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ALPHABET.cc
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ALPHABET.cc
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#include "../src/plotterUtils.cc"
#include "../src/skimSamples.cc"
#include "../src/definitions.cc" //all root dependencies in here
#include "../src/RA2bTree.cc"
#include "../src/BTagSF.h"
#include <vector>
#include <map>
#include <iostream>
#include <sstream>
#include <assert.h>
using namespace std;
int main(int argc, char** argv){
int region(0); region = atoi(argv[1]); // 0 lepton, 1D signal, 2D signal, single muon, single electron, photon
TString Year(argv[2]); // MC2016 for example
int runVeto(0); runVeto = atoi(argv[3]); // 1: Remove events that overlap with resolved
int mass2D(0); mass2D = atoi(argv[4]); // For running over signal, NLSP mass
std::string mass2D_string = std::to_string(mass2D);
string yearStr = "2016"; if (Year=="MC2017") yearStr = "2017"; if (Year=="MC2018") yearStr = "2018";
setMasses(mass2D_string,"1");
bool runMC = true;
bool runData = true;
bool applySFs_ = true; // btag SFs, SFs for photons, electrons, and muons - only used for MC/data comparisons
bool runFullSIM = false; // Set to true for 1D T5HH
bool saveBoostedEvt = false; // Saves the boosted event counts in the analysis regions for overlap studies (with WX)
string outDir_evtCount = "../src/evtCount/boost/";
bool debugPrint = false;
// Quick trick to run either data or MC
if (region==0) {
if (mass2D==0) { runMC = true; runData = false; }
else if (mass2D==1) { runMC = false; runData = true; }
}
else if (region==1 || region==2) runData=false; // don't run data for SUSY signals
if (region==0 || region==1 || region==2) applySFs_ = false;
// if (region==1 || region==2) applySFs_ = false; //toggle if doing data/MC comparisons for 0-lepton region
skimSamples* skims_;
if (region == 0 ) skims_ = new skimSamples(skimSamples::kSignal, Year, mass2D);
else if (region == 1 ) skims_ = new skimSamples(skimSamples::k1DSignal, Year, mass2D);
else if (region == 2 ) skims_ = new skimSamples(skimSamples::k2DSignal, Year, mass2D);
else if (region == 3 ) skims_ = new skimSamples(skimSamples::kSLm, Year, mass2D);
else if (region == 4 ) skims_ = new skimSamples(skimSamples::kSLe, Year, mass2D);
else if (region == 5 ) skims_ = new skimSamples(skimSamples::kPhoton, Year, mass2D);
else assert(1);
skimSamples skims = *skims_;
typedef bool(*cuts)(RA2bTree*);
vector<cuts> baselineCuts;
if (region == 0 || region == 1 || region == 2) baselineCuts.push_back(*boostedBaselineCut<RA2bTree>);
else if (region == 3) baselineCuts.push_back(*singleMuBaselineCut<RA2bTree>);
else if (region == 4) baselineCuts.push_back(*singleEleBaselineCut<RA2bTree>);
else if (region == 5) baselineCuts.push_back(*photonBaselineCut<RA2bTree>);
else assert(1);
TString regionName=""; TString cutName="_"; TString dataCut = "";
if (region == 1) regionName = "1DTChiHH";
if (region == 1 && runFullSIM) regionName = "1DT5HH_FullSIM";
else if (region == 2 && mass2D<810) regionName = "2DTChiHH"; //for datacards
else if (region == 2 && mass2D>810) regionName = "2DT5HH"; //for datacards
else if (region == 3) regionName="singleMu";
else if (region == 4) regionName="singleEle";
else if (region == 5) regionName="photon";
if (runVeto) cutName = "_resVeto_";
if (runData) dataCut = "_data";
cout <<"In ALPHABET region: "<<regionName<<", veto?: "<<runVeto<<endl;
string out_dir = "./";
TString fileName = "ALPHABET"+Year+"_V18_"+regionName+dataCut+cutName+mass2D_string+".root";
TFile* outputFile = new TFile(fileName,"RECREATE");
typedef plot<RA2bTree> plot; vector<vector<plot> > plots; //so many are useless...
double mJbins[4]={baselineMassLow,HmassWindowLow,HmassWindowHigh,baselineMassHigh};
double METbinsPhoton[5]={200.,300.,500.,700.,1400.};
double METbinsExtra[6]={300.,400.,500.,600.,700.,1400.};
double METbins[4]={300.,500.,700.,1400.};
double METbinsother[9]={300.,350.,400.,450.,500.,600.,700.,900.,1400.};
plot METPhoton_Plot(*fillMET<RA2bTree>,"METPhoton","MET [GeV]",4,METbinsPhoton);
plot MET_Plot(*fillMET<RA2bTree>,"MET","MET [GeV]",3,METbins);
plot HT_Plot(*fillHT<RA2bTree>,"HT","HT [GeV]",100,0.,5000.);
plot METall_Plot(*fillMET<RA2bTree>,"METall","MET [GeV]",100,0.,2500.);
plot METother_Plot(*fillMET<RA2bTree>,"METother","MET [GeV]",8,METbinsother);
plot MET5_Plot(*fillMET<RA2bTree>,"MET5","MET [GeV]",5,METbinsExtra);
plot J1pt_Ptplot(*fillLeadingJetPt<RA2bTree>,"J1pt_Pt","p_{T,J} [GeV]",50,300.,1300.);
plot J1pt_Mplot(*fillLeadingJetMass<RA2bTree>,"J1pt_M","m_{J} [GeV]",80,60.,260.);
plot J1_M_jetBins(*fillLeadingJetMass<RA2bTree>,"J1_M_jetBins","m_{J} [GeV]",3,mJbins);
plot J2pt_Ptplot(*fillSubLeadingJetPt<RA2bTree>,"J2pt_Pt","p_{T,J} [GeV]",50,300.,1300.);
plot J2pt_Mplot(*fillSubLeadingJetMass<RA2bTree>,"J2pt_M","m_{J} [GeV]",80,60.,260.);
plot J2_M_jetBins(*fillSubLeadingJetMass<RA2bTree>,"J2_M_jetBins","m_{J} [GeV]",3,mJbins);
plot J1_deepbbtag(*fillLeadingdeepBBtag<RA2bTree>,"LeadDeepBBTag","Lead jet deep bb-tag",50,0.0,1.0);
plot J2_deepbbtag(*fillSubLeadingdeepBBtag<RA2bTree>,"SubLeadDeepBBTag","Sub-lead jet deep bb-tag",50,0.0,1.0);
plot numAK8(*fillNAK8Jets<RA2bTree>,"numAK8","Number AK8 jets with p_{T}>300 GeV",10,0.,10.);
plot numAK4(*fillNJets<RA2bTree>,"numAK4","Number AK4 jets with p_{T}>30 GeV",20,0.,20.);
plot numGenH(*bothJetsGen<RA2bTree>,"numGenH","Number gen-matched H AK8 jets as lead or sublead",3,0.,3.);
TH2F * h_j1vj2_mass_baseline = new TH2F("j1vj2_mass_baseline",";J2 soft-drop mass [GeV]; J1 soft-drop mass [GeV]",400,60, 260, 400, 60, 260);
TH2F * h_j1vj2_mass_0H = new TH2F("j1vj2_mass_0H",";J2 soft-drop mass [GeV]; J1 soft-drop mass [GeV]",400,60, 260, 400, 60, 260);
TH2F * h_j1vj2_mass_1H = new TH2F("j1vj2_mass_1H",";J2 soft-drop mass [GeV]; J1 soft-drop mass [GeV]",400,60, 260, 400, 60, 260);
TH2F * h_j1vj2_mass_2H = new TH2F("j1vj2_mass_2H",";J2 soft-drop mass [GeV]; J1 soft-drop mass [GeV]",400,60, 260, 400, 60, 260);
vector<plot> baselinePlots;
vector<plot> doubletagSRPlots;
vector<plot> doubletagSBPlots;
vector<plot> tagSRPlots;
vector<plot> tagSBPlots;
vector<plot> antitagSRPlots;
vector<plot> antitagSBPlots;
vector<plot> antitagBTagPlots; //this is BTagsT>0, used for the MET shape
baselinePlots.push_back(plot(MET_Plot));
doubletagSRPlots.push_back(plot(MET_Plot));
doubletagSBPlots.push_back(plot(MET_Plot));
tagSRPlots.push_back(plot(MET_Plot));
tagSBPlots.push_back(plot(MET_Plot));
antitagSRPlots.push_back(plot(MET_Plot));
antitagSBPlots.push_back(plot(MET_Plot));
antitagBTagPlots.push_back(plot(MET_Plot));
baselinePlots.push_back(plot(J1pt_Ptplot));
baselinePlots.push_back(plot(J2pt_Ptplot));
baselinePlots.push_back(plot(J1pt_Mplot));
baselinePlots.push_back(plot(J2pt_Mplot));
baselinePlots.push_back(plot(J1_deepbbtag));
baselinePlots.push_back(plot(J2_deepbbtag));
baselinePlots.push_back(plot(numAK8));
baselinePlots.push_back(plot(numAK4));
baselinePlots.push_back(plot(numGenH));
doubletagSRPlots.push_back(plot(J1pt_Ptplot));
doubletagSRPlots.push_back(plot(J2pt_Ptplot));
doubletagSRPlots.push_back(plot(J1pt_Mplot));
doubletagSRPlots.push_back(plot(J2pt_Mplot));
doubletagSRPlots.push_back(plot(J1_deepbbtag));
doubletagSRPlots.push_back(plot(J2_deepbbtag));
doubletagSRPlots.push_back(plot(numAK8));
doubletagSRPlots.push_back(plot(numAK4));
doubletagSRPlots.push_back(plot(numGenH));
doubletagSBPlots.push_back(plot(J1pt_Ptplot));
doubletagSBPlots.push_back(plot(J2pt_Ptplot));
doubletagSBPlots.push_back(plot(J1pt_Mplot));
doubletagSBPlots.push_back(plot(J2pt_Mplot));
doubletagSBPlots.push_back(plot(J1_deepbbtag));
doubletagSBPlots.push_back(plot(J2_deepbbtag));
doubletagSBPlots.push_back(plot(numAK8));
doubletagSBPlots.push_back(plot(numAK4));
doubletagSBPlots.push_back(plot(numGenH));
tagSRPlots.push_back(plot(J1pt_Ptplot));
tagSRPlots.push_back(plot(J2pt_Ptplot));
tagSRPlots.push_back(plot(J1pt_Mplot));
tagSRPlots.push_back(plot(J2pt_Mplot));
tagSRPlots.push_back(plot(J1_deepbbtag));
tagSRPlots.push_back(plot(J2_deepbbtag));
tagSRPlots.push_back(plot(numAK8));
tagSRPlots.push_back(plot(numAK4));
tagSRPlots.push_back(plot(numGenH));
tagSBPlots.push_back(plot(J1pt_Ptplot));
tagSBPlots.push_back(plot(J2pt_Ptplot));
tagSBPlots.push_back(plot(J1pt_Mplot));
tagSBPlots.push_back(plot(J2pt_Mplot));
tagSBPlots.push_back(plot(J1_deepbbtag));
tagSBPlots.push_back(plot(J2_deepbbtag));
tagSBPlots.push_back(plot(numAK8));
tagSBPlots.push_back(plot(numAK4));
tagSBPlots.push_back(plot(numGenH));
antitagSRPlots.push_back(plot(J1pt_Ptplot));
antitagSRPlots.push_back(plot(J2pt_Ptplot));
antitagSRPlots.push_back(plot(J1pt_Mplot));
antitagSRPlots.push_back(plot(J2pt_Mplot));
antitagSRPlots.push_back(plot(J1_deepbbtag));
antitagSRPlots.push_back(plot(J2_deepbbtag));
antitagSRPlots.push_back(plot(numAK8));
antitagSRPlots.push_back(plot(numAK4));
antitagSRPlots.push_back(plot(numGenH));
antitagSBPlots.push_back(plot(J1pt_Ptplot));
antitagSBPlots.push_back(plot(J2pt_Ptplot));
antitagSBPlots.push_back(plot(J1pt_Mplot));
antitagSBPlots.push_back(plot(J2pt_Mplot));
antitagSBPlots.push_back(plot(J1_deepbbtag));
antitagSBPlots.push_back(plot(J2_deepbbtag));
antitagSBPlots.push_back(plot(numAK8));
antitagSBPlots.push_back(plot(numAK4));
antitagSBPlots.push_back(plot(numGenH));
antitagBTagPlots.push_back(plot(J1pt_Ptplot));
antitagBTagPlots.push_back(plot(J2pt_Ptplot));
antitagBTagPlots.push_back(plot(J1pt_Mplot));
antitagBTagPlots.push_back(plot(J2pt_Mplot));
antitagBTagPlots.push_back(plot(J1_deepbbtag));
antitagBTagPlots.push_back(plot(J2_deepbbtag));
antitagBTagPlots.push_back(plot(numAK8));
antitagBTagPlots.push_back(plot(numAK4));
antitagBTagPlots.push_back(plot(numGenH));
baselinePlots.push_back(plot(METall_Plot));
baselinePlots.push_back(plot(METother_Plot));
baselinePlots.push_back(plot(METPhoton_Plot));
baselinePlots.push_back(plot(MET5_Plot));
baselinePlots.push_back(plot(HT_Plot));
baselinePlots.push_back(plot(J1_M_jetBins));
baselinePlots.push_back(plot(J2_M_jetBins));
doubletagSRPlots.push_back(plot(METall_Plot));
doubletagSRPlots.push_back(plot(METother_Plot));
doubletagSRPlots.push_back(plot(METPhoton_Plot));
doubletagSRPlots.push_back(plot(MET5_Plot));
doubletagSRPlots.push_back(plot(HT_Plot));
doubletagSRPlots.push_back(plot(J1_M_jetBins));
doubletagSRPlots.push_back(plot(J2_M_jetBins));
doubletagSBPlots.push_back(plot(METall_Plot));
doubletagSBPlots.push_back(plot(METother_Plot));
doubletagSBPlots.push_back(plot(METPhoton_Plot));
doubletagSBPlots.push_back(plot(MET5_Plot));
doubletagSBPlots.push_back(plot(HT_Plot));
doubletagSBPlots.push_back(plot(J1_M_jetBins));
doubletagSBPlots.push_back(plot(J2_M_jetBins));
tagSRPlots.push_back(plot(METall_Plot));
tagSRPlots.push_back(plot(METother_Plot));
tagSRPlots.push_back(plot(METPhoton_Plot));
tagSRPlots.push_back(plot(MET5_Plot));
tagSRPlots.push_back(plot(HT_Plot));
tagSRPlots.push_back(plot(J1_M_jetBins));
tagSRPlots.push_back(plot(J2_M_jetBins));
tagSBPlots.push_back(plot(METall_Plot));
tagSBPlots.push_back(plot(METother_Plot));
tagSBPlots.push_back(plot(METPhoton_Plot));
tagSBPlots.push_back(plot(MET5_Plot));
tagSBPlots.push_back(plot(HT_Plot));
tagSBPlots.push_back(plot(J1_M_jetBins));
tagSBPlots.push_back(plot(J2_M_jetBins));
antitagSRPlots.push_back(plot(METall_Plot));
antitagSRPlots.push_back(plot(METother_Plot));
antitagSRPlots.push_back(plot(METPhoton_Plot));
antitagSRPlots.push_back(plot(MET5_Plot));
antitagSRPlots.push_back(plot(HT_Plot));
antitagSRPlots.push_back(plot(J1_M_jetBins));
antitagSRPlots.push_back(plot(J2_M_jetBins));
antitagSBPlots.push_back(plot(METall_Plot));
antitagSBPlots.push_back(plot(METother_Plot));
antitagSBPlots.push_back(plot(METPhoton_Plot));
antitagSBPlots.push_back(plot(MET5_Plot));
antitagSBPlots.push_back(plot(HT_Plot));
antitagSBPlots.push_back(plot(J1_M_jetBins));
antitagSBPlots.push_back(plot(J2_M_jetBins));
antitagBTagPlots.push_back(plot(METall_Plot));
antitagBTagPlots.push_back(plot(METother_Plot));
antitagBTagPlots.push_back(plot(METPhoton_Plot));
antitagBTagPlots.push_back(plot(MET5_Plot));
antitagBTagPlots.push_back(plot(HT_Plot));
antitagBTagPlots.push_back(plot(J1_M_jetBins));
antitagBTagPlots.push_back(plot(J2_M_jetBins));
BTagSF* btagsf_;
std::vector<TH2F*> hSFeff_; if (region!=1 && region!=2) hSFeff_ = openSFFiles(Year, region);
std::vector<TEfficiency*> eTrigEff_; if (region == 5) eTrigEff_ = photonTrigEffHist(Year);
//Files for boosted event counts
ofstream txtfile_2HSR; ofstream txtfile_2HSB;
ofstream txtfile_1HSR; ofstream txtfile_1HSB;
ofstream txtfile_0HSR; ofstream txtfile_0HSB; ofstream txtfile_0Hb;
if (runMC) {
if (debugPrint) std::cout<<"Here? 1"<<std::endl;
if (saveBoostedEvt) {
string thisRegion = "MC_";
if (region==1) thisRegion = "1DTChiHH"+mass2D_string+"_";
if (region==1 && runFullSIM) thisRegion = "1DT5HH"+mass2D_string+"FullSIM_";
else if (region == 2) thisRegion = "2DTChiHH"+mass2D_string+"_";
string txtname1 = "evtCount_boosted_2HSR_"+thisRegion+yearStr+".txt";
string txtname2 = "evtCount_boosted_2HSB_"+thisRegion+yearStr+".txt";
string txtname3 = "evtCount_boosted_1HSR_"+thisRegion+yearStr+".txt";
string txtname4 = "evtCount_boosted_1HSB_"+thisRegion+yearStr+".txt";
string txtname5 = "evtCount_boosted_0HSR_"+thisRegion+yearStr+".txt";
string txtname6 = "evtCount_boosted_0HSB_"+thisRegion+yearStr+".txt";
string txtname7 = "evtCount_boosted_0Hb_"+thisRegion+yearStr+".txt";
txtfile_2HSR.open(outDir_evtCount+txtname1); txtfile_2HSB.open(outDir_evtCount+txtname2);
txtfile_1HSR.open(outDir_evtCount+txtname3); txtfile_1HSB.open(outDir_evtCount+txtname4);
txtfile_0HSR.open(outDir_evtCount+txtname5); txtfile_0HSB.open(outDir_evtCount+txtname6);
txtfile_0Hb.open(outDir_evtCount+txtname7);
txtfile_2HSR<<"#SR1,2HSR\n#Run:Lumi:EvtNum:MET"<<endl;
txtfile_2HSB<<"#CR1,2HSB\n#Run:Lumi:EvtNum:MET"<<endl;
txtfile_1HSR<<"#SR2,1HSR\n#Run:Lumi:EvtNum:MET"<<endl;
txtfile_1HSB<<"#CR2,1HSB\n#Run:Lumi:EvtNum:MET"<<endl;
txtfile_0HSR<<"#CR3,0HSR\n#Run:Lumi:EvtNum:MET"<<endl;
txtfile_0HSB<<"#CR4,0HSB\n#Run:Lumi:EvtNum:MET"<<endl;
txtfile_0Hb<<"#CR5,0Hb\n#Run:Lumi:EvtNum:MET"<<endl;
}
if (debugPrint) std::cout<<"Here? 2"<<std::endl;
if (runVeto) {
if (debugPrint) std::cout<<"Here? 3"<<std::endl;
if (region==1 && !runFullSIM) readResVeto_Sig1D(yearStr,"TChiHH");
else if (region==1 && runFullSIM) readResVeto_Sig1D(yearStr,"T5HH");
else if (region==2) readResVeto_Sig2D(yearStr,"TChiHH");
else readResVeto_MC(yearStr);
if (debugPrint) std::cout<<"Here? 4"<<std::endl;
}
if (debugPrint) std::cout<<"Here? 5"<<std::endl;
// MC samples - setup to not run 0-lepton MC if you run the data as well
for (unsigned int iSample = 0; iSample < skims.ntuples.size(); iSample++) {
if (debugPrint) std::cout<<"Here? 6"<<std::endl;
RA2bTree* ntuple = skims.ntuples[iSample];
for (unsigned int i = 0; i < baselinePlots.size(); i++) {
baselinePlots[i].addNtuple(ntuple,"baseline_"+skims.sampleName[iSample],true);
doubletagSRPlots[i].addNtuple(ntuple,"doubletagSR_"+skims.sampleName[iSample],true);
doubletagSBPlots[i].addNtuple(ntuple,"doubletagSB_"+skims.sampleName[iSample],true);
tagSRPlots[i].addNtuple(ntuple,"tagSR_"+skims.sampleName[iSample],true);
tagSBPlots[i].addNtuple(ntuple,"tagSB_"+skims.sampleName[iSample],true);
antitagSRPlots[i].addNtuple(ntuple,"antitagSR_"+skims.sampleName[iSample],true);
antitagSBPlots[i].addNtuple(ntuple,"antitagSB_"+skims.sampleName[iSample],true);
antitagBTagPlots[i].addNtuple(ntuple,"antitagOpt1_"+skims.sampleName[iSample],true);
}
TH2F * h_baseline = (TH2F*)h_j1vj2_mass_baseline->Clone("j1vj2M_baseline_"+skims.sampleName[iSample]);
TH2F * h_0H = (TH2F*)h_j1vj2_mass_0H->Clone("j1vj2M_0H_"+skims.sampleName[iSample]);
TH2F * h_1H = (TH2F*)h_j1vj2_mass_1H->Clone("j1vj2M_1H_"+skims.sampleName[iSample]);
TH2F * h_2H = (TH2F*)h_j1vj2_mass_2H->Clone("j1vj2M_2H_"+skims.sampleName[iSample]);
int numEvents = ntuple->fChain->GetEntries();
ntupleBranchStatus<RA2bTree>(ntuple); // These are set in definitions.cc
bool passBaseline;
TFile *fin;
if (debugPrint) std::cout<<"Here? 7"<<std::endl;
TString startFilename = ntuple->fChain->GetFile()->GetName();
// double this_lumi = 137191.0;
double this_lumi = 35922.0;
if ( startFilename.Contains("2017") ) this_lumi = 41529.0;
else if ( startFilename.Contains("2018") ) this_lumi = 59740.0;
setSignalMasses(ntuple,region);
if (debugPrint) std::cout<<"Here? 8"<<std::endl;
int TotalEvents = 0; TH1F* h_norm;
if (startFilename.Contains("TChiHH_HToBB") || startFilename.Contains("T5qqqqHH") || startFilename.Contains("T5HH") || runFullSIM) {
fin = TFile::Open(startFilename);
h_norm = (TH1F*)fin->Get("PDFNorm"); // Used for scales for signal systematics
TH1F *nEventsHisto = (TH1F*)fin->Get("nEventProc");
TotalEvents = nEventsHisto->GetBinContent(1); // Used to fix weight branch in signal
}
if (debugPrint) std::cout<<"Here? 9"<<std::endl;
// For b-tag corrections (mostly for 0H+b region)
if (applySFs_) btagsf_ = new BTagSF();
else btagsf_ = nullptr;
if (btagsf_) {
if ( startFilename.Contains("2016") ) btagsf_->SetCalib(0);
else if ( startFilename.Contains("2017") ) btagsf_->SetCalib(1);
else if ( startFilename.Contains("2018") ) btagsf_->SetCalib(2);
std::cout<<"Open file: "<< startFilename<<std::endl;
fin = TFile::Open(startFilename);
btagsf_->SetEffs(fin);
}
// Counters are for filling the signal mass points for the 2D mass plots in the paper (right column, figure 9)
// Specifically for 1D T5HH1600
int counter2HSR = 0; int counter2HSB = 0;
int counter1HSR = 0; int counter1HSB = 0;
int counter0HSR = 0; int counter0HSB = 0;
int count2H = 0; int count1H = 0; int count0H = 0;
int count2HTrue = 0; int count1HTrue = 0; int count1H2HFalse = 0; int count1HFalse = 0;
int count0H2HFalse= 0; int count0HFalse= 0;
int count1bOverlap = 0;
if (debugPrint) std::cout<<"Here? 10"<<std::endl;
for (int iEvt = 0; iEvt < numEvents ; iEvt++) {
ntuple->GetEntry(iEvt);
if (runVeto && iEvt % 50000 == 0) cout << skims.sampleName[iSample] << ": " << iEvt << "/" << numEvents << endl;
else if (iEvt % 100000 == 0) cout << skims.sampleName[iSample] << ": " << iEvt << "/" << numEvents << endl;
// if (iEvt>50000) break;
double weight = 1.0; double isrweight = 1.0; float trigWeight = 1.0;
double puweight = 1.0; double prefireWeight = 1.0; float scalesSyst = 1.0;
double BSFwt = 1.0; double SFweight = 1.0;
float bb_tag = 1.0; float bbtag_FastSIM = 1.0; float sdMass_FastSIM = 1.0;
//because I never re-ran skims, so at least only do necessary calcualtions once per event
setHT(ntuple,"none"); //also sets JEC/JER systematics, check definitions.cc
setMET(ntuple); setJetPT(ntuple); setJetMass(ntuple); setDeltaPhis(ntuple);
passBaseline=true;
for (auto baselineCut : baselineCuts) {
passBaseline&=baselineCut(ntuple);
if (!passBaseline) continue;
}
if (!passBaseline) continue; // probably not necessary, but ya know CYA
// if (!(gen4bs(ntuple))) continue;
if (runVeto) {
if (resEventFound(ntuple,yearStr)) continue;
}
TString thisFilename = ntuple->fChain->GetFile()->GetName();
if (thisFilename.Contains("SingleLeptFromT_MC") || thisFilename.Contains("SingleLeptFromTbar_MC") || thisFilename.Contains("DiLept_MC")) {
if (thisFilename.Contains("MC2018") && ntuple->GenMET>80.0) continue;
else if (ntuple->GenMET>150.0) continue;
}
if ((thisFilename.Contains("T5qqqqZH")||thisFilename.Contains("T5HH") ||thisFilename.Contains("T5qqqqHH")) && getNumGenHiggses(ntuple)!=2) continue;
double thisMET = fillMET(ntuple); double thisHT = fillHT(ntuple);
// Trigger efficiency
if (region == 5) {
trigWeight = photonTrigEff(ntuple, eTrigEff_);
if (applySFs_) SFweight = photonSFs(ntuple, hSFeff_);
}
else {
TString whichTrigRegion = "0l"; float lept_pt = 0.0;
if (skims.sampleName[iSample]=="QCD") whichTrigRegion = "fake";
if (region == 3) {
whichTrigRegion = "mu";
if (applySFs_) SFweight = muonSFs(ntuple, Year, hSFeff_);
lept_pt = ntuple->Muons->at(0).Pt();
}
if (region == 4) {
whichTrigRegion = "el";
if (applySFs_) SFweight = electronSFs(ntuple, Year, hSFeff_);
lept_pt = ntuple->Electrons->at(0).Pt();
}
//up and down for signal systematics, instead of none
trigWeight = triggerEfficiencies(whichTrigRegion, Year, thisMET, thisHT, lept_pt, "none");
}
//"up" and "down" for systematics, "none" for nominal
isrweight = ISRCorrections(ntuple,region,Year,"none");
puweight = PUCorrections(ntuple,"none");
prefireWeight = prefireCorr(ntuple,Year,"none");
scalesSyst = scalesSystematic(ntuple,h_norm,"none"); //none returns 1.0
weight = ntuple->Weight*this_lumi*trigWeight*isrweight*puweight*prefireWeight*SFweight*scalesSyst;
//check if a new file has been opened, and if yes, reset btag efficiency histos
if (btagsf_ && startFilename!=thisFilename) {
std::cout<<"Open file: "<< thisFilename<<std::endl;
fin = TFile::Open(thisFilename);
btagsf_->SetEffs(fin);
startFilename=thisFilename;
}
// b-tag SF, only used for the MC mismodeling systematic (not signal systematics)
// Applied later on for just 0H+region, so don't uncomment this bit
// if (applySFs_) {
// BSFwt = btagsf_->weight(ntuple->Jets, ntuple->Jets_hadronFlavor, ntuple->Jets_HTMask, ntuple->Jets_bJetTagDeepCSVBvsAll,0,0); //central
// float btag_pt1 = btagsf_->weight(ntuple->Jets, ntuple->Jets_hadronFlavor, ntuple->Jets_HTMask, ntuple->Jets_bJetTagDeepCSVBvsAll,1,0); //up
// float btag_pt2 = btagsf_->weight(ntuple->Jets, ntuple->Jets_hadronFlavor, ntuple->Jets_HTMask, ntuple->Jets_bJetTagDeepCSVBvsAll,0,1); //up
// float btag_pt1 = btagsf_->weight(ntuple->Jets, ntuple->Jets_hadronFlavor, ntuple->Jets_HTMask, ntuple->Jets_bJetTagDeepCSVBvsAll,-1,0); //down
// float btag_pt2 = btagsf_->weight(ntuple->Jets, ntuple->Jets_hadronFlavor, ntuple->Jets_HTMask, ntuple->Jets_bJetTagDeepCSVBvsAll,0,-1); //down
// BSFwt = sqrt(btag_pt1*btag_pt1 + btag_pt2*btag_pt2);
// }
float reweightXSEC = 1.0;
if (region==1 && thisFilename.Contains("TChiHH_HToBB")) reweightXSEC = reweightSignalXSEC(mass2D_string);
if ( thisFilename.Contains("TChiHH_HToBB") || thisFilename.Contains("TChiHH") || (thisFilename.Contains("T5qqqqZH") || thisFilename.Contains("T5HH")) && !runFullSIM) weight = weight/TotalEvents*(0.5823329*0.5823329);
else if ( (thisFilename.Contains("T5qqqqZH")||thisFilename.Contains("T5HH"))) weight = weight/TotalEvents*4; //for FullSIM
// Re-weight 1DTChiHH to 2D
if (region==2 && thisFilename.Contains("TChiHH") && !(thisFilename.Contains("2D"))) weight = weight/reweightXSEC;
// up and down for signal systematics
sdMass_FastSIM = softdropmassFastSIMSFs(ntuple,"none");
bb_tag = bbSFs(ntuple,"none");
bbtag_FastSIM = bbFastSIMSFs(ntuple,"none");
weight = weight*bb_tag*bbtag_FastSIM*sdMass_FastSIM;
//For boosted evtCount
std::stringstream METstream;
METstream << std::fixed << std::setprecision(3) << thisMET;
std::string METstring = METstream.str();
string runLumiEvtMET = std::to_string(ntuple->RunNum)+":"+std::to_string(ntuple->LumiBlockNum)+":"+std::to_string(ntuple->EvtNum)+":"+METstring;
for (unsigned int i = 0; i < baselinePlots.size(); i++) {baselinePlots[i].fill(ntuple,weight);}
h_baseline->Fill(fillLeadingJetMass(ntuple),fillSubLeadingJetMass(ntuple), weight);
// first check for 2H
if (doubleTaggingLooseCut(ntuple)) {
count2H++;
if (doubletagSRCut(ntuple)) {
if (saveBoostedEvt) txtfile_2HSR << runLumiEvtMET << endl;
counter2HSR++;
if (counter2HSR<=54) h_2H->Fill(fillLeadingJetMass(ntuple),fillSubLeadingJetMass(ntuple),weight);
for (unsigned int i = 0; i < doubletagSRPlots.size(); i++) {doubletagSRPlots[i].fill(ntuple,weight);}
}
else if (doubletagSBCut(ntuple)) {
if (saveBoostedEvt) txtfile_2HSB << runLumiEvtMET << endl;
counter2HSB++;
if (counter2HSB<=27) h_2H->Fill(fillLeadingJetMass(ntuple),fillSubLeadingJetMass(ntuple),weight);
for (unsigned int i = 0; i < doubletagSBPlots.size(); i++) {doubletagSBPlots[i].fill(ntuple,weight);}
}
} //end 2H
//then check for 1H
else if (singleHiggsTagLooseCut(ntuple)) {
count1H++;
if (tagSRCut(ntuple)) {
if (saveBoostedEvt) txtfile_1HSR << runLumiEvtMET << endl;
counter1HSR++;
if (counter1HSR<=67) h_1H->Fill(fillLeadingJetMass(ntuple),fillSubLeadingJetMass(ntuple),weight);
for (unsigned int i = 0; i < tagSRPlots.size(); i++) tagSRPlots[i].fill(ntuple,weight);
}
else if (tagSBCut(ntuple)) {
if (saveBoostedEvt) txtfile_1HSB << runLumiEvtMET << endl;
counter1HSB++;
if (counter1HSB<=53) h_1H->Fill(fillLeadingJetMass(ntuple),fillSubLeadingJetMass(ntuple),weight);
for (unsigned int i = 0; i < tagSBPlots.size(); i++) tagSBPlots[i].fill(ntuple,weight);
}
} //end 1H
//then check for 0H
else if (antiTaggingLooseCut(ntuple)) {
count0H++;
if (applySFs_) BSFwt = btagsf_->weight(ntuple->Jets, ntuple->Jets_hadronFlavor, ntuple->Jets_HTMask, ntuple->Jets_bJetTagDeepCSVBvsAll,0,0); //central
if (antitagPlusBCut(ntuple)) {
if (saveBoostedEvt) txtfile_0Hb << runLumiEvtMET << endl;
for (unsigned int i = 0; i < antitagBTagPlots.size(); i++) antitagBTagPlots[i].fill(ntuple,weight*BSFwt);
}
if (antitagSRCut(ntuple)) {
if (saveBoostedEvt) txtfile_0HSR << runLumiEvtMET << endl;
counter0HSR++;
if (counter0HSR<=20) h_0H->Fill(fillLeadingJetMass(ntuple),fillSubLeadingJetMass(ntuple),weight);
for (unsigned int i = 0; i < antitagSRPlots.size(); i++) antitagSRPlots[i].fill(ntuple,weight);
}
else if (antitagSBCut(ntuple)) {
if (saveBoostedEvt) txtfile_0HSB << runLumiEvtMET << endl;
counter0HSB++;
if (counter0HSB<=23) h_0H->Fill(fillLeadingJetMass(ntuple),fillSubLeadingJetMass(ntuple), weight);
for (unsigned int i = 0; i < antitagSBPlots.size(); i++) antitagSBPlots[i].fill(ntuple,weight);
}
} //end 0H region
clearGlobalConstants();
} // end event loop
outputFile->cd();
h_baseline->Write(); h_0H->Write(); h_1H->Write(); h_2H->Write();
} // end sample loop
if (saveBoostedEvt) {
txtfile_2HSR.close(); txtfile_2HSB.close(); txtfile_1HSR.close(); txtfile_1HSB.close();
txtfile_0HSR.close(); txtfile_0HSB.close(); txtfile_0Hb.close();
}
} // end runMC
// Begin data
if (region!=1 && region!=2 && runData) {
if (region==0 && runVeto) readResVeto_Data(yearStr);
RA2bTree* ntuple = skims.dataNtuple;
for (unsigned int i = 0; i < baselinePlots.size(); i++) {
baselinePlots[i].addDataNtuple(ntuple,"baseline_data");
doubletagSRPlots[i].addDataNtuple(ntuple,"doubletagSR_data");
doubletagSBPlots[i].addDataNtuple(ntuple,"doubletagSB_data");
tagSRPlots[i].addDataNtuple(ntuple,"tagSR_data");
tagSBPlots[i].addDataNtuple(ntuple,"tagSB_data");
antitagSRPlots[i].addDataNtuple(ntuple,"antitagSR_data");
antitagSBPlots[i].addDataNtuple(ntuple,"antitagSB_data");
antitagBTagPlots[i].addDataNtuple(ntuple,"antitagOpt1_data");
}
TH2F * h_baseline_data = (TH2F*)h_j1vj2_mass_baseline->Clone("j1vj2M_baseline");
TH2F * h_0H_data = (TH2F*)h_j1vj2_mass_0H->Clone("j1vj2M_0H_data");
TH2F * h_1H_data = (TH2F*)h_j1vj2_mass_1H->Clone("j1vj2M_1H_data");
TH2F * h_2H_data = (TH2F*)h_j1vj2_mass_2H->Clone("j1vj2M_2H_data");
if (saveBoostedEvt && region==0) {
string thisRegion = "data_";
string txtname1 = "evtCount_boosted_2HSR_"+thisRegion+yearStr+".txt";
string txtname2 = "evtCount_boosted_2HSB_"+thisRegion+yearStr+".txt";
string txtname3 = "evtCount_boosted_1HSR_"+thisRegion+yearStr+".txt";
string txtname4 = "evtCount_boosted_1HSB_"+thisRegion+yearStr+".txt";
string txtname5 = "evtCount_boosted_0HSR_"+thisRegion+yearStr+".txt";
string txtname6 = "evtCount_boosted_0HSB_"+thisRegion+yearStr+".txt";
string txtname7 = "evtCount_boosted_0Hb_"+thisRegion+yearStr+".txt";
txtfile_2HSR.open(outDir_evtCount+txtname1); txtfile_2HSB.open(outDir_evtCount+txtname2);
txtfile_1HSR.open(outDir_evtCount+txtname3); txtfile_1HSB.open(outDir_evtCount+txtname4);
txtfile_0HSR.open(outDir_evtCount+txtname5); txtfile_0HSB.open(outDir_evtCount+txtname6);
txtfile_0Hb.open(outDir_evtCount+txtname7);
txtfile_2HSR<<"#SR1,2HSR\n#Run:Lumi:EvtNum:MET"<<endl;
txtfile_2HSB<<"#CR1,2HSB\n#Run:Lumi:EvtNum:MET"<<endl;
txtfile_1HSR<<"#SR2,1HSR\n#Run:Lumi:EvtNum:MET"<<endl;
txtfile_1HSB<<"#CR2,1HSB\n#Run:Lumi:EvtNum:MET"<<endl;
txtfile_0HSR<<"#CR3,0HSR\n#Run:Lumi:EvtNum:MET"<<endl;
txtfile_0HSB<<"#CR4,0HSB\n#Run:Lumi:EvtNum:MET"<<endl;
txtfile_0Hb<<"#CR5,0Hb\n#Run:Lumi:EvtNum:MET"<<endl;
}
int numEvents = ntuple->fChain->GetEntries();
ntupleBranchStatus<RA2bTree>(ntuple);
bool passBaseline;
for (int iEvt = 0; iEvt < numEvents; iEvt++) {
ntuple->GetEntry(iEvt);
if (iEvt % 100000 == 0 ) cout << "data: " << iEvt << "/" << numEvents << endl;
//because I never re-ran skims, so at least only do necessary calcualtions once per event
setMET(ntuple); setHT(ntuple,"none"); setJetPT(ntuple);
setJetMass(ntuple,false); //true smears AK8 mass for signal systematic, so don't
setDeltaPhis(ntuple);
passBaseline=true;
for (auto baselineCut : baselineCuts) {
passBaseline&=baselineCut(ntuple);
if (!passBaseline ) continue;
}
if (!passBaseline) continue; //probably not necessary, but just in case, ya know
if (ntuple->eeBadScFilter!=1) continue; // Apply to data only, moved from FiltersCut
if (region == 0 && !signalTriggerCut(ntuple)) continue;
else if (region == 3 && !singleMuTriggerCut(ntuple)) continue;
else if (region == 4 && !singleEleTriggerCut(ntuple)) continue;
else if (region == 5 && !photonTriggerCut(ntuple)) continue;
//Toggle whether or not we veto resolved events
if (runVeto && region==0){
if (resEventFound(ntuple,yearStr)) continue;
}
//For boosted evtCount
double thisMET = fillMET(ntuple);
std::stringstream METstream;
METstream << std::fixed << std::setprecision(3) << thisMET;
std::string METstring = METstream.str();
string runLumiEvtMET = std::to_string(ntuple->RunNum)+":"+std::to_string(ntuple->LumiBlockNum)+":"+std::to_string(ntuple->EvtNum)+":"+METstring;
for (unsigned int i = 0; i < baselinePlots.size(); i++) {baselinePlots[i].fillData(ntuple);}
h_baseline_data->Fill(fillLeadingJetMass(ntuple),fillSubLeadingJetMass(ntuple));
// first check for 2H
if (doubleTaggingLooseCut(ntuple)) {
if (doubletagSRCut(ntuple)) {
if (saveBoostedEvt) txtfile_2HSR << runLumiEvtMET << endl;
for (unsigned int i = 0; i < doubletagSRPlots.size(); i++) doubletagSRPlots[i].fillData(ntuple);
}
else if (doubletagSBCut(ntuple)) {
for (unsigned int i = 0; i < doubletagSBPlots.size(); i++) {doubletagSBPlots[i].fillData(ntuple);}
if (saveBoostedEvt) txtfile_2HSB << runLumiEvtMET << endl;
}
h_2H_data->Fill(fillLeadingJetMass(ntuple),fillSubLeadingJetMass(ntuple));
} //end 2H
//then check for 1H
else if (singleHiggsTagLooseCut(ntuple)) {
if (tagSRCut(ntuple)) {
for (unsigned int i = 0; i < tagSRPlots.size(); i++) tagSRPlots[i].fillData(ntuple);
if (saveBoostedEvt) txtfile_1HSR << runLumiEvtMET << endl;
}
else if (tagSBCut(ntuple)) {
for (unsigned int i = 0; i < tagSBPlots.size(); i++) tagSBPlots[i].fillData(ntuple);
if (saveBoostedEvt) txtfile_1HSB << runLumiEvtMET << endl;
}
h_1H_data->Fill(fillLeadingJetMass(ntuple),fillSubLeadingJetMass(ntuple));
} //end 1H
//then check for 0H
else if (antiTaggingLooseCut(ntuple)) {
if (antitagPlusBCut(ntuple)) {
for (unsigned int i = 0; i < antitagBTagPlots.size(); i++) antitagBTagPlots[i].fillData(ntuple);
if (saveBoostedEvt) txtfile_0Hb << runLumiEvtMET << endl;
}
if (antitagSRCut(ntuple)) {
for (unsigned int i = 0; i < antitagSRPlots.size(); i++) antitagSRPlots[i].fillData(ntuple);
if (saveBoostedEvt) txtfile_0HSR << runLumiEvtMET << endl;
}
else if (antitagSBCut(ntuple)) {
for (unsigned int i = 0; i < antitagSBPlots.size(); i++) antitagSBPlots[i].fillData(ntuple);
if (saveBoostedEvt) txtfile_0HSB << runLumiEvtMET << endl;
}
h_0H_data->Fill(fillLeadingJetMass(ntuple),fillSubLeadingJetMass(ntuple));
} //end 0H region
} // end event loop
outputFile->cd();
h_baseline_data->Write(); h_0H_data->Write(); h_1H_data->Write(); h_2H_data->Write();
clearGlobalConstants();
if (saveBoostedEvt) {
txtfile_2HSR.close(); txtfile_2HSB.close(); txtfile_1HSR.close(); txtfile_1HSB.close();
txtfile_0HSR.close(); txtfile_0HSB.close(); txtfile_0Hb.close();
}
} // end run data
// Begin writing histograms to output
bool sumBkgs = true;
if (region == 1 || region == 2 || runData) sumBkgs = false;
outputFile->cd();
for (unsigned int i = 0; i < baselinePlots.size(); i++) {
baselinePlots[i].Write(runData);
if (sumBkgs) {
baselinePlots[i].buildSum("baseline");
baselinePlots[i].sum->Write();
}
}
for (unsigned int i = 0; i < doubletagSRPlots.size(); i++) {
doubletagSRPlots[i].Write(runData);
if (sumBkgs) {
doubletagSRPlots[i].buildSum("doubletagSR");
doubletagSRPlots[i].sum->Write();
}
}
for (unsigned int i = 0; i < doubletagSBPlots.size(); i++) {
doubletagSBPlots[i].Write(runData);
if (sumBkgs) {
doubletagSBPlots[i].buildSum("doubletagSB");
doubletagSBPlots[i].sum->Write();
}
}
for (unsigned int i = 0; i < tagSRPlots.size(); i++) {
tagSRPlots[i].Write(runData);
if (sumBkgs) {
tagSRPlots[i].buildSum("tagSR");
tagSRPlots[i].sum->Write();
}
}
for (unsigned int i = 0; i < tagSBPlots.size(); i++) {
tagSBPlots[i].Write(runData);
if (sumBkgs) {
tagSBPlots[i].buildSum("tagSB");
tagSBPlots[i].sum->Write();
}
}
for (unsigned int i = 0; i < antitagSRPlots.size(); i++) {
antitagSRPlots[i].Write(runData);
if (sumBkgs) {
antitagSRPlots[i].buildSum("antitagSR");
antitagSRPlots[i].sum->Write();
}
}
for (unsigned int i = 0; i < antitagSBPlots.size(); i++) {
antitagSBPlots[i].Write(runData);
if (sumBkgs) {
antitagSBPlots[i].buildSum("antitagSB");
antitagSBPlots[i].sum->Write();
}
}
for (unsigned int i = 0; i < antitagBTagPlots.size(); i++) {
antitagBTagPlots[i].Write(runData);
if (sumBkgs) {
antitagBTagPlots[i].buildSum("antitagOpt1");
antitagBTagPlots[i].sum->Write();
}
}
outputFile->Close();
return 0;
}