nanoFakes.C

#define nanoFakes_cxx


#include "nanoFakes.h"
#include <TStyle.h>


// Data members
//------------------------------------------------------------------------------
string         option;
TString        filename;
TString        year;
TString        btagDirectory = "";

TFile*         root_output;

bool           ismc;
int            channel;
float          inputJetEt;
float          leptonPtMin;
float          leptonEtaMax;
float          event_weight;
float          l2tight_weight;
float          deltaR;
float          eleLowPtPrescale   = 0.0;
float          eleHighPtPrescale  = 0.0;
float          muonLowPtPrescale  = 0.0;
float          muonHighPtPrescale = 0.0;

TLorentzVector tlv1;
TLorentzVector tlv2;

int            jetIndex;
int            leptonIndex;

int            nentries   = 0;
int            maxentries = -1;


//------------------------------------------------------------------------------
// Begin
//------------------------------------------------------------------------------
void nanoFakes::Begin(TTree*)
{
  // The Begin() function is called at the start of the query.
  // When running with PROOF Begin() is only called on the client.
  // The tree argument is deprecated (on PROOF 0 is passed).

  option = GetOption();

  printf("   option: %s\n", option.c_str());

  int year_length = 4;

  if (option.find("2016_noHIPM") != std::string::npos) year_length = 11;
  if (option.find("2016_HIPM")   != std::string::npos) year_length = 9;

  year     = option.substr(0,year_length);
  filename = option.erase(0,year_length);

  printf("     year: %s\n", year.Data());
  printf(" filename: %s\n", filename.Data());
  printf("\n");
  
  if (!filename.Contains("Run201")) {

    baseW            = {fReader, "baseW"};
    Xsec             = {fReader, "Xsec"};
    puWeight         = {fReader, "puWeight"};
    Generator_weight = {fReader, "Generator_weight"};
  }

  ismc = (filename.Contains("Run201")) ? false : true;

  root_output = new TFile("results/" + filename + ".root", "recreate");

  TH1::SetDefaultSumw2();

  // Prescale definition depending on the year
  if (year == "2016_HIPM")
    {
      printf(" Reading %s prescales\n\n", year.Data());

      eleLowPtPrescale   =  11.028;  //  14.851;
      eleHighPtPrescale  =  52.768;  //  62.808;
      muonLowPtPrescale  =   6.584;  //   7.801;
      muonHighPtPrescale = 192.064;  // 216.748;
    }
  else if (year == "2016_noHIPM")
    {
      printf(" Reading %s prescales\n\n", year.Data());

      eleLowPtPrescale   =  3.980;  //  14.851;
      eleHighPtPrescale  = 10.699;  //  62.808;
      muonLowPtPrescale  =  1.297;  //   7.801;
      muonHighPtPrescale = 26.873;  // 216.748;
    }
  else if(year == "2017")
    {
      printf(" Reading %s prescales\n\n", year.Data());

      eleLowPtPrescale   =  3.973;  // Ele8
    //eleLowPtPrescale   = 27.699;  // Ele12
      eleHighPtPrescale  = 43.469;
      muonLowPtPrescale  =  2.903;
      muonHighPtPrescale = 65.944;
    }
  else if(year == "2018")
    {
      printf(" Reading %s prescales\n\n", year.Data());

      eleLowPtPrescale   =  6.412;  // Ele8
    //eleLowPtPrescale   = 38.849;  // Ele12
      eleHighPtPrescale  = 38.906;
      muonLowPtPrescale  =  8.561;
      muonHighPtPrescale = 45.781;
    }


  // btag divisions
  //----------------------------------------------------------------------------
  for (int btag=0; btag<nbtag; btag++) {	  	
    
    btagDirectory = btags[btag];
    root_output->cd();
    gDirectory->mkdir(btagDirectory);
    root_output->cd(btagDirectory);


    // FR regions
    //--------------------------------------------------------------------------
    for (int i=0; i<ncutFR; i++) {
	
      TString directory = scutFR[i];
      
      root_output->cd();
      root_output->cd(btagDirectory);
      gDirectory->mkdir(directory);
      root_output->cd(btagDirectory+"/"+directory);
      
      for (int j=0; j<njetet; j++) {
	
	TString muonsuffix = Form("_%.0fGeV", muonjetet[j]);
	TString elesuffix  = Form("_%.0fGeV", elejetet[j]);

	
	// Fake rate histograms
	//----------------------------------------------------------------------
	h_Muon_loose_pt_eta_bin[i][j][btag] = new TH2D("h_Muon_loose_pt_eta_bin" + muonsuffix, "", nptbin, ptbins, netabin, etabins);
	h_Muon_tight_pt_eta_bin[i][j][btag] = new TH2D("h_Muon_tight_pt_eta_bin" + muonsuffix, "", nptbin, ptbins, netabin, etabins);
	h_Ele_loose_pt_eta_bin [i][j][btag] = new TH2D("h_Ele_loose_pt_eta_bin"  + elesuffix,  "", nptbin, ptbins, netabin, etabins);
	h_Ele_tight_pt_eta_bin [i][j][btag] = new TH2D("h_Ele_tight_pt_eta_bin"  + elesuffix,  "", nptbin, ptbins, netabin, etabins);
	
	h_Muon_loose_pt_bin[i][j][btag] = new TH1D("h_Muon_loose_pt_bin" + muonsuffix, "", nptbin, ptbins);
	h_Muon_tight_pt_bin[i][j][btag] = new TH1D("h_Muon_tight_pt_bin" + muonsuffix, "", nptbin, ptbins);
	h_Ele_loose_pt_bin [i][j][btag] = new TH1D("h_Ele_loose_pt_bin"  + elesuffix,  "", nptbin, ptbins);
	h_Ele_tight_pt_bin [i][j][btag] = new TH1D("h_Ele_tight_pt_bin"  + elesuffix,  "", nptbin, ptbins);

	h_Muon_loose_pt_bin_raw[i][j][btag] = new TH1D("h_Muon_loose_pt_bin_raw" + muonsuffix, "", nptbin, ptbins);
	h_Muon_tight_pt_bin_raw[i][j][btag] = new TH1D("h_Muon_tight_pt_bin_raw" + muonsuffix, "", nptbin, ptbins);
	h_Ele_loose_pt_bin_raw [i][j][btag] = new TH1D("h_Ele_loose_pt_bin_raw"  + elesuffix,  "", nptbin, ptbins);
	h_Ele_tight_pt_bin_raw [i][j][btag] = new TH1D("h_Ele_tight_pt_bin_raw"  + elesuffix,  "", nptbin, ptbins);
	
	h_Muon_loose_eta_bin[i][j][btag] = new TH1D("h_Muon_loose_eta_bin" + muonsuffix, "", netabin, etabins);
	h_Muon_tight_eta_bin[i][j][btag] = new TH1D("h_Muon_tight_eta_bin" + muonsuffix, "", netabin, etabins);
	h_Ele_loose_eta_bin [i][j][btag] = new TH1D("h_Ele_loose_eta_bin"  + elesuffix,  "", netabin, etabins);
	h_Ele_tight_eta_bin [i][j][btag] = new TH1D("h_Ele_tight_eta_bin"  + elesuffix,  "", netabin, etabins);


	// Effective luminosity estimation histograms
	//----------------------------------------------------------------------
	h_Muon_loose_m2l[i][j][btag] = new TH1D("h_Muon_loose_m2l" + muonsuffix, "", 1000, 0, 200);
	h_Muon_tight_m2l[i][j][btag] = new TH1D("h_Muon_tight_m2l" + muonsuffix, "", 1000, 0, 200);
	h_Ele_loose_m2l [i][j][btag] = new TH1D("h_Ele_loose_m2l"  + elesuffix,  "", 1000, 0, 200);
	h_Ele_tight_m2l [i][j][btag] = new TH1D("h_Ele_tight_m2l"  + elesuffix,  "", 1000, 0, 200);
      
	h_Muon_loose_pt_m2l[i][j][btag] = new TH2D("h_Muon_loose_pt_m2l" + muonsuffix, "", 200, 0, 200, nptbin, ptbins);
	h_Muon_tight_pt_m2l[i][j][btag] = new TH2D("h_Muon_tight_pt_m2l" + muonsuffix, "", 200, 0, 200, nptbin, ptbins);
	h_Ele_loose_pt_m2l [i][j][btag] = new TH2D("h_Ele_loose_pt_m2l"  + elesuffix,  "", 200, 0, 200, nptbin, ptbins);
	h_Ele_tight_pt_m2l [i][j][btag] = new TH2D("h_Ele_tight_pt_m2l"  + elesuffix,  "", 200, 0, 200, nptbin, ptbins);
      }	
    }
  }

 
  // PR regions
  //----------------------------------------------------------------------------
  for (int i=0; i<ncutPR; i++) {
    
    TString directory = scutPR[i];
    
    root_output->cd();
    gDirectory->mkdir(directory);
    root_output->cd(directory);
    

    // Prompt rate histograms
    //--------------------------------------------------------------------------
    h_Muon_loose_pt_eta_PR[i] = new TH2D("h_Muon_loose_pt_eta_PR", "", nptbin, ptbins, netabin, etabins);
    h_Muon_tight_pt_eta_PR[i] = new TH2D("h_Muon_tight_pt_eta_PR", "", nptbin, ptbins, netabin, etabins);
    h_Ele_loose_pt_eta_PR[i]  = new TH2D("h_Ele_loose_pt_eta_PR",  "", nptbin, ptbins, netabin, etabins);
    h_Ele_tight_pt_eta_PR[i]  = new TH2D("h_Ele_tight_pt_eta_PR",  "", nptbin, ptbins, netabin, etabins);
    
    h_Muon_loose_pt_PR[i] = new TH1D("h_Muon_loose_pt_PR", "", nptbin, ptbins);
    h_Muon_tight_pt_PR[i] = new TH1D("h_Muon_tight_pt_PR", "", nptbin, ptbins);
    h_Ele_loose_pt_PR[i]  = new TH1D("h_Ele_loose_pt_PR",  "", nptbin, ptbins);
    h_Ele_tight_pt_PR[i]  = new TH1D("h_Ele_tight_pt_PR",  "", nptbin, ptbins);
    
    h_Muon_loose_eta_PR[i] = new TH1D("h_Muon_loose_eta_PR", "", netabin, etabins);
    h_Muon_tight_eta_PR[i] = new TH1D("h_Muon_tight_eta_PR", "", netabin, etabins);
    h_Ele_loose_eta_PR[i]  = new TH1D("h_Ele_loose_eta_PR",  "", netabin, etabins);
    h_Ele_tight_eta_PR[i]  = new TH1D("h_Ele_tight_eta_PR",  "", netabin, etabins);
  }
}


//------------------------------------------------------------------------------
// SlaveBegin
//------------------------------------------------------------------------------
void nanoFakes::SlaveBegin(TTree*)
{
  // The SlaveBegin() function is called after the Begin() function.
  // When running with PROOF SlaveBegin() is called on each slave server.
  // The tree argument is deprecated (on PROOF 0 is passed).
}


Bool_t nanoFakes::Process(Long64_t entry)
{
  // The Process() function is called for each entry in the tree (or possibly
  // keyed object in the case of PROOF) to be processed. The entry argument
  // specifies which entry in the currently loaded tree is to be processed.
  // When processing keyed objects with PROOF, the object is already loaded
  // and is available via the fObject pointer.
  //
  // This function should contain the \"body\" of the analysis. It can contain
  // simple or elaborate selection criteria, run algorithms on the data
  // of the event and typically fill histograms.
  //
  // The processing can be stopped by calling Abort().
  //
  // Use fStatus to set the return value of TTree::Process().
  //
  // The return value is currently not used.

  fReader.SetEntry(entry);  

  if (entry > maxentries && maxentries > -1) return 0;
  if (entry%20000 == 0) printf(" Entry number %lld \n", entry); 	 

  nentries++;
 
  channel = (abs(Lepton_pdgId[0]) == 11) ? e : m;

  leptonPtMin  = (channel == e) ?  13 :  10;  // [GeV]
  leptonEtaMax = (channel == e) ? 2.5 : 2.4;  // [GeV]

  if (Lepton_pt[0]        < leptonPtMin)  return 0;
  if (fabs(Lepton_eta[0]) > leptonEtaMax) return 0;

  event_weight = 1.0;


  // Make Z candidate
  //------------------------------------------------------------------------  
  Zlepton1type   = Loose;
  Zlepton2type   = Loose;
  Zlepton1idisoW = 1.0;
  Zlepton2idisoW = 1.0;

  m2l = -999.0;

  if (*nLepton >= 2) {

    for (unsigned int iLep1=0; iLep1<*nLepton; iLep1++) {
      
      if (Lepton_pt[iLep1] < 25.) continue;

      if ((abs(Lepton_pdgId[iLep1]) == 11 && eleTightWP[iLep1] > 0.5) ||
	  (abs(Lepton_pdgId[iLep1]) == 13 && muonTightWP[iLep1] > 0.5)) {

	Zlepton1type   = Tight;
	Zdecayflavour  = Lepton_pdgId[iLep1];
	Zlepton1idisoW = 1.0;  // Temporary value until put in the trees
      }

      for (unsigned int iLep2=iLep1+1; iLep2<*nLepton; iLep2++) {
	
	if (Lepton_pt[iLep2] < 10.) continue;

	if (Lepton_pdgId[iLep1] + Lepton_pdgId[iLep2] != 0) continue;

	float mass1 = (abs(Lepton_pdgId[iLep1]) == 11) ? 0.000511 : 0.106;
	float mass2 = (abs(Lepton_pdgId[iLep2]) == 11) ? 0.000511 : 0.106;

	tlv1.SetPtEtaPhiM(Lepton_pt[iLep1], Lepton_eta[iLep1], Lepton_phi[iLep1], mass1);
	tlv2.SetPtEtaPhiM(Lepton_pt[iLep2], Lepton_eta[iLep2], Lepton_phi[iLep2], mass2);

	float inv_mass = (tlv1 + tlv2).M();

	if (m2l < 0 || fabs(inv_mass - 91.188) < fabs(m2l - 91.188)) {
	  
	  m2l = inv_mass;

	  leptonIndex = iLep2;
	  
	  // Is the second lepton tight?
	  if ((abs(Lepton_pdgId[iLep2]) == 11 && eleTightWP[iLep2] > 0.5) ||
	      (abs(Lepton_pdgId[iLep2]) == 13 && muonTightWP[iLep2] > 0.5)) {
	    
	    Zlepton2type   = Tight;
	    Zlepton2idisoW = 1.0;  // Temporary value until put in the trees
	  }
	}
      }
    }
  }

  l2tight_weight = Zlepton1idisoW * Zlepton2idisoW;


  // Get the event weight
  //----------------------------------------------------------------------------
  bool passTrigger = false;

  if (ismc) event_weight = (*baseW/1e3) * (*puWeight) * (*Generator_weight);

  if (event_weight > 2.) return kTRUE;  // Debug

  if (ismc) {

    if (channel == m) {
      
      (Lepton_pt[0] <= 20.) ? event_weight *= muonLowPtPrescale : event_weight *= muonHighPtPrescale;  // Luminosity in fb-1 from brilcalc
      
      if (Lepton_pt[0] <= 20. && *HLT_Mu8_TrkIsoVVL > 0.5) {
	
	passTrigger = true;
	
      } else if (Lepton_pt[0] > 20. && *HLT_Mu17_TrkIsoVVL > 0.5) {
	
	passTrigger = true;
      }
    }

    if (channel == e) {
      
      (Lepton_pt[0] <= 25.) ? event_weight *= eleLowPtPrescale : event_weight *= eleHighPtPrescale;  // Luminosity in fb-1 from brilcalc
      
      if (Lepton_pt[0] <= 25. && *HLT_Ele8_CaloIdL_TrackIdL_IsoVL_PFJet30 > 0.5) {
	
	passTrigger = true;
	
      } else if (Lepton_pt[0] > 25. && *HLT_Ele23_CaloIdL_TrackIdL_IsoVL_PFJet30 > 0.5) {
	
	passTrigger = true;
      }
    }

  } else {

    if ((filename.Contains("DoubleMuon") or filename.Contains("SingleMuon")) && channel == m) {
      
      if (Lepton_pt[0] <= 20. && *HLT_Mu8_TrkIsoVVL > 0.5) {
      
	passTrigger = true;
	
      } else if (Lepton_pt[0] > 20. && *HLT_Mu17_TrkIsoVVL > 0.5) {

	passTrigger = true;
      }
    }

    if ((filename.Contains("SingleEle") or filename.Contains("DoubleEG") or filename.Contains("EGamma")) && channel == e) {
      
      if (Lepton_pt[0] <= 25. && *HLT_Ele8_CaloIdL_TrackIdL_IsoVL_PFJet30 > 0.5) {
	
	passTrigger = true;
	
      } else if (Lepton_pt[0] > 25. && *HLT_Ele23_CaloIdL_TrackIdL_IsoVL_PFJet30 > 0.5) {
	
	passTrigger = true;
      }
    }
  }


  // Away jet determination
  //----------------------------------------------------------------------------
  if (*nCleanJet > 0) {

    TLorentzVector tlvLepton;
  
    tlvLepton.SetPtEtaPhiM(Lepton_pt[0], Lepton_eta[0], Lepton_phi[0], 0);

    for (int i=0; i<njetet; i++) {
    
      jetIndex = -1;

      inputJetEt = (channel == e) ? elejetet[i] : muonjetet[i];
    
      for (unsigned int j=0; j<*nCleanJet; j++) {
      
	if (CleanJet_pt[j]       < 10.)        continue;
	if (abs(CleanJet_eta[j]) > 2.5)        continue;
	if (CleanJet_pt[j]       < inputJetEt) continue;

	TLorentzVector tlvJet;
	
	tlvJet.SetPtEtaPhiM(CleanJet_pt[j], CleanJet_eta[j], CleanJet_phi[j], 0);
	
	deltaR = tlvJet.DeltaR(tlvLepton);
	
	if (deltaR > 1) {

	  jetIndex = j;
	  
	  break;
	}	
      }

      bool passJets = (jetIndex != -1);


      // QCD region
      //------------------------------------------------------------------------
      bool passCuts = passTrigger;

      passCuts &= (*nLepton == 1);
      passCuts &= (*mtw1 < 20.);
      passCuts &= (*PuppiMET_pt < 20.);

      FillLevelHistograms(FR_00_QCD, i, passJets && passCuts);


      // Z region
      //------------------------------------------------------------------------
      passCuts = passTrigger;

      passCuts &= (*nLepton > 1);
      passCuts &= (*PuppiMET_pt < 20.);
      passCuts &= (m2l > 20.);

      if (passJets && passCuts) {
	
	if (fabs(Zdecayflavour) == 11) {
	  
	  h_Ele_loose_m2l   [FR_01_Zpeak][i][0]->Fill(m2l, event_weight);
	  h_Ele_loose_pt_m2l[FR_01_Zpeak][i][0]->Fill(m2l, tlv1.Pt(), event_weight);
	  
	  if (Zlepton1type == Tight && Zlepton2type == Tight) {
	    
	    h_Ele_tight_m2l   [FR_01_Zpeak][i][0]->Fill(m2l, event_weight * l2tight_weight);
	    h_Ele_tight_pt_m2l[FR_01_Zpeak][i][0]->Fill(m2l, tlv1.Pt(), event_weight * l2tight_weight);
	  }
	}
	else if (fabs(Zdecayflavour) == 13) {
	  
	  h_Muon_loose_m2l   [FR_01_Zpeak][i][0]->Fill(m2l, event_weight);
	  h_Muon_loose_pt_m2l[FR_01_Zpeak][i][0]->Fill(m2l, tlv1.Pt(), event_weight);
	  
	  if (Zlepton1type == Tight && Zlepton2type == Tight) {
	    
	    h_Muon_tight_m2l   [FR_01_Zpeak][i][0]->Fill(m2l, event_weight * l2tight_weight);
	    h_Muon_tight_pt_m2l[FR_01_Zpeak][i][0]->Fill(m2l, tlv1.Pt(), event_weight * l2tight_weight);
	  }
	}
      }

      FillLevelHistograms(FR_01_Zpeak, i, passJets && passCuts);
    }
  }


  // Fill prompt rate histograms
  //----------------------------------------------------------------------------
  if ((76. < m2l && 106. > m2l) && filename.Contains("DY") && Zlepton1type == Tight) {

    float Zlep2pt  = Lepton_pt[leptonIndex];
    float Zlep2eta = fabs(Lepton_eta[leptonIndex]);
    
    if (fabs(Zdecayflavour) == 11) {
    
      h_Ele_loose_pt_eta_PR[PR_00]->Fill(Zlep2pt, Zlep2eta, event_weight);
      h_Ele_loose_pt_PR    [PR_00]->Fill(Zlep2pt, event_weight);
      h_Ele_loose_eta_PR   [PR_00]->Fill(Zlep2eta, event_weight);
      
      if (Zlepton2type == Tight) {
      
	h_Ele_tight_pt_eta_PR[PR_00]->Fill(Zlep2pt, Zlep2eta, event_weight);
	h_Ele_tight_pt_PR    [PR_00]->Fill(Zlep2pt, event_weight);
	h_Ele_tight_eta_PR   [PR_00]->Fill(Zlep2eta, event_weight);
      }
      
    } else if (fabs(Zdecayflavour) == 13) {
      
      h_Muon_loose_pt_eta_PR[PR_00]->Fill(Zlep2pt, Zlep2eta, event_weight);
      h_Muon_loose_pt_PR    [PR_00]->Fill(Zlep2pt, event_weight);
      h_Muon_loose_eta_PR   [PR_00]->Fill(Zlep2eta, event_weight);
      
      if (Zlepton2type == Tight) {
	
	h_Muon_tight_pt_eta_PR[PR_00]->Fill(Zlep2pt, Zlep2eta, event_weight);
	h_Muon_tight_pt_PR    [PR_00]->Fill(Zlep2pt, event_weight);
	h_Muon_tight_eta_PR   [PR_00]->Fill(Zlep2eta, event_weight);
      }
    }
  }

  return kTRUE;
}


//------------------------------------------------------------------------------
// SlaveTerminate
//------------------------------------------------------------------------------
void nanoFakes::SlaveTerminate()
{
  // The SlaveTerminate() function is called after all entries or objects
  // have been processed. When running with PROOF SlaveTerminate() is called
  // on each slave server.
}


//------------------------------------------------------------------------------
// Terminate
//------------------------------------------------------------------------------
void nanoFakes::Terminate()
{
  // The Terminate() function is the last function to be called during
  // a query. It always runs on the client, it can be used to present
  // the results graphically or save the results to file.

  printf("\n [nanoFakes::Terminate]\n\n");

  root_output->Write("", TObject::kOverwrite);
  root_output->Close();
}


//------------------------------------------------------------------------------
// FillLevelHistograms
//------------------------------------------------------------------------------
void nanoFakes::FillLevelHistograms(int icut, int i, bool pass)
{
  if (!pass) return;

  FillAnalysisHistograms(icut, i);
}


//------------------------------------------------------------------------------   
// FillanalysisHistograms
//------------------------------------------------------------------------------                 
void nanoFakes::FillAnalysisHistograms(int icut, int i)
{
  float btagDown = 0.0;
  float btagUp   = 1.0;

  float lep1eta = fabs(Lepton_eta[0]);

  for (int btag=0; btag<nbtag; btag++) {

    btagDirectory = btags[btag]; 

    if (btagDirectory == "")
      {
	btagDown = -10.0;
	btagUp   = 10.0;
      }
    else if (btagDirectory == "bveto")
      {
	btagDown = -10.0;
	btagUp   = 0.1522;
      }
    else if (btagDirectory == "loose")
      {
	btagDown = 0.1522;
	btagUp   = 0.4941;
      }
    else if (btagDirectory == "mediumtight")
      {
	btagDown = 0.4941;
	btagUp   = 10.0;
      }

    if (channel == m &&
	Jet_btagDeepB[Muon_jetIdx[Lepton_muonIdx[0]]] > btagDown &&
	Jet_btagDeepB[Muon_jetIdx[Lepton_muonIdx[0]]] < btagUp) {

      
      // Loose muons
      //------------------------------------------------------------------------
      h_Muon_loose_pt_eta_bin[icut][i][btag]->Fill(Lepton_pt[0], lep1eta, event_weight);
      h_Muon_loose_pt_bin    [icut][i][btag]->Fill(Lepton_pt[0], event_weight);
      h_Muon_loose_pt_bin_raw[icut][i][btag]->Fill(Lepton_pt[0]);
      h_Muon_loose_eta_bin   [icut][i][btag]->Fill(lep1eta, event_weight);


      // Tight muons
      //------------------------------------------------------------------------
      if (muonTightWP[0] > 0.5) {
	
	h_Muon_tight_pt_eta_bin[icut][i][btag]->Fill(Lepton_pt[0], lep1eta, event_weight);
	h_Muon_tight_pt_bin    [icut][i][btag]->Fill(Lepton_pt[0], event_weight);
	h_Muon_tight_pt_bin_raw[icut][i][btag]->Fill(Lepton_pt[0]);
	h_Muon_tight_eta_bin   [icut][i][btag]->Fill(lep1eta, event_weight);
      }

    } else if (channel == e &&
	       Jet_btagDeepB[Electron_jetIdx[Lepton_electronIdx[0]]] > btagDown &&
	       Jet_btagDeepB[Electron_jetIdx[Lepton_electronIdx[0]]] < btagUp) {
      
      
      // Loose electrons
      //------------------------------------------------------------------------
      h_Ele_loose_pt_eta_bin[icut][i][btag]->Fill(Lepton_pt[0], lep1eta, event_weight);
      h_Ele_loose_pt_bin    [icut][i][btag]->Fill(Lepton_pt[0], event_weight);
      h_Ele_loose_pt_bin_raw[icut][i][btag]->Fill(Lepton_pt[0]);
      h_Ele_loose_eta_bin   [icut][i][btag]->Fill(lep1eta, event_weight);


      // Tight electrons
      //------------------------------------------------------------------------
      if (eleTightWP[0] > 0.5) {
	
	h_Ele_tight_pt_eta_bin[icut][i][btag]->Fill(Lepton_pt[0], lep1eta, event_weight);
	h_Ele_tight_pt_bin    [icut][i][btag]->Fill(Lepton_pt[0], event_weight);
	h_Ele_tight_pt_bin_raw[icut][i][btag]->Fill(Lepton_pt[0]);
	h_Ele_tight_eta_bin   [icut][i][btag]->Fill(lep1eta, event_weight);
      }
    }
  }
}