file src/ColliderBit_LEP.cpp
[No description available] More…
Namespaces
| Name |
|---|
| Gambit TODO: see if we can use this one: |
| Gambit::ColliderBit |
Classes
| Name | |
|---|---|
| struct | Gambit::ColliderBit::LSP |
Detailed Description
Author:
- Abram Krislock (a.m.b.krislock@fys.uio.no)
- Anders Kvellestad (anders.kvellestad@nordita.org)
- Are Raklev (ahye@fys.uio.no)
- Tomas Gonzalo (t.e.gonzalo@fys.uio.no)
Date:
- 2018 Feb
- 2018 Feb
Functions of ColliderBit LEP likelihoods.
Authors (add name and date if you modify):
Source code
// GAMBIT: Global and Modular BSM Inference Tool
// *********************************************
/// \file
///
/// Functions of ColliderBit LEP likelihoods.
///
/// *********************************************
///
/// Authors (add name and date if you modify):
///
/// \author Abram Krislock
/// (a.m.b.krislock@fys.uio.no)
/// \author Anders Kvellestad
/// (anders.kvellestad@nordita.org)
///
/// \author Are Raklev
/// (ahye@fys.uio.no)
/// \date 2018 Feb
///
/// \author Tomas Gonzalo
/// (t.e.gonzalo@fys.uio.no)
/// \date 2018 Feb
///
/// *********************************************
#include <cmath>
#include <string>
#include <iostream>
#include <fstream>
#include <memory>
#include <numeric>
#include <sstream>
#include <vector>
#include "gambit/Elements/gambit_module_headers.hpp"
#include "gambit/ColliderBit/ColliderBit_rollcall.hpp"
#include "gambit/Elements/mssm_slhahelp.hpp"
#include "gambit/ColliderBit/lep_mssm_xsecs.hpp"
#include "gambit/ColliderBit/limits/ImageLimit.hpp"
//#define COLLIDERBIT_DEBUG
namespace Gambit
{
namespace ColliderBit
{
/// A simple struct and helper function to determine if the LSP is
/// the lightest neutralino or the gravitino.
struct LSP
{
int pdg;
str name;
double mass;
};
LSP get_LSP_for_LEP_limits(const Spectrum& spec)
{
LSP lsp;
// Start by assuming the neutralino_1 is LSP
lsp.pdg = 1000022;
lsp.name = "~chi0_1";
lsp.mass = std::abs(spec.get(Par::Pole_Mass, 1000022, 0));
// Check if gravitino is LSP
if (spec.has(Par::Pole_Mass, 1000039, 0))
{
double m = spec.get(Par::Pole_Mass, 1000039, 0);
if (m < lsp.mass)
{
lsp.pdg = 1000039;
lsp.name = "~G";
lsp.mass = m;
}
}
return lsp;
}
// *** Limits from e+e- colliders ***
/// LEP limit likelihood function
double limit_LLike(double x, double x95, double sigma) {
/**
@brief Incorporate theoretical uncertainty in a 95% limit
@param x Predicted cross section
@param x95 Experimental 95% upper limit on cross section
@param sigma Theoretical uncertainty on predicted cross section
@returns Log-likelihood
*/
static double p95 = 1.;
using std::erf;
using std::sqrt;
if (p95 < 1.01)
{
for (int i=0; i<20000; i++)
{
static double step = 0.1;
if (0.5 * (1 - erf(p95 + step)) > 0.05) p95 += step;
else step /= 10.;
}
}
double result = 0.5 * (1.0 - erf(p95 + (x - x95) / sigma / sqrt(2.)));
if (result < 0.0 or Utils::isnan(result))
{
cout << "result: " << result << endl;
cout << "x: " << x << endl;
cout << "x95: " << x95 << endl;
cout << "sigma: " << sigma << endl;
cout << "p95: " << p95 << endl;
cout << "(x - x95) / sigma / sqrt(2.): " << (x - x95) / sigma / sqrt(2.) << endl;
cout << "erf(p95 + (x - x95) / sigma / sqrt(2.)): " << erf(p95 + (x - x95) / sigma / sqrt(2.)) << endl;
ColliderBit_error().raise(LOCAL_INFO, "Suspicious results in limit_LLike!");
}
return (result == 0.0 ? -1e10 : log(result));
}
/// LEP limit debugging function
bool is_xsec_sane(const triplet<double>& xsecWithError)
{
double xsec = xsecWithError.central;
double dxsec_upper = xsecWithError.upper - xsecWithError.central;
double dxsec_lower = xsecWithError.central - xsecWithError.lower;
if (xsec < 0.0 or dxsec_upper < 0.0 or dxsec_lower < 0.0
or Utils::isnan(xsec) or Utils::isnan(dxsec_upper) or Utils::isnan(dxsec_lower))
{
cout << "xsec: " << xsec << endl;
cout << "dxsec_upper: " << dxsec_upper << endl;
cout << "dxsec_lower: " << dxsec_lower << endl;
return false;
}
return true;
}
/// ee --> selectron pair production cross-sections at 208 GeV
/// @{
void LEP208_SLHA1_convention_xsec_selselbar(triplet<double>& result)
{
using namespace Pipes::LEP208_SLHA1_convention_xsec_selselbar;
const static double tol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool pt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
get_sigma_ee_ll(result, 208.0, 1, 1, 1, tol, tol, pt_error, pt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV, true);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP208_SLHA1_convention_xsec_selserbar(triplet<double>& result)
{
using namespace Pipes::LEP208_SLHA1_convention_xsec_selserbar;
const static double tol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool pt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
get_sigma_ee_ll(result, 208.0, 1, 1, 2, tol, tol, pt_error, pt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV, true);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP208_SLHA1_convention_xsec_serserbar(triplet<double>& result)
{
using namespace Pipes::LEP208_SLHA1_convention_xsec_serserbar;
const static double tol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool pt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
get_sigma_ee_ll(result, 208.0, 1, 2, 2, tol, tol, pt_error, pt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV, true);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP208_SLHA1_convention_xsec_serselbar(triplet<double>& result)
{
result = *Pipes::LEP208_SLHA1_convention_xsec_serselbar::Dep::LEP208_xsec_selserbar;
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP208_SLHA1_convention_xsec_se1se1bar(triplet<double>& result)
{
using namespace Pipes::LEP208_SLHA1_convention_xsec_se1se1bar;
const static double gtol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool gpt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
const static double ftol = runOptions->getValueOrDef<double>(1e-2, "family_mixing_tolerance");
const static bool fpt_error = runOptions->getValueOrDef<bool>(true, "family_mixing_tolerance_invalidates_point_only");
get_sigma_ee_ll(result, 208.0, 1, 1, 1, gtol, ftol, gpt_error, fpt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV, false);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP208_SLHA1_convention_xsec_se1se2bar(triplet<double>& result)
{
using namespace Pipes::LEP208_SLHA1_convention_xsec_se1se2bar;
const static double gtol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool gpt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
const static double ftol = runOptions->getValueOrDef<double>(1e-2, "family_mixing_tolerance");
const static bool fpt_error = runOptions->getValueOrDef<bool>(true, "family_mixing_tolerance_invalidates_point_only");
get_sigma_ee_ll(result, 208.0, 1, 1, 2, gtol, ftol, gpt_error, fpt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV, false);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP208_SLHA1_convention_xsec_se2se2bar(triplet<double>& result)
{
using namespace Pipes::LEP208_SLHA1_convention_xsec_se2se2bar;
const static double gtol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool gpt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
const static double ftol = runOptions->getValueOrDef<double>(1e-2, "family_mixing_tolerance");
const static bool fpt_error = runOptions->getValueOrDef<bool>(true, "family_mixing_tolerance_invalidates_point_only");
get_sigma_ee_ll(result, 208.0, 1, 2, 2, gtol, ftol, gpt_error, fpt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV, false);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP208_SLHA1_convention_xsec_se2se1bar(triplet<double>& result)
{
result = *Pipes::LEP208_SLHA1_convention_xsec_se2se1bar::Dep::LEP208_xsec_se1se2bar;
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
/// @}
/// ee --> smuon pair production cross-sections at 208 GeV
/// @{
void LEP208_SLHA1_convention_xsec_smulsmulbar(triplet<double>& result)
{
using namespace Pipes::LEP208_SLHA1_convention_xsec_smulsmulbar;
const static double tol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool pt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
get_sigma_ee_ll(result, 208.0, 2, 1, 1, tol, tol, pt_error, pt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV, true);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP208_SLHA1_convention_xsec_smulsmurbar(triplet<double>& result)
{
using namespace Pipes::LEP208_SLHA1_convention_xsec_smulsmurbar;
const static double tol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool pt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
get_sigma_ee_ll(result, 208.0, 2, 1, 2, tol, tol, pt_error, pt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV, true);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP208_SLHA1_convention_xsec_smursmurbar(triplet<double>& result)
{
using namespace Pipes::LEP208_SLHA1_convention_xsec_smursmurbar;
const static double tol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool pt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
get_sigma_ee_ll(result, 208.0, 2, 2, 2, tol, tol, pt_error, pt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV, true);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP208_SLHA1_convention_xsec_smursmulbar(triplet<double>& result)
{
result = *Pipes::LEP208_SLHA1_convention_xsec_smursmulbar::Dep::LEP208_xsec_smulsmurbar;
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP208_SLHA1_convention_xsec_smu1smu1bar(triplet<double>& result)
{
using namespace Pipes::LEP208_SLHA1_convention_xsec_smu1smu1bar;
const static double gtol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool gpt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
const static double ftol = runOptions->getValueOrDef<double>(1e-2, "family_mixing_tolerance");
const static bool fpt_error = runOptions->getValueOrDef<bool>(true, "family_mixing_tolerance_invalidates_point_only");
get_sigma_ee_ll(result, 208.0, 2, 1, 1, gtol, ftol, gpt_error, fpt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV, false);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP208_SLHA1_convention_xsec_smu1smu2bar(triplet<double>& result)
{
using namespace Pipes::LEP208_SLHA1_convention_xsec_smu1smu2bar;
const static double gtol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool gpt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
const static double ftol = runOptions->getValueOrDef<double>(1e-2, "family_mixing_tolerance");
const static bool fpt_error = runOptions->getValueOrDef<bool>(true, "family_mixing_tolerance_invalidates_point_only");
get_sigma_ee_ll(result, 208.0, 2, 1, 2, gtol, ftol, gpt_error, fpt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV, false);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP208_SLHA1_convention_xsec_smu2smu2bar(triplet<double>& result)
{
using namespace Pipes::LEP208_SLHA1_convention_xsec_smu2smu2bar;
const static double gtol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool gpt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
const static double ftol = runOptions->getValueOrDef<double>(1e-2, "family_mixing_tolerance");
const static bool fpt_error = runOptions->getValueOrDef<bool>(true, "family_mixing_tolerance_invalidates_point_only");
get_sigma_ee_ll(result, 208.0, 2, 2, 2, gtol, ftol, gpt_error, fpt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV, false);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP208_SLHA1_convention_xsec_smu2smu1bar(triplet<double>& result)
{
result = *Pipes::LEP208_SLHA1_convention_xsec_smu2smu1bar::Dep::LEP208_xsec_smu1smu2bar;
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
/// @}
/// ee --> stau pair production cross-sections at 208 GeV
/// @{
void LEP208_SLHA1_convention_xsec_staulstaulbar(triplet<double>& result)
{
using namespace Pipes::LEP208_SLHA1_convention_xsec_staulstaulbar;
const static double tol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool pt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
get_sigma_ee_ll(result, 208.0, 3, 1, 1, tol, tol, pt_error, pt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV, true);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP208_SLHA1_convention_xsec_staulstaurbar(triplet<double>& result)
{
using namespace Pipes::LEP208_SLHA1_convention_xsec_staulstaurbar;
const static double tol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool pt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
get_sigma_ee_ll(result, 208.0, 3, 1, 2, tol, tol, pt_error, pt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV, true);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP208_SLHA1_convention_xsec_staurstaurbar(triplet<double>& result)
{
using namespace Pipes::LEP208_SLHA1_convention_xsec_staurstaurbar;
const static double tol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool pt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
get_sigma_ee_ll(result, 208.0, 3, 2, 2, tol, tol, pt_error, pt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV, true);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP208_SLHA1_convention_xsec_staurstaulbar(triplet<double>& result)
{
result = *Pipes::LEP208_SLHA1_convention_xsec_staurstaulbar::Dep::LEP208_xsec_staulstaurbar;
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP208_SLHA1_convention_xsec_stau1stau1bar(triplet<double>& result)
{
using namespace Pipes::LEP208_SLHA1_convention_xsec_stau1stau1bar;
const static double gtol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool gpt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
const static double ftol = runOptions->getValueOrDef<double>(1e-2, "family_mixing_tolerance");
const static bool fpt_error = runOptions->getValueOrDef<bool>(true, "family_mixing_tolerance_invalidates_point_only");
get_sigma_ee_ll(result, 208.0, 3, 1, 1, gtol, ftol, gpt_error, fpt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV, false);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP208_SLHA1_convention_xsec_stau1stau2bar(triplet<double>& result)
{
using namespace Pipes::LEP208_SLHA1_convention_xsec_stau1stau2bar;
const static double gtol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool gpt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
const static double ftol = runOptions->getValueOrDef<double>(1e-2, "family_mixing_tolerance");
const static bool fpt_error = runOptions->getValueOrDef<bool>(true, "family_mixing_tolerance_invalidates_point_only");
get_sigma_ee_ll(result, 208.0, 3, 1, 2, gtol, ftol, gpt_error, fpt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV, false);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP208_SLHA1_convention_xsec_stau2stau2bar(triplet<double>& result)
{
using namespace Pipes::LEP208_SLHA1_convention_xsec_stau2stau2bar;
const static double gtol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool gpt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
const static double ftol = runOptions->getValueOrDef<double>(1e-2, "family_mixing_tolerance");
const static bool fpt_error = runOptions->getValueOrDef<bool>(true, "family_mixing_tolerance_invalidates_point_only");
get_sigma_ee_ll(result, 208.0, 3, 2, 2, gtol, ftol, gpt_error, fpt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV, false);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP208_SLHA1_convention_xsec_stau2stau1bar(triplet<double>& result)
{
result = *Pipes::LEP208_SLHA1_convention_xsec_stau2stau1bar::Dep::LEP208_xsec_stau1stau2bar;
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
/// @}
// @brief \f[ee \to \chi_1\chi_1\f] pair production cross-section at 207 GeV
void LEP207_SLHA1_convention_xsec_chi00_11(triplet<double>& result) {
using namespace Pipes::LEP207_SLHA1_convention_xsec_chi00_11;
const static double tol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool pt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
get_sigma_ee_chi00(result, 207.0, 1, 1, tol, pt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV);
if (!is_xsec_sane(result)) {
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
}
/// ee --> neutralino pair production cross-sections at 208 GeV
/// @{
void LEP208_SLHA1_convention_xsec_chi00_11(triplet<double>& result)
{
using namespace Pipes::LEP208_SLHA1_convention_xsec_chi00_11;
const static double tol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool pt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
get_sigma_ee_chi00(result, 208.0, 1, 1, tol, pt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP208_SLHA1_convention_xsec_chi00_12(triplet<double>& result)
{
using namespace Pipes::LEP208_SLHA1_convention_xsec_chi00_12;
const static double tol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool pt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
get_sigma_ee_chi00(result, 208.0, 1, 2, tol, pt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP208_SLHA1_convention_xsec_chi00_13(triplet<double>& result)
{
using namespace Pipes::LEP208_SLHA1_convention_xsec_chi00_13;
const static double tol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool pt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
get_sigma_ee_chi00(result, 208.0, 1, 3, tol, pt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP208_SLHA1_convention_xsec_chi00_14(triplet<double>& result)
{
using namespace Pipes::LEP208_SLHA1_convention_xsec_chi00_14;
const static double tol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool pt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
get_sigma_ee_chi00(result, 208.0, 1, 4, tol, pt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP208_SLHA1_convention_xsec_chi00_22(triplet<double>& result)
{
using namespace Pipes::LEP208_SLHA1_convention_xsec_chi00_22;
const static double tol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool pt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
get_sigma_ee_chi00(result, 208.0, 2, 2, tol, pt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP208_SLHA1_convention_xsec_chi00_23(triplet<double>& result)
{
using namespace Pipes::LEP208_SLHA1_convention_xsec_chi00_23;
const static double tol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool pt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
get_sigma_ee_chi00(result, 208.0, 2, 3, tol, pt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP208_SLHA1_convention_xsec_chi00_24(triplet<double>& result)
{
using namespace Pipes::LEP208_SLHA1_convention_xsec_chi00_24;
const static double tol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool pt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
get_sigma_ee_chi00(result, 208.0, 2, 4, tol, pt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP208_SLHA1_convention_xsec_chi00_33(triplet<double>& result)
{
using namespace Pipes::LEP208_SLHA1_convention_xsec_chi00_33;
const static double tol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool pt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
get_sigma_ee_chi00(result, 208.0, 3, 3, tol, pt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP208_SLHA1_convention_xsec_chi00_34(triplet<double>& result)
{
using namespace Pipes::LEP208_SLHA1_convention_xsec_chi00_34;
const static double tol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool pt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
get_sigma_ee_chi00(result, 208.0, 3, 4, tol, pt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP208_SLHA1_convention_xsec_chi00_44(triplet<double>& result)
{
using namespace Pipes::LEP208_SLHA1_convention_xsec_chi00_44;
const static double tol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool pt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
get_sigma_ee_chi00(result, 208.0, 4, 4, tol, pt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
/// @}
/// ee --> chargino pair production cross-sections at 208 GeV
/// @{
void LEP208_SLHA1_convention_xsec_chipm_11(triplet<double>& result)
{
using namespace Pipes::LEP208_SLHA1_convention_xsec_chipm_11;
const static double tol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool pt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
get_sigma_ee_chipm(result, 208.0, 1, 1, tol, pt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP208_SLHA1_convention_xsec_chipm_12(triplet<double>& result)
{
using namespace Pipes::LEP208_SLHA1_convention_xsec_chipm_12;
const static double tol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool pt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
get_sigma_ee_chipm(result, 208.0, 1, 2, tol, pt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP208_SLHA1_convention_xsec_chipm_22(triplet<double>& result)
{
using namespace Pipes::LEP208_SLHA1_convention_xsec_chipm_22;
const static double tol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool pt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
get_sigma_ee_chipm(result, 208.0, 2, 2, tol, pt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP208_SLHA1_convention_xsec_chipm_21(triplet<double>& result)
{
result = *Pipes::LEP208_SLHA1_convention_xsec_chipm_21::Dep::LEP208_xsec_chipm_12;
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
/// @}
/// ee --> selectron pair production cross-sections at 205 GeV
/// @{
void LEP205_SLHA1_convention_xsec_selselbar(triplet<double>& result)
{
using namespace Pipes::LEP205_SLHA1_convention_xsec_selselbar;
const static double tol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool pt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
get_sigma_ee_ll(result, 205.0, 1, 1, 1, tol, tol, pt_error, pt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV, true);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP205_SLHA1_convention_xsec_selserbar(triplet<double>& result)
{
using namespace Pipes::LEP205_SLHA1_convention_xsec_selserbar;
const static double tol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool pt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
get_sigma_ee_ll(result, 205.0, 1, 1, 2, tol, tol, pt_error, pt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV, true);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP205_SLHA1_convention_xsec_serserbar(triplet<double>& result)
{
using namespace Pipes::LEP205_SLHA1_convention_xsec_serserbar;
const static double tol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool pt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
get_sigma_ee_ll(result, 205.0, 1, 2, 2, tol, tol, pt_error, pt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV, true);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP205_SLHA1_convention_xsec_serselbar(triplet<double>& result)
{
result = *Pipes::LEP205_SLHA1_convention_xsec_serselbar::Dep::LEP205_xsec_selserbar;
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP205_SLHA1_convention_xsec_se1se1bar(triplet<double>& result)
{
using namespace Pipes::LEP205_SLHA1_convention_xsec_se1se1bar;
const static double gtol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool gpt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
const static double ftol = runOptions->getValueOrDef<double>(1e-2, "family_mixing_tolerance");
const static bool fpt_error = runOptions->getValueOrDef<bool>(true, "family_mixing_tolerance_invalidates_point_only");
get_sigma_ee_ll(result, 205.0, 1, 1, 1, gtol, ftol, gpt_error, fpt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV, false);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP205_SLHA1_convention_xsec_se1se2bar(triplet<double>& result)
{
using namespace Pipes::LEP205_SLHA1_convention_xsec_se1se2bar;
const static double gtol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool gpt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
const static double ftol = runOptions->getValueOrDef<double>(1e-2, "family_mixing_tolerance");
const static bool fpt_error = runOptions->getValueOrDef<bool>(true, "family_mixing_tolerance_invalidates_point_only");
get_sigma_ee_ll(result, 205.0, 1, 1, 2, gtol, ftol, gpt_error, fpt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV, false);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP205_SLHA1_convention_xsec_se2se2bar(triplet<double>& result)
{
using namespace Pipes::LEP205_SLHA1_convention_xsec_se2se2bar;
const static double gtol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool gpt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
const static double ftol = runOptions->getValueOrDef<double>(1e-2, "family_mixing_tolerance");
const static bool fpt_error = runOptions->getValueOrDef<bool>(true, "family_mixing_tolerance_invalidates_point_only");
get_sigma_ee_ll(result, 205.0, 1, 2, 2, gtol, ftol, gpt_error, fpt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV, false);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP205_SLHA1_convention_xsec_se2se1bar(triplet<double>& result)
{
result = *Pipes::LEP205_SLHA1_convention_xsec_se2se1bar::Dep::LEP205_xsec_se1se2bar;
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
/// @}
/// ee --> smuon pair production cross-sections at 205 GeV
/// @{
void LEP205_SLHA1_convention_xsec_smulsmulbar(triplet<double>& result)
{
using namespace Pipes::LEP205_SLHA1_convention_xsec_smulsmulbar;
const static double tol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool pt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
get_sigma_ee_ll(result, 205.0, 2, 1, 1, tol, tol, pt_error, pt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV, true);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP205_SLHA1_convention_xsec_smulsmurbar(triplet<double>& result)
{
using namespace Pipes::LEP205_SLHA1_convention_xsec_smulsmurbar;
const static double tol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool pt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
get_sigma_ee_ll(result, 205.0, 2, 1, 2, tol, tol, pt_error, pt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV, true);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP205_SLHA1_convention_xsec_smursmurbar(triplet<double>& result)
{
using namespace Pipes::LEP205_SLHA1_convention_xsec_smursmurbar;
const static double tol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool pt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
get_sigma_ee_ll(result, 205.0, 2, 2, 2, tol, tol, pt_error, pt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV, true);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP205_SLHA1_convention_xsec_smursmulbar(triplet<double>& result)
{
result = *Pipes::LEP205_SLHA1_convention_xsec_smursmulbar::Dep::LEP205_xsec_smulsmurbar;
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP205_SLHA1_convention_xsec_smu1smu1bar(triplet<double>& result)
{
using namespace Pipes::LEP205_SLHA1_convention_xsec_smu1smu1bar;
const static double gtol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool gpt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
const static double ftol = runOptions->getValueOrDef<double>(1e-2, "family_mixing_tolerance");
const static bool fpt_error = runOptions->getValueOrDef<bool>(true, "family_mixing_tolerance_invalidates_point_only");
get_sigma_ee_ll(result, 205.0, 2, 1, 1, gtol, ftol, gpt_error, fpt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV, false);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP205_SLHA1_convention_xsec_smu1smu2bar(triplet<double>& result)
{
using namespace Pipes::LEP205_SLHA1_convention_xsec_smu1smu2bar;
const static double gtol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool gpt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
const static double ftol = runOptions->getValueOrDef<double>(1e-2, "family_mixing_tolerance");
const static bool fpt_error = runOptions->getValueOrDef<bool>(true, "family_mixing_tolerance_invalidates_point_only");
get_sigma_ee_ll(result, 205.0, 2, 1, 2, gtol, ftol, gpt_error, fpt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV, false);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP205_SLHA1_convention_xsec_smu2smu2bar(triplet<double>& result)
{
using namespace Pipes::LEP205_SLHA1_convention_xsec_smu2smu2bar;
const static double gtol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool gpt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
const static double ftol = runOptions->getValueOrDef<double>(1e-2, "family_mixing_tolerance");
const static bool fpt_error = runOptions->getValueOrDef<bool>(true, "family_mixing_tolerance_invalidates_point_only");
get_sigma_ee_ll(result, 205.0, 2, 2, 2, gtol, ftol, gpt_error, fpt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV, false);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP205_SLHA1_convention_xsec_smu2smu1bar(triplet<double>& result)
{
result = *Pipes::LEP205_SLHA1_convention_xsec_smu2smu1bar::Dep::LEP205_xsec_smu1smu2bar;
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
/// @}
/// ee --> stau pair production cross-sections at 205 GeV
/// @{
void LEP205_SLHA1_convention_xsec_staulstaulbar(triplet<double>& result)
{
using namespace Pipes::LEP205_SLHA1_convention_xsec_staulstaulbar;
const static double tol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool pt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
get_sigma_ee_ll(result, 205.0, 3, 1, 1, tol, tol, pt_error, pt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV, true);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP205_SLHA1_convention_xsec_staulstaurbar(triplet<double>& result)
{
using namespace Pipes::LEP205_SLHA1_convention_xsec_staulstaurbar;
const static double tol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool pt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
get_sigma_ee_ll(result, 205.0, 3, 1, 2, tol, tol, pt_error, pt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV, true);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP205_SLHA1_convention_xsec_staurstaurbar(triplet<double>& result)
{
using namespace Pipes::LEP205_SLHA1_convention_xsec_staurstaurbar;
const static double tol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool pt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
get_sigma_ee_ll(result, 205.0, 3, 2, 2, tol, tol, pt_error, pt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV, true);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP205_SLHA1_convention_xsec_staurstaulbar(triplet<double>& result)
{
result = *Pipes::LEP205_SLHA1_convention_xsec_staurstaulbar::Dep::LEP205_xsec_staulstaurbar;
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP205_SLHA1_convention_xsec_stau1stau1bar(triplet<double>& result)
{
using namespace Pipes::LEP205_SLHA1_convention_xsec_stau1stau1bar;
const static double gtol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool gpt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
const static double ftol = runOptions->getValueOrDef<double>(1e-2, "family_mixing_tolerance");
const static bool fpt_error = runOptions->getValueOrDef<bool>(true, "family_mixing_tolerance_invalidates_point_only");
get_sigma_ee_ll(result, 205.0, 3, 1, 1, gtol, ftol, gpt_error, fpt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV, false);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP205_SLHA1_convention_xsec_stau1stau2bar(triplet<double>& result)
{
using namespace Pipes::LEP205_SLHA1_convention_xsec_stau1stau2bar;
const static double gtol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool gpt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
const static double ftol = runOptions->getValueOrDef<double>(1e-2, "family_mixing_tolerance");
const static bool fpt_error = runOptions->getValueOrDef<bool>(true, "family_mixing_tolerance_invalidates_point_only");
get_sigma_ee_ll(result, 205.0, 3, 1, 2, gtol, ftol, gpt_error, fpt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV, false);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP205_SLHA1_convention_xsec_stau2stau2bar(triplet<double>& result)
{
using namespace Pipes::LEP205_SLHA1_convention_xsec_stau2stau2bar;
const static double gtol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool gpt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
const static double ftol = runOptions->getValueOrDef<double>(1e-2, "family_mixing_tolerance");
const static bool fpt_error = runOptions->getValueOrDef<bool>(true, "family_mixing_tolerance_invalidates_point_only");
get_sigma_ee_ll(result, 205.0, 3, 2, 2, gtol, ftol, gpt_error, fpt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV, false);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP205_SLHA1_convention_xsec_stau2stau1bar(triplet<double>& result)
{
result = *Pipes::LEP205_SLHA1_convention_xsec_stau2stau1bar::Dep::LEP205_xsec_stau1stau2bar;
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
/// @}
/// ee --> neutralino pair production cross-sections at 205 GeV
/// @{
void LEP205_SLHA1_convention_xsec_chi00_11(triplet<double>& result)
{
using namespace Pipes::LEP205_SLHA1_convention_xsec_chi00_11;
const static double tol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool pt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
get_sigma_ee_chi00(result, 205.0, 1, 1, tol, pt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP205_SLHA1_convention_xsec_chi00_12(triplet<double>& result)
{
using namespace Pipes::LEP205_SLHA1_convention_xsec_chi00_12;
const static double tol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool pt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
get_sigma_ee_chi00(result, 205.0, 1, 2, tol, pt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP205_SLHA1_convention_xsec_chi00_13(triplet<double>& result)
{
using namespace Pipes::LEP205_SLHA1_convention_xsec_chi00_13;
const static double tol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool pt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
get_sigma_ee_chi00(result, 205.0, 1, 3, tol, pt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP205_SLHA1_convention_xsec_chi00_14(triplet<double>& result)
{
using namespace Pipes::LEP205_SLHA1_convention_xsec_chi00_14;
const static double tol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool pt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
get_sigma_ee_chi00(result, 205.0, 1, 4, tol, pt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP205_SLHA1_convention_xsec_chi00_22(triplet<double>& result)
{
using namespace Pipes::LEP205_SLHA1_convention_xsec_chi00_22;
const static double tol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool pt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
get_sigma_ee_chi00(result, 205.0, 2, 2, tol, pt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP205_SLHA1_convention_xsec_chi00_23(triplet<double>& result)
{
using namespace Pipes::LEP205_SLHA1_convention_xsec_chi00_23;
const static double tol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool pt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
get_sigma_ee_chi00(result, 205.0, 2, 3, tol, pt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP205_SLHA1_convention_xsec_chi00_24(triplet<double>& result)
{
using namespace Pipes::LEP205_SLHA1_convention_xsec_chi00_24;
const static double tol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool pt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
get_sigma_ee_chi00(result, 205.0, 2, 4, tol, pt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP205_SLHA1_convention_xsec_chi00_33(triplet<double>& result)
{
using namespace Pipes::LEP205_SLHA1_convention_xsec_chi00_33;
const static double tol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool pt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
get_sigma_ee_chi00(result, 205.0, 3, 3, tol, pt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP205_SLHA1_convention_xsec_chi00_34(triplet<double>& result)
{
using namespace Pipes::LEP205_SLHA1_convention_xsec_chi00_34;
const static double tol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool pt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
get_sigma_ee_chi00(result, 205.0, 3, 4, tol, pt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP205_SLHA1_convention_xsec_chi00_44(triplet<double>& result)
{
using namespace Pipes::LEP205_SLHA1_convention_xsec_chi00_44;
const static double tol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool pt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
get_sigma_ee_chi00(result, 205.0, 4, 4, tol, pt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
/// @}
/// ee --> chargino pair production cross-sections at 205 GeV
/// @{
void LEP205_SLHA1_convention_xsec_chipm_11(triplet<double>& result)
{
using namespace Pipes::LEP205_SLHA1_convention_xsec_chipm_11;
const static double tol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool pt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
get_sigma_ee_chipm(result, 205.0, 1, 1, tol, pt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP205_SLHA1_convention_xsec_chipm_12(triplet<double>& result)
{
using namespace Pipes::LEP205_SLHA1_convention_xsec_chipm_12;
const static double tol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool pt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
get_sigma_ee_chipm(result, 205.0, 1, 2, tol, pt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP205_SLHA1_convention_xsec_chipm_22(triplet<double>& result)
{
using namespace Pipes::LEP205_SLHA1_convention_xsec_chipm_22;
const static double tol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool pt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
get_sigma_ee_chipm(result, 205.0, 2, 2, tol, pt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP205_SLHA1_convention_xsec_chipm_21(triplet<double>& result)
{
result = *Pipes::LEP205_SLHA1_convention_xsec_chipm_21::Dep::LEP205_xsec_chipm_12;
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
/// ee --> selectron pair production cross-sections at 188.6 GeV
/// @{
void LEP188_SLHA1_convention_xsec_selselbar(triplet<double>& result)
{
using namespace Pipes::LEP188_SLHA1_convention_xsec_selselbar;
const static double tol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool pt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
get_sigma_ee_ll(result, 188.6, 1, 1, 1, tol, tol, pt_error, pt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV, true);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP188_SLHA1_convention_xsec_selserbar(triplet<double>& result)
{
using namespace Pipes::LEP188_SLHA1_convention_xsec_selserbar;
const static double tol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool pt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
get_sigma_ee_ll(result, 188.6, 1, 1, 2, tol, tol, pt_error, pt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV, true);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP188_SLHA1_convention_xsec_serserbar(triplet<double>& result)
{
using namespace Pipes::LEP188_SLHA1_convention_xsec_serserbar;
const static double tol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool pt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
get_sigma_ee_ll(result, 188.6, 1, 2, 2, tol, tol, pt_error, pt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV, true);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP188_SLHA1_convention_xsec_serselbar(triplet<double>& result)
{
result = *Pipes::LEP188_SLHA1_convention_xsec_serselbar::Dep::LEP188_xsec_selserbar;
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP188_SLHA1_convention_xsec_se1se1bar(triplet<double>& result)
{
using namespace Pipes::LEP188_SLHA1_convention_xsec_se1se1bar;
const static double gtol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool gpt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
const static double ftol = runOptions->getValueOrDef<double>(1e-2, "family_mixing_tolerance");
const static bool fpt_error = runOptions->getValueOrDef<bool>(true, "family_mixing_tolerance_invalidates_point_only");
get_sigma_ee_ll(result, 188.6, 1, 1, 1, gtol, ftol, gpt_error, fpt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV, false);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP188_SLHA1_convention_xsec_se1se2bar(triplet<double>& result)
{
using namespace Pipes::LEP188_SLHA1_convention_xsec_se1se2bar;
const static double gtol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool gpt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
const static double ftol = runOptions->getValueOrDef<double>(1e-2, "family_mixing_tolerance");
const static bool fpt_error = runOptions->getValueOrDef<bool>(true, "family_mixing_tolerance_invalidates_point_only");
get_sigma_ee_ll(result, 188.6, 1, 1, 2, gtol, ftol, gpt_error, fpt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV, false);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP188_SLHA1_convention_xsec_se2se2bar(triplet<double>& result)
{
using namespace Pipes::LEP188_SLHA1_convention_xsec_se2se2bar;
const static double gtol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool gpt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
const static double ftol = runOptions->getValueOrDef<double>(1e-2, "family_mixing_tolerance");
const static bool fpt_error = runOptions->getValueOrDef<bool>(true, "family_mixing_tolerance_invalidates_point_only");
get_sigma_ee_ll(result, 188.6, 1, 2, 2, gtol, ftol, gpt_error, fpt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV, false);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP188_SLHA1_convention_xsec_se2se1bar(triplet<double>& result)
{
result = *Pipes::LEP188_SLHA1_convention_xsec_se2se1bar::Dep::LEP188_xsec_se1se2bar;
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
/// @}
/// ee --> smuon pair production cross-sections at 188.6 GeV
/// @{
void LEP188_SLHA1_convention_xsec_smulsmulbar(triplet<double>& result)
{
using namespace Pipes::LEP188_SLHA1_convention_xsec_smulsmulbar;
const static double tol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool pt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
get_sigma_ee_ll(result, 188.6, 2, 1, 1, tol, tol, pt_error, pt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV, true);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP188_SLHA1_convention_xsec_smulsmurbar(triplet<double>& result)
{
using namespace Pipes::LEP188_SLHA1_convention_xsec_smulsmurbar;
const static double tol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool pt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
get_sigma_ee_ll(result, 188.6, 2, 1, 2, tol, tol, pt_error, pt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV, true);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP188_SLHA1_convention_xsec_smursmurbar(triplet<double>& result)
{
using namespace Pipes::LEP188_SLHA1_convention_xsec_smursmurbar;
const static double tol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool pt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
get_sigma_ee_ll(result, 188.6, 2, 2, 2, tol, tol, pt_error, pt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV, true);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP188_SLHA1_convention_xsec_smursmulbar(triplet<double>& result)
{
result = *Pipes::LEP188_SLHA1_convention_xsec_smursmulbar::Dep::LEP188_xsec_smulsmurbar;
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP188_SLHA1_convention_xsec_smu1smu1bar(triplet<double>& result)
{
using namespace Pipes::LEP188_SLHA1_convention_xsec_smu1smu1bar;
const static double gtol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool gpt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
const static double ftol = runOptions->getValueOrDef<double>(1e-2, "family_mixing_tolerance");
const static bool fpt_error = runOptions->getValueOrDef<bool>(true, "family_mixing_tolerance_invalidates_point_only");
get_sigma_ee_ll(result, 188.6, 2, 1, 1, gtol, ftol, gpt_error, fpt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV, false);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP188_SLHA1_convention_xsec_smu1smu2bar(triplet<double>& result)
{
using namespace Pipes::LEP188_SLHA1_convention_xsec_smu1smu2bar;
const static double gtol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool gpt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
const static double ftol = runOptions->getValueOrDef<double>(1e-2, "family_mixing_tolerance");
const static bool fpt_error = runOptions->getValueOrDef<bool>(true, "family_mixing_tolerance_invalidates_point_only");
get_sigma_ee_ll(result, 188.6, 2, 1, 2, gtol, ftol, gpt_error, fpt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV, false);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP188_SLHA1_convention_xsec_smu2smu2bar(triplet<double>& result)
{
using namespace Pipes::LEP188_SLHA1_convention_xsec_smu2smu2bar;
const static double gtol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool gpt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
const static double ftol = runOptions->getValueOrDef<double>(1e-2, "family_mixing_tolerance");
const static bool fpt_error = runOptions->getValueOrDef<bool>(true, "family_mixing_tolerance_invalidates_point_only");
get_sigma_ee_ll(result, 188.6, 2, 2, 2, gtol, ftol, gpt_error, fpt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV, false);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP188_SLHA1_convention_xsec_smu2smu1bar(triplet<double>& result)
{
result = *Pipes::LEP188_SLHA1_convention_xsec_smu2smu1bar::Dep::LEP188_xsec_smu1smu2bar;
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
/// @}
/// ee --> stau pair production cross-sections at 188.6 GeV
/// @{
void LEP188_SLHA1_convention_xsec_staulstaulbar(triplet<double>& result)
{
using namespace Pipes::LEP188_SLHA1_convention_xsec_staulstaulbar;
const static double tol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool pt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
get_sigma_ee_ll(result, 188.6, 3, 1, 1, tol, tol, pt_error, pt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV, true);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP188_SLHA1_convention_xsec_staulstaurbar(triplet<double>& result)
{
using namespace Pipes::LEP188_SLHA1_convention_xsec_staulstaurbar;
const static double tol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool pt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
get_sigma_ee_ll(result, 188.6, 3, 1, 2, tol, tol, pt_error, pt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV, true);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP188_SLHA1_convention_xsec_staurstaurbar(triplet<double>& result)
{
using namespace Pipes::LEP188_SLHA1_convention_xsec_staurstaurbar;
const static double tol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool pt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
get_sigma_ee_ll(result, 188.6, 3, 2, 2, tol, tol, pt_error, pt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV, true);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP188_SLHA1_convention_xsec_staurstaulbar(triplet<double>& result)
{
result = *Pipes::LEP188_SLHA1_convention_xsec_staurstaulbar::Dep::LEP188_xsec_staulstaurbar;
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP188_SLHA1_convention_xsec_stau1stau1bar(triplet<double>& result)
{
using namespace Pipes::LEP188_SLHA1_convention_xsec_stau1stau1bar;
const static double gtol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool gpt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
const static double ftol = runOptions->getValueOrDef<double>(1e-2, "family_mixing_tolerance");
const static bool fpt_error = runOptions->getValueOrDef<bool>(true, "family_mixing_tolerance_invalidates_point_only");
get_sigma_ee_ll(result, 188.6, 3, 1, 1, gtol, ftol, gpt_error, fpt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV, false);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP188_SLHA1_convention_xsec_stau1stau2bar(triplet<double>& result)
{
using namespace Pipes::LEP188_SLHA1_convention_xsec_stau1stau2bar;
const static double gtol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool gpt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
const static double ftol = runOptions->getValueOrDef<double>(1e-2, "family_mixing_tolerance");
const static bool fpt_error = runOptions->getValueOrDef<bool>(true, "family_mixing_tolerance_invalidates_point_only");
get_sigma_ee_ll(result, 188.6, 3, 1, 2, gtol, ftol, gpt_error, fpt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV, false);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP188_SLHA1_convention_xsec_stau2stau2bar(triplet<double>& result)
{
using namespace Pipes::LEP188_SLHA1_convention_xsec_stau2stau2bar;
const static double gtol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool gpt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
const static double ftol = runOptions->getValueOrDef<double>(1e-2, "family_mixing_tolerance");
const static bool fpt_error = runOptions->getValueOrDef<bool>(true, "family_mixing_tolerance_invalidates_point_only");
get_sigma_ee_ll(result, 188.6, 3, 2, 2, gtol, ftol, gpt_error, fpt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV, false);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP188_SLHA1_convention_xsec_stau2stau1bar(triplet<double>& result)
{
result = *Pipes::LEP188_SLHA1_convention_xsec_stau2stau1bar::Dep::LEP188_xsec_stau1stau2bar;
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
/// @}
/// ee --> neutralino pair production cross-sections at 188.6 GeV
/// @{
void LEP188_SLHA1_convention_xsec_chi00_11(triplet<double>& result)
{
using namespace Pipes::LEP188_SLHA1_convention_xsec_chi00_11;
const static double tol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool pt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
get_sigma_ee_chi00(result, 188.6, 1, 1, tol, pt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP188_SLHA1_convention_xsec_chi00_12(triplet<double>& result)
{
using namespace Pipes::LEP188_SLHA1_convention_xsec_chi00_12;
const static double tol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool pt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
get_sigma_ee_chi00(result, 188.6, 1, 2, tol, pt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP188_SLHA1_convention_xsec_chi00_13(triplet<double>& result)
{
using namespace Pipes::LEP188_SLHA1_convention_xsec_chi00_13;
const static double tol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool pt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
get_sigma_ee_chi00(result, 188.6, 1, 3, tol, pt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP188_SLHA1_convention_xsec_chi00_14(triplet<double>& result)
{
using namespace Pipes::LEP188_SLHA1_convention_xsec_chi00_14;
const static double tol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool pt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
get_sigma_ee_chi00(result, 188.6, 1, 4, tol, pt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP188_SLHA1_convention_xsec_chi00_22(triplet<double>& result)
{
using namespace Pipes::LEP188_SLHA1_convention_xsec_chi00_22;
const static double tol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool pt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
get_sigma_ee_chi00(result, 188.6, 2, 2, tol, pt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP188_SLHA1_convention_xsec_chi00_23(triplet<double>& result)
{
using namespace Pipes::LEP188_SLHA1_convention_xsec_chi00_23;
const static double tol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool pt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
get_sigma_ee_chi00(result, 188.6, 2, 3, tol, pt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP188_SLHA1_convention_xsec_chi00_24(triplet<double>& result)
{
using namespace Pipes::LEP188_SLHA1_convention_xsec_chi00_24;
const static double tol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool pt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
get_sigma_ee_chi00(result, 188.6, 2, 4, tol, pt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP188_SLHA1_convention_xsec_chi00_33(triplet<double>& result)
{
using namespace Pipes::LEP188_SLHA1_convention_xsec_chi00_33;
const static double tol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool pt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
get_sigma_ee_chi00(result, 188.6, 3, 3, tol, pt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP188_SLHA1_convention_xsec_chi00_34(triplet<double>& result)
{
using namespace Pipes::LEP188_SLHA1_convention_xsec_chi00_34;
const static double tol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool pt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
get_sigma_ee_chi00(result, 188.6, 3, 4, tol, pt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP188_SLHA1_convention_xsec_chi00_44(triplet<double>& result)
{
using namespace Pipes::LEP188_SLHA1_convention_xsec_chi00_44;
const static double tol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool pt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
get_sigma_ee_chi00(result, 188.6, 4, 4, tol, pt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
/// @}
/// ee --> chargino pair production cross-sections at 188.6 GeV
/// @{
void LEP188_SLHA1_convention_xsec_chipm_11(triplet<double>& result)
{
using namespace Pipes::LEP188_SLHA1_convention_xsec_chipm_11;
const static double tol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool pt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
get_sigma_ee_chipm(result, 188.6, 1, 1, tol, pt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP188_SLHA1_convention_xsec_chipm_12(triplet<double>& result)
{
using namespace Pipes::LEP188_SLHA1_convention_xsec_chipm_12;
const static double tol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool pt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
get_sigma_ee_chipm(result, 188.6, 1, 2, tol, pt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP188_SLHA1_convention_xsec_chipm_22(triplet<double>& result)
{
using namespace Pipes::LEP188_SLHA1_convention_xsec_chipm_22;
const static double tol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
const static bool pt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
get_sigma_ee_chipm(result, 188.6, 2, 2, tol, pt_error, *Dep::MSSM_spectrum, Dep::Z_decay_rates->width_in_GeV);
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
void LEP188_SLHA1_convention_xsec_chipm_21(triplet<double>& result)
{
result = *Pipes::LEP188_SLHA1_convention_xsec_chipm_21::Dep::LEP188_xsec_chipm_12;
if (!is_xsec_sane(result))
ColliderBit_error().raise(LOCAL_INFO, "Non-physical LEP cross section!");
}
/// @}
/// LEP Slepton Log-Likelihoods
/// @{
void ALEPH_Selectron_Conservative_LLike(double& result)
{
using namespace Pipes::ALEPH_Selectron_Conservative_LLike;
using std::pow;
using std::log;
const Spectrum& spec = *Dep::MSSM_spectrum;
double max_mixing;
const SubSpectrum& mssm = spec.get_HE();
str sel_string = slhahelp::mass_es_from_gauge_es("~e_L", max_mixing, mssm);
str ser_string = slhahelp::mass_es_from_gauge_es("~e_R", max_mixing, mssm);
const double mass_seL=spec.get(Par::Pole_Mass,sel_string);
const double mass_neut1 = spec.get(Par::Pole_Mass,1000022, 0);
const double mass_seR = spec.get(Par::Pole_Mass,ser_string);
const double mZ = spec.get(Par::Pole_Mass,23, 0);
triplet<double> xsecWithError;
double xsecLimit;
static const ALEPHSelectronLimitAt208GeV limitContainer;
// #ifdef COLLIDERBIT_DEBUG
//static bool dumped=false;
//if(!dumped)
//{
// limitContainer.dumpPlotData(45., 115., 0., 100., mZ, "lepLimitPlanev2/ALEPHSelectronLimitAt208GeV.dump");
// dumped=true;
//}
// #endif
result = 0;
// Due to the nature of the analysis details of the model independent limit in
// the paper, the best we can do is to try these two processes individually:
// se_L, se_L
xsecLimit = limitContainer.limitAverage(mass_seL, mass_neut1, mZ);
xsecWithError = *Dep::LEP208_xsec_selselbar;
xsecWithError.upper *= pow(Dep::selectron_l_decay_rates->BF("~chi0_1", "e-"), 2);
xsecWithError.central *= pow(Dep::selectron_l_decay_rates->BF("~chi0_1", "e-"), 2);
xsecWithError.lower *= pow(Dep::selectron_l_decay_rates->BF("~chi0_1", "e-"), 2);
if (xsecWithError.central < xsecLimit)
{
result += limit_LLike(xsecWithError.central, xsecLimit, xsecWithError.upper - xsecWithError.central);
}
else
{
result += limit_LLike(xsecWithError.central, xsecLimit, xsecWithError.central - xsecWithError.lower);
}
// se_R, se_R
xsecLimit = limitContainer.limitAverage(mass_seR, mass_neut1, mZ);
xsecWithError = *Dep::LEP208_xsec_serserbar;
xsecWithError.upper *= pow(Dep::selectron_r_decay_rates->BF("~chi0_1", "e-"), 2);
xsecWithError.central *= pow(Dep::selectron_r_decay_rates->BF("~chi0_1", "e-"), 2);
xsecWithError.lower *= pow(Dep::selectron_r_decay_rates->BF("~chi0_1", "e-"), 2);
if (xsecWithError.central < xsecLimit)
{
result += limit_LLike(xsecWithError.central, xsecLimit, xsecWithError.upper - xsecWithError.central);
}
else
{
result += limit_LLike(xsecWithError.central, xsecLimit, xsecWithError.central - xsecWithError.lower);
}
}
void ALEPH_Smuon_Conservative_LLike(double& result)
{
using namespace Pipes::ALEPH_Smuon_Conservative_LLike;
using std::pow;
using std::log;
const Spectrum& spec = *Dep::MSSM_spectrum;
double max_mixing;
const SubSpectrum& mssm = spec.get_HE();
str smul_string = slhahelp::mass_es_from_gauge_es("~mu_L", max_mixing, mssm);
str smur_string = slhahelp::mass_es_from_gauge_es("~mu_R", max_mixing, mssm);
const double mass_smuL=spec.get(Par::Pole_Mass,smul_string);
const double mass_neut1 = spec.get(Par::Pole_Mass,1000022, 0);
const double mass_smuR = spec.get(Par::Pole_Mass,smur_string);
const double mZ = spec.get(Par::Pole_Mass,23, 0);
triplet<double> xsecWithError;
double xsecLimit;
static const ALEPHSmuonLimitAt208GeV limitContainer;
// #ifdef COLLIDERBIT_DEBUG
// static bool dumped=false;
// if(!dumped)
// {
// limitContainer.dumpPlotData(45., 115., 0., 100., mZ, "lepLimitPlanev2/ALEPHSmuonLimitAt208GeV.dump");
// dumped=true;
// }
// #endif
result = 0;
// Due to the nature of the analysis details of the model independent limit in
// the paper, the best we can do is to try these two processes individually:
// smu_L, smu_L
xsecLimit = limitContainer.limitAverage(mass_smuL, mass_neut1, mZ);
xsecWithError = *Dep::LEP208_xsec_smulsmulbar;
xsecWithError.upper *= pow(Dep::smuon_l_decay_rates->BF("~chi0_1", "mu-"), 2);
xsecWithError.central *= pow(Dep::smuon_l_decay_rates->BF("~chi0_1", "mu-"), 2);
xsecWithError.lower *= pow(Dep::smuon_l_decay_rates->BF("~chi0_1", "mu-"), 2);
if (xsecWithError.central < xsecLimit)
{
result += limit_LLike(xsecWithError.central, xsecLimit, xsecWithError.upper - xsecWithError.central);
}
else
{
result += limit_LLike(xsecWithError.central, xsecLimit, xsecWithError.central - xsecWithError.lower);
}
// smu_R, smu_R
xsecLimit = limitContainer.limitAverage(mass_smuR, mass_neut1, mZ);
xsecWithError = *Dep::LEP208_xsec_smursmurbar;
xsecWithError.upper *= pow(Dep::smuon_r_decay_rates->BF("~chi0_1", "mu-"), 2);
xsecWithError.central *= pow(Dep::smuon_r_decay_rates->BF("~chi0_1", "mu-"), 2);
xsecWithError.lower *= pow(Dep::smuon_r_decay_rates->BF("~chi0_1", "mu-"), 2);
if (xsecWithError.central < xsecLimit)
{
result += limit_LLike(xsecWithError.central, xsecLimit, xsecWithError.upper - xsecWithError.central);
}
else
{
result += limit_LLike(xsecWithError.central, xsecLimit, xsecWithError.central - xsecWithError.lower);
}
}
void ALEPH_Stau_Conservative_LLike(double& result)
{
using namespace Pipes::ALEPH_Stau_Conservative_LLike;
using std::pow;
using std::log;
const Spectrum& spec = *Dep::MSSM_spectrum;
const SubSpectrum& mssm = spec.get_HE();
static const double tol = runOptions->getValueOrDef<double>(1e-5, "family_mixing_tolerance");
static const bool pterror = runOptions->getValueOrDef<bool>(false, "family_mixing_tolerance_invalidates_point_only");
str stau1_string = slhahelp::mass_es_closest_to_family("~tau_1", mssm,tol,LOCAL_INFO,pterror);
str stau2_string = slhahelp::mass_es_closest_to_family("~tau_2", mssm,tol,LOCAL_INFO,pterror);
const double mass_stau1=spec.get(Par::Pole_Mass,stau1_string);
const double mass_neut1 = spec.get(Par::Pole_Mass,1000022, 0);
const double mass_stau2 = spec.get(Par::Pole_Mass,stau2_string);
const double mZ = spec.get(Par::Pole_Mass,23, 0);
triplet<double> xsecWithError;
double xsecLimit;
static const ALEPHStauLimitAt208GeV limitContainer;
// #ifdef COLLIDERBIT_DEBUG
// static bool dumped=false;
// if(!dumped)
// {
// limitContainer.dumpPlotData(45., 115., 0., 100., mZ, "lepLimitPlanev2/ALEPHStauLimitAt208GeV.dump");
// dumped=true;
// }
// #endif
result = 0;
// Due to the nature of the analysis details of the model independent limit in
// the paper, the best we can do is to try these two processes individually:
// stau_1, stau_1
xsecLimit = limitContainer.limitAverage(mass_stau1, mass_neut1, mZ);
xsecWithError = *Dep::LEP208_xsec_stau1stau1bar;
xsecWithError.upper *= pow(Dep::stau_1_decay_rates->BF("~chi0_1", "tau-"), 2);
xsecWithError.central *= pow(Dep::stau_1_decay_rates->BF("~chi0_1", "tau-"), 2);
xsecWithError.lower *= pow(Dep::stau_1_decay_rates->BF("~chi0_1", "tau-"), 2);
if (xsecWithError.central < xsecLimit)
{
result += limit_LLike(xsecWithError.central, xsecLimit, xsecWithError.upper - xsecWithError.central);
}
else
{
result += limit_LLike(xsecWithError.central, xsecLimit, xsecWithError.central - xsecWithError.lower);
}
// stau_2, stau_2
xsecLimit = limitContainer.limitAverage(mass_stau2, mass_neut1, mZ);
xsecWithError = *Dep::LEP208_xsec_stau2stau2bar;
xsecWithError.upper *= pow(Dep::stau_2_decay_rates->BF("~chi0_1", "tau-"), 2);
xsecWithError.central *= pow(Dep::stau_2_decay_rates->BF("~chi0_1", "tau-"), 2);
xsecWithError.lower *= pow(Dep::stau_2_decay_rates->BF("~chi0_1", "tau-"), 2);
if (xsecWithError.central < xsecLimit)
{
result += limit_LLike(xsecWithError.central, xsecLimit, xsecWithError.upper - xsecWithError.central);
}
else
{
result += limit_LLike(xsecWithError.central, xsecLimit, xsecWithError.central - xsecWithError.lower);
}
}
void L3_Selectron_Conservative_LLike(double& result)
{
using namespace Pipes::L3_Selectron_Conservative_LLike;
using std::pow;
using std::log;
const Spectrum& spec = *Dep::MSSM_spectrum;
double max_mixing;
const SubSpectrum& mssm = spec.get_HE();
str sel_string = slhahelp::mass_es_from_gauge_es("~e_L", max_mixing, mssm);
str ser_string = slhahelp::mass_es_from_gauge_es("~e_R", max_mixing, mssm);
const double mass_seL=spec.get(Par::Pole_Mass,sel_string);
const double mass_neut1 = spec.get(Par::Pole_Mass,1000022, 0);
const double mass_seR = spec.get(Par::Pole_Mass,ser_string);
const double mZ = spec.get(Par::Pole_Mass,23, 0);
triplet<double> xsecWithError;
double xsecLimit;
static const L3SelectronLimitAt205GeV limitContainer;
// #ifdef COLLIDERBIT_DEBUG
static bool dumped=false;
if(!dumped)
{
limitContainer.dumpPlotData(45., 104., 0., 100., mZ, "lepLimitPlanev2/L3SelectronLimitAt205GeV.dump",200);
dumped=true;
}
// #endif
result = 0;
// Due to the nature of the analysis details of the model independent limit in
// the paper, the best we can do is to try these two processes individually:
// se_L, se_L
xsecLimit = limitContainer.limitAverage(mass_seL, mass_neut1, mZ);
xsecWithError = *Dep::LEP205_xsec_selselbar;
xsecWithError.upper *= pow(Dep::selectron_l_decay_rates->BF("~chi0_1", "e-"), 2);
xsecWithError.central *= pow(Dep::selectron_l_decay_rates->BF("~chi0_1", "e-"), 2);
xsecWithError.lower *= pow(Dep::selectron_l_decay_rates->BF("~chi0_1", "e-"), 2);
if (xsecWithError.central < xsecLimit)
{
result += limit_LLike(xsecWithError.central, xsecLimit, xsecWithError.upper - xsecWithError.central);
}
else
{
result += limit_LLike(xsecWithError.central, xsecLimit, xsecWithError.central - xsecWithError.lower);
}
// se_R, se_R
xsecLimit = limitContainer.limitAverage(mass_seR, mass_neut1, mZ);
xsecWithError = *Dep::LEP205_xsec_serserbar;
xsecWithError.upper *= pow(Dep::selectron_r_decay_rates->BF("~chi0_1", "e-"), 2);
xsecWithError.central *= pow(Dep::selectron_r_decay_rates->BF("~chi0_1", "e-"), 2);
xsecWithError.lower *= pow(Dep::selectron_r_decay_rates->BF("~chi0_1", "e-"), 2);
if (xsecWithError.central < xsecLimit)
{
result += limit_LLike(xsecWithError.central, xsecLimit, xsecWithError.upper - xsecWithError.central);
}
else
{
result += limit_LLike(xsecWithError.central, xsecLimit, xsecWithError.central - xsecWithError.lower);
}
}
void L3_Smuon_Conservative_LLike(double& result)
{
using namespace Pipes::L3_Smuon_Conservative_LLike;
using std::pow;
using std::log;
const Spectrum& spec = *Dep::MSSM_spectrum;
double max_mixing;
const SubSpectrum& mssm = spec.get_HE();
str smul_string = slhahelp::mass_es_from_gauge_es("~mu_L", max_mixing, mssm);
str smur_string = slhahelp::mass_es_from_gauge_es("~mu_R", max_mixing, mssm);
const double mass_smuL=spec.get(Par::Pole_Mass,smul_string);
const double mass_neut1 = spec.get(Par::Pole_Mass,1000022, 0);
const double mass_smuR = spec.get(Par::Pole_Mass,smur_string);
const double mZ = spec.get(Par::Pole_Mass,23, 0);
triplet<double> xsecWithError;
double xsecLimit;
static const L3SmuonLimitAt205GeV limitContainer;
// #ifdef COLLIDERBIT_DEBUG
// static bool dumped=false;
// if(!dumped)
// {
// limitContainer.dumpPlotData(45., 115., 0., 100., mZ, "lepLimitPlanev2/L3SmuonLimitAt205GeV.dump");
// dumped=true;
// }
// #endif
result = 0;
// Due to the nature of the analysis details of the model independent limit in
// the paper, the best we can do is to try these two processes individually:
// smu_L, smu_L
xsecLimit = limitContainer.limitAverage(mass_smuL, mass_neut1, mZ);
xsecWithError = *Dep::LEP205_xsec_smulsmulbar;
xsecWithError.upper *= pow(Dep::smuon_l_decay_rates->BF("~chi0_1", "mu-"), 2);
xsecWithError.central *= pow(Dep::smuon_l_decay_rates->BF("~chi0_1", "mu-"), 2);
xsecWithError.lower *= pow(Dep::smuon_l_decay_rates->BF("~chi0_1", "mu-"), 2);
if (xsecWithError.central < xsecLimit)
{
result += limit_LLike(xsecWithError.central, xsecLimit, xsecWithError.upper - xsecWithError.central);
}
else
{
result += limit_LLike(xsecWithError.central, xsecLimit, xsecWithError.central - xsecWithError.lower);
}
// smu_R, smu_R
xsecLimit = limitContainer.limitAverage(mass_smuR, mass_neut1, mZ);
xsecWithError = *Dep::LEP205_xsec_smursmurbar;
xsecWithError.upper *= pow(Dep::smuon_r_decay_rates->BF("~chi0_1", "mu-"), 2);
xsecWithError.central *= pow(Dep::smuon_r_decay_rates->BF("~chi0_1", "mu-"), 2);
xsecWithError.lower *= pow(Dep::smuon_r_decay_rates->BF("~chi0_1", "mu-"), 2);
if (xsecWithError.central < xsecLimit)
{
result += limit_LLike(xsecWithError.central, xsecLimit, xsecWithError.upper - xsecWithError.central);
}
else
{
result += limit_LLike(xsecWithError.central, xsecLimit, xsecWithError.central - xsecWithError.lower);
}
}
void L3_Stau_Conservative_LLike(double& result)
{
using namespace Pipes::L3_Stau_Conservative_LLike;
using std::pow;
using std::log;
const Spectrum& spec = *Dep::MSSM_spectrum;
const SubSpectrum& mssm = spec.get_HE();
static const double tol = runOptions->getValueOrDef<double>(1e-5, "family_mixing_tolerance");
static const bool pterror = runOptions->getValueOrDef<bool>(false, "family_mixing_tolerance_invalidates_point_only");
str stau1_string = slhahelp::mass_es_closest_to_family("~tau_1", mssm,tol,LOCAL_INFO,pterror);
str stau2_string = slhahelp::mass_es_closest_to_family("~tau_2", mssm,tol,LOCAL_INFO,pterror);
const double mass_stau1=spec.get(Par::Pole_Mass,stau1_string);
const double mass_neut1 = spec.get(Par::Pole_Mass,1000022, 0);
const double mass_stau2 = spec.get(Par::Pole_Mass,stau2_string);
const double mZ = spec.get(Par::Pole_Mass,23, 0);
triplet<double> xsecWithError;
double xsecLimit;
static const L3StauLimitAt205GeV limitContainer;
// #ifdef COLLIDERBIT_DEBUG
// static bool dumped=false;
// if(!dumped)
// {
// limitContainer.dumpPlotData(45., 115., 0., 100., mZ, "lepLimitPlanev2/L3StauLimitAt205GeV.dump");
// dumped=true;
// }
// #endif
result = 0;
// Due to the nature of the analysis details of the model independent limit in
// the paper, the best we can do is to try these two processes individually:
// stau_1, stau_1
xsecLimit = limitContainer.limitAverage(mass_stau1, mass_neut1, mZ);
xsecWithError = *Dep::LEP205_xsec_stau1stau1bar;
xsecWithError.upper *= pow(Dep::stau_1_decay_rates->BF("~chi0_1", "tau-"), 2);
xsecWithError.central *= pow(Dep::stau_1_decay_rates->BF("~chi0_1", "tau-"), 2);
xsecWithError.lower *= pow(Dep::stau_1_decay_rates->BF("~chi0_1", "tau-"), 2);
if (xsecWithError.central < xsecLimit)
{
result += limit_LLike(xsecWithError.central, xsecLimit, xsecWithError.upper - xsecWithError.central);
}
else
{
result += limit_LLike(xsecWithError.central, xsecLimit, xsecWithError.central - xsecWithError.lower);
}
// stau_2, stau_2
xsecLimit = limitContainer.limitAverage(mass_stau2, mass_neut1, mZ);
xsecWithError = *Dep::LEP205_xsec_stau2stau2bar;
xsecWithError.upper *= pow(Dep::stau_2_decay_rates->BF("~chi0_1", "tau-"), 2);
xsecWithError.central *= pow(Dep::stau_2_decay_rates->BF("~chi0_1", "tau-"), 2);
xsecWithError.lower *= pow(Dep::stau_2_decay_rates->BF("~chi0_1", "tau-"), 2);
if (xsecWithError.central < xsecLimit)
{
result += limit_LLike(xsecWithError.central, xsecLimit, xsecWithError.upper - xsecWithError.central);
}
else
{
result += limit_LLike(xsecWithError.central, xsecLimit, xsecWithError.central - xsecWithError.lower);
}
}
/// @}
/// LEP Gaugino Log-Likelihoods
/// @{
void L3_Neutralino_All_Channels_Conservative_LLike(double& result)
{
using namespace Pipes::L3_Neutralino_All_Channels_Conservative_LLike;
using std::pow;
using std::log;
const Spectrum& spec = *Dep::MSSM_spectrum;
const DecayTable& decays = *Dep::decay_rates;
const double mass_neut1 = spec.get(Par::Pole_Mass,1000022, 0);
const double mass_neut2 = spec.get(Par::Pole_Mass,1000023, 0);
const double mass_neut3 = spec.get(Par::Pole_Mass,1000025, 0);
const double mass_neut4 = spec.get(Par::Pole_Mass,1000035, 0);
const double mZ = spec.get(Par::Pole_Mass,23, 0);
triplet<double> xsecWithError;
double xsecLimit, totalBR;
static const L3NeutralinoAllChannelsLimitAt188pt6GeV limitContainer;
// #ifdef COLLIDERBIT_DEBUG
// static bool dumped=false;
// if(!dumped)
// {
// limitContainer.dumpPlotData(0., 200., 0., 100., mZ, "lepLimitPlanev2/L3NeutralinoAllChannelsLimitAt188pt6GeV.dump");
// dumped=true;
// }
// #endif
result = 0;
// Due to the nature of the analysis details of the model independent limit in
// the paper, the best we can do is to try these processes individually:
// neut2, neut1
xsecLimit = limitContainer.limitAverage(mass_neut2, mass_neut1, mZ);
xsecWithError = *Dep::LEP188_xsec_chi00_12;
// Total up all channels which look like Z* decays
totalBR = 0;
totalBR += decays.at("~chi0_2").BF("~chi0_1", "Z0");
totalBR += decays.at("~chi0_2").BF("~chi0_1", "ubar", "u");
totalBR += decays.at("~chi0_2").BF("~chi0_1", "dbar", "d");
totalBR += decays.at("~chi0_2").BF("~chi0_1", "cbar", "c");
totalBR += decays.at("~chi0_2").BF("~chi0_1", "sbar", "s");
totalBR += decays.at("~chi0_2").BF("~chi0_1", "bbar", "b");
totalBR += decays.at("~chi0_2").BF("~chi0_1", "e+", "e-");
totalBR += decays.at("~chi0_2").BF("~chi0_1", "mu+", "mu-");
totalBR += decays.at("~chi0_2").BF("~chi0_1", "tau+", "tau-");
totalBR += decays.at("~chi0_2").BF("~chi0_1", "nubar_e", "nu_e");
totalBR += decays.at("~chi0_2").BF("~chi0_1", "nubar_mu", "nu_mu");
totalBR += decays.at("~chi0_2").BF("~chi0_1", "nubar_tau", "nu_tau");
xsecWithError.upper *= totalBR;
xsecWithError.central *= totalBR;
xsecWithError.lower *= totalBR;
if (xsecWithError.central < xsecLimit)
{
result += limit_LLike(xsecWithError.central, xsecLimit, xsecWithError.upper - xsecWithError.central);
}
else
{
result += limit_LLike(xsecWithError.central, xsecLimit, xsecWithError.central - xsecWithError.lower);
}
// neut3, neut1
xsecLimit = limitContainer.limitAverage(mass_neut3, mass_neut1, mZ);
xsecWithError = *Dep::LEP188_xsec_chi00_13;
// Total up all channels which look like Z* decays
totalBR = 0;
totalBR += decays.at("~chi0_3").BF("~chi0_1", "Z0");
totalBR += decays.at("~chi0_3").BF("~chi0_1", "ubar", "u");
totalBR += decays.at("~chi0_3").BF("~chi0_1", "dbar", "d");
totalBR += decays.at("~chi0_3").BF("~chi0_1", "cbar", "c");
totalBR += decays.at("~chi0_3").BF("~chi0_1", "sbar", "s");
totalBR += decays.at("~chi0_3").BF("~chi0_1", "bbar", "b");
totalBR += decays.at("~chi0_3").BF("~chi0_1", "e+", "e-");
totalBR += decays.at("~chi0_3").BF("~chi0_1", "mu+", "mu-");
totalBR += decays.at("~chi0_3").BF("~chi0_1", "tau+", "tau-");
totalBR += decays.at("~chi0_3").BF("~chi0_1", "nubar_e", "nu_e");
totalBR += decays.at("~chi0_3").BF("~chi0_1", "nubar_mu", "nu_mu");
totalBR += decays.at("~chi0_3").BF("~chi0_1", "nubar_tau", "nu_tau");
xsecWithError.upper *= totalBR;
xsecWithError.central *= totalBR;
xsecWithError.lower *= totalBR;
if (xsecWithError.central < xsecLimit)
{
result += limit_LLike(xsecWithError.central, xsecLimit, xsecWithError.upper - xsecWithError.central);
}
else
{
result += limit_LLike(xsecWithError.central, xsecLimit, xsecWithError.central - xsecWithError.lower);
}
// neut4, neut1
xsecLimit = limitContainer.limitAverage(mass_neut4, mass_neut1, mZ);
xsecWithError = *Dep::LEP188_xsec_chi00_14;
// Total up all channels which look like Z* decays
totalBR = 0;
totalBR += decays.at("~chi0_4").BF("~chi0_1", "Z0");
totalBR += decays.at("~chi0_4").BF("~chi0_1", "ubar", "u");
totalBR += decays.at("~chi0_4").BF("~chi0_1", "dbar", "d");
totalBR += decays.at("~chi0_4").BF("~chi0_1", "cbar", "c");
totalBR += decays.at("~chi0_4").BF("~chi0_1", "sbar", "s");
totalBR += decays.at("~chi0_4").BF("~chi0_1", "bbar", "b");
totalBR += decays.at("~chi0_4").BF("~chi0_1", "e+", "e-");
totalBR += decays.at("~chi0_4").BF("~chi0_1", "mu+", "mu-");
totalBR += decays.at("~chi0_4").BF("~chi0_1", "tau+", "tau-");
totalBR += decays.at("~chi0_4").BF("~chi0_1", "nubar_e", "nu_e");
totalBR += decays.at("~chi0_4").BF("~chi0_1", "nubar_mu", "nu_mu");
totalBR += decays.at("~chi0_4").BF("~chi0_1", "nubar_tau", "nu_tau");
xsecWithError.upper *= totalBR;
xsecWithError.central *= totalBR;
xsecWithError.lower *= totalBR;
if (xsecWithError.central < xsecLimit)
{
result += limit_LLike(xsecWithError.central, xsecLimit, xsecWithError.upper - xsecWithError.central);
}
else
{
result += limit_LLike(xsecWithError.central, xsecLimit, xsecWithError.central - xsecWithError.lower);
}
}
void L3_Neutralino_Leptonic_Conservative_LLike(double& result)
{
using namespace Pipes::L3_Neutralino_Leptonic_Conservative_LLike;
using std::pow;
using std::log;
const Spectrum& spec = *Dep::MSSM_spectrum;
const DecayTable& decays = *Dep::decay_rates;
const double mass_neut1 = spec.get(Par::Pole_Mass,1000022, 0);
const double mass_neut2 = spec.get(Par::Pole_Mass,1000023, 0);
const double mass_neut3 = spec.get(Par::Pole_Mass,1000025, 0);
const double mass_neut4 = spec.get(Par::Pole_Mass,1000035, 0);
const double mZ = spec.get(Par::Pole_Mass,23, 0);
triplet<double> xsecWithError;
double xsecLimit, totalBR;
static const L3NeutralinoLeptonicLimitAt188pt6GeV limitContainer;
// #ifdef COLLIDERBIT_DEBUG
// static bool dumped=false;
// if(!dumped)
// {
// limitContainer.dumpPlotData(0., 200., 0., 100., mZ, "lepLimitPlanev2/L3NeutralinoLeptonicLimitAt188pt6GeV.dump");
// dumped=true;
// }
// #endif
result = 0;
// Due to the nature of the analysis details of the model independent limit in
// the paper, the best we can do is to try these processes individually:
// neut2, neut1
xsecLimit = limitContainer.limitAverage(mass_neut2, mass_neut1, mZ);
xsecWithError = *Dep::LEP188_xsec_chi00_12;
// Total up all channels which look like leptonic Z* decays
// Total up the leptonic Z decays first...
totalBR = 0;
totalBR += decays.at("Z0").BF("e+", "e-");
totalBR += decays.at("Z0").BF("mu+", "mu-");
totalBR += decays.at("Z0").BF("tau+", "tau-");
totalBR = decays.at("~chi0_2").BF("~chi0_1", "Z0") * totalBR;
totalBR += decays.at("~chi0_2").BF("~chi0_1", "e+", "e-");
totalBR += decays.at("~chi0_2").BF("~chi0_1", "mu+", "mu-");
totalBR += decays.at("~chi0_2").BF("~chi0_1", "tau+", "tau-");
xsecWithError.upper *= totalBR;
xsecWithError.central *= totalBR;
xsecWithError.lower *= totalBR;
if (xsecWithError.central < xsecLimit)
{
result += limit_LLike(xsecWithError.central, xsecLimit, xsecWithError.upper - xsecWithError.central);
}
else
{
result += limit_LLike(xsecWithError.central, xsecLimit, xsecWithError.central - xsecWithError.lower);
}
// neut3, neut1
xsecLimit = limitContainer.limitAverage(mass_neut3, mass_neut1, mZ);
xsecWithError = *Dep::LEP188_xsec_chi00_13;
// Total up all channels which look like leptonic Z* decays
// Total up the leptonic Z decays first...
totalBR = 0;
totalBR += decays.at("Z0").BF("e+", "e-");
totalBR += decays.at("Z0").BF("mu+", "mu-");
totalBR += decays.at("Z0").BF("tau+", "tau-");
totalBR = decays.at("~chi0_3").BF("~chi0_1", "Z0") * totalBR;
totalBR += decays.at("~chi0_3").BF("~chi0_1", "e+", "e-");
totalBR += decays.at("~chi0_3").BF("~chi0_1", "mu+", "mu-");
totalBR += decays.at("~chi0_3").BF("~chi0_1", "tau+", "tau-");
xsecWithError.upper *= totalBR;
xsecWithError.central *= totalBR;
xsecWithError.lower *= totalBR;
if (xsecWithError.central < xsecLimit)
{
result += limit_LLike(xsecWithError.central, xsecLimit, xsecWithError.upper - xsecWithError.central);
}
else
{
result += limit_LLike(xsecWithError.central, xsecLimit, xsecWithError.central - xsecWithError.lower);
}
// neut4, neut1
xsecLimit = limitContainer.limitAverage(mass_neut4, mass_neut1, mZ);
xsecWithError = *Dep::LEP188_xsec_chi00_14;
// Total up all channels which look like leptonic Z* decays
// Total up the leptonic Z decays first...
totalBR = 0;
totalBR += decays.at("Z0").BF("e+", "e-");
totalBR += decays.at("Z0").BF("mu+", "mu-");
totalBR += decays.at("Z0").BF("tau+", "tau-");
totalBR = decays.at("~chi0_4").BF("~chi0_1", "Z0") * totalBR;
totalBR += decays.at("~chi0_4").BF("~chi0_1", "e+", "e-");
totalBR += decays.at("~chi0_4").BF("~chi0_1", "mu+", "mu-");
totalBR += decays.at("~chi0_4").BF("~chi0_1", "tau+", "tau-");
xsecWithError.upper *= totalBR;
xsecWithError.central *= totalBR;
xsecWithError.lower *= totalBR;
if (xsecWithError.central < xsecLimit)
{
result += limit_LLike(xsecWithError.central, xsecLimit, xsecWithError.upper - xsecWithError.central);
}
else
{
result += limit_LLike(xsecWithError.central, xsecLimit, xsecWithError.central - xsecWithError.lower);
}
}
void L3_Chargino_All_Channels_Conservative_LLike(double& result)
{
using namespace Pipes::L3_Chargino_All_Channels_Conservative_LLike;
using std::pow;
using std::log;
static const double tol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
static const bool pt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
const Spectrum& spec = *Dep::MSSM_spectrum;
const LSP lsp = get_LSP_for_LEP_limits(spec);
const SubSpectrum& mssm = spec.get_HE();
const DecayTable& decays = *Dep::decay_rates;
const double mass_neut1 = lsp.mass;
const str snue = slhahelp::mass_es_from_gauge_es("~nu_e_L", mssm, tol, LOCAL_INFO, pt_error);
const str snumu = slhahelp::mass_es_from_gauge_es("~nu_mu_L", mssm, tol, LOCAL_INFO, pt_error);
const str snutau = slhahelp::mass_es_from_gauge_es("~nu_tau_L", mssm, tol, LOCAL_INFO, pt_error);
const double mass_char1 = spec.get(Par::Pole_Mass,1000024, 0);
const double mass_char2 = spec.get(Par::Pole_Mass,1000037, 0);
const double mZ = spec.get(Par::Pole_Mass,23, 0);
triplet<double> xsecWithError;
double xsecLimit, totalBR;
static const L3CharginoAllChannelsLimitAt188pt6GeV limitContainer;
// #ifdef COLLIDERBIT_DEBUG
// static bool dumped=false;
// if(!dumped)
// {
// limitContainer.dumpPlotData(45., 100., 0., 100., mZ, "lepLimitPlanev2/L3CharginoAllChannelsLimitAt188pt6GeV.dump");
// dumped=true;
// }
// #endif
result = 0;
// Due to the nature of the analysis details of the model independent limit in
// the paper, the best we can do is to try these processes individually:
// char1, neut1
xsecLimit = limitContainer.limitAverage(mass_char1, mass_neut1, mZ);
xsecWithError = *Dep::LEP188_xsec_chipm_11;
// Total up all channels which look like W* decays
totalBR = 0;
totalBR += decays.at("~chi+_1").BF("~chi0_1", "W+");
totalBR += decays.at("~chi+_1").BF("~chi0_1", "u", "dbar");
totalBR += decays.at("~chi+_1").BF("~chi0_1", "c", "sbar");
totalBR += decays.at("~chi+_1").BF("~chi0_1", "e+", "nu_e");
totalBR += decays.at("~chi+_1").BF("~chi0_1", "mu+", "nu_mu");
totalBR += decays.at("~chi+_1").BF("~chi0_1", "tau+", "nu_tau");
totalBR += decays.at("~chi+_1").BF(snue, "e+")
* decays.at(snue).BF("~chi0_1", "nu_e");
totalBR += decays.at("~chi+_1").BF(snumu, "mu+")
* decays.at(snumu).BF("~chi0_1", "nu_mu");
totalBR += decays.at("~chi+_1").BF(snutau, "tau+")
* decays.at(snutau).BF("~chi0_1", "nu_tau");
xsecWithError.upper *= pow(totalBR, 2);
xsecWithError.central *= pow(totalBR, 2);
xsecWithError.lower *= pow(totalBR, 2);
if (xsecWithError.central < xsecLimit)
{
result += limit_LLike(xsecWithError.central, xsecLimit, xsecWithError.upper - xsecWithError.central);
}
else
{
result += limit_LLike(xsecWithError.central, xsecLimit, xsecWithError.central - xsecWithError.lower);
}
// char2, neut1
xsecLimit = limitContainer.limitAverage(mass_char2, mass_neut1, mZ);
xsecWithError = *Dep::LEP188_xsec_chipm_22;
// Total up all channels which look like W* decays
totalBR = 0;
totalBR += decays.at("~chi+_2").BF("~chi0_1", "W+");
totalBR += decays.at("~chi+_2").BF("~chi0_1", "u", "dbar");
totalBR += decays.at("~chi+_2").BF("~chi0_1", "c", "sbar");
totalBR += decays.at("~chi+_2").BF("~chi0_1", "e+", "nu_e");
totalBR += decays.at("~chi+_2").BF("~chi0_1", "mu+", "nu_mu");
totalBR += decays.at("~chi+_2").BF("~chi0_1", "tau+", "nu_tau");
totalBR += decays.at("~chi+_2").BF(snue, "e+")
* decays.at(snue).BF("~chi0_1", "nu_e");
totalBR += decays.at("~chi+_2").BF(snumu, "mu+")
* decays.at(snumu).BF("~chi0_1", "nu_mu");
totalBR += decays.at("~chi+_2").BF(snutau, "tau+")
* decays.at(snutau).BF("~chi0_1", "nu_tau");
xsecWithError.upper *= pow(totalBR, 2);
xsecWithError.central *= pow(totalBR, 2);
xsecWithError.lower *= pow(totalBR, 2);
if (xsecWithError.central < xsecLimit)
{
result += limit_LLike(xsecWithError.central, xsecLimit, xsecWithError.upper - xsecWithError.central);
}
else
{
result += limit_LLike(xsecWithError.central, xsecLimit, xsecWithError.central - xsecWithError.lower);
}
}
void L3_Chargino_Leptonic_Conservative_LLike(double& result)
{
using namespace Pipes::L3_Chargino_Leptonic_Conservative_LLike;
using std::pow;
using std::log;
static const double tol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
static const bool pt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
const Spectrum& spec = *Dep::MSSM_spectrum;
const LSP lsp = get_LSP_for_LEP_limits(spec);
const SubSpectrum& mssm = spec.get_HE();
const DecayTable& decays = *Dep::decay_rates;
const double mass_neut1 = lsp.mass;
const str snue = slhahelp::mass_es_from_gauge_es("~nu_e_L", mssm, tol, LOCAL_INFO, pt_error);
const str snumu = slhahelp::mass_es_from_gauge_es("~nu_mu_L", mssm, tol, LOCAL_INFO, pt_error);
const str snutau = slhahelp::mass_es_from_gauge_es("~nu_tau_L", mssm, tol, LOCAL_INFO, pt_error);
const double mass_char1 = spec.get(Par::Pole_Mass,1000024, 0);
const double mass_char2 = spec.get(Par::Pole_Mass,1000037, 0);
const double mZ = spec.get(Par::Pole_Mass,23, 0);
triplet<double> xsecWithError;
double xsecLimit, totalBR;
static const L3CharginoLeptonicLimitAt188pt6GeV limitContainer;
// #ifdef COLLIDERBIT_DEBUG
// static bool dumped=false;
// if(!dumped)
// {
// limitContainer.dumpPlotData(45., 100., 0., 100., mZ, "lepLimitPlanev2/L3CharginoLeptonicLimitAt188pt6GeV.dump");
// dumped=true;
// }
// #endif
result = 0;
// Due to the nature of the analysis details of the model independent limit in
// the paper, the best we can do is to try these processes individually:
// char1, neut1
xsecLimit = limitContainer.limitAverage(mass_char1, mass_neut1, mZ);
xsecWithError = *Dep::LEP188_xsec_chipm_11;
// Total up all channels which look like leptonic W* decays
// Total up the leptonic W decays first...
totalBR = 0;
totalBR += decays.at("W+").BF("e+", "nu_e");
totalBR += decays.at("W+").BF("mu+", "nu_mu");
totalBR += decays.at("W+").BF("tau+", "nu_tau");
totalBR = decays.at("~chi+_1").BF(lsp.name, "W+") * totalBR;
totalBR += decays.at("~chi+_1").BF("~chi0_1", "e+", "nu_e");
totalBR += decays.at("~chi+_1").BF("~chi0_1", "mu+", "nu_mu");
totalBR += decays.at("~chi+_1").BF("~chi0_1", "tau+", "nu_tau");
totalBR += decays.at("~chi+_1").BF(snue, "e+")
* decays.at(snue).BF("~chi0_1", "nu_e");
totalBR += decays.at("~chi+_1").BF(snumu, "mu+")
* decays.at(snumu).BF("~chi0_1", "nu_mu");
totalBR += decays.at("~chi+_1").BF(snutau, "tau+")
* decays.at(snutau).BF("~chi0_1", "nu_tau");
xsecWithError.upper *= pow(totalBR, 2);
xsecWithError.central *= pow(totalBR, 2);
xsecWithError.lower *= pow(totalBR, 2);
if (xsecWithError.central < xsecLimit)
{
result += limit_LLike(xsecWithError.central, xsecLimit, xsecWithError.upper - xsecWithError.central);
}
else
{
result += limit_LLike(xsecWithError.central, xsecLimit, xsecWithError.central - xsecWithError.lower);
}
// char2, neut1
xsecLimit = limitContainer.limitAverage(mass_char2, mass_neut1, mZ);
xsecWithError = *Dep::LEP188_xsec_chipm_22;
// Total up all channels which look like leptonic W* decays
// Total up the leptonic W decays first...
totalBR = 0;
totalBR += decays.at("W+").BF("e+", "nu_e");
totalBR += decays.at("W+").BF("mu+", "nu_mu");
totalBR += decays.at("W+").BF("tau+", "nu_tau");
totalBR = decays.at("~chi+_2").BF(lsp.name, "W+") * totalBR;
totalBR += decays.at("~chi+_2").BF("~chi0_1", "e+", "nu_e");
totalBR += decays.at("~chi+_2").BF("~chi0_1", "mu+", "nu_mu");
totalBR += decays.at("~chi+_2").BF("~chi0_1", "tau+", "nu_tau");
totalBR += decays.at("~chi+_2").BF(snue, "e+")
* decays.at(snue).BF("~chi0_1", "nu_e");
totalBR += decays.at("~chi+_2").BF(snumu, "mu+")
* decays.at(snumu).BF("~chi0_1", "nu_mu");
totalBR += decays.at("~chi+_2").BF(snutau, "tau+")
* decays.at(snutau).BF("~chi0_1", "nu_tau");
xsecWithError.upper *= pow(totalBR, 2);
xsecWithError.central *= pow(totalBR, 2);
xsecWithError.lower *= pow(totalBR, 2);
if (xsecWithError.central < xsecLimit)
{
result += limit_LLike(xsecWithError.central, xsecLimit, xsecWithError.upper - xsecWithError.central);
}
else
{
result += limit_LLike(xsecWithError.central, xsecLimit, xsecWithError.central - xsecWithError.lower);
}
}
void OPAL_Chargino_Hadronic_Conservative_LLike(double& result)
{
using namespace Pipes::OPAL_Chargino_Hadronic_Conservative_LLike;
using std::pow;
using std::log;
const Spectrum& spec = *Dep::MSSM_spectrum;
const LSP lsp = get_LSP_for_LEP_limits(spec);
const DecayTable& decays = *Dep::decay_rates;
const double mass_neut1 = lsp.mass;
const double mass_char1 = spec.get(Par::Pole_Mass,1000024, 0);
const double mass_char2 = spec.get(Par::Pole_Mass,1000037, 0);
const double mZ = spec.get(Par::Pole_Mass,23, 0);
triplet<double> xsecWithError;
double xsecLimit, totalBR;
static const OPALCharginoHadronicLimitAt208GeV limitContainer;
// #ifdef COLLIDERBIT_DEBUG
// static bool dumped=false;
// if(!dumped)
// {
// limitContainer.dumpPlotData(75., 105., 0., 105., mZ, "lepLimitPlanev2/OPALCharginoHadronicLimitAt208GeV.dump");
// dumped=true;
// }
// #endif
result = 0;
// Due to the nature of the analysis details of the model independent limit in
// the paper, the best we can do is to try these processes individually:
// char1, neut1
xsecLimit = limitContainer.limitAverage(mass_char1, mass_neut1, mZ);
xsecWithError = *Dep::LEP208_xsec_chipm_11;
// Total up all channels which look like hadronic W* decays
// Total up the hadronic W decays first...
totalBR = decays.at("W+").BF("hadron", "hadron");
totalBR = decays.at("~chi+_1").BF(lsp.name, "W+") * totalBR;
totalBR += decays.at("~chi+_1").BF(lsp.name, "u", "dbar");
totalBR += decays.at("~chi+_1").BF(lsp.name, "c", "sbar");
xsecWithError.upper *= pow(totalBR, 2);
xsecWithError.central *= pow(totalBR, 2);
xsecWithError.lower *= pow(totalBR, 2);
if (xsecWithError.central < xsecLimit)
{
result += limit_LLike(xsecWithError.central, xsecLimit, xsecWithError.upper - xsecWithError.central);
}
else
{
result += limit_LLike(xsecWithError.central, xsecLimit, xsecWithError.central - xsecWithError.lower);
}
// char2, neut1
xsecLimit = limitContainer.limitAverage(mass_char2, mass_neut1, mZ);
xsecWithError = *Dep::LEP208_xsec_chipm_22;
// Total up all channels which look like hadronic W* decays
// Total up the hadronic W decays first...
totalBR = decays.at("W+").BF("hadron", "hadron");
totalBR = decays.at("~chi+_2").BF(lsp.name, "W+") * totalBR;
totalBR += decays.at("~chi+_2").BF(lsp.name, "u", "dbar");
totalBR += decays.at("~chi+_2").BF(lsp.name, "c", "sbar");
xsecWithError.upper *= pow(totalBR, 2);
xsecWithError.central *= pow(totalBR, 2);
xsecWithError.lower *= pow(totalBR, 2);
if (xsecWithError.central < xsecLimit)
{
result += limit_LLike(xsecWithError.central, xsecLimit, xsecWithError.upper - xsecWithError.central);
}
else
{
result += limit_LLike(xsecWithError.central, xsecLimit, xsecWithError.central - xsecWithError.lower);
}
}
void OPAL_Chargino_SemiLeptonic_Conservative_LLike(double& result)
{
using namespace Pipes::OPAL_Chargino_SemiLeptonic_Conservative_LLike;
using std::pow;
using std::log;
static const double tol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
static const bool pt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
const Spectrum& spec = *Dep::MSSM_spectrum;
const LSP lsp = get_LSP_for_LEP_limits(spec);
const SubSpectrum& mssm = spec.get_HE();
const DecayTable& decays = *Dep::decay_rates;
const str snue = slhahelp::mass_es_from_gauge_es("~nu_e_L", mssm, tol, LOCAL_INFO, pt_error);
const str snumu = slhahelp::mass_es_from_gauge_es("~nu_mu_L", mssm, tol, LOCAL_INFO, pt_error);
const str snutau = slhahelp::mass_es_from_gauge_es("~nu_tau_L", mssm, tol, LOCAL_INFO, pt_error);
const double mass_neut1 = lsp.mass;
const double mass_char1 = spec.get(Par::Pole_Mass,1000024, 0);
const double mass_char2 = spec.get(Par::Pole_Mass,1000037, 0);
const double mZ = spec.get(Par::Pole_Mass,23, 0);
triplet<double> xsecWithError;
double xsecLimit, totalBR;
static const OPALCharginoSemiLeptonicLimitAt208GeV limitContainer;
// #ifdef COLLIDERBIT_DEBUG
// static bool dumped=false;
// if(!dumped)
// {
// limitContainer.dumpPlotData(75., 105., 0., 105., mZ, "lepLimitPlanev2/OPALCharginoSemiLeptonicLimitAt208GeV.dump");
// dumped=true;
// }
// #endif
result = 0;
// Due to the nature of the analysis details of the model independent limit in
// the paper, the best we can do is to try these processes individually:
// char1, neut1
xsecLimit = limitContainer.limitAverage(mass_char1, mass_neut1, mZ);
xsecWithError = *Dep::LEP208_xsec_chipm_11;
// Total up all channels which look like leptonic W* decays
// Total up the leptonic W decays first...
totalBR = 0;
totalBR += decays.at("W+").BF("e+", "nu_e");
totalBR += decays.at("W+").BF("mu+", "nu_mu");
totalBR += decays.at("W+").BF("tau+", "nu_tau");
totalBR = decays.at("~chi+_1").BF(lsp.name, "W+") * totalBR;
totalBR += decays.at("~chi+_1").BF(lsp.name, "e+", "nu_e");
totalBR += decays.at("~chi+_1").BF(lsp.name, "mu+", "nu_mu");
totalBR += decays.at("~chi+_1").BF(lsp.name, "tau+", "nu_tau");
// We don't have sneutrino --> gravitino + neutrino decays
if (lsp.pdg != 1000039)
{
totalBR += decays.at("~chi+_1").BF(snue, "e+")
* decays.at(snue).BF(lsp.name, "nu_e");
totalBR += decays.at("~chi+_1").BF(snumu, "mu+")
* decays.at(snumu).BF(lsp.name, "nu_mu");
totalBR += decays.at("~chi+_1").BF(snutau, "tau+")
* decays.at(snutau).BF(lsp.name, "nu_tau");
}
xsecWithError.upper *= totalBR;
xsecWithError.central *= totalBR;
xsecWithError.lower *= totalBR;
// ALSO, total up all channels which look like hadronic W* decays
// Total up the hadronic W decays first...
totalBR = decays.at("W+").BF("hadron", "hadron");
totalBR = decays.at("~chi+_1").BF(lsp.name, "W+") * totalBR;
totalBR += decays.at("~chi+_1").BF(lsp.name, "u", "dbar");
totalBR += decays.at("~chi+_1").BF(lsp.name, "c", "sbar");
xsecWithError.upper *= totalBR;
xsecWithError.central *= totalBR;
xsecWithError.lower *= totalBR;
if (xsecWithError.central < xsecLimit)
{
result += limit_LLike(xsecWithError.central, xsecLimit, xsecWithError.upper - xsecWithError.central);
}
else
{
result += limit_LLike(xsecWithError.central, xsecLimit, xsecWithError.central - xsecWithError.lower);
}
// char2, neut1
xsecLimit = limitContainer.limitAverage(mass_char2, mass_neut1, mZ);
xsecWithError = *Dep::LEP208_xsec_chipm_22;
// Total up all channels which look like leptonic W* decays
// Total up the leptonic W decays first...
totalBR = 0;
totalBR += decays.at("W+").BF("e+", "nu_e");
totalBR += decays.at("W+").BF("mu+", "nu_mu");
totalBR += decays.at("W+").BF("tau+", "nu_tau");
totalBR = decays.at("~chi+_2").BF(lsp.name, "W+") * totalBR;
totalBR += decays.at("~chi+_2").BF(lsp.name, "e+", "nu_e");
totalBR += decays.at("~chi+_2").BF(lsp.name, "mu+", "nu_mu");
totalBR += decays.at("~chi+_2").BF(lsp.name, "tau+", "nu_tau");
// We don't have sneutrino --> gravitino + neutrino decays
if (lsp.pdg != 1000039)
{
totalBR += decays.at("~chi+_2").BF(snue, "e+")
* decays.at(snue).BF(lsp.name, "nu_e");
totalBR += decays.at("~chi+_2").BF(snumu, "mu+")
* decays.at(snumu).BF(lsp.name, "nu_mu");
totalBR += decays.at("~chi+_2").BF(snutau, "tau+")
* decays.at(snutau).BF(lsp.name, "nu_tau");
}
xsecWithError.upper *= totalBR;
xsecWithError.central *= totalBR;
xsecWithError.lower *= totalBR;
// ALSO, total up all channels which look like hadronic W* decays
// Total up the hadronic W decays first...
totalBR = decays.at("W+").BF("hadron", "hadron");
totalBR = decays.at("~chi+_2").BF(lsp.name, "W+") * totalBR;
totalBR += decays.at("~chi+_2").BF(lsp.name, "u", "dbar");
totalBR += decays.at("~chi+_2").BF(lsp.name, "c", "sbar");
xsecWithError.upper *= totalBR;
xsecWithError.central *= totalBR;
xsecWithError.lower *= totalBR;
if (xsecWithError.central < xsecLimit)
{
result += limit_LLike(xsecWithError.central, xsecLimit, xsecWithError.upper - xsecWithError.central);
}
else
{
result += limit_LLike(xsecWithError.central, xsecLimit, xsecWithError.central - xsecWithError.lower);
}
}
void OPAL_Chargino_Leptonic_Conservative_LLike(double& result)
{
using namespace Pipes::OPAL_Chargino_Leptonic_Conservative_LLike;
static const double tol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
static const bool pt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
using std::pow;
using std::log;
const Spectrum& spec = *Dep::MSSM_spectrum;
const LSP lsp = get_LSP_for_LEP_limits(spec);
const SubSpectrum& mssm = spec.get_HE();
const DecayTable& decays = *Dep::decay_rates;
const str snue = slhahelp::mass_es_from_gauge_es("~nu_e_L", mssm, tol, LOCAL_INFO, pt_error);
const str snumu = slhahelp::mass_es_from_gauge_es("~nu_mu_L", mssm, tol, LOCAL_INFO, pt_error);
const str snutau = slhahelp::mass_es_from_gauge_es("~nu_tau_L", mssm, tol, LOCAL_INFO, pt_error);
const double mass_neut1 = lsp.mass;
const double mass_char1 = spec.get(Par::Pole_Mass,1000024, 0);
const double mass_char2 = spec.get(Par::Pole_Mass,1000037, 0);
const double mZ = spec.get(Par::Pole_Mass,23, 0);
triplet<double> xsecWithError;
double xsecLimit, totalBR;
static const OPALCharginoLeptonicLimitAt208GeV limitContainer;
// #ifdef COLLIDERBIT_DEBUG
// static bool dumped=false;
// if(!dumped)
// {
// limitContainer.dumpPlotData(75., 105., 0., 105., mZ, "lepLimitPlanev2/OPALCharginoLeptonicLimitAt208GeV.dump");
// dumped=true;
// }
// #endif
result = 0;
// Due to the nature of the analysis details of the model independent limit in
// the paper, the best we can do is to try these processes individually:
// char1, neut1
xsecLimit = limitContainer.limitAverage(mass_char1, mass_neut1, mZ);
xsecWithError = *Dep::LEP208_xsec_chipm_11;
// Total up all channels which look like leptonic W* decays
// Total up the leptonic W decays first...
totalBR = 0;
totalBR += decays.at("W+").BF("e+", "nu_e");
totalBR += decays.at("W+").BF("mu+", "nu_mu");
totalBR += decays.at("W+").BF("tau+", "nu_tau");
totalBR = decays.at("~chi+_1").BF(lsp.name, "W+") * totalBR;
totalBR += decays.at("~chi+_1").BF(lsp.name, "e+", "nu_e");
totalBR += decays.at("~chi+_1").BF(lsp.name, "mu+", "nu_mu");
totalBR += decays.at("~chi+_1").BF(lsp.name, "tau+", "nu_tau");
// We don't have sneutrino --> gravitino + neutrino decays
if (lsp.pdg != 1000039)
{
totalBR += decays.at("~chi+_1").BF(snue, "e+")
* decays.at(snue).BF(lsp.name, "nu_e");
totalBR += decays.at("~chi+_1").BF(snumu, "mu+")
* decays.at(snumu).BF(lsp.name, "nu_mu");
totalBR += decays.at("~chi+_1").BF(snutau, "tau+")
* decays.at(snutau).BF(lsp.name, "nu_tau");
}
xsecWithError.upper *= pow(totalBR, 2);
xsecWithError.central *= pow(totalBR, 2);
xsecWithError.lower *= pow(totalBR, 2);
if (xsecWithError.central < xsecLimit)
{
result += limit_LLike(xsecWithError.central, xsecLimit, xsecWithError.upper - xsecWithError.central);
}
else
{
result += limit_LLike(xsecWithError.central, xsecLimit, xsecWithError.central - xsecWithError.lower);
}
// char2, neut1
xsecLimit = limitContainer.limitAverage(mass_char2, mass_neut1, mZ);
xsecWithError = *Dep::LEP208_xsec_chipm_22;
// Total up all channels which look like leptonic W* decays
// Total up the leptonic W decays first...
totalBR = 0;
totalBR += decays.at("W+").BF("e+", "nu_e");
totalBR += decays.at("W+").BF("mu+", "nu_mu");
totalBR += decays.at("W+").BF("tau+", "nu_tau");
totalBR = decays.at("~chi+_2").BF(lsp.name, "W+") * totalBR;
totalBR += decays.at("~chi+_2").BF(lsp.name, "e+", "nu_e");
totalBR += decays.at("~chi+_2").BF(lsp.name, "mu+", "nu_mu");
totalBR += decays.at("~chi+_2").BF(lsp.name, "tau+", "nu_tau");
// We don't have sneutrino --> gravitino + neutrino decays
if (lsp.pdg != 1000039)
{
totalBR += decays.at("~chi+_2").BF(snue, "e+")
* decays.at(snue).BF(lsp.name, "nu_e");
totalBR += decays.at("~chi+_2").BF(snumu, "mu+")
* decays.at(snumu).BF(lsp.name, "nu_mu");
totalBR += decays.at("~chi+_2").BF(snutau, "tau+")
* decays.at(snutau).BF(lsp.name, "nu_tau");
}
xsecWithError.upper *= pow(totalBR, 2);
xsecWithError.central *= pow(totalBR, 2);
xsecWithError.lower *= pow(totalBR, 2);
if (xsecWithError.central < xsecLimit)
{
result += limit_LLike(xsecWithError.central, xsecLimit, xsecWithError.upper - xsecWithError.central);
}
else
{
result += limit_LLike(xsecWithError.central, xsecLimit, xsecWithError.central - xsecWithError.lower);
}
}
// OPAL limit on degenerate chargino--neutralino scenario at 208 GeV
// Sensitive to mass differences between 320 MeV and 5 GeV
// Based on hep-ex/0210043
void OPAL_Degenerate_Chargino_Conservative_LLike(double& result)
{
using namespace Pipes::OPAL_Degenerate_Chargino_Conservative_LLike;
const Spectrum& spec = *Dep::MSSM_spectrum;
const double mass_neut1 = spec.get(Par::Pole_Mass,1000022, 0);
const double mass_char1 = spec.get(Par::Pole_Mass,1000024, 0);
const double mZ = spec.get(Par::Pole_Mass,23, 0);
triplet<double> xsecWithError;
double xsecLimit;
static const OPALDegenerateCharginoLimitAt208GeV limitContainer;
// #ifdef COLLIDERBIT_DEBUG
// static bool dumped=false;
// if(!dumped)
// {
// limitContainer.dumpPlotData(45.0, 95., 0.320, 5., mZ, "lepLimitPlanev2/OPALDegenerateCharginoLimitAt208GeV.dump");
//
// dumped=true;
// }
// #endif
result = 0;
// char1, neut1
xsecLimit = limitContainer.limitAverage(mass_char1, mass_char1-abs(mass_neut1), mZ);
xsecWithError = *Dep::LEP208_xsec_chipm_11;
if (xsecWithError.central < xsecLimit)
{
result += limit_LLike(xsecWithError.central, xsecLimit, xsecWithError.upper - xsecWithError.central);
}
else
{
result += limit_LLike(xsecWithError.central, xsecLimit, xsecWithError.central - xsecWithError.lower);
}
}
void OPAL_Chargino_All_Channels_Conservative_LLike(double& result)
{
using namespace Pipes::OPAL_Chargino_All_Channels_Conservative_LLike;
static const double tol = runOptions->getValueOrDef<double>(1e-2, "gauge_mixing_tolerance");
static const bool pt_error = runOptions->getValueOrDef<bool>(true, "gauge_mixing_tolerance_invalidates_point_only");
const Spectrum& spec = *Dep::MSSM_spectrum;
const LSP lsp = get_LSP_for_LEP_limits(spec);
const SubSpectrum& mssm = spec.get_HE();
const DecayTable& decays = *Dep::decay_rates;
const str snue = slhahelp::mass_es_from_gauge_es("~nu_e_L", mssm, tol, LOCAL_INFO, pt_error);
const str snumu = slhahelp::mass_es_from_gauge_es("~nu_mu_L", mssm, tol, LOCAL_INFO, pt_error);
const str snutau = slhahelp::mass_es_from_gauge_es("~nu_tau_L", mssm, tol, LOCAL_INFO, pt_error);
const double mass_neut1 = lsp.mass;
const double mass_char1 = spec.get(Par::Pole_Mass,1000024, 0);
const double mass_char2 = spec.get(Par::Pole_Mass,1000037, 0);
const double mZ = spec.get(Par::Pole_Mass,23, 0);
triplet<double> xsecWithError;
double xsecLimit, totalBR;
static const OPALCharginoAllChannelsLimitAt208GeV limitContainer;
// #ifdef COLLIDERBIT_DEBUG
// static bool dumped=false;
// if(!dumped)
// {
// limitContainer.dumpPlotData(75., 105., 0., 105., mZ, "lepLimitPlanev2/OPALCharginoAllChannelsLimitAt208GeV.dump");
// dumped=true;
// }
// #endif
result = 0;
// Due to the nature of the analysis details of the model independent limit in
// the paper, the best we can do is to try these processes individually:
// char1, neut1
xsecLimit = limitContainer.limitAverage(mass_char1, mass_neut1, mZ);
xsecWithError = *Dep::LEP208_xsec_chipm_11;
// Total up all channels which look like W* decays
totalBR = 0;
totalBR += decays.at("~chi+_1").BF(lsp.name, "W+");
totalBR += decays.at("~chi+_1").BF(lsp.name, "u", "dbar");
totalBR += decays.at("~chi+_1").BF(lsp.name, "c", "sbar");
totalBR += decays.at("~chi+_1").BF(lsp.name, "e+", "nu_e");
totalBR += decays.at("~chi+_1").BF(lsp.name, "mu+", "nu_mu");
totalBR += decays.at("~chi+_1").BF(lsp.name, "tau+", "nu_tau");
// We don't have sneutrino --> gravitino + neutrino decays
if (lsp.pdg != 1000039)
{
totalBR += decays.at("~chi+_1").BF(snue, "e+")
* decays.at(snue).BF(lsp.name, "nu_e");
totalBR += decays.at("~chi+_1").BF(snumu, "mu+")
* decays.at(snumu).BF(lsp.name, "nu_mu");
totalBR += decays.at("~chi+_1").BF(snutau, "tau+")
* decays.at(snutau).BF(lsp.name, "nu_tau");
}
xsecWithError.upper *= pow(totalBR, 2);
xsecWithError.central *= pow(totalBR, 2);
xsecWithError.lower *= pow(totalBR, 2);
if (xsecWithError.central < xsecLimit)
{
result += limit_LLike(xsecWithError.central, xsecLimit, xsecWithError.upper - xsecWithError.central);
}
else
{
result += limit_LLike(xsecWithError.central, xsecLimit, xsecWithError.central - xsecWithError.lower);
}
// char2, neut1
xsecLimit = limitContainer.limitAverage(mass_char2, mass_neut1, mZ);
xsecWithError = *Dep::LEP208_xsec_chipm_22;
// Total up all channels which look like W* decays
totalBR = 0;
totalBR += decays.at("~chi+_2").BF(lsp.name, "W+");
totalBR += decays.at("~chi+_2").BF(lsp.name, "u", "dbar");
totalBR += decays.at("~chi+_2").BF(lsp.name, "c", "sbar");
totalBR += decays.at("~chi+_2").BF(lsp.name, "e+", "nu_e");
totalBR += decays.at("~chi+_2").BF(lsp.name, "mu+", "nu_mu");
totalBR += decays.at("~chi+_2").BF(lsp.name, "tau+", "nu_tau");
// We don't have sneutrino --> gravitino + neutrino decays
if (lsp.pdg != 1000039)
{
totalBR += decays.at("~chi+_2").BF(snue, "e+")
* decays.at(snue).BF(lsp.name, "nu_e");
totalBR += decays.at("~chi+_2").BF(snumu, "mu+")
* decays.at(snumu).BF(lsp.name, "nu_mu");
totalBR += decays.at("~chi+_2").BF(snutau, "tau+")
* decays.at(snutau).BF(lsp.name, "nu_tau");
}
xsecWithError.upper *= pow(totalBR, 2);
xsecWithError.central *= pow(totalBR, 2);
xsecWithError.lower *= pow(totalBR, 2);
if (xsecWithError.central < xsecLimit)
{
result += limit_LLike(xsecWithError.central, xsecLimit, xsecWithError.upper - xsecWithError.central);
}
else
{
result += limit_LLike(xsecWithError.central, xsecLimit, xsecWithError.central - xsecWithError.lower);
}
}
void OPAL_Neutralino_Hadronic_Conservative_LLike(double& result)
{
using namespace Pipes::OPAL_Neutralino_Hadronic_Conservative_LLike;
using std::pow;
using std::log;
const Spectrum& spec = *Dep::MSSM_spectrum;
const DecayTable& decays = *Dep::decay_rates;
const double mass_neut1 = spec.get(Par::Pole_Mass,1000022, 0);
const double mass_neut2 = spec.get(Par::Pole_Mass,1000023, 0);
const double mass_neut3 = spec.get(Par::Pole_Mass,1000025, 0);
const double mass_neut4 = spec.get(Par::Pole_Mass,1000035, 0);
const double mZ = spec.get(Par::Pole_Mass,23, 0);
triplet<double> xsecWithError;
double xsecLimit, totalBR;
static const OPALNeutralinoHadronicLimitAt208GeV limitContainer;
// #ifdef COLLIDERBIT_DEBUG
// static bool dumped=false;
// if(!dumped)
// {
// limitContainer.dumpPlotData(0., 200., 0., 100., mZ, "lepLimitPlanev2/OPALNeutralinoHadronicLimitAt208GeV.dump");
// dumped=true;
// }
// #endif
result = 0;
// Due to the nature of the analysis details of the model independent limit in
// the paper, the best we can do is to try these processes individually:
// neut2, neut1
xsecLimit = limitContainer.limitAverage(mass_neut2, mass_neut1, mZ);
xsecWithError = *Dep::LEP208_xsec_chi00_12;
// Total up all channels which look like Z* decays
totalBR = decays.at("Z0").BF("hadron", "hadron");
totalBR = decays.at("~chi0_2").BF("~chi0_1", "Z0") * totalBR;
totalBR += decays.at("~chi0_2").BF("~chi0_1", "ubar", "u");
totalBR += decays.at("~chi0_2").BF("~chi0_1", "dbar", "d");
totalBR += decays.at("~chi0_2").BF("~chi0_1", "cbar", "c");
totalBR += decays.at("~chi0_2").BF("~chi0_1", "sbar", "s");
totalBR += decays.at("~chi0_2").BF("~chi0_1", "bbar", "b");
xsecWithError.upper *= totalBR;
xsecWithError.central *= totalBR;
xsecWithError.lower *= totalBR;
if (xsecWithError.central < xsecLimit)
{
result += limit_LLike(xsecWithError.central, xsecLimit, xsecWithError.upper - xsecWithError.central);
}
else
{
result += limit_LLike(xsecWithError.central, xsecLimit, xsecWithError.central - xsecWithError.lower);
}
// neut3, neut1
xsecLimit = limitContainer.limitAverage(mass_neut3, mass_neut1, mZ);
xsecWithError = *Dep::LEP208_xsec_chi00_13;
// Total up all channels which look like Z* decays
totalBR = decays.at("Z0").BF("hadron", "hadron");
totalBR = decays.at("~chi0_3").BF("~chi0_1", "Z0") * totalBR;
totalBR += decays.at("~chi0_3").BF("~chi0_1", "ubar", "u");
totalBR += decays.at("~chi0_3").BF("~chi0_1", "dbar", "d");
totalBR += decays.at("~chi0_3").BF("~chi0_1", "cbar", "c");
totalBR += decays.at("~chi0_3").BF("~chi0_1", "sbar", "s");
totalBR += decays.at("~chi0_3").BF("~chi0_1", "bbar", "b");
xsecWithError.upper *= totalBR;
xsecWithError.central *= totalBR;
xsecWithError.lower *= totalBR;
if (xsecWithError.central < xsecLimit)
{
result += limit_LLike(xsecWithError.central, xsecLimit, xsecWithError.upper - xsecWithError.central);
}
else
{
result += limit_LLike(xsecWithError.central, xsecLimit, xsecWithError.central - xsecWithError.lower);
}
// neut4, neut1
xsecLimit = limitContainer.limitAverage(mass_neut4, mass_neut1, mZ);
xsecWithError = *Dep::LEP208_xsec_chi00_14;
// Total up all channels which look like Z* decays
totalBR = decays.at("Z0").BF("hadron", "hadron");
totalBR = decays.at("~chi0_4").BF("~chi0_1", "Z0") * totalBR;
totalBR += decays.at("~chi0_4").BF("~chi0_1", "ubar", "u");
totalBR += decays.at("~chi0_4").BF("~chi0_1", "dbar", "d");
totalBR += decays.at("~chi0_4").BF("~chi0_1", "cbar", "c");
totalBR += decays.at("~chi0_4").BF("~chi0_1", "sbar", "s");
totalBR += decays.at("~chi0_4").BF("~chi0_1", "bbar", "b");
xsecWithError.upper *= totalBR;
xsecWithError.central *= totalBR;
xsecWithError.lower *= totalBR;
if (xsecWithError.central < xsecLimit)
{
result += limit_LLike(xsecWithError.central, xsecLimit, xsecWithError.upper - xsecWithError.central);
}
else
{
result += limit_LLike(xsecWithError.central, xsecLimit, xsecWithError.central - xsecWithError.lower);
}
}
/// @}
void L3_Gravitino_LLike(double& result) {
/**
@brief L3 search for gravitinos at 207 GeV
We use a limit from Fig. 6c of
https://doi.org/10.1016/j.physletb.2004.01.010.
We use the 95% upper limit on
\f[
\sigma(ee \to \chi^0_1\chi^0_1) \textrm{BR}(\chi^0_1 \to \tilde{G}\gamma)^2
\f]
*/
// Unpack neutralino & gravitino mass
using namespace Pipes::L3_Gravitino_LLike;
const Spectrum& spectrum = *Dep::MSSM_spectrum;
const double m_chi = spectrum.get(Par::Pole_Mass, 1000022, 0);
const double m_gravitino = spectrum.get(Par::Pole_Mass, 1000039, 0);
// Calculate relevant branching ratio
const DecayTable& decay_rates = *Dep::decay_rates;
const auto BF = decay_rates.at("~chi0_1").BF("gamma", "~G");
// Production cross section of two lightest neutralinos at 207 GeV
const auto production_xsec = *Dep::LEP207_xsec_chi00_11;
// Make product of cross section and branching ratio squared
triplet<double> xsec;
xsec.upper = production_xsec.upper * pow(BF, 2);
xsec.central = production_xsec.central * pow(BF, 2);
xsec.lower = production_xsec.lower * pow(BF, 2);
// Construct object for fetching limit (do this once only, hence static)
const std::string fig6c = GAMBIT_DIR "/ColliderBit/data/scraped_fig6c.dat";
static auto L3Gravitino = ImageLimit(fig6c, 0., 103., 0., 103.);
const double limit = L3Gravitino.get_limit(m_chi, m_gravitino);
// Resulting log-likelihood, taking into account theoretical uncertainty
result = limit_LLike(xsec.central, limit, xsec.upper - xsec.central);
}
} // namespace ColliderBit
} // namespace Gambit
Updated on 2024-07-18 at 13:53:35 +0000