PFJetBenchmark.cc

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#include "RecoParticleFlow/Benchmark/interface/PFJetBenchmark.h"
#include "RecoParticleFlow/PFTracking/interface/PFTrackAlgoTools.h"
 
#include "DataFormats/TrackReco/interface/Track.h"
 
// preprocessor macro for booking 1d histos with DQMStore -or- bare Root
#define BOOK1D(name, title, nbinsx, lowx, highx) \
  h##name =                                      \
      dbe_ ? dbe_->book1D(#name, title, nbinsx, lowx, highx)->getTH1F() : new TH1F(#name, title, nbinsx, lowx, highx)
 
// preprocessor macro for booking 2d histos with DQMStore -or- bare Root
#define BOOK2D(name, title, nbinsx, lowx, highx, nbinsy, lowy, highy)                              \
  h##name = dbe_ ? dbe_->book2D(#name, title, nbinsx, lowx, highx, nbinsy, lowy, highy)->getTH2F() \
                 : new TH2F(#name, title, nbinsx, lowx, highx, nbinsy, lowy, highy)
 
//macros for building barrel and endcap histos with one call
#define DBOOK1D(name, title, nbinsx, lowx, highx)         \
  BOOK1D(B##name, "Barrel " #title, nbinsx, lowx, highx); \
  BOOK1D(E##name, "Endcap " #title, nbinsx, lowx, highx); \
  BOOK1D(F##name, "Forward " #title, nbinsx, lowx, highx);
#define DBOOK2D(name, title, nbinsx, lowx, highx, nbinsy, lowy, highy)         \
  BOOK2D(B##name, "Barrel " #title, nbinsx, lowx, highx, nbinsy, lowy, highy); \
  BOOK2D(E##name, "Endcap " #title, nbinsx, lowx, highx, nbinsy, lowy, highy); \
  BOOK2D(F##name, "Forward " #title, nbinsx, lowx, highx, nbinsy, lowy, highy);
 
// all versions OK
// preprocesor macro for setting axis titles
#define SETAXES(name, xtitle, ytitle)    \
  h##name->GetXaxis()->SetTitle(xtitle); \
  h##name->GetYaxis()->SetTitle(ytitle)
 
//macro for setting the titles for barrel and endcap together
#define DSETAXES(name, xtitle, ytitle) \
  SETAXES(B##name, xtitle, ytitle);    \
  SETAXES(E##name, xtitle, ytitle);    \
  SETAXES(F##name, xtitle, ytitle);
/*#define SET2AXES(name,xtitle,ytitle) \
  hE##name->GetXaxis()->SetTitle(xtitle); hE##name->GetYaxis()->SetTitle(ytitle);  hB##name->GetXaxis()->SetTitle(xtitle); hB##name->GetYaxis()->SetTitle(ytitle)
*/
 
#define PT (plotAgainstReco_) ? "reconstructed P_{T}" : "generated P_{T}"
#define P (plotAgainstReco_) ? "generated P" : "generated P"
 
using namespace reco;
using namespace std;
 
PFJetBenchmark::PFJetBenchmark() : file_(nullptr), entry_(0) {}
 
PFJetBenchmark::~PFJetBenchmark() {
  if (file_)
    file_->Close();
}
 
void PFJetBenchmark::write() {
  // Store the DAQ Histograms
  if (!outputFile_.empty()) {
    if (dbe_)
      dbe_->save(outputFile_);
    // use bare Root if no DQM (FWLite applications)
    else if (file_) {
      file_->Write(outputFile_.c_str());
      cout << "Benchmark output written to file " << outputFile_.c_str() << endl;
      file_->Close();
    }
  } else
    cout << "No output file specified (" << outputFile_ << "). Results will not be saved!" << endl;
}
 
void PFJetBenchmark::setup(string Filename,
                           bool debug,
                           bool plotAgainstReco,
                           bool onlyTwoJets,
                           double deltaRMax,
                           string benchmarkLabel_,
                           double recPt,
                           double maxEta,
                           DQMStore* dbe_store) {
  debug_ = debug;
  plotAgainstReco_ = plotAgainstReco;
  onlyTwoJets_ = onlyTwoJets;
  deltaRMax_ = deltaRMax;
  outputFile_ = Filename;
  recPt_cut = recPt;
  maxEta_cut = maxEta;
  file_ = nullptr;
  dbe_ = dbe_store;
  // print parameters
  cout << "PFJetBenchmark Setup parameters ==============================================" << endl;
  cout << "Filename to write histograms " << Filename << endl;
  cout << "PFJetBenchmark debug " << debug_ << endl;
  cout << "plotAgainstReco " << plotAgainstReco_ << endl;
  cout << "onlyTwoJets " << onlyTwoJets_ << endl;
  cout << "deltaRMax " << deltaRMax << endl;
  cout << "benchmarkLabel " << benchmarkLabel_ << endl;
  cout << "recPt_cut " << recPt_cut << endl;
  cout << "maxEta_cut " << maxEta_cut << endl;
 
  // Book histogram
 
  // Establish DQM Store
  string path = "PFTask/Benchmarks/" + benchmarkLabel_ + "/";
  if (plotAgainstReco)
    path += "Reco";
  else
    path += "Gen";
  if (dbe_) {
    dbe_->setCurrentFolder(path);
  } else {
    file_ = new TFile(outputFile_.c_str(), "recreate");
    //    TTree * tr = new TTree("PFTast");
    //    tr->Branch("Benchmarks/ParticleFlow")
    cout << "Info: DQM is not available to provide data storage service. Using TFile to save histograms. " << endl;
  }
  // Jets inclusive  distributions  (Pt > 20 or specified recPt GeV)
  char cutString[35];
  sprintf(cutString, "Jet multiplicity P_{T}>%4.1f GeV", recPt_cut);
  BOOK1D(Njets, cutString, 50, 0, 50);
 
  BOOK1D(jetsPt, "Jets P_{T} Distribution", 100, 0, 500);
 
  sprintf(cutString, "Jets #eta Distribution |#eta|<%4.1f", maxEta_cut);
  BOOK1D(jetsEta, cutString, 100, -5, 5);
 
  BOOK2D(RPtvsEta, "#DeltaP_{T}/P_{T} vs #eta", 200, -5., 5., 200, -1, 1);
  BOOK2D(RNeutvsEta, "R_{Neutral} vs #eta", 200, -5., 5., 200, -1, 1);
  BOOK2D(RNEUTvsEta, "R_{HCAL+ECAL} vs #eta", 200, -5., 5., 200, -1, 1);
  BOOK2D(RNONLvsEta, "R_{HCAL+ECAL - Hcal Only} vs #eta", 200, -5., 5., 200, -1, 1);
  BOOK2D(RHCALvsEta, "R_{HCAL} vs #eta", 200, -5., 5., 200, -1, 1);
  BOOK2D(RHONLvsEta, "R_{HCAL only} vs #eta", 200, -5., 5., 200, -1, 1);
  BOOK2D(RCHEvsEta, "R_{Charged} vs #eta", 200, -5., 5., 200, -1, 1);
  BOOK2D(NCHvsEta, "N_{Charged} vs #eta", 200, -5., 5., 200, 0., 200.);
  BOOK2D(NCH0vsEta, "N_{Charged} vs #eta, iter 0", 200, -5., 5., 200, 0., 200.);
  BOOK2D(NCH1vsEta, "N_{Charged} vs #eta, iter 1", 200, -5., 5., 200, 0., 200.);
  BOOK2D(NCH2vsEta, "N_{Charged} vs #eta, iter 2", 200, -5., 5., 200, 0., 200.);
  BOOK2D(NCH3vsEta, "N_{Charged} vs #eta, iter 3", 200, -5., 5., 200, 0., 200.);
  BOOK2D(NCH4vsEta, "N_{Charged} vs #eta, iter 4", 200, -5., 5., 200, 0., 200.);
  BOOK2D(NCH5vsEta, "N_{Charged} vs #eta, iter 5", 200, -5., 5., 200, 0., 200.);
  BOOK2D(NCH6vsEta, "N_{Charged} vs #eta, iter 6", 200, -5., 5., 200, 0., 200.);
  // delta Pt or E quantities for Barrel
  DBOOK1D(RPt, #DeltaP_{T} / P_{T}, 80, -1, 1);
  DBOOK1D(RCHE, #DeltaE / E(charged had), 80, -2, 2);
  DBOOK1D(RNHE, #DeltaE / E(neutral had), 80, -2, 2);
  DBOOK1D(RNEE, #DeltaE / E(neutral em), 80, -2, 2);
  DBOOK1D(Rneut, #DeltaE / E(neutral), 80, -2, 2);
  DBOOK1D(NCH, #N_{charged}, 200, 0., 200.);
  DBOOK2D(RPtvsPt, #DeltaP_{T} / P_{T} vs P_{T}, 250, 0, 500, 200, -1, 1);  //used to be 50 bin for each in x-direction
  DBOOK2D(RCHEvsPt, #DeltaE / E(charged had) vs P_{T}, 250, 0, 500, 120, -1, 2);
  DBOOK2D(RNHEvsPt, #DeltaE / E(neutral had) vs P_{T}, 250, 0, 500, 120, -1, 2);
  DBOOK2D(RNEEvsPt, #DeltaE / E(neutral em) vs P_{T}, 250, 0, 500, 120, -1, 2);
  DBOOK2D(RneutvsPt, #DeltaE / E(neutral) vs P_{T}, 250, 0, 500, 120, -1, 2);
  DBOOK2D(NCHvsPt, N_{charged} vs P_{T}, 250, 0, 500, 200, 0., 200.);
  DBOOK2D(NCH0vsPt, N_{charged} vs P_{T} iter 0, 250, 0, 500, 200, 0., 200.);
  DBOOK2D(NCH1vsPt, N_{charged} vs P_{T} iter 1, 250, 0, 500, 200, 0., 200.);
  DBOOK2D(NCH2vsPt, N_{charged} vs P_{T} iter 2, 250, 0, 500, 200, 0., 200.);
  DBOOK2D(NCH3vsPt, N_{charged} vs P_{T} iter 3, 250, 0, 500, 200, 0., 200.);
  DBOOK2D(NCH4vsPt, N_{charged} vs P_{T} iter 4, 250, 0, 500, 200, 0., 200.);
  DBOOK2D(NCH5vsPt, N_{charged} vs P_{T} iter 5, 250, 0, 500, 200, 0., 200.);
  DBOOK2D(NCH6vsPt, N_{charged} vs P_{T} iter 6, 250, 0, 500, 200, 0., 200.);
 
  DBOOK2D(RNEUTvsP, #DeltaE / E(ECAL + HCAL) vs P, 250, 0, 1000, 150, -1.5, 1.5);
  DBOOK2D(RNONLvsP, #DeltaE / E(ECAL + HCAL - only) vs P, 250, 0, 1000, 150, -1.5, 1.5);
  DBOOK2D(RHCALvsP, #DeltaE / E(HCAL) vs P, 250, 0, 1000, 150, -1.5, 1.5);
  DBOOK2D(RHONLvsP, #DeltaE / E(HCAL only) vs P, 250, 0, 1000, 150, -1.5, 1.5);
  DBOOK1D(RPt20_40, #DeltaP_{T} / P_{T}, 80, -1, 1);
  DBOOK1D(RPt40_60, #DeltaP_{T} / P_{T}, 80, -1, 1);
  DBOOK1D(RPt60_80, #DeltaP_{T} / P_{T}, 80, -1, 1);
  DBOOK1D(RPt80_100, #DeltaP_{T} / P_{T}, 80, -1, 1);
  DBOOK1D(RPt100_150, #DeltaP_{T} / P_{T}, 80, -1, 1);
  DBOOK1D(RPt150_200, #DeltaP_{T} / P_{T}, 80, -1, 1);
  DBOOK1D(RPt200_250, #DeltaP_{T} / P_{T}, 80, -1, 1);
  DBOOK1D(RPt250_300, #DeltaP_{T} / P_{T}, 80, -1, 1);
  DBOOK1D(RPt300_400, #DeltaP_{T} / P_{T}, 160, -1, 1);
  DBOOK1D(RPt400_500, #DeltaP_{T} / P_{T}, 160, -1, 1);
  DBOOK1D(RPt500_750, #DeltaP_{T} / P_{T}, 160, -1, 1);
  DBOOK1D(RPt750_1250, #DeltaP_{T} / P_{T}, 160, -1, 1);
  DBOOK1D(RPt1250_2000, #DeltaP_{T} / P_{T}, 160, -1, 1);
  DBOOK1D(RPt2000_5000, #DeltaP_{T} / P_{T}, 160, -1, 1);
 
  DBOOK2D(DEtavsPt, #Delta #eta vs P_{T}, 1000, 0, 2000, 500, -0.5, 0.5);
  DBOOK2D(DPhivsPt, #Delta #phi vs P_{T}, 1000, 0, 2000, 500, -0.5, 0.5);
  BOOK2D(DEtavsEta, "#Delta#eta vs P_{T}", 1000, -5., +5., 500, -0.5, 0.5);
  BOOK2D(DPhivsEta, "#Delta#phi vs P_{T}", 1000, -5., +5., 500, -0.5, 0.5);
 
  // Set Axis Titles
 
  // Jets inclusive  distributions  (Pt > 20 GeV)
  SETAXES(Njets, "", "Multiplicity");
  SETAXES(jetsPt, PT, "Number of Events");
  SETAXES(jetsEta, "#eta", "Number of Events");
  SETAXES(RNeutvsEta, "#eta", "#DeltaE/E (Neutral)");
  SETAXES(RNEUTvsEta, "#eta", "#DeltaE/E (ECAL+HCAL)");
  SETAXES(RNONLvsEta, "#eta", "#DeltaE/E (ECAL+HCAL-only)");
  SETAXES(RHCALvsEta, "#eta", "#DeltaE/E (HCAL)");
  SETAXES(RHONLvsEta, "#eta", "#DeltaE/E (HCAL Only)");
  SETAXES(RCHEvsEta, "#eta", "#DeltaE/E (Charged)");
  SETAXES(RPtvsEta, "#eta", "#DeltaP_{T}/P_{T}");
  SETAXES(DEtavsEta, "#eta", "#Delta#eta");
  SETAXES(DPhivsEta, "#eta", "#Delta#phi");
  // delta Pt or E quantities for Barrel and Endcap
  DSETAXES(RPt, "#DeltaP_{T}/P_{T}", "Events");
  DSETAXES(RPt20_40, "#DeltaP_{T}/P_{T}", "Events");
  DSETAXES(RPt40_60, "#DeltaP_{T}/P_{T}", "Events");
  DSETAXES(RPt60_80, "#DeltaP_{T}/P_{T}", "Events");
  DSETAXES(RPt80_100, "#DeltaP_{T}/P_{T}", "Events");
  DSETAXES(RPt100_150, "#DeltaP_{T}/P_{T}", "Events");
  DSETAXES(RPt150_200, "#DeltaP_{T}/P_{T}", "Events");
  DSETAXES(RPt200_250, "#DeltaP_{T}/P_{T}", "Events");
  DSETAXES(RPt250_300, "#DeltaP_{T}/P_{T}", "Events");
  DSETAXES(RPt300_400, "#DeltaP_{T}/P_{T}", "Events");
  DSETAXES(RPt400_500, "#DeltaP_{T}/P_{T}", "Events");
  DSETAXES(RPt500_750, "#DeltaP_{T}/P_{T}", "Events");
  DSETAXES(RPt750_1250, "#DeltaP_{T}/P_{T}", "Events");
  DSETAXES(RPt1250_2000, "#DeltaP_{T}/P_{T}", "Events");
  DSETAXES(RPt2000_5000, "#DeltaP_{T}/P_{T}", "Events");
  DSETAXES(RCHE, "#DeltaE/E(charged had)", "Events");
  DSETAXES(RNHE, "#DeltaE/E(neutral had)", "Events");
  DSETAXES(RNEE, "#DeltaE/E(neutral em)", "Events");
  DSETAXES(Rneut, "#DeltaE/E(neutral)", "Events");
  DSETAXES(RPtvsPt, PT, "#DeltaP_{T}/P_{T}");
  DSETAXES(RCHEvsPt, PT, "#DeltaE/E(charged had)");
  DSETAXES(RNHEvsPt, PT, "#DeltaE/E(neutral had)");
  DSETAXES(RNEEvsPt, PT, "#DeltaE/E(neutral em)");
  DSETAXES(RneutvsPt, PT, "#DeltaE/E(neutral)");
  DSETAXES(RHCALvsP, P, "#DeltaE/E(HCAL)");
  DSETAXES(RHONLvsP, P, "#DeltaE/E(HCAL-only)");
  DSETAXES(RNEUTvsP, P, "#DeltaE/E(ECAL+HCAL)");
  DSETAXES(RNONLvsP, P, "#DeltaE/E(ECAL+HCAL-only)");
  DSETAXES(DEtavsPt, PT, "#Delta#eta");
  DSETAXES(DPhivsPt, PT, "#Delta#phi");
}
 
void PFJetBenchmark::process(const reco::PFJetCollection& pfJets, const reco::GenJetCollection& genJets) {
  // loop over reco  pf  jets
  resPtMax_ = 0.;
  resChargedHadEnergyMax_ = 0.;
  resNeutralHadEnergyMax_ = 0.;
  resNeutralEmEnergyMax_ = 0.;
  int NPFJets = 0;
 
  for (unsigned i = 0; i < pfJets.size(); i++) {
    // Count the number of jets with a larger energy
    unsigned highJets = 0;
    for (unsigned j = 0; j < pfJets.size(); j++) {
      if (j != i && pfJets[j].pt() > pfJets[i].pt())
        highJets++;
    }
    if (onlyTwoJets_ && highJets > 1)
      continue;
 
    const reco::PFJet& pfj = pfJets[i];
    double rec_pt = pfj.pt();
    double rec_eta = pfj.eta();
    double rec_phi = pfj.phi();
 
    // skip PFjets with pt < recPt_cut GeV
    if (rec_pt < recPt_cut and recPt_cut != -1.)
      continue;
    // skip PFjets with eta > maxEta_cut
    if (fabs(rec_eta) > maxEta_cut and maxEta_cut != -1.)
      continue;
 
    NPFJets++;
 
    // fill inclusive PFjet distribution pt > 20 GeV
    hNjets->Fill(NPFJets);
    hjetsPt->Fill(rec_pt);
    hjetsEta->Fill(rec_eta);
 
    // separate Barrel PFJets from Endcap PFJets
    bool Barrel = false;
    bool Endcap = false;
    bool Forward = false;
    if (std::abs(rec_eta) < 1.4)
      Barrel = true;
    if (std::abs(rec_eta) > 1.6 && std::abs(rec_eta) < 2.4)
      Endcap = true;
    if (std::abs(rec_eta) > 2.5 && std::abs(rec_eta) < 2.9)
      Forward = true;
    if (std::abs(rec_eta) > 3.1 && std::abs(rec_eta) < 4.7)
      Forward = true;
 
    // do only barrel for now
    //  if(!Barrel) continue;
 
    // look for the closets gen Jet : truth
    const GenJet* truth = algo_->matchByDeltaR(&pfj, &genJets);
    if (!truth)
      continue;
    double deltaR = algo_->deltaR(&pfj, truth);
    // check deltaR is small enough
    if (deltaR < deltaRMax_ || (abs(rec_eta) > 2.5 && deltaR < 0.2) ||
        deltaRMax_ == -1.0) {  //start case deltaR < deltaRMax
 
      // generate histograms comparing the reco and truth candidate (truth = closest in delta-R)
      // get the quantities to place on the denominator and/or divide by
      double pt_denom;
      double true_E = truth->p();
      double true_pt = truth->pt();
      double true_eta = truth->eta();
      double true_phi = truth->phi();
 
      if (plotAgainstReco_) {
        pt_denom = rec_pt;
      } else {
        pt_denom = true_pt;
      }
      // get true specific quantities
      double true_ChargedHadEnergy;
      double true_NeutralHadEnergy;
      double true_NeutralEmEnergy;
      gettrue(truth, true_ChargedHadEnergy, true_NeutralHadEnergy, true_NeutralEmEnergy);
      double true_NeutralEnergy = true_NeutralHadEnergy + true_NeutralEmEnergy;
      double rec_ChargedHadEnergy = pfj.chargedHadronEnergy();
      double rec_NeutralHadEnergy = pfj.neutralHadronEnergy();
      double rec_NeutralEmEnergy = pfj.neutralEmEnergy();
      double rec_NeutralEnergy = rec_NeutralHadEnergy + rec_NeutralEmEnergy;
      double rec_ChargedMultiplicity = pfj.chargedMultiplicity();
      std::vector<PFCandidatePtr> constituents = pfj.getPFConstituents();
      std::vector<unsigned int> chMult(9, static_cast<unsigned int>(0));
      for (unsigned ic = 0; ic < constituents.size(); ++ic) {
        if (constituents[ic]->particleId() > 3)
          continue;
        reco::TrackRef trackRef = constituents[ic]->trackRef();
        if (trackRef.isNull()) {
          //std::cout << "Warning in entry " << entry_
          //        << " : a track with Id " << constituents[ic]->particleId()
          //        << " has no track ref.." << std::endl;
          continue;
        }
        unsigned int iter = trackRef->algo() > 6 ? 6 : trackRef->algo();
        ++(chMult[iter]);
      }
 
      bool plot1 = false;
      bool plot2 = false;
      bool plot3 = false;
      bool plot4 = false;
      bool plot5 = false;
      bool plot6 = false;
      bool plot7 = false;
      double cut1 = 0.0001;
      double cut2 = 0.0001;
      double cut3 = 0.0001;
      double cut4 = 0.0001;
      double cut5 = 0.0001;
      double cut6 = 0.0001;
      double cut7 = 0.0001;
      double resPt = 0.;
      double resChargedHadEnergy = 0.;
      double resNeutralHadEnergy = 0.;
      double resNeutralEmEnergy = 0.;
      double resNeutralEnergy = 0.;
 
      double resHCALEnergy = 0.;
      double resNEUTEnergy = 0.;
      if (rec_NeutralHadEnergy > cut6 && rec_ChargedHadEnergy < cut1) {
        double true_NEUTEnergy = true_NeutralHadEnergy + true_NeutralEmEnergy;
        double true_HCALEnergy = true_NEUTEnergy - rec_NeutralEmEnergy;
        double rec_NEUTEnergy = rec_NeutralHadEnergy + rec_NeutralEmEnergy;
        double rec_HCALEnergy = rec_NeutralHadEnergy;
        resHCALEnergy = (rec_HCALEnergy - true_HCALEnergy) / rec_HCALEnergy;
        resNEUTEnergy = (rec_NEUTEnergy - true_NEUTEnergy) / rec_NEUTEnergy;
        if (rec_NeutralEmEnergy > cut7) {
          plot6 = true;
        } else {
          plot7 = true;
        }
      }
 
      // get relative delta quantities (protect against division by zero!)
      if (true_pt > 0.0001) {
        resPt = (rec_pt - true_pt) / true_pt;
        plot1 = true;
      }
      if (true_ChargedHadEnergy > cut1) {
        resChargedHadEnergy = (rec_ChargedHadEnergy - true_ChargedHadEnergy) / true_ChargedHadEnergy;
        plot2 = true;
      }
      if (true_NeutralHadEnergy > cut2) {
        resNeutralHadEnergy = (rec_NeutralHadEnergy - true_NeutralHadEnergy) / true_NeutralHadEnergy;
        plot3 = true;
      } else if (rec_NeutralHadEnergy > cut3) {
        resNeutralHadEnergy = (rec_NeutralHadEnergy - true_NeutralHadEnergy) / rec_NeutralHadEnergy;
        plot3 = true;
      }
      if (true_NeutralEmEnergy > cut4) {
        resNeutralEmEnergy = (rec_NeutralEmEnergy - true_NeutralEmEnergy) / true_NeutralEmEnergy;
        plot4 = true;
      }
      if (true_NeutralEnergy > cut5) {
        resNeutralEnergy = (rec_NeutralEnergy - true_NeutralEnergy) / true_NeutralEnergy;
        plot5 = true;
      }
 
      //double deltaEta = algo_->deltaEta(&pfj, truth);
      //double deltaPhi = algo_->deltaPhi(&pfj, truth);
 
      // Print outliers for further debugging
      if ((resPt > 0.2 && true_pt > 100.) || (resPt < -0.5 && true_pt > 100.)) {
        //if ( ( true_pt > 50. &&
        //     ( ( truth->eta()>3.0 && rec_eta-truth->eta() < -0.1 ) ||
        //       ( truth->eta()<-3.0 && rec_eta-truth->eta() > 0.1 ) ))) {
        std::cout << "Entry " << entry_ << " resPt = " << resPt << " resCharged  " << resChargedHadEnergy
                  << " resNeutralHad  " << resNeutralHadEnergy << " resNeutralEm  " << resNeutralEmEnergy
                  << " pT (T/R) " << true_pt << "/" << rec_pt << " Eta (T/R) " << truth->eta() << "/" << rec_eta
                  << " Phi (T/R) " << truth->phi() << "/" << rec_phi << std::endl;
 
        // check overlapping PF jets
        const reco::PFJet* pfoj = nullptr;
        double dRo = 1E9;
        for (unsigned j = 0; j < pfJets.size(); j++) {
          const reco::PFJet& pfo = pfJets[j];
          if (j != i && algo_->deltaR(&pfj, &pfo) < dRo && pfo.pt() > 0.25 * pfj.pt()) {
            dRo = algo_->deltaR(&pfj, &pfo);
            pfoj = &pfo;
          }
        }
 
        // Check overlapping Gen Jet
        math::XYZTLorentzVector overlappinGenJet(0., 0., 0., 0.);
        const reco::GenJet* genoj = nullptr;
        double dRgo = 1E9;
        for (unsigned j = 0; j < genJets.size(); j++) {
          const reco::GenJet* gjo = &(genJets[j]);
          if (gjo != truth && algo_->deltaR(truth, gjo) < dRgo && gjo->pt() > 0.25 * truth->pt()) {
            dRgo = algo_->deltaR(truth, gjo);
            genoj = gjo;
          }
        }
 
        if (dRo < 0.8 && dRgo < 0.8 && algo_->deltaR(genoj, pfoj) < 2. * deltaRMax_)
          std::cout << "Excess probably due to overlapping jets (DR = " << algo_->deltaR(genoj, pfoj) << "),"
                    << " at DeltaR(T/R) = " << dRgo << "/" << dRo << " with pT(T/R) " << genoj->pt() << "/"
                    << pfoj->pt() << " and Eta (T/R) " << genoj->eta() << "/" << pfoj->eta() << " and Phi (T/R) "
                    << genoj->phi() << "/" << pfoj->phi() << std::endl;
      }
 
      if (std::abs(resPt) > std::abs(resPtMax_))
        resPtMax_ = resPt;
      if (std::abs(resChargedHadEnergy) > std::abs(resChargedHadEnergyMax_))
        resChargedHadEnergyMax_ = resChargedHadEnergy;
      if (std::abs(resNeutralHadEnergy) > std::abs(resNeutralHadEnergyMax_))
        resNeutralHadEnergyMax_ = resNeutralHadEnergy;
      if (std::abs(resNeutralEmEnergy) > std::abs(resNeutralEmEnergyMax_))
        resNeutralEmEnergyMax_ = resNeutralEmEnergy;
      if (debug_) {
        cout << i << "  =========PFJet Pt " << rec_pt << " eta " << rec_eta << " phi " << rec_phi
             << " Charged Had Energy " << rec_ChargedHadEnergy << " Neutral Had Energy " << rec_NeutralHadEnergy
             << " Neutral elm Energy " << rec_NeutralEmEnergy << endl;
        cout << " matching Gen Jet Pt " << true_pt << " eta " << truth->eta() << " phi " << truth->phi()
             << " Charged Had Energy " << true_ChargedHadEnergy << " Neutral Had Energy " << true_NeutralHadEnergy
             << " Neutral elm Energy " << true_NeutralEmEnergy << endl;
        printPFJet(&pfj);
        //      cout<<pfj.print()<<endl;
        printGenJet(truth);
        //cout <<truth->print()<<endl;
 
        cout << "==============deltaR " << deltaR << "  resPt " << resPt << " resChargedHadEnergy "
             << resChargedHadEnergy << " resNeutralHadEnergy " << resNeutralHadEnergy << " resNeutralEmEnergy "
             << resNeutralEmEnergy << endl;
      }
 
      if (plot1) {
        if (rec_eta > 0.)
          hDEtavsEta->Fill(true_eta, rec_eta - true_eta);
        else
          hDEtavsEta->Fill(true_eta, -rec_eta + true_eta);
        hDPhivsEta->Fill(true_eta, rec_phi - true_phi);
 
        hRPtvsEta->Fill(true_eta, resPt);
        hNCHvsEta->Fill(true_eta, rec_ChargedMultiplicity);
        hNCH0vsEta->Fill(true_eta, chMult[0]);
        hNCH1vsEta->Fill(true_eta, chMult[1]);
        hNCH2vsEta->Fill(true_eta, chMult[2]);
        hNCH3vsEta->Fill(true_eta, chMult[3]);
        hNCH4vsEta->Fill(true_eta, chMult[4]);
        hNCH5vsEta->Fill(true_eta, chMult[5]);
        hNCH6vsEta->Fill(true_eta, chMult[6]);
        hNCH7vsEta->Fill(true_eta, chMult[7]);
      }
      if (plot2)
        hRCHEvsEta->Fill(true_eta, resChargedHadEnergy);
      if (plot5)
        hRNeutvsEta->Fill(true_eta, resNeutralEnergy);
      if (plot6) {
        hRHCALvsEta->Fill(true_eta, resHCALEnergy);
        hRNEUTvsEta->Fill(true_eta, resNEUTEnergy);
      }
      if (plot7) {
        hRHONLvsEta->Fill(true_eta, resHCALEnergy);
        hRNONLvsEta->Fill(true_eta, resNEUTEnergy);
      }
 
      // fill histograms for relative delta quantitites of matched jets
      // delta Pt or E quantities for Barrel
      if (Barrel) {
        if (plot1) {
          hBRPt->Fill(resPt);
          if (pt_denom > 20. && pt_denom < 40.)
            hBRPt20_40->Fill(resPt);
          if (pt_denom > 40. && pt_denom < 60.)
            hBRPt40_60->Fill(resPt);
          if (pt_denom > 60. && pt_denom < 80.)
            hBRPt60_80->Fill(resPt);
          if (pt_denom > 80. && pt_denom < 100.)
            hBRPt80_100->Fill(resPt);
          if (pt_denom > 100. && pt_denom < 150.)
            hBRPt100_150->Fill(resPt);
          if (pt_denom > 150. && pt_denom < 200.)
            hBRPt150_200->Fill(resPt);
          if (pt_denom > 200. && pt_denom < 250.)
            hBRPt200_250->Fill(resPt);
          if (pt_denom > 250. && pt_denom < 300.)
            hBRPt250_300->Fill(resPt);
          if (pt_denom > 300. && pt_denom < 400.)
            hBRPt300_400->Fill(resPt);
          if (pt_denom > 400. && pt_denom < 500.)
            hBRPt400_500->Fill(resPt);
          if (pt_denom > 500. && pt_denom < 750.)
            hBRPt500_750->Fill(resPt);
          if (pt_denom > 750. && pt_denom < 1250.)
            hBRPt750_1250->Fill(resPt);
          if (pt_denom > 1250. && pt_denom < 2000.)
            hBRPt1250_2000->Fill(resPt);
          if (pt_denom > 2000. && pt_denom < 5000.)
            hBRPt2000_5000->Fill(resPt);
          hBNCH->Fill(rec_ChargedMultiplicity);
          hBNCH0vsPt->Fill(pt_denom, chMult[0]);
          hBNCH1vsPt->Fill(pt_denom, chMult[1]);
          hBNCH2vsPt->Fill(pt_denom, chMult[2]);
          hBNCH3vsPt->Fill(pt_denom, chMult[3]);
          hBNCH4vsPt->Fill(pt_denom, chMult[4]);
          hBNCH5vsPt->Fill(pt_denom, chMult[5]);
          hBNCH6vsPt->Fill(pt_denom, chMult[6]);
          hBNCH7vsPt->Fill(pt_denom, chMult[7]);
          hBNCHvsPt->Fill(pt_denom, rec_ChargedMultiplicity);
          if (rec_eta > 0.)
            hBDEtavsPt->Fill(pt_denom, rec_eta - true_eta);
          else
            hBDEtavsPt->Fill(pt_denom, -rec_eta + true_eta);
          hBDPhivsPt->Fill(pt_denom, rec_phi - true_phi);
        }
        if (plot2)
          hBRCHE->Fill(resChargedHadEnergy);
        if (plot3)
          hBRNHE->Fill(resNeutralHadEnergy);
        if (plot4)
          hBRNEE->Fill(resNeutralEmEnergy);
        if (plot5)
          hBRneut->Fill(resNeutralEnergy);
        if (plot1)
          hBRPtvsPt->Fill(pt_denom, resPt);
        if (plot2)
          hBRCHEvsPt->Fill(pt_denom, resChargedHadEnergy);
        if (plot3)
          hBRNHEvsPt->Fill(pt_denom, resNeutralHadEnergy);
        if (plot4)
          hBRNEEvsPt->Fill(pt_denom, resNeutralEmEnergy);
        if (plot5)
          hBRneutvsPt->Fill(pt_denom, resNeutralEnergy);
        if (plot6) {
          hBRHCALvsP->Fill(true_E, resHCALEnergy);
          hBRNEUTvsP->Fill(true_E, resNEUTEnergy);
        }
        if (plot7) {
          hBRHONLvsP->Fill(true_E, resHCALEnergy);
          hBRNONLvsP->Fill(true_E, resNEUTEnergy);
        }
      }
      // delta Pt or E quantities for Endcap
      if (Endcap) {
        if (plot1) {
          hERPt->Fill(resPt);
          if (pt_denom > 20. && pt_denom < 40.)
            hERPt20_40->Fill(resPt);
          if (pt_denom > 40. && pt_denom < 60.)
            hERPt40_60->Fill(resPt);
          if (pt_denom > 60. && pt_denom < 80.)
            hERPt60_80->Fill(resPt);
          if (pt_denom > 80. && pt_denom < 100.)
            hERPt80_100->Fill(resPt);
          if (pt_denom > 100. && pt_denom < 150.)
            hERPt100_150->Fill(resPt);
          if (pt_denom > 150. && pt_denom < 200.)
            hERPt150_200->Fill(resPt);
          if (pt_denom > 200. && pt_denom < 250.)
            hERPt200_250->Fill(resPt);
          if (pt_denom > 250. && pt_denom < 300.)
            hERPt250_300->Fill(resPt);
          if (pt_denom > 300. && pt_denom < 400.)
            hERPt300_400->Fill(resPt);
          if (pt_denom > 400. && pt_denom < 500.)
            hERPt400_500->Fill(resPt);
          if (pt_denom > 500. && pt_denom < 750.)
            hERPt500_750->Fill(resPt);
          if (pt_denom > 750. && pt_denom < 1250.)
            hERPt750_1250->Fill(resPt);
          if (pt_denom > 1250. && pt_denom < 2000.)
            hERPt1250_2000->Fill(resPt);
          if (pt_denom > 2000. && pt_denom < 5000.)
            hERPt2000_5000->Fill(resPt);
          hENCH->Fill(rec_ChargedMultiplicity);
          hENCHvsPt->Fill(pt_denom, rec_ChargedMultiplicity);
          hENCH0vsPt->Fill(pt_denom, chMult[0]);
          hENCH1vsPt->Fill(pt_denom, chMult[1]);
          hENCH2vsPt->Fill(pt_denom, chMult[2]);
          hENCH3vsPt->Fill(pt_denom, chMult[3]);
          hENCH4vsPt->Fill(pt_denom, chMult[4]);
          hENCH5vsPt->Fill(pt_denom, chMult[5]);
          hENCH6vsPt->Fill(pt_denom, chMult[6]);
          hENCH7vsPt->Fill(pt_denom, chMult[7]);
          if (rec_eta > 0.)
            hEDEtavsPt->Fill(pt_denom, rec_eta - true_eta);
          else
            hEDEtavsPt->Fill(pt_denom, -rec_eta + true_eta);
          hEDPhivsPt->Fill(pt_denom, rec_phi - true_phi);
        }
        if (plot2)
          hERCHE->Fill(resChargedHadEnergy);
        if (plot3)
          hERNHE->Fill(resNeutralHadEnergy);
        if (plot4)
          hERNEE->Fill(resNeutralEmEnergy);
        if (plot5)
          hERneut->Fill(resNeutralEnergy);
        if (plot1)
          hERPtvsPt->Fill(pt_denom, resPt);
        if (plot2)
          hERCHEvsPt->Fill(pt_denom, resChargedHadEnergy);
        if (plot3)
          hERNHEvsPt->Fill(pt_denom, resNeutralHadEnergy);
        if (plot4)
          hERNEEvsPt->Fill(pt_denom, resNeutralEmEnergy);
        if (plot5)
          hERneutvsPt->Fill(pt_denom, resNeutralEnergy);
        if (plot6) {
          hERHCALvsP->Fill(true_E, resHCALEnergy);
          hERNEUTvsP->Fill(true_E, resNEUTEnergy);
        }
        if (plot7) {
          hERHONLvsP->Fill(true_E, resHCALEnergy);
          hERNONLvsP->Fill(true_E, resNEUTEnergy);
        }
      }
      // delta Pt or E quantities for Forward
      if (Forward) {
        if (plot1) {
          hFRPt->Fill(resPt);
          if (pt_denom > 20. && pt_denom < 40.)
            hFRPt20_40->Fill(resPt);
          if (pt_denom > 40. && pt_denom < 60.)
            hFRPt40_60->Fill(resPt);
          if (pt_denom > 60. && pt_denom < 80.)
            hFRPt60_80->Fill(resPt);
          if (pt_denom > 80. && pt_denom < 100.)
            hFRPt80_100->Fill(resPt);
          if (pt_denom > 100. && pt_denom < 150.)
            hFRPt100_150->Fill(resPt);
          if (pt_denom > 150. && pt_denom < 200.)
            hFRPt150_200->Fill(resPt);
          if (pt_denom > 200. && pt_denom < 250.)
            hFRPt200_250->Fill(resPt);
          if (pt_denom > 250. && pt_denom < 300.)
            hFRPt250_300->Fill(resPt);
          if (pt_denom > 300. && pt_denom < 400.)
            hFRPt300_400->Fill(resPt);
          if (pt_denom > 400. && pt_denom < 500.)
            hFRPt400_500->Fill(resPt);
          if (pt_denom > 500. && pt_denom < 750.)
            hFRPt500_750->Fill(resPt);
          if (pt_denom > 750. && pt_denom < 1250.)
            hFRPt750_1250->Fill(resPt);
          if (pt_denom > 1250. && pt_denom < 2000.)
            hFRPt1250_2000->Fill(resPt);
          if (pt_denom > 2000. && pt_denom < 5000.)
            hFRPt2000_5000->Fill(resPt);
          if (rec_eta > 0.)
            hFDEtavsPt->Fill(pt_denom, rec_eta - true_eta);
          else
            hFDEtavsPt->Fill(pt_denom, -rec_eta + true_eta);
          hFDPhivsPt->Fill(pt_denom, rec_phi - true_phi);
        }
        if (plot2)
          hFRCHE->Fill(resChargedHadEnergy);
        if (plot3)
          hFRNHE->Fill(resNeutralHadEnergy);
        if (plot4)
          hFRNEE->Fill(resNeutralEmEnergy);
        if (plot5)
          hFRneut->Fill(resNeutralEnergy);
        if (plot1)
          hFRPtvsPt->Fill(pt_denom, resPt);
        if (plot2)
          hFRCHEvsPt->Fill(pt_denom, resChargedHadEnergy);
        if (plot3)
          hFRNHEvsPt->Fill(pt_denom, resNeutralHadEnergy);
        if (plot4)
          hFRNEEvsPt->Fill(pt_denom, resNeutralEmEnergy);
        if (plot5)
          hFRneutvsPt->Fill(pt_denom, resNeutralEnergy);
        if (plot6) {
          hFRHCALvsP->Fill(true_E, resHCALEnergy);
          hFRNEUTvsP->Fill(true_E, resNEUTEnergy);
        }
        if (plot7) {
          hFRHONLvsP->Fill(true_E, resHCALEnergy);
          hFRNONLvsP->Fill(true_E, resNEUTEnergy);
        }
      }
    }  // end case deltaR < deltaRMax
 
  }  // i loop on pf Jets
 
  // Increment counter
  entry_++;
}
 
void PFJetBenchmark::gettrue(const reco::GenJet* truth,
                             double& true_ChargedHadEnergy,
                             double& true_NeutralHadEnergy,
                             double& true_NeutralEmEnergy) {
  std::vector<const GenParticle*> mcparts = truth->getGenConstituents();
  true_NeutralEmEnergy = 0.;
  true_ChargedHadEnergy = 0.;
  true_NeutralHadEnergy = 0.;
  // for each MC particle in turn
  for (unsigned i = 0; i < mcparts.size(); i++) {
    const GenParticle* mcpart = mcparts[i];
    int PDG = std::abs(mcpart->pdgId());
    double e = mcpart->energy();
    switch (PDG) {  // start PDG switch
      case 22:      // photon
        true_NeutralEmEnergy += e;
        break;
      case 211:   // pi
      case 321:   // K
      case 2212:  // p
      case 11:    //electrons (until recognised)
        true_ChargedHadEnergy += e;
        break;
      case 310:   // K_S0
      case 130:   // K_L0
      case 3122:  // Lambda0
      case 2112:  // n0
        true_NeutralHadEnergy += e;
      default:
        break;
    }  // end PDG switch
  }    // end loop on constituents.
}
 
void PFJetBenchmark::printPFJet(const reco::PFJet* pfj) {
  cout << setiosflags(ios::right);
  cout << setiosflags(ios::fixed);
  cout << setprecision(3);
 
  cout << "PFJet  p/px/py/pz/pt: " << pfj->p() << "/" << pfj->px() << "/" << pfj->py() << "/" << pfj->pz() << "/"
       << pfj->pt() << endl
       << "    eta/phi: " << pfj->eta() << "/" << pfj->phi() << endl
       << "    PFJet specific:" << std::endl
       << "      charged/neutral hadrons energy: " << pfj->chargedHadronEnergy() << '/' << pfj->neutralHadronEnergy()
       << endl
       << "      charged/neutral em energy: " << pfj->chargedEmEnergy() << '/' << pfj->neutralEmEnergy() << endl
       << "      charged muon energy: " << pfj->chargedMuEnergy() << '/' << endl
       << "      charged/neutral multiplicity: " << pfj->chargedMultiplicity() << '/' << pfj->neutralMultiplicity()
       << endl;
 
  // And print the constituents
  std::cout << pfj->print() << std::endl;
 
  cout << resetiosflags(ios::right | ios::fixed);
}
 
void PFJetBenchmark::printGenJet(const reco::GenJet* truth) {
  std::vector<const GenParticle*> mcparts = truth->getGenConstituents();
  cout << "GenJet p/px/py/pz/pt: " << truth->p() << '/' << truth->px() << '/' << truth->py() << '/' << truth->pz()
       << '/' << truth->pt() << endl
       << "    eta/phi: " << truth->eta() << '/' << truth->phi() << endl
       << "    # of constituents: " << mcparts.size() << endl;
  cout << "    constituents:" << endl;
  for (unsigned i = 0; i < mcparts.size(); i++) {
    const GenParticle* mcpart = mcparts[i];
    cout << "      #" << i << "  PDG code:" << mcpart->pdgId() << ", p/pt/eta/phi: " << mcpart->p() << '/'
         << mcpart->pt() << '/' << mcpart->eta() << '/' << mcpart->phi() << endl;
  }
}