file analyses/Analysis_CMS_13TeV_MultiLEP_36invfb.cpp
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Namespaces
| Name |
|---|
| Gambit TODO: see if we can use this one: |
| Gambit::ColliderBit |
Classes
Source code
///
/// \author Rose Kudzman-Blais
/// \date 2017 May
///
/// \author Anders Kvellestad
/// \date 2018 June
/// *********************************************
#include <vector>
#include <cmath>
#include <memory>
#include <iomanip>
#include <fstream>
#include "gambit/ColliderBit/analyses/Analysis.hpp"
#include "gambit/ColliderBit/CMSEfficiencies.hpp"
#include "gambit/ColliderBit/mt2_bisect.h"
// Based on http://cms-results.web.cern.ch/cms-results/public-results/superseded/SUS-16-039/index.html
using namespace std;
namespace Gambit {
namespace ColliderBit {
// This analysis class is a base class for two SR-specific analysis classes
// defined further down:
// - Analysis_CMS_13TeV_MultiLEP_2SSLep_36invfb
// - Analysis_CMS_13TeV_MultiLEP_3Lep_36invfb
class Analysis_CMS_13TeV_MultiLEP_36invfb : public Analysis {
protected:
// Counters for the number of accepted events for each signal region
std::map<string, EventCounter> _counters = {
{"SR1", EventCounter("SR1")},
{"SR2", EventCounter("SR2")},
{"SR3", EventCounter("SR3")},
{"SR4", EventCounter("SR4")},
{"SR5", EventCounter("SR5")},
{"SR6", EventCounter("SR6")},
{"SR7", EventCounter("SR7")},
{"SR8", EventCounter("SR8")},
};
private:
vector<int> cutFlowVector1, cutFlowVector2, cutFlowVector3, cutFlowVector4;
vector<string> cutFlowVector_str1, cutFlowVector_str2, cutFlowVector_str3, cutFlowVector_str4;
// double xsec2CMS_200_100, xsec2CMS_500_150, xsec3CMS_250_150, xsec3CMS_600_1, xsec1CMS_500_350_05,xsec1CMS_500_350_5, xsec4CMS_100_1, xsec4CMS_800_1;
// vector<double> cutFlowVector2CMS_200_100, cutFlowVector2CMS_500_150, cutFlowVector3CMS_250_150, cutFlowVector3CMS_600_1, cutFlowVector1CMS_500_350_05, cutFlowVector1CMS_500_350_5, cutFlowVector4CMS_100_1, cutFlowVector4CMS_800_1;
size_t NCUTS1, NCUTS2, NCUTS3, NCUTS4;
// ofstream cutflowFile;
public:
// Required detector sim
static constexpr const char* detector = "CMS";
struct ptComparison {
bool operator() (const HEPUtils::Particle* i,const HEPUtils::Particle* j) {return (i->pT()>j->pT());}
} comparePt;
Analysis_CMS_13TeV_MultiLEP_36invfb() {
set_analysis_name("CMS_13TeV_MultiLEP_36invfb");
set_luminosity(35.9);
NCUTS1=10;
NCUTS2=7;
NCUTS3=7;
NCUTS4=5;
// xsec2CMS_200_100=1800.;
// xsec2CMS_500_150=46.;
// xsec3CMS_250_150=780.;
// xsec3CMS_600_1=20.;
// xsec1CMS_500_350_05=46.;
// xsec1CMS_500_350_5=46.;
// xsec4CMS_100_1=16800.;
// xsec4CMS_800_1=3.5;
for (size_t i=0;i<NCUTS1;i++){
cutFlowVector1.push_back(0);
// cutFlowVector1CMS_500_350_05.push_back(0);
// cutFlowVector1CMS_500_350_5.push_back(0);
cutFlowVector_str1.push_back("");
}
for (size_t i=0;i<NCUTS2;i++){
cutFlowVector2.push_back(0);
// cutFlowVector2CMS_200_100.push_back(0);
// cutFlowVector2CMS_500_150.push_back(0);
cutFlowVector_str2.push_back("");
}
for (size_t i=0;i<NCUTS3;i++){
cutFlowVector3.push_back(0);
// cutFlowVector3CMS_600_1.push_back(0);
// cutFlowVector3CMS_250_150.push_back(0);
cutFlowVector_str3.push_back("");
}
for (size_t i=0;i<NCUTS4;i++){
cutFlowVector4.push_back(0);
// cutFlowVector4CMS_100_1.push_back(0);
// cutFlowVector4CMS_800_1.push_back(0);
cutFlowVector_str4.push_back("");
}
}
void run(const HEPUtils::Event* event) {
double met = event->met();
// Baseline objects
// Note that CMS provides two different efficiency maps, one for the multi-lepton SR and one for the 2SS signal region:
// https://twiki.cern.ch/twiki/bin/view/CMSPublic/SUSMoriond2017ObjectsEfficiency
// Here we have only implemented the multi-lepton efficiency map.
//@note Numbers digitized from https://twiki.cern.ch/twiki/pub/CMSPublic/SUSMoriond2017ObjectsEfficiency/2d_full_pteta_el_039_multi_ttbar.pdf
//@note The efficiency map has been extended to cover the low-pT region, using the efficiencies from BuckFast (CMSEfficiencies.hpp)
const vector<double> aEl={0., 0.8, 1.442, 1.556, 2., 2.5, DBL_MAX}; // Bin edges in eta
const vector<double> bEl={0., 10., 15., 20., 25., 30., 40., 50., DBL_MAX}; // Bin edges in pT. Assume flat efficiency above 200, where the CMS map stops.
const vector<double> cEl={
// pT: (0,10), (10,15), (15,20), (20,25), (25,30), (30,40), (40,50), (50,inf)
0.0, 0.95, 0.507, 0.619, 0.682, 0.742, 0.798, 0.863, // eta: (0, 0.8)
0.0, 0.95, 0.429, 0.546, 0.619, 0.710, 0.734, 0.833, // eta: (0.8, 1.4429
0.0, 0.95, 0.256, 0.221, 0.315, 0.351, 0.373, 0.437, // eta: (1.442, 1.556)
0.0, 0.85, 0.249, 0.404, 0.423, 0.561, 0.642, 0.749, // eta: (1.556, 2)
0.0, 0.85, 0.195, 0.245, 0.380, 0.441, 0.533, 0.644, // eta: (2, 2.5)
0.0, 0.0, 0.0, 0.0, 0.0, 0.0, 0.0, 0.0, // eta > 2.5
};
// const vector<double> aEl={0,0.8,1.442,1.556,2.,2.5};
// const vector<double> bEl={0.,20.,25.,30.,40.,50.,10000.}; // Assuming flat efficiency above pT = 200 GeV, where the CMS map stops.
// const vector<double> cEl={0.507,0.619,0.682,0.742,0.798,0.863,0.429,0.546,0.619,0.710,0.734,0.833,0.256,0.221,0.315,0.351,0.373,0.437,0.249,0.404,0.423,0.561,0.642,0.749,0.195,0.245,0.380,0.441,0.533,0.644};
HEPUtils::BinnedFn2D<double> _eff2dEl(aEl,bEl,cEl);
vector<const HEPUtils::Particle*> baselineElectrons;
for (const HEPUtils::Particle* electron : event->electrons()) {
bool isEl=has_tag(_eff2dEl, fabs(electron->eta()), electron->pT());
if (electron->pT()>15. && fabs(electron->eta())<2.5 && isEl)baselineElectrons.push_back(electron);
}
//@note Numbers digitized from https://twiki.cern.ch/twiki/pub/CMSPublic/SUSMoriond2017ObjectsEfficiency/2d_full_pteta_mu_039_multi_ttbar.pdf
//@note The efficiency map has been extended to cover the low-pT region, using the efficiencies from BuckFast (CMSEfficiencies.hpp)
const vector<double> aMu={0., 0.9, 1.2, 2.1, 2.4, DBL_MAX}; // Bin edges in eta
const vector<double> bMu={0., 10., 15., 20., 25., 30., 40., 50., DBL_MAX}; // Bin edges in pT. Assume flat efficiency above 200, where the CMS map stops.
const vector<double> cMu={
// pT: (0,10), (10,15), (15,20), (20,25), (25,30), (30,40), (40,50), (50,inf)
0.0, 0.704, 0.797, 0.855, 0.880, 0.906, 0.927, 0.931, // eta: (0, 0.9)
0.0, 0.639, 0.776, 0.836, 0.875, 0.898, 0.940, 0.930, // eta: (0.9, 1.2)
0.0, 0.596, 0.715, 0.840, 0.862, 0.891, 0.906, 0.925, // eta: (1.2, 2.1)
0.0, 0.522, 0.720, 0.764, 0.803, 0.807, 0.885, 0.877, // eta: (2.1, 2.4)
0.0, 0.0, 0.0, 0.0, 0.0, 0.0, 0.0, 0.0, // eta > 2.4
};
// const vector<double> aMu={0,0.9,1.2,2.1,2.4};
// const vector<double> bMu={0.,15.,20.,25.,30.,40.,50.,10000.}; // Assuming flat efficiency above pT = 200 GeV, where the CMS map stops.
// const vector<double> cMu={0.704,0.797,0.855,0.88,0.906,0.927,0.931,0.639,0.776,0.836,0.875,0.898,0.94,0.93,0.569,0.715,0.84,0.862,0.891,0.906,0.925,0.0522,0.720,0.764,0.803,0.807,0.885,0.877};
HEPUtils::BinnedFn2D<double> _eff2dMu(aMu,bMu,cMu);
vector<const HEPUtils::Particle*> baselineMuons;
for (const HEPUtils::Particle* muon : event->muons()) {
bool isMu=has_tag(_eff2dMu, fabs(muon->eta()), muon->pT());
if (muon->pT()>10. &&fabs(muon->eta())<2.4 && isMu)baselineMuons.push_back(muon);
}
// @note Numbers digitized from https://twiki.cern.ch/twiki/pub/CMSPublic/SUSMoriond2017ObjectsEfficiency/TauIDEfficiency_pT_DP2016_066.pdf
const vector<double> aTau={0.,2.3};
const vector<double> bTau={0.,25.,30.,35.,40.,45.,50.,60.,70.,80.,DBL_MAX}; // Assuming flat efficiency above pT = 100 GeV, where the CMS map stops.
// The tau efficiencies should be corrected with a data/simulation scale factor of 0.95, as instructed here: https://twiki.cern.ch/twiki/bin/view/CMSPublic/SUSMoriond2017ObjectsEfficiency
const vector<double> cTau={0.38*0.95, 0.48*0.95, 0.5*0.95, 0.49*0.95, 0.51*0.95, 0.49*0.95, 0.47*0.95, 0.45*0.95, 0.48*0.95, 0.5*0.95};
HEPUtils::BinnedFn2D<double> _eff2dTau(aTau,bTau,cTau);
vector<const HEPUtils::Particle*> baselineTaus;
for (const HEPUtils::Particle* tau : event->taus()) {
bool isTau=has_tag(_eff2dTau, fabs(tau->eta()), tau->pT());
if (tau->pT()>20. &&fabs(tau->eta())<2.3 && isTau)baselineTaus.push_back(tau);
}
vector<const HEPUtils::Jet*> baselineJets;
for (const HEPUtils::Jet* jet : event->jets()) {
if (jet->pT()>25. &&fabs(jet->eta())<2.4)baselineJets.push_back(jet);
}
// Signal objects
vector<const HEPUtils::Particle*> signalElectrons=baselineElectrons;
vector<const HEPUtils::Particle*> signalMuons=baselineMuons;
vector<const HEPUtils::Particle*> signalTaus=baselineTaus;
vector<const HEPUtils::Particle*> signalLightLeptons=signalElectrons;
signalLightLeptons.insert(signalLightLeptons.end(),signalMuons.begin(),signalMuons.end());
vector<const HEPUtils::Particle*> signalLeptons=signalTaus;
signalLeptons.insert(signalLeptons.end(),signalLightLeptons.begin(),signalLightLeptons.end());
sort(signalLightLeptons.begin(),signalLightLeptons.end(),comparePt);
sort(signalLeptons.begin(),signalLeptons.end(),comparePt);
vector<const HEPUtils::Jet*> signalJets;
vector<const HEPUtils::Jet*> signalBJets;
int num_ISRjets=0;
for (size_t iJet=0;iJet<baselineJets.size();iJet++) {
bool overlap=false;
for (size_t iLe=0;iLe<signalLeptons.size();iLe++) {
if (fabs(signalLeptons.at(iLe)->mom().deltaR_eta(baselineJets.at(iJet)->mom()))<0.4)overlap=true;
}
if (!overlap) {
signalJets.push_back(baselineJets.at(iJet));
if (baselineJets.at(iJet)->btag())signalBJets.push_back(baselineJets.at(iJet));
if (baselineJets.at(iJet)->pT()>40.)num_ISRjets++;
}
}
CMS::applyCSVv2MediumBtagEff(signalBJets);
// int nSignalElectrons=signalElectrons.size();
int nSignalMuons=signalMuons.size();
int nSignalTaus=signalTaus.size();
int nSignalLightLeptons = signalLightLeptons.size();
int nSignalLeptons=signalLeptons.size();
// int nSignalJets=signalJets.size();
//Variables
bool preselection=false;
bool bjet_veto=(signalBJets.size()==0);
bool low_mass_veto=true;
bool conversion_veto=true;
// bool ISRjet=(num_ISRjets<2);
double pT_ll=0;
double mT=0;
double mT2=0;
// double mll=0;
vector<vector<const HEPUtils::Particle*>> SFOSpair_cont = getSFOSpairs(signalLeptons);
vector<vector<const HEPUtils::Particle*>> OSpair_cont = getOSpairs(signalLeptons);
if (nSignalLeptons>1)pT_ll=(signalLeptons.at(0)->mom()+signalLeptons.at(1)->mom()).pT();
if (nSignalLightLeptons>0 && nSignalTaus>0) {
double pLep1[3] = {signalLightLeptons.at(0)->mass(), signalLightLeptons.at(0)->mom().px(), signalLightLeptons.at(0)->mom().py()};
double pTau[3] = {signalTaus.at(0)->mass(), signalTaus.at(0)->mom().px(), signalTaus.at(0)->mom().py()};
double pMiss[3] = {0., event->missingmom().px(), event->missingmom().py() };
double mn = 0.;
mt2_bisect::mt2 mt2_calc;
mt2_calc.set_momenta(pLep1,pTau,pMiss);
mt2_calc.set_mn(mn);
mT2 = mt2_calc.get_mt2();
}
if (nSignalLeptons==2 || (SFOSpair_cont.size()==0 && OSpair_cont.size()==0))mT=get_mTmin(signalLeptons, event->missingmom());
if (SFOSpair_cont.size()>0) {
vector<double> mll_mT= get_mll_mT(SFOSpair_cont,signalLeptons,event->missingmom(),0);
// mll=mll_mT.at(0);
mT=mll_mT.at(1);
}
if (SFOSpair_cont.size()==0 && OSpair_cont.size()>0) {
vector<double> mll_mT= get_mll_mT(OSpair_cont,signalLeptons,event->missingmom(),1);
// mll=mll_mT.at(0);
mT=mll_mT.at(1);
}
for (size_t iPa=0;iPa<SFOSpair_cont.size();iPa++) {
double SFOSpair_mass=(SFOSpair_cont.at(iPa).at(0)->mom()+SFOSpair_cont.at(iPa).at(1)->mom()).m();
if (SFOSpair_mass<12)low_mass_veto=false;
if (nSignalLeptons==2 && abs(SFOSpair_mass-91.2)<15)conversion_veto=false;
if (nSignalLeptons>2) {
double m_lll=(signalLeptons.at(0)->mom()+signalLeptons.at(1)->mom()+signalLeptons.at(2)->mom()).m();
if (SFOSpair_cont.at(iPa).at(0)->abspid()!=15 && abs(m_lll-91.2)<15)conversion_veto=false;
}
}
if (bjet_veto && low_mass_veto)preselection=true;
//Signal regions
//2 same-sign leptons
if (preselection && nSignalLeptons==2 && nSignalTaus==0 && met>60 && conversion_veto) {
if (signalLeptons.at(0)->pid()*signalLeptons.at(1)->pid()>0) {
if ((signalLeptons.at(0)->abspid()==11 && signalLeptons.at(0)->pT()>25) || (signalLeptons.at(0)->abspid()==13 && signalLeptons.at(0)->pT()>20)) {
if (num_ISRjets==0 && met>140 && mT>100) _counters.at("SR1").add_event(event);
if (num_ISRjets==1 && met>200 && mT<100 && pT_ll<100) _counters.at("SR2").add_event(event);
}
}
}
//3 or more leptons
if (preselection && met>50 && conversion_veto && nSignalLeptons>2) {
if (nSignalTaus<2) {
if ((signalLightLeptons.at(0)->abspid()==11 && signalLightLeptons.at(0)->pT()>25) || (signalLightLeptons.at(0)->abspid()==13 && signalLightLeptons.at(0)->pT()>20 && nSignalMuons>1) || (signalLightLeptons.at(0)->abspid()==13 && signalLightLeptons.at(0)->pT()>25 && nSignalMuons==1)) {
if (nSignalLightLeptons==3 && nSignalTaus==0) {
if (mT>120 && met>200) _counters.at("SR3").add_event(event);
if (met>250) _counters.at("SR4").add_event(event);
}
if (nSignalLightLeptons==2 && nSignalTaus==1 && mT2>50 && met>200) _counters.at("SR5").add_event(event);
if (nSignalLeptons>3 && met>200) _counters.at("SR8").add_event(event);
}
}
if (nSignalLightLeptons==1 && nSignalTaus==2) {
if ((signalLightLeptons.at(0)->abspid()==11 && signalLightLeptons.at(0)->pT()>30) || (signalLightLeptons.at(0)->abspid()==13 && signalLightLeptons.at(0)->pT()>25)) {
if (signalLeptons.at(0)->abseta()<2.1 && signalLeptons.at(1)->abseta()<2.1 && signalLeptons.at(2)->abseta()<2.1) {
if (mT2>50 && met>200) _counters.at("SR6").add_event(event);
if (met>75) _counters.at("SR7").add_event(event);
}
}
}
}
// if (analysis_name().find("500_350") != string::npos){
// cutFlowVector_str1[0] = "All events";
// cutFlowVector_str1[1] = "2 light leptons";
// cutFlowVector_str1[2] = "Same-sign";
// cutFlowVector_str1[3] = "$3^{rd}$ lepton veto";
// cutFlowVector_str1[4] = "Low mass veto";
// cutFlowVector_str1[5] = "Bjet veto";
// cutFlowVector_str1[6] = "$E_{T}^{miss} > 60 GeV$";
// cutFlowVector_str1[7] = "0 or 1 ISR jet";
// cutFlowVector_str1[8] = "$m_{T} < 100 GeV$";
// cutFlowVector_str1[9] = "$p_{T}^{ll} > 100 GeV$";
// cutFlowVector1CMS_500_350_05[0]=485.36;
// cutFlowVector1CMS_500_350_05[1]=214.24;
// cutFlowVector1CMS_500_350_05[2]=91.09;
// cutFlowVector1CMS_500_350_05[3]=75.82;
// cutFlowVector1CMS_500_350_05[4]=73.61;
// cutFlowVector1CMS_500_350_05[5]=71.27;
// cutFlowVector1CMS_500_350_05[6]=62.79;
// cutFlowVector1CMS_500_350_05[7]=54.85;
// cutFlowVector1CMS_500_350_05[8]=18.3;
// cutFlowVector1CMS_500_350_05[9]=10.01;
// cutFlowVector1CMS_500_350_5[0]=632.16;
// cutFlowVector1CMS_500_350_5[1]=485.34;
// cutFlowVector1CMS_500_350_5[2]=128.59;
// cutFlowVector1CMS_500_350_5[3]=50.24;
// cutFlowVector1CMS_500_350_5[4]=49.86;
// cutFlowVector1CMS_500_350_5[5]=48.12;
// cutFlowVector1CMS_500_350_5[6]=38.92;
// cutFlowVector1CMS_500_350_5[7]=29.72;
// cutFlowVector1CMS_500_350_5[8]=15.17;
// cutFlowVector1CMS_500_350_5[9]=2.84;
// for (size_t j=0;j<NCUTS1;j++){
// if(
// (j==0) ||
// (j==1 && nSignalLightLeptons==2) ||
// (j==2 && nSignalLightLeptons==2 && signalLightLeptons.at(0)->pid()*signalLightLeptons.at(1)->pid()>0) ||
// (j==3 && nSignalLightLeptons==2 && signalLightLeptons.at(0)->pid()*signalLightLeptons.at(1)->pid()>0 && nSignalLeptons==2) ||
// (j==4 && nSignalLightLeptons==2 && signalLightLeptons.at(0)->pid()*signalLightLeptons.at(1)->pid()>0 && nSignalLeptons==2 && low_mass_veto) ||
// (j==5 && nSignalLightLeptons==2 && signalLightLeptons.at(0)->pid()*signalLightLeptons.at(1)->pid()>0 && nSignalLeptons==2 && low_mass_veto && bjet_veto) ||
// (j==6 && nSignalLightLeptons==2 && signalLightLeptons.at(0)->pid()*signalLightLeptons.at(1)->pid()>0 && nSignalLeptons==2 && low_mass_veto && bjet_veto && met>60) ||
// (j==7 && nSignalLightLeptons==2 && signalLightLeptons.at(0)->pid()*signalLightLeptons.at(1)->pid()>0 && nSignalLeptons==2 && low_mass_veto && bjet_veto && met>60 && ISRjet) ||
// (j==8 && nSignalLightLeptons==2 && signalLightLeptons.at(0)->pid()*signalLightLeptons.at(1)->pid()>0 && nSignalLeptons==2 && low_mass_veto && bjet_veto && met>60 && ISRjet && mT<100) ||
// (j==9 && nSignalLightLeptons==2 && signalLightLeptons.at(0)->pid()*signalLightLeptons.at(1)->pid()>0 && nSignalLeptons==2 && low_mass_veto && bjet_veto && met>60 && ISRjet && mT<100 && pT_ll>100) )
// cutFlowVector1[j]++;
// }
// }
// if ((analysis_name().find("200_100") != string::npos) || (analysis_name().find("500_150") != string::npos)){
// cutFlowVector_str2[0] = "All events";
// cutFlowVector_str2[1] = "3 leptons";
// cutFlowVector_str2[2] = "Low mass \\& conversions veto";
// cutFlowVector_str2[3] = "Bjet veto";
// cutFlowVector_str2[4] = "$E_{T}^{miss} > 50 GeV$";
// cutFlowVector_str2[5] = "$m_{T} > 100 GeV$";
// cutFlowVector_str2[6] = "$m_{ll} > 75 GeV$";
// cutFlowVector2CMS_200_100[0] =3630.;
// cutFlowVector2CMS_200_100[1] =481.49;
// cutFlowVector2CMS_200_100[2] =463.71;
// cutFlowVector2CMS_200_100[3] =456.68;
// cutFlowVector2CMS_200_100[4] =317.;
// cutFlowVector2CMS_200_100[5] =111.97;
// cutFlowVector2CMS_200_100[6] =103.49;
// cutFlowVector2CMS_500_150[0] =115.79;
// cutFlowVector2CMS_500_150[1] =18.03;
// cutFlowVector2CMS_500_150[2] =17.79;
// cutFlowVector2CMS_500_150[3] =17.47;
// cutFlowVector2CMS_500_150[4] =16.98;
// cutFlowVector2CMS_500_150[5] =12.74;
// cutFlowVector2CMS_500_150[6] =11.71;
// for (size_t j=0;j<NCUTS2;j++){
// if(
// (j==0) ||
// (j==1 && nSignalLeptons==3) ||
// (j==2 && nSignalLeptons==3 && low_mass_veto && conversion_veto) ||
// (j==3 && nSignalLeptons==3 && low_mass_veto && conversion_veto && bjet_veto) ||
// (j==4 && nSignalLeptons==3 && low_mass_veto && conversion_veto && bjet_veto && met>50.) ||
// (j==5 && nSignalLeptons==3 && low_mass_veto && conversion_veto && bjet_veto && met>50. && mT>100.) ||
// (j==6 && nSignalLeptons==3 && low_mass_veto && conversion_veto && bjet_veto && met>50. && mT>100. && mll>75.) )
// cutFlowVector2[j]++;
// }
// }
// if ((analysis_name().find("250_150") != string::npos) || (analysis_name().find("600_1") != string::npos)){
// cutFlowVector_str3[0] = "All events";
// cutFlowVector_str3[1] = "3 leptons";
// cutFlowVector_str3[2] = "Low mass \\& conversion veto";
// cutFlowVector_str3[3] = "Bjet veto";
// cutFlowVector_str3[4] = "$E_{T}^{miss} > 50 GeV$";
// cutFlowVector_str3[5] = "$m_{T2} < 100 GeV$";
// cutFlowVector_str3[6] = "$m_{ll} < 75 GeV$";
// cutFlowVector3CMS_250_150[0] =5304.;
// cutFlowVector3CMS_250_150[1] =188.58;
// cutFlowVector3CMS_250_150[2] =168.19;
// cutFlowVector3CMS_250_150[3] =166.26;
// cutFlowVector3CMS_250_150[4] =117.09;
// cutFlowVector3CMS_250_150[5] =112.26;
// cutFlowVector3CMS_250_150[6] =93.07;
// cutFlowVector3CMS_600_1[0] =220.23;
// cutFlowVector3CMS_600_1[1] =28.62;
// cutFlowVector3CMS_600_1[2] =28.31;
// cutFlowVector3CMS_600_1[3] =27.78;
// cutFlowVector3CMS_600_1[4] =25.67;
// cutFlowVector3CMS_600_1[5] =15.74;
// cutFlowVector3CMS_600_1[6] =3.85;
// for (size_t j=0;j<NCUTS3;j++){
// if(
// (j==0) ||
// (j==1 && nSignalLeptons==3) ||
// (j==2 && nSignalLeptons==3 && low_mass_veto && conversion_veto) ||
// (j==3 && nSignalLeptons==3 && low_mass_veto && conversion_veto && bjet_veto) ||
// (j==4 && nSignalLeptons==3 && low_mass_veto && conversion_veto && bjet_veto && met>50.) ||
// (j==5 && nSignalLeptons==3 && low_mass_veto && conversion_veto && bjet_veto && met>50. && mT2<100.) ||
// (j==6 && nSignalLeptons==3 && low_mass_veto && conversion_veto && bjet_veto && met>50. && mT2<100. && mll<75.) )
// cutFlowVector3[j]++;
// }
// }
// if ((analysis_name().find("100_1") != string::npos) || (analysis_name().find("800_1") != string::npos)){
// cutFlowVector_str4[0] = "All events";
// cutFlowVector_str4[1] = "4 leptons";
// cutFlowVector_str4[2] = "Low mass veto";
// cutFlowVector_str4[3] = "Bjet veto";
// cutFlowVector_str4[4] = "$E_{T}^{miss} > 100 GeV$";
// cutFlowVector4CMS_100_1[0] =5497.;
// cutFlowVector4CMS_100_1[1] =869.14;
// cutFlowVector4CMS_100_1[2] =868.6;
// cutFlowVector4CMS_100_1[3] =855.41;
// cutFlowVector4CMS_100_1[4] =34.27;
// cutFlowVector4CMS_800_1[0] =1.14;
// cutFlowVector4CMS_800_1[1] =0.36;
// cutFlowVector4CMS_800_1[2] =0.36;
// cutFlowVector4CMS_800_1[0] =0.35;
// cutFlowVector4CMS_800_1[4] =0.34;
// for (size_t j=0;j<NCUTS4;j++){
// if(
// (j==0) ||
// (j==1 && nSignalLeptons==4) ||
// (j==2 && nSignalLeptons==4 && low_mass_veto) ||
// (j==3 && nSignalLeptons==4 && low_mass_veto && bjet_veto) ||
// (j==4 && nSignalLeptons==4 && low_mass_veto && bjet_veto && met>100.) )
// cutFlowVector4[j]++;
// }
// }
}
/// Combine the variables of another copy of this analysis (typically on another thread) into this one.
void combine(const Analysis* other)
{
const Analysis_CMS_13TeV_MultiLEP_36invfb* specificOther
= dynamic_cast<const Analysis_CMS_13TeV_MultiLEP_36invfb*>(other);
for (auto& pair : _counters) { pair.second += specificOther->_counters.at(pair.first); }
if (NCUTS1 != specificOther->NCUTS1) NCUTS1 = specificOther->NCUTS1;
if (NCUTS2 != specificOther->NCUTS2) NCUTS2 = specificOther->NCUTS2;
if (NCUTS3 != specificOther->NCUTS3) NCUTS3 = specificOther->NCUTS3;
if (NCUTS4 != specificOther->NCUTS4) NCUTS4 = specificOther->NCUTS4;
for (size_t j = 0; j < NCUTS1; j++) {
cutFlowVector1[j] += specificOther->cutFlowVector1[j];
cutFlowVector_str1[j] = specificOther->cutFlowVector_str1[j];
}
for (size_t j = 0; j < NCUTS2; j++) {
cutFlowVector2[j] += specificOther->cutFlowVector2[j];
cutFlowVector_str2[j] = specificOther->cutFlowVector_str2[j];
}
for (size_t j = 0; j < NCUTS3; j++) {
cutFlowVector3[j] += specificOther->cutFlowVector3[j];
cutFlowVector_str3[j] = specificOther->cutFlowVector_str3[j];
}
for (size_t j = 0; j < NCUTS4; j++) {
cutFlowVector4[j] += specificOther->cutFlowVector4[j];
cutFlowVector_str4[j] = specificOther->cutFlowVector_str4[j];
}
}
// This function can be overridden by the derived SR-specific classes
virtual void collect_results() {
// string path = "ColliderBit/results/cutflow_";
// path.append(analysis_name());
// path.append(".txt");
// cutflowFile.open(path.c_str());
// if (analysis_name().find("500_350_05") != string::npos) {
// cutflowFile<<"\\begin{table}[H] \n\\caption{$\\tilde{\\chi}_{1}^{\\pm}\\tilde{\\chi}_{2}^{0}$ decay via $\\tilde{l}/\\tilde{\\nu}$ (flavor-democratic), $[\\tilde{\\chi}_{1}^{\\pm}\\tilde{\\chi}_{2}^{0},\\tilde{\\chi}_{1}^{0},\\tilde{l}]: [500,350,357.5] [GeV]$} \n\\makebox[\\linewidth]{ \n\\renewcommand{\\arraystretch}{0.4} \n\\begin{tabular}{c c c c c} \n\\hline"<<endl;
// cutflowFile<<"& CMS & GAMBIT & GAMBIT/CMS & $\\sigma$-corrected GAMBIT/CMS \\\\ \\hline"<<endl;
// cutflowFile<<"$\\sigma (pp\\to \\tilde{\\chi}_{1}^{\\pm}, \\tilde{\\chi}_{2}^{0})$ &"<<setprecision(4)<<xsec1CMS_500_350_05<<" $fb$ &"<<setprecision(4)<<xsec()<<"$fb$ &"<<setprecision(4)<< xsec()/xsec1CMS_500_350_05<<" & 1\\\\"<<endl;
// cutflowFile<<"\\multicolumn{5}{c}{Expected events at 35.9 $fb^{-1}$} \\\\ \\hline"<<endl;
// for (size_t i=0; i<NCUTS1; i++) {
// cutflowFile<<cutFlowVector_str1[i]<<"&"<<setprecision(4)<<cutFlowVector1CMS_500_350_05[i]<<"&"<<setprecision(4)<<cutFlowVector1[i]*xsec_per_event()*luminosity()<<"&"<<setprecision(4)<<cutFlowVector1[i]*xsec_per_event()*luminosity()/cutFlowVector1CMS_500_350_05[i]<<"&"<<setprecision(4)<<(xsec1CMS_500_350_05/xsec())*cutFlowVector1[i]*xsec_per_event()*luminosity()/cutFlowVector1CMS_500_350_05[i]<<"\\\\"<< endl;
// }
// cutflowFile<<"\\hline \\multicolumn{5}{c}{Percentage (\\%)} \\\\ \\hline"<<endl;
// for (size_t i=0; i<NCUTS1; i++) {
// cutflowFile<<cutFlowVector_str1[i]<<"&"<<setprecision(4)<<cutFlowVector1CMS_500_350_05[i]*100./cutFlowVector1CMS_500_350_05[1]<<"&"<<setprecision(4)<<cutFlowVector1[i]*100./cutFlowVector1[1]<<"& - & -\\\\"<< endl;
// }
// cutflowFile<<"\\end{tabular} \n} \n\\end{table}"<<endl;
// }
// if (analysis_name().find("500_350_5") != string::npos) {
// cutflowFile<<"\\begin{table}[H] \n\\caption{$\\tilde{\\chi}_{1}^{\\pm}\\tilde{\\chi}_{2}^{0}$ decay via $\\tilde{l}/\\tilde{\\nu}$ (flavor-democratic), $[\\tilde{\\chi}_{1}^{\\pm}\\tilde{\\chi}_{2}^{0},\\tilde{\\chi}_{1}^{0},\\tilde{l}]: [500,350,425] [GeV]$} \n\\makebox[\\linewidth]{ \n\\renewcommand{\\arraystretch}{0.4} \n\\begin{tabular}{c c c c c} \n\\hline"<<endl;
// cutflowFile<<"& CMS & GAMBIT & GAMBIT/CMS & $\\sigma$-corrected GAMBIT/CMS \\\\ \\hline"<<endl;
// cutflowFile<<"$\\sigma (pp\\to \\tilde{\\chi}_{1}^{\\pm}, \\tilde{\\chi}_{2}^{0})$ &"<<setprecision(4)<<xsec1CMS_500_350_5<<" $fb$ &"<<setprecision(4)<<xsec()<<"$fb$ &"<<setprecision(4)<< xsec()/xsec1CMS_500_350_5<<" & 1\\\\ \\hline"<<endl;
// cutflowFile<<"\\multicolumn{5}{c}{Expected events at 35.9 $fb^{-1}$} \\\\ \\hline"<<endl;
// for (size_t i=0; i<NCUTS1; i++) {
// cutflowFile<<cutFlowVector_str1[i]<<"&"<<setprecision(4)<<cutFlowVector1CMS_500_350_5[i]<<"&"<<setprecision(4)<<cutFlowVector1[i]*xsec_per_event()*luminosity()<<"&"<<setprecision(4)<<cutFlowVector1[i]*xsec_per_event()*luminosity()/cutFlowVector1CMS_500_350_5[i]<<"&"<<setprecision(4)<<(xsec1CMS_500_350_5/xsec())*cutFlowVector1[i]*xsec_per_event()*luminosity()/cutFlowVector1CMS_500_350_5[i]<<"\\\\"<< endl;
// }
// cutflowFile<<"\\hline \\multicolumn{5}{c}{Percentage (\\%)} \\\\ \\hline"<<endl;
// for (size_t i=0; i<NCUTS1; i++) {
// cutflowFile<<cutFlowVector_str1[i]<<"&"<<setprecision(4)<<cutFlowVector1CMS_500_350_5[i]*100./cutFlowVector1CMS_500_350_5[1]<<"&"<<setprecision(4)<<cutFlowVector1[i]*100./cutFlowVector1[1]<<"& - & -\\\\"<< endl;
// }
// cutflowFile<<"\\end{tabular} \n} \n\\end{table}"<<endl;
// }
// if (analysis_name().find("200_100") != string::npos) {
// cutflowFile<<"\\begin{table}[H] \n\\caption{$\\tilde{\\chi}_{1}^{\\pm}\\tilde{\\chi}_{2}^{0}$ decay via $W/Z$, $[\\tilde{\\chi}_{1}^{\\pm}\\tilde{\\chi}_{2}^{0},\\tilde{\\chi}_{1}^{0}]: [200,100] [GeV]$} \n\\makebox[\\linewidth]{ \n\\renewcommand{\\arraystretch}{0.4} \n\\begin{tabular}{c c c c c} \n\\hline"<<endl;
// cutflowFile<<"& CMS & GAMBIT & GAMBIT/CMS & $\\sigma$-corrected GAMBIT/CMS \\\\ \\hline"<<endl;
// cutflowFile<<"$\\sigma (pp\\to \\tilde{\\chi}_{1}^{\\pm}, \\tilde{\\chi}_{2}^{0})$ &"<<setprecision(4)<<xsec2CMS_200_100<<" $fb$ &"<<setprecision(4)<<xsec()<<"$fb$ &"<<setprecision(4)<< xsec()/xsec2CMS_200_100<<" & 1\\\\ \\hline"<<endl;
// cutflowFile<<"\\multicolumn{5}{c}{Expected events at 35.9 $fb^{-1}$} \\\\ \\hline"<<endl;
// for (size_t i=0; i<NCUTS2; i++) {
// cutflowFile<<cutFlowVector_str2[i]<<"&"<<setprecision(4)<<cutFlowVector2CMS_200_100[i]<<"&"<<setprecision(4)<<cutFlowVector2[i]*xsec_per_event()*luminosity()<<"&"<<setprecision(4)<<cutFlowVector2[i]*xsec_per_event()*luminosity()/cutFlowVector2CMS_200_100[i]<<"&"<<setprecision(4)<<(xsec2CMS_200_100/xsec())*cutFlowVector2[i]*xsec_per_event()*luminosity()/cutFlowVector2CMS_200_100[i]<<"\\\\"<< endl;
// }
// cutflowFile<<"\\hline \\multicolumn{5}{c}{Percentage (\\%)} \\\\ \\hline"<<endl;
// for (size_t i=0; i<NCUTS2; i++) {
// cutflowFile<<cutFlowVector_str2[i]<<"&"<<setprecision(4)<<cutFlowVector2CMS_200_100[i]*100./cutFlowVector2CMS_200_100[1]<<"&"<<setprecision(4)<<cutFlowVector2[i]*100./cutFlowVector2[1]<<"& - & -\\\\"<< endl;
// }
// cutflowFile<<"\\end{tabular} \n} \n\\end{table}"<<endl;
// }
// if (analysis_name().find("500_150") != string::npos) {
// cutflowFile<<"\\begin{table}[H] \n\\caption{$\\tilde{\\chi}_{1}^{\\pm}\\tilde{\\chi}_{2}^{0}$ decay via $W/Z$, $[\\tilde{\\chi}_{1}^{\\pm}\\tilde{\\chi}_{2}^{0},\\tilde{\\chi}_{1}^{0}]: [500,150] [GeV]$} \n\\makebox[\\linewidth]{ \n\\renewcommand{\\arraystretch}{0.4} \n\\begin{tabular}{c c c c c} \n\\hline"<<endl;
// cutflowFile<<"& CMS & GAMBIT & GAMBIT/CMS & $\\sigma$-corrected GAMBIT/CMS \\\\ \\hline"<<endl;
// cutflowFile<<"$\\sigma (pp\\to \\tilde{\\chi}_{1}^{\\pm}, \\tilde{\\chi}_{2}^{0})$ &"<<setprecision(4)<<xsec2CMS_500_150<<" $fb$ &"<<setprecision(4)<<xsec()<<"$fb$ &"<<setprecision(4)<< xsec()/xsec2CMS_500_150<<" & 1\\\\"<<endl;
// cutflowFile<<"\\multicolumn{5}{c}{Expected events at 35.9 $fb^{-1}$} \\\\ \\hline"<<endl;
// for (size_t i=0; i<NCUTS2; i++) {
// cutflowFile<<cutFlowVector_str2[i]<<"&"<<setprecision(4)<<cutFlowVector2CMS_500_150[i]<<"&"<<setprecision(4)<<cutFlowVector2[i]*xsec_per_event()*luminosity()<<"&"<<setprecision(4)<<cutFlowVector2[i]*xsec_per_event()*luminosity()/cutFlowVector2CMS_500_150[i]<<"&"<<setprecision(4)<<(xsec2CMS_500_150/xsec())*cutFlowVector2[i]*xsec_per_event()*luminosity()/cutFlowVector2CMS_500_150[i]<<"\\\\"<< endl;
// }
// cutflowFile<<"\\hline \\multicolumn{5}{c}{Percentage (\\%)} \\\\ \\hline"<<endl;
// for (size_t i=0; i<NCUTS2; i++) {
// cutflowFile<<cutFlowVector_str2[i]<<"&"<<setprecision(4)<<cutFlowVector2CMS_500_150[i]*100./cutFlowVector2CMS_500_150[1]<<"&"<<setprecision(4)<<cutFlowVector2[i]*100./cutFlowVector2[1]<<"& - & -\\\\"<< endl;
// }
// cutflowFile<<"\\end{tabular} \n} \n\\end{table}"<<endl;
// }
// if (analysis_name().find("250_150") != string::npos) {
// cutflowFile<<"\\begin{table}[H] \n\\caption{$\\tilde{\\chi}_{1}^{\\pm}\\tilde{\\chi}_{2}^{0}$ decay via $\\tilde{\\tau}$, $[\\tilde{\\chi}_{1}^{\\pm}\\tilde{\\chi}_{2}^{0},\\tilde{\\chi}_{1}^{0}]: [250,150] [GeV]$} \n\\makebox[\\linewidth]{ \n\\renewcommand{\\arraystretch}{0.4} \n\\begin{tabular}{c c c c c} \n\\hline"<<endl;
// cutflowFile<<"& CMS & GAMBIT & GAMBIT/CMS & $\\sigma$-corrected GAMBIT/CMS \\\\ \\hline"<<endl;
// cutflowFile<<"$\\sigma (pp\\to \\tilde{\\chi}_{1}^{\\pm}, \\tilde{\\chi}_{2}^{0})$ &"<<setprecision(4)<<xsec3CMS_250_150<<" $fb$ &"<<setprecision(4)<<xsec()<<"$fb$ &"<<setprecision(4)<< xsec()/xsec3CMS_250_150<<" & 1\\\\ \\hline"<<endl;
// cutflowFile<<"\\multicolumn{5}{c}{Expected events at 35.9 $fb^{-1}$} \\\\ \\hline"<<endl;
// for (size_t i=0; i<NCUTS3; i++) {
// cutflowFile<<cutFlowVector_str3[i]<<"&"<<setprecision(4)<<cutFlowVector3CMS_250_150[i]<<"&"<<setprecision(4)<<cutFlowVector3[i]*xsec_per_event()*luminosity()<<"&"<<setprecision(4)<<cutFlowVector3[i]*xsec_per_event()*luminosity()/cutFlowVector3CMS_250_150[i]<<"&"<<setprecision(4)<<(xsec3CMS_250_150/xsec())*cutFlowVector3[i]*xsec_per_event()*luminosity()/cutFlowVector3CMS_250_150[i]<<"\\\\"<< endl;
// }
// cutflowFile<<"\\hline \\multicolumn{5}{c}{Percentage (\\%)} \\\\ \\hline"<<endl;
// for (size_t i=0; i<NCUTS3; i++) {
// cutflowFile<<cutFlowVector_str3[i]<<"&"<<setprecision(4)<<cutFlowVector3CMS_250_150[i]*100./cutFlowVector3CMS_250_150[1]<<"&"<<setprecision(4)<<cutFlowVector3[i]*100./cutFlowVector3[1]<<"& - & -\\\\"<< endl;
// }
// cutflowFile<<"\\end{tabular} \n} \n\\end{table}"<<endl;
// }
// if (analysis_name().find("600_1") != string::npos) {
// cutflowFile<<"\\begin{table}[H] \n\\caption{$\\tilde{\\chi}_{1}^{\\pm}\\tilde{\\chi}_{2}^{0}$ decay via $\\tilde{\\tau}$, $[\\tilde{\\chi}_{1}^{\\pm}\\tilde{\\chi}_{2}^{0},\\tilde{\\chi}_{1}^{0}]: [600,1] [GeV]$} \n\\makebox[\\linewidth]{ \n\\renewcommand{\\arraystretch}{0.4} \n\\begin{tabular}{c c c c c} \n\\hline"<<endl;
// cutflowFile<<"& CMS & GAMBIT & GAMBIT/CMS & $\\sigma$-corrected GAMBIT/CMS \\\\ \\hline"<<endl;
// cutflowFile<<"$\\sigma (pp\\to \\tilde{\\chi}_{1}^{\\pm}, \\tilde{\\chi}_{2}^{0})$ &"<<setprecision(4)<<xsec3CMS_600_1<<" $fb$ &"<<setprecision(4)<<xsec()<<"$fb$ &"<<setprecision(4)<< xsec()/xsec3CMS_600_1<<" & 1\\\\"<<endl;
// cutflowFile<<"\\multicolumn{5}{c}{Expected events at 35.9 $fb^{-1}$} \\\\ \\hline"<<endl;
// for (size_t i=0; i<NCUTS3; i++) {
// cutflowFile<<cutFlowVector_str3[i]<<"&"<<setprecision(4)<<cutFlowVector3CMS_600_1[i]<<"&"<<setprecision(4)<<cutFlowVector3[i]*xsec_per_event()*luminosity()<<"&"<<setprecision(4)<<cutFlowVector3[i]*xsec_per_event()*luminosity()/cutFlowVector3CMS_600_1[i]<<"&"<<setprecision(4)<<(xsec3CMS_600_1/xsec())*cutFlowVector3[i]*xsec_per_event()*luminosity()/cutFlowVector3CMS_600_1[i]<<"\\\\"<< endl;
// }
// cutflowFile<<"\\hline \\multicolumn{5}{c}{Percentage (\\%)} \\\\ \\hline"<<endl;
// for (size_t i=0; i<NCUTS3; i++) {
// cutflowFile<<cutFlowVector_str3[i]<<"&"<<setprecision(4)<<cutFlowVector3CMS_600_1[i]*100./cutFlowVector3CMS_600_1[1]<<"&"<<setprecision(4)<<cutFlowVector3[i]*100./cutFlowVector3[1]<<"& - & -\\\\"<< endl;
// }
// cutflowFile<<"\\end{tabular} \n} \n\\end{table}"<<endl;
// }
// cutflowFile.close();
//Now fill a results object with the results for each SR
add_result(SignalRegionData(_counters.at("SR1"), 13., {12., 3.}));
add_result(SignalRegionData(_counters.at("SR2"), 18., {18., 4.}));
add_result(SignalRegionData(_counters.at("SR3"), 19., {19., 4.}));
add_result(SignalRegionData(_counters.at("SR4"), 128., {142, 34.}));
add_result(SignalRegionData(_counters.at("SR5"), 18., {22, 5.}));
add_result(SignalRegionData(_counters.at("SR6"), 2., {1, 0.6}));
add_result(SignalRegionData(_counters.at("SR7"), 82., {109, 28.}));
add_result(SignalRegionData(_counters.at("SR8"), 166., {197, 42.}));
}
vector<double> get_mll_mT(vector<vector<const HEPUtils::Particle*>> pair_cont, vector<const HEPUtils::Particle*> leptons, HEPUtils::P4 met, int type) {
vector<double> mll_mT;
vector<vector<double>> mll_mT_container;
for (size_t iPa=0;iPa<pair_cont.size();iPa++) {
double m_ll_temp=(pair_cont.at(iPa).at(0)->mom()+pair_cont.at(iPa).at(1)->mom()).m();
double mT_temp=0;
for (size_t iLe=0;iLe<leptons.size();iLe++) {
if (leptons.at(iLe)!=pair_cont.at(iPa).at(0) && leptons.at(iLe)!=pair_cont.at(iPa).at(1))mT_temp=sqrt(2*met.pT()*leptons.at(iLe)->pT()*(1-cos(leptons.at(iLe)->phi()-met.phi())));
}
double mass=0;
if (type==0)mass=91.2;
if (type==1) {
mass=50.;
if (pair_cont.at(iPa).at(0)->abspid()==15 || pair_cont.at(iPa).at(1)->abspid()==15)mass=60;;
}
vector<double> temp;
temp.push_back(m_ll_temp);
temp.push_back(mT_temp);
temp.push_back(fabs(m_ll_temp-mass));
mll_mT_container.push_back(temp);
}
struct mllComparison {
bool operator() (vector<double> i,vector<double> j) {return (i.at(2)<j.at(2));}
} compare_mll;
if (mll_mT_container.size()>0) {
sort(mll_mT_container.begin(),mll_mT_container.end(),compare_mll);
mll_mT_container.at(0).pop_back();
mll_mT=mll_mT_container.at(0);
}
return mll_mT;
}
double get_mTmin(vector<const HEPUtils::Particle*> leptons, HEPUtils::P4 met) {
vector<double> mT_container;
for (size_t iLe=0;iLe<leptons.size();iLe++) {
mT_container.push_back(sqrt(2*met.pT()*leptons.at(iLe)->pT()*(1-cos(leptons.at(iLe)->phi()-met.phi()))));
}
sort(mT_container.begin(),mT_container.end());
if (mT_container.size()>0)return mT_container.at(0);
else return -1;
}
protected:
void analysis_specific_reset() {
for (auto& pair : _counters) { pair.second.reset(); }
std::fill(cutFlowVector1.begin(), cutFlowVector1.end(), 0);
std::fill(cutFlowVector2.begin(), cutFlowVector2.end(), 0);
std::fill(cutFlowVector3.begin(), cutFlowVector3.end(), 0);
std::fill(cutFlowVector4.begin(), cutFlowVector4.end(), 0);
}
};
// Factory fn
DEFINE_ANALYSIS_FACTORY(CMS_13TeV_MultiLEP_36invfb)
//
// Derived analysis class for the 2Lep0Jets SRs
//
class Analysis_CMS_13TeV_MultiLEP_2SSLep_36invfb : public Analysis_CMS_13TeV_MultiLEP_36invfb {
public:
Analysis_CMS_13TeV_MultiLEP_2SSLep_36invfb() {
set_analysis_name("CMS_13TeV_MultiLEP_2SSLep_36invfb");
}
virtual void collect_results() {
add_result(SignalRegionData(_counters.at("SR1"), 13., {12., 3.}));
add_result(SignalRegionData(_counters.at("SR2"), 18., {18., 4.}));
}
};
// Factory fn
DEFINE_ANALYSIS_FACTORY(CMS_13TeV_MultiLEP_2SSLep_36invfb)
//
// Derived analysis class for the 3Lep SRs
//
class Analysis_CMS_13TeV_MultiLEP_3Lep_36invfb : public Analysis_CMS_13TeV_MultiLEP_36invfb {
public:
Analysis_CMS_13TeV_MultiLEP_3Lep_36invfb() {
set_analysis_name("CMS_13TeV_MultiLEP_3Lep_36invfb");
}
virtual void collect_results() {
add_result(SignalRegionData(_counters.at("SR3"), 19., {19., 4.}));
add_result(SignalRegionData(_counters.at("SR4"), 128., {142, 34.}));
add_result(SignalRegionData(_counters.at("SR5"), 18., {22, 5.}));
add_result(SignalRegionData(_counters.at("SR6"), 2., {1, 0.6}));
add_result(SignalRegionData(_counters.at("SR7"), 82., {109, 28.}));
add_result(SignalRegionData(_counters.at("SR8"), 166., {197, 42.}));
}
};
// Factory fn
DEFINE_ANALYSIS_FACTORY(CMS_13TeV_MultiLEP_3Lep_36invfb)
}
}
Updated on 2022-08-03 at 12:58:08 +0000