file SpecBit/SpecBit_externaltests.hpp
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| Name |
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| Gambit::SpecBit |
Defines
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| OUTPUT | |
| TAGerr | |
| TAGfatal | |
| TAGeom |
Detailed Description
Author: Ben Farmer (benjamin.farmer@fysik.su.se)
Date: 2014 Dec, 2015 Jan - Mar
Test functions for Spectrum object
These functions test various aspects of the Spectrum class and related classes. They are not dependent on any other parts of Gambit, so that Spectrum object test code can be compiled and run seperately from Gambit, but but also be run from inside Gambit.
Authors (add name and date if you modify):
Macros Documentation
define OUTPUT
#define OUTPUT std::cerr
define TAGerr
#define TAGerr ""
define TAGfatal
#define TAGfatal ""
define TAGeom
#define TAGeom ""
Source code
// GAMBIT: Global and Modular BSM Inference Tool
// *********************************************
/// \file
///
/// Test functions for Spectrum object
///
/// These functions test various aspects of the
/// Spectrum class and related classes. They are
/// not dependent on any other parts of Gambit,
/// so that Spectrum object test code can be
/// compiled and run seperately from Gambit, but
/// but also be run from inside Gambit.
///
/// *********************************************
///
/// Authors (add name and date if you modify):
///
/// \author Ben Farmer
/// (benjamin.farmer@fysik.su.se)
/// \date 2014 Dec, 2015 Jan - Mar
///
/// *********************************************
#ifndef __SpecBit_tests_hpp__
#define __SpecBit_tests_hpp__
#include "gambit/SpecBit/MSSMSpec.hpp"
#include "gambit/SpecBit/model_files_and_boxes.hpp"
// Flexible SUSY stuff (should not be needed by the rest of gambit)
#include "flexiblesusy/src/ew_input.hpp"
#include "flexiblesusy/src/numerics2.hpp"
#include "flexiblesusy/src/wrappers.hpp"
// Switch test output depending on where this is being compiled
#ifdef IN_SPECBIT
#define OUTPUT logger()
#define TAGerr LogTags::err
#define TAGfatal LogTags::fatal
#define TAGeom EOM
#else
#define OUTPUT std::cerr
#define TAGerr ""
#define TAGfatal ""
#define TAGeom ""
#endif
namespace Gambit
{
namespace SpecBit
{
bool print_error(bool pass, std::string get_type, std::string data,
double sting_get_out, double data_member,
int i = -1, int j = -1)
{
OUTPUT << " returning fail on test for: " << std::endl;
if (i > -1) OUTPUT << "with first index = " << i << std::endl;
if (j > -1) OUTPUT << "with second index = " << j << std::endl;
OUTPUT << get_type << " with " << data << " string arg." <<std::endl;
OUTPUT << "string getter gives = "
<<sting_get_out << std::endl;
OUTPUT << "data member is = "
<< data_member << std::endl;
OUTPUT << TAGerr << TAGfatal << TAGeom;
return pass;
}
void print_error(std::string get_type, std::string name,
double sting_get_out, double data_member,
int i = -1, int j = -1)
{
OUTPUT << " returning fail on test for: " << std::endl;
if (i > -1) OUTPUT << "with first index = " << i << std::endl;
if (j > -1) OUTPUT << "with second index = " << j << std::endl;
OUTPUT << get_type << " with " << name << " string arg."
<<std::endl;
OUTPUT << "string getter gives = " <<sting_get_out << std::endl;
OUTPUT << "data member is = "
<< data_member << std::endl;
OUTPUT << TAGerr << TAGfatal << TAGeom;
}
bool test_getters(std::string get_type,
std::string name, double getter_output,
double data_member, int i = -1, int j = -1)
{
bool pass = flexiblesusy::is_equal(getter_output,data_member);
// if(pass == false) return pass;
if(pass == false)
print_error(get_type, name, getter_output, data_member,i,j);
return pass;
}
/// Module convenience functions
// These are not known to Gambit
template <class M>
bool TestMssmParMass2_0(SubSpectrum * spec, M FSmssm,
bool immediate_exit = true)
{
bool pass = false;
//do all in loop
// Ben: No initializer lists allowed; changing all these.
//std::set<std::pair<std::string,double>> name_value = {
// {"BMu", FSmssm.get_BMu()},
// {"mHd2", FSmssm.get_mHd2()},
// {"mHu2", FSmssm.get_mHu2()}
//};
std::set<std::pair<std::string,double>> name_value;
name_value.insert(std::make_pair( "BMu" , FSmssm.get_BMu() ));
name_value.insert(std::make_pair( "mHd2", FSmssm.get_mHd2() ));
name_value.insert(std::make_pair( "mHu2", FSmssm.get_mHu2() ));
std::set<std::pair<std::string, double>>::iterator iter;
for(iter=name_value.begin(); iter != name_value.end(); ++iter)
{
pass = test_getters("get_mass2_parameter", iter->first,
spec->
get_mass2_parameter(iter->first),
iter->second);
if(immediate_exit == true && pass == false) return pass;
}
return pass;
}
template <class MI>
bool TestMssmParMass2_0(MSSMSpec<MI>& mssm, typename MI::Model& FSmssm,
bool immediate_exit = true)
{
bool pass = false;
//do all in loop
std::set<std::pair<std::string,double>> name_value;
name_value.insert(std::make_pair( "BMu" , FSmssm.get_BMu() ));
name_value.insert(std::make_pair( "mHd2", FSmssm.get_mHd2() ));
name_value.insert(std::make_pair( "mHu2", FSmssm.get_mHu2() ));
std::set<std::pair<std::string, double>>::iterator iter;
for(iter=name_value.begin(); iter != name_value.end(); ++iter)
{
pass = test_getters("get_mass2_parameter", iter->first,
mssm.
get_mass2_parameter(iter->first),
iter->second);
if(immediate_exit == true && pass == false) return pass;
}
return pass;
}
template <class M>
bool TestMssmParMass2_2(SubSpectrum * spec, M FSmssm,
bool immediate_exit=true)
{
bool pass = false;
for(int i=1; i<=3; i++){
for(int j=1; j<=3; j++){
//Would be smarter to take these out of for loop and
// use function pointers, but I won't.
std::set<std::pair<std::string,double>> name_value;
name_value.insert(std::make_pair( "mq2", FSmssm.get_mq2(i-1,j-1) ));
name_value.insert(std::make_pair( "mu2", FSmssm.get_mu2(i-1,j-1) ));
name_value.insert(std::make_pair( "md2", FSmssm.get_md2(i-1,j-1) ));
name_value.insert(std::make_pair( "ml2", FSmssm.get_ml2(i-1,j-1) ));
name_value.insert(std::make_pair( "me2", FSmssm.get_me2(i-1,j-1) ));
std::set<std::pair<std::string, double>>::iterator iter;
for(iter=name_value.begin(); iter != name_value.end(); ++iter)
{
pass = test_getters("get_mass2_parameter", iter->first,
spec->
get_mass2_parameter(iter->first,i,j),
iter->second, i, j);
if(immediate_exit == true && pass == false) return pass;
}
}
}
return pass;
}
template <class MI>
bool TestMssmParMass2_2(MSSMSpec<MI>& mssm, typename MI::Model& FSmssm,
bool immediate_exit=true)
{
bool pass = false;
for(int i=1; i<=3; i++){
for(int j=1; j<=3; j++){
//Would be smarter to take these out of for loop and
// use function pointers, but I won't.
std::set<std::pair<std::string,double>> name_value;
name_value.insert(std::make_pair( "mq2", FSmssm.get_mq2(i-1,j-1) ));
name_value.insert(std::make_pair( "mu2", FSmssm.get_mu2(i-1,j-1) ));
name_value.insert(std::make_pair( "md2", FSmssm.get_md2(i-1,j-1) ));
name_value.insert(std::make_pair( "ml2", FSmssm.get_ml2(i-1,j-1) ));
name_value.insert(std::make_pair( "me2", FSmssm.get_me2(i-1,j-1) ));
std::set<std::pair<std::string, double>>::iterator iter;
for(iter=name_value.begin(); iter != name_value.end(); ++iter)
{
pass = test_getters("get_mass2_parameter", iter->first,
mssm.
get_mass2_parameter(iter->first,i,j),
iter->second, i, j);
if(immediate_exit == true && pass == false) return pass;
}
}
}
return pass;
}
template <class M>
bool TestMssmParMass1_0(SubSpectrum * spec, M FSmssm,
bool immediate_exit=true)
{
bool pass = false;
std::set<std::pair<std::string,double>> name_value;
name_value.insert(std::make_pair( "M1", FSmssm.get_MassB() ));
name_value.insert(std::make_pair( "M2", FSmssm.get_MassWB() ));
name_value.insert(std::make_pair( "M3", FSmssm.get_MassG() ));
name_value.insert(std::make_pair( "vu", FSmssm.get_vu() ));
name_value.insert(std::make_pair( "vd", FSmssm.get_vd() ));
std::set<std::pair<std::string, double>>::iterator iter;
for(iter=name_value.begin(); iter != name_value.end(); ++iter)
{
pass = test_getters("get_mass_parameter", iter->first,
spec->
get_mass_parameter(iter->first),
iter->second);
if(immediate_exit == true && pass == false) return pass;
}
return pass;
}
template <class MI>
bool TestMssmParMass1_0(MSSMSpec<MI>& mssm, typename MI::Model& FSmssm,
bool immediate_exit=true)
{
bool pass = false;
std::set<std::pair<std::string,double>> name_value;
name_value.insert(std::make_pair( "M1", FSmssm.get_MassB() ));
name_value.insert(std::make_pair( "M2", FSmssm.get_MassWB() ));
name_value.insert(std::make_pair( "M3", FSmssm.get_MassG() ));
name_value.insert(std::make_pair( "vu", FSmssm.get_vu() ));
name_value.insert(std::make_pair( "vd", FSmssm.get_vd() ));
std::set<std::pair<std::string, double>>::iterator iter;
for(iter=name_value.begin(); iter != name_value.end(); ++iter)
{
pass = test_getters("get_mass_parameter", iter->first,
mssm.
get_mass_parameter(iter->first),
iter->second);
if(immediate_exit == true && pass == false) return pass;
}
return pass;
}
template <class M>
bool TestMssmParMass1_2(SubSpectrum * spec, M FSmssm,
bool immediate_exit =true)
{
bool pass = false;
for(int i=1; i<=3; i++){
for(int j=1; j<=3; j++){
std::set<std::pair<std::string,double>> name_value;
name_value.insert(std::make_pair( "TYd", FSmssm.get_TYd(i-1,j-1) ));
name_value.insert(std::make_pair( "TYu", FSmssm.get_TYu(i-1,j-1) ));
name_value.insert(std::make_pair( "TYe", FSmssm.get_TYe(i-1,j-1) ));
std::set<std::pair<std::string, double>>::iterator iter;
for(iter=name_value.begin(); iter != name_value.end(); ++iter)
{
pass = test_getters("get_mass_parameter", iter->first,
spec->
get_mass_parameter(iter->first,i,j),
iter->second, i, j);
if(immediate_exit == true && pass == false) return pass;
}
}
}
return pass;
}
template <class MI>
bool TestMssmParMass1_2(MSSMSpec<MI>& mssm, typename MI::Model& FSmssm,
bool immediate_exit =true)
{
bool pass = false;
for(int i=1; i<=3; i++){
for(int j=1; j<=3; j++){
std::set<std::pair<std::string,double>> name_value;
name_value.insert(std::make_pair( "TYd", FSmssm.get_TYd(i-1,j-1) ));
name_value.insert(std::make_pair( "TYu", FSmssm.get_TYu(i-1,j-1) ));
name_value.insert(std::make_pair( "TYe", FSmssm.get_TYe(i-1,j-1) ));
std::set<std::pair<std::string, double>>::iterator iter;
for(iter=name_value.begin(); iter != name_value.end(); ++iter)
{
pass = test_getters("get_mass_parameter", iter->first,
mssm.
get_mass_parameter(iter->first,i,j),
iter->second, i, j);
if(immediate_exit == true && pass == false) return pass;
}
}
}
return pass;
}
template <class M>
bool TestMssmParMass0_0(SubSpectrum * spec, M FSmssm,
bool immediate_exit =true )
{
bool pass = false;
std::set<std::pair<std::string,double>> name_value;
name_value.insert(std::make_pair( "g1", FSmssm.get_g1() ));
name_value.insert(std::make_pair( "g2", FSmssm.get_g2() ));
name_value.insert(std::make_pair( "g3", FSmssm.get_g3() ));
std::set<std::pair<std::string, double>>::iterator iter;
for(iter=name_value.begin(); iter != name_value.end(); ++iter)
{
pass = test_getters("get_dimensionless_parameter", iter->first,
spec->
get_dimensionless_parameter(iter->first),
iter->second);
if(immediate_exit == true && pass == false) return pass;
}
return pass;
}
template <class MI>
bool TestMssmParMass0_0(MSSMSpec<MI>& mssm, typename MI::Model& FSmssm,
bool immediate_exit =true )
{
bool pass = false;
std::set<std::pair<std::string,double>> name_value;
name_value.insert(std::make_pair( "g1", FSmssm.get_g1() ));
name_value.insert(std::make_pair( "g2", FSmssm.get_g2() ));
name_value.insert(std::make_pair( "g3", FSmssm.get_g3() ));
std::set<std::pair<std::string, double>>::iterator iter;
for(iter=name_value.begin(); iter != name_value.end(); ++iter)
{
pass = test_getters("get_dimensionless_parameter", iter->first,
mssm.
get_dimensionless_parameter(iter->first),
iter->second);
if(immediate_exit == true && pass == false) return pass;
}
return pass;
}
template <class M>
bool TestMssmParMass0_2(SubSpectrum * spec, M FSmssm,
bool immediate_exit = true)
{
bool pass = false;
for(int i=1; i<=3; i++){
for(int j=1; j<=3; j++){
std::set<std::pair<std::string,double>> name_value;
name_value.insert(std::make_pair( "Yd", FSmssm.get_Yd(i-1,j-1) ));
name_value.insert(std::make_pair( "Yu", FSmssm.get_Yu(i-1,j-1) ));
name_value.insert(std::make_pair( "Ye", FSmssm.get_Ye(i-1,j-1) ));
std::set<std::pair<std::string, double>>::iterator iter;
for(iter=name_value.begin(); iter != name_value.end(); ++iter)
{
pass = test_getters("get_dimensionless_parameter",
iter->first,
spec->
get_dimensionless_parameter(iter->first,
i,j),
iter->second, i, j);
if(immediate_exit == true && pass == false) return pass;
}
}
}
return pass;
}
template <class MI>
bool TestMssmParMass0_2(MSSMSpec<MI>& mssm, typename MI::Model& FSmssm,
bool immediate_exit = true)
{
bool pass = false;
for(int i=1; i<=3; i++){
for(int j=1; j<=3; j++){
std::set<std::pair<std::string,double>> name_value;
name_value.insert(std::make_pair( "Yd", FSmssm.get_Yd(i-1,j-1) ));
name_value.insert(std::make_pair( "Yu", FSmssm.get_Yu(i-1,j-1) ));
name_value.insert(std::make_pair( "Ye", FSmssm.get_Ye(i-1,j-1) ));
std::set<std::pair<std::string, double>>::iterator iter;
for(iter=name_value.begin(); iter != name_value.end(); ++iter)
{
pass = test_getters("get_dimensionless_parameter",
iter->first,
mssm.
get_dimensionless_parameter(iter->first,
i,j),
iter->second, i, j);
if(immediate_exit == true && pass == false) return pass;
}
}
}
return pass;
}
template <class M>
bool TestMssmPoleGets0(SubSpectrum * spec, M FSmssm,
bool immediate_exit = true)
{
bool pass = false;
//do all in loop
std::set<std::pair<std::string,double>> name_value;
name_value.insert(std::make_pair( "MZ", FSmssm.get_physical().MVZ ));
name_value.insert(std::make_pair( "MW", FSmssm.get_physical().MVWm ));
name_value.insert(std::make_pair( "MGluino", FSmssm.get_physical().MGlu ));
name_value.insert(std::make_pair( "MGluon", FSmssm.get_physical().MVG ));
name_value.insert(std::make_pair( "MPhoton", FSmssm.get_physical().MVP ));
std::set<std::pair<std::string, double>>::iterator iter;
for(iter=name_value.begin(); iter != name_value.end(); ++iter)
{
pass = test_getters("get_Pole_Mass", iter->first,
spec->get_Pole_Mass(iter->first),
iter->second);
if(immediate_exit == true && pass == false) return pass;
}
return pass;
}
template <class MI>
bool TestMssmPoleGets0(MSSMSpec<MI>& mssm, typename MI::Model& FSmssm,
bool immediate_exit = true)
{
bool pass = false;
//do all in loop
std::set<std::pair<std::string,double>> name_value;
name_value.insert(std::make_pair( "MZ", FSmssm.get_physical().MVZ ));
name_value.insert(std::make_pair( "MW", FSmssm.get_physical().MVWm ));
name_value.insert(std::make_pair( "MGluino", FSmssm.get_physical().MGlu ));
name_value.insert(std::make_pair( "MGluon", FSmssm.get_physical().MVG ));
name_value.insert(std::make_pair( "MPhoton", FSmssm.get_physical().MVP ));
std::set<std::pair<std::string, double>>::iterator iter;
for(iter=name_value.begin(); iter != name_value.end(); ++iter)
{
pass = test_getters("get_Pole_Mass", iter->first,
mssm.get_Pole_Mass(iter->first),
iter->second);
if(immediate_exit == true && pass == false) return pass;
}
return pass;
}
template <class M>
bool TestMssmPoleGets1(SubSpectrum * spec, M FSmssm,
bool immediate_exit = true)
{
bool pass = false;
for(int i=1; i<=6; i++){
std::set<std::pair<std::string,double>> name_value;
name_value.insert(std::make_pair( "MSd", FSmssm.get_physical().MSd(i-1) ));
name_value.insert(std::make_pair( "MSu", FSmssm.get_physical().MSu(i-1) ));
name_value.insert(std::make_pair( "MSe", FSmssm.get_physical().MSe(i-1) ));
std::set<std::pair<std::string, double>>::iterator iter;
for(iter=name_value.begin(); iter != name_value.end(); ++iter)
{
pass = test_getters("get_Pole_Mass", iter->first,
spec->get_Pole_Mass(iter->first,i),
iter->second, i);
if(immediate_exit == true && pass == false) return pass;
}
}
for(int i=1; i<=3; i++){
std::set<std::pair<std::string,double>> name_value;
name_value.insert(std::make_pair( "MSv", FSmssm.get_physical().MSv(i-1) ));
name_value.insert(std::make_pair( "MFd", FSmssm.get_physical().MFd(i-1) ));
name_value.insert(std::make_pair( "MFu", FSmssm.get_physical().MFu(i-1) ));
name_value.insert(std::make_pair( "MFe", FSmssm.get_physical().MFe(i-1) ));
std::set<std::pair<std::string, double>>::iterator iter;
for(iter=name_value.begin(); iter != name_value.end(); ++iter)
{
pass = test_getters("get_Pole_Mass", iter->first,
spec->get_Pole_Mass(iter->first,i),
iter->second, i);
if(immediate_exit == true && pass == false) return pass;
}
}
for(int i=1; i<=2; i++){
std::string name = "Mh0";
pass = test_getters("get_Pole_Mass", name,
spec->get_Pole_Mass(name,i),
FSmssm.get_physical().Mhh(i-1), i);
if(immediate_exit == true && pass == false) return pass;
name = "MCha";
pass = test_getters("get_Pole_Mass", name,
spec->get_Pole_Mass(name,i),
FSmssm.get_physical_slha().MCha(i-1), i);
if(immediate_exit == true && pass == false) return pass;
}
//In the the neutralino and chargino tests I compare against
// value in physical_slha struct since the value in
// physical may differ by a sign since it stores positive masses
// and a complex mixing matrix.
for(int i=1; i<=4; i++){
std::string name = "MChi";
pass = test_getters("get_Pole_Mass", name,
spec->get_Pole_Mass(name,i),
FSmssm.get_physical_slha().MChi(i-1), i);
if(immediate_exit == true && pass == false) return pass;
}
return pass;
}
template <class MI>
bool TestMssmPoleGets1(MSSMSpec<MI>& mssm, typename MI::Model& FSmssm,
bool immediate_exit = true)
{
bool pass = false;
for(int i=1; i<=6; i++){
std::set<std::pair<std::string,double>> name_value;
name_value.insert(std::make_pair( "MSd", FSmssm.get_physical().MSd(i-1) ));
name_value.insert(std::make_pair( "MSu", FSmssm.get_physical().MSu(i-1) ));
name_value.insert(std::make_pair( "MSe", FSmssm.get_physical().MSe(i-1) ));
std::set<std::pair<std::string, double>>::iterator iter;
for(iter=name_value.begin(); iter != name_value.end(); ++iter)
{
pass = test_getters("get_Pole_Mass", iter->first,
mssm.get_Pole_Mass(iter->first,i),
iter->second, i);
if(immediate_exit == true && pass == false) return pass;
}
}
for(int i=1; i<=3; i++){
std::set<std::pair<std::string,double>> name_value;
name_value.insert(std::make_pair( "MSv", FSmssm.get_physical().MSv(i-1) ));
name_value.insert(std::make_pair( "MFd", FSmssm.get_physical().MFd(i-1) ));
name_value.insert(std::make_pair( "MFu", FSmssm.get_physical().MFu(i-1) ));
name_value.insert(std::make_pair( "MFe", FSmssm.get_physical().MFe(i-1) ));
std::set<std::pair<std::string, double>>::iterator iter;
for(iter=name_value.begin(); iter != name_value.end(); ++iter)
{
pass = test_getters("get_Pole_Mass", iter->first,
mssm.get_Pole_Mass(iter->first,i),
iter->second, i);
if(immediate_exit == true && pass == false) return pass;
}
}
for(int i=1; i<=2; i++){
std::string name = "Mh0";
pass = test_getters("get_Pole_Mass", name,
mssm.get_Pole_Mass(name,i),
FSmssm.get_physical().Mhh(i-1), i);
if(immediate_exit == true && pass == false) return pass;
name = "MCha";
pass = test_getters("get_Pole_Mass", name,
mssm.get_Pole_Mass(name,i),
FSmssm.get_physical_slha().MCha(i-1), i);
if(immediate_exit == true && pass == false) return pass;
}
//In the the neutralino and chargino tests I compare against
// value in physical_slha struct since the value in
// physical may differ by a sign since it stores positive masses
// and a complex mixing matrix.
for(int i=1; i<=4; i++){
std::string name = "MChi";
pass = test_getters("get_Pole_Mass", name,
mssm.get_Pole_Mass(name,i),
FSmssm.get_physical_slha().MChi(i-1), i);
if(immediate_exit == true && pass == false) return pass;
}
return pass;
}
template <class M>
bool TestMssmPoleMixingGets2(SubSpectrum * spec, M FSmssm,
bool immediate_exit = true)
{
bool pass = false;
for(int i=1; i<=6; i++){
for(int j=1; j<=6; j++){
std::set<std::pair<std::string,double>> name_value;
name_value.insert(std::make_pair( "~d", FSmssm.get_physical_slha().ZD(i-1,j-1) ));
name_value.insert(std::make_pair( "~u", FSmssm.get_physical_slha().ZU(i-1,j-1) ));
name_value.insert(std::make_pair( "~e-", FSmssm.get_physical_slha().ZE(i-1,j-1) ));
std::set<std::pair<std::string, double>>::iterator iter;
for(iter=name_value.begin(); iter != name_value.end(); ++iter)
{
pass = test_getters("get_Pole_Mixing", iter->first,
spec->
get_Pole_Mixing(iter->first,i,j),
iter->second, i, j);
if(immediate_exit == true && pass == false) return pass;
}
}
}
for(int i=1; i<=3; i++){
for(int j=1; j<=3; j++){
string name = "~nu";
pass = test_getters("get_Pole_Mixing", name,
spec->get_Pole_Mixing(name,i,j),
FSmssm.get_physical_slha().ZV(i-1, j-1), i,j);
if(immediate_exit == true && pass == false) return pass;
}
}
for(int i=1; i<=2; i++){
for(int j=1; j<=2; j++){
std::set<std::pair<std::string,double>> name_value;
name_value.insert(std::make_pair( "h0", FSmssm.get_physical_slha().ZH(i-1,j-1) ));
name_value.insert(std::make_pair( "A0", FSmssm.get_physical_slha().ZA(i-1,j-1) ));
name_value.insert(std::make_pair( "H+", FSmssm.get_physical_slha().ZP(i-1,j-1) ));
name_value.insert(std::make_pair( "~chi-", flexiblesusy::Re(FSmssm.get_physical_slha()
.UM(i-1,j-1)) ));
name_value.insert(std::make_pair( "~chi+", flexiblesusy::Re(FSmssm.get_physical_slha()
.UP(i-1,j-1)) ));
std::set<std::pair<std::string, double>>::iterator iter;
for(iter=name_value.begin(); iter != name_value.end(); ++iter)
{
pass = test_getters("get_Pole_Mixing", iter->first,
spec->
get_Pole_Mixing(iter->first,i,j),
iter->second, i, j);
if(immediate_exit == true && pass == false) return pass;
}
}
}
return pass;
}
template <class MI>
bool TestMssmPoleMixingGets2(MSSMSpec<MI>& mssm, typename MI::Model& FSmssm,
bool immediate_exit = true)
{
bool pass = false;
for(int i=1; i<=6; i++){
for(int j=1; j<=6; j++){
std::set<std::pair<std::string,double>> name_value;
name_value.insert(std::make_pair( "~d", FSmssm.get_physical_slha().ZD(i-1,j-1) ));
name_value.insert(std::make_pair( "~u", FSmssm.get_physical_slha().ZU(i-1,j-1) ));
name_value.insert(std::make_pair( "~e-", FSmssm.get_physical_slha().ZE(i-1,j-1) ));
std::set<std::pair<std::string, double>>::iterator iter;
for(iter=name_value.begin(); iter != name_value.end(); ++iter)
{
pass = test_getters("get_Pole_Mixing", iter->first,
mssm.
get_Pole_Mixing(iter->first,i,j),
iter->second, i, j);
if(immediate_exit == true && pass == false) return pass;
}
}
}
for(int i=1; i<=3; i++){
for(int j=1; j<=3; j++){
string name = "~nu";
pass = test_getters("get_Pole_Mixing", name,
mssm.get_Pole_Mixing(name,i,j),
FSmssm.get_physical_slha().ZV(i-1, j-1), i,j);
if(immediate_exit == true && pass == false) return pass;
}
}
for(int i=1; i<=2; i++){
for(int j=1; j<=2; j++){
std::set<std::pair<std::string,double>> name_value;
name_value.insert(std::make_pair( "h0", FSmssm.get_physical_slha().ZH(i-1,j-1) ));
name_value.insert(std::make_pair( "A0", FSmssm.get_physical_slha().ZA(i-1,j-1) ));
name_value.insert(std::make_pair( "H+", FSmssm.get_physical_slha().ZP(i-1,j-1) ));
name_value.insert(std::make_pair( "~chi-", flexiblesusy::Re(FSmssm.get_physical_slha()
.UM(i-1,j-1)) ));
name_value.insert(std::make_pair( "~chi+", flexiblesusy::Re(FSmssm.get_physical_slha()
.UP(i-1,j-1)) ));
std::set<std::pair<std::string, double>>::iterator iter;
for(iter=name_value.begin(); iter != name_value.end(); ++iter)
{
pass = test_getters("get_Pole_Mixing", iter->first,
mssm.
get_Pole_Mixing(iter->first,i,j),
iter->second, i, j);
if(immediate_exit == true && pass == false) return pass;
}
}
}
return pass;
}
template <class M>
bool TestMssmPoleGets(SubSpectrum * spec, M FSmssm)
{
bool pass = false;
pass = TestMssmPoleGets0(spec,FSmssm);
if(pass == false) return pass;
pass = TestMssmPoleGets1(spec,FSmssm);
if(pass == false) return pass;
pass = TestMssmPoleMixingGets2(spec,FSmssm);
if(pass == false) return pass;
return pass;
}
template <class MI>
bool TestMssmPoleGets(MSSMSpec<MI>& mssm, typename MI::Model& FSmssm)
{
bool pass = false;
pass = TestMssmPoleGets0(mssm,FSmssm);
if(pass == false) return pass;
pass = TestMssmPoleGets1(mssm,FSmssm);
if(pass == false) return pass;
pass = TestMssmPoleMixingGets2(mssm,FSmssm);
if(pass == false) return pass;
return pass;
}
template <class M>
bool TestMssmParGets(SubSpectrum * spec, M FSmssm)
{
bool pass = false;
pass = TestMssmParMass2_0(spec,FSmssm);
if(pass == false) return pass;
pass = TestMssmParMass2_2(spec,FSmssm);
if(pass == false) return pass;
pass = TestMssmParMass1_0(spec,FSmssm);
if(pass == false) return pass;
pass = TestMssmParMass1_2(spec,FSmssm);
if(pass == false) return pass;
pass = TestMssmParMass0_0(spec,FSmssm);
if(pass == false) return pass;
pass = TestMssmParMass0_2(spec,FSmssm);
if(pass == false) return pass;
return pass;
}
template <class MI>
bool TestMssmParGets(MSSMSpec<MI>& mssm, typename MI::Model& FSmssm)
{
bool pass = false;
pass = TestMssmParMass2_0(mssm,FSmssm);
if(pass == false) return pass;
pass = TestMssmParMass2_2(mssm,FSmssm);
if(pass == false) return pass;
pass = TestMssmParMass1_0(mssm,FSmssm);
if(pass == false) return pass;
pass = TestMssmParMass1_2(mssm,FSmssm);
if(pass == false) return pass;
pass = TestMssmParMass0_0(mssm,FSmssm);
if(pass == false) return pass;
pass = TestMssmParMass0_2(mssm,FSmssm);
if(pass == false) return pass;
return pass;
}
template <class Model>
void setup(Model& mssm)
{
Eigen::Matrix<double,3,3> Yu;
Eigen::Matrix<double,3,3> Yd;
Eigen::Matrix<double,3,3> Ye;
double Mu;
double g1;
double g2;
double g3;
double vd;
double vu;
Eigen::Matrix<double,3,3> TYu;
Eigen::Matrix<double,3,3> TYd;
Eigen::Matrix<double,3,3> TYe;
double BMu;
Eigen::Matrix<double,3,3> mq2;
Eigen::Matrix<double,3,3> ml2;
double mHd2;
double mHu2;
Eigen::Matrix<double,3,3> md2;
Eigen::Matrix<double,3,3> mu2;
Eigen::Matrix<double,3,3> me2;
double MassB;
double MassWB;
double MassG;
// susy parameters
Yu << 1.26136e-05, 0, 0,
0, 0.00667469, 0,
0, 0, 0.857849;
Yd << 0.000242026, 0, 0,
0, 0.00529911, 0,
0, 0, 0.193602;
Ye << 2.84161e-05, 0, 0,
0, 0.00587557, 0,
0, 0, 0.10199;
Mu = 627.164;
g1 = 0.468171;
g2 = 0.642353;
g3 = 1.06459;
vd = 25.0944;
vu = 242.968;
// soft parameters
TYu << -0.0144387, 0, 0,
0, -7.64037, 0,
0, 0, -759.305;
TYd << -0.336207, 0, 0,
0, -7.36109, 0,
0, 0, -250.124;
TYe << -0.00825134, 0, 0,
0, -1.70609, 0,
0, 0, -29.4466;
BMu = 52140.8;
mq2 << 1.03883e+06, 0, 0,
0, 1.03881e+06, 0,
0, 0, 879135;
ml2 << 124856, 0, 0,
0, 124853, 0,
0, 0, 124142;
mHd2 = 92436.9;
mHu2 = -380337;
md2 << 954454, 0, 0,
0, 954439, 0,
0, 0, 934727;
mu2 << 963422, 0, 0,
0, 963400, 0,
0, 0, 656621;
me2 << 49215.8, 0, 0,
0, 49210.9, 0,
0, 0, 47759.2;
MassB = 210.328;
MassWB = 389.189;
MassG = 1114.45;
// set parameters
mssm.set_scale(flexiblesusy::Electroweak_constants::MZ);
mssm.set_Yu(Yu);
mssm.set_Yd(Yd);
mssm.set_Ye(Ye);
mssm.set_Mu(Mu);
mssm.set_g1(g1);
mssm.set_g2(g2);
mssm.set_g3(g3);
mssm.set_vd(vd);
mssm.set_vu(vu);
mssm.set_TYu(TYu);
mssm.set_TYd(TYd);
mssm.set_TYe(TYe);
mssm.set_BMu(BMu);
mssm.set_mq2(mq2);
mssm.set_ml2(ml2);
mssm.set_mHd2(mHd2);
mssm.set_mHu2(mHu2);
mssm.set_md2(md2);
mssm.set_mu2(mu2);
mssm.set_me2(me2);
mssm.set_MassB(MassB);
mssm.set_MassWB(MassWB);
mssm.set_MassG(MassG);
}
template <class MI>
bool test_exact(MSSMSpec<MI>& mssm, typename MI::Model& FS_model_slha)
{
bool pass = TestMssmParGets(mssm,FS_model_slha);
if(pass == false)
{
OUTPUT << "TestMssmParGets failing." <<std::endl;
return pass;
}
pass = TestMssmPoleGets(mssm,FS_model_slha);
if(pass == false)
{
OUTPUT << "TestMssmParGets failing." <<std::endl;
return pass;
}
return pass;
}
template <class M>
double test_exact(SubSpectrum * spec, M FS_model_slha)
{
bool pass = TestMssmParGets(spec,FS_model_slha);
if(pass == false)
{
OUTPUT << "TestMssmParGets failing." <<std::endl;
return pass;
}
pass = TestMssmPoleGets(spec,FS_model_slha);
if(pass == false)
{
OUTPUT << "TestMssmParGets failing." <<std::endl;
return pass;
}
return pass;
}
//This gives identical results after running up, so don't need messy
// Test_close
template <class MI>
bool running_test(MSSMSpec<MI> & mssm, typename MI::Model & FS_model_slha, double tol)
{
double highscale = 1e+16;
double lowscale = mssm.GetScale();
double lowscale2 = FS_model_slha.get_scale();
bool pass = flexiblesusy::is_equal(lowscale,lowscale2);
if(!pass) {
OUTPUT << "test fail: "
<< "objects not at same scale at start of runtest."
<< std::endl;
return pass;
}
mssm.RunToScale(highscale);
FS_model_slha.run_to(highscale);
pass = test_exact(mssm, FS_model_slha);
if(!pass) {
OUTPUT << "test fail: "
<< "objects not the same after running to MGUT."
<< std::endl;
return pass;
}
mssm.RunToScale(lowscale);
FS_model_slha.run_to(lowscale);
pass = test_exact(mssm, FS_model_slha);
if(!pass) {
OUTPUT << "test fail: "
<< "objects not the same after running to lowscale."
<< std::endl;
return pass;
}
return pass;
}
template <class Model>
bool running_test(SubSpectrum * spec, Model & FS_model_slha,
double tol)
{
double highscale = 1e+16;
double lowscale = spec->GetScale();
double lowscale2 = FS_model_slha.get_scale();
bool pass = flexiblesusy::is_equal(lowscale,lowscale2);
if(!pass) {
OUTPUT << "test fail: "
<< "objects not at same scale at start of runtest."
<< std::endl;
return pass;
}
spec->RunToScale(highscale);
FS_model_slha.run_to(highscale);
pass = test_exact(spec, FS_model_slha);
if(!pass) {
OUTPUT << "test fail: "
<< "objects not the same after running to MGUT."
<< std::endl;
return pass;
}
spec->RunToScale(lowscale);
FS_model_slha.run_to(lowscale);
pass = test_exact(spec, FS_model_slha);
if(!pass) {
OUTPUT << "test fail: "
<< "objects not the same after running to lowscale."
<< std::endl;
return pass;
}
return pass;
}
// Helper function for tests in Spectrum_test
bool test_within_tol(double a, double b, double tol, std::string label)
{
// Tol is considered as a fraction of a
bool pass = std::abs(a - b) <= std::abs(a*tol); // pass == true
OUTPUT << "TESTING: " << label << std::endl;
if(!pass)
{
OUTPUT << " ******FAIL******" << std::endl
<< " Inputs do not match within requested relative tolerance (" << tol << ")"
<< std::endl
<< " a = " << a << std::endl
<< " b = " << b << std::endl
<< " |(a - b)/a| = " << std::abs((a-b)/a) << " (greater than tol = " << tol << ")"
<< std::endl;
}
else
{
OUTPUT << " Pass: (a="<<a<<", b="<<b<<")" << std::endl
<< " |(a - b)/a| = " << std::abs((a-b)/a) << " (less than tol = " << tol << ")"
<< std::endl;
}
return pass;
}
// Test that output of Standard Model wrapper (e.g. QedQcdWrapper) matches
// SMINPUTS sufficiently accurately
// Set flag SLHAonly=1 if SMskeleton and/or MSSMskeleton are being used.
void Spectrum_test(Spectrum matched_spectra, const SubSpectrum* smin, bool SLHAonly=0)
{
// Extract pieces of Spectrum to make it clear what they are supposed to be
SMInputs sminputs = matched_spectra->get_SMInputs();
std::unique_ptr<SubSpectrum> SM = matched_spectra->clone_LE(); // COPIES Spectrum object
// const SubSpectrum* SM = matched_spectra->get_LE(); // Cannot do running on original object.
double tol = 1e-9; // Demanding matching to 1 part in a billion (pole masses, things that don't change)
double tolg = 1e-4; // Seem to get about this level of precision recovering running couplings from QedQcd object.
double tolm = 1e-3; // " " " " masses " "
// // SLHA1
// double alphainv; // 1: Inverse electromagnetic coupling at the Z pole in the MSbar scheme (with 5 active flavours)
// double GF; // 2: Fermi constant (in units of GeV^-2)
// double alphaS; // 3: Strong coupling at the Z pole in the MSbar scheme (with 5 active flavours).
// double mZ; // 4: Z pole mass
// double mBmB; // 5: b quark running mass in the MSbar scheme (at mB)
// double mT; // 6: Top quark pole mass
// double mTau; // 7: Tau pole mass
// // SLHA2
// double mNu3; // 8: Heaviest neutrino pole mass
// double mE; // 11: Electron pole mass
// double mNu1; // 12: Lightest neutrino pole mass
// double mMu; // 13: Muon pole mass
// double mNu2; // 14: Second lightest neutrino pole mass
// double mD; // 21: d quark running mass in the MSbar scheme at 2 GeV
// double mU; // 21: u quark running mass in the MSbar scheme at 2 GeV
// double mS; // 21: s quark running mass in the MSbar scheme at 2 GeV
// double mC; // 21: c quark running mass in the MSbar scheme at mC
// First check pole masses
test_within_tol( sminputs.mZ, SM->get_Pole_Mass("Z"), tol, "Z pole" );
//test_within_tol( sminputs.mW, SM->get_Pole_Mass("W"), tol, "W pole" ); // Whoops, no mW in sminputs.
test_within_tol( sminputs.mT, SM->get_Pole_Mass("t"), tol, "top pole" );
test_within_tol( sminputs.mTau, SM->get_Pole_Mass("tau"), tol, "tau pole" );
test_within_tol( sminputs.mMu, SM->get_Pole_Mass("mu"), tol, "mu pole" );
test_within_tol( sminputs.mE, SM->get_Pole_Mass("e"), tol, "e pole" );
//test_within_tol( sminputs.mNu3, SM->get_Pole_Mass(""), tol );
//test_within_tol( sminputs.mNu2, SM->get_Pole_Mass(""), tol );
//test_within_tol( sminputs.mNu1, SM->get_Pole_Mass(""), tol );
// Next check running quantities evaluated at Z pole
// Note, numerical errors might creep in depending on how we do the running
// back and forth. Might need to consider some method to "reset" object back
// to original condition (keep a copy of itself inside?)
//SM->RunToScale(sminputs.mZ);
OUTPUT << "Current scale: " << SM->GetScale() << std::endl;
OUTPUT << "Z pole mass : " << SM->get_Pole_Mass("Z") << std::endl;
if(not SLHAonly) test_within_tol( sminputs.alphainv, 1./ SM->get_dimensionless_parameter("alpha"), tol, "1/alpha(mZ)" );
if(not SLHAonly) test_within_tol( sminputs.alphaS, SM->get_dimensionless_parameter("alphaS"), tol, "alphaS(mZ)" );
// Check running quantities evaluated at 2 GeV
if(not SLHAonly) SM->RunToScale(2);
OUTPUT << "Current scale: " << SM->GetScale() << std::endl;
test_within_tol( sminputs.mU, SM->get_mass_parameter("u"), tolm, "mu(2)" );
test_within_tol( sminputs.mD, SM->get_mass_parameter("d"), tolm, "md(2)" );
test_within_tol( sminputs.mS, SM->get_mass_parameter("s"), tolm, "ms(2)" );
// Check mC(mC) and mB(mB)
if(not SLHAonly){
SM->RunToScale(sminputs.mCmC);
OUTPUT << "Current scale: " << SM->GetScale() << std::endl;
OUTPUT << "mC (MSbar) : " << SM->get_mass_parameter("c") << std::endl;
test_within_tol( sminputs.mCmC, SM->get_mass_parameter("c"), tolm, "mc(mc)" );
SM->RunToScale(sminputs.mBmB);
OUTPUT << "Current scale: " << SM->GetScale() << std::endl;
OUTPUT << "mB (MSbar) : " << SM->get_mass_parameter("b") << std::endl;
test_within_tol( sminputs.mBmB, SM->get_mass_parameter("b"), tolm, "mb(mb)" );
OUTPUT << EOM;
}
// Check that pre-extracted SM SubSpectrum* and the one from Spectrum object match
if(not SLHAonly) SM->RunToScale(sminputs.mZ);
if(not SLHAonly) smin->RunToScale(sminputs.mZ);
OUTPUT << "Checking match between SM SubSpectrum* retrieved in different ways..." << std::endl;
test_within_tol(SM->get_Pole_Mass("Z"),
smin->get_Pole_Mass("Z"), tol, "Z pole" );
test_within_tol(SM->get_Pole_Mass("W"),
smin->get_Pole_Mass("W"), tol, "W pole" );
test_within_tol(SM->get_Pole_Mass("t"),
smin->get_Pole_Mass("t"), tol, "top pole" );
test_within_tol(SM->get_Pole_Mass("tau"),
smin->get_Pole_Mass("tau"), tol, "tau pole" );
test_within_tol(SM->get_Pole_Mass("mu"),
smin->get_Pole_Mass("mu"), tol, "mu pole" );
test_within_tol(SM->get_Pole_Mass("e"),
smin->get_Pole_Mass("e"), tol, "e pole" );
if(not SLHAonly) test_within_tol(SM->get_dimensionless_parameter("alpha"),
smin->get_dimensionless_parameter("alpha"), tol, "1/alpha(mZ)" );
if(not SLHAonly) test_within_tol(SM->get_dimensionless_parameter("alphaS"),
smin->get_dimensionless_parameter("alphaS"),tol, "alphaS(mZ)" );
test_within_tol(SM->get_mass_parameter("u"),
smin->get_mass_parameter("u"), tolm, "mu(2)" );
test_within_tol(SM->get_mass_parameter("d"),
smin->get_mass_parameter("d"), tolm, "md(2)" );
test_within_tol(SM->get_mass_parameter("s"),
smin->get_mass_parameter("s"), tolm, "ms(2)" );
if(not SLHAonly) test_within_tol(SM->get_mass_parameter("c"),
smin->get_mass_parameter("c"), tolm, "mc(mc)" );
if(not SLHAonly) test_within_tol(SM->get_mass_parameter("b"),
smin->get_mass_parameter("b"), tolm, "mb(mb)" );
// Check light quark mass ratios
OUTPUT << "Checking light quark mass ratios:" << std::endl;
std::vector<double> scales;
scales.push_back(10);
if(not SLHAonly) scales.push_back(2);
if(not SLHAonly) scales.push_back(1);
if(not SLHAonly) scales.push_back(0.5);
if(not SLHAonly) scales.push_back(0.1);
for(std::vector<double>::iterator it = scales.begin(); it != scales.end(); ++it)
{
if(not SLHAonly) SM->RunToScale(*it);
double Q = SM->GetScale();
double mu = SM->get_mass_parameter("u");
double md = SM->get_mass_parameter("d");
double ms = SM->get_mass_parameter("s");
OUTPUT << "---------------------------------" << std::endl;
OUTPUT << "Current scale: " << Q << std::endl;
OUTPUT << "mu("<<Q<<") = " << mu << std::endl;
OUTPUT << "md("<<Q<<") = " << md << std::endl;
OUTPUT << "ms("<<Q<<") = " << ms << std::endl;
OUTPUT << "mu/md = " << mu/md << std::endl;
OUTPUT << "ms/md = " << ms/md << std::endl;
}
OUTPUT << EOM;
/// Generate data for a plot of quark mass
if(not SLHAonly) {
double Qs[] = {
1.00000000e-02, 1.25892541e-02, 1.58489319e-02,
1.99526231e-02, 2.51188643e-02, 3.16227766e-02,
3.98107171e-02, 5.01187234e-02, 6.30957344e-02,
7.94328235e-02, 1.00000000e-01, 1.25892541e-01,
1.58489319e-01, 1.99526231e-01, 2.51188643e-01,
3.16227766e-01, 3.98107171e-01, 5.01187234e-01,
6.30957344e-01, 7.94328235e-01, 1.00000000e+00,
1.25892541e+00, 1.58489319e+00, 1.99526231e+00,
2.51188643e+00, 3.16227766e+00, 3.98107171e+00,
5.01187234e+00, 6.30957344e+00, 7.94328235e+00,
1.00000000e+01, 1.25892541e+01, 1.58489319e+01,
1.99526231e+01, 2.51188643e+01, 3.16227766e+01,
3.98107171e+01, 5.01187234e+01, 6.30957344e+01,
7.94328235e+01, 1.00000000e+02, 1.25892541e+02,
1.58489319e+02, 1.99526231e+02, 2.51188643e+02,
3.16227766e+02, 3.98107171e+02, 5.01187234e+02,
6.30957344e+02, 7.94328235e+02, 1.00000000e+03,
1.25892541e+03, 1.58489319e+03, 1.99526231e+03,
2.51188643e+03, 3.16227766e+03, 3.98107171e+03,
5.01187234e+03, 6.30957344e+03, 7.94328235e+03,
1.00000000e+04, 1.25892541e+04, 1.58489319e+04,
1.99526231e+04, 2.51188643e+04, 3.16227766e+04,
3.98107171e+04, 5.01187234e+04, 6.30957344e+04,
7.94328235e+04
};
std::vector<double> Qvec(Qs, Utils::endA(Qs));
std::ofstream Qout;
Qout.open("SpecBit/light_quark_txt");
for(std::vector<double>::iterator it = Qvec.begin(); it != Qvec.end(); ++it)
{
// Clone to avoid buildup of errors
std::unique_ptr<SubSpectrum> SMloop = matched_spectra->clone_LE();
SMloop->RunToScale(*it);
double Q = SMloop->GetScale();
double mu = SMloop->get_mass_parameter("u");
double md = SMloop->get_mass_parameter("d");
double ms = SMloop->get_mass_parameter("s");
// Write to file
Qout << Q << ", " << md << ", " << mu << ", " << ms << std::endl;
}
Qout.close();
} // endif
/// Testing copyability of Spectrum;
// Copy to object to clone the hosted SubSpectrum objects.
// i.e. all copies are deep copies.
Spectrum nonconst_spectra(*matched_spectra);
// Try to access non-const member functions
OUTPUT << std::endl;
OUTPUT << "Testing non-const access to Spectrum object:" << std::endl;
if(not SLHAonly) nonconst_spectra.RunBothToScale(sminputs.mT); // This is the only non-const function atm.
OUTPUT << "Current SM SubSpectrum* scale: " << nonconst_spectra.get_LE()->GetScale() << std::endl;
OUTPUT << "Current UV SubSpectrum* scale: " << nonconst_spectra.get_UV()->GetScale() << std::endl;
// Make sure nothing happened to the original objects
OUTPUT << "Old SM SubSpectrum* scale: " << matched_spectra->get_LE()->GetScale() << std::endl;
OUTPUT << "Old UV SubSpectrum* scale: " << matched_spectra->get_UV()->GetScale() << std::endl;
// Check some other numbers
OUTPUT << "Current SM SubSpectrum* mu :" << nonconst_spectra.get_LE()->get_mass_parameter("u") << std::endl;
OUTPUT << "Current SM Spectrum* md :" << nonconst_spectra.get_LE()->get_mass_parameter("d") << std::endl;
OUTPUT << "Current SM Spectrum* ms :" << nonconst_spectra.get_LE()->get_mass_parameter("s") << std::endl;
OUTPUT << "Old SM Spectrum* mu :" << matched_spectra->get_LE()->get_mass_parameter("u") << std::endl;
OUTPUT << "Old SM Spectrum* md :" << matched_spectra->get_LE()->get_mass_parameter("d") << std::endl;
OUTPUT << "Old SM Spectrum* ms :" << matched_spectra->get_LE()->get_mass_parameter("s") << std::endl;
OUTPUT << EOM;
// Check running beyond soft and hard limits (assumes QedQcdWrapper for SM)
// behave = 0 -- If running beyond soft limit requested, halt at soft limit
// (assumes hard limits outside of soft limits; but this is not enforced)
// behave = 1 -- If running beyond soft limit requested, throw warning
// " " hard limit " , throw error
// behave = anything else -- Ignore limits and attempt running to requested scale
if(not SLHAonly) {
OUTPUT << "Testing QedQcdWrapper running limits:" << std::endl;
// behave=0 (default)
// Running halted at soft limit
OUTPUT << "behave=0" << std::endl;
SM->RunToScale(sminputs.mT); // Soft limit (and hard limit)
OUTPUT << "Current scale: " << SM->GetScale() << std::endl;
SM->RunToScale(1.5*sminputs.mT);
OUTPUT << "Current scale: " << SM->GetScale() << std::endl;
OUTPUT << EOM;
// behave=2
// Should be no errors, just potentially inaccurate running
// EDIT: Whoops, so QedQcd object itself will throw an error if you try
// to run above mT. Remove comments to observe this behaviour.
OUTPUT << "behave=2" << std::endl;
SM->RunToScale(sminputs.mT,2); // Soft limit (and hard limit)
OUTPUT << "Current scale: " << SM->GetScale() << std::endl;
//SM->RunToScale(1.5*sminputs.mT,2);
//OUTPUT << "Current scale: " << SM->GetScale() << std::endl;
OUTPUT << EOM;
// behave=1
OUTPUT << "behave=1" << std::endl;
SM->RunToScale(sminputs.mT,1); // Soft limit (and hard limit)
OUTPUT << "Current scale: " << SM->GetScale() << std::endl;
SM->RunToScale(1.5*sminputs.mT,1); // Beyond hard limit (error)
OUTPUT << "Current scale: " << SM->GetScale() << std::endl;
OUTPUT << EOM;
}
}
} // end namespace SpecBit
} // end namespace Gambit
#endif
Updated on 2024-07-18 at 13:53:32 +0000