file analyses/Analysis_ATLAS_13TeV_2bMET_36invfb.cpp
[No description available]
Namespaces
| Name |
|---|
| Gambit TODO: see if we can use this one: |
| Gambit::ColliderBit |
Classes
| Name | |
|---|---|
| class | Gambit::ColliderBit::MT2 A useful MT2 class for this module. |
| class | Gambit::ColliderBit::Analysis_ATLAS_13TeV_2bMET_36invfb |
Source code
#include <vector>
#include <map>
#include <cmath>
#include <memory>
#include <iomanip>
#include "gambit/ColliderBit/analyses/Analysis.hpp"
#include "gambit/ColliderBit/ATLASEfficiencies.hpp"
#include "gambit/ColliderBit/mt2_bisect.h"
#include "gambit/ColliderBit/lester_mt2_bisect.h"
using namespace std;
// Based on arXiv:1708.09266
// Code by Martin White, January 2018
// Based on ATLAS public code snippet
// Known issues: No lepton isolation cuts applied
// The b tagging working point keeps changing in the ATLAS code snippet, but this is not referred to in the paper
// Have gone with the code snippet version (60% working point for the signal B jets)
//
namespace Gambit
{
namespace ColliderBit
{
/// A useful MT2 class for this module
class MT2
{
public:
MT2(){
MT2tauB=0;
aMT2_BM=0;
}
double MT2tauB;
double aMT2_BM;
};
class Analysis_ATLAS_13TeV_2bMET_36invfb : public Analysis
{
private:
// Variables that hold the number of events passing signal region cuts
std::map<string, EventCounter> _counters = {
{"0L_SRA350", EventCounter("0L_SRA350")},
{"0L_SRA450", EventCounter("0L_SRA450")},
{"0L_SRA550", EventCounter("0L_SRA550")},
{"0L_SRB", EventCounter("0L_SRB")},
{"0L_SRC", EventCounter("0L_SRC")},
// MJW removes these regions for the Feb 2018 MareNostrum scans, since the aMT2 variable is not well-described.
// {"1L_SRA600", EventCounter("1L_SRA600")},
// {"1L_SRA750", EventCounter("1L_SRA750")},
// {"1L_SRA300_2j", EventCounter("1L_SRA300_2j")},
// {"1L_SRB", EventCounter("1L_SRB")},
};
vector<int> cutFlowVector;
vector<string> cutFlowVector_str;
int NCUTS;
public:
// Required detector sim
static constexpr const char* detector = "ATLAS";
static bool sortByPT(const HEPUtils::Jet* jet1, const HEPUtils::Jet* jet2) { return (jet1->pT() > jet2->pT()); }
Analysis_ATLAS_13TeV_2bMET_36invfb()
{
set_analysis_name("ATLAS_13TeV_2bMET_36invfb");
set_luminosity(36.1);
NCUTS=70;
for(int i=0;i<NCUTS;i++)
{
cutFlowVector.push_back(0);
cutFlowVector_str.push_back("");
}
}
// The following section copied from Analysis_ATLAS_1LEPStop_20invfb.cpp
void JetLeptonOverlapRemoval(vector<const HEPUtils::Jet*> &jetvec, vector<const HEPUtils::Particle*> &lepvec, double DeltaRMax)
{
//Routine to do jet-lepton check
//Discards jets if they are within DeltaRMax of a lepton
vector<const HEPUtils::Jet*> Survivors;
for(unsigned int itjet = 0; itjet < jetvec.size(); itjet++)
{
bool overlap = false;
HEPUtils::P4 jetmom=jetvec.at(itjet)->mom();
for(unsigned int itlep = 0; itlep < lepvec.size(); itlep++)
{
HEPUtils::P4 lepmom=lepvec.at(itlep)->mom();
double dR;
dR=jetmom.deltaR_eta(lepmom);
if(fabs(dR) <= DeltaRMax) overlap=true;
}
if(overlap) continue;
Survivors.push_back(jetvec.at(itjet));
}
jetvec=Survivors;
return;
}
void LeptonJetOverlapRemoval(vector<const HEPUtils::Particle*> &lepvec, vector<const HEPUtils::Jet*> &jetvec)
{
//Routine to do lepton-jet check
//Discards leptons if they are within dR of a jet as defined in analysis paper
vector<const HEPUtils::Particle*> Survivors;
for(unsigned int itlep = 0; itlep < lepvec.size(); itlep++)
{
bool overlap = false;
HEPUtils::P4 lepmom=lepvec.at(itlep)->mom();
for(unsigned int itjet= 0; itjet < jetvec.size(); itjet++)
{
HEPUtils::P4 jetmom=jetvec.at(itjet)->mom();
double dR;
double DeltaRMax = std::max(0.1,std::min(0.4, 0.04 + 10 / lepmom.pT()));
dR=jetmom.deltaR_eta(lepmom);
if(fabs(dR) <= DeltaRMax) overlap=true;
}
if(overlap) continue;
Survivors.push_back(lepvec.at(itlep));
}
lepvec=Survivors;
return;
}
void SpecialLeptonJetOverlapRemoval(vector<const HEPUtils::Particle*> &lepvec, vector<const HEPUtils::Jet*> &jetvec)
{
//Routine to do lepton-jet check
//Discards leptons if they are within dR of a jet as defined in analysis paper
vector<const HEPUtils::Particle*> Survivors;
for(unsigned int itlep = 0; itlep < lepvec.size(); itlep++)
{
bool overlap = false;
HEPUtils::P4 lepmom=lepvec.at(itlep)->mom();
for(unsigned int itjet= 0; itjet < jetvec.size(); itjet++)
{
HEPUtils::P4 jetmom=jetvec.at(itjet)->mom();
double dR;
double DeltaRMax = std::min(0.4, 0.04 + 10/lepvec[itlep]->pT());
dR=jetmom.deltaR_eta(lepmom);
if(fabs(dR) <= DeltaRMax) overlap=true;
}
if(overlap) continue;
Survivors.push_back(lepvec.at(itlep));
}
lepvec=Survivors;
return;
}
MT2 MT2helper(vector<const HEPUtils::Jet*> jets, vector<const HEPUtils::Particle*> electrons, vector<const HEPUtils::Particle*> muons, HEPUtils::P4 metVec)
{
MT2 results;
bool passmu = false;
if(muons.size()==1)passmu=true;
bool passel = false;
if(electrons.size()==1)passel=true;
int nJet = jets.size();
if(nJet < 2)return results;
//ATLAS use the two jets with highest MV1 weights
//DELPHES does not have a continuous b weight
//We have all b jets tagged (with 100% efficiency), so can use the two highest pT b jets
//This corresponds to using the 2 b jets that are first in the collection
const HEPUtils::Jet* trueBjet1 = NULL; //need to assign this
const HEPUtils::Jet* trueBjet2 = NULL; //nee to assign this
int nTrueBJets=0;
for(const HEPUtils::Jet* tmpJet: jets)
{
if(tmpJet->btag())
{
trueBjet1=tmpJet;
nTrueBJets++;
break;
}
}
for(const HEPUtils::Jet* tmpJet: jets)
{
if(tmpJet->btag() && tmpJet!=trueBjet1)
{
trueBjet2=tmpJet;
nTrueBJets++;
break;
}
}
if(nTrueBJets<2)return results;
HEPUtils::P4 jet1B, jet2B;
jet1B.setXYZE(trueBjet1->mom().px(), trueBjet1->mom().py(), trueBjet1->mom().pz(), trueBjet1->E());
jet2B.setXYZE(trueBjet2->mom().px(), trueBjet2->mom().py(), trueBjet2->mom().pz(), trueBjet2->E());
HEPUtils::P4 leptontmp;
// double leptonmass = 0;
if(passel)
{
// leptonmass = 0.510998910; //MeV
leptontmp = electrons[0]->mom();
}
else if(passmu)
{
// leptonmass = 105.658367; // MeV
leptontmp = muons[0]->mom();
}
HEPUtils::P4 lepton;
lepton.setXYZE(leptontmp.px(),leptontmp.py(),leptontmp.pz(),leptontmp.E());
HEPUtils::P4 lepton_plus_jet1B;
HEPUtils::P4 lepton_plus_jet2B;
lepton_plus_jet1B = lepton+jet1B;
lepton_plus_jet2B = lepton+jet2B;
double pa_a[3] = { 0, lepton_plus_jet1B.px(), lepton_plus_jet1B.py() };
double pb_a[3] = { 80, jet2B.px(), jet2B.py() };
double pmiss_a[3] = { 0, metVec.px(), metVec.py() };
double mn_a = 0.;
mt2_bisect::mt2 mt2_event_a;
mt2_event_a.set_momenta(pa_a,pb_a,pmiss_a);
mt2_event_a.set_mn(mn_a);
double mt2a = mt2_event_a.get_mt2();
double pa_b[3] = { 0, lepton_plus_jet2B.px(), lepton_plus_jet2B.py() };
double pb_b[3] = { 80, jet1B.px(), jet1B.py() };
double pmiss_b[3] = { 0, metVec.px(), metVec.py() };
double mn_b = 0.;
mt2_bisect::mt2 mt2_event_b;
mt2_event_b.set_momenta(pa_b,pb_b,pmiss_b);
mt2_event_b.set_mn(mn_b);
double mt2b = mt2_event_b.get_mt2();
double aMT2_BM = min(mt2a,mt2b);
results.aMT2_BM=aMT2_BM;
if (nJet > 3)
{
const HEPUtils::Jet* jet3=0;
for(const HEPUtils::Jet* current: jets)
{
if (current == trueBjet1)continue;
if (current == trueBjet2)continue;
jet3 = current;
break;
}
HEPUtils::P4 jet3B;
jet3B.setXYZE(jet3->mom().px(), jet3->mom().py(), jet3->mom().pz(), jet3->mom().E());
double pa_tau[3] = { 0, jet3B.px(), jet3B.py() };
double pb_tau[3] = { 0, lepton.px(), lepton.py() };
double pmiss_tau[3] = { 0, metVec.px(), metVec.py() };
double mn_tau = 0.;
mt2_bisect::mt2 mt2_event_tau;
mt2_event_tau.set_momenta(pa_tau,pb_tau,pmiss_tau);
mt2_event_tau.set_mn(mn_tau);
//ComputeMT2 stuff3(jet3B,lepton,MET,0.,0.);
//double MT2tauB = stuff3.ComputeNumeric();
double MT2tauB = mt2_event_tau.get_mt2();//calcMT2(0,jet3B.Pt(),jet3B.Eta(),jet3B.Phi(),jet3B.E(),0,lepton.Pt(),lepton.Eta(),lepton.Phi(),lepton.E(),MET.Px(),MET.Py(),0);
results.MT2tauB=MT2tauB;
}
return results;
}
void run(const HEPUtils::Event* event)
{
// Get the missing energy and momentum in the event
HEPUtils::P4 metVec = event->missingmom();
double met = event->met();
// Now define vectors of baseline objects, including:
// - retrieval of electron, muon and jets from the event
// - application of basic pT and eta cuts
vector<const HEPUtils::Particle*> electrons;
for (const HEPUtils::Particle* electron : event->electrons())
{
if (electron->pT() > 10.
&& fabs(electron->eta()) < 2.47)
electrons.push_back(electron);
}
// Apply electron efficiency
ATLAS::applyElectronEff(electrons);
vector<const HEPUtils::Particle*> muons;
for (const HEPUtils::Particle* muon : event->muons())
{
if (muon->pT() > 10.
&& fabs(muon->eta()) < 2.7)
muons.push_back(muon);
}
// Apply muon efficiency
ATLAS::applyMuonEff(muons);
//vector<const HEPUtils::Jet*> candJets;
//for (const HEPUtils::Jet* jet : event->jets()) {
//if (jet->pT() > 20.
// && fabs(jet->eta()) < 2.8)
// candJets.push_back(jet);
//}
// Jets
vector<const HEPUtils::Jet*> bJets;
vector<const HEPUtils::Jet*> nonBJets;
// Get b jets
/// @note We assume that b jets have previously been 100% tagged
const std::vector<double> a = {0,10.};
const std::vector<double> b = {0,10000.};
const std::vector<double> c = {0.77}; // set b-tag efficiency to 77%
HEPUtils::BinnedFn2D<double> _eff2d(a,b,c);
for (const HEPUtils::Jet* jet : event->jets("antikt_R04"))
{
bool hasTag=has_tag(_eff2d, fabs(jet->eta()), jet->pT());
if (jet->pT() > 20. && fabs(jet->eta()) < 4.8)
{
if(jet->btag() && hasTag && fabs(jet->eta()) < 2.5 && jet->pT() > 20.)
{
bJets.push_back(jet);
}
else
{
nonBJets.push_back(jet);
}
}
}
// Overlap removal
JetLeptonOverlapRemoval(nonBJets,electrons,0.2);
LeptonJetOverlapRemoval(electrons,nonBJets);
LeptonJetOverlapRemoval(electrons,bJets);
JetLeptonOverlapRemoval(nonBJets,muons,0.2);
SpecialLeptonJetOverlapRemoval(muons,nonBJets);
SpecialLeptonJetOverlapRemoval(muons,bJets);
// Fill a jet-pointer-to-bool map to make it easy to check
// if a given jet is treated as a b-jet in this analysis
map<const HEPUtils::Jet*,bool> analysisBtags;
for (const HEPUtils::Jet* jet : bJets)
{
analysisBtags[jet] = true;
}
for (const HEPUtils::Jet* jet : nonBJets)
{
analysisBtags[jet] = false;
}
// Signal object containers
vector<const HEPUtils::Jet*> signalJets20;
vector<const HEPUtils::Jet*> signalJets35;
vector<const HEPUtils::Particle*> signalElectrons;
vector<const HEPUtils::Particle*> signalMuons;
vector<const HEPUtils::Particle*> signalLeptons;
vector<const HEPUtils::Jet*> signalBJets20;
vector<const HEPUtils::Jet*> signalBJets35;
// Now apply signal jet cuts
for (const HEPUtils::Jet* jet : bJets)
{
if(jet->pT() > 20. && fabs(jet->eta())<2.8)
{
signalJets20.push_back(jet);
if(fabs(jet->eta())<2.5)signalBJets20.push_back(jet);
}
if(jet->pT() > 35. && fabs(jet->eta())<2.8)
{
signalJets35.push_back(jet);
if(fabs(jet->eta())<2.5)signalBJets35.push_back(jet);
}
}
for (const HEPUtils::Jet* jet : nonBJets)
{
if(jet->pT() > 20. && fabs(jet->eta())<2.8)
{
signalJets20.push_back(jet);
}
if(jet->pT() > 35. && fabs(jet->eta())<2.8)
{
signalJets35.push_back(jet);
}
}
// Now order the jet collections by pT
std::sort(signalJets35.begin(), signalJets35.end(), sortByPT);
std::sort(signalBJets35.begin(), signalBJets35.end(), sortByPT);
std::sort(signalJets20.begin(), signalJets20.end(), sortByPT);
std::sort(signalBJets20.begin(), signalBJets20.end(), sortByPT);
for (const HEPUtils::Particle* electron : electrons)
{
if(electron->pT() > 20. && fabs(electron->eta()) < 2.47)
{
signalElectrons.push_back(electron);
signalLeptons.push_back(electron);
}
}
for (const HEPUtils::Particle* muon : muons)
{
if(muon->pT() > 20. && fabs(muon->eta()) < 2.5)
{
signalMuons.push_back(muon);
signalLeptons.push_back(muon);
}
}
HEPUtils::P4 metVecCorr = metVec;
for(const HEPUtils::Particle* lep : signalLeptons)
{
metVecCorr+=lep->mom();
}
// double metCorr = metVecCorr.pT();
//Common Selection
int nJets20 = signalJets20.size();
int nBjets20 = signalBJets20.size();
int nJets35 = signalJets35.size();
int nBjets35 = signalBJets35.size();
bool zeroLep = (signalLeptons.size()==0);
bool oneLep = (signalLeptons.size()==1);
// bool twoLep = ((signalElectrons.size()==2 && muons.size()==0) || (signalMuons.size()==2 && electrons.size()==0)); //DF
double meff2j = met;
double meff = met;
double ht=0;
for(int jet=0;jet<nJets35;jet++)
{
if(jet<2) meff2j += signalJets35[jet]->pT();
meff += signalJets35[jet]->pT();
ht += signalJets35[jet]->pT();
}
double dphib1 = -99.;
double dphib2 = -99.;
if(signalBJets35.size()>0)dphib1=signalBJets35[0]->mom().deltaPhi(metVec);
if(signalBJets35.size()>1)dphib2=signalBJets35[1]->mom().deltaPhi(metVec);
double dphiMin4=9999.;
for(int j=0; j<nJets35; j++)
{
double dPhij=fabs(signalJets35[j]->mom().deltaPhi(metVec));
if(j<=3)dphiMin4= min(dphiMin4, dPhij);
}
double mjj_35 = 0;
double mCT = 0;
double mblmin = 0;
bool bjetsLeading = false;
if(nJets35>=2)
{
mjj_35 = (signalJets35[0]->mom() + signalJets35[1]->mom()).m(); // = mbb for leading-bjets events
double jet1_ET = sqrt(signalJets35[0]->mom().pT()*signalJets35[0]->mom().pT()+signalJets35[0]->mom().m()*signalJets35[0]->mom().m());
double jet2_ET = sqrt(signalJets35[1]->mom().pT()*signalJets35[1]->mom().pT()+signalJets35[1]->mom().m()*signalJets35[1]->mom().m());
double modPTdiff_squared=(signalJets35[0]->mom().px()-signalJets35[1]->mom().px())*(signalJets35[0]->mom().px()-signalJets35[1]->mom().px())
+ (signalJets35[0]->mom().py()-signalJets35[1]->mom().py())*(signalJets35[0]->mom().py()-signalJets35[1]->mom().py());
double mct_squared = pow(jet1_ET+jet2_ET,2)-modPTdiff_squared;
mCT = sqrt(mct_squared);
if(oneLep)
{
if(nBjets35>1) mblmin = std::min( (signalLeptons[0]->mom() + signalBJets35[0]->mom()).m(), (signalLeptons[0]->mom() + signalBJets35[1]->mom()).m());
else if(nBjets35>0) mblmin = (signalLeptons[0]->mom() + signalBJets35[0]->mom()).m();
}
// Check if the two leading jets in signalJets35 have been b-tagged
bjetsLeading = ( analysisBtags.at(signalJets35[0]) && analysisBtags.at(signalJets35[1]) );
}
double mt = 0.;
if(oneLep)mt = sqrt(2.*signalLeptons[0]->pT()*met*(1. - cos(signalLeptons[0]->mom().deltaPhi(metVec))));
// Calculate minimum mT with any of the leading four jets and the met
double mtmin = 9999.;
for(unsigned int jet=0;jet<signalJets35.size();jet++)
{
double mt_tmp = sqrt(2.*signalJets35[jet]->pT()*met*(1. - cos(signalJets35[jet]->mom().deltaPhi(metVec))));
if(mt_tmp<mtmin && jet<=3)mtmin=mt_tmp;
}
double mtminb = 9999.;
for(unsigned int jet=0;jet<signalBJets35.size();jet++)
{
double mt_tmp = sqrt(2.*signalBJets35[jet]->pT()*met*(1. - cos(signalBJets35[jet]->mom().deltaPhi(metVec))));
if(mt_tmp<mtminb && jet<=1)mtminb=mt_tmp;
}
double amt2 = 0; //need to identify the two bjets here
// double mbb = 0;
/*int bj1=-1; int bj2=-1;
for(unsigned int ij=0; ij < signalJets35.size() ; ij++)
{
if( analysisBtags.at(signalJets35[ij]) )
{
if(bj1<0)
{
bj1=ij;
}
else
{
bj2=ij;
break;
}
}
}*/
// Scrap the ATLAS identification of b jets and simply use the signal b jets instead
//cout << "nBjets35 " << nBjets35 << " bj2 " << bj2 << endl;
if(nBjets35==2)
{
// mbb = (signalBJets35[0]->mom() + signalBJets35[1]->mom()).m();
int bj1=0;
int bj2=1;
if(oneLep)
{
float mbl1 = (signalLeptons[0]->mom()+signalBJets35[bj1]->mom()).m();
float mbl2 = (signalLeptons[0]->mom()+signalBJets35[bj2]->mom()).m();
if(mbl1 >= 170. && mbl2 < 170.)
{
// The ATLAS code snippet looks obviously wrong here (doesn't match the paper)
// Have corrected it
// Question: Is the first entry correct?
double pa_a[3] = { (signalLeptons[0]->mom()+signalBJets35[bj2]->mom()).m(), (signalLeptons[0]->mom()+signalBJets35[bj2]->mom()).px(), (signalLeptons[0]->mom()+signalJets35[bj2]->mom()).py() };
double pb_a[3] = { signalJets35[bj1]->mom().m(), signalJets35[bj1]->mom().px(), signalJets35[bj1]->mom().py() };
double pmiss_a[3] = { 0, metVec.px(), metVec.py() };
double mn_a = 0.;
mt2_bisect::mt2 mt2_event_a;
mt2_event_a.set_momenta(pa_a,pb_a,pmiss_a);
mt2_event_a.set_mn(mn_a);
// double amt2 = mt2_event_a.get_mt2();
// Now try new Lester method
// double amt2_new = asymm_mt2_lester_bisect::get_mT2((signalLeptons[0]->mom()+signalJets35[bj2]->mom()).m(), (signalLeptons[0]->mom()+signalJets35[bj2]->mom()).px(), (signalLeptons[0]->mom()+signalJets35[bj2]->mom()).py(), signalJets35[bj1]->mom().m(), signalJets35[bj1]->mom().px(), signalJets35[bj1]->mom().py(), metVec.px(), metVec.py(), 0., 0.);
//cout << "MT2 original " << amt2 << " amt2_new " << amt2_new << endl;
//amt2 = calcMT2(signalLeptons[0]+myjets[bj1], myjets[bj1], metVec);
}
else if(mbl1 < 170. && mbl2 >= 170.)
{
double pa_a[3] = { (signalLeptons[0]->mom()+signalJets35[bj1]->mom()).m(), (signalLeptons[0]->mom()+signalJets35[bj1]->mom()).px(), (signalLeptons[0]->mom()+signalJets35[bj1]->mom()).py() };
double pb_a[3] = {signalJets35[bj2]->mom().m() , signalJets35[bj2]->mom().px(), signalJets35[bj2]->mom().py() };
double pmiss_a[3] = { 0, metVec.px(), metVec.py() };
double mn_a = 0.;
mt2_bisect::mt2 mt2_event_a;
mt2_event_a.set_momenta(pa_a,pb_a,pmiss_a);
mt2_event_a.set_mn(mn_a);
// double amt2 = mt2_event_a.get_mt2();
}
//amt2 = calcMT2(myjets[bj1], signalLeptons[0]+myjets[bj1], metVec);
else if(mbl1 < 170. && mbl2 < 170.)
{
double pa_a[3] = {(signalLeptons[0]->mom()+signalJets35[bj1]->mom()).m() , (signalLeptons[0]->mom()+signalJets35[bj1]->mom()).px(), (signalLeptons[0]->mom()+signalJets35[bj1]->mom()).py() };
double pb_a[3] = {signalJets35[bj2]->mom().m() , signalJets35[bj2]->mom().px(), signalJets35[bj2]->mom().py() };
double pa_b[3] = {(signalLeptons[0]->mom()+signalJets35[bj2]->mom()).m() , (signalLeptons[0]->mom()+signalJets35[bj2]->mom()).px(), (signalLeptons[0]->mom()+signalJets35[bj2]->mom()).py() };
double pb_b[3] = {signalJets35[bj1]->mom().m() , signalJets35[bj1]->mom().px(), signalJets35[bj1]->mom().py() };
double pmiss_a[3] = { 0, metVec.px(), metVec.py() };
double mn_a = 0.;
mt2_bisect::mt2 mt2_event_a;
mt2_bisect::mt2 mt2_event_b;
mt2_event_a.set_momenta(pa_a,pb_a,pmiss_a);
mt2_event_a.set_mn(mn_a);
mt2_event_b.set_momenta(pa_b,pb_b,pmiss_a);
mt2_event_b.set_mn(mn_a);
double amt2_a = mt2_event_a.get_mt2();
double amt2_b = mt2_event_b.get_mt2();
amt2 = std::min(amt2_a, amt2_b);
}
}
}
// Define variables using 20 GeV jets
double ht4=0;
double meff4j = met;
for(size_t jet=0;jet<signalJets20.size();jet++)
{
if(jet<3)continue;
ht4 += signalJets20[jet]->pT();
meff4j += signalJets20[jet]->pT();
}
bool bjetsSublead = (nJets20>=3 && !analysisBtags.at(signalJets20[0])
&& analysisBtags.at(signalJets20[1])
&& ( analysisBtags.at(signalJets20[2])
|| (nJets20>=4 && analysisBtags.at(signalJets20[3]) ) ) );
// NOTE:
// Table 1 in the paper suggests that we should also allow for a b-tagged signalJets20[4]
// in the definition of bjetsSublead above, but the ATLAS code snippet at
// https://www.hepdata.net/record/79317 only check the jets up to signalJets20[3].
// We follow the ATLAS code snippet here.
double dphiMin1 = 0;
if(nJets20>0)dphiMin1 = fabs(signalJets20[0]->mom().deltaPhi(metVec));
double dphiMin2 = 9999.;
for(int jet=0;jet < nJets20;jet++)
{
if(jet>1)continue;
double dphi_tmp = fabs(signalJets20[jet]->mom().deltaPhi(metVec));
if(dphi_tmp < dphiMin2)dphiMin2=dphi_tmp;
}
double mjj_20 = 0.;
double asym = 0.;
if(nJets20 > 1)
{
mjj_20 = (signalJets20[0]->mom() + signalJets20[1]->mom()).m();
asym = (signalJets20[0]->pT()-signalJets20[1]->pT()) / (signalJets20[0]->pT()+signalJets20[1]->pT());
}
double mbb_35 = 0.;
if(nBjets35>=2)mbb_35=(signalBJets35[0]->mom()+signalBJets35[1]->mom()).m();
// Increment cutFlowVector elements
cutFlowVector_str[0] = "No cuts ";
cutFlowVector_str[1] = "b0L-SRA: MET > 250 GeV";
cutFlowVector_str[2] = "b0L-SRA: dPhiMin4 > 0.4";
cutFlowVector_str[3] = "b0L-SRA: MET/meff > 0.25 ";
cutFlowVector_str[4] = "b0L-SRA: 2-4 jets (pT > 25 GeV)";
cutFlowVector_str[5] = "b0L-SRA: pT j0 > 130 GeV";
cutFlowVector_str[6] = "b0L-SRA: pT j1 > 50 GeV";
cutFlowVector_str[7] = "b0L-SRA: pT j3 < 50 GeV";
cutFlowVector_str[8] = "b0L-SRA: 0 leptons";
cutFlowVector_str[9] = "b0L-SRA: 2 b jets ";
cutFlowVector_str[10] = "b0L-SRA: 2 leading b jets ";
cutFlowVector_str[11] = "b0L-SRA: mbb > 200 GeV ";
cutFlowVector_str[12] = "b0L-SRA: mCT > 350 GeV ";
cutFlowVector_str[13] = "b0L-SRA: mCT > 450 GeV ";
cutFlowVector_str[14] = "b0L-SRA: mCT > 550 GeV ";
cutFlowVector_str[15] = "b0L-SRB: pT j1 > 50 GeV ";
cutFlowVector_str[16] = "b0L-SRB: 0 leptons ";
cutFlowVector_str[17] = "b0L-SRB: 2 bjets ";
cutFlowVector_str[18] = "b0L-SRB: dphi(b1,met) < 2.0 ";
cutFlowVector_str[19] = "b0L-SRB: dphi(b2,met) < 2.5 ";
cutFlowVector_str[20] = "b0L-SRB: mTmin(j1-4,met)>250 GeV ";
cutFlowVector_str[21] = "b0L-SRC: Zero leptons ";
cutFlowVector_str[22] = "b0L-SRC: 2-5 jets (pT > 20 GeV) ";
cutFlowVector_str[23] = "b0L-SRC: Leading light jet ";
cutFlowVector_str[24] = "b0L-SRC: dPhi(j1,met) > 2.5";
cutFlowVector_str[25] = "b0L-SRC: dPhi(j2,met) > 0.2";
cutFlowVector_str[26] = "b0L-SRC: Subleading jet b-tagged ";
cutFlowVector_str[27] = "b0L-SRC: 2 b jets ";
cutFlowVector_str[28] = "b0L-SRC: HT4 < 70 ";
cutFlowVector_str[29] = "b0L-SRC: met > 500 GeV ";
cutFlowVector_str[30] = "b0L-SRC: pT(j1) > 500 GeV ";
cutFlowVector_str[31] = "b0L-SRC: meff > 1300 GeV ";
cutFlowVector_str[32] = "b0L-SRC: A > 0.8 ";
cutFlowVector_str[33] = "b0L-SRC: mjj > 200 GeV ";
cutFlowVector_str[34] = "b1L-SRA: 1 lepton ";
cutFlowVector_str[35] = "b1L-SRA: pT(l1) > 27 GeV ";
cutFlowVector_str[36] = "b1L-SRA: >= 2 jets (pT > 35 GeV) ";
cutFlowVector_str[37] = "b1L-SRA: dphi j min > 0.4 ";
cutFlowVector_str[38] = "b1L-SRA: 2 b jets ";
cutFlowVector_str[39] = "b1L-SRA: met > 200 GeV ";
cutFlowVector_str[40] = "b1L-SRA: met/sqrt(HT) ";
cutFlowVector_str[41] = "b1L-SRA: mT > 140 GeV ";
cutFlowVector_str[42] = "b1L-SRA: mblmin < 170 GeV ";
cutFlowVector_str[43] = "b1L-SRA: amT2 > 250 GeV ";
cutFlowVector_str[44] = "b1L-SRA: mbb > 200 GeV ";
cutFlowVector_str[45] = "b1L-SRA: meff > 450 GeV ";
cutFlowVector_str[46] = "b1L-SRA: meff > 600 GeV ";
cutFlowVector_str[47] = "b1L-SRA: meff > 750 GeV ";
cutFlowVector_str[48] = "b1L-SRA300-2j: met/sqrt(HT) ";
cutFlowVector_str[49] = "b1L-SRA300-2j: mT > 140 GeV ";
cutFlowVector_str[50] = "b1L-SRA300-2j: mblmin < 170 GeV ";
cutFlowVector_str[51] = "b1L-SRA300-2j: amt2 > 250 GeV ";
cutFlowVector_str[52] = "b1L-SRA300-2j: mbb > 200 GeV ";
cutFlowVector_str[53] = "b1L-SRA300-2j: meff > 300 GeV ";
cutFlowVector_str[54] = "b1L-SRA300-2j: < 3 jets (pT > 35 GeV) ";
cutFlowVector_str[55] = "b1L-SRB: mT > 120 GeV ";
cutFlowVector_str[56] = "b1L-SRB: mblmin < 170 GeV ";
cutFlowVector_str[57] = "b1L-SRB: amt2 > 200 GeV ";
cutFlowVector_str[58] = "b1L-SRB: mbb < 200 GeV ";
cutFlowVector_str[59] = "b1L-SRB: dphi(b1,met) > 2.0 ";
cutFlowVector_str[60] = "b1L-SRB: mTmin(b1-2,met) > 200 GeV ";
// Apply cuts to each signal region
for(int j=0;j<NCUTS;j++)
{
if(
(j==0) ||
(j==1 && met > 250.) ||
(j==2 && met > 250. && dphiMin4 > 0.4) ||
(j==3 && met > 250. && dphiMin4 > 0.4 && met/meff2j>0.25) ||
(j==4 && met > 250. && dphiMin4 > 0.4 && met/meff2j>0.25 && nJets35>=2 && nJets35<=4) ||
(j==5 && met > 250. && dphiMin4 > 0.4 && met/meff2j>0.25 && nJets35>=2 && nJets35<=4 && signalJets35[0]->pT() > 130.) ||
(j==6 && met > 250. && dphiMin4 > 0.4 && met/meff2j>0.25 && nJets35>=2 && nJets35<=4 && signalJets35[0]->pT() > 130. && signalJets35[1]->pT() > 50.) ||
(j==7 && met > 250. && dphiMin4 > 0.4 && met/meff2j>0.25 && nJets35>=2 && nJets35<=4 && signalJets35[0]->pT() > 130. && signalJets35[1]->pT() > 50. && (nJets35<4 || signalJets35[3]->pT() < 50.)) ||
(j==8 && met > 250. && dphiMin4 > 0.4 && met/meff2j>0.25 && nJets35>=2 && nJets35<=4 && signalJets35[0]->pT() > 130. && signalJets35[1]->pT() > 50. && (nJets35<4 || signalJets35[3]->pT() < 50.) && zeroLep) ||
(j==9 && met > 250. && dphiMin4 > 0.4 && met/meff2j>0.25 && nJets35>=2 && nJets35<=4 && signalJets35[0]->pT() > 130. && signalJets35[1]->pT() > 50. && (nJets35<4 || signalJets35[3]->pT() < 50.) && zeroLep && nBjets35==2) ||
(j==10 && met > 250. && dphiMin4 > 0.4 && met/meff2j>0.25 && nJets35>=2 && nJets35<=4 && signalJets35[0]->pT() > 130. && signalJets35[1]->pT() > 50. && (nJets35<4 || signalJets35[3]->pT() < 50.) && zeroLep && nBjets35==2 && bjetsLeading) ||
(j==11 && met > 250. && dphiMin4 > 0.4 && met/meff2j>0.25 && nJets35>=2 && nJets35<=4 && signalJets35[0]->pT() > 130. && signalJets35[1]->pT() > 50. && (nJets35<4 || signalJets35[3]->pT() < 50.) && zeroLep && nBjets35==2 && bjetsLeading && mjj_35 > 200.) ||
(j==12 && met > 250. && dphiMin4 > 0.4 && met/meff2j>0.25 && nJets35>=2 && nJets35<=4 && signalJets35[0]->pT() > 130. && signalJets35[1]->pT() > 50. && (nJets35<4 || signalJets35[3]->pT() < 50.) && zeroLep && nBjets35==2 && bjetsLeading && mjj_35 > 200. && mCT > 350.) ||
(j==13 && met > 250. && dphiMin4 > 0.4 && met/meff2j>0.25 && nJets35>=2 && nJets35<=4 && signalJets35[0]->pT() > 130. && signalJets35[1]->pT() > 50. && (nJets35<4 || signalJets35[3]->pT() < 50.) && zeroLep && nBjets35==2 && bjetsLeading && mjj_35 > 200. && mCT > 450.) ||
(j==14 && met > 250. && dphiMin4 > 0.4 && met/meff2j>0.25 && nJets35>=2 && nJets35<=4 && signalJets35[0]->pT() > 130. && signalJets35[1]->pT() > 50. && (nJets35<4 || signalJets35[3]->pT() < 50.) && zeroLep && nBjets35==2 && bjetsLeading && mjj_35 > 200. && mCT > 550.) ||
// b0L-SRB
(j==15 && met > 250. && dphiMin4 > 0.4 && nJets35>=2 && nJets35<=4 && signalJets35[1]->pT() > 50.) ||
(j==16 && met > 250. && dphiMin4 > 0.4 && nJets35>=2 && nJets35<=4 && signalJets35[1]->pT() > 50. && zeroLep) ||
(j==17 && met > 250. && dphiMin4 > 0.4 && nJets35>=2 && nJets35<=4 && signalJets35[1]->pT() > 50. && zeroLep && nBjets35==2) ||
(j==18 && met > 250. && dphiMin4 > 0.4 && nJets35>=2 && nJets35<=4 && signalJets35[1]->pT() > 50. && zeroLep && nBjets35==2 && dphib1 < 2.0) ||
(j==19 && met > 250. && dphiMin4 > 0.4 && nJets35>=2 && nJets35<=4 && signalJets35[1]->pT() > 50. && zeroLep && nBjets35==2 && dphib1 < 2.0 && dphib2 < 2.5) ||
(j==20 && met > 250. && dphiMin4 > 0.4 && nJets35>=2 && nJets35<=4 && signalJets35[1]->pT() > 50. && zeroLep && nBjets35==2 && dphib1 < 2.0 && dphib2 < 2.5 && mtmin > 250.) ||
// b0L-SRC
(j==21 && zeroLep) ||
(j==22 && zeroLep && nJets20>=2 && nJets20<=5) ||
(j==23 && zeroLep && nJets20>=2 && nJets20<=5 && !analysisBtags.at(signalJets20[0])) ||
(j==24 && zeroLep && nJets20>=2 && nJets20<=5 && !analysisBtags.at(signalJets20[0]) && dphiMin1 > 2.5) ||
(j==25 && zeroLep && nJets20>=2 && nJets20<=5 && !analysisBtags.at(signalJets20[0]) && dphiMin1 > 2.5 && dphiMin2 > 0.2) ||
(j==26 && zeroLep && nJets20>=2 && nJets20<=5 && bjetsSublead && dphiMin1 > 2.5 && dphiMin2 > 0.2) ||
(j==27 && zeroLep && nJets20>=2 && nJets20<=5 && bjetsSublead && dphiMin1 > 2.5 && dphiMin2 > 0.2 && nBjets20==2) ||
(j==28 && zeroLep && nJets20>=2 && nJets20<=5 && bjetsSublead && dphiMin1 > 2.5 && dphiMin2 > 0.2 && nBjets20==2 && ht4 < 70.) ||
(j==29 && zeroLep && nJets20>=2 && nJets20<=5 && bjetsSublead && dphiMin1 > 2.5 && dphiMin2 > 0.2 && nBjets20==2 && ht4 < 70. && met > 500.) ||
(j==30 && zeroLep && nJets20>=2 && nJets20<=5 && bjetsSublead && dphiMin1 > 2.5 && dphiMin2 > 0.2 && nBjets20==2 && ht4 < 70. && met > 500. && signalJets20[0]->pT() > 500.) ||
(j==31 && zeroLep && nJets20>=2 && nJets20<=5 && bjetsSublead && dphiMin1 > 2.5 && dphiMin2 > 0.2 && nBjets20==2 && ht4 < 70. && met > 500. && signalJets20[0]->pT() > 500. && meff4j > 1300.) ||
(j==32 && zeroLep && nJets20>=2 && nJets20<=5 && bjetsSublead && dphiMin1 > 2.5 && dphiMin2 > 0.2 && nBjets20==2 && ht4 < 70. && met > 500. && signalJets20[0]->pT() > 500. && meff4j > 1300. && asym > 0.8) ||
(j==33 && zeroLep && nJets20>=2 && nJets20<=5 && bjetsSublead && dphiMin1 > 2.5 && dphiMin2 > 0.2 && nBjets20==2 && ht4 < 70. && met > 500. && signalJets20[0]->pT() > 500. && meff4j > 1300. && asym > 0.8 && mjj_20 > 200.) ||
// b1L-SRA
(j==34 && oneLep) ||
(j==35 && oneLep && signalLeptons[0]->pT() > 27.) ||
(j==36 && oneLep && signalLeptons[0]->pT() > 27. && nJets35>=2) ||
(j==37 && oneLep && signalLeptons[0]->pT() > 27. && nJets35>=2 && dphiMin4 > 0.4) ||
(j==38 && oneLep && signalLeptons[0]->pT() > 27. && nJets35>=2 && dphiMin4 > 0.4 && nBjets35==2) ||
(j==39 && oneLep && signalLeptons[0]->pT() > 27. && nJets35>=2 && dphiMin4 > 0.4 && nBjets35==2 && met > 200.) ||
(j==40 && oneLep && signalLeptons[0]->pT() > 27. && nJets35>=2 && dphiMin4 > 0.4 && nBjets35==2 && met > 200. && met/sqrt(ht) > 8) ||
(j==41 && oneLep && signalLeptons[0]->pT() > 27. && nJets35>=2 && dphiMin4 > 0.4 && nBjets35==2 && met > 200. && met/sqrt(ht) > 8 && mt > 140.) ||
(j==42 && oneLep && signalLeptons[0]->pT() > 27. && nJets35>=2 && dphiMin4 > 0.4 && nBjets35==2 && met > 200. && met/sqrt(ht) > 8 && mt > 140. && mblmin < 170) ||
(j==43 && oneLep && signalLeptons[0]->pT() > 27. && nJets35>=2 && dphiMin4 > 0.4 && nBjets35==2 && met > 200. && met/sqrt(ht) > 8 && mt > 140. && mblmin < 170 && amt2 > 250) ||
(j==44 && oneLep && signalLeptons[0]->pT() > 27. && nJets35>=2 && dphiMin4 > 0.4 && nBjets35==2 && met > 200. && met/sqrt(ht) > 8 && mt > 140. && mblmin < 170 && amt2 > 250 && mbb_35 > 200.) ||
(j==45 && oneLep && signalLeptons[0]->pT() > 27. && nJets35>=2 && dphiMin4 > 0.4 && nBjets35==2 && met > 200. && met/sqrt(ht) > 8 && mt > 140. && mblmin < 170 && amt2 > 250 && mbb_35 > 200. && meff > 450.) ||
(j==46 && oneLep && signalLeptons[0]->pT() > 27. && nJets35>=2 && dphiMin4 > 0.4 && nBjets35==2 && met > 200. && met/sqrt(ht) > 8 && mt > 140. && mblmin < 170 && amt2 > 250 && mbb_35 > 200. && meff > 600.) ||
(j==47 && oneLep && signalLeptons[0]->pT() > 27. && nJets35>=2 && dphiMin4 > 0.4 && nBjets35==2 && met > 200. && met/sqrt(ht) > 8 && mt > 140. && mblmin < 170 && amt2 > 250 && mbb_35 > 200. && meff > 750.) ||
// b1L-SRA300-2j
(j==48 && oneLep && signalLeptons[0]->pT() > 27. && nJets35>=2 && dphiMin4 > 0.4 && nBjets35==2 && met > 200. && met/sqrt(ht) > 8) ||
(j==49 && oneLep && signalLeptons[0]->pT() > 27. && nJets35>=2 && dphiMin4 > 0.4 && nBjets35==2 && met > 200. && met/sqrt(ht) > 8 && mt > 140.) ||
(j==50 && oneLep && signalLeptons[0]->pT() > 27. && nJets35>=2 && dphiMin4 > 0.4 && nBjets35==2 && met > 200. && met/sqrt(ht) > 8 && mt > 140. && mblmin < 170.) ||
(j==51 && oneLep && signalLeptons[0]->pT() > 27. && nJets35>=2 && dphiMin4 > 0.4 && nBjets35==2 && met > 200. && met/sqrt(ht) > 8 && mt > 140. && mblmin < 170. && amt2 > 250.) ||
(j==52 && oneLep && signalLeptons[0]->pT() > 27. && nJets35>=2 && dphiMin4 > 0.4 && nBjets35==2 && met > 200. && met/sqrt(ht) > 8 && mt > 140. && mblmin < 170. && amt2 > 250. && mbb_35 > 200.) ||
(j==53 && oneLep && signalLeptons[0]->pT() > 27. && nJets35>=2 && dphiMin4 > 0.4 && nBjets35==2 && met > 200. && met/sqrt(ht) > 8 && mt > 140. && mblmin < 170. && amt2 > 250. && mbb_35 > 200. && meff>300.) ||
(j==54 && oneLep && signalLeptons[0]->pT() > 27. && nJets35>=2 && dphiMin4 > 0.4 && nBjets35==2 && met > 200. && met/sqrt(ht) > 8 && mt > 140. && mblmin < 170. && amt2 > 250. && mbb_35 > 200. && meff>300. && nJets35==2) ||
// b1L-SRB
(j==55 && oneLep && signalLeptons[0]->pT() > 27. && nJets35>=2 && dphiMin4 > 0.4 && nBjets35==2 && met > 200. && met/sqrt(ht) > 8 && mt > 120.) ||
(j==56 && oneLep && signalLeptons[0]->pT() > 27. && nJets35>=2 && dphiMin4 > 0.4 && nBjets35==2 && met > 200. && met/sqrt(ht) > 8 && mt > 120. && mblmin < 170.) ||
(j==57 && oneLep && signalLeptons[0]->pT() > 27. && nJets35>=2 && dphiMin4 > 0.4 && nBjets35==2 && met > 200. && met/sqrt(ht) > 8 && mt > 120. && mblmin < 170. && amt2 > 200.) ||
(j==58 && oneLep && signalLeptons[0]->pT() > 27. && nJets35>=2 && dphiMin4 > 0.4 && nBjets35==2 && met > 200. && met/sqrt(ht) > 8 && mt > 120. && mblmin < 170. && amt2 > 200. && mbb_35 < 200.) ||
(j==59 && oneLep && signalLeptons[0]->pT() > 27. && nJets35>=2 && dphiMin4 > 0.4 && nBjets35==2 && met > 200. && met/sqrt(ht) > 8 && mt > 120. && mblmin < 170. && amt2 > 200. && mbb_35 < 200. && fabs(signalBJets35[0]->mom().deltaPhi(metVec)) > 2.0) ||
(j==60 && oneLep && signalLeptons[0]->pT() > 27. && nJets35>=2 && dphiMin4 > 0.4 && nBjets35==2 && met > 200. && met/sqrt(ht) > 8 && mt > 120. && mblmin < 170. && amt2 > 200. && mbb_35 < 200. && fabs(signalBJets35[0]->mom().deltaPhi(metVec)) > 2.0 && mtminb > 200.)
)cutFlowVector[j]++;
}
// Now increment signal region variables
if(met > 250. && dphiMin4 > 0.4 && met/meff2j>0.25 && nJets35>=2 && nJets35<=4 && signalJets35[0]->pT() > 130. && signalJets35[1]->pT() > 50. && (nJets35<4 || signalJets35[3]->pT() < 50.) && zeroLep && nBjets35==2 && bjetsLeading && mjj_35 > 200. && mCT > 550.) _counters.at("0L_SRA550").add_event(event);
if(met > 250. && dphiMin4 > 0.4 && met/meff2j>0.25 && nJets35>=2 && nJets35<=4 && signalJets35[0]->pT() > 130. && signalJets35[1]->pT() > 50. && (nJets35<4 || signalJets35[3]->pT() < 50.) && zeroLep && nBjets35==2 && bjetsLeading && mjj_35 > 200. && mCT > 450.) _counters.at("0L_SRA450").add_event(event);
if(met > 250. && dphiMin4 > 0.4 && met/meff2j>0.25 && nJets35>=2 && nJets35<=4 && signalJets35[0]->pT() > 130. && signalJets35[1]->pT() > 50. && (nJets35<4 || signalJets35[3]->pT() < 50.) && zeroLep && nBjets35==2 && bjetsLeading && mjj_35 > 200. && mCT > 350.) _counters.at("0L_SRA350").add_event(event);
if(met > 250. && dphiMin4 > 0.4 && nJets35>=2 && nJets35<=4 && signalJets35[1]->pT() > 50. && zeroLep && nBjets35==2 && dphib1 < 2.0 && dphib2 < 2.5 && mtmin > 250.) _counters.at("0L_SRB").add_event(event);
if(zeroLep && nJets20>=2 && nJets20<=5 && bjetsSublead && dphiMin1 > 2.5 && dphiMin2 > 0.2 && nBjets20==2 && ht4 < 70. && met > 500. && signalJets20[0]->pT() > 500. && meff4j > 1300. && asym > 0.8 && mjj_20 > 200.) _counters.at("0L_SRC").add_event(event);
// Removed due to issue with aMT2 variable
// if(oneLep && signalLeptons[0]->pT() > 27. && nJets35>=2 && dphiMin4 > 0.4 && nBjets35==2 && met > 200. && met/sqrt(ht) > 8 && mt > 140. && mblmin < 170 && amt2 > 250 && mbb_35 > 200. && meff > 600.) _counters.at("1L_SRA600").add_event(event);
// if(oneLep && signalLeptons[0]->pT() > 27. && nJets35>=2 && dphiMin4 > 0.4 && nBjets35==2 && met > 200. && met/sqrt(ht) > 8 && mt > 140. && mblmin < 170 && amt2 > 250 && mbb_35 > 200. && meff > 750.) _counters.at("1L_SRA750").add_event(event);
// if(oneLep && signalLeptons[0]->pT() > 27. && nJets35>=2 && dphiMin4 > 0.4 && nBjets35==2 && met > 200. && met/sqrt(ht) > 8 && mt > 140. && mblmin < 170. && amt2 > 250. && mbb_35 > 200. && meff>300. && nJets35==2) _counters.at("1L_SRA300_2j").add_event(event);
// if(oneLep && signalLeptons[0]->pT() > 27. && nJets35>=2 && dphiMin4 > 0.4 && nBjets35==2 && met > 200. && met/sqrt(ht) > 8 && mt > 120. && mblmin < 170. && amt2 > 200. && mbb_35 < 200. && fabs(signalBJets35[0]->mom().deltaPhi(metVec)) > 2.0 && mtminb > 200.) _counters.at("1L_SRB").add_event(event);
return;
}
/// Combine the variables of another copy of this analysis (typically on another thread) into this one.
void combine(const Analysis* other)
{
const Analysis_ATLAS_13TeV_2bMET_36invfb* specificOther
= dynamic_cast<const Analysis_ATLAS_13TeV_2bMET_36invfb*>(other);
for (auto& pair : _counters) { pair.second += specificOther->_counters.at(pair.first); }
if (NCUTS != specificOther->NCUTS) NCUTS = specificOther->NCUTS;
for (int j=0; j<NCUTS; j++)
{
cutFlowVector[j] += specificOther->cutFlowVector[j];
cutFlowVector_str[j] = specificOther->cutFlowVector_str[j];
}
}
void collect_results()
{
// double scale_by=1.;
// cout << "-------------------------------------------------------------------------------------------------------------------------------------------------"<<endl;
// cout << "CUT FLOW: ATLAS multi lepton paper "<<endl;
// cout << "-------------------------------------------------------------------------------------------------------------------------------------------------"<<endl;
// cout << left << setw(45) << "CUT" << right << setw(20) << "RAW" << setw(20) << "SCALED" << setw(20) << "%" << setw(20) << "clean adj RAW"<< setw(20) << "clean adj %" << std::endl;
// for (int j=0; j<NCUTS; j++) {
// cout << left << setw(45) << right << cutFlowVector_str[j].c_str() << setw(20) << cutFlowVector[j] << setw(20) << cutFlowVector[j]*scale_by << setw(20) << 100.*cutFlowVector[j]/cutFlowVector[0] << "%" << setw(20) << cutFlowVector[j]*scale_by << setw(20) << 100.*cutFlowVector[j]/cutFlowVector[0]<< "%" << std::endl;
// }
// cout << "-------------------------------------------------------------------------------------------------------------------------------------------------"<<endl;
// add_result(SignalRegionData("SR label", n_obs, {n_sig_MC, n_sig_MC_sys}, {n_bkg, n_bkg_err}));
add_result(SignalRegionData(_counters.at("0L_SRA350"), 81., { 70., 13.}));
add_result(SignalRegionData(_counters.at("0L_SRA450"), 24., { 22., 5.}));
add_result(SignalRegionData(_counters.at("0L_SRA550"), 10., { 7.2, 1.5}));
add_result(SignalRegionData(_counters.at("0L_SRB"), 45., { 37., 7.}));
add_result(SignalRegionData(_counters.at("0L_SRC"), 7., { 5.5, 1.5}));
// MJW removes these regions for the Feb 2018 MareNostrum scans, since the aMT2 variable is not well-described.
/*
add_result(SignalRegionData(_counters.at("1L_SRA600"), 21., { 24., 6.}));
add_result(SignalRegionData(_counters.at("1L_SR750"), 13., { 15., 4.}));
add_result(SignalRegionData(_counters.at("1L_SR300-2j"), 12., { 6.7, 2.3}));
add_result(SignalRegionData(_counters.at("1L_SRB"), 69., { 53., 12.}));
*/
return;
}
void analysis_specific_reset()
{
for (auto& pair : _counters) { pair.second.reset(); }
std::fill(cutFlowVector.begin(), cutFlowVector.end(), 0);
}
};
DEFINE_ANALYSIS_FACTORY(ATLAS_13TeV_2bMET_36invfb)
}
}
Updated on 2024-07-18 at 13:53:34 +0000