787326E+01  3.219951E+02  1.032121E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.185591E+02
  P =   2.344752E+02 -2.150954E+02 -1.533764E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   7.355534E+01
  P =   1.470559E+01  6.944821E+01  1.926345E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.558732E+02
  P =  -1.513075E+02 -1.763479E+02 -1.071379E+02
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  5.723684334E-07
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   4.168399E+02
  P =  -1.107928E+02  3.828033E+02  1.222379E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   4.970185E+02
  P =   9.877073E+01 -4.648819E+02 -1.454532E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   8.614157E+01
  P =   1.202209E+01  8.207857E+01  2.321526E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.263386E+02
  P =  -1.093502E+02  3.926528E+02  1.250237E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.856821E+02
  P =   1.004521E+02 -4.534025E+02 -1.422063E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   4.363220E+01
  P =  -2.446138E+01  3.153322E+01  1.763706E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   4.434708E+01
  P =   3.335943E+01  2.921652E+01 -4.544846E-01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.540146E+02
  P =  -1.941036E+02  1.249923E+02  1.059440E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.335920E+02
  P =   8.186607E+01 -4.064741E+02 -1.268022E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.779746E+01
  P =   8.680816E+00  9.362310E+01  2.690170E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.145959E+02
  P =   1.035567E+02  1.878587E+02 -6.043527E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.520124E+02
  P =  -9.787326E+01  3.219951E+02  1.032121E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.185591E+02
  P =   2.344752E+02 -2.150954E+02 -1.533764E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   7.355534E+01
  P =   1.470559E+01  6.944821E+01  1.926345E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.558732E+02
  P =  -1.513075E+02 -1.763479E+02 -1.071379E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 3
 n_tot* => 5
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  0.00000E+00
 sqme_ref* =>  1.51020E-06
 event_index* => 2
 event_weight* =>  0.00000E+00
 event_weight_ref* =>  2.74588E+00
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-1| 4.1683990E+02;-1.1079282E+02, 3.8280328E+02, 1.2223789E+02| 0.0000000E+00| 3)
  4 prt(o:1| 4.9701852E+02; 9.8770730E+01,-4.6488185E+02,-1.4545315E+02| 0.0000000E+00| 4)
  5 prt(o:21| 8.6141572E+01; 1.2022094E+01, 8.2078568E+01, 2.3215264E+01| 0.0000000E+00| 5)
 ========================================================================
 ========================================================================
  Event #2
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  1.51020E-06
    Squared matrix el. (prc) =  9.18351E-06
    Event weight (ref)       =  2.74588E+00
    Event weight (prc)       =  0.00000E+00
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            4165064571.0,          414625962.0,         4233066201.0,
            2875702212.0,         3446017903.0,         1634757042.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.168399E+02
  P =  -1.107928E+02  3.828033E+02  1.222379E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.970185E+02
  P =   9.877073E+01 -4.648819E+02 -1.454532E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   8.614157E+01
  P =   1.202209E+01  8.207857E+01  2.321526E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3087608709.0,          767449262.0,         1469258714.0,
            1380739968.0,         2673555668.0,          204756280.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.520124E+02
  P =  -9.787326E+01  3.219951E+02  1.032121E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.185591E+02
  P =   2.344752E+02 -2.150954E+02 -1.533764E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   7.355534E+01
  P =   1.470559E+01  6.944821E+01  1.926345E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.558732E+02
  P =  -1.513075E+02 -1.763479E+02 -1.071379E+02
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  5.723684334E-07
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   4.168399E+02
  P =  -1.107928E+02  3.828033E+02  1.222379E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   4.970185E+02
  P =   9.877073E+01 -4.648819E+02 -1.454532E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   8.614157E+01
  P =   1.202209E+01  8.207857E+01  2.321526E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.263386E+02
  P =  -1.093502E+02  3.926528E+02  1.250237E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.856821E+02
  P =   1.004521E+02 -4.534025E+02 -1.422063E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   4.363220E+01
  P =  -2.446138E+01  3.153322E+01  1.763706E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   4.434708E+01
  P =   3.335943E+01  2.921652E+01 -4.544846E-01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.540146E+02
  P =  -1.941036E+02  1.249923E+02  1.059440E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.335920E+02
  P =   8.186607E+01 -4.064741E+02 -1.268022E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.779746E+01
  P =   8.680816E+00  9.362310E+01  2.690170E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.145959E+02
  P =   1.035567E+02  1.878587E+02 -6.043527E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.520124E+02
  P =  -9.787326E+01  3.219951E+02  1.032121E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.185591E+02
  P =   2.344752E+02 -2.150954E+02 -1.533764E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   7.355534E+01
  P =   1.470559E+01  6.944821E+01  1.926345E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.558732E+02
  P =  -1.513075E+02 -1.763479E+02 -1.071379E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  9.18351E-06
 sqme_ref* =>  1.51020E-06
 event_index* => 2
 event_weight* =>  0.00000E+00
 event_weight_ref* =>  2.74588E+00
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-2| 4.2633861E+02;-1.0935016E+02, 3.9265279E+02, 1.2502374E+02| 0.0000000E+00| 3)
  4 prt(o:2| 4.8568212E+02; 1.0045211E+02,-4.5340253E+02,-1.4220632E+02| 0.0000000E+00| 4)
  5 prt(o:-2| 4.3632199E+01;-2.4461379E+01, 3.1533218E+01, 1.7637061E+01| 0.0000000E+00| 5)
  6 prt(o:2| 4.4347076E+01; 3.3359427E+01, 2.9216522E+01,-4.5448462E-01| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #2
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  1.51020E-06
    Squared matrix el. (prc) =  9.37832E-07
    Event weight (ref)       =  2.74588E+00
    Event weight (prc)       =  1.70519E+00
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            4165064571.0,          414625962.0,         4233066201.0,
            2875702212.0,         3446017903.0,         1634757042.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.168399E+02
  P =  -1.107928E+02  3.828033E+02  1.222379E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.970185E+02
  P =   9.877073E+01 -4.648819E+02 -1.454532E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   8.614157E+01
  P =   1.202209E+01  8.207857E+01  2.321526E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3087608709.0,          767449262.0,         1469258714.0,
            1380739968.0,         2673555668.0,          204756280.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.520124E+02
  P =  -9.787326E+01  3.219951E+02  1.032121E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.185591E+02
  P =   2.344752E+02 -2.150954E+02 -1.533764E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   7.355534E+01
  P =   1.470559E+01  6.944821E+01  1.926345E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.558732E+02
  P =  -1.513075E+02 -1.763479E+02 -1.071379E+02
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  5.723684334E-07
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   4.168399E+02
  P =  -1.107928E+02  3.828033E+02  1.222379E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   4.970185E+02
  P =   9.877073E+01 -4.648819E+02 -1.454532E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   8.614157E+01
  P =   1.202209E+01  8.207857E+01  2.321526E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.263386E+02
  P =  -1.093502E+02  3.926528E+02  1.250237E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.856821E+02
  P =   1.004521E+02 -4.534025E+02 -1.422063E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   4.363220E+01
  P =  -2.446138E+01  3.153322E+01  1.763706E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   4.434708E+01
  P =   3.335943E+01  2.921652E+01 -4.544846E-01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.540146E+02
  P =  -1.941036E+02  1.249923E+02  1.059440E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.335920E+02
  P =   8.186607E+01 -4.064741E+02 -1.268022E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.779746E+01
  P =   8.680816E+00  9.362310E+01  2.690170E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.145959E+02
  P =   1.035567E+02  1.878587E+02 -6.043527E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.520124E+02
  P =  -9.787326E+01  3.219951E+02  1.032121E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.185591E+02
  P =   2.344752E+02 -2.150954E+02 -1.533764E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   7.355534E+01
  P =   1.470559E+01  6.944821E+01  1.926345E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.558732E+02
  P =  -1.513075E+02 -1.763479E+02 -1.071379E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  9.37832E-07
 sqme_ref* =>  1.51020E-06
 event_index* => 2
 event_weight* =>  1.70519E+00
 event_weight_ref* =>  2.74588E+00
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-2| 2.5401459E+02;-1.9410360E+02, 1.2499227E+02, 1.0594404E+02| 0.0000000E+00| 3)
  4 prt(o:2| 4.3359202E+02; 8.1866066E+01,-4.0647409E+02,-1.2680221E+02| 0.0000000E+00| 4)
  5 prt(o:21| 9.7797463E+01; 8.6808164E+00, 9.3623105E+01, 2.6901700E+01| 0.0000000E+00| 5)
  6 prt(o:21| 2.1459593E+02; 1.0355671E+02, 1.8785871E+02,-6.0435274E+00| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #2
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  1.51020E-06
    Squared matrix el. (prc) =  5.72368E-07
    Event weight (ref)       =  2.74588E+00
    Event weight (prc)       =  1.04069E+00
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            4165064571.0,          414625962.0,         4233066201.0,
            2875702212.0,         3446017903.0,         1634757042.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.168399E+02
  P =  -1.107928E+02  3.828033E+02  1.222379E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.970185E+02
  P =   9.877073E+01 -4.648819E+02 -1.454532E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   8.614157E+01
  P =   1.202209E+01  8.207857E+01  2.321526E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3087608709.0,          767449262.0,         1469258714.0,
            1380739968.0,         2673555668.0,          204756280.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.520124E+02
  P =  -9.787326E+01  3.219951E+02  1.032121E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.185591E+02
  P =   2.344752E+02 -2.150954E+02 -1.533764E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   7.355534E+01
  P =   1.470559E+01  6.944821E+01  1.926345E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.558732E+02
  P =  -1.513075E+02 -1.763479E+02 -1.071379E+02
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  5.723684334E-07
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   4.168399E+02
  P =  -1.107928E+02  3.828033E+02  1.222379E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   4.970185E+02
  P =   9.877073E+01 -4.648819E+02 -1.454532E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   8.614157E+01
  P =   1.202209E+01  8.207857E+01  2.321526E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.263386E+02
  P =  -1.093502E+02  3.926528E+02  1.250237E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.856821E+02
  P =   1.004521E+02 -4.534025E+02 -1.422063E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   4.363220E+01
  P =  -2.446138E+01  3.153322E+01  1.763706E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   4.434708E+01
  P =   3.335943E+01  2.921652E+01 -4.544846E-01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.540146E+02
  P =  -1.941036E+02  1.249923E+02  1.059440E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.335920E+02
  P =   8.186607E+01 -4.064741E+02 -1.268022E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.779746E+01
  P =   8.680816E+00  9.362310E+01  2.690170E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.145959E+02
  P =   1.035567E+02  1.878587E+02 -6.043527E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.520124E+02
  P =  -9.787326E+01  3.219951E+02  1.032121E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.185591E+02
  P =   2.344752E+02 -2.150954E+02 -1.533764E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   7.355534E+01
  P =   1.470559E+01  6.944821E+01  1.926345E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.558732E+02
  P =  -1.513075E+02 -1.763479E+02 -1.071379E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  5.72368E-07
 sqme_ref* =>  1.51020E-06
 event_index* => 2
 event_weight* =>  1.04069E+00
 event_weight_ref* =>  2.74588E+00
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-2| 3.5201242E+02;-9.7873260E+01, 3.2199508E+02, 1.0321210E+02| 0.0000000E+00| 3)
  4 prt(o:2| 3.1855906E+02; 2.3447519E+02,-2.1509537E+02,-1.5337638E+01| 0.0000000E+00| 4)
  5 prt(o:21| 7.3555342E+01; 1.4705593E+01, 6.9448206E+01, 1.9263451E+01| 0.0000000E+00| 5)
  6 prt(o:21| 2.5587318E+02;-1.5130752E+02,-1.7634791E+02,-1.0713791E+02| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #3
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  4.20377E-06
    Squared matrix el. (prc) =  0.00000E+00
    Event weight (ref)       =  1.74465E+02
    Event weight (prc)       =  0.00000E+00
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
             198170154.0,         2986732709.0,          838792232.0,
            3801322254.0,          681541859.0,         2204767654.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.972053E+02
  P =  -4.063989E+02  1.664731E+02  2.331089E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.819075E+02
  P =   2.088243E+02 -1.217828E+02 -1.450283E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.208872E+02
  P =   1.975746E+02 -4.469028E+01 -8.808061E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3938720326.0,         2431070917.0,         2314646599.0,
              95161108.0,         2834580314.0,         1263481919.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   4.761551E+02
  P =  -3.906629E+02  1.572961E+02  2.221803E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   1.573212E+02
  P =   5.129860E+01 -1.016863E+02 -1.085279E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.303109E+02
  P =   2.048690E+02 -4.894423E+01 -9.314654E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.362128E+02
  P =   1.344954E+02 -6.665601E+00 -2.050578E+01
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  1.474946675E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.972053E+02
  P =  -4.063989E+02  1.664731E+02  2.331089E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.819075E+02
  P =   2.088243E+02 -1.217828E+02 -1.450283E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.208872E+02
  P =   1.975746E+02 -4.469028E+01 -8.808061E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.809328E+02
  P =  -3.916269E+02  1.631317E+02  2.265234E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.911632E+02
  P =   2.174789E+02 -1.237404E+02 -1.488866E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.211752E+02
  P =   7.072352E+01 -6.541670E+01 -7.350005E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.067288E+02
  P =   1.034244E+02  2.602541E+01 -4.136720E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.954781E+02
  P =  -2.055935E+02  2.056972E+02  5.222350E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.602585E+02
  P =   1.909608E+02 -1.144654E+02 -1.347818E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.040225E+02
  P =   1.835745E+02 -3.895542E+01 -8.005021E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.402409E+02
  P =  -1.689418E+02 -5.227643E+01  1.626085E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   4.761551E+02
  P =  -3.906629E+02  1.572961E+02  2.221803E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   1.573212E+02
  P =   5.129860E+01 -1.016863E+02 -1.085279E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.303109E+02
  P =   2.048690E+02 -4.894423E+01 -9.314654E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.362128E+02
  P =   1.344954E+02 -6.665601E+00 -2.050578E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 3
 n_tot* => 5
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  0.00000E+00
 sqme_ref* =>  4.20377E-06
 event_index* => 3
 event_weight* =>  0.00000E+00
 event_weight_ref* =>  1.74465E+02
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-3| 4.9720532E+02;-4.0639893E+02, 1.6647308E+02, 2.3310889E+02| 0.0000000E+00| 3)
  4 prt(o:3| 2.8190750E+02; 2.0882430E+02,-1.2178280E+02,-1.4502828E+02| 0.0000000E+00| 4)
  5 prt(o:21| 2.2088719E+02; 1.9757463E+02,-4.4690278E+01,-8.8080613E+01| 0.0000000E+00| 5)
 ========================================================================
 ========================================================================
  Event #3
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  4.20377E-06
    Squared matrix el. (prc) =  2.07041E-06
    Event weight (ref)       =  1.74465E+02
    Event weight (prc)       =  8.59265E+01
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
             198170154.0,         2986732709.0,          838792232.0,
            3801322254.0,          681541859.0,         2204767654.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.972053E+02
  P =  -4.063989E+02  1.664731E+02  2.331089E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.819075E+02
  P =   2.088243E+02 -1.217828E+02 -1.450283E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.208872E+02
  P =   1.975746E+02 -4.469028E+01 -8.808061E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3938720326.0,         2431070917.0,         2314646599.0,
              95161108.0,         2834580314.0,         1263481919.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   4.761551E+02
  P =  -3.906629E+02  1.572961E+02  2.221803E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   1.573212E+02
  P =   5.129860E+01 -1.016863E+02 -1.085279E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.303109E+02
  P =   2.048690E+02 -4.894423E+01 -9.314654E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.362128E+02
  P =   1.344954E+02 -6.665601E+00 -2.050578E+01
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  1.474946675E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.972053E+02
  P =  -4.063989E+02  1.664731E+02  2.331089E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.819075E+02
  P =   2.088243E+02 -1.217828E+02 -1.450283E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.208872E+02
  P =   1.975746E+02 -4.469028E+01 -8.808061E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.809328E+02
  P =  -3.916269E+02  1.631317E+02  2.265234E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.911632E+02
  P =   2.174789E+02 -1.237404E+02 -1.488866E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.211752E+02
  P =   7.072352E+01 -6.541670E+01 -7.350005E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.067288E+02
  P =   1.034244E+02  2.602541E+01 -4.136720E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.954781E+02
  P =  -2.055935E+02  2.056972E+02  5.222350E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.602585E+02
  P =   1.909608E+02 -1.144654E+02 -1.347818E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.040225E+02
  P =   1.835745E+02 -3.895542E+01 -8.005021E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.402409E+02
  P =  -1.689418E+02 -5.227643E+01  1.626085E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   4.761551E+02
  P =  -3.906629E+02  1.572961E+02  2.221803E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   1.573212E+02
  P =   5.129860E+01 -1.016863E+02 -1.085279E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.303109E+02
  P =   2.048690E+02 -4.894423E+01 -9.314654E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.362128E+02
  P =   1.344954E+02 -6.665601E+00 -2.050578E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  2.07041E-06
 sqme_ref* =>  4.20377E-06
 event_index* => 3
 event_weight* =>  8.59265E+01
 event_weight_ref* =>  1.74465E+02
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-2| 4.8093283E+02;-3.9162686E+02, 1.6313172E+02, 2.2652337E+02| 0.0000000E+00| 3)
  4 prt(o:2| 2.9116319E+02; 2.1747894E+02,-1.2374043E+02,-1.4888660E+02| 0.0000000E+00| 4)
  5 prt(o:21| 1.2117516E+02; 7.0723521E+01,-6.5416701E+01,-7.3500049E+01| 0.0000000E+00| 5)
  6 prt(o:21| 1.0672882E+02; 1.0342440E+02, 2.6025414E+01,-4.1367204E+00| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #3
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  4.20377E-06
    Squared matrix el. (prc) =  6.58412E-07
    Event weight (ref)       =  1.74465E+02
    Event weight (prc)       =  2.73255E+01
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
             198170154.0,         2986732709.0,          838792232.0,
            3801322254.0,          681541859.0,         2204767654.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.972053E+02
  P =  -4.063989E+02  1.664731E+02  2.331089E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.819075E+02
  P =   2.088243E+02 -1.217828E+02 -1.450283E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.208872E+02
  P =   1.975746E+02 -4.469028E+01 -8.808061E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3938720326.0,         2431070917.0,         2314646599.0,
              95161108.0,         2834580314.0,         1263481919.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   4.761551E+02
  P =  -3.906629E+02  1.572961E+02  2.221803E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   1.573212E+02
  P =   5.129860E+01 -1.016863E+02 -1.085279E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.303109E+02
  P =   2.048690E+02 -4.894423E+01 -9.314654E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.362128E+02
  P =   1.344954E+02 -6.665601E+00 -2.050578E+01
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  1.474946675E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.972053E+02
  P =  -4.063989E+02  1.664731E+02  2.331089E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.819075E+02
  P =   2.088243E+02 -1.217828E+02 -1.450283E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.208872E+02
  P =   1.975746E+02 -4.469028E+01 -8.808061E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.809328E+02
  P =  -3.916269E+02  1.631317E+02  2.265234E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.911632E+02
  P =   2.174789E+02 -1.237404E+02 -1.488866E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.211752E+02
  P =   7.072352E+01 -6.541670E+01 -7.350005E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.067288E+02
  P =   1.034244E+02  2.602541E+01 -4.136720E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.954781E+02
  P =  -2.055935E+02  2.056972E+02  5.222350E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.602585E+02
  P =   1.909608E+02 -1.144654E+02 -1.347818E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.040225E+02
  P =   1.835745E+02 -3.895542E+01 -8.005021E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.402409E+02
  P =  -1.689418E+02 -5.227643E+01  1.626085E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   4.761551E+02
  P =  -3.906629E+02  1.572961E+02  2.221803E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   1.573212E+02
  P =   5.129860E+01 -1.016863E+02 -1.085279E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.303109E+02
  P =   2.048690E+02 -4.894423E+01 -9.314654E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.362128E+02
  P =   1.344954E+02 -6.665601E+00 -2.050578E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  6.58412E-07
 sqme_ref* =>  4.20377E-06
 event_index* => 3
 event_weight* =>  2.73255E+01
 event_weight_ref* =>  1.74465E+02
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-2| 2.9547814E+02;-2.0559351E+02, 2.0569722E+02, 5.2223499E+01| 0.0000000E+00| 3)
  4 prt(o:2| 2.6025849E+02; 1.9096078E+02,-1.1446537E+02,-1.3478183E+02| 0.0000000E+00| 4)
  5 prt(o:21| 2.0402246E+02; 1.8357452E+02,-3.8955419E+01,-8.0050206E+01| 0.0000000E+00| 5)
  6 prt(o:21| 2.4024091E+02;-1.6894180E+02,-5.2276433E+01, 1.6260854E+02| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #3
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  4.20377E-06
    Squared matrix el. (prc) =  1.47495E-06
    Event weight (ref)       =  1.74465E+02
    Event weight (prc)       =  6.12134E+01
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
             198170154.0,         2986732709.0,          838792232.0,
            3801322254.0,          681541859.0,         2204767654.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.972053E+02
  P =  -4.063989E+02  1.664731E+02  2.331089E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.819075E+02
  P =   2.088243E+02 -1.217828E+02 -1.450283E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.208872E+02
  P =   1.975746E+02 -4.469028E+01 -8.808061E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3938720326.0,         2431070917.0,         2314646599.0,
              95161108.0,         2834580314.0,         1263481919.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   4.761551E+02
  P =  -3.906629E+02  1.572961E+02  2.221803E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   1.573212E+02
  P =   5.129860E+01 -1.016863E+02 -1.085279E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.303109E+02
  P =   2.048690E+02 -4.894423E+01 -9.314654E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.362128E+02
  P =   1.344954E+02 -6.665601E+00 -2.050578E+01
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  1.474946675E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.972053E+02
  P =  -4.063989E+02  1.664731E+02  2.331089E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.819075E+02
  P =   2.088243E+02 -1.217828E+02 -1.450283E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.208872E+02
  P =   1.975746E+02 -4.469028E+01 -8.808061E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.809328E+02
  P =  -3.916269E+02  1.631317E+02  2.265234E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.911632E+02
  P =   2.174789E+02 -1.237404E+02 -1.488866E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.211752E+02
  P =   7.072352E+01 -6.541670E+01 -7.350005E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.067288E+02
  P =   1.034244E+02  2.602541E+01 -4.136720E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   2.954781E+02
  P =  -2.055935E+02  2.056972E+02  5.222350E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.602585E+02
  P =   1.909608E+02 -1.144654E+02 -1.347818E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.040225E+02
  P =   1.835745E+02 -3.895542E+01 -8.005021E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.402409E+02
  P =  -1.689418E+02 -5.227643E+01  1.626085E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   4.761551E+02
  P =  -3.906629E+02  1.572961E+02  2.221803E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   1.573212E+02
  P =   5.129860E+01 -1.016863E+02 -1.085279E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.303109E+02
  P =   2.048690E+02 -4.894423E+01 -9.314654E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.362128E+02
  P =   1.344954E+02 -6.665601E+00 -2.050578E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  1.47495E-06
 sqme_ref* =>  4.20377E-06
 event_index* => 3
 event_weight* =>  6.12134E+01
 event_weight_ref* =>  1.74465E+02
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-1| 4.7615510E+02;-3.9066295E+02, 1.5729612E+02, 2.2218027E+02| 0.0000000E+00| 3)
  4 prt(o:1| 1.5732121E+02; 5.1298603E+01,-1.0168629E+02,-1.0852795E+02| 0.0000000E+00| 4)
  5 prt(o:21| 2.3031092E+02; 2.0486899E+02,-4.8944226E+01,-9.3146540E+01| 0.0000000E+00| 5)
  6 prt(o:21| 1.3621277E+02; 1.3449536E+02,-6.6656014E+00,-2.0505783E+01| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #4
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  1.39149E-04
    Squared matrix el. (prc) =  1.02978E-04
    Event weight (ref)       =  4.47399E+02
    Event weight (prc)       =  3.31100E+02
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3904717424.0,          428371300.0,         2138618469.0,
            1125469886.0,         3340714319.0,         3263928336.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.928933E+02
  P =   2.057288E+01 -4.395149E+02 -2.221423E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.001453E+02
  P =  -6.445467E+01  3.522224E+02  1.786090E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.069614E+02
  P =   4.388179E+01  8.729249E+01  4.353333E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3820322671.0,         2196113481.0,         3143668624.0,
             175143050.0,         2601236033.0,         2067774727.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   4.554783E+02
  P =   1.449881E+01 -4.063222E+02 -2.053106E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.874736E+02
  P =  -7.601695E+01  2.764565E+02  2.084045E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.144050E+02
  P =   4.246400E+01  9.504024E+01  4.746214E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.426432E+02
  P =   1.905415E+01  3.482555E+01  1.370080E+02
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  5.364502793E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.928933E+02
  P =   2.057288E+01 -4.395149E+02 -2.221423E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   4.001453E+02
  P =  -6.445467E+01  3.522224E+02  1.786090E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.069614E+02
  P =   4.388179E+01  8.729249E+01  4.353333E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.841175E+02
  P =   2.460916E+01 -4.314857E+02 -2.181381E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.069478E+02
  P =  -6.112036E+01  3.588553E+02  1.819169E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   7.080523E+01
  P =   2.581897E+01  6.592953E+01  2.403244E-01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   3.812944E+01
  P =   1.069223E+01  6.700911E+00  3.598094E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.639240E+02
  P =   4.218642E+01 -2.378765E+02 -2.721686E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.624334E+02
  P =  -6.286800E+01  3.183252E+02  1.614765E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.793664E+01
  P =   4.430811E+01  7.818462E+01  3.892997E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.757059E+02
  P =  -2.362653E+01 -1.586333E+02  7.176219E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   4.554783E+02
  P =   1.449881E+01 -4.063222E+02 -2.053106E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.874736E+02
  P =  -7.601695E+01  2.764565E+02  2.084045E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.144050E+02
  P =   4.246400E+01  9.504024E+01  4.746214E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.426432E+02
  P =   1.905415E+01  3.482555E+01  1.370080E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 3
 n_tot* => 5
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  1.02978E-04
 sqme_ref* =>  1.39149E-04
 event_index* => 4
 event_weight* =>  3.31100E+02
 event_weight_ref* =>  4.47399E+02
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-3| 4.9289334E+02; 2.0572876E+01,-4.3951493E+02,-2.2214235E+02| 0.0000000E+00| 3)
  4 prt(o:3| 4.0014527E+02;-6.4454666E+01, 3.5222244E+02, 1.7860902E+02| 0.0000000E+00| 4)
  5 prt(o:21| 1.0696140E+02; 4.3881791E+01, 8.7292491E+01, 4.3533325E+01| 0.0000000E+00| 5)
 ========================================================================
 ========================================================================
  Event #4
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  1.39149E-04
    Squared matrix el. (prc) =  2.54470E-05
    Event weight (ref)       =  4.47399E+02
    Event weight (prc)       =  8.18183E+01
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3904717424.0,          428371300.0,         2138618469.0,
            1125469886.0,         3340714319.0,         3263928336.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.928933E+02
  P =   2.057288E+01 -4.395149E+02 -2.221423E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.001453E+02
  P =  -6.445467E+01  3.522224E+02  1.786090E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.069614E+02
  P =   4.388179E+01  8.729249E+01  4.353333E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3820322671.0,         2196113481.0,         3143668624.0,
             175143050.0,         2601236033.0,         2067774727.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   4.554783E+02
  P =   1.449881E+01 -4.063222E+02 -2.053106E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.874736E+02
  P =  -7.601695E+01  2.764565E+02  2.084045E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.144050E+02
  P =   4.246400E+01  9.504024E+01  4.746214E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.426432E+02
  P =   1.905415E+01  3.482555E+01  1.370080E+02
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  5.364502793E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.928933E+02
  P =   2.057288E+01 -4.395149E+02 -2.221423E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   4.001453E+02
  P =  -6.445467E+01  3.522224E+02  1.786090E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.069614E+02
  P =   4.388179E+01  8.729249E+01  4.353333E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.841175E+02
  P =   2.460916E+01 -4.314857E+02 -2.181381E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.069478E+02
  P =  -6.112036E+01  3.588553E+02  1.819169E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   7.080523E+01
  P =   2.581897E+01  6.592953E+01  2.403244E-01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   3.812944E+01
  P =   1.069223E+01  6.700911E+00  3.598094E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.639240E+02
  P =   4.218642E+01 -2.378765E+02 -2.721686E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.624334E+02
  P =  -6.286800E+01  3.183252E+02  1.614765E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.793664E+01
  P =   4.430811E+01  7.818462E+01  3.892997E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.757059E+02
  P =  -2.362653E+01 -1.586333E+02  7.176219E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   4.554783E+02
  P =   1.449881E+01 -4.063222E+02 -2.053106E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.874736E+02
  P =  -7.601695E+01  2.764565E+02  2.084045E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.144050E+02
  P =   4.246400E+01  9.504024E+01  4.746214E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.426432E+02
  P =   1.905415E+01  3.482555E+01  1.370080E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  2.54470E-05
 sqme_ref* =>  1.39149E-04
 event_index* => 4
 event_weight* =>  8.18183E+01
 event_weight_ref* =>  4.47399E+02
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-2| 4.8411750E+02; 2.4609157E+01,-4.3148570E+02,-2.1813812E+02| 0.0000000E+00| 3)
  4 prt(o:2| 4.0694783E+02;-6.1120359E+01, 3.5885526E+02, 1.8191685E+02| 0.0000000E+00| 4)
  5 prt(o:21| 7.0805226E+01; 2.5818974E+01, 6.5929529E+01, 2.4032436E-01| 0.0000000E+00| 5)
  6 prt(o:21| 3.8129439E+01; 1.0692228E+01, 6.7009111E+00, 3.5980942E+01| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #4
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  1.39149E-04
    Squared matrix el. (prc) =  5.35942E-06
    Event weight (ref)       =  4.47399E+02
    Event weight (prc)       =  1.72319E+01
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3904717424.0,          428371300.0,         2138618469.0,
            1125469886.0,         3340714319.0,         3263928336.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.928933E+02
  P =   2.057288E+01 -4.395149E+02 -2.221423E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.001453E+02
  P =  -6.445467E+01  3.522224E+02  1.786090E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.069614E+02
  P =   4.388179E+01  8.729249E+01  4.353333E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3820322671.0,         2196113481.0,         3143668624.0,
             175143050.0,         2601236033.0,         2067774727.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   4.554783E+02
  P =   1.449881E+01 -4.063222E+02 -2.053106E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.874736E+02
  P =  -7.601695E+01  2.764565E+02  2.084045E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.144050E+02
  P =   4.246400E+01  9.504024E+01  4.746214E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.426432E+02
  P =   1.905415E+01  3.482555E+01  1.370080E+02
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  5.364502793E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.928933E+02
  P =   2.057288E+01 -4.395149E+02 -2.221423E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   4.001453E+02
  P =  -6.445467E+01  3.522224E+02  1.786090E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.069614E+02
  P =   4.388179E+01  8.729249E+01  4.353333E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.841175E+02
  P =   2.460916E+01 -4.314857E+02 -2.181381E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.069478E+02
  P =  -6.112036E+01  3.588553E+02  1.819169E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   7.080523E+01
  P =   2.581897E+01  6.592953E+01  2.403244E-01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   3.812944E+01
  P =   1.069223E+01  6.700911E+00  3.598094E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.639240E+02
  P =   4.218642E+01 -2.378765E+02 -2.721686E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.624334E+02
  P =  -6.286800E+01  3.183252E+02  1.614765E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.793664E+01
  P =   4.430811E+01  7.818462E+01  3.892997E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.757059E+02
  P =  -2.362653E+01 -1.586333E+02  7.176219E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   4.554783E+02
  P =   1.449881E+01 -4.063222E+02 -2.053106E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.874736E+02
  P =  -7.601695E+01  2.764565E+02  2.084045E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.144050E+02
  P =   4.246400E+01  9.504024E+01  4.746214E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.426432E+02
  P =   1.905415E+01  3.482555E+01  1.370080E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  5.35942E-06
 sqme_ref* =>  1.39149E-04
 event_index* => 4
 event_weight* =>  1.72319E+01
 event_weight_ref* =>  4.47399E+02
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-2| 3.6392404E+02; 4.2186418E+01,-2.3787653E+02,-2.7216865E+02| 0.0000000E+00| 3)
  4 prt(o:2| 3.6243344E+02;-6.2868001E+01, 3.1832523E+02, 1.6147649E+02| 0.0000000E+00| 4)
  5 prt(o:21| 9.7936640E+01; 4.4308113E+01, 7.8184617E+01, 3.8929967E+01| 0.0000000E+00| 5)
  6 prt(o:21| 1.7570588E+02;-2.3626530E+01,-1.5863332E+02, 7.1762189E+01| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #4
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  1.39149E-04
    Squared matrix el. (prc) =  5.36450E-06
    Event weight (ref)       =  4.47399E+02
    Event weight (prc)       =  1.72482E+01
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3904717424.0,          428371300.0,         2138618469.0,
            1125469886.0,         3340714319.0,         3263928336.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.928933E+02
  P =   2.057288E+01 -4.395149E+02 -2.221423E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.001453E+02
  P =  -6.445467E+01  3.522224E+02  1.786090E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.069614E+02
  P =   4.388179E+01  8.729249E+01  4.353333E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3820322671.0,         2196113481.0,         3143668624.0,
             175143050.0,         2601236033.0,         2067774727.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   4.554783E+02
  P =   1.449881E+01 -4.063222E+02 -2.053106E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.874736E+02
  P =  -7.601695E+01  2.764565E+02  2.084045E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.144050E+02
  P =   4.246400E+01  9.504024E+01  4.746214E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.426432E+02
  P =   1.905415E+01  3.482555E+01  1.370080E+02
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  5.364502793E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.928933E+02
  P =   2.057288E+01 -4.395149E+02 -2.221423E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   4.001453E+02
  P =  -6.445467E+01  3.522224E+02  1.786090E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.069614E+02
  P =   4.388179E+01  8.729249E+01  4.353333E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.841175E+02
  P =   2.460916E+01 -4.314857E+02 -2.181381E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.069478E+02
  P =  -6.112036E+01  3.588553E+02  1.819169E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   7.080523E+01
  P =   2.581897E+01  6.592953E+01  2.403244E-01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   3.812944E+01
  P =   1.069223E+01  6.700911E+00  3.598094E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.639240E+02
  P =   4.218642E+01 -2.378765E+02 -2.721686E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.624334E+02
  P =  -6.286800E+01  3.183252E+02  1.614765E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.793664E+01
  P =   4.430811E+01  7.818462E+01  3.892997E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.757059E+02
  P =  -2.362653E+01 -1.586333E+02  7.176219E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   4.554783E+02
  P =   1.449881E+01 -4.063222E+02 -2.053106E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.874736E+02
  P =  -7.601695E+01  2.764565E+02  2.084045E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.144050E+02
  P =   4.246400E+01  9.504024E+01  4.746214E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.426432E+02
  P =   1.905415E+01  3.482555E+01  1.370080E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  5.36450E-06
 sqme_ref* =>  1.39149E-04
 event_index* => 4
 event_weight* =>  1.72482E+01
 event_weight_ref* =>  4.47399E+02
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-1| 4.5547825E+02; 1.4498807E+01,-4.0632225E+02,-2.0531062E+02| 0.0000000E+00| 3)
  4 prt(o:1| 2.8747361E+02;-7.6016951E+01, 2.7645647E+02, 2.0840453E+01| 0.0000000E+00| 4)
  5 prt(o:21| 1.1440495E+02; 4.2463998E+01, 9.5040237E+01, 4.7462142E+01| 0.0000000E+00| 5)
  6 prt(o:21| 1.4264319E+02; 1.9054145E+01, 3.4825546E+01, 1.3700803E+02| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #5
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  4.22152E-05
    Squared matrix el. (prc) =  0.00000E+00
    Event weight (ref)       =  3.48799E+00
    Event weight (prc)       =  0.00000E+00
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            2521457625.0,          484146147.0,         3618491698.0,
             461169559.0,         2286753282.0,         1064694027.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.027236E+02
  P =  -2.209138E+02  2.643626E+02 -2.085565E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   4.982950E+02
  P =   2.502364E+02 -3.439787E+02  2.595348E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.898139E+01
  P =  -2.932266E+01  7.961603E+01 -5.097827E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            2874489411.0,         1536154006.0,          964092590.0,
            1871199702.0,           55084237.0,         1682756482.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.538701E+02
  P =  -1.963340E+02  2.305749E+02 -1.830634E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.444961E+02
  P =   1.790441E+02 -9.743470E+01  2.777180E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   8.730947E+01
  P =  -2.327054E+01  7.129671E+01 -4.470128E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.143244E+02
  P =   4.056050E+01 -2.044369E+02 -4.995329E+01
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  4.118813972E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.027236E+02
  P =  -2.209138E+02  2.643626E+02 -2.085565E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   4.982950E+02
  P =   2.502364E+02 -3.439787E+02  2.595348E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.898139E+01
  P =  -2.932266E+01  7.961603E+01 -5.097827E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.117043E+02
  P =  -2.236904E+02  2.719015E+02 -2.133837E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.872745E+02
  P =   2.468764E+02 -3.348556E+02  2.536933E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   5.844777E+01
  P =  -3.481486E+01  4.687296E+01 -2.644420E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   4.257342E+01
  P =   1.162882E+01  1.608110E+01 -3.766517E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.674881E+02
  P =  -2.184253E+02  1.525341E+02 -2.394976E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   4.501341E+02
  P =   2.237694E+02 -3.123061E+02  2.345482E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.091602E+02
  P =  -3.513110E+01  8.656687E+01 -5.646181E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.732176E+02
  P =   2.978705E+01  7.320510E+01 -1.541366E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.538701E+02
  P =  -1.963340E+02  2.305749E+02 -1.830634E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.444961E+02
  P =   1.790441E+02 -9.743470E+01  2.777180E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   8.730947E+01
  P =  -2.327054E+01  7.129671E+01 -4.470128E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.143244E+02
  P =   4.056050E+01 -2.044369E+02 -4.995329E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 3
 n_tot* => 5
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  0.00000E+00
 sqme_ref* =>  4.22152E-05
 event_index* => 5
 event_weight* =>  0.00000E+00
 event_weight_ref* =>  3.48799E+00
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-3| 4.0272362E+02;-2.2091379E+02, 2.6436262E+02,-2.0855651E+02| 0.0000000E+00| 3)
  4 prt(o:3| 4.9829499E+02; 2.5023645E+02,-3.4397865E+02, 2.5953479E+02| 0.0000000E+00| 4)
  5 prt(o:21| 9.8981388E+01;-2.9322655E+01, 7.9616032E+01,-5.0978274E+01| 0.0000000E+00| 5)
 ========================================================================
 ========================================================================
  Event #5
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  4.22152E-05
    Squared matrix el. (prc) =  3.28607E-05
    Event weight (ref)       =  3.48799E+00
    Event weight (prc)       =  2.71508E+00
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            2521457625.0,          484146147.0,         3618491698.0,
             461169559.0,         2286753282.0,         1064694027.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.027236E+02
  P =  -2.209138E+02  2.643626E+02 -2.085565E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   4.982950E+02
  P =   2.502364E+02 -3.439787E+02  2.595348E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.898139E+01
  P =  -2.932266E+01  7.961603E+01 -5.097827E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            2874489411.0,         1536154006.0,          964092590.0,
            1871199702.0,           55084237.0,         1682756482.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.538701E+02
  P =  -1.963340E+02  2.305749E+02 -1.830634E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.444961E+02
  P =   1.790441E+02 -9.743470E+01  2.777180E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   8.730947E+01
  P =  -2.327054E+01  7.129671E+01 -4.470128E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.143244E+02
  P =   4.056050E+01 -2.044369E+02 -4.995329E+01
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  4.118813972E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.027236E+02
  P =  -2.209138E+02  2.643626E+02 -2.085565E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   4.982950E+02
  P =   2.502364E+02 -3.439787E+02  2.595348E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.898139E+01
  P =  -2.932266E+01  7.961603E+01 -5.097827E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.117043E+02
  P =  -2.236904E+02  2.719015E+02 -2.133837E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.872745E+02
  P =   2.468764E+02 -3.348556E+02  2.536933E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   5.844777E+01
  P =  -3.481486E+01  4.687296E+01 -2.644420E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   4.257342E+01
  P =   1.162882E+01  1.608110E+01 -3.766517E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.674881E+02
  P =  -2.184253E+02  1.525341E+02 -2.394976E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   4.501341E+02
  P =   2.237694E+02 -3.123061E+02  2.345482E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.091602E+02
  P =  -3.513110E+01  8.656687E+01 -5.646181E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.732176E+02
  P =   2.978705E+01  7.320510E+01 -1.541366E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.538701E+02
  P =  -1.963340E+02  2.305749E+02 -1.830634E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.444961E+02
  P =   1.790441E+02 -9.743470E+01  2.777180E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   8.730947E+01
  P =  -2.327054E+01  7.129671E+01 -4.470128E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.143244E+02
  P =   4.056050E+01 -2.044369E+02 -4.995329E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  3.28607E-05
 sqme_ref* =>  4.22152E-05
 event_index* => 5
 event_weight* =>  2.71508E+00
 event_weight_ref* =>  3.48799E+00
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-2| 4.1170426E+02;-2.2369037E+02, 2.7190150E+02,-2.1338367E+02| 0.0000000E+00| 3)
  4 prt(o:2| 4.8727455E+02; 2.4687641E+02,-3.3485557E+02, 2.5369326E+02| 0.0000000E+00| 4)
  5 prt(o:-2| 5.8447770E+01;-3.4814856E+01, 4.6872962E+01,-2.6444201E+00| 0.0000000E+00| 5)
  6 prt(o:2| 4.2573423E+01; 1.1628818E+01, 1.6081104E+01,-3.7665171E+01| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #5
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  4.22152E-05
    Squared matrix el. (prc) =  5.23572E-06
    Event weight (ref)       =  3.48799E+00
    Event weight (prc)       =  4.32596E-01
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            2521457625.0,          484146147.0,         3618491698.0,
             461169559.0,         2286753282.0,         1064694027.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.027236E+02
  P =  -2.209138E+02  2.643626E+02 -2.085565E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   4.982950E+02
  P =   2.502364E+02 -3.439787E+02  2.595348E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.898139E+01
  P =  -2.932266E+01  7.961603E+01 -5.097827E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            2874489411.0,         1536154006.0,          964092590.0,
            1871199702.0,           55084237.0,         1682756482.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.538701E+02
  P =  -1.963340E+02  2.305749E+02 -1.830634E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.444961E+02
  P =   1.790441E+02 -9.743470E+01  2.777180E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   8.730947E+01
  P =  -2.327054E+01  7.129671E+01 -4.470128E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.143244E+02
  P =   4.056050E+01 -2.044369E+02 -4.995329E+01
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  4.118813972E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.027236E+02
  P =  -2.209138E+02  2.643626E+02 -2.085565E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   4.982950E+02
  P =   2.502364E+02 -3.439787E+02  2.595348E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.898139E+01
  P =  -2.932266E+01  7.961603E+01 -5.097827E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.117043E+02
  P =  -2.236904E+02  2.719015E+02 -2.133837E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.872745E+02
  P =   2.468764E+02 -3.348556E+02  2.536933E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   5.844777E+01
  P =  -3.481486E+01  4.687296E+01 -2.644420E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   4.257342E+01
  P =   1.162882E+01  1.608110E+01 -3.766517E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.674881E+02
  P =  -2.184253E+02  1.525341E+02 -2.394976E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   4.501341E+02
  P =   2.237694E+02 -3.123061E+02  2.345482E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.091602E+02
  P =  -3.513110E+01  8.656687E+01 -5.646181E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.732176E+02
  P =   2.978705E+01  7.320510E+01 -1.541366E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.538701E+02
  P =  -1.963340E+02  2.305749E+02 -1.830634E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.444961E+02
  P =   1.790441E+02 -9.743470E+01  2.777180E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   8.730947E+01
  P =  -2.327054E+01  7.129671E+01 -4.470128E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.143244E+02
  P =   4.056050E+01 -2.044369E+02 -4.995329E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  5.23572E-06
 sqme_ref* =>  4.22152E-05
 event_index* => 5
 event_weight* =>  4.32596E-01
 event_weight_ref* =>  3.48799E+00
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-1| 2.6748806E+02;-2.1842531E+02, 1.5253412E+02,-2.3949757E+01| 0.0000000E+00| 3)
  4 prt(o:1| 4.5013407E+02; 2.2376937E+02,-3.1230609E+02, 2.3454820E+02| 0.0000000E+00| 4)
  5 prt(o:21| 1.0916022E+02;-3.5131103E+01, 8.6566872E+01,-5.6461814E+01| 0.0000000E+00| 5)
  6 prt(o:21| 1.7321765E+02; 2.9787047E+01, 7.3205099E+01,-1.5413663E+02| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #5
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  4.22152E-05
    Squared matrix el. (prc) =  4.11881E-06
    Event weight (ref)       =  3.48799E+00
    Event weight (prc)       =  3.40313E-01
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            2521457625.0,          484146147.0,         3618491698.0,
             461169559.0,         2286753282.0,         1064694027.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.027236E+02
  P =  -2.209138E+02  2.643626E+02 -2.085565E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   4.982950E+02
  P =   2.502364E+02 -3.439787E+02  2.595348E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.898139E+01
  P =  -2.932266E+01  7.961603E+01 -5.097827E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            2874489411.0,         1536154006.0,          964092590.0,
            1871199702.0,           55084237.0,         1682756482.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.538701E+02
  P =  -1.963340E+02  2.305749E+02 -1.830634E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.444961E+02
  P =   1.790441E+02 -9.743470E+01  2.777180E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   8.730947E+01
  P =  -2.327054E+01  7.129671E+01 -4.470128E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.143244E+02
  P =   4.056050E+01 -2.044369E+02 -4.995329E+01
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  4.118813972E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.027236E+02
  P =  -2.209138E+02  2.643626E+02 -2.085565E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   4.982950E+02
  P =   2.502364E+02 -3.439787E+02  2.595348E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   9.898139E+01
  P =  -2.932266E+01  7.961603E+01 -5.097827E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.117043E+02
  P =  -2.236904E+02  2.719015E+02 -2.133837E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.872745E+02
  P =   2.468764E+02 -3.348556E+02  2.536933E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   5.844777E+01
  P =  -3.481486E+01  4.687296E+01 -2.644420E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   4.257342E+01
  P =   1.162882E+01  1.608110E+01 -3.766517E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.674881E+02
  P =  -2.184253E+02  1.525341E+02 -2.394976E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   4.501341E+02
  P =   2.237694E+02 -3.123061E+02  2.345482E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.091602E+02
  P =  -3.513110E+01  8.656687E+01 -5.646181E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.732176E+02
  P =   2.978705E+01  7.320510E+01 -1.541366E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.538701E+02
  P =  -1.963340E+02  2.305749E+02 -1.830634E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.444961E+02
  P =   1.790441E+02 -9.743470E+01  2.777180E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   8.730947E+01
  P =  -2.327054E+01  7.129671E+01 -4.470128E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.143244E+02
  P =   4.056050E+01 -2.044369E+02 -4.995329E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  4.11881E-06
 sqme_ref* =>  4.22152E-05
 event_index* => 5
 event_weight* =>  3.40313E-01
 event_weight_ref* =>  3.48799E+00
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-2| 3.5387007E+02;-1.9633401E+02, 2.3057489E+02,-1.8306339E+02| 0.0000000E+00| 3)
  4 prt(o:2| 3.4449609E+02; 1.7904405E+02,-9.7434696E+01, 2.7771795E+02| 0.0000000E+00| 4)
  5 prt(o:21| 8.7309471E+01;-2.3270544E+01, 7.1296713E+01,-4.4701278E+01| 0.0000000E+00| 5)
  6 prt(o:21| 2.1432437E+02; 4.0560501E+01,-2.0443691E+02,-4.9953287E+01| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #6
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  1.60250E-05
    Squared matrix el. (prc) =  1.08607E-05
    Event weight (ref)       =  2.07739E+02
    Event weight (prc)       =  1.40792E+02
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            4125922664.0,         1099593662.0,          947678322.0,
            1549828072.0,         1211032067.0,         3439727021.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   4.316673E+02
  P =  -5.171632E+01  3.335645E+02 -2.690666E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.550626E+02
  P =  -1.282022E+01 -1.386158E+02  3.266355E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.132701E+02
  P =   6.453654E+01 -1.949487E+02 -5.756894E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            2642801743.0,         4156652070.0,         1063163963.0,
            1965590681.0,         3112607032.0,          766456187.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.707604E+02
  P =  -5.431190E+01  3.055004E+02 -2.029360E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.045879E+02
  P =  -7.779591E+01 -1.816348E+02  5.303573E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.204811E+02
  P =   6.313350E+01 -2.101187E+02 -2.182215E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.041706E+02
  P =   6.897430E+01  8.625318E+01  1.717224E+02
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  5.005716552E-07
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.316673E+02
  P =  -5.171632E+01  3.335645E+02 -2.690666E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   3.550626E+02
  P =  -1.282022E+01 -1.386158E+02  3.266355E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.132701E+02
  P =   6.453654E+01 -1.949487E+02 -5.756894E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   4.096930E+02
  P =  -3.942699E+01  2.964415E+02 -2.800291E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.600747E+02
  P =  -2.374567E+00 -1.701695E+02  3.173176E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.075962E+02
  P =  -2.231974E+01 -4.055609E+01 -9.712870E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.226361E+02
  P =   6.412130E+01 -8.571592E+01  5.984019E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.694121E+02
  P =   7.342935E+01  2.681758E+01 -2.578213E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.920745E+02
  P =  -2.180837E+01 -8.064326E+01  2.798725E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.902929E+02
  P =   5.893141E+01 -1.587962E+02 -8.673096E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.482204E+02
  P =  -1.105524E+02  2.126219E+02  6.467979E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.707604E+02
  P =  -5.431190E+01  3.055004E+02 -2.029360E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.045879E+02
  P =  -7.779591E+01 -1.816348E+02  5.303573E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.204811E+02
  P =   6.313350E+01 -2.101187E+02 -2.182215E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.041706E+02
  P =   6.897430E+01  8.625318E+01  1.717224E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 3
 n_tot* => 5
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  1.08607E-05
 sqme_ref* =>  1.60250E-05
 event_index* => 6
 event_weight* =>  1.40792E+02
 event_weight_ref* =>  2.07739E+02
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-3| 4.3166731E+02;-5.1716319E+01, 3.3356450E+02,-2.6906656E+02| 0.0000000E+00| 3)
  4 prt(o:3| 3.5506262E+02;-1.2820216E+01,-1.3861585E+02, 3.2663550E+02| 0.0000000E+00| 4)
  5 prt(o:21| 2.1327007E+02; 6.4536535E+01,-1.9494865E+02,-5.7568938E+01| 0.0000000E+00| 5)
 ========================================================================
 ========================================================================
  Event #6
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  1.60250E-05
    Squared matrix el. (prc) =  3.96155E-06
    Event weight (ref)       =  2.07739E+02
    Event weight (prc)       =  5.13554E+01
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            4125922664.0,         1099593662.0,          947678322.0,
            1549828072.0,         1211032067.0,         3439727021.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   4.316673E+02
  P =  -5.171632E+01  3.335645E+02 -2.690666E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.550626E+02
  P =  -1.282022E+01 -1.386158E+02  3.266355E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.132701E+02
  P =   6.453654E+01 -1.949487E+02 -5.756894E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            2642801743.0,         4156652070.0,         1063163963.0,
            1965590681.0,         3112607032.0,          766456187.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.707604E+02
  P =  -5.431190E+01  3.055004E+02 -2.029360E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.045879E+02
  P =  -7.779591E+01 -1.816348E+02  5.303573E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.204811E+02
  P =   6.313350E+01 -2.101187E+02 -2.182215E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.041706E+02
  P =   6.897430E+01  8.625318E+01  1.717224E+02
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  5.005716552E-07
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.316673E+02
  P =  -5.171632E+01  3.335645E+02 -2.690666E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   3.550626E+02
  P =  -1.282022E+01 -1.386158E+02  3.266355E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.132701E+02
  P =   6.453654E+01 -1.949487E+02 -5.756894E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   4.096930E+02
  P =  -3.942699E+01  2.964415E+02 -2.800291E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.600747E+02
  P =  -2.374567E+00 -1.701695E+02  3.173176E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.075962E+02
  P =  -2.231974E+01 -4.055609E+01 -9.712870E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.226361E+02
  P =   6.412130E+01 -8.571592E+01  5.984019E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.694121E+02
  P =   7.342935E+01  2.681758E+01 -2.578213E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.920745E+02
  P =  -2.180837E+01 -8.064326E+01  2.798725E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.902929E+02
  P =   5.893141E+01 -1.587962E+02 -8.673096E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.482204E+02
  P =  -1.105524E+02  2.126219E+02  6.467979E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.707604E+02
  P =  -5.431190E+01  3.055004E+02 -2.029360E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.045879E+02
  P =  -7.779591E+01 -1.816348E+02  5.303573E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.204811E+02
  P =   6.313350E+01 -2.101187E+02 -2.182215E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.041706E+02
  P =   6.897430E+01  8.625318E+01  1.717224E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  3.96155E-06
 sqme_ref* =>  1.60250E-05
 event_index* => 6
 event_weight* =>  5.13554E+01
 event_weight_ref* =>  2.07739E+02
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-1| 4.0969301E+02;-3.9426994E+01, 2.9644154E+02,-2.8002909E+02| 0.0000000E+00| 3)
  4 prt(o:1| 3.6007467E+02;-2.3745672E+00,-1.7016953E+02, 3.1731760E+02| 0.0000000E+00| 4)
  5 prt(o:21| 1.0759625E+02;-2.2319737E+01,-4.0556093E+01,-9.7128701E+01| 0.0000000E+00| 5)
  6 prt(o:21| 1.2263608E+02; 6.4121298E+01,-8.5715916E+01, 5.9840188E+01| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #6
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  1.60250E-05
    Squared matrix el. (prc) =  7.02165E-07
    Event weight (ref)       =  2.07739E+02
    Event weight (prc)       =  9.10249E+00
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            4125922664.0,         1099593662.0,          947678322.0,
            1549828072.0,         1211032067.0,         3439727021.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   4.316673E+02
  P =  -5.171632E+01  3.335645E+02 -2.690666E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.550626E+02
  P =  -1.282022E+01 -1.386158E+02  3.266355E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.132701E+02
  P =   6.453654E+01 -1.949487E+02 -5.756894E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            2642801743.0,         4156652070.0,         1063163963.0,
            1965590681.0,         3112607032.0,          766456187.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.707604E+02
  P =  -5.431190E+01  3.055004E+02 -2.029360E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.045879E+02
  P =  -7.779591E+01 -1.816348E+02  5.303573E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.204811E+02
  P =   6.313350E+01 -2.101187E+02 -2.182215E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.041706E+02
  P =   6.897430E+01  8.625318E+01  1.717224E+02
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  5.005716552E-07
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.316673E+02
  P =  -5.171632E+01  3.335645E+02 -2.690666E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   3.550626E+02
  P =  -1.282022E+01 -1.386158E+02  3.266355E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.132701E+02
  P =   6.453654E+01 -1.949487E+02 -5.756894E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   4.096930E+02
  P =  -3.942699E+01  2.964415E+02 -2.800291E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.600747E+02
  P =  -2.374567E+00 -1.701695E+02  3.173176E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.075962E+02
  P =  -2.231974E+01 -4.055609E+01 -9.712870E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.226361E+02
  P =   6.412130E+01 -8.571592E+01  5.984019E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.694121E+02
  P =   7.342935E+01  2.681758E+01 -2.578213E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.920745E+02
  P =  -2.180837E+01 -8.064326E+01  2.798725E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.902929E+02
  P =   5.893141E+01 -1.587962E+02 -8.673096E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.482204E+02
  P =  -1.105524E+02  2.126219E+02  6.467979E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.707604E+02
  P =  -5.431190E+01  3.055004E+02 -2.029360E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.045879E+02
  P =  -7.779591E+01 -1.816348E+02  5.303573E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.204811E+02
  P =   6.313350E+01 -2.101187E+02 -2.182215E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.041706E+02
  P =   6.897430E+01  8.625318E+01  1.717224E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  7.02165E-07
 sqme_ref* =>  1.60250E-05
 event_index* => 6
 event_weight* =>  9.10249E+00
 event_weight_ref* =>  2.07739E+02
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-1| 2.6941209E+02; 7.3429349E+01, 2.6817576E+01,-2.5782130E+02| 0.0000000E+00| 3)
  4 prt(o:1| 2.9207455E+02;-2.1808369E+01,-8.0643262E+01, 2.7987247E+02| 0.0000000E+00| 4)
  5 prt(o:21| 1.9029294E+02; 5.8931408E+01,-1.5879620E+02,-8.6730958E+01| 0.0000000E+00| 5)
  6 prt(o:21| 2.4822041E+02;-1.1055239E+02, 2.1262189E+02, 6.4679788E+01| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #6
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  1.60250E-05
    Squared matrix el. (prc) =  5.00572E-07
    Event weight (ref)       =  2.07739E+02
    Event weight (prc)       =  6.48914E+00
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            4125922664.0,         1099593662.0,          947678322.0,
            1549828072.0,         1211032067.0,         3439727021.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   4.316673E+02
  P =  -5.171632E+01  3.335645E+02 -2.690666E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.550626E+02
  P =  -1.282022E+01 -1.386158E+02  3.266355E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.132701E+02
  P =   6.453654E+01 -1.949487E+02 -5.756894E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            2642801743.0,         4156652070.0,         1063163963.0,
            1965590681.0,         3112607032.0,          766456187.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.707604E+02
  P =  -5.431190E+01  3.055004E+02 -2.029360E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.045879E+02
  P =  -7.779591E+01 -1.816348E+02  5.303573E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.204811E+02
  P =   6.313350E+01 -2.101187E+02 -2.182215E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.041706E+02
  P =   6.897430E+01  8.625318E+01  1.717224E+02
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  5.005716552E-07
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.316673E+02
  P =  -5.171632E+01  3.335645E+02 -2.690666E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   3.550626E+02
  P =  -1.282022E+01 -1.386158E+02  3.266355E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.132701E+02
  P =   6.453654E+01 -1.949487E+02 -5.756894E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   4.096930E+02
  P =  -3.942699E+01  2.964415E+02 -2.800291E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.600747E+02
  P =  -2.374567E+00 -1.701695E+02  3.173176E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.075962E+02
  P =  -2.231974E+01 -4.055609E+01 -9.712870E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.226361E+02
  P =   6.412130E+01 -8.571592E+01  5.984019E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   2.694121E+02
  P =   7.342935E+01  2.681758E+01 -2.578213E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   2.920745E+02
  P =  -2.180837E+01 -8.064326E+01  2.798725E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.902929E+02
  P =   5.893141E+01 -1.587962E+02 -8.673096E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.482204E+02
  P =  -1.105524E+02  2.126219E+02  6.467979E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.707604E+02
  P =  -5.431190E+01  3.055004E+02 -2.029360E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   2.045879E+02
  P =  -7.779591E+01 -1.816348E+02  5.303573E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   2.204811E+02
  P =   6.313350E+01 -2.101187E+02 -2.182215E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.041706E+02
  P =   6.897430E+01  8.625318E+01  1.717224E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  5.00572E-07
 sqme_ref* =>  1.60250E-05
 event_index* => 6
 event_weight* =>  6.48914E+00
 event_weight_ref* =>  2.07739E+02
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-2| 3.7076038E+02;-5.4311898E+01, 3.0550035E+02,-2.0293598E+02| 0.0000000E+00| 3)
  4 prt(o:2| 2.0458790E+02;-7.7795905E+01,-1.8163485E+02, 5.3035729E+01| 0.0000000E+00| 4)
  5 prt(o:21| 2.2048108E+02; 6.3133498E+01,-2.1011869E+02,-2.1822146E+01| 0.0000000E+00| 5)
  6 prt(o:21| 2.0417063E+02; 6.8974305E+01, 8.6253180E+01, 1.7172240E+02| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #7
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  8.83381E-06
    Squared matrix el. (prc) =  0.00000E+00
    Event weight (ref)       =  8.09975E+00
    Event weight (prc)       =  0.00000E+00
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3576035536.0,         2293616308.0,         1936885241.0,
            2020414557.0,         2733429172.0,         2006815896.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   4.788800E+02
  P =   2.318819E+01  3.522619E+02 -3.235737E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   4.881018E+02
  P =  -3.890378E+01 -3.387347E+02  3.492687E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.301821E+01
  P =   1.571559E+01 -1.352725E+01 -2.569505E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            2983838794.0,         1385001890.0,         2744238164.0,
            3397930769.0,         3140992418.0,         2193146513.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   3.942585E+02
  P =   1.642583E+01  2.933822E+02 -2.628628E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.951897E+02
  P =  -2.015810E+02 -2.393911E+02  2.413130E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.163642E+01
  P =   1.521484E+01 -1.788721E+01 -2.119951E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.789153E+02
  P =   1.699403E+02 -3.610389E+01  4.274934E+01
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  4.890297439E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.788800E+02
  P =   2.318819E+01  3.522619E+02 -3.235737E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   4.881018E+02
  P =  -3.890378E+01 -3.387347E+02  3.492687E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.301821E+01
  P =   1.571559E+01 -1.352725E+01 -2.569505E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.802563E+02
  P =   2.577917E+01  3.500317E+02 -3.278099E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.864130E+02
  P =  -3.627126E+01 -3.410006E+02  3.449645E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   2.122778E+01
  P =   4.490275E-01 -1.531885E+01 -1.468842E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   1.210293E+01
  P =   1.004307E+01  6.287739E+00 -2.466200E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   3.856964E+02
  P =   1.851866E+02  2.313995E+02 -2.468237E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   4.035810E+02
  P =  -3.480046E+01 -2.763994E+02  2.920101E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.518752E+01
  P =   1.602945E+01 -8.759162E+00 -3.007483E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.755351E+02
  P =  -1.664156E+02  5.375910E+01 -1.511154E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   3.942585E+02
  P =   1.642583E+01  2.933822E+02 -2.628628E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.951897E+02
  P =  -2.015810E+02 -2.393911E+02  2.413130E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.163642E+01
  P =   1.521484E+01 -1.788721E+01 -2.119951E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.789153E+02
  P =   1.699403E+02 -3.610389E+01  4.274934E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 3
 n_tot* => 5
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  0.00000E+00
 sqme_ref* =>  8.83381E-06
 event_index* => 7
 event_weight* =>  0.00000E+00
 event_weight_ref* =>  8.09975E+00
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-3| 4.7888003E+02; 2.3188191E+01, 3.5226193E+02,-3.2357367E+02| 0.0000000E+00| 3)
  4 prt(o:3| 4.8810176E+02;-3.8903778E+01,-3.3873468E+02, 3.4926872E+02| 0.0000000E+00| 4)
  5 prt(o:21| 3.3018207E+01; 1.5715586E+01,-1.3527250E+01,-2.5695055E+01| 0.0000000E+00| 5)
 ========================================================================
 ========================================================================
  Event #7
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  8.83381E-06
    Squared matrix el. (prc) =  1.55983E-04
    Event weight (ref)       =  8.09975E+00
    Event weight (prc)       =  0.00000E+00
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3576035536.0,         2293616308.0,         1936885241.0,
            2020414557.0,         2733429172.0,         2006815896.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   4.788800E+02
  P =   2.318819E+01  3.522619E+02 -3.235737E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   4.881018E+02
  P =  -3.890378E+01 -3.387347E+02  3.492687E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.301821E+01
  P =   1.571559E+01 -1.352725E+01 -2.569505E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            2983838794.0,         1385001890.0,         2744238164.0,
            3397930769.0,         3140992418.0,         2193146513.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   3.942585E+02
  P =   1.642583E+01  2.933822E+02 -2.628628E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.951897E+02
  P =  -2.015810E+02 -2.393911E+02  2.413130E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.163642E+01
  P =   1.521484E+01 -1.788721E+01 -2.119951E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.789153E+02
  P =   1.699403E+02 -3.610389E+01  4.274934E+01
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  4.890297439E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.788800E+02
  P =   2.318819E+01  3.522619E+02 -3.235737E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   4.881018E+02
  P =  -3.890378E+01 -3.387347E+02  3.492687E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.301821E+01
  P =   1.571559E+01 -1.352725E+01 -2.569505E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.802563E+02
  P =   2.577917E+01  3.500317E+02 -3.278099E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.864130E+02
  P =  -3.627126E+01 -3.410006E+02  3.449645E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   2.122778E+01
  P =   4.490275E-01 -1.531885E+01 -1.468842E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   1.210293E+01
  P =   1.004307E+01  6.287739E+00 -2.466200E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   3.856964E+02
  P =   1.851866E+02  2.313995E+02 -2.468237E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   4.035810E+02
  P =  -3.480046E+01 -2.763994E+02  2.920101E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.518752E+01
  P =   1.602945E+01 -8.759162E+00 -3.007483E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.755351E+02
  P =  -1.664156E+02  5.375910E+01 -1.511154E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   3.942585E+02
  P =   1.642583E+01  2.933822E+02 -2.628628E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.951897E+02
  P =  -2.015810E+02 -2.393911E+02  2.413130E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.163642E+01
  P =   1.521484E+01 -1.788721E+01 -2.119951E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.789153E+02
  P =   1.699403E+02 -3.610389E+01  4.274934E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  1.55983E-04
 sqme_ref* =>  8.83381E-06
 event_index* => 7
 event_weight* =>  0.00000E+00
 event_weight_ref* =>  8.09975E+00
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-2| 4.8025632E+02; 2.5779166E+01, 3.5003174E+02,-3.2780992E+02| 0.0000000E+00| 3)
  4 prt(o:2| 4.8641297E+02;-3.6271261E+01,-3.4100063E+02, 3.4496455E+02| 0.0000000E+00| 4)
  5 prt(o:-2| 2.1227778E+01; 4.4902750E-01,-1.5318850E+01,-1.4688423E+01| 0.0000000E+00| 5)
  6 prt(o:2| 1.2102934E+01; 1.0043068E+01, 6.2877393E+00,-2.4662001E+00| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #7
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  8.83381E-06
    Squared matrix el. (prc) =  3.94352E-06
    Event weight (ref)       =  8.09975E+00
    Event weight (prc)       =  3.61582E+00
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3576035536.0,         2293616308.0,         1936885241.0,
            2020414557.0,         2733429172.0,         2006815896.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   4.788800E+02
  P =   2.318819E+01  3.522619E+02 -3.235737E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   4.881018E+02
  P =  -3.890378E+01 -3.387347E+02  3.492687E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.301821E+01
  P =   1.571559E+01 -1.352725E+01 -2.569505E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            2983838794.0,         1385001890.0,         2744238164.0,
            3397930769.0,         3140992418.0,         2193146513.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   3.942585E+02
  P =   1.642583E+01  2.933822E+02 -2.628628E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.951897E+02
  P =  -2.015810E+02 -2.393911E+02  2.413130E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.163642E+01
  P =   1.521484E+01 -1.788721E+01 -2.119951E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.789153E+02
  P =   1.699403E+02 -3.610389E+01  4.274934E+01
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  4.890297439E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.788800E+02
  P =   2.318819E+01  3.522619E+02 -3.235737E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   4.881018E+02
  P =  -3.890378E+01 -3.387347E+02  3.492687E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.301821E+01
  P =   1.571559E+01 -1.352725E+01 -2.569505E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.802563E+02
  P =   2.577917E+01  3.500317E+02 -3.278099E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.864130E+02
  P =  -3.627126E+01 -3.410006E+02  3.449645E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   2.122778E+01
  P =   4.490275E-01 -1.531885E+01 -1.468842E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   1.210293E+01
  P =   1.004307E+01  6.287739E+00 -2.466200E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   3.856964E+02
  P =   1.851866E+02  2.313995E+02 -2.468237E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   4.035810E+02
  P =  -3.480046E+01 -2.763994E+02  2.920101E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.518752E+01
  P =   1.602945E+01 -8.759162E+00 -3.007483E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.755351E+02
  P =  -1.664156E+02  5.375910E+01 -1.511154E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   3.942585E+02
  P =   1.642583E+01  2.933822E+02 -2.628628E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.951897E+02
  P =  -2.015810E+02 -2.393911E+02  2.413130E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.163642E+01
  P =   1.521484E+01 -1.788721E+01 -2.119951E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.789153E+02
  P =   1.699403E+02 -3.610389E+01  4.274934E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  3.94352E-06
 sqme_ref* =>  8.83381E-06
 event_index* => 7
 event_weight* =>  3.61582E+00
 event_weight_ref* =>  8.09975E+00
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-3| 3.8569645E+02; 1.8518665E+02, 2.3139949E+02,-2.4682369E+02| 0.0000000E+00| 3)
  4 prt(o:3| 4.0358095E+02;-3.4800462E+01,-2.7639942E+02, 2.9201006E+02| 0.0000000E+00| 4)
  5 prt(o:21| 3.5187521E+01; 1.6029453E+01,-8.7591619E+00,-3.0074829E+01| 0.0000000E+00| 5)
  6 prt(o:21| 1.7553508E+02;-1.6641564E+02, 5.3759095E+01,-1.5111539E+01| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #7
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  8.83381E-06
    Squared matrix el. (prc) =  4.89030E-06
    Event weight (ref)       =  8.09975E+00
    Event weight (prc)       =  4.48393E+00
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3576035536.0,         2293616308.0,         1936885241.0,
            2020414557.0,         2733429172.0,         2006815896.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   4.788800E+02
  P =   2.318819E+01  3.522619E+02 -3.235737E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   4.881018E+02
  P =  -3.890378E+01 -3.387347E+02  3.492687E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.301821E+01
  P =   1.571559E+01 -1.352725E+01 -2.569505E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            2983838794.0,         1385001890.0,         2744238164.0,
            3397930769.0,         3140992418.0,         2193146513.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   3.942585E+02
  P =   1.642583E+01  2.933822E+02 -2.628628E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.951897E+02
  P =  -2.015810E+02 -2.393911E+02  2.413130E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.163642E+01
  P =   1.521484E+01 -1.788721E+01 -2.119951E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.789153E+02
  P =   1.699403E+02 -3.610389E+01  4.274934E+01
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  4.890297439E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.788800E+02
  P =   2.318819E+01  3.522619E+02 -3.235737E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   4.881018E+02
  P =  -3.890378E+01 -3.387347E+02  3.492687E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.301821E+01
  P =   1.571559E+01 -1.352725E+01 -2.569505E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.802563E+02
  P =   2.577917E+01  3.500317E+02 -3.278099E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.864130E+02
  P =  -3.627126E+01 -3.410006E+02  3.449645E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   2.122778E+01
  P =   4.490275E-01 -1.531885E+01 -1.468842E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   1.210293E+01
  P =   1.004307E+01  6.287739E+00 -2.466200E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   3.856964E+02
  P =   1.851866E+02  2.313995E+02 -2.468237E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   4.035810E+02
  P =  -3.480046E+01 -2.763994E+02  2.920101E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.518752E+01
  P =   1.602945E+01 -8.759162E+00 -3.007483E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.755351E+02
  P =  -1.664156E+02  5.375910E+01 -1.511154E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-1)
  E =   3.942585E+02
  P =   1.642583E+01  2.933822E+02 -2.628628E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.951897E+02
  P =  -2.015810E+02 -2.393911E+02  2.413130E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.163642E+01
  P =   1.521484E+01 -1.788721E+01 -2.119951E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.789153E+02
  P =   1.699403E+02 -3.610389E+01  4.274934E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  4.89030E-06
 sqme_ref* =>  8.83381E-06
 event_index* => 7
 event_weight* =>  4.48393E+00
 event_weight_ref* =>  8.09975E+00
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-1| 3.9425851E+02; 1.6425832E+01, 2.9338216E+02,-2.6286284E+02| 0.0000000E+00| 3)
  4 prt(o:1| 3.9518974E+02;-2.0158096E+02,-2.3939106E+02, 2.4131301E+02| 0.0000000E+00| 4)
  5 prt(o:21| 3.1636417E+01; 1.5214844E+01,-1.7887211E+01,-2.1199507E+01| 0.0000000E+00| 5)
  6 prt(o:21| 1.7891533E+02; 1.6994028E+02,-3.6103889E+01, 4.2749340E+01| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #8
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  0.00000E+00
    Squared matrix el. (prc) =  0.00000E+00
    Event weight (ref)       =  0.00000E+00
    Event weight (prc)       =  0.00000E+00
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
             265363073.0,         2498283046.0,          987287394.0,
            1610688028.0,         4034146020.0,         3552764251.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.870750E+02
  P =  -3.736493E+02  1.987959E+02 -2.410570E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   4.661453E+02
  P =   3.301425E+02 -2.128021E+02  2.510231E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   4.677966E+01
  P =   4.350678E+01  1.400613E+01 -9.966165E+00
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            2286692505.0,         4134998199.0,         2039489375.0,
            2133112660.0,         2120463776.0,          417067873.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.857981E+02
  P =  -3.727414E+02  1.982107E+02 -2.403666E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.281905E+02
  P =   7.746509E+01 -7.618446E+01  6.802870E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   4.683003E+01
  P =   4.359414E+01  1.394983E+01 -9.899741E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   3.391813E+02
  P =   2.516822E+02 -1.359761E+02  1.822377E+02
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  4.890297439E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.870750E+02
  P =  -3.736493E+02  1.987959E+02 -2.410570E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.661453E+02
  P =   3.301425E+02 -2.128021E+02  2.510231E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   4.677966E+01
  P =   4.350678E+01  1.400613E+01 -9.966165E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.870130E+02
  P =  -3.735304E+02  1.988342E+02 -2.410842E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.661951E+02
  P =   3.302563E+02 -2.127654E+02  2.509971E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   1.275362E+01
  P =   1.235841E+01  1.666880E+00 -2.673179E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   3.403829E+01
  P =   3.091566E+01  1.226434E+01 -7.239679E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.340044E+02
  P =  -9.044652E+01  7.424579E+01 -6.530057E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.648679E+02
  P =   3.291588E+02 -2.122787E+02  2.503885E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   4.671723E+01
  P =   4.340799E+01  1.405869E+01 -1.002990E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   3.544105E+02
  P =  -2.821203E+02  1.239742E+02 -1.750580E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.857981E+02
  P =  -3.727414E+02  1.982107E+02 -2.403666E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.281905E+02
  P =   7.746509E+01 -7.618446E+01  6.802870E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   4.683003E+01
  P =   4.359414E+01  1.394983E+01 -9.899741E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   3.391813E+02
  P =   2.516822E+02 -1.359761E+02  1.822377E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 3
 n_tot* => 5
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  0.00000E+00
 sqme_ref* =>  0.00000E+00
 event_index* => 8
 event_weight* =>  0.00000E+00
 event_weight_ref* =>  0.00000E+00
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-2| 4.8707505E+02;-3.7364932E+02, 1.9879594E+02,-2.4105697E+02| 0.0000000E+00| 3)
  4 prt(o:2| 4.6614529E+02; 3.3014254E+02,-2.1280208E+02, 2.5102314E+02| 0.0000000E+00| 4)
  5 prt(o:21| 4.6779657E+01; 4.3506782E+01, 1.4006135E+01,-9.9661648E+00| 0.0000000E+00| 5)
 ========================================================================
 ========================================================================
  Event #8
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  0.00000E+00
    Squared matrix el. (prc) =  0.00000E+00
    Event weight (ref)       =  0.00000E+00
    Event weight (prc)       =  0.00000E+00
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
             265363073.0,         2498283046.0,          987287394.0,
            1610688028.0,         4034146020.0,         3552764251.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.870750E+02
  P =  -3.736493E+02  1.987959E+02 -2.410570E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   4.661453E+02
  P =   3.301425E+02 -2.128021E+02  2.510231E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   4.677966E+01
  P =   4.350678E+01  1.400613E+01 -9.966165E+00
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            2286692505.0,         4134998199.0,         2039489375.0,
            2133112660.0,         2120463776.0,          417067873.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.857981E+02
  P =  -3.727414E+02  1.982107E+02 -2.403666E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.281905E+02
  P =   7.746509E+01 -7.618446E+01  6.802870E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   4.683003E+01
  P =   4.359414E+01  1.394983E+01 -9.899741E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   3.391813E+02
  P =   2.516822E+02 -1.359761E+02  1.822377E+02
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  4.890297439E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.870750E+02
  P =  -3.736493E+02  1.987959E+02 -2.410570E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.661453E+02
  P =   3.301425E+02 -2.128021E+02  2.510231E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   4.677966E+01
  P =   4.350678E+01  1.400613E+01 -9.966165E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.870130E+02
  P =  -3.735304E+02  1.988342E+02 -2.410842E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.661951E+02
  P =   3.302563E+02 -2.127654E+02  2.509971E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   1.275362E+01
  P =   1.235841E+01  1.666880E+00 -2.673179E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   3.403829E+01
  P =   3.091566E+01  1.226434E+01 -7.239679E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.340044E+02
  P =  -9.044652E+01  7.424579E+01 -6.530057E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.648679E+02
  P =   3.291588E+02 -2.122787E+02  2.503885E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   4.671723E+01
  P =   4.340799E+01  1.405869E+01 -1.002990E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   3.544105E+02
  P =  -2.821203E+02  1.239742E+02 -1.750580E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.857981E+02
  P =  -3.727414E+02  1.982107E+02 -2.403666E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.281905E+02
  P =   7.746509E+01 -7.618446E+01  6.802870E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   4.683003E+01
  P =   4.359414E+01  1.394983E+01 -9.899741E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   3.391813E+02
  P =   2.516822E+02 -1.359761E+02  1.822377E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  0.00000E+00
 sqme_ref* =>  0.00000E+00
 event_index* => 8
 event_weight* =>  0.00000E+00
 event_weight_ref* =>  0.00000E+00
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-2| 4.8701295E+02;-3.7353042E+02, 1.9883422E+02,-2.4108421E+02| 0.0000000E+00| 3)
  4 prt(o:2| 4.6619514E+02; 3.3025634E+02,-2.1276544E+02, 2.5099707E+02| 0.0000000E+00| 4)
  5 prt(o:-2| 1.2753617E+01; 1.2358413E+01, 1.6668804E+00,-2.6731786E+00| 0.0000000E+00| 5)
  6 prt(o:2| 3.4038287E+01; 3.0915660E+01, 1.2264339E+01,-7.2396791E+00| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #8
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  0.00000E+00
    Squared matrix el. (prc) =  0.00000E+00
    Event weight (ref)       =  0.00000E+00
    Event weight (prc)       =  0.00000E+00
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
             265363073.0,         2498283046.0,          987287394.0,
            1610688028.0,         4034146020.0,         3552764251.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.870750E+02
  P =  -3.736493E+02  1.987959E+02 -2.410570E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   4.661453E+02
  P =   3.301425E+02 -2.128021E+02  2.510231E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   4.677966E+01
  P =   4.350678E+01  1.400613E+01 -9.966165E+00
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            2286692505.0,         4134998199.0,         2039489375.0,
            2133112660.0,         2120463776.0,          417067873.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.857981E+02
  P =  -3.727414E+02  1.982107E+02 -2.403666E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.281905E+02
  P =   7.746509E+01 -7.618446E+01  6.802870E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   4.683003E+01
  P =   4.359414E+01  1.394983E+01 -9.899741E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   3.391813E+02
  P =   2.516822E+02 -1.359761E+02  1.822377E+02
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  4.890297439E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.870750E+02
  P =  -3.736493E+02  1.987959E+02 -2.410570E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.661453E+02
  P =   3.301425E+02 -2.128021E+02  2.510231E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   4.677966E+01
  P =   4.350678E+01  1.400613E+01 -9.966165E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.870130E+02
  P =  -3.735304E+02  1.988342E+02 -2.410842E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.661951E+02
  P =   3.302563E+02 -2.127654E+02  2.509971E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   1.275362E+01
  P =   1.235841E+01  1.666880E+00 -2.673179E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   3.403829E+01
  P =   3.091566E+01  1.226434E+01 -7.239679E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.340044E+02
  P =  -9.044652E+01  7.424579E+01 -6.530057E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.648679E+02
  P =   3.291588E+02 -2.122787E+02  2.503885E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   4.671723E+01
  P =   4.340799E+01  1.405869E+01 -1.002990E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   3.544105E+02
  P =  -2.821203E+02  1.239742E+02 -1.750580E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.857981E+02
  P =  -3.727414E+02  1.982107E+02 -2.403666E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.281905E+02
  P =   7.746509E+01 -7.618446E+01  6.802870E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   4.683003E+01
  P =   4.359414E+01  1.394983E+01 -9.899741E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   3.391813E+02
  P =   2.516822E+02 -1.359761E+02  1.822377E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  0.00000E+00
 sqme_ref* =>  0.00000E+00
 event_index* => 8
 event_weight* =>  0.00000E+00
 event_weight_ref* =>  0.00000E+00
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-2| 1.3400438E+02;-9.0446520E+01, 7.4245788E+01,-6.5300571E+01| 0.0000000E+00| 3)
  4 prt(o:2| 4.6486792E+02; 3.2915882E+02,-2.1227870E+02, 2.5038850E+02| 0.0000000E+00| 4)
  5 prt(o:-2| 4.6717229E+01; 4.3407992E+01, 1.4058695E+01,-1.0029898E+01| 0.0000000E+00| 5)
  6 prt(o:2| 3.5441047E+02;-2.8212029E+02, 1.2397422E+02,-1.7505803E+02| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #8
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  0.00000E+00
    Squared matrix el. (prc) =  0.00000E+00
    Event weight (ref)       =  0.00000E+00
    Event weight (prc)       =  0.00000E+00
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 2
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
             265363073.0,         2498283046.0,          987287394.0,
            1610688028.0,         4034146020.0,         3552764251.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-3)
  E =   4.870750E+02
  P =  -3.736493E+02  1.987959E+02 -2.410570E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   4.661453E+02
  P =   3.301425E+02 -2.128021E+02  2.510231E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   4.677966E+01
  P =   4.350678E+01  1.400613E+01 -9.966165E+00
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            2286692505.0,         4134998199.0,         2039489375.0,
            2133112660.0,         2120463776.0,          417067873.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.857981E+02
  P =  -3.727414E+02  1.982107E+02 -2.403666E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.281905E+02
  P =   7.746509E+01 -7.618446E+01  6.802870E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   4.683003E+01
  P =   4.359414E+01  1.394983E+01 -9.899741E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   3.391813E+02
  P =   2.516822E+02 -1.359761E+02  1.822377E+02
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  4.890297439E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.870750E+02
  P =  -3.736493E+02  1.987959E+02 -2.410570E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.661453E+02
  P =   3.301425E+02 -2.128021E+02  2.510231E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   4.677966E+01
  P =   4.350678E+01  1.400613E+01 -9.966165E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.870130E+02
  P =  -3.735304E+02  1.988342E+02 -2.410842E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.661951E+02
  P =   3.302563E+02 -2.127654E+02  2.509971E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   1.275362E+01
  P =   1.235841E+01  1.666880E+00 -2.673179E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   3.403829E+01
  P =   3.091566E+01  1.226434E+01 -7.239679E+00
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   1.340044E+02
  P =  -9.044652E+01  7.424579E+01 -6.530057E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.648679E+02
  P =   3.291588E+02 -2.122787E+02  2.503885E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   4.671723E+01
  P =   4.340799E+01  1.405869E+01 -1.002990E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   3.544105E+02
  P =  -2.821203E+02  1.239742E+02 -1.750580E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.857981E+02
  P =  -3.727414E+02  1.982107E+02 -2.403666E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   1.281905E+02
  P =   7.746509E+01 -7.618446E+01  6.802870E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   4.683003E+01
  P =   4.359414E+01  1.394983E+01 -9.899741E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   3.391813E+02
  P =   2.516822E+02 -1.359761E+02  1.822377E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  0.00000E+00
 sqme_ref* =>  0.00000E+00
 event_index* => 8
 event_weight* =>  0.00000E+00
 event_weight_ref* =>  0.00000E+00
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-2| 4.8579808E+02;-3.7274141E+02, 1.9821072E+02,-2.4036664E+02| 0.0000000E+00| 3)
  4 prt(o:2| 1.2819055E+02; 7.7465091E+01,-7.6184462E+01, 6.8028697E+01| 0.0000000E+00| 4)
  5 prt(o:-2| 4.6830029E+01; 4.3594141E+01, 1.3949825E+01,-9.8997414E+00| 0.0000000E+00| 5)
  6 prt(o:2| 3.3918135E+02; 2.5168217E+02,-1.3597609E+02, 1.8223769E+02| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #9
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  1.04104E-05
    Squared matrix el. (prc) =  8.62815E-07
    Event weight (ref)       =  7.89774E+01
    Event weight (prc)       =  6.54566E+00
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3788034272.0,         3633530561.0,          205946851.0,
            3071111705.0,         3622279560.0,         2218066770.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.393114E+02
  P =  -1.177909E+02 -3.816695E+02 -1.828885E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.679230E+02
  P =   2.249226E+00  2.526218E+02  2.674780E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.927656E+02
  P =   1.155417E+02  1.290477E+02 -8.458951E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
             593630244.0,         2352310477.0,          331428453.0,
            2567512357.0,         1557825531.0,          961477674.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   3.984529E+02
  P =  -1.175102E+02 -3.501462E+02 -1.495114E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.811978E+02
  P =  -9.428649E+01  1.300802E+02  2.307843E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.969849E+02
  P =   1.156722E+02  1.437132E+02 -6.906158E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.233645E+02
  P =   9.612447E+01  7.635285E+01 -1.221136E+01
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  1.961192220E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   4.393114E+02
  P =  -1.177909E+02 -3.816695E+02 -1.828885E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.679230E+02
  P =   2.249226E+00  2.526218E+02  2.674780E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.927656E+02
  P =   1.155417E+02  1.290477E+02 -8.458951E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.264444E+02
  P =  -1.035210E+02 -3.657316E+02 -1.933357E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.714020E+02
  P =   1.443521E+01  2.662323E+02  2.585565E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.375193E+02
  P =   4.718578E+01  1.268615E+02 -2.431502E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   6.463424E+01
  P =   4.190000E+01 -2.736218E+01 -4.090581E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   3.458113E+02
  P =   1.485188E+01 -3.399480E+02 -6.164615E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   3.268426E+02
  P =  -1.016238E+01  2.124054E+02  2.482071E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.800451E+02
  P =   1.088816E+02  1.074676E+02 -9.493028E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.473010E+02
  P =  -1.135711E+02  2.007505E+01 -9.163064E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   3.984529E+02
  P =  -1.175102E+02 -3.501462E+02 -1.495114E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.811978E+02
  P =  -9.428649E+01  1.300802E+02  2.307843E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.969849E+02
  P =   1.156722E+02  1.437132E+02 -6.906158E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.233645E+02
  P =   9.612447E+01  7.635285E+01 -1.221136E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 3
 n_tot* => 5
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  8.62815E-07
 sqme_ref* =>  1.04104E-05
 event_index* => 9
 event_weight* =>  6.54566E+00
 event_weight_ref* =>  7.89774E+01
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-1| 4.3931142E+02;-1.1779088E+02,-3.8166954E+02,-1.8288849E+02| 0.0000000E+00| 3)
  4 prt(o:1| 3.6792299E+02; 2.2492265E+00, 2.5262183E+02, 2.6747800E+02| 0.0000000E+00| 4)
  5 prt(o:21| 1.9276559E+02; 1.1554166E+02, 1.2904771E+02,-8.4589513E+01| 0.0000000E+00| 5)
 ========================================================================
 ========================================================================
  Event #9
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  1.04104E-05
    Squared matrix el. (prc) =  6.58571E-06
    Event weight (ref)       =  7.89774E+01
    Event weight (prc)       =  4.99619E+01
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3788034272.0,         3633530561.0,          205946851.0,
            3071111705.0,         3622279560.0,         2218066770.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.393114E+02
  P =  -1.177909E+02 -3.816695E+02 -1.828885E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.679230E+02
  P =   2.249226E+00  2.526218E+02  2.674780E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.927656E+02
  P =   1.155417E+02  1.290477E+02 -8.458951E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
             593630244.0,         2352310477.0,          331428453.0,
            2567512357.0,         1557825531.0,          961477674.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   3.984529E+02
  P =  -1.175102E+02 -3.501462E+02 -1.495114E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.811978E+02
  P =  -9.428649E+01  1.300802E+02  2.307843E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.969849E+02
  P =   1.156722E+02  1.437132E+02 -6.906158E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.233645E+02
  P =   9.612447E+01  7.635285E+01 -1.221136E+01
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  1.961192220E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   4.393114E+02
  P =  -1.177909E+02 -3.816695E+02 -1.828885E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.679230E+02
  P =   2.249226E+00  2.526218E+02  2.674780E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.927656E+02
  P =   1.155417E+02  1.290477E+02 -8.458951E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.264444E+02
  P =  -1.035210E+02 -3.657316E+02 -1.933357E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.714020E+02
  P =   1.443521E+01  2.662323E+02  2.585565E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.375193E+02
  P =   4.718578E+01  1.268615E+02 -2.431502E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   6.463424E+01
  P =   4.190000E+01 -2.736218E+01 -4.090581E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   3.458113E+02
  P =   1.485188E+01 -3.399480E+02 -6.164615E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   3.268426E+02
  P =  -1.016238E+01  2.124054E+02  2.482071E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.800451E+02
  P =   1.088816E+02  1.074676E+02 -9.493028E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.473010E+02
  P =  -1.135711E+02  2.007505E+01 -9.163064E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   3.984529E+02
  P =  -1.175102E+02 -3.501462E+02 -1.495114E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.811978E+02
  P =  -9.428649E+01  1.300802E+02  2.307843E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.969849E+02
  P =   1.156722E+02  1.437132E+02 -6.906158E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.233645E+02
  P =   9.612447E+01  7.635285E+01 -1.221136E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  6.58571E-06
 sqme_ref* =>  1.04104E-05
 event_index* => 9
 event_weight* =>  4.99619E+01
 event_weight_ref* =>  7.89774E+01
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-2| 4.2644445E+02;-1.0352099E+02,-3.6573159E+02,-1.9333566E+02| 0.0000000E+00| 3)
  4 prt(o:2| 3.7140201E+02; 1.4435210E+01, 2.6623227E+02, 2.5855649E+02| 0.0000000E+00| 4)
  5 prt(o:21| 1.3751930E+02; 4.7185782E+01, 1.2686150E+02,-2.4315019E+01| 0.0000000E+00| 5)
  6 prt(o:21| 6.4634237E+01; 4.1900001E+01,-2.7362182E+01,-4.0905813E+01| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #9
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  1.04104E-05
    Squared matrix el. (prc) =  1.00067E-06
    Event weight (ref)       =  7.89774E+01
    Event weight (prc)       =  7.59149E+00
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3788034272.0,         3633530561.0,          205946851.0,
            3071111705.0,         3622279560.0,         2218066770.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.393114E+02
  P =  -1.177909E+02 -3.816695E+02 -1.828885E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.679230E+02
  P =   2.249226E+00  2.526218E+02  2.674780E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.927656E+02
  P =   1.155417E+02  1.290477E+02 -8.458951E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
             593630244.0,         2352310477.0,          331428453.0,
            2567512357.0,         1557825531.0,          961477674.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   3.984529E+02
  P =  -1.175102E+02 -3.501462E+02 -1.495114E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.811978E+02
  P =  -9.428649E+01  1.300802E+02  2.307843E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.969849E+02
  P =   1.156722E+02  1.437132E+02 -6.906158E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.233645E+02
  P =   9.612447E+01  7.635285E+01 -1.221136E+01
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  1.961192220E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   4.393114E+02
  P =  -1.177909E+02 -3.816695E+02 -1.828885E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.679230E+02
  P =   2.249226E+00  2.526218E+02  2.674780E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.927656E+02
  P =   1.155417E+02  1.290477E+02 -8.458951E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.264444E+02
  P =  -1.035210E+02 -3.657316E+02 -1.933357E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.714020E+02
  P =   1.443521E+01  2.662323E+02  2.585565E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.375193E+02
  P =   4.718578E+01  1.268615E+02 -2.431502E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   6.463424E+01
  P =   4.190000E+01 -2.736218E+01 -4.090581E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   3.458113E+02
  P =   1.485188E+01 -3.399480E+02 -6.164615E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   3.268426E+02
  P =  -1.016238E+01  2.124054E+02  2.482071E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.800451E+02
  P =   1.088816E+02  1.074676E+02 -9.493028E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.473010E+02
  P =  -1.135711E+02  2.007505E+01 -9.163064E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   3.984529E+02
  P =  -1.175102E+02 -3.501462E+02 -1.495114E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.811978E+02
  P =  -9.428649E+01  1.300802E+02  2.307843E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.969849E+02
  P =   1.156722E+02  1.437132E+02 -6.906158E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.233645E+02
  P =   9.612447E+01  7.635285E+01 -1.221136E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  1.00067E-06
 sqme_ref* =>  1.04104E-05
 event_index* => 9
 event_weight* =>  7.59149E+00
 event_weight_ref* =>  7.89774E+01
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-3| 3.4581134E+02; 1.4851880E+01,-3.3994802E+02,-6.1646155E+01| 0.0000000E+00| 3)
  4 prt(o:3| 3.2684257E+02;-1.0162378E+01, 2.1240537E+02, 2.4820707E+02| 0.0000000E+00| 4)
  5 prt(o:21| 1.8004511E+02; 1.0888160E+02, 1.0746759E+02,-9.4930279E+01| 0.0000000E+00| 5)
  6 prt(o:21| 1.4730097E+02;-1.1357110E+02, 2.0075053E+01,-9.1630639E+01| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #9
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  1.04104E-05
    Squared matrix el. (prc) =  1.96119E-06
    Event weight (ref)       =  7.89774E+01
    Event weight (prc)       =  1.48784E+01
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3788034272.0,         3633530561.0,          205946851.0,
            3071111705.0,         3622279560.0,         2218066770.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.393114E+02
  P =  -1.177909E+02 -3.816695E+02 -1.828885E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.679230E+02
  P =   2.249226E+00  2.526218E+02  2.674780E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.927656E+02
  P =   1.155417E+02  1.290477E+02 -8.458951E+01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
             593630244.0,         2352310477.0,          331428453.0,
            2567512357.0,         1557825531.0,          961477674.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   3.984529E+02
  P =  -1.175102E+02 -3.501462E+02 -1.495114E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.811978E+02
  P =  -9.428649E+01  1.300802E+02  2.307843E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.969849E+02
  P =   1.156722E+02  1.437132E+02 -6.906158E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.233645E+02
  P =   9.612447E+01  7.635285E+01 -1.221136E+01
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  1.961192220E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-1)
  E =   4.393114E+02
  P =  -1.177909E+02 -3.816695E+02 -1.828885E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(1)
  E =   3.679230E+02
  P =   2.249226E+00  2.526218E+02  2.674780E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.927656E+02
  P =   1.155417E+02  1.290477E+02 -8.458951E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.264444E+02
  P =  -1.035210E+02 -3.657316E+02 -1.933357E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.714020E+02
  P =   1.443521E+01  2.662323E+02  2.585565E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.375193E+02
  P =   4.718578E+01  1.268615E+02 -2.431502E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   6.463424E+01
  P =   4.190000E+01 -2.736218E+01 -4.090581E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   3.458113E+02
  P =   1.485188E+01 -3.399480E+02 -6.164615E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   3.268426E+02
  P =  -1.016238E+01  2.124054E+02  2.482071E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.800451E+02
  P =   1.088816E+02  1.074676E+02 -9.493028E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.473010E+02
  P =  -1.135711E+02  2.007505E+01 -9.163064E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-3)
  E =   3.984529E+02
  P =  -1.175102E+02 -3.501462E+02 -1.495114E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(3)
  E =   2.811978E+02
  P =  -9.428649E+01  1.300802E+02  2.307843E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   1.969849E+02
  P =   1.156722E+02  1.437132E+02 -6.906158E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   1.233645E+02
  P =   9.612447E+01  7.635285E+01 -1.221136E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  1.96119E-06
 sqme_ref* =>  1.04104E-05
 event_index* => 9
 event_weight* =>  1.48784E+01
 event_weight_ref* =>  7.89774E+01
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-3| 3.9845286E+02;-1.1751021E+02,-3.5014624E+02,-1.4951137E+02| 0.0000000E+00| 3)
  4 prt(o:3| 2.8119778E+02;-9.4286486E+01, 1.3008019E+02, 2.3078431E+02| 0.0000000E+00| 4)
  5 prt(o:21| 1.9698490E+02; 1.1567223E+02, 1.4371320E+02,-6.9061578E+01| 0.0000000E+00| 5)
  6 prt(o:21| 1.2336446E+02; 9.6124469E+01, 7.6352853E+01,-1.2211364E+01| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #10
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  5.23051E-06
    Squared matrix el. (prc) =  0.00000E+00
    Event weight (ref)       =  6.51337E-01
    Event weight (prc)       =  0.00000E+00
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3430917671.0,         2920101317.0,         3284936197.0,
            1240801204.0,         2700418016.0,          622190086.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.808477E+02
  P =   7.201865E+01 -3.867396E+02 -2.765147E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.861878E+02
  P =  -1.049512E+02  3.854312E+02  2.771401E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.296448E+01
  P =   3.293256E+01  1.308407E+00 -6.253887E-01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            1519245727.0,         1936352122.0,         2549247759.0,
             415345958.0,         3249397019.0,         3432810946.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.626346E+02
  P =   4.642365E+01 -2.927425E+02 -2.089271E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.004298E+02
  P =  -1.328596E+02  3.765116E+02  3.051861E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.244983E+01
  P =   3.094760E+01  8.598133E+00  4.616209E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.044857E+02
  P =   5.548835E+01 -9.236728E+01  1.737923E+02
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  1.877560215E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.808477E+02
  P =   7.201865E+01 -3.867396E+02 -2.765147E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.861878E+02
  P =  -1.049512E+02  3.854312E+02  2.771401E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.296448E+01
  P =   3.293256E+01  1.308407E+00 -6.253887E-01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.818528E+02
  P =   7.939359E+01 -3.864466E+02 -2.766547E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.847909E+02
  P =  -9.751285E+01  3.857267E+02  2.769988E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   1.949180E+01
  P =   1.390388E+01  2.463082E+00 -1.343672E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   1.386453E+01
  P =   4.215378E+00 -1.743205E+00  1.309263E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.942069E+02
  P =   5.816165E+01 -1.542233E+02 -3.580942E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.680980E+02
  P =  -8.721134E+01  2.901682E+02  2.090280E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.545536E+01
  P =   3.435335E+01 -6.321215E+00 -6.080487E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.022398E+02
  P =  -5.303660E+00 -1.296237E+02  1.551467E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.626346E+02
  P =   4.642365E+01 -2.927425E+02 -2.089271E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.004298E+02
  P =  -1.328596E+02  3.765116E+02  3.051861E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.244983E+01
  P =   3.094760E+01  8.598133E+00  4.616209E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.044857E+02
  P =   5.548835E+01 -9.236728E+01  1.737923E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 3
 n_tot* => 5
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  0.00000E+00
 sqme_ref* =>  5.23051E-06
 event_index* => 10
 event_weight* =>  0.00000E+00
 event_weight_ref* =>  6.51337E-01
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-2| 4.8084774E+02; 7.2018647E+01,-3.8673958E+02,-2.7651467E+02| 0.0000000E+00| 3)
  4 prt(o:2| 4.8618778E+02;-1.0495121E+02, 3.8543118E+02, 2.7714006E+02| 0.0000000E+00| 4)
  5 prt(o:21| 3.2964476E+01; 3.2932562E+01, 1.3084073E+00,-6.2538873E-01| 0.0000000E+00| 5)
 ========================================================================
 ========================================================================
  Event #10
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  5.23051E-06
    Squared matrix el. (prc) =  1.01935E-04
    Event weight (ref)       =  6.51337E-01
    Event weight (prc)       =  0.00000E+00
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3430917671.0,         2920101317.0,         3284936197.0,
            1240801204.0,         2700418016.0,          622190086.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.808477E+02
  P =   7.201865E+01 -3.867396E+02 -2.765147E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.861878E+02
  P =  -1.049512E+02  3.854312E+02  2.771401E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.296448E+01
  P =   3.293256E+01  1.308407E+00 -6.253887E-01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            1519245727.0,         1936352122.0,         2549247759.0,
             415345958.0,         3249397019.0,         3432810946.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.626346E+02
  P =   4.642365E+01 -2.927425E+02 -2.089271E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.004298E+02
  P =  -1.328596E+02  3.765116E+02  3.051861E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.244983E+01
  P =   3.094760E+01  8.598133E+00  4.616209E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.044857E+02
  P =   5.548835E+01 -9.236728E+01  1.737923E+02
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  1.877560215E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.808477E+02
  P =   7.201865E+01 -3.867396E+02 -2.765147E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.861878E+02
  P =  -1.049512E+02  3.854312E+02  2.771401E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.296448E+01
  P =   3.293256E+01  1.308407E+00 -6.253887E-01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.818528E+02
  P =   7.939359E+01 -3.864466E+02 -2.766547E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.847909E+02
  P =  -9.751285E+01  3.857267E+02  2.769988E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   1.949180E+01
  P =   1.390388E+01  2.463082E+00 -1.343672E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   1.386453E+01
  P =   4.215378E+00 -1.743205E+00  1.309263E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.942069E+02
  P =   5.816165E+01 -1.542233E+02 -3.580942E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.680980E+02
  P =  -8.721134E+01  2.901682E+02  2.090280E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.545536E+01
  P =   3.435335E+01 -6.321215E+00 -6.080487E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.022398E+02
  P =  -5.303660E+00 -1.296237E+02  1.551467E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.626346E+02
  P =   4.642365E+01 -2.927425E+02 -2.089271E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.004298E+02
  P =  -1.328596E+02  3.765116E+02  3.051861E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.244983E+01
  P =   3.094760E+01  8.598133E+00  4.616209E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.044857E+02
  P =   5.548835E+01 -9.236728E+01  1.737923E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  1.01935E-04
 sqme_ref* =>  5.23051E-06
 event_index* => 10
 event_weight* =>  0.00000E+00
 event_weight_ref* =>  6.51337E-01
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-2| 4.8185281E+02; 7.9393589E+01,-3.8644658E+02,-2.7665472E+02| 0.0000000E+00| 3)
  4 prt(o:2| 4.8479086E+02;-9.7512851E+01, 3.8572670E+02, 2.7699880E+02| 0.0000000E+00| 4)
  5 prt(o:-2| 1.9491796E+01; 1.3903883E+01, 2.4630817E+00,-1.3436717E+01| 0.0000000E+00| 5)
  6 prt(o:2| 1.3864531E+01; 4.2153784E+00,-1.7432053E+00, 1.3092633E+01| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #10
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  5.23051E-06
    Squared matrix el. (prc) =  3.35295E-06
    Event weight (ref)       =  6.51337E-01
    Event weight (prc)       =  4.17531E-01
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3430917671.0,         2920101317.0,         3284936197.0,
            1240801204.0,         2700418016.0,          622190086.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.808477E+02
  P =   7.201865E+01 -3.867396E+02 -2.765147E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.861878E+02
  P =  -1.049512E+02  3.854312E+02  2.771401E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.296448E+01
  P =   3.293256E+01  1.308407E+00 -6.253887E-01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            1519245727.0,         1936352122.0,         2549247759.0,
             415345958.0,         3249397019.0,         3432810946.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.626346E+02
  P =   4.642365E+01 -2.927425E+02 -2.089271E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.004298E+02
  P =  -1.328596E+02  3.765116E+02  3.051861E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.244983E+01
  P =   3.094760E+01  8.598133E+00  4.616209E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.044857E+02
  P =   5.548835E+01 -9.236728E+01  1.737923E+02
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  1.877560215E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.808477E+02
  P =   7.201865E+01 -3.867396E+02 -2.765147E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.861878E+02
  P =  -1.049512E+02  3.854312E+02  2.771401E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.296448E+01
  P =   3.293256E+01  1.308407E+00 -6.253887E-01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.818528E+02
  P =   7.939359E+01 -3.864466E+02 -2.766547E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.847909E+02
  P =  -9.751285E+01  3.857267E+02  2.769988E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   1.949180E+01
  P =   1.390388E+01  2.463082E+00 -1.343672E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   1.386453E+01
  P =   4.215378E+00 -1.743205E+00  1.309263E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.942069E+02
  P =   5.816165E+01 -1.542233E+02 -3.580942E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.680980E+02
  P =  -8.721134E+01  2.901682E+02  2.090280E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.545536E+01
  P =   3.435335E+01 -6.321215E+00 -6.080487E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.022398E+02
  P =  -5.303660E+00 -1.296237E+02  1.551467E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.626346E+02
  P =   4.642365E+01 -2.927425E+02 -2.089271E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.004298E+02
  P =  -1.328596E+02  3.765116E+02  3.051861E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.244983E+01
  P =   3.094760E+01  8.598133E+00  4.616209E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.044857E+02
  P =   5.548835E+01 -9.236728E+01  1.737923E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  3.35295E-06
 sqme_ref* =>  5.23051E-06
 event_index* => 10
 event_weight* =>  4.17531E-01
 event_weight_ref* =>  6.51337E-01
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-2| 3.9420688E+02; 5.8161647E+01,-1.5422326E+02,-3.5809422E+02| 0.0000000E+00| 3)
  4 prt(o:2| 3.6809798E+02;-8.7211337E+01, 2.9016820E+02, 2.0902804E+02| 0.0000000E+00| 4)
  5 prt(o:21| 3.5455363E+01; 3.4353351E+01,-6.3212150E+00,-6.0804871E+00| 0.0000000E+00| 5)
  6 prt(o:21| 2.0223978E+02;-5.3036605E+00,-1.2962373E+02, 1.5514667E+02| 0.0000000E+00| 6)
 ========================================================================
 ========================================================================
  Event #10
 ------------------------------------------------------------------------
    Unweighted         = F
    Normalization      = 'sigma'
    Helicity handling  = drop
    Keep correlations  = F
 ------------------------------------------------------------------------
    Squared matrix el. (ref) =  5.23051E-06
    Squared matrix el. (prc) =  1.87756E-06
    Event weight (ref)       =  6.51337E-01
    Event weight (prc)       =  2.33806E-01
 ------------------------------------------------------------------------
    Selected MCI group = 1
    Selected term      = 1
    Selected channel   = 1
 ------------------------------------------------------------------------
    Passed selection   = T
    Reweighting factor =  1.00000E+00
    Analysis flag      = T
 ========================================================================
  Event transform: trivial (hard process)
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            3430917671.0,         2920101317.0,         3284936197.0,
            1240801204.0,         2700418016.0,          622190086.0,
    ]
    Beginning substream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Initial stream = [ 
            3952690744.0,         1644122545.0,         4214796563.0,
            1306733333.0,         3807449298.0,         2941285696.0,
    ]
    Number of tries = 1
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.808477E+02
  P =   7.201865E+01 -3.867396E+02 -2.765147E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.861878E+02
  P =  -1.049512E+02  3.854312E+02  2.771401E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.296448E+01
  P =   3.293256E+01  1.308407E+00 -6.253887E-01
  T =   0.000000000E+00
  Parents:  1 2
 ========================================================================
 ========================================================================
  Event transform: NLO
 ------------------------------------------------------------------------
    Associated process: 'openloops_14_p1'
    RNG Stream generator
    Current position = [ 
            1519245727.0,         1936352122.0,         2549247759.0,
             415345958.0,         3249397019.0,         3432810946.0,
    ]
    Beginning substream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Initial stream = [ 
             777061335.0,          354088967.0,         3596592634.0,
            2882875638.0,          141628014.0,          220416678.0,
    ]
    Number of tries = 0
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.626346E+02
  P =   4.642365E+01 -2.927425E+02 -2.089271E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.004298E+02
  P =  -1.328596E+02  3.765116E+02  3.051861E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.244983E+01
  P =   3.094760E+01  8.598133E+00  4.616209E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.044857E+02
  P =   5.548835E+01 -9.236728E+01  1.737923E+02
  T =   0.000000000E+00
  Parents:  1 2
 sqme_rad =  1.877560215E-06
    i_evaluation = 0
 ------------------------------------------------------------------------
  Radiated particle sets:
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5
  Particle 3 [o] f(-2)
  E =   4.808477E+02
  P =   7.201865E+01 -3.867396E+02 -2.765147E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.861878E+02
  P =  -1.049512E+02  3.854312E+02  2.771401E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.296448E+01
  P =   3.293256E+01  1.308407E+00 -6.253887E-01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   4.818528E+02
  P =   7.939359E+01 -3.864466E+02 -2.766547E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.847909E+02
  P =  -9.751285E+01  3.857267E+02  2.769988E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(-2)
  E =   1.949180E+01
  P =   1.390388E+01  2.463082E+00 -1.343672E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(2)
  E =   1.386453E+01
  P =   4.215378E+00 -1.743205E+00  1.309263E+01
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.942069E+02
  P =   5.816165E+01 -1.542233E+02 -3.580942E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   3.680980E+02
  P =  -8.721134E+01  2.901682E+02  2.090280E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.545536E+01
  P =   3.435335E+01 -6.321215E+00 -6.080487E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.022398E+02
  P =  -5.303660E+00 -1.296237E+02  1.551467E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
  Particle set:
 ------------------------------------------------------------------------
  Particle 1 [i] f(11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00  5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 2 [i] f(-11)
  E =   5.000000E+02
  P =   0.000000E+00  0.000000E+00 -5.000000E+02
  T =   0.000000000E+00
  Children: 3 4 5 6
  Particle 3 [o] f(-2)
  E =   3.626346E+02
  P =   4.642365E+01 -2.927425E+02 -2.089271E+02
  T =   0.000000000E+00
  Parents:  1 2
  Particle 4 [o] f(2)
  E =   4.004298E+02
  P =  -1.328596E+02  3.765116E+02  3.051861E+01
  T =   0.000000000E+00
  Parents:  1 2
  Particle 5 [o] f(21)
  E =   3.244983E+01
  P =   3.094760E+01  8.598133E+00  4.616209E+00
  T =   0.000000000E+00
  Parents:  1 2
  Particle 6 [o] f(21)
  E =   2.044857E+02
  P =   5.548835E+01 -9.236728E+01  1.737923E+02
  T =   0.000000000E+00
  Parents:  1 2
 ------------------------------------------------------------------------
 ========================================================================
  Local variables:
 ------------------------------------------------------------------------
 sqrts* =  1.00000E+03
 sqrts_hat* =>  1.00000E+03
 n_in* => 2
 n_out* => 4
 n_tot* => 6
 $process_id* => "openloops_14_p1"
 process_num_id* => [unknown integer]
 sqme* =>  1.87756E-06
 sqme_ref* =>  5.23051E-06
 event_index* => 10
 event_weight* =>  2.33806E-01
 event_weight_ref* =>  6.51337E-01
 event_excess* =>  0.00000E+00
 ------------------------------------------------------------------------
  subevent:
  1 prt(i:11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00,-5.0000000E+02| 0.0000000E+00| 1)
  2 prt(i:-11|-5.0000000E+02; 0.0000000E+00, 0.0000000E+00, 5.0000000E+02| 0.0000000E+00| 2)
  3 prt(o:-2| 3.6263458E+02; 4.6423650E+01,-2.9274248E+02,-2.0892708E+02| 0.0000000E+00| 3)
  4 prt(o:2| 4.0042984E+02;-1.3285960E+02, 3.7651162E+02, 3.0518614E+01| 0.0000000E+00| 4)
  5 prt(o:21| 3.2449828E+01; 3.0947602E+01, 8.5981334E+00, 4.6162088E+00| 0.0000000E+00| 5)
  6 prt(o:21| 2.0448574E+02; 5.5488346E+01,-9.2367275E+01, 1.7379226E+02| 0.0000000E+00| 6)
 ========================================================================
Index: trunk/share/tests/functional_tests/openloops_14.sin
===================================================================
--- trunk/share/tests/functional_tests/openloops_14.sin	(revision 8818)
+++ trunk/share/tests/functional_tests/openloops_14.sin	(revision 8819)
@@ -1,83 +1,86 @@
 # SINDARIN input for WHIZARD self-test
 # Testing the combined integration of NLO QCD corrections
 # to e+e- -> jjj including the simulation of events
 # with strong cuts applied to provoke events
 # failing the cuts in different combinations.
 
 ?logging = true
 ?openmp_logging = false
 ?vis_history = false
 ?integration_timer = false
 ?pacify = true
 
 model = SM ("GF_MW_MZ")
 $blha_ew_scheme = "alpha_qed"
 
 mZ = 91.188
 mW = 80.419002
 mH = 125.0
 GF = 1.16639E-5
 wZ = 0.0
 wtop = 0.0
 wW = 0.0
 wH = 0.0
 
 ms = 0
 mc = 0
 mb = 0
 mtop = 173.2
 
 me = 0
 mmu = 0
 mtau = 1.777
 
 alphas = 0.118
 
 ?alphas_is_fixed = false
 ?alphas_from_mz = true
 ?alphas_from_lambda_qcd = false
 alphas_nf = 5
 
 alias jet = u:U:d:D:s:S:gl
 $exclude_gauge_splittings = "c:b:t"
 
 $method = "openloops"
 ?use_vamp_equivalences = false
 $integration_method = "vamp2"
 $rng_method = "rng_stream"
 openmp_num_threads = 1
 
 jet_algorithm = antikt_algorithm
 jet_r = 0.5
 
 alpha_power = 2
 alphas_power = 1
+
+$openloops_allowed_libs = "ppllj"
+
 seed = 8131
 sqrts = 1 TeV
 
 cuts = let subevt @clustered_jets = cluster [jet] in
        let subevt @pt_selected = select if Pt > 50 GeV [@clustered_jets] in
        let subevt @eta_selected = select if abs(Eta) < 4 [@pt_selected] in
        count [@eta_selected] >= 3
 
 scale = sum Pt/2 [jet]
 
 ?combined_nlo_integration = true
 
 process openloops_14_p1 = e1, E1 => jet, jet, jet { nlo_calculation = full }
 integrate (openloops_14_p1) { iterations = 1:100:"gw" }
 
 n_events = 10
 $sample_normalization = "sigma"
 ?unweighted = false
 ?negative_weights = true
 ?keep_failed_events = true
 ?fixed_order_nlo_events = true
 sample_format = debug
 ?debug_decay = false
 ?debug_process = false
 ?debug_verbose = false
 ?sample_pacify = true
 ?write_raw = false
 
 simulate(openloops_14_p1)
Index: trunk/share/tests/unit_tests/ref-output/rt_data_1.ref
===================================================================
--- trunk/share/tests/unit_tests/ref-output/rt_data_1.ref	(revision 8818)
+++ trunk/share/tests/unit_tests/ref-output/rt_data_1.ref	(revision 8819)
@@ -1,443 +1,444 @@
 * Test output: rt_data_1
 *   Purpose: initialize global runtime data
 
 ========================================================================
  Runtime data:
 ========================================================================
 [undefined] sqrts = [unknown real]
 luminosity =  0.000000000000E+00
 ?sf_trace = false
 $sf_trace_file = ""
 ?sf_allow_s_mapping = true
 $lhapdf_dir = ""
 $lhapdf_file = ""
 $lhapdf_photon_file = ""
 lhapdf_member = 0
 lhapdf_photon_scheme = 0
 $pdf_builtin_set = "CTEQ6L"
 ?hoppet_b_matching = false
 isr_alpha =  0.000000000000E+00
 isr_q_max =  0.000000000000E+00
 isr_mass =  0.000000000000E+00
 isr_order = 3
 isr_log_order = 0
 isr_q_in = -1.000000000000E+00
 ?isr_recoil = false
 ?isr_keep_energy = false
 ?isr_handler = false
 $isr_handler_mode = "trivial"
 ?isr_handler_keep_mass = true
 $epa_mode = "default"
 epa_alpha =  0.000000000000E+00
 epa_x_min =  0.000000000000E+00
 epa_q_min =  0.000000000000E+00
 epa_q_max =  0.000000000000E+00
 epa_mass =  0.000000000000E+00
 ?epa_recoil = false
 ?epa_keep_energy = false
 ?epa_handler = false
 $epa_handler_mode = "trivial"
 ewa_x_min =  0.000000000000E+00
 ewa_pt_max =  0.000000000000E+00
 ewa_mass =  0.000000000000E+00
 ?ewa_recoil = false
 ?ewa_keep_energy = false
 ?circe1_photon1 = false
 ?circe1_photon2 = false
 [undefined] circe1_sqrts = [unknown real]
 ?circe1_generate = true
 ?circe1_map = true
 circe1_mapping_slope =  2.000000000000E+00
 circe1_eps =  1.000000000000E-05
 circe1_ver = 0
 circe1_rev = 0
 $circe1_acc = "SBAND"
 circe1_chat = 0
 ?circe1_with_radiation = false
 ?circe2_polarized = true
 [undefined] $circe2_file = [unknown string]
 $circe2_design = "*"
 gaussian_spread1 =  0.000000000000E+00
 gaussian_spread2 =  0.000000000000E+00
 [undefined] $beam_events_file = [unknown string]
 ?beam_events_warn_eof = true
 ?energy_scan_normalize = false
 $negative_sf = "default"
 ?logging => false
 [undefined] $job_id = [unknown string]
 [undefined] $compile_workspace = [unknown string]
 seed = 0
 [undefined] $model_name = [unknown string]
 [undefined] process_num_id = [unknown integer]
 ?proc_as_run_id = true
 lcio_run_id = 0
 $method = "omega"
 ?report_progress = true
 [user variable] ?me_verbose = false
 $restrictions = ""
 ?omega_write_phs_output = false
 $omega_flags = ""
 ?read_color_factors = true
 ?slha_read_input = true
 ?slha_read_spectrum = true
 ?slha_read_decays = false
 [undefined] $library_name = [unknown string]
 ?alphas_is_fixed = true
 ?alpha_is_fixed = true
 ?alphas_from_lhapdf = false
 ?alphas_from_pdf_builtin = false
 ?alpha_evolve_analytic = true
 alphas_order = 0
 alpha_order = 0
 alphas_nf = 5
 alpha_nf = -1
 alpha_nlep = 1
 ?alphas_from_mz = false
 ?alphas_from_lambda_qcd = false
 lambda_qcd =  2.000000000000E-01
 ?fatal_beam_decay = true
 ?helicity_selection_active = true
 helicity_selection_threshold =  1.000000000000E+10
 helicity_selection_cutoff = 1000
 $rng_method = "tao"
 ?vis_diags = false
 ?vis_diags_color = false
 ?check_event_file = true
 $event_file_version = ""
 n_events = 0
 event_index_offset = 0
 ?unweighted = true
 safety_factor =  1.000000000000E+00
 ?negative_weights = false
 ?resonance_history = false
 resonance_on_shell_limit =  4.000000000000E+00
 resonance_on_shell_turnoff =  0.000000000000E+00
 resonance_background_factor =  1.000000000000E+00
 ?keep_beams = false
 ?keep_remnants = true
 ?rescan_force = false
 ?recover_beams = true
 ?update_event = false
 ?update_sqme = false
 ?update_weight = false
 ?use_alphas_from_file = false
 ?use_scale_from_file = false
 ?allow_decays = true
 ?auto_decays = false
 auto_decays_multiplicity = 2
 ?auto_decays_radiative = false
 ?decay_rest_frame = false
 ?isotropic_decay = false
 ?diagonal_decay = false
 [undefined] decay_helicity = [unknown integer]
 ?polarized_events = false
 $polarization_mode = "helicity"
 ?colorize_subevt = false
 tolerance =  0.000000000000E+00
 checkpoint = 0
 event_callback_interval = 0
 ?pacify = false
 $out_file = ""
 ?out_advance = true
 real_range* = 307
 real_precision* = 15
 real_epsilon* =  1.000000000000E-16
 real_tiny* =  1.000000000000-300
 $integration_method = "vamp"
 threshold_calls = 10
 min_calls_per_channel = 10
 min_calls_per_bin = 10
 min_bins = 3
 max_bins = 20
 ?stratified = true
 ?use_vamp_equivalences = true
 ?vamp_verbose = false
 ?vamp_history_global = true
 ?vamp_history_global_verbose = false
 ?vamp_history_channels = false
 ?vamp_history_channels_verbose = false
 $run_id = ""
 n_calls_test = 0
 ?integration_timer = true
 ?check_grid_file = true
 accuracy_goal =  0.000000000000E+00
 error_goal =  0.000000000000E+00
 relative_error_goal =  0.000000000000E+00
 integration_results_verbosity = 1
 error_threshold =  0.000000000000E+00
 channel_weights_power =  2.500000000000E-01
 [undefined] $integrate_workspace = [unknown string]
 vamp_grid_checkpoint = 1
 $vamp_grid_format = "ascii"
 $vamp_parallel_method = "simple"
 $phs_method = "default"
 ?vis_channels = false
 ?check_phs_file = true
 $phs_file = ""
 ?phs_only = false
 phs_threshold_s =  5.000000000000E+01
 phs_threshold_t =  1.000000000000E+02
 phs_off_shell = 2
 phs_t_channel = 6
 phs_e_scale =  1.000000000000E+01
 phs_m_scale =  1.000000000000E+01
 phs_q_scale =  1.000000000000E+01
 ?phs_keep_nonresonant = true
 ?phs_step_mapping = true
 ?phs_step_mapping_exp = true
 ?phs_s_mapping = true
 ?vis_history = false
 n_bins = 20
 ?normalize_bins = false
 $obs_label = ""
 $obs_unit = ""
 $title = ""
 $description = ""
 $x_label = ""
 $y_label = ""
 graph_width_mm = 130
 graph_height_mm = 90
 ?y_log = false
 ?x_log = false
 [undefined] x_min = [unknown real]
 [undefined] x_max = [unknown real]
 [undefined] y_min = [unknown real]
 [undefined] y_max = [unknown real]
 $gmlcode_bg = ""
 $gmlcode_fg = ""
 [undefined] ?draw_histogram = [unknown logical]
 [undefined] ?draw_base = [unknown logical]
 [undefined] ?draw_piecewise = [unknown logical]
 [undefined] ?fill_curve = [unknown logical]
 [undefined] ?draw_curve = [unknown logical]
 [undefined] ?draw_errors = [unknown logical]
 [undefined] ?draw_symbols = [unknown logical]
 [undefined] $fill_options = [unknown string]
 [undefined] $draw_options = [unknown string]
 [undefined] $err_options = [unknown string]
 [undefined] $symbol = [unknown string]
 ?analysis_file_only = false
 kt_algorithm* = 0
 cambridge_algorithm* = 1
 antikt_algorithm* = 2
 genkt_algorithm* = 3
 cambridge_for_passive_algorithm* = 11
 genkt_for_passive_algorithm* = 13
 ee_kt_algorithm* = 50
 ee_genkt_algorithm* = 53
 plugin_algorithm* = 99
 undefined_jet_algorithm* = 999
 jet_algorithm = 999
 jet_r =  0.000000000000E+00
 jet_p =  0.000000000000E+00
 jet_ycut =  0.000000000000E+00
 jet_dcut =  0.000000000000E+00
 ?keep_flavors_when_clustering = false
 photon_iso_eps =  1.000000000000E+00
 photon_iso_n =  1.000000000000E+00
 photon_iso_r0 =  4.000000000000E-01
 photon_rec_r0 =  1.000000000000E-01
 ?keep_flavors_when_recombining = true
 $sample = ""
 $sample_normalization = "auto"
 ?sample_pacify = false
 ?sample_select = true
 sample_max_tries = 10000
 sample_split_n_evt = 0
 sample_split_n_kbytes = 0
 sample_split_index = 0
 $rescan_input_format = "raw"
 ?read_raw = true
 ?write_raw = true
 $extension_raw = "evx"
 $extension_default = "evt"
 $debug_extension = "debug"
 ?debug_process = true
 ?debug_transforms = true
 ?debug_decay = true
 ?debug_verbose = true
 $dump_extension = "pset.dat"
 ?dump_compressed = false
 ?dump_weights = false
 ?dump_summary = false
 ?dump_screen = false
 ?hepevt_ensure_order = false
 $extension_hepevt = "hepevt"
 $extension_ascii_short = "short.evt"
 $extension_ascii_long = "long.evt"
 $extension_athena = "athena.evt"
 $extension_mokka = "mokka.evt"
 $lhef_version = "2.0"
 $lhef_extension = "lhe"
 ?lhef_write_sqme_prc = true
 ?lhef_write_sqme_ref = false
 ?lhef_write_sqme_alt = true
 $extension_lha = "lha"
 $extension_hepmc = "hepmc"
 ?hepmc_output_cross_section = false
 ?hepmc3_write_flows = false
 $hepmc3_mode = "HepMC3"
 $extension_lcio = "slcio"
 $extension_stdhep = "hep"
 $extension_stdhep_up = "up.hep"
 $extension_stdhep_ev4 = "ev4.hep"
 $extension_hepevt_verb = "hepevt.verb"
 $extension_lha_verb = "lha.verb"
 ?allow_shower = true
 ?ps_fsr_active = false
 ?ps_isr_active = false
 ?ps_taudec_active = false
 ?muli_active = false
 $shower_method = "WHIZARD"
 ?shower_verbose = false
 $ps_PYTHIA_PYGIVE = ""
 $ps_PYTHIA8_config = ""
 $ps_PYTHIA8_config_file = ""
 ps_mass_cutoff =  1.000000000000E+00
 ps_fsr_lambda =  2.900000000000E-01
 ps_isr_lambda =  2.900000000000E-01
 ps_max_n_flavors = 5
 ?ps_isr_alphas_running = true
 ?ps_fsr_alphas_running = true
 ps_fixed_alphas =  0.000000000000E+00
 ?ps_isr_pt_ordered = false
 ?ps_isr_angular_ordered = true
 ps_isr_primordial_kt_width =  0.000000000000E+00
 ps_isr_primordial_kt_cutoff =  5.000000000000E+00
 ps_isr_z_cutoff =  9.990000000000E-01
 ps_isr_minenergy =  1.000000000000E+00
 ps_isr_tscalefactor =  1.000000000000E+00
 ?ps_isr_only_onshell_emitted_partons = false
 ?allow_hadronization = true
 ?hadronization_active = false
 $hadronization_method = "PYTHIA6"
 hadron_enhanced_fraction =  1.000000000000E-02
 hadron_enhanced_width =  2.000000000000E+00
 ?ps_tauola_photos = false
 ?ps_tauola_transverse = false
 ?ps_tauola_dec_rad_cor = true
 ps_tauola_dec_mode1 = 0
 ps_tauola_dec_mode2 = 0
 ps_tauola_mh =  1.250000000000E+02
 ps_tauola_mix_angle =  9.000000000000E+01
 ?ps_tauola_pol_vector = false
 ?mlm_matching = false
 mlm_Qcut_ME =  0.000000000000E+00
 mlm_Qcut_PS =  0.000000000000E+00
 mlm_ptmin =  0.000000000000E+00
 mlm_etamax =  0.000000000000E+00
 mlm_Rmin =  0.000000000000E+00
 mlm_Emin =  0.000000000000E+00
 mlm_nmaxMEjets = 0
 mlm_ETclusfactor =  2.000000000000E-01
 mlm_ETclusminE =  5.000000000000E+00
 mlm_etaclusfactor =  1.000000000000E+00
 mlm_Rclusfactor =  1.000000000000E+00
 mlm_Eclusfactor =  1.000000000000E+00
 ?powheg_matching = false
 ?powheg_use_singular_jacobian = false
 powheg_grid_size_xi = 5
 powheg_grid_size_y = 5
 powheg_pt_min =  1.000000000000E+00
 powheg_lambda =  2.000000000000E-01
 ?powheg_test_sudakov = false
 ?powheg_disable_sudakov = false
 ?ckkw_matching = false
 ?omega_openmp = false
 ?openmp_is_active* = false
 openmp_num_threads_default* = 1
 openmp_num_threads = 1
 ?openmp_logging = true
 ?mpi_logging = false
 $born_me_method = ""
 $loop_me_method = ""
 $correlation_me_method = ""
 $real_tree_me_method = ""
 $dglap_me_method = ""
 ?test_soft_limit = false
 ?test_coll_limit = false
 ?test_anti_coll_limit = false
 $select_alpha_regions = ""
 $virtual_selection = "Full"
 ?virtual_collinear_resonance_aware = true
 blha_top_yukawa = -1.000000000000E+00
 $blha_ew_scheme = "alpha_internal"
 openloops_verbosity = 1
 ?openloops_use_cms = true
 openloops_phs_tolerance = 7
 openloops_stability_log = 0
 ?openloops_switch_off_muon_yukawa = false
 $openloops_extra_cmd = ""
+$openloops_allowed_libs = ""
 ellis_sexton_scale = -1.000000000000E+00
 ?disable_subtraction = false
 fks_dij_exp1 =  1.000000000000E+00
 fks_dij_exp2 =  1.000000000000E+00
 fks_xi_min =  0.000000000000E+00
 fks_y_max =  1.000000000000E+00
 ?vis_fks_regions = false
 fks_xi_cut =  1.000000000000E+00
 fks_delta_o =  2.000000000000E+00
 fks_delta_i =  2.000000000000E+00
 $fks_mapping_type = "default"
 $resonances_exclude_particles = "default"
 alpha_power = 2
 alphas_power = 0
 ?combined_nlo_integration = false
 ?fixed_order_nlo_events = false
 ?check_event_weights_against_xsection = false
 ?keep_failed_events = false
 gks_multiplicity = 0
 $gosam_filter_lo = ""
 $gosam_filter_nlo = ""
 $gosam_symmetries = "family,generation"
 form_threads = 2
 form_workspace = 1000
 $gosam_fc = ""
 mult_call_real =  1.000000000000E+00
 mult_call_virt =  1.000000000000E+00
 mult_call_dglap =  1.000000000000E+00
 $dalitz_plot = ""
 $nlo_correction_type = "QCD"
 $exclude_gauge_splittings = "c:b:t:e2:e3"
 ?nlo_use_born_scale = false
 ?nlo_cut_all_real_sqmes = false
 $real_partition_mode = "default"
 real_partition_scale =  1.000000000000E+01
 ?nlo_reuse_amplitudes_fks = false
 $fc => "Fortran-compiler"
 $fcflags => "Fortran-flags"
 $fclibs => "Fortran-libs"
 ========================================================================
  iterations = 2:5000:"gw", 3:20000
 ========================================================================
  Process library stack: [empty]
 ========================================================================
  Beam structure: [any particles]
 ========================================================================
  Cuts: [undefined]
 ------------------------------------------------------------------------
  Scale: [undefined]
 ------------------------------------------------------------------------
  Factorization scale: [undefined]
 ------------------------------------------------------------------------
  Renormalization scale: [undefined]
 ------------------------------------------------------------------------
  Weight: [undefined]
 ========================================================================
  Event selection: [undefined]
 ------------------------------------------------------------------------
  Event reweighting factor: [undefined]
 ------------------------------------------------------------------------
  Event analysis: [undefined]
 ------------------------------------------------------------------------
  Event callback: [undefined]
 ========================================================================
  Process stack: [empty]
 ========================================================================
  quit     : F
  quit_code: 0
 ========================================================================
  Logfile  : 'rt_data.log'
 ========================================================================
 
 * Test output end: rt_data_1
Index: trunk/share/tests/unit_tests/ref-output/rt_data_2.ref
===================================================================
--- trunk/share/tests/unit_tests/ref-output/rt_data_2.ref	(revision 8818)
+++ trunk/share/tests/unit_tests/ref-output/rt_data_2.ref	(revision 8819)
@@ -1,507 +1,508 @@
 * Test output: rt_data_2
 *   Purpose: initialize global runtime data and fill contents
 
 ========================================================================
  Runtime data:
 ========================================================================
 gy =>  1.000000000000E+00
 ms =>  1.250000000000E+02
 ff =>  1.500000000000E+00
 mf* =>  1.875000000000E+02
 particle* = PDG(0)
 SCALAR* = PDG(25)
 s* = PDG(25)
 FERMION* = PDG(6)
 f* = PDG(6)
 fbar* = PDG(-6)
 F* = PDG(-6)
 charged* = PDG(6, -6)
 neutral* = PDG(25)
 colored* = PDG(6, -6)
 sqrts =  1.000000000000E+03
 luminosity =  3.300000000000E+01
 ?sf_trace = false
 $sf_trace_file = ""
 ?sf_allow_s_mapping = true
 $lhapdf_dir = ""
 $lhapdf_file = ""
 $lhapdf_photon_file = ""
 lhapdf_member = 0
 lhapdf_photon_scheme = 0
 $pdf_builtin_set = "CTEQ6L"
 ?hoppet_b_matching = false
 isr_alpha =  0.000000000000E+00
 isr_q_max =  0.000000000000E+00
 isr_mass =  0.000000000000E+00
 isr_order = 3
 isr_log_order = 0
 isr_q_in = -1.000000000000E+00
 ?isr_recoil = false
 ?isr_keep_energy = false
 ?isr_handler = false
 $isr_handler_mode = "trivial"
 ?isr_handler_keep_mass = true
 $epa_mode = "default"
 epa_alpha =  0.000000000000E+00
 epa_x_min =  0.000000000000E+00
 epa_q_min =  0.000000000000E+00
 epa_q_max =  0.000000000000E+00
 epa_mass =  0.000000000000E+00
 ?epa_recoil = false
 ?epa_keep_energy = false
 ?epa_handler = false
 $epa_handler_mode = "trivial"
 ewa_x_min =  0.000000000000E+00
 ewa_pt_max =  0.000000000000E+00
 ewa_mass =  0.000000000000E+00
 ?ewa_recoil = false
 ?ewa_keep_energy = false
 ?circe1_photon1 = false
 ?circe1_photon2 = false
 [undefined] circe1_sqrts = [unknown real]
 ?circe1_generate = true
 ?circe1_map = true
 circe1_mapping_slope =  2.000000000000E+00
 circe1_eps =  1.000000000000E-05
 circe1_ver = 0
 circe1_rev = 0
 $circe1_acc = "SBAND"
 circe1_chat = 0
 ?circe1_with_radiation = false
 ?circe2_polarized = true
 [undefined] $circe2_file = [unknown string]
 $circe2_design = "*"
 gaussian_spread1 =  0.000000000000E+00
 gaussian_spread2 =  0.000000000000E+00
 [undefined] $beam_events_file = [unknown string]
 ?beam_events_warn_eof = true
 ?energy_scan_normalize = false
 $negative_sf = "default"
 ?logging => false
 [undefined] $job_id = [unknown string]
 [undefined] $compile_workspace = [unknown string]
 seed = 0
 $model_name = "Test"
 [undefined] process_num_id = [unknown integer]
 ?proc_as_run_id = true
 lcio_run_id = 0
 $method = "omega"
 ?report_progress = true
 [user variable] ?me_verbose = false
 $restrictions = ""
 ?omega_write_phs_output = false
 $omega_flags = ""
 ?read_color_factors = true
 ?slha_read_input = true
 ?slha_read_spectrum = true
 ?slha_read_decays = false
 [undefined] $library_name = [unknown string]
 ?alphas_is_fixed = true
 ?alpha_is_fixed = true
 ?alphas_from_lhapdf = false
 ?alphas_from_pdf_builtin = false
 ?alpha_evolve_analytic = true
 alphas_order = 0
 alpha_order = 0
 alphas_nf = 5
 alpha_nf = -1
 alpha_nlep = 1
 ?alphas_from_mz = false
 ?alphas_from_lambda_qcd = false
 lambda_qcd =  2.000000000000E-01
 ?fatal_beam_decay = true
 ?helicity_selection_active = true
 helicity_selection_threshold =  1.000000000000E+10
 helicity_selection_cutoff = 1000
 $rng_method = "tao"
 ?vis_diags = false
 ?vis_diags_color = false
 ?check_event_file = true
 $event_file_version = ""
 n_events = 0
 event_index_offset = 0
 ?unweighted = true
 safety_factor =  1.000000000000E+00
 ?negative_weights = false
 ?resonance_history = false
 resonance_on_shell_limit =  4.000000000000E+00
 resonance_on_shell_turnoff =  0.000000000000E+00
 resonance_background_factor =  1.000000000000E+00
 ?keep_beams = false
 ?keep_remnants = true
 ?rescan_force = false
 ?recover_beams = true
 ?update_event = false
 ?update_sqme = false
 ?update_weight = false
 ?use_alphas_from_file = false
 ?use_scale_from_file = false
 ?allow_decays = true
 ?auto_decays = false
 auto_decays_multiplicity = 2
 ?auto_decays_radiative = false
 ?decay_rest_frame = false
 ?isotropic_decay = false
 ?diagonal_decay = false
 [undefined] decay_helicity = [unknown integer]
 ?polarized_events = false
 $polarization_mode = "helicity"
 ?colorize_subevt = false
 tolerance =  0.000000000000E+00
 checkpoint = 0
 event_callback_interval = 0
 ?pacify = false
 $out_file = ""
 ?out_advance = true
 real_range* = 307
 real_precision* = 15
 real_epsilon* =  1.000000000000E-16
 real_tiny* =  1.000000000000-300
 $integration_method = "vamp"
 threshold_calls = 10
 min_calls_per_channel = 10
 min_calls_per_bin = 10
 min_bins = 3
 max_bins = 20
 ?stratified = true
 ?use_vamp_equivalences = true
 ?vamp_verbose = false
 ?vamp_history_global = true
 ?vamp_history_global_verbose = false
 ?vamp_history_channels = false
 ?vamp_history_channels_verbose = false
 $run_id = "run1"
 n_calls_test = 0
 ?integration_timer = true
 ?check_grid_file = true
 accuracy_goal =  0.000000000000E+00
 error_goal =  0.000000000000E+00
 relative_error_goal =  0.000000000000E+00
 integration_results_verbosity = 1
 error_threshold =  0.000000000000E+00
 channel_weights_power =  2.500000000000E-01
 [undefined] $integrate_workspace = [unknown string]
 vamp_grid_checkpoint = 1
 $vamp_grid_format = "ascii"
 $vamp_parallel_method = "simple"
 $phs_method = "default"
 ?vis_channels = false
 ?check_phs_file = true
 $phs_file = ""
 ?phs_only = false
 phs_threshold_s =  5.000000000000E+01
 phs_threshold_t =  1.000000000000E+02
 phs_off_shell = 2
 phs_t_channel = 6
 phs_e_scale =  1.000000000000E+01
 phs_m_scale =  1.000000000000E+01
 phs_q_scale =  1.000000000000E+01
 ?phs_keep_nonresonant = true
 ?phs_step_mapping = true
 ?phs_step_mapping_exp = true
 ?phs_s_mapping = true
 ?vis_history = false
 n_bins = 20
 ?normalize_bins = false
 $obs_label = ""
 $obs_unit = ""
 $title = ""
 $description = ""
 $x_label = ""
 $y_label = ""
 graph_width_mm = 130
 graph_height_mm = 90
 ?y_log = false
 ?x_log = false
 [undefined] x_min = [unknown real]
 [undefined] x_max = [unknown real]
 [undefined] y_min = [unknown real]
 [undefined] y_max = [unknown real]
 $gmlcode_bg = ""
 $gmlcode_fg = ""
 [undefined] ?draw_histogram = [unknown logical]
 [undefined] ?draw_base = [unknown logical]
 [undefined] ?draw_piecewise = [unknown logical]
 [undefined] ?fill_curve = [unknown logical]
 [undefined] ?draw_curve = [unknown logical]
 [undefined] ?draw_errors = [unknown logical]
 [undefined] ?draw_symbols = [unknown logical]
 [undefined] $fill_options = [unknown string]
 [undefined] $draw_options = [unknown string]
 [undefined] $err_options = [unknown string]
 [undefined] $symbol = [unknown string]
 ?analysis_file_only = false
 kt_algorithm* = 0
 cambridge_algorithm* = 1
 antikt_algorithm* = 2
 genkt_algorithm* = 3
 cambridge_for_passive_algorithm* = 11
 genkt_for_passive_algorithm* = 13
 ee_kt_algorithm* = 50
 ee_genkt_algorithm* = 53
 plugin_algorithm* = 99
 undefined_jet_algorithm* = 999
 jet_algorithm = 999
 jet_r =  0.000000000000E+00
 jet_p =  0.000000000000E+00
 jet_ycut =  0.000000000000E+00
 jet_dcut =  0.000000000000E+00
 ?keep_flavors_when_clustering = false
 photon_iso_eps =  1.000000000000E+00
 photon_iso_n =  1.000000000000E+00
 photon_iso_r0 =  4.000000000000E-01
 photon_rec_r0 =  1.000000000000E-01
 ?keep_flavors_when_recombining = true
 $sample = ""
 $sample_normalization = "auto"
 ?sample_pacify = false
 ?sample_select = true
 sample_max_tries = 10000
 sample_split_n_evt = 0
 sample_split_n_kbytes = 0
 sample_split_index = 0
 $rescan_input_format = "raw"
 ?read_raw = true
 ?write_raw = true
 $extension_raw = "evx"
 $extension_default = "evt"
 $debug_extension = "debug"
 ?debug_process = true
 ?debug_transforms = true
 ?debug_decay = true
 ?debug_verbose = true
 $dump_extension = "pset.dat"
 ?dump_compressed = false
 ?dump_weights = false
 ?dump_summary = false
 ?dump_screen = false
 ?hepevt_ensure_order = false
 $extension_hepevt = "hepevt"
 $extension_ascii_short = "short.evt"
 $extension_ascii_long = "long.evt"
 $extension_athena = "athena.evt"
 $extension_mokka = "mokka.evt"
 $lhef_version = "2.0"
 $lhef_extension = "lhe"
 ?lhef_write_sqme_prc = true
 ?lhef_write_sqme_ref = false
 ?lhef_write_sqme_alt = true
 $extension_lha = "lha"
 $extension_hepmc = "hepmc"
 ?hepmc_output_cross_section = false
 ?hepmc3_write_flows = false
 $hepmc3_mode = "HepMC3"
 $extension_lcio = "slcio"
 $extension_stdhep = "hep"
 $extension_stdhep_up = "up.hep"
 $extension_stdhep_ev4 = "ev4.hep"
 $extension_hepevt_verb = "hepevt.verb"
 $extension_lha_verb = "lha.verb"
 ?allow_shower = true
 ?ps_fsr_active = false
 ?ps_isr_active = false
 ?ps_taudec_active = false
 ?muli_active = false
 $shower_method = "WHIZARD"
 ?shower_verbose = false
 $ps_PYTHIA_PYGIVE = ""
 $ps_PYTHIA8_config = ""
 $ps_PYTHIA8_config_file = ""
 ps_mass_cutoff =  1.000000000000E+00
 ps_fsr_lambda =  2.900000000000E-01
 ps_isr_lambda =  2.900000000000E-01
 ps_max_n_flavors = 5
 ?ps_isr_alphas_running = true
 ?ps_fsr_alphas_running = true
 ps_fixed_alphas =  0.000000000000E+00
 ?ps_isr_pt_ordered = false
 ?ps_isr_angular_ordered = true
 ps_isr_primordial_kt_width =  0.000000000000E+00
 ps_isr_primordial_kt_cutoff =  5.000000000000E+00
 ps_isr_z_cutoff =  9.990000000000E-01
 ps_isr_minenergy =  1.000000000000E+00
 ps_isr_tscalefactor =  1.000000000000E+00
 ?ps_isr_only_onshell_emitted_partons = false
 ?allow_hadronization = true
 ?hadronization_active = false
 $hadronization_method = "PYTHIA6"
 hadron_enhanced_fraction =  1.000000000000E-02
 hadron_enhanced_width =  2.000000000000E+00
 ?ps_tauola_photos = false
 ?ps_tauola_transverse = false
 ?ps_tauola_dec_rad_cor = true
 ps_tauola_dec_mode1 = 0
 ps_tauola_dec_mode2 = 0
 ps_tauola_mh =  1.250000000000E+02
 ps_tauola_mix_angle =  9.000000000000E+01
 ?ps_tauola_pol_vector = false
 ?mlm_matching = false
 mlm_Qcut_ME =  0.000000000000E+00
 mlm_Qcut_PS =  0.000000000000E+00
 mlm_ptmin =  0.000000000000E+00
 mlm_etamax =  0.000000000000E+00
 mlm_Rmin =  0.000000000000E+00
 mlm_Emin =  0.000000000000E+00
 mlm_nmaxMEjets = 0
 mlm_ETclusfactor =  2.000000000000E-01
 mlm_ETclusminE =  5.000000000000E+00
 mlm_etaclusfactor =  1.000000000000E+00
 mlm_Rclusfactor =  1.000000000000E+00
 mlm_Eclusfactor =  1.000000000000E+00
 ?powheg_matching = false
 ?powheg_use_singular_jacobian = false
 powheg_grid_size_xi = 5
 powheg_grid_size_y = 5
 powheg_pt_min =  1.000000000000E+00
 powheg_lambda =  2.000000000000E-01
 ?powheg_test_sudakov = false
 ?powheg_disable_sudakov = false
 ?ckkw_matching = false
 ?omega_openmp = false
 ?openmp_is_active* = false
 openmp_num_threads_default* = 1
 openmp_num_threads = 1
 ?openmp_logging = true
 ?mpi_logging = false
 $born_me_method = ""
 $loop_me_method = ""
 $correlation_me_method = ""
 $real_tree_me_method = ""
 $dglap_me_method = ""
 ?test_soft_limit = false
 ?test_coll_limit = false
 ?test_anti_coll_limit = false
 $select_alpha_regions = ""
 $virtual_selection = "Full"
 ?virtual_collinear_resonance_aware = true
 blha_top_yukawa = -1.000000000000E+00
 $blha_ew_scheme = "alpha_internal"
 openloops_verbosity = 1
 ?openloops_use_cms = true
 openloops_phs_tolerance = 7
 openloops_stability_log = 0
 ?openloops_switch_off_muon_yukawa = false
 $openloops_extra_cmd = ""
+$openloops_allowed_libs = ""
 ellis_sexton_scale = -1.000000000000E+00
 ?disable_subtraction = false
 fks_dij_exp1 =  1.000000000000E+00
 fks_dij_exp2 =  1.000000000000E+00
 fks_xi_min =  0.000000000000E+00
 fks_y_max =  1.000000000000E+00
 ?vis_fks_regions = false
 fks_xi_cut =  1.000000000000E+00
 fks_delta_o =  2.000000000000E+00
 fks_delta_i =  2.000000000000E+00
 $fks_mapping_type = "default"
 $resonances_exclude_particles = "default"
 alpha_power = 2
 alphas_power = 0
 ?combined_nlo_integration = false
 ?fixed_order_nlo_events = false
 ?check_event_weights_against_xsection = false
 ?keep_failed_events = false
 gks_multiplicity = 0
 $gosam_filter_lo = ""
 $gosam_filter_nlo = ""
 $gosam_symmetries = "family,generation"
 form_threads = 2
 form_workspace = 1000
 $gosam_fc = ""
 mult_call_real =  1.000000000000E+00
 mult_call_virt =  1.000000000000E+00
 mult_call_dglap =  1.000000000000E+00
 $dalitz_plot = ""
 $nlo_correction_type = "QCD"
 $exclude_gauge_splittings = "c:b:t:e2:e3"
 ?nlo_use_born_scale = false
 ?nlo_cut_all_real_sqmes = false
 $real_partition_mode = "default"
 real_partition_scale =  1.000000000000E+01
 ?nlo_reuse_amplitudes_fks = false
 $fc => "Fortran-compiler"
 $fcflags => "Fortran-flags"
 $fclibs => "Fortran-libs"
 ========================================================================
 model "Test"
  ! md5sum = 'DB28187ADA60804A3CFC14A025DED784'
 
    parameter gy =  1.000000000000E+00
    parameter ms =  1.250000000000E+02
    parameter ff =  1.500000000000E+00
    external mf =  1.875000000000E+02
 
    particle SCALAR 25
      name "s"
      spin 0
      mass ms
    particle FERMION 6
      name "f"
      anti "fbar" "F"
      tex_anti "\bar{f}"
      spin 1/2  isospin 1/2  charge 2/3  color 3
      mass mf
 
    vertex "fbar" "f" "s"
    vertex "s" "s" "s"
 ========================================================================
  Process library stack: [empty]
 ========================================================================
  Beam structure: [any particles]
 ========================================================================
  Cuts:
 ------------------------------------------------------------------------
 +  SEQUENCE    <lexpr>  =  <lsinglet>
 +  SEQUENCE    <lsinglet>  =  <lterm>
 |  +  SEQUENCE    <lterm>  =  <all_fun>
 |  |  +  SEQUENCE    <all_fun>  =  all <lexpr> <pargs1>
 |  |  |  +  KEYWORD     all  = [keyword] all
 |  |  |  +  SEQUENCE    <lexpr>  =  <lsinglet>
 |  |  |  |  +  SEQUENCE    <lsinglet>  =  <lterm>
 |  |  |  |  |  +  SEQUENCE    <lterm>  =  <compared_expr>
 |  |  |  |  |  |  +  SEQUENCE    <compared_expr>  =  <expr> <comparison>
 |  |  |  |  |  |  |  +  SEQUENCE    <expr>  =  <term>
 |  |  |  |  |  |  |  |  +  SEQUENCE    <term>  =  <factor>
 |  |  |  |  |  |  |  |  |  +  SEQUENCE    <factor>  =  <variable>
 |  |  |  |  |  |  |  |  |  |  +  IDENTIFIER  <variable>  = Pt
 |  |  |  |  |  |  |  +  SEQUENCE    <comparison>  =  '>' <expr>
 |  |  |  |  |  |  |  |  +  KEYWORD     '>'  = [keyword] >
 |  |  |  |  |  |  |  |  +  SEQUENCE    <expr>  =  <term>
 |  |  |  |  |  |  |  |  |  +  SEQUENCE    <term>  =  <factor>
 |  |  |  |  |  |  |  |  |  |  +  SEQUENCE    <factor>  =  <integer_value>
 |  |  |  |  |  |  |  |  |  |  |  +  SEQUENCE    <integer_value>  =  <integer_literal>
 |  |  |  |  |  |  |  |  |  |  |  |  +  INTEGER     <integer_literal>  = 100
 |  |  |  +  ARGUMENTS   <pargs1>  =  <pexpr>
 |  |  |  |  +  SEQUENCE    <pexpr>  =  <pterm>
 |  |  |  |  |  +  SEQUENCE    <pterm>  =  <pexpr_src>
 |  |  |  |  |  |  +  SEQUENCE    <pexpr_src>  =  <unspecified_prt>
 |  |  |  |  |  |  |  +  SEQUENCE    <unspecified_prt>  =  <cexpr>
 |  |  |  |  |  |  |  |  +  SEQUENCE    <cexpr>  =  <variable>
 |  |  |  |  |  |  |  |  |  +  IDENTIFIER  <variable>  = s
 ------------------------------------------------------------------------
  Scale: [undefined]
 ------------------------------------------------------------------------
  Factorization scale: [undefined]
 ------------------------------------------------------------------------
  Renormalization scale: [undefined]
 ------------------------------------------------------------------------
  Weight: [undefined]
 ========================================================================
  Event selection: [undefined]
 ------------------------------------------------------------------------
  Event reweighting factor: [undefined]
 ------------------------------------------------------------------------
  Event analysis: [undefined]
 ------------------------------------------------------------------------
  Event sample formats = foo_fmt, bar_fmt
 ------------------------------------------------------------------------
  Event callback: [undefined]
 ========================================================================
  Process stack: [empty]
 ========================================================================
  quit     : F
  quit_code: 0
 ========================================================================
  Logfile  : ''
 ========================================================================
 
 * Test output end: rt_data_2
Index: trunk/share/tests/unit_tests/ref-output/rt_data_3.ref
===================================================================
--- trunk/share/tests/unit_tests/ref-output/rt_data_3.ref	(revision 8818)
+++ trunk/share/tests/unit_tests/ref-output/rt_data_3.ref	(revision 8819)
@@ -1,1068 +1,1070 @@
 * Test output: rt_data_3
 *   Purpose: initialize global runtime data and fill contents;
 *            copy to local block and back
 
 * Init global data
 
 * Init and modify local data
 
  model associated   = T
  library associated = T
 
 ========================================================================
  Runtime data:
 ========================================================================
 gy =>  1.000000000000E+00
 ms =>  1.500000000000E+02
 ff =>  1.500000000000E+00
 mf* =>  2.250000000000E+02
 particle* = PDG(0)
 SCALAR* = PDG(25)
 s* = PDG(25)
 FERMION* = PDG(6)
 f* = PDG(6)
 fbar* = PDG(-6)
 F* = PDG(-6)
 charged* = PDG(6, -6)
 neutral* = PDG(25)
 colored* = PDG(6, -6)
 $model_name = "Test"
 $fc => "Local compiler"
 $fcflags => "Fortran-flags"
 $fclibs => "Fortran-libs"
 $integration_method = "midpoint"
 $phs_method = "single"
 $library_name = "library_2"
 sqrts =  1.000000000000E+03
 luminosity =  3.300000000000E+01
 ?sf_trace = false
 $sf_trace_file = ""
 ?sf_allow_s_mapping = true
 $lhapdf_dir = ""
 $lhapdf_file = ""
 $lhapdf_photon_file = ""
 lhapdf_member = 0
 lhapdf_photon_scheme = 0
 $pdf_builtin_set = "CTEQ6L"
 ?hoppet_b_matching = false
 isr_alpha =  0.000000000000E+00
 isr_q_max =  0.000000000000E+00
 isr_mass =  0.000000000000E+00
 isr_order = 3
 isr_log_order = 0
 isr_q_in = -1.000000000000E+00
 ?isr_recoil = false
 ?isr_keep_energy = false
 ?isr_handler = false
 $isr_handler_mode = "trivial"
 ?isr_handler_keep_mass = true
 $epa_mode = "default"
 epa_alpha =  0.000000000000E+00
 epa_x_min =  0.000000000000E+00
 epa_q_min =  0.000000000000E+00
 epa_q_max =  0.000000000000E+00
 epa_mass =  0.000000000000E+00
 ?epa_recoil = false
 ?epa_keep_energy = false
 ?epa_handler = false
 $epa_handler_mode = "trivial"
 ewa_x_min =  0.000000000000E+00
 ewa_pt_max =  0.000000000000E+00
 ewa_mass =  0.000000000000E+00
 ?ewa_recoil = false
 ?ewa_keep_energy = false
 ?circe1_photon1 = false
 ?circe1_photon2 = false
 [undefined] circe1_sqrts = [unknown real]
 ?circe1_generate = true
 ?circe1_map = true
 circe1_mapping_slope =  2.000000000000E+00
 circe1_eps =  1.000000000000E-05
 circe1_ver = 0
 circe1_rev = 0
 $circe1_acc = "SBAND"
 circe1_chat = 0
 ?circe1_with_radiation = false
 ?circe2_polarized = true
 [undefined] $circe2_file = [unknown string]
 $circe2_design = "*"
 gaussian_spread1 =  0.000000000000E+00
 gaussian_spread2 =  0.000000000000E+00
 [undefined] $beam_events_file = [unknown string]
 ?beam_events_warn_eof = true
 ?energy_scan_normalize = false
 $negative_sf = "default"
 ?logging => false
 [undefined] $job_id = [unknown string]
 [undefined] $compile_workspace = [unknown string]
 seed = 0
 $model_name = "Test"
 [undefined] process_num_id = [unknown integer]
 ?proc_as_run_id = true
 lcio_run_id = 0
 $method = "omega"
 ?report_progress = true
 [user variable] ?me_verbose = false
 $restrictions = ""
 ?omega_write_phs_output = false
 $omega_flags = ""
 ?read_color_factors = true
 ?slha_read_input = true
 ?slha_read_spectrum = true
 ?slha_read_decays = false
 $library_name = "library_1"
 ?alphas_is_fixed = true
 ?alpha_is_fixed = true
 ?alphas_from_lhapdf = false
 ?alphas_from_pdf_builtin = false
 ?alpha_evolve_analytic = true
 alphas_order = 0
 alpha_order = 0
 alphas_nf = 5
 alpha_nf = -1
 alpha_nlep = 1
 ?alphas_from_mz = false
 ?alphas_from_lambda_qcd = false
 lambda_qcd =  2.000000000000E-01
 ?fatal_beam_decay = true
 ?helicity_selection_active = true
 helicity_selection_threshold =  1.000000000000E+10
 helicity_selection_cutoff = 1000
 $rng_method = "tao"
 ?vis_diags = false
 ?vis_diags_color = false
 ?check_event_file = true
 $event_file_version = ""
 n_events = 0
 event_index_offset = 0
 ?unweighted = true
 safety_factor =  1.000000000000E+00
 ?negative_weights = false
 ?resonance_history = false
 resonance_on_shell_limit =  4.000000000000E+00
 resonance_on_shell_turnoff =  0.000000000000E+00
 resonance_background_factor =  1.000000000000E+00
 ?keep_beams = false
 ?keep_remnants = true
 ?rescan_force = false
 ?recover_beams = true
 ?update_event = false
 ?update_sqme = false
 ?update_weight = false
 ?use_alphas_from_file = false
 ?use_scale_from_file = false
 ?allow_decays = true
 ?auto_decays = false
 auto_decays_multiplicity = 2
 ?auto_decays_radiative = false
 ?decay_rest_frame = false
 ?isotropic_decay = false
 ?diagonal_decay = false
 [undefined] decay_helicity = [unknown integer]
 ?polarized_events = false
 $polarization_mode = "helicity"
 ?colorize_subevt = false
 tolerance =  0.000000000000E+00
 checkpoint = 0
 event_callback_interval = 0
 ?pacify = false
 $out_file = ""
 ?out_advance = true
 real_range* = 307
 real_precision* = 15
 real_epsilon* =  1.000000000000E-16
 real_tiny* =  1.000000000000-300
 $integration_method = "vamp"
 threshold_calls = 10
 min_calls_per_channel = 10
 min_calls_per_bin = 10
 min_bins = 3
 max_bins = 20
 ?stratified = true
 ?use_vamp_equivalences = true
 ?vamp_verbose = false
 ?vamp_history_global = true
 ?vamp_history_global_verbose = false
 ?vamp_history_channels = false
 ?vamp_history_channels_verbose = false
 $run_id = "run1"
 n_calls_test = 0
 ?integration_timer = true
 ?check_grid_file = true
 accuracy_goal =  0.000000000000E+00
 error_goal =  0.000000000000E+00
 relative_error_goal =  0.000000000000E+00
 integration_results_verbosity = 1
 error_threshold =  0.000000000000E+00
 channel_weights_power =  2.500000000000E-01
 [undefined] $integrate_workspace = [unknown string]
 vamp_grid_checkpoint = 1
 $vamp_grid_format = "ascii"
 $vamp_parallel_method = "simple"
 $phs_method = "default"
 ?vis_channels = false
 ?check_phs_file = true
 $phs_file = ""
 ?phs_only = false
 phs_threshold_s =  5.000000000000E+01
 phs_threshold_t =  1.000000000000E+02
 phs_off_shell = 2
 phs_t_channel = 6
 phs_e_scale =  1.000000000000E+01
 phs_m_scale =  1.000000000000E+01
 phs_q_scale =  1.000000000000E+01
 ?phs_keep_nonresonant = true
 ?phs_step_mapping = true
 ?phs_step_mapping_exp = true
 ?phs_s_mapping = true
 ?vis_history = false
 n_bins = 20
 ?normalize_bins = false
 $obs_label = ""
 $obs_unit = ""
 $title = ""
 $description = ""
 $x_label = ""
 $y_label = ""
 graph_width_mm = 130
 graph_height_mm = 90
 ?y_log = false
 ?x_log = false
 [undefined] x_min = [unknown real]
 [undefined] x_max = [unknown real]
 [undefined] y_min = [unknown real]
 [undefined] y_max = [unknown real]
 $gmlcode_bg = ""
 $gmlcode_fg = ""
 [undefined] ?draw_histogram = [unknown logical]
 [undefined] ?draw_base = [unknown logical]
 [undefined] ?draw_piecewise = [unknown logical]
 [undefined] ?fill_curve = [unknown logical]
 [undefined] ?draw_curve = [unknown logical]
 [undefined] ?draw_errors = [unknown logical]
 [undefined] ?draw_symbols = [unknown logical]
 [undefined] $fill_options = [unknown string]
 [undefined] $draw_options = [unknown string]
 [undefined] $err_options = [unknown string]
 [undefined] $symbol = [unknown string]
 ?analysis_file_only = false
 kt_algorithm* = 0
 cambridge_algorithm* = 1
 antikt_algorithm* = 2
 genkt_algorithm* = 3
 cambridge_for_passive_algorithm* = 11
 genkt_for_passive_algorithm* = 13
 ee_kt_algorithm* = 50
 ee_genkt_algorithm* = 53
 plugin_algorithm* = 99
 undefined_jet_algorithm* = 999
 jet_algorithm = 999
 jet_r =  0.000000000000E+00
 jet_p =  0.000000000000E+00
 jet_ycut =  0.000000000000E+00
 jet_dcut =  0.000000000000E+00
 ?keep_flavors_when_clustering = false
 photon_iso_eps =  1.000000000000E+00
 photon_iso_n =  1.000000000000E+00
 photon_iso_r0 =  4.000000000000E-01
 photon_rec_r0 =  1.000000000000E-01
 ?keep_flavors_when_recombining = true
 $sample = ""
 $sample_normalization = "auto"
 ?sample_pacify = false
 ?sample_select = true
 sample_max_tries = 10000
 sample_split_n_evt = 0
 sample_split_n_kbytes = 0
 sample_split_index = 0
 $rescan_input_format = "raw"
 ?read_raw = true
 ?write_raw = true
 $extension_raw = "evx"
 $extension_default = "evt"
 $debug_extension = "debug"
 ?debug_process = true
 ?debug_transforms = true
 ?debug_decay = true
 ?debug_verbose = true
 $dump_extension = "pset.dat"
 ?dump_compressed = false
 ?dump_weights = false
 ?dump_summary = false
 ?dump_screen = false
 ?hepevt_ensure_order = false
 $extension_hepevt = "hepevt"
 $extension_ascii_short = "short.evt"
 $extension_ascii_long = "long.evt"
 $extension_athena = "athena.evt"
 $extension_mokka = "mokka.evt"
 $lhef_version = "2.0"
 $lhef_extension = "lhe"
 ?lhef_write_sqme_prc = true
 ?lhef_write_sqme_ref = false
 ?lhef_write_sqme_alt = true
 $extension_lha = "lha"
 $extension_hepmc = "hepmc"
 ?hepmc_output_cross_section = false
 ?hepmc3_write_flows = false
 $hepmc3_mode = "HepMC3"
 $extension_lcio = "slcio"
 $extension_stdhep = "hep"
 $extension_stdhep_up = "up.hep"
 $extension_stdhep_ev4 = "ev4.hep"
 $extension_hepevt_verb = "hepevt.verb"
 $extension_lha_verb = "lha.verb"
 ?allow_shower = true
 ?ps_fsr_active = false
 ?ps_isr_active = false
 ?ps_taudec_active = false
 ?muli_active = false
 $shower_method = "WHIZARD"
 ?shower_verbose = false
 $ps_PYTHIA_PYGIVE = ""
 $ps_PYTHIA8_config = ""
 $ps_PYTHIA8_config_file = ""
 ps_mass_cutoff =  1.000000000000E+00
 ps_fsr_lambda =  2.900000000000E-01
 ps_isr_lambda =  2.900000000000E-01
 ps_max_n_flavors = 5
 ?ps_isr_alphas_running = true
 ?ps_fsr_alphas_running = true
 ps_fixed_alphas =  0.000000000000E+00
 ?ps_isr_pt_ordered = false
 ?ps_isr_angular_ordered = true
 ps_isr_primordial_kt_width =  0.000000000000E+00
 ps_isr_primordial_kt_cutoff =  5.000000000000E+00
 ps_isr_z_cutoff =  9.990000000000E-01
 ps_isr_minenergy =  1.000000000000E+00
 ps_isr_tscalefactor =  1.000000000000E+00
 ?ps_isr_only_onshell_emitted_partons = false
 ?allow_hadronization = true
 ?hadronization_active = false
 $hadronization_method = "PYTHIA6"
 hadron_enhanced_fraction =  1.000000000000E-02
 hadron_enhanced_width =  2.000000000000E+00
 ?ps_tauola_photos = false
 ?ps_tauola_transverse = false
 ?ps_tauola_dec_rad_cor = true
 ps_tauola_dec_mode1 = 0
 ps_tauola_dec_mode2 = 0
 ps_tauola_mh =  1.250000000000E+02
 ps_tauola_mix_angle =  9.000000000000E+01
 ?ps_tauola_pol_vector = false
 ?mlm_matching = false
 mlm_Qcut_ME =  0.000000000000E+00
 mlm_Qcut_PS =  0.000000000000E+00
 mlm_ptmin =  0.000000000000E+00
 mlm_etamax =  0.000000000000E+00
 mlm_Rmin =  0.000000000000E+00
 mlm_Emin =  0.000000000000E+00
 mlm_nmaxMEjets = 0
 mlm_ETclusfactor =  2.000000000000E-01
 mlm_ETclusminE =  5.000000000000E+00
 mlm_etaclusfactor =  1.000000000000E+00
 mlm_Rclusfactor =  1.000000000000E+00
 mlm_Eclusfactor =  1.000000000000E+00
 ?powheg_matching = false
 ?powheg_use_singular_jacobian = false
 powheg_grid_size_xi = 5
 powheg_grid_size_y = 5
 powheg_pt_min =  1.000000000000E+00
 powheg_lambda =  2.000000000000E-01
 ?powheg_test_sudakov = false
 ?powheg_disable_sudakov = false
 ?ckkw_matching = false
 ?omega_openmp = false
 ?openmp_is_active* = false
 openmp_num_threads_default* = 1
 openmp_num_threads = 1
 ?openmp_logging = true
 ?mpi_logging = false
 $born_me_method = ""
 $loop_me_method = ""
 $correlation_me_method = ""
 $real_tree_me_method = ""
 $dglap_me_method = ""
 ?test_soft_limit = false
 ?test_coll_limit = false
 ?test_anti_coll_limit = false
 $select_alpha_regions = ""
 $virtual_selection = "Full"
 ?virtual_collinear_resonance_aware = true
 blha_top_yukawa = -1.000000000000E+00
 $blha_ew_scheme = "alpha_internal"
 openloops_verbosity = 1
 ?openloops_use_cms = true
 openloops_phs_tolerance = 7
 openloops_stability_log = 0
 ?openloops_switch_off_muon_yukawa = false
 $openloops_extra_cmd = ""
+$openloops_allowed_libs = ""
 ellis_sexton_scale = -1.000000000000E+00
 ?disable_subtraction = false
 fks_dij_exp1 =  1.000000000000E+00
 fks_dij_exp2 =  1.000000000000E+00
 fks_xi_min =  0.000000000000E+00
 fks_y_max =  1.000000000000E+00
 ?vis_fks_regions = false
 fks_xi_cut =  1.000000000000E+00
 fks_delta_o =  2.000000000000E+00
 fks_delta_i =  2.000000000000E+00
 $fks_mapping_type = "default"
 $resonances_exclude_particles = "default"
 alpha_power = 2
 alphas_power = 0
 ?combined_nlo_integration = false
 ?fixed_order_nlo_events = false
 ?check_event_weights_against_xsection = false
 ?keep_failed_events = false
 gks_multiplicity = 0
 $gosam_filter_lo = ""
 $gosam_filter_nlo = ""
 $gosam_symmetries = "family,generation"
 form_threads = 2
 form_workspace = 1000
 $gosam_fc = ""
 mult_call_real =  1.000000000000E+00
 mult_call_virt =  1.000000000000E+00
 mult_call_dglap =  1.000000000000E+00
 $dalitz_plot = ""
 $nlo_correction_type = "QCD"
 $exclude_gauge_splittings = "c:b:t:e2:e3"
 ?nlo_use_born_scale = false
 ?nlo_cut_all_real_sqmes = false
 $real_partition_mode = "default"
 real_partition_scale =  1.000000000000E+01
 ?nlo_reuse_amplitudes_fks = false
 $fc => "Fortran-compiler"
 $fcflags => "Fortran-flags"
 $fclibs => "Fortran-libs"
 ========================================================================
 model "Test"
  ! md5sum = 'DB28187ADA60804A3CFC14A025DED784'
 
    parameter gy =  1.000000000000E+00
    parameter ms =  1.500000000000E+02
    parameter ff =  1.500000000000E+00
    external mf =  2.250000000000E+02
 
    particle SCALAR 25
      name "s"
      spin 0
      mass ms
    particle FERMION 6
      name "f"
      anti "fbar" "F"
      tex_anti "\bar{f}"
      spin 1/2  isospin 1/2  charge 2/3  color 3
      mass mf
 
    vertex "fbar" "f" "s"
    vertex "s" "s" "s"
 ========================================================================
  Process library stack:
 ------------------------------------------------------------------------
  Process library: library_2
    external        = F
    makefile exists = F
    driver exists   = F
    code status     = o
 
  Process definition list: [empty]
 ------------------------------------------------------------------------
  Process library: library_1
    external        = F
    makefile exists = F
    driver exists   = F
    code status     = o
 
  Process definition list: [empty]
 ========================================================================
  Beam structure: s, s => pdf_builtin
 ========================================================================
  Cuts:
 ------------------------------------------------------------------------
 +  SEQUENCE    <lexpr>  =  <lsinglet>
 +  SEQUENCE    <lsinglet>  =  <lterm>
 |  +  SEQUENCE    <lterm>  =  <all_fun>
 |  |  +  SEQUENCE    <all_fun>  =  all <lexpr> <pargs1>
 |  |  |  +  KEYWORD     all  = [keyword] all
 |  |  |  +  SEQUENCE    <lexpr>  =  <lsinglet>
 |  |  |  |  +  SEQUENCE    <lsinglet>  =  <lterm>
 |  |  |  |  |  +  SEQUENCE    <lterm>  =  <compared_expr>
 |  |  |  |  |  |  +  SEQUENCE    <compared_expr>  =  <expr> <comparison>
 |  |  |  |  |  |  |  +  SEQUENCE    <expr>  =  <term>
 |  |  |  |  |  |  |  |  +  SEQUENCE    <term>  =  <factor>
 |  |  |  |  |  |  |  |  |  +  SEQUENCE    <factor>  =  <variable>
 |  |  |  |  |  |  |  |  |  |  +  IDENTIFIER  <variable>  = Pt
 |  |  |  |  |  |  |  +  SEQUENCE    <comparison>  =  '>' <expr>
 |  |  |  |  |  |  |  |  +  KEYWORD     '>'  = [keyword] >
 |  |  |  |  |  |  |  |  +  SEQUENCE    <expr>  =  <term>
 |  |  |  |  |  |  |  |  |  +  SEQUENCE    <term>  =  <factor>
 |  |  |  |  |  |  |  |  |  |  +  SEQUENCE    <factor>  =  <integer_value>
 |  |  |  |  |  |  |  |  |  |  |  +  SEQUENCE    <integer_value>  =  <integer_literal>
 |  |  |  |  |  |  |  |  |  |  |  |  +  INTEGER     <integer_literal>  = 100
 |  |  |  +  ARGUMENTS   <pargs1>  =  <pexpr>
 |  |  |  |  +  SEQUENCE    <pexpr>  =  <pterm>
 |  |  |  |  |  +  SEQUENCE    <pterm>  =  <pexpr_src>
 |  |  |  |  |  |  +  SEQUENCE    <pexpr_src>  =  <unspecified_prt>
 |  |  |  |  |  |  |  +  SEQUENCE    <unspecified_prt>  =  <cexpr>
 |  |  |  |  |  |  |  |  +  SEQUENCE    <cexpr>  =  <variable>
 |  |  |  |  |  |  |  |  |  +  IDENTIFIER  <variable>  = s
 ------------------------------------------------------------------------
  Scale: [undefined]
 ------------------------------------------------------------------------
  Factorization scale: [undefined]
 ------------------------------------------------------------------------
  Renormalization scale: [undefined]
 ------------------------------------------------------------------------
  Weight: [undefined]
 ========================================================================
  Event selection: [undefined]
 ------------------------------------------------------------------------
  Event reweighting factor: [undefined]
 ------------------------------------------------------------------------
  Event analysis: [undefined]
 ------------------------------------------------------------------------
  Event sample formats = foo_fmt, bar_fmt
 ------------------------------------------------------------------------
  Event callback: NOP
 ========================================================================
  Process stack: [empty]
 ========================================================================
  [Processes from context environment:]
 ========================================================================
  Process stack: [empty]
 ========================================================================
  quit     : F
  quit_code: 0
 ========================================================================
  Logfile  : ''
 ========================================================================
 
 * Restore global data
 
  model associated   = T
  library associated = T
 
 ========================================================================
  Runtime data:
 ========================================================================
 gy =>  1.000000000000E+00
 ms =>  1.250000000000E+02
 ff =>  1.500000000000E+00
 mf* =>  1.875000000000E+02
 particle* = PDG(0)
 SCALAR* = PDG(25)
 s* = PDG(25)
 FERMION* = PDG(6)
 f* = PDG(6)
 fbar* = PDG(-6)
 F* = PDG(-6)
 charged* = PDG(6, -6)
 neutral* = PDG(25)
 colored* = PDG(6, -6)
 sqrts =  1.000000000000E+03
 luminosity =  3.300000000000E+01
 ?sf_trace = false
 $sf_trace_file = ""
 ?sf_allow_s_mapping = true
 $lhapdf_dir = ""
 $lhapdf_file = ""
 $lhapdf_photon_file = ""
 lhapdf_member = 0
 lhapdf_photon_scheme = 0
 $pdf_builtin_set = "CTEQ6L"
 ?hoppet_b_matching = false
 isr_alpha =  0.000000000000E+00
 isr_q_max =  0.000000000000E+00
 isr_mass =  0.000000000000E+00
 isr_order = 3
 isr_log_order = 0
 isr_q_in = -1.000000000000E+00
 ?isr_recoil = false
 ?isr_keep_energy = false
 ?isr_handler = false
 $isr_handler_mode = "trivial"
 ?isr_handler_keep_mass = true
 $epa_mode = "default"
 epa_alpha =  0.000000000000E+00
 epa_x_min =  0.000000000000E+00
 epa_q_min =  0.000000000000E+00
 epa_q_max =  0.000000000000E+00
 epa_mass =  0.000000000000E+00
 ?epa_recoil = false
 ?epa_keep_energy = false
 ?epa_handler = false
 $epa_handler_mode = "trivial"
 ewa_x_min =  0.000000000000E+00
 ewa_pt_max =  0.000000000000E+00
 ewa_mass =  0.000000000000E+00
 ?ewa_recoil = false
 ?ewa_keep_energy = false
 ?circe1_photon1 = false
 ?circe1_photon2 = false
 [undefined] circe1_sqrts = [unknown real]
 ?circe1_generate = true
 ?circe1_map = true
 circe1_mapping_slope =  2.000000000000E+00
 circe1_eps =  1.000000000000E-05
 circe1_ver = 0
 circe1_rev = 0
 $circe1_acc = "SBAND"
 circe1_chat = 0
 ?circe1_with_radiation = false
 ?circe2_polarized = true
 [undefined] $circe2_file = [unknown string]
 $circe2_design = "*"
 gaussian_spread1 =  0.000000000000E+00
 gaussian_spread2 =  0.000000000000E+00
 [undefined] $beam_events_file = [unknown string]
 ?beam_events_warn_eof = true
 ?energy_scan_normalize = false
 $negative_sf = "default"
 ?logging => false
 [undefined] $job_id = [unknown string]
 [undefined] $compile_workspace = [unknown string]
 seed = 0
 $model_name = "Test"
 [undefined] process_num_id = [unknown integer]
 ?proc_as_run_id = true
 lcio_run_id = 0
 $method = "omega"
 ?report_progress = true
 [user variable] ?me_verbose = false
 $restrictions = ""
 ?omega_write_phs_output = false
 $omega_flags = ""
 ?read_color_factors = true
 ?slha_read_input = true
 ?slha_read_spectrum = true
 ?slha_read_decays = false
 $library_name = "library_1"
 ?alphas_is_fixed = true
 ?alpha_is_fixed = true
 ?alphas_from_lhapdf = false
 ?alphas_from_pdf_builtin = false
 ?alpha_evolve_analytic = true
 alphas_order = 0
 alpha_order = 0
 alphas_nf = 5
 alpha_nf = -1
 alpha_nlep = 1
 ?alphas_from_mz = false
 ?alphas_from_lambda_qcd = false
 lambda_qcd =  2.000000000000E-01
 ?fatal_beam_decay = true
 ?helicity_selection_active = true
 helicity_selection_threshold =  1.000000000000E+10
 helicity_selection_cutoff = 1000
 $rng_method = "tao"
 ?vis_diags = false
 ?vis_diags_color = false
 ?check_event_file = true
 $event_file_version = ""
 n_events = 0
 event_index_offset = 0
 ?unweighted = true
 safety_factor =  1.000000000000E+00
 ?negative_weights = false
 ?resonance_history = false
 resonance_on_shell_limit =  4.000000000000E+00
 resonance_on_shell_turnoff =  0.000000000000E+00
 resonance_background_factor =  1.000000000000E+00
 ?keep_beams = false
 ?keep_remnants = true
 ?rescan_force = false
 ?recover_beams = true
 ?update_event = false
 ?update_sqme = false
 ?update_weight = false
 ?use_alphas_from_file = false
 ?use_scale_from_file = false
 ?allow_decays = true
 ?auto_decays = false
 auto_decays_multiplicity = 2
 ?auto_decays_radiative = false
 ?decay_rest_frame = false
 ?isotropic_decay = false
 ?diagonal_decay = false
 [undefined] decay_helicity = [unknown integer]
 ?polarized_events = false
 $polarization_mode = "helicity"
 ?colorize_subevt = false
 tolerance =  0.000000000000E+00
 checkpoint = 0
 event_callback_interval = 0
 ?pacify = false
 $out_file = ""
 ?out_advance = true
 real_range* = 307
 real_precision* = 15
 real_epsilon* =  1.000000000000E-16
 real_tiny* =  1.000000000000-300
 $integration_method = "vamp"
 threshold_calls = 10
 min_calls_per_channel = 10
 min_calls_per_bin = 10
 min_bins = 3
 max_bins = 20
 ?stratified = true
 ?use_vamp_equivalences = true
 ?vamp_verbose = false
 ?vamp_history_global = true
 ?vamp_history_global_verbose = false
 ?vamp_history_channels = false
 ?vamp_history_channels_verbose = false
 $run_id = "run1"
 n_calls_test = 0
 ?integration_timer = true
 ?check_grid_file = true
 accuracy_goal =  0.000000000000E+00
 error_goal =  0.000000000000E+00
 relative_error_goal =  0.000000000000E+00
 integration_results_verbosity = 1
 error_threshold =  0.000000000000E+00
 channel_weights_power =  2.500000000000E-01
 [undefined] $integrate_workspace = [unknown string]
 vamp_grid_checkpoint = 1
 $vamp_grid_format = "ascii"
 $vamp_parallel_method = "simple"
 $phs_method = "default"
 ?vis_channels = false
 ?check_phs_file = true
 $phs_file = ""
 ?phs_only = false
 phs_threshold_s =  5.000000000000E+01
 phs_threshold_t =  1.000000000000E+02
 phs_off_shell = 2
 phs_t_channel = 6
 phs_e_scale =  1.000000000000E+01
 phs_m_scale =  1.000000000000E+01
 phs_q_scale =  1.000000000000E+01
 ?phs_keep_nonresonant = true
 ?phs_step_mapping = true
 ?phs_step_mapping_exp = true
 ?phs_s_mapping = true
 ?vis_history = false
 n_bins = 20
 ?normalize_bins = false
 $obs_label = ""
 $obs_unit = ""
 $title = ""
 $description = ""
 $x_label = ""
 $y_label = ""
 graph_width_mm = 130
 graph_height_mm = 90
 ?y_log = false
 ?x_log = false
 [undefined] x_min = [unknown real]
 [undefined] x_max = [unknown real]
 [undefined] y_min = [unknown real]
 [undefined] y_max = [unknown real]
 $gmlcode_bg = ""
 $gmlcode_fg = ""
 [undefined] ?draw_histogram = [unknown logical]
 [undefined] ?draw_base = [unknown logical]
 [undefined] ?draw_piecewise = [unknown logical]
 [undefined] ?fill_curve = [unknown logical]
 [undefined] ?draw_curve = [unknown logical]
 [undefined] ?draw_errors = [unknown logical]
 [undefined] ?draw_symbols = [unknown logical]
 [undefined] $fill_options = [unknown string]
 [undefined] $draw_options = [unknown string]
 [undefined] $err_options = [unknown string]
 [undefined] $symbol = [unknown string]
 ?analysis_file_only = false
 kt_algorithm* = 0
 cambridge_algorithm* = 1
 antikt_algorithm* = 2
 genkt_algorithm* = 3
 cambridge_for_passive_algorithm* = 11
 genkt_for_passive_algorithm* = 13
 ee_kt_algorithm* = 50
 ee_genkt_algorithm* = 53
 plugin_algorithm* = 99
 undefined_jet_algorithm* = 999
 jet_algorithm = 999
 jet_r =  0.000000000000E+00
 jet_p =  0.000000000000E+00
 jet_ycut =  0.000000000000E+00
 jet_dcut =  0.000000000000E+00
 ?keep_flavors_when_clustering = false
 photon_iso_eps =  1.000000000000E+00
 photon_iso_n =  1.000000000000E+00
 photon_iso_r0 =  4.000000000000E-01
 photon_rec_r0 =  1.000000000000E-01
 ?keep_flavors_when_recombining = true
 $sample = ""
 $sample_normalization = "auto"
 ?sample_pacify = false
 ?sample_select = true
 sample_max_tries = 10000
 sample_split_n_evt = 0
 sample_split_n_kbytes = 0
 sample_split_index = 0
 $rescan_input_format = "raw"
 ?read_raw = true
 ?write_raw = true
 $extension_raw = "evx"
 $extension_default = "evt"
 $debug_extension = "debug"
 ?debug_process = true
 ?debug_transforms = true
 ?debug_decay = true
 ?debug_verbose = true
 $dump_extension = "pset.dat"
 ?dump_compressed = false
 ?dump_weights = false
 ?dump_summary = false
 ?dump_screen = false
 ?hepevt_ensure_order = false
 $extension_hepevt = "hepevt"
 $extension_ascii_short = "short.evt"
 $extension_ascii_long = "long.evt"
 $extension_athena = "athena.evt"
 $extension_mokka = "mokka.evt"
 $lhef_version = "2.0"
 $lhef_extension = "lhe"
 ?lhef_write_sqme_prc = true
 ?lhef_write_sqme_ref = false
 ?lhef_write_sqme_alt = true
 $extension_lha = "lha"
 $extension_hepmc = "hepmc"
 ?hepmc_output_cross_section = false
 ?hepmc3_write_flows = false
 $hepmc3_mode = "HepMC3"
 $extension_lcio = "slcio"
 $extension_stdhep = "hep"
 $extension_stdhep_up = "up.hep"
 $extension_stdhep_ev4 = "ev4.hep"
 $extension_hepevt_verb = "hepevt.verb"
 $extension_lha_verb = "lha.verb"
 ?allow_shower = true
 ?ps_fsr_active = false
 ?ps_isr_active = false
 ?ps_taudec_active = false
 ?muli_active = false
 $shower_method = "WHIZARD"
 ?shower_verbose = false
 $ps_PYTHIA_PYGIVE = ""
 $ps_PYTHIA8_config = ""
 $ps_PYTHIA8_config_file = ""
 ps_mass_cutoff =  1.000000000000E+00
 ps_fsr_lambda =  2.900000000000E-01
 ps_isr_lambda =  2.900000000000E-01
 ps_max_n_flavors = 5
 ?ps_isr_alphas_running = true
 ?ps_fsr_alphas_running = true
 ps_fixed_alphas =  0.000000000000E+00
 ?ps_isr_pt_ordered = false
 ?ps_isr_angular_ordered = true
 ps_isr_primordial_kt_width =  0.000000000000E+00
 ps_isr_primordial_kt_cutoff =  5.000000000000E+00
 ps_isr_z_cutoff =  9.990000000000E-01
 ps_isr_minenergy =  1.000000000000E+00
 ps_isr_tscalefactor =  1.000000000000E+00
 ?ps_isr_only_onshell_emitted_partons = false
 ?allow_hadronization = true
 ?hadronization_active = false
 $hadronization_method = "PYTHIA6"
 hadron_enhanced_fraction =  1.000000000000E-02
 hadron_enhanced_width =  2.000000000000E+00
 ?ps_tauola_photos = false
 ?ps_tauola_transverse = false
 ?ps_tauola_dec_rad_cor = true
 ps_tauola_dec_mode1 = 0
 ps_tauola_dec_mode2 = 0
 ps_tauola_mh =  1.250000000000E+02
 ps_tauola_mix_angle =  9.000000000000E+01
 ?ps_tauola_pol_vector = false
 ?mlm_matching = false
 mlm_Qcut_ME =  0.000000000000E+00
 mlm_Qcut_PS =  0.000000000000E+00
 mlm_ptmin =  0.000000000000E+00
 mlm_etamax =  0.000000000000E+00
 mlm_Rmin =  0.000000000000E+00
 mlm_Emin =  0.000000000000E+00
 mlm_nmaxMEjets = 0
 mlm_ETclusfactor =  2.000000000000E-01
 mlm_ETclusminE =  5.000000000000E+00
 mlm_etaclusfactor =  1.000000000000E+00
 mlm_Rclusfactor =  1.000000000000E+00
 mlm_Eclusfactor =  1.000000000000E+00
 ?powheg_matching = false
 ?powheg_use_singular_jacobian = false
 powheg_grid_size_xi = 5
 powheg_grid_size_y = 5
 powheg_pt_min =  1.000000000000E+00
 powheg_lambda =  2.000000000000E-01
 ?powheg_test_sudakov = false
 ?powheg_disable_sudakov = false
 ?ckkw_matching = false
 ?omega_openmp = false
 ?openmp_is_active* = false
 openmp_num_threads_default* = 1
 openmp_num_threads = 1
 ?openmp_logging = true
 ?mpi_logging = false
 $born_me_method = ""
 $loop_me_method = ""
 $correlation_me_method = ""
 $real_tree_me_method = ""
 $dglap_me_method = ""
 ?test_soft_limit = false
 ?test_coll_limit = false
 ?test_anti_coll_limit = false
 $select_alpha_regions = ""
 $virtual_selection = "Full"
 ?virtual_collinear_resonance_aware = true
 blha_top_yukawa = -1.000000000000E+00
 $blha_ew_scheme = "alpha_internal"
 openloops_verbosity = 1
 ?openloops_use_cms = true
 openloops_phs_tolerance = 7
 openloops_stability_log = 0
 ?openloops_switch_off_muon_yukawa = false
 $openloops_extra_cmd = ""
+$openloops_allowed_libs = ""
 ellis_sexton_scale = -1.000000000000E+00
 ?disable_subtraction = false
 fks_dij_exp1 =  1.000000000000E+00
 fks_dij_exp2 =  1.000000000000E+00
 fks_xi_min =  0.000000000000E+00
 fks_y_max =  1.000000000000E+00
 ?vis_fks_regions = false
 fks_xi_cut =  1.000000000000E+00
 fks_delta_o =  2.000000000000E+00
 fks_delta_i =  2.000000000000E+00
 $fks_mapping_type = "default"
 $resonances_exclude_particles = "default"
 alpha_power = 2
 alphas_power = 0
 ?combined_nlo_integration = false
 ?fixed_order_nlo_events = false
 ?check_event_weights_against_xsection = false
 ?keep_failed_events = false
 gks_multiplicity = 0
 $gosam_filter_lo = ""
 $gosam_filter_nlo = ""
 $gosam_symmetries = "family,generation"
 form_threads = 2
 form_workspace = 1000
 $gosam_fc = ""
 mult_call_real =  1.000000000000E+00
 mult_call_virt =  1.000000000000E+00
 mult_call_dglap =  1.000000000000E+00
 $dalitz_plot = ""
 $nlo_correction_type = "QCD"
 $exclude_gauge_splittings = "c:b:t:e2:e3"
 ?nlo_use_born_scale = false
 ?nlo_cut_all_real_sqmes = false
 $real_partition_mode = "default"
 real_partition_scale =  1.000000000000E+01
 ?nlo_reuse_amplitudes_fks = false
 $fc => "Fortran-compiler"
 $fcflags => "Fortran-flags"
 $fclibs => "Fortran-libs"
 ========================================================================
 model "Test"
  ! md5sum = 'DB28187ADA60804A3CFC14A025DED784'
 
    parameter gy =  1.000000000000E+00
    parameter ms =  1.250000000000E+02
    parameter ff =  1.500000000000E+00
    external mf =  1.875000000000E+02
 
    particle SCALAR 25
      name "s"
      spin 0
      mass ms
    particle FERMION 6
      name "f"
      anti "fbar" "F"
      tex_anti "\bar{f}"
      spin 1/2  isospin 1/2  charge 2/3  color 3
      mass mf
 
    vertex "fbar" "f" "s"
    vertex "s" "s" "s"
 ========================================================================
  Process library stack:
 ------------------------------------------------------------------------
  Process library: library_2
    external        = F
    makefile exists = F
    driver exists   = F
    code status     = o
 
  Process definition list: [empty]
 ------------------------------------------------------------------------
  Process library: library_1
    external        = F
    makefile exists = F
    driver exists   = F
    code status     = o
 
  Process definition list: [empty]
 ========================================================================
  Beam structure: s, s => pdf_builtin
 ========================================================================
  Cuts:
 ------------------------------------------------------------------------
 +  SEQUENCE    <lexpr>  =  <lsinglet>
 +  SEQUENCE    <lsinglet>  =  <lterm>
 |  +  SEQUENCE    <lterm>  =  <all_fun>
 |  |  +  SEQUENCE    <all_fun>  =  all <lexpr> <pargs1>
 |  |  |  +  KEYWORD     all  = [keyword] all
 |  |  |  +  SEQUENCE    <lexpr>  =  <lsinglet>
 |  |  |  |  +  SEQUENCE    <lsinglet>  =  <lterm>
 |  |  |  |  |  +  SEQUENCE    <lterm>  =  <compared_expr>
 |  |  |  |  |  |  +  SEQUENCE    <compared_expr>  =  <expr> <comparison>
 |  |  |  |  |  |  |  +  SEQUENCE    <expr>  =  <term>
 |  |  |  |  |  |  |  |  +  SEQUENCE    <term>  =  <factor>
 |  |  |  |  |  |  |  |  |  +  SEQUENCE    <factor>  =  <variable>
 |  |  |  |  |  |  |  |  |  |  +  IDENTIFIER  <variable>  = Pt
 |  |  |  |  |  |  |  +  SEQUENCE    <comparison>  =  '>' <expr>
 |  |  |  |  |  |  |  |  +  KEYWORD     '>'  = [keyword] >
 |  |  |  |  |  |  |  |  +  SEQUENCE    <expr>  =  <term>
 |  |  |  |  |  |  |  |  |  +  SEQUENCE    <term>  =  <factor>
 |  |  |  |  |  |  |  |  |  |  +  SEQUENCE    <factor>  =  <integer_value>
 |  |  |  |  |  |  |  |  |  |  |  +  SEQUENCE    <integer_value>  =  <integer_literal>
 |  |  |  |  |  |  |  |  |  |  |  |  +  INTEGER     <integer_literal>  = 100
 |  |  |  +  ARGUMENTS   <pargs1>  =  <pexpr>
 |  |  |  |  +  SEQUENCE    <pexpr>  =  <pterm>
 |  |  |  |  |  +  SEQUENCE    <pterm>  =  <pexpr_src>
 |  |  |  |  |  |  +  SEQUENCE    <pexpr_src>  =  <unspecified_prt>
 |  |  |  |  |  |  |  +  SEQUENCE    <unspecified_prt>  =  <cexpr>
 |  |  |  |  |  |  |  |  +  SEQUENCE    <cexpr>  =  <variable>
 |  |  |  |  |  |  |  |  |  +  IDENTIFIER  <variable>  = s
 ------------------------------------------------------------------------
  Scale: [undefined]
 ------------------------------------------------------------------------
  Factorization scale: [undefined]
 ------------------------------------------------------------------------
  Renormalization scale: [undefined]
 ------------------------------------------------------------------------
  Weight: [undefined]
 ========================================================================
  Event selection: [undefined]
 ------------------------------------------------------------------------
  Event reweighting factor: [undefined]
 ------------------------------------------------------------------------
  Event analysis: [undefined]
 ------------------------------------------------------------------------
  Event sample formats = foo_fmt, bar_fmt
 ------------------------------------------------------------------------
  Event callback: [undefined]
 ========================================================================
  Process stack: [empty]
 ========================================================================
  quit     : F
  quit_code: 0
 ========================================================================
  Logfile  : ''
 ========================================================================
 
 * Cleanup
 
 * Test output end: rt_data_3