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step1_TaggerPlots.cc
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step1_TaggerPlots.cc
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#define step1_cxx
#include "step1.h"
#include <fstream>
#include <iostream> // std::cout
#include <algorithm> // std::sort
#include <TH2.h>
#include <TF1.h>
#include <TStyle.h>
#include <TCanvas.h>
#include <TRandom.h>
#include <TRandom3.h>
#include <sstream>
#include <string>
#include <vector>
using namespace std;
// ----------------------------------------------------------------------------
// Define functions
// ----------------------------------------------------------------------------
bool comparepair( const std::pair<double,int> a, const std::pair<double,int> b) { return a.first > b.first; }
TRandom3 Rand;
const double MTOP = 173.5;
const double MW = 80.4;
// ----------------------------------------------------------------------------
// MAIN EVENT LOOP
// ----------------------------------------------------------------------------
void step1::Loop()
{
// ----------------------------------------------------------------------------
// Turn on input tree branches
// ----------------------------------------------------------------------------
if (inputTree == 0) return;
inputTree->SetBranchStatus("*",0);
//Event info
inputTree->SetBranchStatus("event_CommonCalc",1);
inputTree->SetBranchStatus("run_CommonCalc",1);
inputTree->SetBranchStatus("lumi_CommonCalc",1);
inputTree->SetBranchStatus("nPV_singleLepCalc",1);
inputTree->SetBranchStatus("nTrueInteractions_singleLepCalc",1);
inputTree->SetBranchStatus("MCWeight_singleLepCalc",1);
inputTree->SetBranchStatus("isTHBW_TpTpCalc",1);
inputTree->SetBranchStatus("isTHTH_TpTpCalc",1);
inputTree->SetBranchStatus("isBWBW_TpTpCalc",1);
inputTree->SetBranchStatus("isTZBW_TpTpCalc",1);
inputTree->SetBranchStatus("isTZTH_TpTpCalc",1);
inputTree->SetBranchStatus("isTZTZ_TpTpCalc",1);
inputTree->SetBranchStatus("isBHTW_TpTpCalc",1);
inputTree->SetBranchStatus("isBHBH_TpTpCalc",1);
inputTree->SetBranchStatus("isTWTW_TpTpCalc",1);
inputTree->SetBranchStatus("isBZTW_TpTpCalc",1);
inputTree->SetBranchStatus("isBZBH_TpTpCalc",1);
inputTree->SetBranchStatus("isBZBZ_TpTpCalc",1);
inputTree->SetBranchStatus("tPrimePt_TpTpCalc",1);
inputTree->SetBranchStatus("NLeptonDecays_TpTpCalc",1);
//triggers
inputTree->SetBranchStatus("vsSelMCTriggersEl_singleLepCalc",1);
inputTree->SetBranchStatus("viSelMCTriggersEl_singleLepCalc",1);
inputTree->SetBranchStatus("vsSelMCTriggersMu_singleLepCalc",1);
inputTree->SetBranchStatus("viSelMCTriggersMu_singleLepCalc",1);
inputTree->SetBranchStatus("vsSelTriggersEl_singleLepCalc",1);
inputTree->SetBranchStatus("viSelTriggersEl_singleLepCalc",1);
inputTree->SetBranchStatus("vsSelTriggersMu_singleLepCalc",1);
inputTree->SetBranchStatus("viSelTriggersMu_singleLepCalc",1);
//electrons **** ADD MORE/NEW ID BRANCHES *****
inputTree->SetBranchStatus("elPt_singleLepCalc",1);
inputTree->SetBranchStatus("elEta_singleLepCalc",1);
inputTree->SetBranchStatus("elPhi_singleLepCalc",1);
inputTree->SetBranchStatus("elEnergy_singleLepCalc",1);
inputTree->SetBranchStatus("elMVAValue_singleLepCalc",1);
inputTree->SetBranchStatus("elMiniIso_singleLepCalc",1);
inputTree->SetBranchStatus("elIsTightBarrel_singleLepCalc",1);
inputTree->SetBranchStatus("elIsMediumBarrel_singleLepCalc",1);
inputTree->SetBranchStatus("elIsLooseBarrel_singleLepCalc",1);
inputTree->SetBranchStatus("elIsVetoBarrel_singleLepCalc",1);
inputTree->SetBranchStatus("elIsTIghtEndCap_singleLepCalc",1);
inputTree->SetBranchStatus("elIsMediumEndCap_singleLepCalc",1);
inputTree->SetBranchStatus("elIsLooseEndCap_singleLepCalc",1);
inputTree->SetBranchStatus("elIsVetoEndCap_singleLepCalc",1);
//muons **** ADD MORE/NEW ID BRANCHES *****
inputTree->SetBranchStatus("muPt_singleLepCalc",1);
inputTree->SetBranchStatus("muEta_singleLepCalc",1);
inputTree->SetBranchStatus("muPhi_singleLepCalc",1);
inputTree->SetBranchStatus("muEnergy_singleLepCalc",1);
inputTree->SetBranchStatus("muMiniIso_singleLepCalc",1);
inputTree->SetBranchStatus("muIsTight_singleLepCalc",1);
inputTree->SetBranchStatus("muIsMedium_singleLepCalc",1);
inputTree->SetBranchStatus("muIsMediumPrompt_singleLepCalc",1);
inputTree->SetBranchStatus("muIsLoose_singleLepCalc",1);
//missing et
inputTree->SetBranchStatus("corr_met_singleLepCalc",1);
inputTree->SetBranchStatus("corr_met_phi_singleLepCalc",1);
//boosted truth
inputTree->SetBranchStatus("HadronicVHtPt_JetSubCalc",1);
inputTree->SetBranchStatus("HadronicVHtEta_JetSubCalc",1);
inputTree->SetBranchStatus("HadronicVHtPhi_JetSubCalc",1);
inputTree->SetBranchStatus("HadronicVHtEnergy_JetSubCalc",1);
inputTree->SetBranchStatus("HadronicVHtID_JetSubCalc",1);
inputTree->SetBranchStatus("HadronicVHtD0Pt_JetSubCalc",1);
inputTree->SetBranchStatus("HadronicVHtD0Eta_JetSubCalc",1);
inputTree->SetBranchStatus("HadronicVHtD0Phi_JetSubCalc",1);
inputTree->SetBranchStatus("HadronicVHtD0E_JetSubCalc",1);
inputTree->SetBranchStatus("HadronicVHtD1Pt_JetSubCalc",1);
inputTree->SetBranchStatus("HadronicVHtD1Eta_JetSubCalc",1);
inputTree->SetBranchStatus("HadronicVHtD1Phi_JetSubCalc",1);
inputTree->SetBranchStatus("HadronicVHtD1E_JetSubCalc",1);
inputTree->SetBranchStatus("HadronicVHtD2Pt_JetSubCalc",1);
inputTree->SetBranchStatus("HadronicVHtD2Eta_JetSubCalc",1);
inputTree->SetBranchStatus("HadronicVHtD2Phi_JetSubCalc",1);
inputTree->SetBranchStatus("HadronicVHtD2E_JetSubCalc",1);
//jets *** CHECK ALL THESE NAMES, ADD BEST, ADD DeepAK8, Add DoubleB discrim, ADD DeepCSV from singleLepCalc ****
//JetSubCalc
inputTree->SetBranchStatus("theJetHFlav_JetSubCalc",1);
inputTree->SetBranchStatus("theJetPFlav_JetSubCalc",1);
inputTree->SetBranchStatus("theJetPt_JetSubCalc",1);
inputTree->SetBranchStatus("theJetEta_JetSubCalc",1);
inputTree->SetBranchStatus("theJetPhi_JetSubCalc",1);
inputTree->SetBranchStatus("theJetEnergy_JetSubCalc",1);
inputTree->SetBranchStatus("theJetDeepCSVb_JetSubCalc",1);
inputTree->SetBranchStatus("theJetDeepCSVbb_JetSubCalc",1);
inputTree->SetBranchStatus("theJetAK8DoubleB_JetSubCalc",1);
inputTree->SetBranchStatus("theJetBTag_JetSubCalc",1);
inputTree->SetBranchStatus("theJetAK8Pt_JetSubCalc",1);
inputTree->SetBranchStatus("theJetAK8Eta_JetSubCalc",1);
inputTree->SetBranchStatus("theJetAK8Phi_JetSubCalc",1);
inputTree->SetBranchStatus("theJetAK8Mass_JetSubCalc",1);
inputTree->SetBranchStatus("theJetAK8Energy_JetSubCalc",1);
inputTree->SetBranchStatus("theJetAK8NjettinessTau1_JetSubCalc",1);
inputTree->SetBranchStatus("theJetAK8NjettinessTau2_JetSubCalc",1);
inputTree->SetBranchStatus("theJetAK8NjettinessTau3_JetSubCalc",1);
inputTree->SetBranchStatus("theJetAK8CHSTau1_JetSubCalc",1);
inputTree->SetBranchStatus("theJetAK8CHSTau2_JetSubCalc",1);
inputTree->SetBranchStatus("theJetAK8CHSTau3_JetSubCalc",1);
inputTree->SetBranchStatus("theJetAK8CHSPrunedMass_JetSubCalc",1);
inputTree->SetBranchStatus("theJetAK8CHSSoftDropMass_JetSubCalc",1);
inputTree->SetBranchStatus("theJetAK8SoftDropRaw_JetSubCalc",1);
inputTree->SetBranchStatus("theJetAK8SoftDropCorr_JetSubCalc",1);
inputTree->SetBranchStatus("theJetAK8SoftDrop_JetSubCalc",1);
inputTree->SetBranchStatus("theJetAK8SDSubjetNDeepCSVMSF_JetSubCalc",1);
inputTree->SetBranchStatus("theJetAK8SDSubjetNDeepCSVL_JetSubCalc",1);
inputTree->SetBranchStatus("theJetAK8SDSubjetCSVb_JetSubCalc",1);
inputTree->SetBranchStatus("theJetAK8SDSubjetHFlav_JetSubCalc",1);
inputTree->SetBranchStatus("theJetAK8SDSubjetIndex_JetSubCalc",1);
inputTree->SetBranchStatus("theJetAK8SDSubjetSize_JetSubCalc",1);
//BEST
inputTree->SetBranchStatus("dnn_largest_BestCalc",1);
//DeepAK8
inputTree->SetBranchStatus("dnn_B_DeepAK8Calc",1);
inputTree->SetBranchStatus("dnn_C_DeepAK8Calc",1);
inputTree->SetBranchStatus("dnn_J_DeepAK8Calc",1);
inputTree->SetBranchStatus("dnn_W_DeepAK8Calc",1);
inputTree->SetBranchStatus("dnn_Z_DeepAK8Calc",1);
inputTree->SetBranchStatus("dnn_H_DeepAK8Calc",1);
inputTree->SetBranchStatus("dnn_largest_DeepAK8Calc",1);
inputTree->SetBranchStatus("decorr_largest_DeepAK8Calc",1);
inputTree->SetBranchStatus("dnn_T_DeepAK8Calc",1);
inputTree->SetBranchStatus("decorr_B_DeepAK8Calc",1);
inputTree->SetBranchStatus("decorr_C_DeepAK8Calc",1);
inputTree->SetBranchStatus("decorr_J_DeepAK8Calc",1);
inputTree->SetBranchStatus("decorr_W_DeepAK8Calc",1);
inputTree->SetBranchStatus("decorr_Z_DeepAK8Calc",1);
inputTree->SetBranchStatus("decorr_H_DeepAK8Calc",1);
inputTree->SetBranchStatus("decorr_T_DeepAK8Calc",1);
//JetSubCalc
inputTree->SetBranchStatus("maxProb_JetSubCalc",1);
//top
inputTree->SetBranchStatus("ttbarMass_TTbarMassCalc",1);
inputTree->SetBranchStatus("topEnergy_TTbarMassCalc",1);
inputTree->SetBranchStatus("topEta_TTbarMassCalc",1);
inputTree->SetBranchStatus("topMass_TTbarMassCalc",1);
inputTree->SetBranchStatus("topPhi_TTbarMassCalc",1);
inputTree->SetBranchStatus("topPt_TTbarMassCalc",1);
inputTree->SetBranchStatus("topID_TTbarMassCalc",1);
inputTree->SetBranchStatus("isTT_TTbarMassCalc",1);
inputTree->SetBranchStatus("isTau_singleLepCalc",1);
// ----------------------------------------------------------------------------
// Create output tree and define branches
// ----------------------------------------------------------------------------
/*
// OUTPUT FILE
outputFile->cd();
TTree *outputTree = new TTree("ljmet","ljmet");
// ***** EVERY NEW BRANCH NEEDS A LINE HERE ****
outputTree->Branch("event_CommonCalc",&event_CommonCalc,"event_CommonCalc/L");
outputTree->Branch("run_CommonCalc",&run_CommonCalc,"run_CommonCalc/I");
outputTree->Branch("lumi_CommonCalc",&lumi_CommonCalc,"lumi_CommonCalc/I");
outputTree->Branch("nPV_singleLepCalc",&nPV_singleLepCalc,"nPV_singleLepCalc/I");
outputTree->Branch("nTrueInteractions_singleLepCalc",&nTrueInteractions_singleLepCalc,"nTrueInteractions_singleLepCalc/I");
outputTree->Branch("isElectron",&isElectron,"isElectron/I");
outputTree->Branch("isMuon",&isMuon,"isMuon/I");
outputTree->Branch("MCPastTrigger",&MCPastTrigger,"MCPastTrigger/I");
outputTree->Branch("DataPastTrigger",&DataPastTrigger,"DataPastTrigger/I");
outputTree->Branch("isTHBW_TpTpCalc",&isTHBW_TpTpCalc,"isTHBW_TpTpCalc/O");
outputTree->Branch("isTHTH_TpTpCalc",&isTHTH_TpTpCalc,"isTHTH_TpTpCalc/O");
outputTree->Branch("isBWBW_TpTpCalc",&isBWBW_TpTpCalc,"isBWBW_TpTpCalc/O");
outputTree->Branch("isTZBW_TpTpCalc",&isTZBW_TpTpCalc,"isTZBW_TpTpCalc/O");
outputTree->Branch("isTZTH_TpTpCalc",&isTZTH_TpTpCalc,"isTZTH_TpTpCalc/O");
outputTree->Branch("isTZTZ_TpTpCalc",&isTZTZ_TpTpCalc,"isTZTZ_TpTpCalc/O");
outputTree->Branch("isBHTW_TpTpCalc",&isBHTW_TpTpCalc,"isBHTW_TpTpCalc/O");
outputTree->Branch("isBHBH_TpTpCalc",&isBHBH_TpTpCalc,"isBHBH_TpTpCalc/O");
outputTree->Branch("isTWTW_TpTpCalc",&isTWTW_TpTpCalc,"isTWTW_TpTpCalc/O");
outputTree->Branch("isBZTW_TpTpCalc",&isBZTW_TpTpCalc,"isBZTW_TpTpCalc/O");
outputTree->Branch("isBZBH_TpTpCalc",&isBZBH_TpTpCalc,"isBZBH_TpTpCalc/O");
outputTree->Branch("isBZBZ_TpTpCalc",&isBZBZ_TpTpCalc,"isBZBZ_TpTpCalc/O");
outputTree->Branch("tPrimePt_TpTpCalc",&tPrimePt_TpTpCalc,"tPrimePt_TpTpCalc/O");
outputTree->Branch("NLeptonDecays_TpTpCalc",&NLeptonDecays_TpTpCalc,"NLeptonDecays_TpTpCalc/I");
outputTree->Branch("MCWeight_singleLepCalc",&MCWeight_singleLepCalc,"MCWeight_singleLepCalc/D");
outputTree->Branch("renormWeights",&renormWeights);
outputTree->Branch("pdfWeights",&pdfWeights);
outputTree->Branch("pileupWeight",&pileupWeight,"pileupWeight/F");
outputTree->Branch("HTSF_Pol",&HTSF_Pol,"HTSF_Pol/F");
outputTree->Branch("ttbarMass_TTbarMassCalc",&ttbarMass_TTbarMassCalc,"ttbarMass_TTbarMassCalc/D");
outputTree->Branch("isTT_TTbarMassCalc",&isTT_TTbarMassCalc,"isTT_TTbarMassCalc/I");
outputTree->Branch("isTau_singleLepCalc",&isTau_singleLepCalc,"isTau_singleLepCalc/O");
outputTree->Branch("corr_met_singleLepCalc",&corr_met_singleLepCalc,"corr_met_singleLepCalc/D");
outputTree->Branch("corr_met_phi_singleLepCalc",&corr_met_phi_singleLepCalc,"corr_met_phi_singleLepCalc/D");
outputTree->Branch("leptonPt_singleLepCalc",&leptonPt_singleLepCalc,"leptonPt_singleLepCalc/F");
outputTree->Branch("leptonEta_singleLepCalc",&leptonEta_singleLepCalc,"leptonEta_singleLepCalc/F");
outputTree->Branch("leptonPhi_singleLepCalc",&leptonPhi_singleLepCalc,"leptonPhi_singleLepCalc/F");
outputTree->Branch("leptonEnergy_singleLepCalc",&leptonEnergy_singleLepCalc,"leptonEnergy_singleLepCalc/F");
outputTree->Branch("leptonMVAValue_singleLepCalc",&leptonMVAValue_singleLepCalc,"leptonMVAValue_singleLepCalc/F");
outputTree->Branch("leptonMiniIso_singleLepCalc",&leptonMiniIso_singleLepCalc,"leptonMiniIso_singleLepCalc/F");
outputTree->Branch("theJetPt_JetSubCalc_PtOrdered",&theJetPt_JetSubCalc_PtOrdered);
outputTree->Branch("theJetEta_JetSubCalc_PtOrdered",&theJetEta_JetSubCalc_PtOrdered);
outputTree->Branch("theJetPhi_JetSubCalc_PtOrdered",&theJetPhi_JetSubCalc_PtOrdered);
outputTree->Branch("theJetEnergy_JetSubCalc_PtOrdered",&theJetEnergy_JetSubCalc_PtOrdered);
outputTree->Branch("theJetDeepCSVb_JetSubCalc_PtOrdered",&theJetDeepCSVb_JetSubCalc_PtOrdered);
outputTree->Branch("theJetDeepCSVbb_JetSubCalc_PtOrdered",&theJetDeepCSVbb_JetSubCalc_PtOrdered);
outputTree->Branch("theJetHFlav_JetSubCalc_PtOrdered",&theJetHFlav_JetSubCalc_PtOrdered);
outputTree->Branch("theJetPFlav_JetSubCalc_PtOrdered",&theJetPFlav_JetSubCalc_PtOrdered);
outputTree->Branch("theJetBTag_JetSubCalc_PtOrdered",&theJetBTag_JetSubCalc_PtOrdered);
outputTree->Branch("HadronicVHtID_JetSubCalc",&HadronicVHtID_JetSubCalc);
outputTree->Branch("HadronicVHtPt_JetSubCalc",&HadronicVHtPt_JetSubCalc);
outputTree->Branch("HadronicVHtEta_JetSubCalc",&HadronicVHtEta_JetSubCalc);
outputTree->Branch("HadronicVHtPhi_JetSubCalc",&HadronicVHtPhi_JetSubCalc);
outputTree->Branch("HadronicVHtEnergy_JetSubCalc",&HadronicVHtEnergy_JetSubCalc);
outputTree->Branch("theJetAK8Pt_JetSubCalc_PtOrdered",&theJetAK8Pt_JetSubCalc_PtOrdered);
outputTree->Branch("theJetAK8Eta_JetSubCalc_PtOrdered",&theJetAK8Eta_JetSubCalc_PtOrdered);
outputTree->Branch("theJetAK8Phi_JetSubCalc_PtOrdered",&theJetAK8Phi_JetSubCalc_PtOrdered);
outputTree->Branch("theJetAK8Mass_JetSubCalc_PtOrdered",&theJetAK8Mass_JetSubCalc_PtOrdered);
outputTree->Branch("theJetAK8Energy_JetSubCalc_PtOrdered",&theJetAK8Energy_JetSubCalc_PtOrdered);
outputTree->Branch("theJetAK8CHSPrunedMass_JetSubCalc_PtOrdered",&theJetAK8CHSPrunedMass_JetSubCalc_PtOrdered);
outputTree->Branch("theJetAK8CHSSoftDropMass_JetSubCalc_PtOrdered",&theJetAK8CHSSoftDropMass_JetSubCalc_PtOrdered);
outputTree->Branch("theJetAK8SoftDropRaw_JetSubCalc_PtOrdered",&theJetAK8SoftDropRaw_PtOrdered);
outputTree->Branch("theJetAK8SoftDropCorr_JetSubCalc_PtOrdered",&theJetAK8SoftDropCorr_PtOrdered);
outputTree->Branch("theJetAK8oubleB_JetSubCalc_PtOrdered",&theJetAK8DoubleB_JetSubCalc_PtOrdered);
outputTree->Branch("theJetAK8SoftDrop_PtOrdered",&theJetAK8SoftDrop_PtOrdered);
outputTree->Branch("theJetAK8SDSubjetNCSVM_PtOrdered",&theJetAK8SDSubjetNCSVM_PtOrdered);
outputTree->Branch("theJetAK8NjettinessTau1_JetSubCalc_PtOrdered",&theJetAK8NjettinessTau1_JetSubCalc_PtOrdered);
outputTree->Branch("theJetAK8NjettinessTau2_JetSubCalc_PtOrdered",&theJetAK8NjettinessTau2_JetSubCalc_PtOrdered);
outputTree->Branch("theJetAK8NjettinessTau3_JetSubCalc_PtOrdered",&theJetAK8NjettinessTau3_JetSubCalc_PtOrdered);
outputTree->Branch("theJetAK8CHSTau1_JetSubCalc_PtOrdered",&theJetAK8CHSTau1_JetSubCalc_PtOrdered);
outputTree->Branch("theJetAK8CHSTau2_JetSubCalc_PtOrdered",&theJetAK8CHSTau2_JetSubCalc_PtOrdered);
outputTree->Branch("theJetAK8CHSTau3_JetSubCalc_PtOrdered",&theJetAK8CHSTau3_JetSubCalc_PtOrdered);
outputTree->Branch("theJetAK8Wmatch_JetSubCalc_PtOrdered",&theJetAK8Wmatch_JetSubCalc_PtOrdered);
outputTree->Branch("theJetAK8Tmatch_JetSubCalc_PtOrdered",&theJetAK8Tmatch_JetSubCalc_PtOrdered);
outputTree->Branch("theJetAK8Zmatch_JetSubCalc_PtOrdered",&theJetAK8Zmatch_JetSubCalc_PtOrdered);
outputTree->Branch("theJetAK8Hmatch_JetSubCalc_PtOrdered",&theJetAK8Hmatch_JetSubCalc_PtOrdered);
outputTree->Branch("theJetAK8MatchedPt_JetSubCalc_PtOrdered",&theJetAK8MatchedPt_JetSubCalc_PtOrdered);
outputTree->Branch("theJetAK8SDSubjetIndex_JetSubCalc_PtOrdered",&theJetAK8SDSubjetIndex_JetSubCalc_PtOrdered);
outputTree->Branch("theJetAK8SDSubjetSize_JetSubCalc_PtOrdered",&theJetAK8SDSubjetSize_JetSubCalc_PtOrdered);
outputTree->Branch("theJetAK8SDSubjetIndex_JetSubCalc",&theJetAK8SDSubjetIndex_JetSubCalc);
outputTree->Branch("theJetAK8SDSubjetSize_JetSubCalc",&theJetAK8SDSubjetSize_JetSubCalc);
outputTree->Branch("theJetAK8SDSubjetNDeepCSVMSF_JetSubCalc_PtOrdered",&theJetAK8SDSubjetNDeepCSVMSF_JetSubCalc_PtOrdered);
outputTree->Branch("maxProb_JetSubCalc_PtOrdered",&maxProb_JetSubCalc_PtOrdered);
outputTree->Branch("dnn_largest_BestCalc_PtOrdered",&dnn_largest_BestCalc_PtOrdered);
outputTree->Branch("dnn_largest_DeepAK8Calc_PtOrdered",&dnn_largest_DeepAK8Calc_PtOrdered);
outputTree->Branch("decorr_largest_DeepAK8Calc_PtOrdered",&decorr_largest_DeepAK8Calc_PtOrdered);
outputTree->Branch("BJetLeadPt",&BJetLeadPt,"BJetLeadPt/F");
outputTree->Branch("WJetLeadPt",&WJetLeadPt,"WJetLeadPt/F");
outputTree->Branch("TJetLeadPt",&TJetLeadPt,"TJetLeadPt/F");
outputTree->Branch("AK4HTpMETpLepPt",&AK4HTpMETpLepPt,"AK4HTpMETpLepPt/F");
outputTree->Branch("AK4HT",&AK4HT,"AK4HT/F");
outputTree->Branch("NJets_JetSubCalc",&NJets_JetSubCalc,"NJets_JetSubCalc/I");
outputTree->Branch("NJetsAK8_JetSubCalc",&NJetsAK8_JetSubCalc,"NJetsAK8_JetSubCalc/I");
outputTree->Branch("NJetsCSV_JetSubCalc",&NJetsCSV_JetSubCalc,"NJetsCSV_JetSubCalc/I");
outputTree->Branch("NJetsCSVnotH_JetSubCalc",&NJetsCSVnotH_JetSubCalc,"NJetsCSVnotH_JetSubCalc/I");
outputTree->Branch("NJetsCSVnotPH_JetSubCalc",&NJetsCSVnotPH_JetSubCalc,"NJetsCSVnotPH_JetSubCalc/I");
outputTree->Branch("NJetsH1btagged",&NJetsH1btagged,"NJetsH1btagged/I");
outputTree->Branch("NJetsH2btagged",&NJetsH2btagged,"NJetsH2btagged/I");
outputTree->Branch("NPuppiH1btagged",&NPuppiH1btagged,"NPuppiH1btagged/I");
outputTree->Branch("NPuppiH2btagged",&NPuppiH2btagged,"NPuppiH2btagged/I");
outputTree->Branch("topPt",&topPt,"topPt/F");
outputTree->Branch("topPtGen",&topPtGen,"topPtGen/F");
outputTree->Branch("topMass",&topMass,"topMass/F");
outputTree->Branch("minMleppBjet",&minMleppBjet,"minMleppBjet/F");
outputTree->Branch("minMleppJet",&minMleppJet,"mixnMleppJet/F");
outputTree->Branch("genTopPt",&genTopPt,"genTopPt/F");
outputTree->Branch("genAntiTopPt",&genAntiTopPt,"genAntiTopPt/F");
outputTree->Branch("topPtWeight13TeV",&topPtWeight13TeV,"topPtWeight13TeV/F");
outputTree->Branch("NJetsWtagged_0p6",&NJetsWtagged_0p6,"NJetsWtagged_0p6/I");
outputTree->Branch("NPuppiWtagged_0p55",&NPuppiWtagged_0p55,"NPuppiWtagged_0p55/I");
outputTree->Branch("NJetsWtagged_0p6_notTtagged",&NJetsWtagged_0p6_notTtagged,"NJetsWtagged_0p6_notTtagged/I");
outputTree->Branch("NJetsTtagged_0p81",&NJetsTtagged_0p81,"NJetsTtagged_0p81/I");
outputTree->Branch("minDR_leadAK8otherAK8",&minDR_leadAK8otherAK8,"minDR_leadAK8otherAK8/F");
outputTree->Branch("minDR_lepAK8",&minDR_lepAK8,"minDR_lepAK8/F");
outputTree->Branch("minDR_lepJet",&minDR_lepJet,"minDR_lepJet/F");
outputTree->Branch("ptRel_lepJet",&ptRel_lepJet,"ptRel_lepJet/F");
outputTree->Branch("MT_lepMet",&MT_lepMet,"MT_lepMet/F");
outputTree->Branch("deltaR_lepJets",&deltaR_lepJets);
outputTree->Branch("deltaR_lepBJets",&deltaR_lepBJets);
outputTree->Branch("deltaR_lepAK8s",&deltaR_lepAK8s);
outputTree->Branch("muIsLoose_singleLepCalc",&muIsLoose_singleLepCalc);
outputTree->Branch("muIsMedium_singleLepCalc",&muIsMedium_singleLepCalc);
outputTree->Branch("muIsMediumPrompt_singleLepCalc",&muIsMediumPrompt_singleLepCalc);
outputTree->Branch("muIsTight_singleLepCalc",&muIsTight_singleLepCalc);
outputTree->Branch("dnn_B_DeepAK8Calc",&dnn_B_DeepAK8Calc);
outputTree->Branch("dnn_J_DeepAK8Calc",&dnn_J_DeepAK8Calc);
outputTree->Branch("dnn_W_DeepAK8Calc",&dnn_W_DeepAK8Calc);
outputTree->Branch("dnn_Z_DeepAK8Calc",&dnn_Z_DeepAK8Calc);
outputTree->Branch("dnn_H_DeepAK8Calc",&dnn_H_DeepAK8Calc);
outputTree->Branch("dnn_T_DeepAK8Calc",&dnn_T_DeepAK8Calc);
outputTree->Branch("dnn_largest_DeepAK8Calc",&dnn_T_DeepAK8Calc);
outputTree->Branch("decorr_largest_DeepAK8Calc",&decorr_T_DeepAK8Calc);
outputTree->Branch("decorr_B_DeepAK8Calc",&decorr_B_DeepAK8Calc);
outputTree->Branch("decorr_J_DeepAK8Calc",&decorr_J_DeepAK8Calc);
outputTree->Branch("decorr_W_DeepAK8Calc",&decorr_W_DeepAK8Calc);
outputTree->Branch("decorr_Z_DeepAK8Calc",&decorr_Z_DeepAK8Calc);
outputTree->Branch("decorr_H_DeepAK8Calc",&decorr_H_DeepAK8Calc);
outputTree->Branch("decorr_T_DeepAK8Calc",&decorr_T_DeepAK8Calc);
outputTree->Branch("theJetAK8SDSubjetHFlav_JetSubCalc",&theJetAK8SDSubjetHFlav_JetSubCalc);
outputTree->Branch("elIsTightBarrel_singleLepCalc",&elIsTightBarrel_singleLepCalc,"elIsTightBarrel_singleLepCalc/F");
outputTree->Branch("elIsMediumBarrel_singleLepCalc",&elIsTightBarrel_singleLepCalc,"elIsMediumBarrel_singleLepCalc/F");
outputTree->Branch("elIsLooseBarrel_singleLepCalc",&elIsTightBarrel_singleLepCalc,"elIsLooseBarrel_singleLepCalc/F");
outputTree->Branch("elIsVetoBarrel_singleLepCalc",&elIsTightBarrel_singleLepCalc,"elIsVetoBarrel_singleLepCalc/F");
outputTree->Branch("elIsTightEndCap_singleLepCalc",&elIsTightBarrel_singleLepCalc,"elIsTightEndCap_singleLepCalc/F");
outputTree->Branch("elIsMediumEndCap_singleLepCalc",&elIsTightBarrel_singleLepCalc,"elIsMediumEndCap_singleLepCalc/F");
outputTree->Branch("elIsLooseEndCap_singleLepCalc",&elIsTightBarrel_singleLepCalc,"elIsLooseEndCap_singleLepCalc/F");
outputTree->Branch("elIsVetoEndCap_singleLepCalc",&elIsTightBarrel_singleLepCalc,"elIsVetoEndCap_singleLepCalc/F");
outputTree->Branch("theJetAK8Truth_JetSubCalc_PtOrdered",&theJetAK8Truth_JetSubCalc_PtOrdered);
outputTree->Branch("Tprime1_BEST_Mass",&Tprime1_BEST_Mass);
outputTree->Branch("Tprime2_BEST_Mass",&Tprime2_BEST_Mass);
outputTree->Branch("Tprime1_BEST_Pt",&Tprime1_BEST_Pt);
outputTree->Branch("Tprime2_BEST_Pt",&Tprime2_BEST_Pt);
outputTree->Branch("Tprime1_BEST_Eta",&Tprime1_BEST_Eta);
outputTree->Branch("Tprime2_BEST_Eta",&Tprime2_BEST_Eta);
outputTree->Branch("Tprime1_BEST_Phi",&Tprime1_BEST_Phi);
outputTree->Branch("Tprime2_BEST_Phi",&Tprime2_BEST_Phi);
outputTree->Branch("TprimeAvg_BEST_Mass",&TprimeAvg_BEST_Mass);
outputTree->Branch("Tprime1_DeepAK8_Mass",&Tprime1_DeepAK8_Mass);
outputTree->Branch("Tprime2_DeepAK8_Mass",&Tprime2_DeepAK8_Mass);
outputTree->Branch("Tprime1_DeepAK8_Pt",&Tprime1_DeepAK8_Pt);
outputTree->Branch("Tprime2_DeepAK8_Pt",&Tprime2_DeepAK8_Pt);
outputTree->Branch("Tprime1_DeepAK8_Eta",&Tprime1_DeepAK8_Eta);
outputTree->Branch("Tprime2_DeepAK8_Eta",&Tprime2_DeepAK8_Eta);
outputTree->Branch("Tprime1_DeepAK8_Phi",&Tprime1_DeepAK8_Phi);
outputTree->Branch("Tprime2_DeepAK8_Phi",&Tprime2_DeepAK8_Phi);
outputTree->Branch("TprimeAvg_DeepAK8_Mass",&TprimeAvg_DeepAK8_Mass);
outputTree->Branch("Tprime1_DeepAK8_decorr_Mass",&Tprime1_DeepAK8_decorr_Mass);
outputTree->Branch("Tprime2_DeepAK8_decorr_Mass",&Tprime2_DeepAK8_decorr_Mass);
outputTree->Branch("Tprime1_DeepAK8_decorr_Pt",&Tprime1_DeepAK8_decorr_Pt);
outputTree->Branch("Tprime2_DeepAK8_decorr_Pt",&Tprime2_DeepAK8_decorr_Pt);
outputTree->Branch("Tprime1_DeepAK8_decorr_Eta",&Tprime1_DeepAK8_decorr_Eta);
outputTree->Branch("Tprime2_DeepAK8_decorr_Eta",&Tprime2_DeepAK8_decorr_Eta);
outputTree->Branch("Tprime1_DeepAK8_decorr_Phi",&Tprime1_DeepAK8_decorr_Phi);
outputTree->Branch("Tprime2_DeepAK8_decorr_Phi",&Tprime2_DeepAK8_decorr_Phi);
outputTree->Branch("TprimeAvg_DeepAK8_decorr_Mass",&TprimeAvg_DeepAK8_decorr_Mass);
outputTree->Branch("isValidVLQDecayMode_BEST",&validDecay_BEST);
outputTree->Branch("isValidVLQDecayMode_DeepAK8",&validDecay_DeepAK8);
outputTree->Branch("isValidVLQDecayMode_DeepAK8_decorr",&validDecay_DeepAK8_decorr);
outputTree->Branch("highPtAK8Jet1_SoftDropCorrectedMass",&highPtAK8Jet1_SoftDropCorrectedMass);
outputTree->Branch("highPtAK8Jet2_SoftDropCorrectedMass",&highPtAK8Jet2_SoftDropCorrectedMass);
outputTree->Branch("highPtAK8Jet3_SoftDropCorrectedMass",&highPtAK8Jet3_SoftDropCorrectedMass);
outputTree->Branch("W_mass",&W_mass);
*/
// ******* HERE's an example histogram definition that could go in the file ********
// ******* TH1D *name = new TH1D("name","title;x-axis title;y-axis title",nbins,xmin,xmax)
// Tprime tagging denominator histogram
TH1D *THBWeff_den = new TH1D("THBWeff_den",";T VLQ pT [GeV];N(THBW VLQ's from Tagging Algorithm) / N(true hadronic THBW VLQ's)", 36, 200, 2000); THBWeff_den->Sumw2();
TH1D *THTHeff_den = new TH1D("THTHeff_den",";T VLQ pT [GeV];N(THTH VLQ's from Tagging Algorithm) / N(true hadronic THTH VLQ's)", 36, 200, 2000); THTHeff_den->Sumw2();
TH1D *THTZeff_den = new TH1D("THTZeff_den",";T VLQ pT [GeV];N(THTZ VLQ's from Tagging Algorithm) / N(true hadronic THTZ VLQ's)", 36, 200, 2000); THTZeff_den->Sumw2();
TH1D *TZBWeff_den = new TH1D("TZBWeff_den",";T VLQ pT [GeV];N(TZBW VLQ's from Tagging Algorithm) / N(true hadronic TZBW VLQ's)", 36, 200, 2000); TZBWeff_den->Sumw2();
TH1D *TZTZeff_den = new TH1D("TZTZeff_den",";T VLQ pT [GeV];N(TZTZ VLQ's from Tagging Algorithm) / N(true hadronic TZTZ VLQ's)", 36, 200, 2000); TZTZeff_den->Sumw2();
TH1D *BWBWeff_den = new TH1D("BWBWeff_den",";T VLQ pT [GeV];N(BWBW VLQ's from Tagging Algorithm) / N(true hadronic BWBW VLQ's)", 36, 200, 2000); BWBWeff_den->Sumw2();
TH1D *BWTZeff_den = new TH1D("BWTZeff_den",";T VLQ pT [GeV];N(BWTZ VLQ's from Tagging Algorithm) / N(true hadronic BWTZ VLQ's)", 36, 200, 2000); BWTZeff_den->Sumw2();
TH1D *BWTHeff_den = new TH1D("BWTHeff_den",";T VLQ pT [GeV];N(BWTH VLQ's from Tagging Algorithm) / N(true hadronic BWTH VLQ's)", 36, 200, 2000); BWTHeff_den->Sumw2();
// Tprime mistagging denominator histogram
TH1D *THBWeff_mistag_den = new TH1D("THBWeff_mistag_den",";T VLQ pT [GeV];N(THBW VLQ's from Tagging Algorithm) / N(true hadronic THBW VLQ's)", 36, 200, 2000); THBWeff_mistag_den->Sumw2();
TH1D *THTHeff_mistag_den = new TH1D("THTHeff_mistag_den",";T VLQ pT [GeV];N(THTH VLQ's from Tagging Algorithm) / N(true hadronic THTH VLQ's)", 36, 200, 2000); THTHeff_mistag_den->Sumw2();
TH1D *THTZeff_mistag_den = new TH1D("THTZeff_mistag_den",";T VLQ pT [GeV];N(THTZ VLQ's from Tagging Algorithm) / N(true hadronic THTZ VLQ's)", 36, 200, 2000); THTZeff_mistag_den->Sumw2();
TH1D *TZBWeff_mistag_den = new TH1D("TZBWeff_mistag_den",";T VLQ pT [GeV];N(TZBW VLQ's from Tagging Algorithm) / N(true hadronic TZBW VLQ's)", 36, 200, 2000); TZBWeff_mistag_den->Sumw2();
TH1D *TZTZeff_mistag_den = new TH1D("TZTZeff_mistag_den",";T VLQ pT [GeV];N(TZTZ VLQ's from Tagging Algorithm) / N(true hadronic TZTZ VLQ's)", 36, 200, 2000); TZTZeff_mistag_den->Sumw2();
TH1D *BWBWeff_mistag_den = new TH1D("BWBWeff_mistag_den",";T VLQ pT [GeV];N(BWBW VLQ's from Tagging Algorithm) / N(true hadronic BWBW VLQ's)", 36, 200, 2000); BWBWeff_mistag_den->Sumw2();
TH1D *BWTZeff_mistag_den = new TH1D("BWTZeff_mistag_den",";T VLQ pT [GeV];N(BWTZ VLQ's from Tagging Algorithm) / N(true hadronic BWTZ VLQ's)", 36, 200, 2000); BWTZeff_mistag_den->Sumw2();
TH1D *BWTHeff_mistag_den = new TH1D("BWTHeff_mistag_den",";T VLQ pT [GeV];N(BWTH VLQ's from Tagging Algorithm) / N(true hadronic BWTH VLQ's)", 36, 200, 2000); BWTHeff_mistag_den->Sumw2();
// Tagging Efficiency denominator histograms
TH1D *Weff_den = new TH1D("Weff_den",";W boson pT [GeV];N(W from Tagging Algorithm) / N(true hadronic W)", 36, 200, 2000); Weff_den->Sumw2();
TH1D *Zeff_den = new TH1D("Zeff_den",";Z boson pT [GeV];N(Z from Tagging Algorithm) / N(true hadronic Z)", 36, 200, 2000); Zeff_den->Sumw2();
TH1D *Heff_den = new TH1D("Heff_den",";H boson pT [GeV];N(H from Tagging Algorithm) / N(true hadronic H)", 36, 200, 2000); Heff_den->Sumw2();
TH1D *Teff_den = new TH1D("Teff_den",";T boson pT [GeV];N(T from Tagging Algorithm) / N(true hadronic T)", 36, 200, 2000); Teff_den->Sumw2();
TH1D *Beff_den = new TH1D("Beff_den",";B boson pT [GeV];N(B from Tagging Algorithm) / N(true hadronic B)", 36, 200, 2000); Beff_den->Sumw2();
TH1D *Jeff_den = new TH1D("Jeff_den",";J boson pT [GeV];N(J from Tagging Algorithm) / N(true hadronic J)", 36, 200, 2000); Jeff_den->Sumw2();
// Mistagging efficiency denominator histograms
TH1D *Weff_mistag_den = new TH1D("Weff_mistag_den",";W boson pT [GeV];N(W from Tagging Algorithm) / N(true hadronic W)", 36, 200, 2000); Weff_mistag_den->Sumw2();
TH1D *Zeff_mistag_den = new TH1D("Zeff_mistag_den",";Z boson pT [GeV];N(Z from Tagging Algorithm) / N(true hadronic Z)", 36, 200, 2000); Zeff_mistag_den->Sumw2();
TH1D *Heff_mistag_den = new TH1D("Heff_mistag_den",";H boson pT [GeV];N(H from Tagging Algorithm) / N(true hadronic H)", 36, 200, 2000); Heff_mistag_den->Sumw2();
TH1D *Teff_mistag_den = new TH1D("Teff_mistag_den",";T boson pT [GeV];N(T from Tagging Algorithm) / N(true hadronic T)", 36, 200, 2000); Teff_mistag_den->Sumw2();
TH1D *Beff_mistag_den = new TH1D("Beff_mistag_den",";B boson pT [GeV];N(B from Tagging Algorithm) / N(true hadronic B)", 36, 200, 2000); Beff_mistag_den->Sumw2();
TH1D *Jeff_mistag_den = new TH1D("Jeff_mistag_den",";J boson pT [GeV];N(J from Tagging Algorithm) / N(true hadronic J)", 36, 200, 2000); Jeff_mistag_den->Sumw2();
// Tprime agging efficiency numerator histgram
TH1D *THBWeff_BEST_num = new TH1D("THBWeff_BEST_num",";THBW VLQ pT [GeV];N(THBW VLQ's from BEST) / N(true hadronic THBW VLQ's)", 36, 200, 2000); THBWeff_BEST_num->Sumw2();
TH1D *THTHeff_BEST_num = new TH1D("THTHeff_BEST_num",";THTH VLQ pT [GeV];N(THTH VLQ's from BEST) / N(true hadronic THTH VLQ's)", 36, 200, 2000); THTHeff_BEST_num->Sumw2();
TH1D *THTZeff_BEST_num = new TH1D("THTZeff_BEST_num",";THTZ VLQ pT [GeV];N(THTZ VLQ's from BEST) / N(true hadronic THTZ VLQ's)", 36, 200, 2000); THTZeff_BEST_num->Sumw2();
TH1D *TZBWeff_BEST_num = new TH1D("TZBWeff_BEST_num",";TZBW VLQ pT [GeV];N(TZBW VLQ's from BEST) / N(true hadronic TZBW VLQ's)", 36, 200, 2000); TZBWeff_BEST_num->Sumw2();
TH1D *TZTZeff_BEST_num = new TH1D("TZTZeff_BEST_num",";TZTZ VLQ pT [GeV];N(TZTZ VLQ's from BEST) / N(true hadronic TZTZ VLQ's)", 36, 200, 2000); TZTZeff_BEST_num->Sumw2();
TH1D *BWBWeff_BEST_num = new TH1D("BWBWeff_BEST_num",";BWBW VLQ pT [GeV];N(BWBW VLQ's from BEST) / N(true hadronic BWBW VLQ's)", 36, 200, 2000); BWBWeff_BEST_num->Sumw2();
TH1D *BWTZeff_BEST_num = new TH1D("BWTZeff_BEST_num",";BWTZ VLQ pT [GeV];N(BWTZ VLQ's from BEST) / N(true hadronic BWTZ VLQ's)", 36, 200, 2000); BWTZeff_BEST_num->Sumw2();
TH1D *BWTHeff_BEST_num = new TH1D("BWTHeff_BEST_num",";BWTH VLQ pT [GeV];N(BWTH VLQ's from BEST) / N(true hadronic BWTH VLQ's)", 36, 200, 2000); BWTHeff_BEST_num->Sumw2();
TH1D *THBWeff_DeepAK8_num = new TH1D("THBWeff_DeepAK8_num",";THBW VLQ pT [GeV];N(THBW VLQ's from DeepAK8) / N(true hadronic THBW VLQ's)", 36, 200, 2000); THBWeff_DeepAK8_num->Sumw2();
TH1D *THTHeff_DeepAK8_num = new TH1D("THTHeff_DeepAK8_num",";THTH VLQ pT [GeV];N(THTH VLQ's from DeepAK8) / N(true hadronic THTH VLQ's)", 36, 200, 2000); THTHeff_DeepAK8_num->Sumw2();
TH1D *THTZeff_DeepAK8_num = new TH1D("THTZeff_DeepAK8_num",";THTZ VLQ pT [GeV];N(THTZ VLQ's from DeepAK8) / N(true hadronic THTZ VLQ's)", 36, 200, 2000); THTZeff_DeepAK8_num->Sumw2();
TH1D *TZBWeff_DeepAK8_num = new TH1D("TZBWeff_DeepAK8_num",";TZBW VLQ pT [GeV];N(TZBW VLQ's from DeepAK8) / N(true hadronic TZBW VLQ's)", 36, 200, 2000); TZBWeff_DeepAK8_num->Sumw2();
TH1D *TZTZeff_DeepAK8_num = new TH1D("TZTZeff_DeepAK8_num",";TZTZ VLQ pT [GeV];N(TZTZ VLQ's from DeepAK8) / N(true hadronic TZTZ VLQ's)", 36, 200, 2000); TZTZeff_DeepAK8_num->Sumw2();
TH1D *BWBWeff_DeepAK8_num = new TH1D("BWBWeff_DeepAK8_num",";BWBW VLQ pT [GeV];N(BWBW VLQ's from DeepAK8) / N(true hadronic BWBW VLQ's)", 36, 200, 2000); BWBWeff_DeepAK8_num->Sumw2();
TH1D *BWTZeff_DeepAK8_num = new TH1D("BWTZeff_DeepAK8_num",";BWTZ VLQ pT [GeV];N(BWTZ VLQ's from DeepAK8) / N(true hadronic BWTZ VLQ's)", 36, 200, 2000); BWTZeff_DeepAK8_num->Sumw2();
TH1D *BWTHeff_DeepAK8_num = new TH1D("BWTHeff_DeepAK8_num",";BWTH VLQ pT [GeV];N(BWTH VLQ's from DeepAK8) / N(true hadronic BWTH VLQ's)", 36, 200, 2000); BWTHeff_DeepAK8_num->Sumw2();
TH1D *THBWeff_DeepAK8_decorr_num = new TH1D("THBWeff_DeepAK8_decorr_num",";THBW VLQ pT [GeV];N(THBW VLQ's from DeepAK8_decorr) / N(true hadronic THBW VLQ's)", 36, 200, 2000); THBWeff_DeepAK8_decorr_num->Sumw2();
TH1D *THTHeff_DeepAK8_decorr_num = new TH1D("THTHeff_DeepAK8_decorr_num",";THTH VLQ pT [GeV];N(THTH VLQ's from DeepAK8_decorr) / N(true hadronic THTH VLQ's)", 36, 200, 2000); THTHeff_DeepAK8_decorr_num->Sumw2();
TH1D *THTZeff_DeepAK8_decorr_num = new TH1D("THTZeff_DeepAK8_decorr_num",";THTZ VLQ pT [GeV];N(THTZ VLQ's from DeepAK8_decorr) / N(true hadronic THTZ VLQ's)", 36, 200, 2000); THTZeff_DeepAK8_decorr_num->Sumw2();
TH1D *TZBWeff_DeepAK8_decorr_num = new TH1D("TZBWeff_DeepAK8_decorr_num",";TZBW VLQ pT [GeV];N(TZBW VLQ's from DeepAK8_decorr) / N(true hadronic TZBW VLQ's)", 36, 200, 2000); TZBWeff_DeepAK8_decorr_num->Sumw2();
TH1D *TZTZeff_DeepAK8_decorr_num = new TH1D("TZTZeff_DeepAK8_decorr_num",";TZTZ VLQ pT [GeV];N(TZTZ VLQ's from DeepAK8_decorr) / N(true hadronic TZTZ VLQ's)", 36, 200, 2000); TZTZeff_DeepAK8_decorr_num->Sumw2();
TH1D *BWBWeff_DeepAK8_decorr_num = new TH1D("BWBWeff_DeepAK8_decorr_num",";BWBW VLQ pT [GeV];N(BWBW VLQ's from DeepAK8_decorr) / N(true hadronic BWBW VLQ's)", 36, 200, 2000); BWBWeff_DeepAK8_decorr_num->Sumw2();
TH1D *BWTZeff_DeepAK8_decorr_num = new TH1D("BWTZeff_DeepAK8_decorr_num",";BWTZ VLQ pT [GeV];N(BWTZ VLQ's from DeepAK8_decorr) / N(true hadronic BWTZ VLQ's)", 36, 200, 2000); BWTZeff_DeepAK8_decorr_num->Sumw2();
TH1D *BWTHeff_DeepAK8_decorr_num = new TH1D("BWTHeff_DeepAK8_decorr_num",";BWTH VLQ pT [GeV];N(BWTH VLQ's from DeepAK8_decorr) / N(true hadronic BWTH VLQ's)", 36, 200, 2000); BWTHeff_DeepAK8_decorr_num->Sumw2();
// Tagging efficiency numerator histograms
TH1D *Weff_BEST_num = new TH1D("Weff_BEST_num",";W boson pT [GeV];N(W from BEST) / N(true hadronic W)", 36, 200, 2000); Weff_BEST_num->Sumw2();
TH1D *Zeff_BEST_num = new TH1D("Zeff_BEST_num",";Z boson pT [GeV];N(Z from BEST) / N(true hadronic Z)", 36, 200, 2000); Zeff_BEST_num->Sumw2();
TH1D *Heff_BEST_num = new TH1D("Heff_BEST_num",";H boson pT [GeV];N(H from BEST) / N(true hadronic H)", 36, 200, 2000); Heff_BEST_num->Sumw2();
TH1D *Teff_BEST_num = new TH1D("Teff_BEST_num",";T boson pT [GeV];N(T from BEST) / N(true hadronic T)", 36, 200, 2000); Teff_BEST_num->Sumw2();
TH1D *Beff_BEST_num = new TH1D("Beff_BEST_num",";B boson pT [GeV];N(B from BEST) / N(true hadronic B)", 36, 200, 2000); Beff_BEST_num->Sumw2();
TH1D *Jeff_BEST_num = new TH1D("Jeff_BEST_num",";J boson pT [GeV];N(J from BEST) / N(true hadronic J)", 36, 200, 2000); Jeff_BEST_num->Sumw2();
TH1D *Weff_DeepAK8_decorr_num = new TH1D("Weff_DeepAK8_decorr_num",";W boson pT [GeV];N(W from DeepAK8_decorr) / N(true hadronic W)", 36, 200, 2000); Weff_DeepAK8_decorr_num->Sumw2();
TH1D *Zeff_DeepAK8_decorr_num = new TH1D("Zeff_DeepAK8_decorr_num",";Z boson pT [GeV];N(Z from DeepAK8_decorr) / N(true hadronic Z)", 36, 200, 2000); Zeff_DeepAK8_decorr_num->Sumw2();
TH1D *Heff_DeepAK8_decorr_num = new TH1D("Heff_DeepAK8_decorr_num",";H boson pT [GeV];N(H from DeepAK8_decorr) / N(true hadronic H)", 36, 200, 2000); Heff_DeepAK8_decorr_num->Sumw2();
TH1D *Teff_DeepAK8_decorr_num = new TH1D("Teff_DeepAK8_decorr_num",";T boson pT [GeV];N(T from DeepAK8_decorr) / N(true hadronic T)", 36, 200, 2000); Teff_DeepAK8_decorr_num->Sumw2();
TH1D *Beff_DeepAK8_decorr_num = new TH1D("Beff_DeepAK8_decorr_num",";B boson pT [GeV];N(B from DeepAK8_decorr) / N(true hadronic B)", 36, 200, 2000); Beff_DeepAK8_decorr_num->Sumw2();
TH1D *Jeff_DeepAK8_decorr_num = new TH1D("Jeff_DeepAK8_decorr_num",";J boson pT [GeV];N(J from DeepAK8_decorr) / N(true hadronic J)", 36, 200, 2000); Jeff_DeepAK8_decorr_num->Sumw2();
TH1D *Weff_DeepAK8_num = new TH1D("Weff_DeepAK8_num",";W boson pT [GeV];N(W from DeepAK8) / N(true hadronic W)", 36, 200, 2000); Weff_DeepAK8_num->Sumw2();
TH1D *Zeff_DeepAK8_num = new TH1D("Zeff_DeepAK8_num",";Z boson pT [GeV];N(Z from DeepAK8) / N(true hadronic Z)", 36, 200, 2000); Zeff_DeepAK8_num->Sumw2();
TH1D *Heff_DeepAK8_num = new TH1D("Heff_DeepAK8_num",";H boson pT [GeV];N(H from DeepAK8) / N(true hadronic H)", 36, 200, 2000); Heff_DeepAK8_num->Sumw2();
TH1D *Teff_DeepAK8_num = new TH1D("Teff_DeepAK8_num",";T boson pT [GeV];N(T from DeepAK8) / N(true hadronic T)", 36, 200, 2000); Teff_DeepAK8_num->Sumw2();
TH1D *Beff_DeepAK8_num = new TH1D("Beff_DeepAK8_num",";B boson pT [GeV];N(B from DeepAK8) / N(true hadronic B)", 36, 200, 2000); Beff_DeepAK8_num->Sumw2();
TH1D *Jeff_DeepAK8_num = new TH1D("Jeff_DeepAK8_num",";J boson pT [GeV];N(J from DeepAK8) / N(true hadronic J)", 36, 200, 2000); Jeff_DeepAK8_num->Sumw2();
TH1D *WZeff_JetSub_num = new TH1D("WZeff_JetSub_num",";W and Z boson pT [GeV];N(W and Z from JetSub) / N(true hadronic W and Z)", 36, 200, 2000); WZeff_JetSub_num->Sumw2();
TH1D *Heff_JetSub_num = new TH1D("Heff_JetSub_num",";H boson pT [GeV];N(H from JetSub) / N(true hadronic H)", 36, 200, 2000); Heff_JetSub_num->Sumw2();
TH1D *Teff_JetSub_num = new TH1D("Teff_JetSub_num",";T boson pT [GeV];N(T from JetSub) / N(true hadronic T)", 36, 200, 2000); Teff_JetSub_num->Sumw2();
TH1D *Beff_JetSub_num = new TH1D("Beff_JetSub_num",";B boson pT [GeV];N(B from JetSub) / N(true hadronic B)", 36, 200, 2000); Beff_JetSub_num->Sumw2();
TH1D *Jeff_JetSub_num = new TH1D("Jeff_JetSub_num",";J boson pT [GeV];N(J from JetSub) / N(true hadronic J)", 36, 200, 2000); Jeff_JetSub_num->Sumw2();
// Tprime agging efficiency numerator histgram
TH1D *THBWeff_mistag_BEST_num = new TH1D("THBWeff_mistag_BEST_num",";THBW VLQ pT [GeV];N(THBW VLQ's from BEST) / N(true hadronic THBW VLQ's)", 36, 200, 2000); THBWeff_mistag_BEST_num->Sumw2();
TH1D *THTHeff_mistag_BEST_num = new TH1D("THTHeff_mistag_BEST_num",";THTH VLQ pT [GeV];N(THTH VLQ's from BEST) / N(true hadronic THTH VLQ's)", 36, 200, 2000); THTHeff_mistag_BEST_num->Sumw2();
TH1D *THTZeff_mistag_BEST_num = new TH1D("THTZeff_mistag_BEST_num",";THTZ VLQ pT [GeV];N(THTZ VLQ's from BEST) / N(true hadronic THTZ VLQ's)", 36, 200, 2000); THTZeff_mistag_BEST_num->Sumw2();
TH1D *TZBWeff_mistag_BEST_num = new TH1D("TZBWeff_mistag_BEST_num",";TZBW VLQ pT [GeV];N(TZBW VLQ's from BEST) / N(true hadronic TZBW VLQ's)", 36, 200, 2000); TZBWeff_mistag_BEST_num->Sumw2();
TH1D *TZTZeff_mistag_BEST_num = new TH1D("TZTZeff_mistag_BEST_num",";TZTZ VLQ pT [GeV];N(TZTZ VLQ's from BEST) / N(true hadronic TZTZ VLQ's)", 36, 200, 2000); TZTZeff_mistag_BEST_num->Sumw2();
TH1D *BWBWeff_mistag_BEST_num = new TH1D("BWBWeff_mistag_BEST_num",";BWBW VLQ pT [GeV];N(BWBW VLQ's from BEST) / N(true hadronic BWBW VLQ's)", 36, 200, 2000); BWBWeff_mistag_BEST_num->Sumw2();
TH1D *BWTZeff_mistag_BEST_num = new TH1D("BWTZeff_mistag_BEST_num",";BWTZ VLQ pT [GeV];N(BWTZ VLQ's from BEST) / N(true hadronic BWTZ VLQ's)", 36, 200, 2000); BWTZeff_mistag_BEST_num->Sumw2();
TH1D *BWTHeff_mistag_BEST_num = new TH1D("BWTHeff_mistag_BEST_num",";BWTH VLQ pT [GeV];N(BWTH VLQ's from BEST) / N(true hadronic BWTH VLQ's)", 36, 200, 2000); BWTHeff_mistag_BEST_num->Sumw2();
TH1D *THBWeff_mistag_DeepAK8_num = new TH1D("THBWeff_mistag_DeepAK8_num",";THBW VLQ pT [GeV];N(THBW VLQ's from DeepAK8) / N(true hadronic THBW VLQ's)", 36, 200, 2000); THBWeff_mistag_DeepAK8_num->Sumw2();
TH1D *THTHeff_mistag_DeepAK8_num = new TH1D("THTHeff_mistag_DeepAK8_num",";THTH VLQ pT [GeV];N(THTH VLQ's from DeepAK8) / N(true hadronic THTH VLQ's)", 36, 200, 2000); THTHeff_mistag_DeepAK8_num->Sumw2();
TH1D *THTZeff_mistag_DeepAK8_num = new TH1D("THTZeff_mistag_DeepAK8_num",";THTZ VLQ pT [GeV];N(THTZ VLQ's from DeepAK8) / N(true hadronic THTZ VLQ's)", 36, 200, 2000); THTZeff_mistag_DeepAK8_num->Sumw2();
TH1D *TZBWeff_mistag_DeepAK8_num = new TH1D("TZBWeff_mistag_DeepAK8_num",";TZBW VLQ pT [GeV];N(TZBW VLQ's from DeepAK8) / N(true hadronic TZBW VLQ's)", 36, 200, 2000); TZBWeff_mistag_DeepAK8_num->Sumw2();
TH1D *TZTZeff_mistag_DeepAK8_num = new TH1D("TZTZeff_mistag_DeepAK8_num",";TZTZ VLQ pT [GeV];N(TZTZ VLQ's from DeepAK8) / N(true hadronic TZTZ VLQ's)", 36, 200, 2000); TZTZeff_mistag_DeepAK8_num->Sumw2();
TH1D *BWBWeff_mistag_DeepAK8_num = new TH1D("BWBWeff_mistag_DeepAK8_num",";BWBW VLQ pT [GeV];N(BWBW VLQ's from DeepAK8) / N(true hadronic BWBW VLQ's)", 36, 200, 2000); BWBWeff_mistag_DeepAK8_num->Sumw2();
TH1D *BWTZeff_mistag_DeepAK8_num = new TH1D("BWTZeff_mistag_DeepAK8_num",";BWTZ VLQ pT [GeV];N(BWTZ VLQ's from DeepAK8) / N(true hadronic BWTZ VLQ's)", 36, 200, 2000); BWTZeff_mistag_DeepAK8_num->Sumw2();
TH1D *BWTHeff_mistag_DeepAK8_num = new TH1D("BWTHeff_mistag_DeepAK8_num",";BWTH VLQ pT [GeV];N(BWTH VLQ's from DeepAK8) / N(true hadronic BWTH VLQ's)", 36, 200, 2000); BWTHeff_mistag_DeepAK8_num->Sumw2();
TH1D *THBWeff_mistag_DeepAK8_decorr_num = new TH1D("THBWeff_mistag_DeepAK8_decorr_num",";THBW VLQ pT [GeV];N(THBW VLQ's from DeepAK8_decorr) / N(true hadronic THBW VLQ's)", 36, 200, 2000); THBWeff_mistag_DeepAK8_decorr_num->Sumw2();
TH1D *THTHeff_mistag_DeepAK8_decorr_num = new TH1D("THTHeff_mistag_DeepAK8_decorr_num",";THTH VLQ pT [GeV];N(THTH VLQ's from DeepAK8_decorr) / N(true hadronic THTH VLQ's)", 36, 200, 2000); THTHeff_mistag_DeepAK8_decorr_num->Sumw2();
TH1D *THTZeff_mistag_DeepAK8_decorr_num = new TH1D("THTZeff_mistag_DeepAK8_decorr_num",";THTZ VLQ pT [GeV];N(THTZ VLQ's from DeepAK8_decorr) / N(true hadronic THTZ VLQ's)", 36, 200, 2000); THTZeff_mistag_DeepAK8_decorr_num->Sumw2();
TH1D *TZBWeff_mistag_DeepAK8_decorr_num = new TH1D("TZBWeff_mistag_DeepAK8_decorr_num",";TZBW VLQ pT [GeV];N(TZBW VLQ's from DeepAK8_decorr) / N(true hadronic TZBW VLQ's)", 36, 200, 2000); TZBWeff_mistag_DeepAK8_decorr_num->Sumw2();
TH1D *TZTZeff_mistag_DeepAK8_decorr_num = new TH1D("TZTZeff_mistag_DeepAK8_decorr_num",";TZTZ VLQ pT [GeV];N(TZTZ VLQ's from DeepAK8_decorr) / N(true hadronic TZTZ VLQ's)", 36, 200, 2000); TZTZeff_mistag_DeepAK8_decorr_num->Sumw2();
TH1D *BWBWeff_mistag_DeepAK8_decorr_num = new TH1D("BWBWeff_mistag_DeepAK8_decorr_num",";BWBW VLQ pT [GeV];N(BWBW VLQ's from DeepAK8_decorr) / N(true hadronic BWBW VLQ's)", 36, 200, 2000); BWBWeff_mistag_DeepAK8_decorr_num->Sumw2();
TH1D *BWTZeff_mistag_DeepAK8_decorr_num = new TH1D("BWTZeff_mistag_DeepAK8_decorr_num",";BWTZ VLQ pT [GeV];N(BWTZ VLQ's from DeepAK8_decorr) / N(true hadronic BWTZ VLQ's)", 36, 200, 2000); BWTZeff_mistag_DeepAK8_decorr_num->Sumw2();
TH1D *BWTHeff_mistag_DeepAK8_decorr_num = new TH1D("BWTHeff_mistag_DeepAK8_decorr_num",";BWTH VLQ pT [GeV];N(BWTH VLQ's from DeepAK8_decorr) / N(true hadronic BWTH VLQ's)", 36, 200, 2000); BWTHeff_mistag_DeepAK8_decorr_num->Sumw2();
// Mistagging efficiency numerator histograms
TH1D *Weff_mistag_BEST_num = new TH1D("Weff_mistag_BEST_num",";W boson pT [GeV];N(W from BEST) / N(true hadronic W)", 36, 200, 2000); Weff_mistag_BEST_num->Sumw2();
TH1D *Zeff_mistag_BEST_num = new TH1D("Zeff_mistag_BEST_num",";Z boson pT [GeV];N(Z from BEST) / N(true hadronic Z)", 36, 200, 2000); Zeff_mistag_BEST_num->Sumw2();
TH1D *Heff_mistag_BEST_num = new TH1D("Heff_mistag_BEST_num",";H boson pT [GeV];N(H from BEST) / N(true hadronic H)", 36, 200, 2000); Heff_mistag_BEST_num->Sumw2();
TH1D *Teff_mistag_BEST_num = new TH1D("Teff_mistag_BEST_num",";T boson pT [GeV];N(T from BEST) / N(true hadronic T)", 36, 200, 2000); Teff_mistag_BEST_num->Sumw2();
TH1D *Beff_mistag_BEST_num = new TH1D("Beff_mistag_BEST_num",";B boson pT [GeV];N(B from BEST) / N(true hadronic B)", 36, 200, 2000); Beff_mistag_BEST_num->Sumw2();
TH1D *Jeff_mistag_BEST_num = new TH1D("Jeff_mistag_BEST_num",";J boson pT [GeV];N(J from BEST) / N(true hadronic J)", 36, 200, 2000); Jeff_mistag_BEST_num->Sumw2();
TH1D *Weff_mistag_DeepAK8_decorr_num = new TH1D("Weff_mistag_DeepAK8_decorr_num",";W boson pT [GeV];N(W from DeepAK8_decorr) / N(true hadronic W)", 36, 200, 2000); Weff_mistag_DeepAK8_decorr_num->Sumw2();
TH1D *Zeff_mistag_DeepAK8_decorr_num = new TH1D("Zeff_mistag_DeepAK8_decorr_num",";Z boson pT [GeV];N(Z from DeepAK8_decorr) / N(true hadronic Z)", 36, 200, 2000); Zeff_mistag_DeepAK8_decorr_num->Sumw2();
TH1D *Heff_mistag_DeepAK8_decorr_num = new TH1D("Heff_mistag_DeepAK8_decorr_num",";H boson pT [GeV];N(H from DeepAK8_decorr) / N(true hadronic H)", 36, 200, 2000); Heff_mistag_DeepAK8_decorr_num->Sumw2();
TH1D *Teff_mistag_DeepAK8_decorr_num = new TH1D("Teff_mistag_DeepAK8_decorr_num",";T boson pT [GeV];N(T from DeepAK8_decorr) / N(true hadronic T)", 36, 200, 2000); Teff_mistag_DeepAK8_decorr_num->Sumw2();
TH1D *Beff_mistag_DeepAK8_decorr_num = new TH1D("Beff_mistag_DeepAK8_decorr_num",";B boson pT [GeV];N(B from DeepAK8_decorr) / N(true hadronic B)", 36, 200, 2000); Beff_mistag_DeepAK8_decorr_num->Sumw2();
TH1D *Jeff_mistag_DeepAK8_decorr_num = new TH1D("Jeff_mistag_DeepAK8_decorr_num",";J boson pT [GeV];N(J from DeepAK8_decorr) / N(true hadronic J)", 36, 200, 2000); Jeff_mistag_DeepAK8_decorr_num->Sumw2();
TH1D *Weff_mistag_DeepAK8_num = new TH1D("Weff_mistag_DeepAK8_num",";W boson pT [GeV];N(W from DeepAK8) / N(true hadronic W)", 36, 200, 2000); Weff_mistag_DeepAK8_num->Sumw2();
TH1D *Zeff_mistag_DeepAK8_num = new TH1D("Zeff_mistag_DeepAK8_num",";Z boson pT [GeV];N(Z from DeepAK8) / N(true hadronic Z)", 36, 200, 2000); Zeff_mistag_DeepAK8_num->Sumw2();
TH1D *Heff_mistag_DeepAK8_num = new TH1D("Heff_mistag_DeepAK8_num",";H boson pT [GeV];N(H from DeepAK8) / N(true hadronic H)", 36, 200, 2000); Heff_mistag_DeepAK8_num->Sumw2();
TH1D *Teff_mistag_DeepAK8_num = new TH1D("Teff_mistag_DeepAK8_num",";T boson pT [GeV];N(T from DeepAK8) / N(true hadronic T)", 36, 200, 2000); Teff_mistag_DeepAK8_num->Sumw2();
TH1D *Beff_mistag_DeepAK8_num = new TH1D("Beff_mistag_DeepAK8_num",";B boson pT [GeV];N(B from DeepAK8) / N(true hadronic B)", 36, 200, 2000); Beff_mistag_DeepAK8_num->Sumw2();
TH1D *Jeff_mistag_DeepAK8_num = new TH1D("Jeff_mistag_DeepAK8_num",";J boson pT [GeV];N(J from DeepAK8) / N(true hadronic J)", 36, 200, 2000); Jeff_mistag_DeepAK8_num->Sumw2();
TH1D *WZeff_mistag_JetSub_num = new TH1D("WZeff_mistag_JetSub_num",";W and Z boson pT [GeV];N(W and Z from JetSub) / N(true hadronic W and Z)", 36, 200, 2000); WZeff_mistag_JetSub_num->Sumw2();
TH1D *Heff_mistag_JetSub_num = new TH1D("Heff_mistag_JetSub_num",";H boson pT [GeV];N(H from JetSub) / N(true hadronic H)", 36, 200, 2000); Heff_mistag_JetSub_num->Sumw2();
TH1D *Teff_mistag_JetSub_num = new TH1D("Teff_mistag_JetSub_num",";T boson pT [GeV];N(T from JetSub) / N(true hadronic T)", 36, 200, 2000); Teff_mistag_JetSub_num->Sumw2();
TH1D *Beff_mistag_JetSub_num = new TH1D("Beff_mistag_JetSub_num",";B boson pT [GeV];N(B from JetSub) / N(true hadronic B)", 36, 200, 2000); Beff_mistag_JetSub_num->Sumw2();
TH1D *Jeff_mistag_JetSub_num = new TH1D("Jeff_mistag_JetSub_num",";J boson pT [GeV];N(J from JetSub) / N(true hadronic J)", 36, 200, 2000); Jeff_mistag_JetSub_num->Sumw2();
//Tprime2 Mass Histograms
TH1D *Tprime2_BEST_Mass_hist = new TH1D("Tprime2_BEST_Mass_hist",";Number of entries;Tprime2 mass [GeV]",50,800,2000); Tprime2_BEST_Mass_hist->Sumw2();
TH1D *Tprime2_DeepAK8_Mass_hist = new TH1D("Tprime2_DeepAK8_Mass_hist",";Number of entries;Tprime2 mass [GeV]",50,800,2000); Tprime2_DeepAK8_Mass_hist->Sumw2();
TH1D *Tprime2_DeepAK8_decorr_Mass_hist = new TH1D("Tprime2_DeepAK8_decorr_Mass_hist",";Number of entries;Tprime2 mass [GeV]",50,800,2000); Tprime2_DeepAK8_decorr_Mass_hist->Sumw2();
TH1D *Tprime2_JetSub_Mass_hist = new TH1D("Tprime2_JetSub_Mass_hist",";Number of entries;Tprime2 mass [GeV]",50,800,2000); Tprime2_JetSub_Mass_hist->Sumw2();
TH2D *confusion_num_BEST = new TH2D("confusion_num_BEST","",6,0,6,6,0,6);
TH2D *confusion_num_DeepAK8 = new TH2D("confusion_num_DeepAK8","",6,0,6,6,0,6);
TH2D *confusion_num_DeepAK8LC = new TH2D("confusion_num_DeepAK8LC","",6,0,6,6,0,6);
TH2D *confusion_num_DeepAK8SubJet = new TH2D("confusion_num_DeepAK8SubJet","",6,0,6,6,0,6);
TH2D *confusion_num_DeepAK8SubJet2 = new TH2D("confusion_num_DeepAK8SubJet2","",6,0,6,6,0,6);
TH2D *confusion_num_DeepAK8_decorr = new TH2D("confusion_num_DeepAK8_decorr","",6,0,6,6,0,6);
TH2D *confusion_num_JetSub = new TH2D("confusion_num_JetSub","",6,0,6,6,0,6);
TH2D *confusion_den = new TH2D("confusion_den","",6,0,6,6,0,6);
// ----------------------------------------------------------------------------
// Define and initialize objects / cuts / efficiencies
// ----------------------------------------------------------------------------
// basic cuts
float metCut=0;
int njetsCut=0;
float JetLeadPtCut=0;
float JetSubLeadPtCut=0;
float lepPtCut=0;
float elEtaCut=2.5;
float muEtaCut=2.4;
float jetEtaCut=2.4;
float ak8EtaCut=2.4;
float jetPtCut=30;
// counters
int n_jetstotal = 0;
int n_jetsnearlep = 0;
int n_jetspassed = 0;
int npass_ThreeJets = 0;
int npass_trigger = 0;
int npass_mu500 = 0;
int npass_met = 0;
int npass_njets = 0;
int npass_nHjets = 0;
int npass_JetLeadPt = 0;
int npass_JetSubLeadPt = 0;
int npass_lepPt = 0;
int npass_ElEta = 0;
int npass_MuEta = 0;
int npass_all = 0;
int Nelectrons = 0;
int Nmuons = 0;
// Lorentz vectors
TLorentzVector jet_lv;
TLorentzVector bjet_lv;
TLorentzVector wjet1_lv;
TLorentzVector tjet1_lv;
TLorentzVector lepton_lv;
TLorentzVector ak8_lv;
// Pileup distributions -- ReReco Data vs Moriond17MC
double pileup_central[75] = {3.603e-01, 9.378e-01, 1.201e+00, 9.651e-01, 1.112e+00, 1.162e+00, 7.847e-01, 4.960e-01, 7.422e-01, 8.839e-01, 9.662e-01, 1.071e+00, 1.124e+00, 1.175e+00, 1.203e+00, 1.208e+00, 1.200e+00, 1.182e+00, 1.144e+00, 1.096e+00, 1.065e+00, 1.051e+00, 1.052e+00, 1.051e+00, 1.050e+00, 1.057e+00, 1.072e+00, 1.083e+00, 1.095e+00, 1.108e+00, 1.094e+00, 1.084e+00, 1.042e+00, 9.850e-01, 9.095e-01, 8.196e-01, 7.159e-01, 6.107e-01, 5.032e-01, 4.052e-01, 3.092e-01, 2.285e-01, 1.636e-01, 1.133e-01, 7.738e-02, 5.090e-02, 3.180e-02, 2.013e-02, 1.226e-02, 7.425e-03, 4.389e-03, 2.614e-03, 1.572e-03, 9.679e-04, 7.333e-04, 6.786e-04, 7.342e-04, 9.346e-04, 1.346e-03, 1.888e-03, 3.248e-03, 3.966e-03, 4.872e-03, 5.119e-03, 5.452e-03, 5.338e-03, 5.112e-03, 4.397e-03, 4.023e-03, 3.359e-03, 2.987e-03, 2.770e-03, 2.278e-03, 1.982e-03, 1.765e-03};
// Polynominals for WJets HT scaling
TF1 *poly2 = new TF1("poly2","max([6],[0] + [1]*x + [2]*x*x + [3]*x*x*x + [4]*x*x*x*x + [5]*x*x*x*x*x)",100,5000);
poly2->SetParameter(0, 0.998174);
poly2->SetParameter(1, 8.40861e-05);
poly2->SetParameter(2,-6.63274e-07);
poly2->SetParameter(3, 4.09272e-10);
poly2->SetParameter(4,-9.50233e-14);
poly2->SetParameter(5, 7.59648e-18);
poly2->SetParameter(6,0.402806);
TF1 *poly2U = new TF1("poly2U","max([6],[0] + [1]*x + [2]*x*x + [3]*x*x*x + [4]*x*x*x*x + [5]*x*x*x*x*x)",100,5000);
poly2U->SetParameter(0, 0.998164);
poly2U->SetParameter(1, 8.51652e-05);
poly2U->SetParameter(2,-6.62919e-07);
poly2U->SetParameter(3, 4.1205e-10);
poly2U->SetParameter(4,-9.57795e-14);
poly2U->SetParameter(5, 7.67371e-18);
poly2U->SetParameter(6,0.454456);
TF1 *poly2D = new TF1("poly2D","max([6],[0] + [1]*x + [2]*x*x + [3]*x*x*x + [4]*x*x*x*x + [5]*x*x*x*x*x)",100,5000);
poly2D->SetParameter(0, 0.998183);
poly2D->SetParameter(1, 8.30069e-05);
poly2D->SetParameter(2,-6.63629e-07);
poly2D->SetParameter(3, 4.06495e-10);
poly2D->SetParameter(4,-9.42671e-14);
poly2D->SetParameter(5, 7.51924e-18);
poly2D->SetParameter(6,0.351156);
// ----------------------------------------------------------------------------
// RUN THE EVENT LOOP
// ----------------------------------------------------------------------------
cout << "RUN CONFIG: isMC = " << isMC << endl;
cout << "isSig = " << isSig << ", SigMass = " << SigMass << endl;
cout << "For W's: isTT = " << isTT << ", isSTt = " << isSTt << ", isSTtW = " << isSTtW << endl;
cout << "Fot jets & PDF: isTOP = " << isTOP << ", isMadgraphBkg = " << isMadgraphBkg << endl;
Long64_t nentries = inputTree->GetEntriesFast();
Long64_t nbytes = 0, nb = 0;
for (Long64_t jentry=0; jentry<nentries;jentry++) {
Long64_t ientry = LoadTree(jentry);
if (ientry < 0) break;
nb = inputTree->GetEntry(jentry); nbytes += nb;
if (Cut(ientry) != 1) continue;
// if (ientry > 5000) continue;
if(jentry % 1000 ==0) std::cout<<"Completed "<<jentry<<" out of "<<nentries<<" events"<<std::endl;
// ----------------------------------------------------------------------------
// Filter input file by mass or decay
// ----------------------------------------------------------------------------
if(isTTincMtt0to700 && ttbarMass_TTbarMassCalc >= 700.) continue;
if(isTTincMtt0to1000 && ttbarMass_TTbarMassCalc >= 1000.) continue;
if(isTTincMtt700to1000 && (ttbarMass_TTbarMassCalc < 700. || ttbarMass_TTbarMassCalc >= 1000.)) continue;
if(isTTincMtt1000toInf && ttbarMass_TTbarMassCalc < 1000.) continue;
if(outBWBW && !isBWBW_TpTpCalc) continue;
if(outTZBW && !isTZBW_TpTpCalc) continue;
if(outTHBW && !isTHBW_TpTpCalc) continue;
if(outTZTH && !isTZTH_TpTpCalc) continue;
if(outTZTZ && !isTZTZ_TpTpCalc) continue;
if(outTHTH && !isTHTH_TpTpCalc) continue;
if(outTWTW && !isTWTW_TpTpCalc) continue;
if(outBZTW && !isBZTW_TpTpCalc) continue;
if(outBHTW && !isBHTW_TpTpCalc) continue;
if(outBZBH && !isBZBH_TpTpCalc) continue;
if(outBZBZ && !isBZBZ_TpTpCalc) continue;
if(outBHBH && !isBHBH_TpTpCalc) continue;
// ----------------------------------------------------------------------------
// Assign as electron or muon event
// ----------------------------------------------------------------------------
// **** If we had saveLooseLeps == True in TTsinglelep_MC_cfg.py then this needs work!
// **** Choose an electron and muon ID for "tight" and find events with only 1 tight el or mu by that definition
isElectron = 0;
isMuon = 0;
if(elPt_singleLepCalc->size()==0 && muPt_singleLepCalc->size()==0){std::cout << "got no leptons, something wrong" << std::endl; continue;}
if(elPt_singleLepCalc->size()>0 && muPt_singleLepCalc->size()>0) std::cout << "got el and mu, something wrong" << std::endl;
if(elPt_singleLepCalc->size()>1 || muPt_singleLepCalc->size()>1) std::cout << "got more than one el or mu, something wrong" << std::endl;
if(elPt_singleLepCalc->size()>0 && muPt_singleLepCalc->size()==0) {isElectron = 1; isMuon = 0;}
if(elPt_singleLepCalc->size()==0 && muPt_singleLepCalc->size()>0) {isElectron = 0; isMuon = 1;}
if(isElectron==0 && isMuon==0){std::cout << "got no leptons, something wrong" << std::endl; continue;}
if(isSM && isElectron == 1) continue;
if(isSE && isMuon == 1) continue;
double leppt = 0;
double lepeta = 0;
if(isElectron){leppt = elPt_singleLepCalc->at(0); lepeta = elEta_singleLepCalc->at(0);}
if(isMuon){leppt = muPt_singleLepCalc->at(0); lepeta = muEta_singleLepCalc->at(0);}
// ----------------------------------------------------------------------------
// Pileup weight calculation
// ----------------------------------------------------------------------------
pileupWeight = 1.0;
if(nTrueInteractions_singleLepCalc > 74) nTrueInteractions_singleLepCalc = 74;
pileupWeight = pileup_central[nTrueInteractions_singleLepCalc];
// ----------------------------------------------------------------------------
// Assign Lepton scale factor or efficiency weights, save trigger pass/fail
// ----------------------------------------------------------------------------
DataPastTrigger = 0;
MCPastTrigger = 0;
// *** SAM, put some if the WPTight triggers in these strings, check other names, same below in Data section
if(isMC){ //MC triggers check
if(isElectron){
std::string string_a = "Ele15_IsoVVVL_PFHT450";
std::string string_b = "Ele15_IsoVVVL_PFHT450_PFMET50";
std::string string_c = "Ele50_IsoVVVL_PFHT450";
std::string string_d = "Ele15_IsoVVVL_PFHT600";
std::string string_ORa = "Ele35_WPTight_Gsf";
std::string string_ORb = "Ele38_WPTight_Gsf";
for(unsigned int itrig=0; itrig < vsSelMCTriggersEl_singleLepCalc->size(); itrig++){
if(vsSelMCTriggersEl_singleLepCalc->at(itrig).find(string_a) != std::string::npos && viSelMCTriggersEl_singleLepCalc->at(itrig) > 0) MCPastTrigger = 1;
if(vsSelMCTriggersEl_singleLepCalc->at(itrig).find(string_b) != std::string::npos && viSelMCTriggersEl_singleLepCalc->at(itrig) > 0) MCPastTrigger = 1;
if(vsSelMCTriggersEl_singleLepCalc->at(itrig).find(string_c) != std::string::npos && viSelMCTriggersEl_singleLepCalc->at(itrig) > 0) MCPastTrigger = 1;
if(vsSelMCTriggersEl_singleLepCalc->at(itrig).find(string_d) != std::string::npos && viSelMCTriggersEl_singleLepCalc->at(itrig) > 0) MCPastTrigger = 1;
if(vsSelMCTriggersEl_singleLepCalc->at(itrig).find(string_ORa) != std::string::npos && viSelMCTriggersEl_singleLepCalc->at(itrig) > 0) MCPastTrigger = 1;
if(vsSelMCTriggersEl_singleLepCalc->at(itrig).find(string_ORb) != std::string::npos && viSelMCTriggersEl_singleLepCalc->at(itrig) > 0) MCPastTrigger = 1;
}
}
if(isMuon){
// ***** SAM, check these names, same below in Data section
std::string string_a = "Mu15_IsoVVVL_PFHT450";
std::string string_b = "Mu15_IsoVVVL_PFHT450_PFMET50";
std::string string_c = "Mu15_IsoVVVL_PFHT450_CaloBTagCSV_4p5";
std::string string_d = "Mu50_IsoVVVL_PFHT450";
std::string string_e = "Mu15_IsoVVVL_PFHT600";
std::string string_ORb = "Mu50";
std::string string_ORc = "TkMu55";
for(unsigned int itrig=0; itrig < vsSelMCTriggersMu_singleLepCalc->size(); itrig++){
if(vsSelMCTriggersMu_singleLepCalc->at(itrig).find(string_a) != std::string::npos && viSelMCTriggersMu_singleLepCalc->at(itrig) > 0) MCPastTrigger = 1;
if(vsSelMCTriggersMu_singleLepCalc->at(itrig).find(string_b) != std::string::npos && viSelMCTriggersMu_singleLepCalc->at(itrig) > 0) MCPastTrigger = 1;
if(vsSelMCTriggersMu_singleLepCalc->at(itrig).find(string_c) != std::string::npos && viSelMCTriggersMu_singleLepCalc->at(itrig) > 0) MCPastTrigger = 1;
if(vsSelMCTriggersMu_singleLepCalc->at(itrig).find(string_d) != std::string::npos && viSelMCTriggersMu_singleLepCalc->at(itrig) > 0) MCPastTrigger = 1;
if(vsSelMCTriggersMu_singleLepCalc->at(itrig).find(string_e) != std::string::npos && viSelMCTriggersMu_singleLepCalc->at(itrig) > 0) MCPastTrigger = 1;
if(vsSelMCTriggersMu_singleLepCalc->at(itrig).find(string_ORb) != std::string::npos && viSelMCTriggersMu_singleLepCalc->at(itrig) > 0) MCPastTrigger = 1;
if(vsSelMCTriggersMu_singleLepCalc->at(itrig).find(string_ORc) != std::string::npos && viSelMCTriggersMu_singleLepCalc->at(itrig) > 0) MCPastTrigger = 1;
}
}
DataPastTrigger = 1;
}
else{ //Data triggers check
if(isElectron){
std::string string_a = "Ele15_IsoVVVL_PFHT450";
std::string string_b = "Ele15_IsoVVVL_PFHT450_PFMET50";
std::string string_c = "Ele50_IsoVVVL_PFHT450";
std::string string_d = "Ele15_IsoVVVL_PFHT600";
std::string string_ORa = "Ele35_WPTight_Gsf";
std::string string_ORb = "Ele38_WPTight_Gsf";
for(unsigned int itrig=0; itrig < vsSelTriggersEl_singleLepCalc->size(); itrig++){
if(vsSelTriggersEl_singleLepCalc->at(itrig).find(string_a) != std::string::npos && viSelTriggersEl_singleLepCalc->at(itrig) > 0) DataPastTrigger = 1;
if(vsSelTriggersEl_singleLepCalc->at(itrig).find(string_b) != std::string::npos && viSelTriggersEl_singleLepCalc->at(itrig) > 0) DataPastTrigger = 1;
if(vsSelTriggersEl_singleLepCalc->at(itrig).find(string_c) != std::string::npos && viSelTriggersEl_singleLepCalc->at(itrig) > 0) DataPastTrigger = 1;
if(vsSelTriggersEl_singleLepCalc->at(itrig).find(string_d) != std::string::npos && viSelTriggersEl_singleLepCalc->at(itrig) > 0) DataPastTrigger = 1;
if(vsSelTriggersEl_singleLepCalc->at(itrig).find(string_ORa) != std::string::npos && viSelTriggersEl_singleLepCalc->at(itrig) > 0) DataPastTrigger = 1;
if(vsSelTriggersEl_singleLepCalc->at(itrig).find(string_ORb) != std::string::npos && viSelTriggersEl_singleLepCalc->at(itrig) > 0) DataPastTrigger = 1;
}
}
if(isMuon){
std::string string_a = "Mu15_IsoVVVL_PFHT450";
std::string string_b = "Mu15_IsoVVVL_PFHT450_PFMET50";
std::string string_c = "Mu15_IsoVVVL_PFHT450_CaloBTagCSV_4p5";
std::string string_d = "Mu50_IsoVVVL_PFHT450";
std::string string_e = "Mu15_IsoVVVL_PFHT600";
std::string string_ORb = "Mu50";
std::string string_ORc = "TkMu55";
for(unsigned int itrig=0; itrig < vsSelTriggersMu_singleLepCalc->size(); itrig++){
if(vsSelTriggersMu_singleLepCalc->at(itrig).find(string_a) != std::string::npos && viSelTriggersMu_singleLepCalc->at(itrig) > 0) DataPastTrigger = 1;
if(vsSelTriggersMu_singleLepCalc->at(itrig).find(string_b) != std::string::npos && viSelTriggersMu_singleLepCalc->at(itrig) > 0) DataPastTrigger = 1;
if(vsSelTriggersMu_singleLepCalc->at(itrig).find(string_c) != std::string::npos && viSelTriggersMu_singleLepCalc->at(itrig) > 0) DataPastTrigger = 1;
if(vsSelTriggersMu_singleLepCalc->at(itrig).find(string_d) != std::string::npos && viSelTriggersMu_singleLepCalc->at(itrig) > 0) DataPastTrigger = 1;
if(vsSelTriggersMu_singleLepCalc->at(itrig).find(string_e) != std::string::npos && viSelTriggersMu_singleLepCalc->at(itrig) > 0) DataPastTrigger = 1;
if(vsSelTriggersMu_singleLepCalc->at(itrig).find(string_ORb) != std::string::npos && viSelTriggersMu_singleLepCalc->at(itrig) > 0) DataPastTrigger = 1;
if(vsSelTriggersMu_singleLepCalc->at(itrig).find(string_ORc) != std::string::npos && viSelTriggersMu_singleLepCalc->at(itrig) > 0) DataPastTrigger = 1;
}
}
MCPastTrigger = 1;
}
if(DataPastTrigger) npass_trigger+=1;
// ----------------------------------------------------------------------------
// Generator-level HT correction
// ----------------------------------------------------------------------------
HTSF_Pol = 1;
if(isMadgraphBkg){
// Piece-wise splice with a flat line. Uncertainty from upper/lower error bar fits
HTSF_Pol = poly2->Eval(HTfromHEPUEP_singleLepCalc);
}
// ----------------------------------------------------------------------------
// Loop over AK4 jets for calculations and pt ordering pair
// ----------------------------------------------------------------------------
NJets_JetSubCalc = 0;
AK4HT = 0;
vector<pair<double,int>> jetptindpair;
for(unsigned int ijet=0; ijet < theJetPt_JetSubCalc->size(); ijet++){
// ----------------------------------------------------------------------------
// Basic cuts
// ----------------------------------------------------------------------------
if(theJetPt_JetSubCalc->at(ijet) < jetPtCut || fabs(theJetEta_JetSubCalc->at(ijet)) > jetEtaCut) continue;
if(isMC){
// ----------------------------------------------------------------------------
// Counts and pt ordering pair
// ----------------------------------------------------------------------------
jetptindpair.push_back(std::make_pair(theJetPt_JetSubCalc->at(ijet),ijet));
NJets_JetSubCalc+=1;
AK4HT+=theJetPt_JetSubCalc->at(ijet);
}else{
jetptindpair.push_back(std::make_pair(theJetPt_JetSubCalc->at(ijet),ijet));
NJets_JetSubCalc+=1;
AK4HT+=theJetPt_JetSubCalc->at(ijet);
}
}
// ----------------------------------------------------------------------------
// Apply pt ordering to AK4 vectors
// ----------------------------------------------------------------------------
//****** ANY OTHER NEW JET VECTOR (DeepCSV?) to order by pT go here
std::sort(jetptindpair.begin(), jetptindpair.end(), comparepair);
theJetPt_JetSubCalc_PtOrdered.clear();
theJetEta_JetSubCalc_PtOrdered.clear();
theJetPhi_JetSubCalc_PtOrdered.clear();
theJetEnergy_JetSubCalc_PtOrdered.clear();
theJetDeepCSVb_JetSubCalc_PtOrdered.clear();
theJetDeepCSVbb_JetSubCalc_PtOrdered.clear();
//theJetCSVc_JetSubCalc_PtOrdered.clear();
//theJetCSVudsg_JetSubCalc_PtOrdered.clear();
theJetHFlav_JetSubCalc_PtOrdered.clear();
theJetPFlav_JetSubCalc_PtOrdered.clear();
theJetBTag_JetSubCalc_PtOrdered.clear();
for(unsigned int ijet=0; ijet < jetptindpair.size(); ijet++){
theJetPt_JetSubCalc_PtOrdered.push_back(theJetPt_JetSubCalc->at(jetptindpair[ijet].second));
theJetEta_JetSubCalc_PtOrdered.push_back(theJetEta_JetSubCalc->at(jetptindpair[ijet].second));
theJetPhi_JetSubCalc_PtOrdered.push_back(theJetPhi_JetSubCalc->at(jetptindpair[ijet].second));
theJetEnergy_JetSubCalc_PtOrdered.push_back(theJetEnergy_JetSubCalc->at(jetptindpair[ijet].second));
theJetDeepCSVb_JetSubCalc_PtOrdered.push_back(theJetDeepCSVb_JetSubCalc->at(jetptindpair[ijet].second));
theJetDeepCSVbb_JetSubCalc_PtOrdered.push_back(theJetDeepCSVbb_JetSubCalc->at(jetptindpair[ijet].second));
//theJetCSVc_JetSubCalc_PtOrdered.push_back(theJetCSVc_JetSubCalc->at(jetptindpair[ijet].second));
//theJetCSVudsg_JetSubCalc_PtOrdered.push_back(theJetCSVudsg_JetSubCalc->at(jetptindpair[ijet].second));
theJetHFlav_JetSubCalc_PtOrdered.push_back(theJetHFlav_JetSubCalc->at(jetptindpair[ijet].second));
theJetPFlav_JetSubCalc_PtOrdered.push_back(theJetPFlav_JetSubCalc->at(jetptindpair[ijet].second));
theJetBTag_JetSubCalc_PtOrdered.push_back(theJetBTag_JetSubCalc->at(jetptindpair[ijet].second));
}
// ----------------------------------------------------------------------------
// Apply kinematic cuts
// ----------------------------------------------------------------------------
int isPastNJetsCut = 0;
if(NJets_JetSubCalc >= njetsCut){npass_njets+=1;isPastNJetsCut=1;}
int isPastJetLeadPtCut = 0;
if(theJetPt_JetSubCalc_PtOrdered.size() > 0 && theJetPt_JetSubCalc_PtOrdered[0] > JetLeadPtCut){npass_JetLeadPt+=1;isPastJetLeadPtCut=1;}
int isPastJetSubLeadPtCut = 0;
if(theJetPt_JetSubCalc_PtOrdered.size() > 1 && theJetPt_JetSubCalc_PtOrdered[1] > JetSubLeadPtCut){npass_JetSubLeadPt+=1;isPastJetSubLeadPtCut=1;}
int isPastMETcut = 0;
if(corr_met_singleLepCalc > metCut){npass_met+=1;isPastMETcut=1;}
int isPastLepPtCut = 0;
if(leppt > lepPtCut){npass_lepPt+=1;isPastLepPtCut=1;}
int isPastElEtaCut = 0;
int isPastMuEtaCut = 0;
if(isElectron && fabs(lepeta) < elEtaCut){npass_ElEta+=1;isPastElEtaCut=1;}
if(isMuon && fabs(lepeta) < muEtaCut){npass_MuEta+=1;isPastMuEtaCut=1;}
if(isElectron){Nelectrons+=1;}
if(isMuon){Nmuons+=1;}
AK4HTpMETpLepPt = 0;
AK4HTpMETpLepPt = AK4HT + corr_met_singleLepCalc + leppt;
// ----------------------------------------------------------------------------
// Lepton 4-vectors, calculate MT and electron trigger presel value
// ----------------------------------------------------------------------------
// Set lepton 4-vectors
double lepM;
double lepphi;
if (isMuon){
lepM = 0.105658367;
lepphi = muPhi_singleLepCalc->at(0);
lepton_lv.SetPtEtaPhiM(muPt_singleLepCalc->at(0),muEta_singleLepCalc->at(0),muPhi_singleLepCalc->at(0),lepM);
}
else{
lepM = 0.00051099891;
lepphi = elPhi_singleLepCalc->at(0);
lepton_lv.SetPtEtaPhiM(elPt_singleLepCalc->at(0),elEta_singleLepCalc->at(0),elPhi_singleLepCalc->at(0),lepM);
} MT_lepMet = sqrt(2*leppt*corr_met_singleLepCalc*(1 - cos(lepphi - corr_met_phi_singleLepCalc)));
// ----------------------------------------------------------------------------
// Loop over AK8 jets for calculations and pt ordering pair
// ----------------------------------------------------------------------------
NJetsAK8_JetSubCalc = 0;
vector<pair<double,int>> jetak8ptindpair;
for(unsigned int ijet=0; ijet < theJetAK8Pt_JetSubCalc->size(); ijet++){
// ----------------------------------------------------------------------------
// Basic cuts
// ----------------------------------------------------------------------------
if(fabs(theJetAK8Eta_JetSubCalc->at(ijet)) > ak8EtaCut) continue;
if(theJetAK8NjettinessTau1_JetSubCalc->at(ijet)==0) continue;
if(theJetAK8NjettinessTau2_JetSubCalc->at(ijet)==0) continue;
if(theJetAK8CHSTau1_JetSubCalc->at(ijet)==0) continue;
if(theJetAK8CHSTau2_JetSubCalc->at(ijet)==0) continue;
// Add to total jets counter
n_jetstotal++;
// ----------------------------------------------------------------------------
// Check if lepton is "close" to jet
// ----------------------------------------------------------------------------
TLorentzVector AK8_lv, newAK8_lv;
AK8_lv.SetPtEtaPhiE(theJetAK8Pt_JetSubCalc->at(ijet),theJetAK8Eta_JetSubCalc->at(ijet),theJetAK8Phi_JetSubCalc->at(ijet),theJetAK8Energy_JetSubCalc->at(ijet));
if(lepton_lv.DeltaR(AK8_lv) < 0.6){
newAK8_lv = AK8_lv - lepton_lv;
theJetAK8Pt_JetSubCalc->at(ijet) = newAK8_lv.Pt();
theJetAK8Eta_JetSubCalc->at(ijet) = newAK8_lv.Eta();
theJetAK8Phi_JetSubCalc->at(ijet) = newAK8_lv.Phi();
theJetAK8Energy_JetSubCalc->at(ijet) = newAK8_lv.E();
n_jetsnearlep++;
}
if(theJetAK8Pt_JetSubCalc->at(ijet) < 200) continue;
n_jetspassed++;
// ----------------------------------------------------------------------------
// Counter and pt ordering pair
// ----------------------------------------------------------------------------
NJetsAK8_JetSubCalc += 1;
jetak8ptindpair.push_back(std::make_pair(theJetAK8Pt_JetSubCalc->at(ijet),ijet));
}
// ----------------------------------------------------------------------------
// Skip failing events
// ----------------------------------------------------------------------------
if(!(isPastMETcut && isPastNJetsCut && isPastJetLeadPtCut && isPastLepPtCut && (isPastElEtaCut || isPastMuEtaCut) && isPastJetSubLeadPtCut)) continue;
npass_all+=1;
////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
/////////////// ONLY ON SELECTED EVENTS ////////////////////////////////////////////////////////////////////////////////////
////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
// ----------------------------------------------------------------------------
// Combine lepton variables into one set
// ----------------------------------------------------------------------------