file SpecBit/MSSMSpec.hpp
[No description available] More…
Namespaces
| Name |
|---|
| Gambit TODO: see if we can use this one: |
| Gambit::SpecBit |
Detailed Description
Author:
- Peter Athron (peter.athron@coepp.org.au)
- Ben Farmer (benjamin.farmer@fysik.su.se)
- Pat Scott (p.scott@imperial.ac.uk)
Date:
- 2014, 2015 Jan, Feb, Mar
- 2014, 2015 Jan, Feb, Mar
- 2015 Aug
MSSM derived version of SubSpectrum class. Designed for easy interface to FlexibleSUSY, but also works with SoftSUSY as the backend with an appropriately designed intermediate later.
Authors:
Source code
// GAMBIT: Global and Modular BSM Inference Tool
// *********************************************
/// \file
///
/// MSSM derived version of SubSpectrum class. Designed
/// for easy interface to FlexibleSUSY, but also
/// works with SoftSUSY as the backend with an
/// appropriately designed intermediate later.
///
/// *********************************************
///
/// Authors:
/// <!-- add name and date if you modify -->
///
/// \author Peter Athron
/// (peter.athron@coepp.org.au)
/// \date 2014, 2015 Jan, Feb, Mar
///
/// \author Ben Farmer
/// (benjamin.farmer@fysik.su.se)
/// \date 2014, 2015 Jan, Feb, Mar
///
/// \author Pat Scott
/// (p.scott@imperial.ac.uk)
/// \date 2015 Aug
///
/// *********************************************
#ifndef MSSMSPEC_H
#define MSSMSPEC_H
#include <memory>
#include "gambit/Elements/slhaea_spec_helpers.hpp"
#include "gambit/Elements/mssm_slhahelp.hpp"
#include "gambit/Utils/version.hpp"
#include "gambit/Utils/util_functions.hpp"
#include "gambit/SpecBit/MSSMSpec_head.hpp" // "Header" declarations for MSSMSpec class
// Flexible SUSY stuff (should not be needed by the rest of gambit)
#include "flexiblesusy/config/config.h"
namespace Gambit
{
namespace SpecBit
{
//
// IMPLEMENTATION OF MSSMSpec MEMBER FUNCTIONS FOLLOWS
//
// MSSMSpec this is a template class, we need these definition in the header
// file. It is nice to keep them seperate from the class declaration though.
//
// Set index offset from interface class
template <class MI>
const int MSSMSpec<MI>::_index_offset = MI::index_offset;
// NOTE!! mi is COPIED into the object, so when we get the reference to the
// actual Model object to store in 'model', we need to use the copy inside
// the object. So also need to make sure 'model_interface' is initialised first
// (i.e. it should be declared first)
template <class MI>
MSSMSpec<MI>::MSSMSpec(MI mi, str be_name, str be_version)
: backend_name(be_name)
, backend_version(be_version)
, model_interface(mi)
{}
// Default constructor
template <class MI>
MSSMSpec<MI>::MSSMSpec()
{}
template <class MI>
MSSMSpec<MI>::~MSSMSpec()
{}
// Fill an SLHAea object with spectrum information
template <class MI>
void MSSMSpec<MI>::add_to_SLHAea(int slha_version, SLHAstruct& slha) const
{
std::ostringstream comment;
// SPINFO block
// TODO: This needs to become more sophisticated to deal with data potentially
// produced by different LE and HE spectrum sources. For now whichever subspectrum
// adds this block first will "win".
if(not SLHAea_block_exists(slha, "SPINFO"))
{
SLHAea_add_block(slha, "SPINFO");
SLHAea_add(slha, "SPINFO", 1, "GAMBIT, using "+backend_name);
SLHAea_add(slha, "SPINFO", 2, gambit_version()+" (GAMBIT); "+backend_version+" ("+backend_name+")");
}
// All other MSSM blocks
slhahelp::add_MSSM_spectrum_to_SLHAea(*this, slha, slha_version);
}
//inspired by softsusy's lsp method.
//This MSSM version assumes all states mass ordered.
//returns lsp mass and gives 3 integers to specify the state
// for most general case of a particle type with mass matrix
// row and col set to -1 when not needed
//(row only is used for vector)
//particle_type = 0 (neutralino), 1(Sneutrino), 2(up squark),
//3(down squarks), 4(charged slepton), 5(Chargino), 6(gluino)
//
// TODO: Ben: I'm a little unclear why we access the flexiblesusy
// data directly like this. Can't we use the function pointer maps
// that we wrote? This will reduce how much the softsusy wrapper
// has to clone the flexiblesusy model object structure.
template <class MI>
double MSSMSpec<MI>::get_lsp_mass(int & particle_type, int & row, int & col) const
{
row = -1; col = -1; particle_type =-1;//set default
double mlsp = fabs(model_interface.model.get_physical().MChi(0)); //most common lsp
particle_type = 0;
row = 0;
/// sneutrinos 1
double temp = model_interface.model.get_physical().MSv(0);
if (temp < mlsp) {
mlsp = temp;
particle_type = 1;
row=0;
}
/// up squarks 2
temp = model_interface.model.get_physical().MSu(0);
if (temp < mlsp) {
mlsp = temp;
particle_type = 2;
row=0;
}
/// down squarks 3
temp = model_interface.model.get_physical().MSd(0);
if (temp < mlsp) {
mlsp = temp;
particle_type = 3;
row=0;
}
/// sleptons 4
temp = model_interface.model.get_physical().MSe(0);
if (temp < mlsp) {
mlsp = temp;
particle_type = 4;
row=0;
}
/// charginos 5
temp = fabs(model_interface.model.get_physical().MCha(0));
if (temp < mlsp) {
mlsp = temp;
particle_type = 5;
row=0;
}
/// gluino 6
temp = fabs(model_interface.model.get_physical().MGlu);
if (temp < mlsp) {
mlsp = temp;
particle_type = 6;
row=0;
}
//We have no gravitino mass right now. this should be added.
// /// gravitino -1
// temp = displayGravitino();
// if (temp < mlsp) {
// mlsp = temp; posi = 0; posj = 0; particle_type = -1; }
return mlsp;
}
//The MSSM has just one LSP - often the lightest neutralino
template <class MI>
int MSSMSpec<MI>::get_numbers_stable_particles() const {
return 1;
}
//these are just wrappers. Need to test this carefully though
//inheritance is complicated
//TODO: Ben: If it helps, we can now put the run_to function
//in the interface class. Might be similar to what you were
//already doing for the softsusy interface. Should merge our
//approaches. Could do all of this via the interface. Depends
//what will be simplest in general.
template <class MI>
void MSSMSpec<MI>::RunToScaleOverride(double scale)
{
model_interface.model.run_to(scale);
}
template <class MI>
double MSSMSpec<MI>::GetScale() const
{
return model_interface.model.get_scale();
}
template <class MI>
void MSSMSpec<MI>::SetScale(double scale)
{
model_interface.model.set_scale(scale);
}
template <class MI>
std::string MSSMSpec<MI>::AccessError(std::string state) const
{
std::string errormsg;
errormsg = "Error accessing "+ state + " element is out of bounds";
return errormsg;
}
// "extra" function to compute TanBeta
template <class Model>
double get_tanbeta(const Model& model)
{
return model.get_vu() / model.get_vd();
}
// "extra" function to compute mA2
template <class Model>
double get_DRbar_mA2(const Model& model)
{
double tb = model.get_vu() / model.get_vd();
double cb = cos(atan(tb));
double sb = sin(atan(tb));
return model.get_BMu() / (sb * cb);
}
template <class Model>
double get_sinthW2_DRbar(const Model& model)
{
double sthW2 = Utils::sqr(model.get_g1()) * 0.6 /
(0.6 * Utils::sqr(model.get_g1()) +
Utils::sqr(model.get_g2()));
return sthW2;
}
// Need wrapper functions for A0 and H+ getters, to retrieve only the
// non-Goldstone entries.
// Need to pass in the model object, since we won't have the 'this' pointer
template <class Model>
double get_MAh1_pole_slha(const Model& model)
{
return model.get_MAh_pole_slha(1);
}
template <class Model>
double get_MHpm1_pole_slha(const Model& model)
{
return model.get_MHpm_pole_slha(1);
}
// maybe we will need the goldstones at some point
// I think it doesn't hurt to add them in case we do
template <class Model>
double get_neutral_goldstone_pole_slha(const Model& model)
{
return model.get_MAh_pole_slha(0);
}
template <class Model>
double get_charged_goldstone_pole_slha(const Model& model)
{
return model.get_MHpm_pole_slha(0);
}
template <class Model>
void set_MSu_pole_slha(Model& model, double mass,int i)
{
model.get_physical_slha().MSu(i) = mass;
}
template <class Model>
void set_MSd_pole_slha(Model& model, double mass,int i)
{
model.get_physical_slha().MSd(i) = mass;
}
template <class Model>
void set_MSe_pole_slha(Model& model, double mass,int i)
{
model.get_physical_slha().MSe(i) = mass;
}
template <class Model>
void set_MSv_pole_slha(Model& model, double mass,int i)
{
model.get_physical_slha().MSv(i) = mass;
}
template <class Model>
void set_MCha_pole_slha(Model& model, double mass, int i)
{
model.get_physical_slha().MCha(i) = mass;
}
template <class Model>
void set_MChi_pole_slha(Model& model, double mass, int i)
{
model.get_physical_slha().MChi(i) = mass;
}
template <class Model>
void set_Mhh_pole_slha(Model& model, double mass, int i)
{
model.get_physical_slha().Mhh(i) = mass;
}
template <class Model>
void set_ZD_pole_slha(Model& model, double mass, int i, int j)
{
model.get_physical_slha().ZD(i,j) = mass;
}
template <class Model>
void set_ZU_pole_slha(Model& model, double mass, int i, int j)
{
model.get_physical_slha().ZU(i,j) = mass;
}
template <class Model>
void set_ZE_pole_slha(Model& model, double mass, int i, int j)
{
model.get_physical_slha().ZE(i,j) = mass;
}
template <class Model>
void set_ZV_pole_slha(Model& model, double mass, int i, int j)
{
model.get_physical_slha().ZV(i,j) = mass;
}
template <class Model>
void set_ZH_pole_slha(Model& model, double mass, int i, int j)
{
model.get_physical_slha().ZH(i,j) = mass;
}
template <class Model>
void set_ZA_pole_slha(Model& model, double mass, int i, int j)
{
model.get_physical_slha().ZA(i,j) = mass;
}
template <class Model>
void set_ZP_pole_slha(Model& model, double mass, int i, int j)
{
model.get_physical_slha().ZP(i,j) = mass;
}
template <class Model>
void set_ZN_pole_slha(Model& model, double mass, int i, int j)
{
model.get_physical_slha().ZN(i,j) = mass;
}
template <class Model>
void set_UM_pole_slha(Model& model, double mass, int i, int j)
{
model.get_physical_slha().UM(i,j) = mass;
}
template <class Model>
void set_UP_pole_slha(Model& model, double mass, int i, int j)
{
model.get_physical_slha().UP(i,j) = mass;
}
template <class Model>
void set_MAh1_pole_slha(Model& model, double mass)
{
model.get_physical_slha().MAh(1) = mass;
}
template <class Model>
void set_MHpm1_pole_slha(Model& model, double mass)
{
model.get_physical_slha().MHpm(1) = mass;
}
// goldstone setters. maybe we need these for some consistent calculation
// unlikely but I'll add them for now.
template <class Model>
void set_neutral_goldstone_pole_slha(Model& model, double mass)
{
model.get_physical_slha().MAh(0) = mass;
}
template <class Model>
void set_charged_goldstone_pole_slha(Model& model, double mass)
{
model.get_physical_slha().MHpm(0) = mass;
}
// PA: I'm using nicer names than the FlexibleSUSY ones here
// but maybe I shouldn't as it breaks the symmetry with the
// getters and could generate some confusion
template <class Model>
void set_MGluino_pole_slha(Model& model, double mass)
{
model.get_physical_slha().MGlu = mass;
}
//PA: setting MZ and MW is necessary because we may have them as ouptuts
template <class Model>
void set_MZ_pole_slha(Model& model, double mass)
{
model.get_physical_slha().MVZ = mass;
}
template <class Model>
void set_MW_pole_slha(Model& model, double mass)
{
model.get_physical_slha().MVWm = mass;
}
/// @{ Fillers for "Running" parameters
// Filler function for getter function pointer maps
template <class MI>
typename MSSMSpec<MI>::GetterMaps MSSMSpec<MI>::fill_getter_maps()
{
typename MSSMSpec<MI>::GetterMaps map_collection;
typedef typename MI::Model Model;
typedef typename MTget::FInfo1 FInfo1;
typedef typename MTget::FInfo2 FInfo2;
static const std::set<int> i01 = initSet(0,1);
static const std::set<int> i012 = initSet(0,1,2);
static const std::set<int> i0123 = initSet(0,1,2,3);
static const std::set<int> i012345 = initSet(0,1,2,3,4,5);
/// @{ mass2 - mass dimension 2 parameters
//
// Functions utilising the "plain-vanilla" function signature
// (Zero index member functions of model object)
{ // scope so we can reuse the name 'tmp_map' several times, so that our macro works.
// could make a better macro, or an actual function, but I'm in a hurry
typename MTget::fmap0 tmp_map;
tmp_map["BMu"] = &Model::get_BMu;
tmp_map["mHd2"] = &Model::get_mHd2;
tmp_map["mHu2"] = &Model::get_mHu2;
map_collection[Par::mass2].map0 = tmp_map;
}
// Functions utilising the "extraM" function signature
// (Zero index, model object as argument)
{
typename MTget::fmap0_extraM tmp_map;
tmp_map["mA2"] = &get_DRbar_mA2<Model>;
map_collection[Par::mass2].map0_extraM = tmp_map;
}
// functions utilising the two-index "plain-vanilla" function signature
// (two-index member functions of model object)
{
typename MTget::fmap2 tmp_map;
tmp_map["mq2"] = FInfo2( &Model::get_mq2, i012, i012);
tmp_map["ml2"] = FInfo2( &Model::get_ml2, i012, i012);
tmp_map["md2"] = FInfo2( &Model::get_md2, i012, i012);
tmp_map["mu2"] = FInfo2( &Model::get_mu2, i012, i012);
tmp_map["me2"] = FInfo2( &Model::get_me2, i012, i012);
map_collection[Par::mass2].map2 = tmp_map;
}
/// @}
/// @{ mass1 - mass dimension 1 parameters
//
// Functions utilising the "plain-vanilla" function signature
// (Zero index member functions of model object)
{
typename MTget::fmap0 tmp_map;
tmp_map["M1"]= &Model::get_MassB;
tmp_map["M2"]= &Model::get_MassWB;
tmp_map["M3"]= &Model::get_MassG;
tmp_map["Mu"]= &Model::get_Mu;
tmp_map["vu"]= &Model::get_vu;
tmp_map["vd"]= &Model::get_vd;
map_collection[Par::mass1].map0 = tmp_map;
}
// Functions utilising the two-index "plain-vanilla" function signature
// (Two-index member functions of model object)
{
typename MTget::fmap2 tmp_map;
tmp_map["TYd"]= FInfo2( &Model::get_TYd, i012, i012);
tmp_map["TYe"]= FInfo2( &Model::get_TYe, i012, i012);
tmp_map["TYu"]= FInfo2( &Model::get_TYu, i012, i012);
tmp_map["ad"] = FInfo2( &Model::get_TYd, i012, i012);
tmp_map["ae"] = FInfo2( &Model::get_TYe, i012, i012);
tmp_map["au"] = FInfo2( &Model::get_TYu, i012, i012);
map_collection[Par::mass1].map2 = tmp_map;
}
/// @}
// @{ dimensionless - mass dimension 0 parameters
//
// Functions utilising the "plain-vanilla" function signature
// (Zero index member functions of model object)
{
typename MTget::fmap0 tmp_map;
tmp_map["g1"]= &Model::get_g1;
tmp_map["g2"]= &Model::get_g2;
tmp_map["g3"]= &Model::get_g3;
map_collection[Par::dimensionless].map0 = tmp_map;
}
// Functions utilising the "extraM" function signature
// (Zero index, model object as argument)
{
typename MTget::fmap0_extraM tmp_map;
tmp_map["tanbeta"] = &get_tanbeta<Model>;
tmp_map["sinW2"] = &get_sinthW2_DRbar<Model>;
map_collection[Par::dimensionless].map0_extraM = tmp_map;
}
// Functions utilising the two-index "plain-vanilla" function signature
// (Two-index member functions of model object)
{
typename MTget::fmap2 tmp_map;
tmp_map["Yd"]= FInfo2( &Model::get_Yd, i012, i012);
tmp_map["Yu"]= FInfo2( &Model::get_Yu, i012, i012);
tmp_map["Ye"]= FInfo2( &Model::get_Ye, i012, i012);
map_collection[Par::dimensionless].map2 = tmp_map;
}
/// @}
/// @{ Pole_Mass - Pole mass parameters
//
// Functions utilising the "plain-vanilla" function signature
// (Zero index member functions of model object)
{
typename MTget::fmap0 tmp_map;
/// PA: W mass is a prediction in most spectrum generators
/// so we need this. One tricky question is how to interface
/// spectrum generators which have different input / outputs
/// *may* be ok to still mimic the FS way
tmp_map["W+"] = &Model::get_MVWm_pole_slha;
tmp_map["~g"] = &Model::get_MGlu_pole_slha;
map_collection[Par::Pole_Mass].map0 = tmp_map;
}
// Functions utilising the "extraM" function signature
// (Zero index, model object as argument)
{
typename MTget::fmap0_extraM tmp_map;
// Using wrapper functions defined above
tmp_map["A0"] = &get_MAh1_pole_slha<Model>;
tmp_map["H+"] = &get_MHpm1_pole_slha<Model>;
// Goldstones
// Using wrapper functions defined above
tmp_map["Goldstone0"] = &get_neutral_goldstone_pole_slha<Model>;
tmp_map["Goldstone+"] = &get_charged_goldstone_pole_slha<Model>;
// Antiparticle label (no automatic conversion for this)
tmp_map["Goldstone-"] = &get_charged_goldstone_pole_slha<Model>;
map_collection[Par::Pole_Mass].map0_extraM = tmp_map;
}
// Functions utilising the one-index "plain-vanilla" function signature
// (One-index member functions of model object)
{
typename MTget::fmap1 tmp_map;
tmp_map["~d"] = FInfo1( &Model::get_MSd_pole_slha, i012345 );
tmp_map["~u"] = FInfo1( &Model::get_MSu_pole_slha, i012345 );
tmp_map["~e-"] = FInfo1( &Model::get_MSe_pole_slha, i012345 );
tmp_map["~nu"]= FInfo1( &Model::get_MSv_pole_slha, i012 );
tmp_map["h0"] = FInfo1( &Model::get_Mhh_pole_slha, i01 );
tmp_map["A0"] = FInfo1( &Model::get_MAh_pole_slha, i01 );
tmp_map["~chi+"] = FInfo1( &Model::get_MCha_pole_slha, i01 );
tmp_map["~chi0"] = FInfo1( &Model::get_MChi_pole_slha, i0123 );
map_collection[Par::Pole_Mass].map1 = tmp_map;
}
/// @}
/// @{ Pole_Mixing - Pole mass parameters
//
// Functions utilising the two-index "plain-vanilla" function signature
// (Two-index member functions of model object)
{
typename MTget::fmap2 tmp_map;
tmp_map["~d"] = FInfo2( &Model::get_ZD_pole_slha, i012345, i012345);
tmp_map["~nu"] = FInfo2( &Model::get_ZV_pole_slha, i012, i012);
tmp_map["~u"] = FInfo2( &Model::get_ZU_pole_slha, i012345, i012345);
tmp_map["~e-"] = FInfo2( &Model::get_ZE_pole_slha, i012345, i012345);
tmp_map["h0"] = FInfo2( &Model::get_ZH_pole_slha, i01, i01);
tmp_map["A0"] = FInfo2( &Model::get_ZA_pole_slha, i01, i01);
tmp_map["H+"] = FInfo2( &Model::get_ZP_pole_slha, i01, i01);
tmp_map["~chi0"] = FInfo2( &Model::get_ZN_pole_slha, i0123, i0123);
tmp_map["~chi-"] = FInfo2( &Model::get_UM_pole_slha, i01, i01);
tmp_map["~chi+"] = FInfo2( &Model::get_UP_pole_slha, i01, i01);
map_collection[Par::Pole_Mixing].map2 = tmp_map;
}
/// @}
return map_collection;
}
// Filler function for setter function pointer maps
template <class MI>
typename MSSMSpec<MI>::SetterMaps MSSMSpec<MI>::fill_setter_maps()
{
typename MSSMSpec<MI>::SetterMaps map_collection;
typedef typename MI::Model Model;
typedef typename MTset::FInfo2 FInfo2;
typedef typename MTset::FInfo1M FInfo1M;
typedef typename MTset::FInfo2M FInfo2M;
static const std::set<int> i01 = initSet(0,1);
static const std::set<int> i012 = initSet(0,1,2);
static const std::set<int> i0123 = initSet(0,1,2,3);
static const std::set<int> i012345 = initSet(0,1,2,3,4,5);
/// @{ mass2 - mass dimension 2 parameters
//
// Functions utilising the "plain-vanilla" function signature
// (Zero index member functions of model object)
{ // scope so we can reuse the name 'tmp_map' several times, so that our macro works.
// could make a better macro, or an actual function, but I'm in a hurry
typename MTset::fmap0 tmp_map;
tmp_map["BMu"] = &Model::set_BMu;
tmp_map["mHd2"] = &Model::set_mHd2;
tmp_map["mHu2"] = &Model::set_mHu2;
map_collection[Par::mass2].map0 = tmp_map;
}
// Functions utilising the two-index "plain-vanilla" function signature
// (Two-index member functions of model object)
{
typename MTset::fmap2 tmp_map;
tmp_map["mq2"] = FInfo2( &Model::set_mq2, i012, i012);
tmp_map["ml2"] = FInfo2( &Model::set_ml2, i012, i012);
tmp_map["md2"] = FInfo2( &Model::set_md2, i012, i012);
tmp_map["mu2"] = FInfo2( &Model::set_mu2, i012, i012);
tmp_map["me2"] = FInfo2( &Model::set_me2, i012, i012);
map_collection[Par::mass2].map2 = tmp_map;
}
/// @}
/// @{ mass1 - mass dimension 1 parameters
//
// Functions utilising the "plain-vanilla" function signature
// (Zero index member functions of model object)
{
typename MTset::fmap0 tmp_map;
tmp_map["M1"]= &Model::set_MassB;
tmp_map["M2"]= &Model::set_MassWB;
tmp_map["M3"]= &Model::set_MassG;
tmp_map["Mu"]= &Model::set_Mu;
tmp_map["vu"]= &Model::set_vu;
tmp_map["vd"]= &Model::set_vd;
map_collection[Par::mass1].map0 = tmp_map;
}
// Functions utilising the two-index "plain-vanilla" function signature
// (Two-index member functions of model object)
{
typename MTset::fmap2 tmp_map;
tmp_map["TYd"]= FInfo2( &Model::set_TYd, i012, i012);
tmp_map["TYe"]= FInfo2( &Model::set_TYe, i012, i012);
tmp_map["TYu"]= FInfo2( &Model::set_TYu, i012, i012);
tmp_map["ad"] = FInfo2( &Model::set_TYd, i012, i012);
tmp_map["ae"] = FInfo2( &Model::set_TYe, i012, i012);
tmp_map["au"] = FInfo2( &Model::set_TYu, i012, i012);
map_collection[Par::mass1].map2 = tmp_map;
}
/// @}
// @{ dimensionless - mass dimension 0 parameters
//
// Functions utilising the "plain-vanilla" function signature
// (Zero index member functions of model object)
{
typename MTset::fmap0 tmp_map;
tmp_map["g1"]= &Model::set_g1;
tmp_map["g2"]= &Model::set_g2;
tmp_map["g3"]= &Model::set_g3;
map_collection[Par::dimensionless].map0 = tmp_map;
}
// Functions utilising the two-index "plain-vanilla" function signature
// (Two-index member functions of model object)
{
typename MTset::fmap2 tmp_map;
tmp_map["Yd"]= FInfo2( &Model::set_Yd, i012, i012);
tmp_map["Yu"]= FInfo2( &Model::set_Yu, i012, i012);
tmp_map["Ye"]= FInfo2( &Model::set_Ye, i012, i012);
map_collection[Par::dimensionless].map2 = tmp_map;
}
{
typename MTset::fmap0_extraM tmp_map;
tmp_map["~g"] = &set_MGluino_pole_slha<Model>;
tmp_map["A0"] = &set_MAh1_pole_slha<Model>;
tmp_map["H+"] = &set_MHpm1_pole_slha<Model>;
/// Note; these aren't in the particle database, so no
/// conversion between particle/antiparticle.
tmp_map["Goldstone0"] = &set_neutral_goldstone_pole_slha<Model>;
tmp_map["Goldstone+"] = &set_charged_goldstone_pole_slha<Model>;
tmp_map["Goldstone-"] = &set_charged_goldstone_pole_slha<Model>;
/// PA: MW is a prediction in FS and most spectrum generators
/// so this belongs in the HE object.
/// MZ is not and so belongs in LE object
tmp_map["W+"] = &set_MW_pole_slha<Model>;
map_collection[Par::Pole_Mass].map0_extraM = tmp_map;
}
{
typename MTset::fmap1_extraM tmp_map;
tmp_map["~u"] = FInfo1M( &set_MSu_pole_slha<Model>, i012345 );
tmp_map["~d"] = FInfo1M( &set_MSd_pole_slha<Model>, i012345 );
tmp_map["~e-"]= FInfo1M( &set_MSe_pole_slha<Model>, i012345 );
tmp_map["~nu"]= FInfo1M( &set_MSv_pole_slha<Model>, i012 );
tmp_map["~chi+"] = FInfo1M( &set_MCha_pole_slha<Model>, i01 );
tmp_map["~chi0"] = FInfo1M( &set_MChi_pole_slha<Model>, i0123 );
tmp_map["h0"] = FInfo1M( &set_Mhh_pole_slha<Model>, i01 );
map_collection[Par::Pole_Mass].map1_extraM = tmp_map;
}
/// @{ Pole_Mixing - Pole mass parameters
//
// Functions utilising the two-index "plain-vanilla" function signature
// (Two-index member functions of model object)
{
typename MTset::fmap2_extraM tmp_map;
tmp_map["~d"] = FInfo2M( &set_ZD_pole_slha, i012345, i012345);
tmp_map["~nu"] = FInfo2M( &set_ZV_pole_slha, i012, i012);
tmp_map["~u"] = FInfo2M( &set_ZU_pole_slha, i012345, i012345);
tmp_map["~e-"] = FInfo2M( &set_ZE_pole_slha, i012345, i012345);
tmp_map["h0"] = FInfo2M( &set_ZH_pole_slha, i01, i01);
tmp_map["A0"] = FInfo2M( &set_ZA_pole_slha, i01, i01);
tmp_map["H+"] = FInfo2M( &set_ZP_pole_slha, i01, i01);
tmp_map["~chi0"] = FInfo2M( &set_ZN_pole_slha, i0123, i0123);
tmp_map["~chi-"] = FInfo2M( &set_UM_pole_slha, i01, i01);
tmp_map["~chi+"] = FInfo2M( &set_UP_pole_slha, i01, i01);
map_collection[Par::Pole_Mixing].map2_extraM = tmp_map;
}
return map_collection;
}
/// @}
} // end SpecBit namespace
} // end Gambit namespace
#endif
Updated on 2024-07-18 at 13:53:32 +0000