QcdUeDQM.cc

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/*
    This is the DQM code for UE physics plots
    11/12/2009 Sunil Bansal
*/
#include "DQM/Physics/src/QcdUeDQM.h"
#include "DataFormats/Common/interface/TriggerResults.h"
#include "DataFormats/GeometryVector/interface/GlobalPoint.h"
#include "DataFormats/GeometryVector/interface/LocalPoint.h"
#include "DataFormats/TrackerRecHit2D/interface/SiPixelRecHitCollection.h"
#include "DataFormats/VertexReco/interface/VertexFwd.h"
#include "DataFormats/VertexReco/interface/Vertex.h"
#include "DQMServices/Core/interface/DQMStore.h"
#include "DQMServices/Core/interface/MonitorElement.h"
#include "FWCore/Framework/interface/Event.h"
#include "FWCore/Framework/interface/EventSetup.h"
#include "FWCore/Framework/interface/ESHandle.h"
#include "FWCore/ParameterSet/interface/ParameterSet.h"
#include "FWCore/MessageLogger/interface/MessageLogger.h"
#include "FWCore/ServiceRegistry/interface/Service.h"
#include "Geometry/CommonDetUnit/interface/GeomDet.h"
#include "CommonTools/RecoAlgos/src/TrackToRefCandidate.h"
#include "Geometry/Records/interface/TrackerDigiGeometryRecord.h"
#include "Geometry/TrackerGeometryBuilder/interface/PixelGeomDetType.h"
#include "Geometry/TrackerGeometryBuilder/interface/PixelGeomDetUnit.h"
#include "Geometry/TrackerGeometryBuilder/interface/TrackerGeometry.h"
#include "Geometry/TrackerGeometryBuilder/interface/RectangularPixelTopology.h"
#include "HLTrigger/HLTcore/interface/HLTConfigProvider.h"
#include "AnalysisDataFormats/TrackInfo/interface/TrackInfo.h"
#include "AnalysisDataFormats/TrackInfo/interface/TrackInfoTrackAssociation.h"
#include "DataFormats/TrackReco/interface/Track.h"
#include "DataFormats/Candidate/interface/CandidateFwd.h"
#include "DataFormats/Candidate/interface/CandMatchMap.h"
#include "DataFormats/JetReco/interface/CaloJetCollection.h"
#include "DataFormats/Math/interface/deltaPhi.h"
#include <TString.h>
#include <TMath.h>
#include <TH1F.h>
#include <TH2F.h>
#include <TH3F.h>
#include <TProfile.h>
using namespace std;
using namespace edm;

#define CP(level) if (level >= verbose_)

struct deleter {
  void operator()(TH3F *&h) {
    delete h;
    h = nullptr;
  }
};

QcdUeDQM::QcdUeDQM(const ParameterSet &parameters)
    : hltResName_(parameters.getUntrackedParameter<string>("hltTrgResults")),
      verbose_(parameters.getUntrackedParameter<int>("verbose", 3)),
      tgeo_(nullptr),
      repSumMap_(nullptr),
      repSummary_(nullptr),
      h2TrigCorr_(nullptr),
      ptMin_(parameters.getParameter<double>("ptMin")),
      minRapidity_(parameters.getParameter<double>("minRapidity")),
      maxRapidity_(parameters.getParameter<double>("maxRapidity")),
      tip_(parameters.getParameter<double>("tip")),
      lip_(parameters.getParameter<double>("lip")),
      diffvtxbs_(parameters.getParameter<double>("diffvtxbs")),
      ptErr_pt_(parameters.getParameter<double>("ptErr_pt")),
      vtxntk_(parameters.getParameter<double>("vtxntk")),
      minHit_(parameters.getParameter<int>("minHit")),
      pxlLayerMinCut_(parameters.getParameter<double>("pxlLayerMinCut")),
      requirePIX1_(parameters.getParameter<bool>("requirePIX1")),
      min3DHit_(parameters.getParameter<int>("min3DHit")),
      maxChi2_(parameters.getParameter<double>("maxChi2")),
      bsuse_(parameters.getParameter<bool>("bsuse")),
      allowTriplets_(parameters.getParameter<bool>("allowTriplets")),
      bsPos_(parameters.getParameter<double>("bsPos")),
      caloJetLabel_(consumes<reco::CaloJetCollection>(
          parameters.getUntrackedParameter<edm::InputTag>("caloJetTag"))),
      chargedJetLabel_(consumes<reco::TrackJetCollection>(
          parameters.getUntrackedParameter<edm::InputTag>("chargedJetTag"))),
      trackLabel_(consumes<reco::TrackCollection>(
          parameters.getUntrackedParameter<edm::InputTag>("trackTag"))),
      vtxLabel_(consumes<reco::VertexCollection>(
          parameters.getUntrackedParameter<edm::InputTag>("vtxTag"))),
      bsLabel_(consumes<reco::BeamSpot>(
          parameters.getParameter<edm::InputTag>("beamSpotTag"))) {
  // Constructor.
  std::vector<std::string> quality =
      parameters.getParameter<std::vector<std::string> >("quality");
  for (unsigned int j = 0; j < quality.size(); j++)
    quality_.push_back(reco::TrackBase::qualityByName(quality[j]));
  std::vector<std::string> algorithm =
      parameters.getParameter<std::vector<std::string> >("algorithm");
  for (unsigned int j = 0; j < algorithm.size(); j++)
    algorithm_.push_back(reco::TrackBase::algoByName(algorithm[j]));

  if (parameters.exists("hltTrgNames"))
    hltTrgNames_ =
        parameters.getUntrackedParameter<vector<string> >("hltTrgNames");

  if (parameters.exists("hltProcNames"))
    hltProcNames_ =
        parameters.getUntrackedParameter<vector<string> >("hltProcNames");
  else {
    //     hltProcNames_.push_back("FU");
    hltProcNames_.push_back("HLT");
  }

  isHltConfigSuccessful_ = false;  // init
}

QcdUeDQM::~QcdUeDQM() {
  // Destructor.
}

void QcdUeDQM::dqmBeginRun(const Run &run, const EventSetup &iSetup) {
  // indicating change of HLT cfg at run boundries
  // for HLTConfigProvider::init()
  bool isHltCfgChange = false;
  isHltConfigSuccessful_ = false;  // init

  string teststr;
  for (size_t i = 0; i < hltProcNames_.size(); ++i) {
    if (i > 0) teststr += ", ";
    teststr += hltProcNames_.at(i);
    if (hltConfig.init(run, iSetup, hltProcNames_.at(i), isHltCfgChange)) {
      isHltConfigSuccessful_ = true;
      hltUsedResName_ = hltResName_;
      if (hltResName_.find(':') == string::npos)
        hltUsedResName_ += "::";
      else
        hltUsedResName_ += ":";
      hltUsedResName_ += hltProcNames_.at(i);
      break;
    }
  }

  if (!isHltConfigSuccessful_) return;

  // setup "Any" bit
  hltTrgBits_.clear();
  hltTrgBits_.push_back(-1);
  hltTrgDeci_.clear();
  hltTrgDeci_.push_back(true);
  hltTrgUsedNames_.clear();
  hltTrgUsedNames_.push_back("Any");

  // figure out relation of trigger name to trigger bit and store used trigger
  // names/bits
  for (size_t i = 0; i < hltTrgNames_.size(); ++i) {
    const string &n1(hltTrgNames_.at(i));
    // unsigned int hlt_prescale = hltConfig.prescaleValue(iSetup, n1);
    // cout<<"trigger=="<<n1<<"presc=="<<hlt_prescale<<endl;
    bool found = false;
    for (size_t j = 0; j < hltConfig.size(); ++j) {
      const string &n2(hltConfig.triggerName(j));
      if (n2 == n1) {
        hltTrgBits_.push_back(j);
        hltTrgUsedNames_.push_back(n1);
        hltTrgDeci_.push_back(false);
        found = true;
        break;
      }
    }
    if (!found) {
      CP(2) cout << "Could not find trigger bit" << endl;
    }
  }
  isHltConfigSuccessful_ = true;
}

void QcdUeDQM::bookHistograms(DQMStore::IBooker &iBooker, edm::Run const &,
                              edm::EventSetup const &) {
  // Book histograms if needed.
  iBooker.setCurrentFolder("Physics/QcdUe");

  if (true) {
    const int Nx = hltTrgUsedNames_.size();
    const double x1 = -0.5;
    const double x2 = Nx - 0.5;
    h2TrigCorr_ = iBooker.book2D("h2TriCorr", "Trigger bit x vs y;y&&!x;x&&y",
                                 Nx, x1, x2, Nx, x1, x2);
    for (size_t i = 1; i <= hltTrgUsedNames_.size(); ++i) {
      h2TrigCorr_->setBinLabel(i, hltTrgUsedNames_.at(i - 1), 1);
      h2TrigCorr_->setBinLabel(i, hltTrgUsedNames_.at(i - 1), 2);
    }
    TH1 *h = h2TrigCorr_->getTH1();
    if (h) h->SetStats(false);
  }
  book1D(iBooker, hNevts_, "hNevts", "number of events", 2, 0, 2);
  book1D(iBooker, hNtrackerLayer_, "hNtrackerLayer",
         "number of tracker layers;multiplicity", 20, -0.5, 19.5);
  book1D(iBooker, hNtrackerPixelLayer_, "hNtrackerPixelLayer",
         "number of pixel layers;multiplicity", 10, -0.5, 9.5);
  book1D(iBooker, hNtrackerStripPixelLayer_, "hNtrackerStripPixelLayer",
         "number of strip + pixel layers;multiplicity", 30, -0.5, 39.5);
  book1D(iBooker, hRatioPtErrorPt_, "hRatioPtErrorPt",
         "ratio of pT error and track pT", 25, 0., 5.);
  book1D(iBooker, hTrkPt_, "hTrkPt", "pT of all tracks", 50, 0., 50.);
  book1D(iBooker, hTrkEta_, "hTrkEta", "eta of all tracks", 40, -4., 4.);
  book1D(iBooker, hTrkPhi_, "hTrkPhi", "phi of all tracks", 40, -4., 4.);
  book1D(
      iBooker, hRatioDxySigmaDxyBS_, "hRatioDxySigmaDxyBS",
      "ratio of transverse impact parameter and its significance wrt beam spot",
      60, -10., 10);
  book1D(iBooker, hRatioDxySigmaDxyPV_, "hRatioDxySigmaDxyPV",
         "ratio of transverse impact parameter and its significance wrt PV", 60,
         -10., 10);
  book1D(iBooker, hRatioDzSigmaDzBS_, "hRatioDzSigmaDzBS",
         "ratio of longitudinal impact parameter and its significance wrt beam "
         "spot",
         80, -20., 20);
  book1D(iBooker, hRatioDzSigmaDzPV_, "hRatioDzSigmaDzPV",
         "ratio of longitudinal impact parameter and its significance wrt PV",
         80, -20., 20);
  book1D(iBooker, hTrkChi2_, "hTrkChi2", "track chi2", 30, 0., 30);
  book1D(iBooker, hTrkNdof_, "hTrkNdof", "track NDOF", 100, 0, 100);

  book1D(iBooker, hNgoodTrk_, "hNgoodTrk", "number of good tracks", 50, -0.5,
         49.5);

  book1D(iBooker, hGoodTrkPt500_, "hGoodTrkPt500",
         "pT of all good tracks with pT > 500 MeV", 50, 0., 50.);
  book1D(iBooker, hGoodTrkEta500_, "hGoodTrkEta500",
         "eta of all good tracks pT > 500 MeV", 40, -4., 4.);
  book1D(iBooker, hGoodTrkPhi500_, "hGoodTrkPhi500",
         "phi of all good tracks pT > 500 MeV", 40, -4., 4.);

  book1D(iBooker, hGoodTrkPt900_, "hGoodTrkPt900",
         "pT of all good tracks with pT > 900 MeV", 50, 0., 50.);
  book1D(iBooker, hGoodTrkEta900_, "hGoodTrkEta900",
         "eta of all good tracks pT > 900 MeV", 40, -4., 4.);
  book1D(iBooker, hGoodTrkPhi900_, "hGoodTrkPhi900",
         "phi of all good tracks pT > 900 MeV", 40, -4., 4.);

  book1D(iBooker, hNvertices_, "hNvertices", "number of vertices", 5, -0.5,
         4.5);
  book1D(iBooker, hVertex_z_, "hVertex_z", "z position of vertex; z[cm]", 200,
         -50, 50);
  book1D(iBooker, hVertex_y_, "hVertex_y", "y position of vertex; y[cm]", 100,
         -5, 5);
  book1D(iBooker, hVertex_x_, "hVertex_x", "x position of vertex; x[cm]", 100,
         -5, 5);
  book1D(iBooker, hVertex_ndof_, "hVertex_ndof", "ndof of vertex", 100, 0, 100);
  book1D(iBooker, hVertex_rho_, "hVertex_rho", "rho of vertex", 100, 0, 5);
  book1D(iBooker, hVertex_z_bs_, "hVertex_z_bs",
         "z position of vertex from beamspot; z[cm]", 200, -50, 50);

  book1D(iBooker, hBeamSpot_z_, "hBeamSpot_z", "z position of beamspot; z[cm]",
         100, -20, 20);
  book1D(iBooker, hBeamSpot_y_, "hBeamSpot_y", "y position of beamspot; y[cm]",
         50, -10, 10);
  book1D(iBooker, hBeamSpot_x_, "hBeamSpot_x", "x position of beamspot; x[cm]",
         50, -10, 10);

  if (true) {
    const int Nx = 25;
    const double x1 = 0.0;
    const double x2 = 50.0;
    book1D(iBooker, hLeadingTrack_pTSpectrum_, "hLeadingTrack_pTSpectrum",
           "pT spectrum of leading track;pT(GeV/c)", Nx, x1, x2);
    book1D(iBooker, hLeadingChargedJet_pTSpectrum_,
           "hLeadingChargedJet_pTSpectrum",
           "pT spectrum of leading track jet;pT(GeV/c)", Nx, x1, x2);
  }

  if (true) {
    const int Nx = 24;
    const double x1 = -4.;
    const double x2 = 4.;
    book1D(iBooker, hLeadingTrack_phiSpectrum_, "hLeadingTrack_phiSpectrum",
           "#phi spectrum of leading track;#phi", Nx, x1, x2);
    book1D(iBooker, hLeadingChargedJet_phiSpectrum_,
           "hLeadingChargedJet_phiSpectrum",
           "#phi spectrum of leading track jet;#phi", Nx, x1, x2);
  }

  if (true) {
    const int Nx = 24;
    const double x1 = -4.;
    const double x2 = 4.;
    book1D(iBooker, hLeadingTrack_etaSpectrum_, "hLeadingTrack_etaSpectrum",
           "#eta spectrum of leading track;#eta", Nx, x1, x2);
    book1D(iBooker, hLeadingChargedJet_etaSpectrum_,
           "hLeadingChargedJet_etaSpectrum",
           "#eta spectrum of leading track jet;#eta", Nx, x1, x2);
  }

  if (true) {
    const int Nx = 75;
    const double x1 = 0.0;
    const double x2 = 75.0;
    const double y1 = 0.;
    const double y2 = 10.;
    bookProfile(iBooker, hdNdEtadPhi_pTMax_Toward500_,
                "hdNdEtadPhi_pTMax_Toward500",
                "Average number of tracks (pT > 500 MeV) in toward region vs "
                "leading track pT;pT(GeV/c);dN/d#eta d#phi",
                Nx, x1, x2, y1, y2, false, false);
    bookProfile(iBooker, hdNdEtadPhi_pTMax_Transverse500_,
                "hdNdEtadPhi_pTMax_Transverse500",
                "Average number of tracks (pT > 500 MeV) in transverse region "
                "vs leading track pT;pT(GeV/c);dN/d#eta d#phi",
                Nx, x1, x2, y1, y2, false, false);
    bookProfile(iBooker, hdNdEtadPhi_pTMax_Away500_,
                "hdNdEtadPhi_pTMax_Away500",
                "Average number of tracks (pT > 500 MeV) in away region vs "
                "leading track pT;pT(GeV/c);dN/d#eta d#phi",
                Nx, x1, x2, y1, y2, false, false);
    bookProfile(iBooker, hdNdEtadPhi_trackJet_Toward500_,
                "hdNdEtadPhi_trackJet_Toward500",
                "Average number of tracks (pT > 500 MeV) in toward region vs "
                "leading track jet pT;pT(GeV/c);dN/d#eta d#phi",
                Nx, x1, x2, y1, y2);
    bookProfile(iBooker, hdNdEtadPhi_trackJet_Transverse500_,
                "hdNdEtadPhi_trackJet_Transverse500",
                "Average number of tracks (pT > 500 MeV) in transverse region "
                "vs leading track jet pT;pT(GeV/c);dN/d#eta d#phi",
                Nx, x1, x2, y1, y2, false, false);
    bookProfile(iBooker, hdNdEtadPhi_trackJet_Away500_,
                "hdNdEtadPhi_trackJet_Away500",
                "Average number of tracks (pT > 500 MeV) in away region vs "
                "leading track jet pT;pT(GeV/c);dN/d#eta d#phi",
                Nx, x1, x2, y1, y2, false, false);

    bookProfile(iBooker, hpTSumdEtadPhi_pTMax_Toward500_,
                "hpTSumdEtadPhi_pTMax_Toward500",
                "Average number of tracks (pT > 500 MeV) in toward region vs "
                "leading track pT;pT(GeV/c);dpTSum/d#eta d#phi",
                Nx, x1, x2, y1, y2, false, false);
    bookProfile(iBooker, hpTSumdEtadPhi_pTMax_Transverse500_,
                "hpTSumdEtadPhi_pTMax_Transverse500",
                "Average number of tracks (pT > 500 MeV) in transverse region "
                "vs leading track pT;pT(GeV/c);dpTSum/d#eta d#phi",
                Nx, x1, x2, y1, y2, false, false);
    bookProfile(iBooker, hpTSumdEtadPhi_pTMax_Away500_,
                "hpTSumdEtadPhi_pTMax_Away500",
                "Average number of tracks (pT > 500 MeV) in away region vs "
                "leading track pT;pT(GeV/c);dpTSum/d#eta d#phi",
                Nx, x1, x2, y1, y2, false, false);
    bookProfile(iBooker, hpTSumdEtadPhi_trackJet_Toward500_,
                "hpTSumdEtadPhi_trackJet_Toward500",
                "Average number of tracks (pT > 500 MeV) in toward region vs "
                "leading track jet pT;pT(GeV/c);dpTSum/d#eta d#phi",
                Nx, x1, x2, y1, y2, false, false);
    bookProfile(iBooker, hpTSumdEtadPhi_trackJet_Transverse500_,
                "hpTSumdEtadPhi_trackJet_Transverse500",
                "Average number of tracks (pT > 500 MeV) in transverse region "
                "vs leading track jet pT;pT(GeV/c);dpTSum/d#eta d#phi",
                Nx, x1, x2, y1, y2, false, false);
    bookProfile(iBooker, hpTSumdEtadPhi_trackJet_Away500_,
                "hpTSumdEtadPhi_trackJet_Away500",
                "Average number of tracks (pT > 500 MeV) in away region vs "
                "leading track jet pT;pT(GeV/c);dpTSum/d#eta d#phi",
                Nx, x1, x2, y1, y2, false, false);

    bookProfile(iBooker, hdNdEtadPhi_pTMax_Toward900_,
                "hdNdEtadPhi_pTMax_Toward900",
                "Average number of tracks (pT > 900 MeV) in toward region vs "
                "leading track pT;pT(GeV/c);dN/d#eta d#phi",
                Nx, x1, x2, y1, y2, false, false);
    bookProfile(iBooker, hdNdEtadPhi_pTMax_Transverse900_,
                "hdNdEtadPhi_pTMax_Transverse900",
                "Average number of tracks (pT > 900 MeV) in transverse region "
                "vs leading track pT;pT(GeV/c);dN/d#eta d#phi",
                Nx, x1, x2, y1, y2, false, false);
    bookProfile(iBooker, hdNdEtadPhi_pTMax_Away900_,
                "hdNdEtadPhi_pTMax_Away900",
                "Average number of tracks (pT > 900 MeV) in away region vs "
                "leading track pT;pT(GeV/c);dN/d#eta d#phi",
                Nx, x1, x2, y1, y2, false, false);
    bookProfile(iBooker, hdNdEtadPhi_trackJet_Toward900_,
                "hdNdEtadPhi_trackJet_Toward900",
                "Average number of tracks (pT > 900 MeV) in toward region vs "
                "leading track jet pT;pT(GeV/c);dN/d#eta d#phi",
                Nx, x1, x2, y1, y2);
    bookProfile(iBooker, hdNdEtadPhi_trackJet_Transverse900_,
                "hdNdEtadPhi_trackJet_Transverse900",
                "Average number of tracks (pT > 900 MeV) in transverse region "
                "vs leading track jet pT;pT(GeV/c);dN/d#eta d#phi",
                Nx, x1, x2, y1, y2, false, false);
    bookProfile(iBooker, hdNdEtadPhi_trackJet_Away900_,
                "hdNdEtadPhi_trackJet_Away900",
                "Average number of tracks (pT > 900 MeV) in away region vs "
                "leading track jet pT;pT(GeV/c);dN/d#eta d#phi",
                Nx, x1, x2, y1, y2, false, false);

    bookProfile(iBooker, hpTSumdEtadPhi_pTMax_Toward900_,
                "hpTSumdEtadPhi_pTMax_Toward900",
                "Average number of tracks (pT > 900 MeV) in toward region vs "
                "leading track pT;pT(GeV/c);dpTSum/d#eta d#phi",
                Nx, x1, x2, y1, y2, false, false);
    bookProfile(iBooker, hpTSumdEtadPhi_pTMax_Transverse900_,
                "hpTSumdEtadPhi_pTMax_Transverse900",
                "Average number of tracks (pT > 900 MeV) in transverse region "
                "vs leading track pT;pT(GeV/c);dpTSum/d#eta d#phi",
                Nx, x1, x2, y1, y2, false, false);
    bookProfile(iBooker, hpTSumdEtadPhi_pTMax_Away900_,
                "hpTSumdEtadPhi_pTMax_Away900",
                "Average number of tracks (pT > 900 MeV) in away region vs "
                "leading track pT;pT(GeV/c);dpTSum/d#eta d#phi",
                Nx, x1, x2, y1, y2, false, false);
    bookProfile(iBooker, hpTSumdEtadPhi_trackJet_Toward900_,
                "hpTSumdEtadPhi_trackJet_Toward900",
                "Average number of tracks (pT > 900 MeV) in toward region vs "
                "leading track jet pT;pT(GeV/c);dpTSum/d#eta d#phi",
                Nx, x1, x2, y1, y2, false, false);
    bookProfile(iBooker, hpTSumdEtadPhi_trackJet_Transverse900_,
                "hpTSumdEtadPhi_trackJet_Transverse900",
                "Average number of tracks (pT > 900 MeV) in transverse region "
                "vs leading track jet pT;pT(GeV/c);dpTSum/d#eta d#phi",
                Nx, x1, x2, y1, y2, false, false);
    bookProfile(iBooker, hpTSumdEtadPhi_trackJet_Away900_,
                "hpTSumdEtadPhi_trackJet_Away900",
                "Average number of tracks (pT > 900 MeV) in away region vs "
                "leading track jet pT;pT(GeV/c);dpTSum/d#eta d#phi",
                Nx, x1, x2, y1, y2, false, false);
  }

  if (true) {
    const int Nx = 20;
    const double x1 = 0.0;
    const double x2 = 20.0;

    book1D(iBooker, hChargedJetMulti_, "hChargedJetMulti",
           "Charged jet multiplicity;multiplicities", Nx, x1, x2);
  }

  if (true) {
    const int Nx = 60;
    const double x1 = -180.0;
    const double x2 = 180.0;

    book1D(iBooker, hdPhi_maxpTTrack_tracks_, "hdPhi_maxpTTrack_tracks",
           "delta phi between leading tracks and other "
           "tracks;#Delta#phi(leading track-track)",
           Nx, x1, x2);
    book1D(iBooker, hdPhi_chargedJet_tracks_, "hdPhi_chargedJet_tracks",
           "delta phi between leading charged jet  and "
           "tracks;#Delta#phi(leading charged jet-track)",
           Nx, x1, x2);
  }
}

void QcdUeDQM::analyze(const Event &iEvent, const EventSetup &iSetup) {
  if (!isHltConfigSuccessful_) return;

  // Analyze the given event.

  edm::Handle<reco::BeamSpot> beamSpot;
  bool ValidBS_ = iEvent.getByToken(bsLabel_, beamSpot);
  if (!ValidBS_) return;

  edm::Handle<reco::TrackCollection> tracks;
  bool ValidTrack_ = iEvent.getByToken(trackLabel_, tracks);
  if (!ValidTrack_) return;

  edm::Handle<reco::TrackJetCollection> trkJets;
  bool ValidTrackJet_ = iEvent.getByToken(chargedJetLabel_, trkJets);
  if (!ValidTrackJet_) return;

  edm::Handle<reco::CaloJetCollection> calJets;
  bool ValidCaloJet_ = iEvent.getByToken(caloJetLabel_, calJets);
  if (!ValidCaloJet_) return;

  edm::Handle<reco::VertexCollection> vertexColl;
  bool ValidVtxColl_ = iEvent.getByToken(vtxLabel_, vertexColl);
  if (!ValidVtxColl_) return;

  reco::TrackCollection tracks_sort = *tracks;
  std::sort(tracks_sort.begin(), tracks_sort.end(), PtSorter());

  // get tracker geometry
  /*  ESHandle<TrackerGeometry> trackerHandle;
   iSetup.get<TrackerDigiGeometryRecord>().get(trackerHandle);
   tgeo_ = trackerHandle.product();
   if (!tgeo_)return;
 */
  selected_.clear();
  fillHltBits(iEvent, iSetup);
  // select good tracks
  if (fillVtxPlots(beamSpot.product(), vertexColl)) {
    fill1D(hNevts_, 1);
    for (reco::TrackCollection::const_iterator Trk = tracks_sort.begin();
         Trk != tracks_sort.end(); ++Trk) {
      if (trackSelection(*Trk, beamSpot.product(), vtx1, vertexColl->size()))
        selected_.push_back(&*Trk);
    }

    fillpTMaxRelated(selected_);
    fillChargedJetSpectra(trkJets);
    //    fillCaloJetSpectra(calJets);
    fillUE_with_MaxpTtrack(selected_);
    if (!trkJets->empty()) fillUE_with_ChargedJets(selected_, trkJets);
    // if(calJets->size()>0)fillUE_with_CaloJets(selected_,calJets);
  }
}

void QcdUeDQM::book1D(DQMStore::IBooker &iBooker,
                      std::vector<MonitorElement *> &mes,
                      const std::string &name, const std::string &title, int nx,
                      double x1, double x2, bool sumw2, bool sbox) {
  // Book 1D histos.
  for (size_t i = 0; i < hltTrgUsedNames_.size(); ++i) {
    std::string folderName = "Physics/QcdUe/" + hltTrgUsedNames_.at(i);
    iBooker.setCurrentFolder(folderName);
    MonitorElement *e = iBooker.book1D(
        Form("%s_%s", name.c_str(), hltTrgUsedNames_.at(i).c_str()),
        Form("%s: %s", hltTrgUsedNames_.at(i).c_str(), title.c_str()), nx, x1,
        x2);
    TH1 *h1 = e->getTH1();
    if (sumw2) {
      if (0 == h1->GetSumw2N()) {  // protect against re-summing (would cause
                                   // exception)
        h1->Sumw2();
      }
    }
    h1->SetStats(sbox);
    mes.push_back(e);
  }
}

void QcdUeDQM::bookProfile(DQMStore::IBooker &iBooker,
                           std::vector<MonitorElement *> &mes,
                           const std::string &name, const std::string &title,
                           int nx, double x1, double x2, double y1, double y2,
                           bool sumw2, bool sbox) {
  // Book Profile histos.

  for (size_t i = 0; i < hltTrgUsedNames_.size(); ++i) {
    std::string folderName = "Physics/QcdUe/" + hltTrgUsedNames_.at(i);
    iBooker.setCurrentFolder(folderName);
    MonitorElement *e = iBooker.bookProfile(
        Form("%s_%s", name.c_str(), hltTrgUsedNames_.at(i).c_str()),
        Form("%s: %s", hltTrgUsedNames_.at(i).c_str(), title.c_str()), nx, x1,
        x2, y1, y2, " ");
    mes.push_back(e);
  }
}

void QcdUeDQM::fill1D(std::vector<TH1F *> &hs, double val, double w) {
  // Loop over histograms and fill if trigger has fired.

  for (size_t i = 0; i < hs.size(); ++i) {
    if (!hltTrgDeci_.at(i)) continue;
    hs.at(i)->Fill(val, w);
  }
}

//--------------------------------------------------------------------------------------------------
void QcdUeDQM::fill1D(std::vector<MonitorElement *> &mes, double val,
                      double w) {
  // Loop over histograms and fill if trigger has fired.

  for (size_t i = 0; i < mes.size(); ++i) {
    if (!hltTrgDeci_.at(i)) continue;
    mes.at(i)->Fill(val, w);
  }
}

//--------------------------------------------------------------------------------------------------
void QcdUeDQM::setLabel1D(std::vector<MonitorElement *> &mes) {
  // Loop over histograms and fill if trigger has fired.
  string cut[5] = {"Nevt", "vtx!=bmspt", "Zvtx<10cm", "pT>1GeV",
                   "trackFromVtx"};
  for (size_t i = 0; i < mes.size(); ++i) {
    if (!hltTrgDeci_.at(i)) continue;
    for (size_t j = 1; j < 6; j++) mes.at(i)->setBinLabel(j, cut[j - 1], 1);
  }
}

//--------------------------------------------------------------------------------------------------
void QcdUeDQM::fill2D(std::vector<TH2F *> &hs, double valx, double valy,
                      double w) {
  // Loop over histograms and fill if trigger has fired.

  for (size_t i = 0; i < hs.size(); ++i) {
    if (!hltTrgDeci_.at(i)) continue;
    hs.at(i)->Fill(valx, valy, w);
  }
}

//--------------------------------------------------------------------------------------------------
void QcdUeDQM::fill2D(std::vector<MonitorElement *> &mes, double valx,
                      double valy, double w) {
  // Loop over histograms and fill if trigger has fired.

  for (size_t i = 0; i < mes.size(); ++i) {
    if (!hltTrgDeci_.at(i)) continue;
    mes.at(i)->Fill(valx, valy, w);
  }
}
//--------------------------------------------------------------------------------------------------
void QcdUeDQM::fillProfile(std::vector<TProfile *> &hs, double valx,
                           double valy, double w) {
  // Loop over histograms and fill if trigger has fired.

  for (size_t i = 0; i < hs.size(); ++i) {
    if (!hltTrgDeci_.at(i)) continue;
    hs.at(i)->Fill(valx, valy, w);
  }
}

//--------------------------------------------------------------------------------------------------
void QcdUeDQM::fillProfile(std::vector<MonitorElement *> &mes, double valx,
                           double valy, double w) {
  // Loop over histograms and fill if trigger has fired.

  for (size_t i = 0; i < mes.size(); ++i) {
    if (!hltTrgDeci_.at(i)) continue;
    const double y = valy * w;
    mes.at(i)->Fill(valx, y);
  }
}

//--------------------------------------------------------------------------------------------------
bool QcdUeDQM::trackSelection(const reco::Track &trk, const reco::BeamSpot *bs,
                              const reco::Vertex &vtx, int sizevtx) {
  bool goodTrk = false;

  if (sizevtx != 1) return false;  // selection events with only a vertex

  // Fill basic information of all the tracks
  fill1D(hNtrackerLayer_, trk.hitPattern().trackerLayersWithMeasurement());
  fill1D(hNtrackerPixelLayer_, trk.hitPattern().pixelLayersWithMeasurement());

  fill1D(hNtrackerStripPixelLayer_,
         (trk.hitPattern().pixelLayersWithMeasurement() +
          trk.hitPattern().numberOfValidStripLayersWithMonoAndStereo()));

  fill1D(hRatioPtErrorPt_, (trk.ptError() / trk.pt()));
  fill1D(hTrkPt_, trk.pt());
  fill1D(hTrkEta_, trk.eta());
  fill1D(hTrkPhi_, trk.phi());
  fill1D(hRatioDxySigmaDxyBS_, (trk.dxy(bs->position()) / trk.dxyError()));
  fill1D(hRatioDxySigmaDxyPV_, (trk.dxy(vtx.position()) / trk.dxyError()));
  fill1D(hRatioDzSigmaDzBS_, (trk.dz(bs->position()) / trk.dzError()));
  fill1D(hRatioDzSigmaDzPV_, (trk.dz(vtx.position()) / trk.dzError()));
  fill1D(hTrkChi2_, trk.normalizedChi2());
  fill1D(hTrkNdof_, trk.ndof());

  fill1D(hBeamSpot_x_, bs->x0());
  fill1D(hBeamSpot_y_, bs->y0());
  fill1D(hBeamSpot_z_, bs->z0());

  // number of layers
  bool layerMinCutbool =
      (trk.hitPattern().trackerLayersWithMeasurement() >= minHit_ ||
       (trk.hitPattern().trackerLayersWithMeasurement() == 3 &&
        trk.hitPattern().pixelLayersWithMeasurement() == 3 && allowTriplets_));

  // number of pixel layers
  bool pxlLayerMinCutbool =
      (trk.hitPattern().pixelLayersWithMeasurement() >= pxlLayerMinCut_);

  // cut on the hits in pixel layers
  bool hasPIX1 = false;
  if (requirePIX1_) {
    const reco::HitPattern &p = trk.hitPattern();
    for (int i = 0; i < p.numberOfAllHits(reco::HitPattern::TRACK_HITS); i++) {
      uint32_t hit = p.getHitPattern(reco::HitPattern::TRACK_HITS, i);
      if (reco::HitPattern::validHitFilter(hit) &&
          reco::HitPattern::pixelHitFilter(hit) &&
          reco::HitPattern::getLayer(hit) == 1) {
        hasPIX1 = true;
        break;
      }
    }
  } else {
    hasPIX1 = true;
  }

  // cut on the pT error
  bool ptErrorbool =
      (trk.ptError() / trk.pt() < ptErr_pt_ ||
       (trk.hitPattern().trackerLayersWithMeasurement() == 3 &&
        trk.hitPattern().pixelLayersWithMeasurement() == 3 && allowTriplets_));

  // quality cut
  bool quality_ok = true;
  if (!quality_.empty()) {
    quality_ok = false;
    for (unsigned int i = 0; i < quality_.size(); ++i) {
      if (trk.quality(quality_[i])) {
        quality_ok = true;
        break;
      }
    }
  }
  //-----
  bool algo_ok = true;
  if (!algorithm_.empty()) {
    if (std::find(algorithm_.begin(), algorithm_.end(), trk.algo()) ==
        algorithm_.end())
      algo_ok = false;
  }

  if (bsuse_ == 1) {
    if (hasPIX1 && pxlLayerMinCutbool && layerMinCutbool &&
        (trk.hitPattern().pixelLayersWithMeasurement() +
         trk.hitPattern().numberOfValidStripLayersWithMonoAndStereo()) >=
            min3DHit_ &&
        ptErrorbool && fabs(trk.pt()) >= ptMin_ && trk.eta() >= minRapidity_ &&
        trk.eta() <= maxRapidity_ &&
        fabs(trk.dxy(bs->position()) / trk.dxyError()) < tip_ &&
        fabs(trk.dz(bs->position()) / trk.dzError()) < lip_ &&
        trk.normalizedChi2() <= maxChi2_ && quality_ok && algo_ok) {
      goodTrk = true;
    }
  }

  if (bsuse_ == 0) {
    if (hasPIX1 && pxlLayerMinCutbool && layerMinCutbool &&
        (trk.hitPattern().pixelLayersWithMeasurement() +
         trk.hitPattern().numberOfValidStripLayersWithMonoAndStereo()) >=
            min3DHit_ &&
        ptErrorbool && fabs(trk.pt()) >= ptMin_ && trk.eta() >= minRapidity_ &&
        trk.eta() <= maxRapidity_ &&
        fabs(trk.dxy(vtx.position()) / trk.dxyError()) < tip_ &&
        fabs(trk.dz(vtx.position()) / trk.dzError()) < lip_ &&
        trk.normalizedChi2() <= maxChi2_ && quality_ok && algo_ok) {
      goodTrk = true;
    }
  }

  return goodTrk;
}

//--------------------------------------------------------------------------------------------------
bool QcdUeDQM::fillVtxPlots(const reco::BeamSpot *bs,
                            const edm::Handle<reco::VertexCollection> vtxColl) {
  const reco::VertexCollection theVertices = *(vtxColl.product());
  bool goodVtx = false;
  fill1D(hNvertices_, theVertices.size());
  for (reco::VertexCollection::const_iterator vertexIt = theVertices.begin();
       vertexIt != theVertices.end(); ++vertexIt) {
    fill1D(hVertex_z_, vertexIt->z());
    fill1D(hVertex_y_, vertexIt->y());
    fill1D(hVertex_x_, vertexIt->x());
    fill1D(hVertex_ndof_, vertexIt->ndof());
    fill1D(hVertex_rho_, vertexIt->position().rho());
    fill1D(hVertex_z_bs_, (vertexIt->z() - bs->z0()));

    if (fabs(vertexIt->z() - bs->z0()) < diffvtxbs_ && vertexIt->ndof() >= 4 &&
        vertexIt->position().rho() <= 2.0) {
      goodVtx = true;
      vtx1 = (*vertexIt);

      break;
    }
  }  // Loop over vertcies
  return goodVtx;
}
//--------------------------------------------------------------------------------------------------
void QcdUeDQM::fillpTMaxRelated(const std::vector<const reco::Track *> &track) {
  fill1D(hNgoodTrk_, track.size());
  if (!track.empty()) {
    fill1D(hLeadingTrack_pTSpectrum_, track[0]->pt());
    fill1D(hLeadingTrack_phiSpectrum_, track[0]->phi());
    fill1D(hLeadingTrack_etaSpectrum_, track[0]->eta());
  }
  for (size_t i = 0; i < track.size(); i++) {
    fill1D(hGoodTrkPt500_, track[i]->pt());
    fill1D(hGoodTrkEta500_, track[i]->eta());
    fill1D(hGoodTrkPhi500_, track[i]->phi());
    if (track[i]->pt() > 0.9) {
      fill1D(hGoodTrkPt900_, track[i]->pt());
      fill1D(hGoodTrkEta900_, track[i]->eta());
      fill1D(hGoodTrkPhi900_, track[i]->phi());
    }
  }
}

void QcdUeDQM::fillChargedJetSpectra(
    const edm::Handle<reco::TrackJetCollection> trackJets) {
  fill1D(hChargedJetMulti_, trackJets->size());
  for (reco::TrackJetCollection::const_iterator f = trackJets->begin();
       f != trackJets->end(); f++) {
    if (f != trackJets->begin()) continue;
    fill1D(hLeadingChargedJet_pTSpectrum_, f->pt());
    fill1D(hLeadingChargedJet_etaSpectrum_, f->eta());
    fill1D(hLeadingChargedJet_phiSpectrum_, f->phi());
  }
}

/*
void QcdUeDQM::fillCaloJetSpectra(const edm::Handle<reco::CaloJetCollection>
caloJets)
{
  fill1D(hCaloJetMulti_,caloJets->size());
   for( reco::CaloJetCollection::const_iterator f  = caloJets->begin();  f !=
caloJets->end(); f++)
     {
       if(f != caloJets->begin())continue;
       fill1D(hLeadingCaloJet_pTSpectrum_,f->pt());
       fill1D(hLeadingCaloJet_etaSpectrum_,f->eta());
       fill1D(hLeadingCaloJet_phiSpectrum_,f->phi());
     }

}


*/

/*
 weight for transverse/toward/away region = 0.12


*/

void QcdUeDQM::fillUE_with_MaxpTtrack(
    const std::vector<const reco::Track *> &track) {
  double w = 0.119;
  // double w = 1.;
  double nTrk500_TransReg = 0;
  double nTrk500_AwayReg = 0;
  double nTrk500_TowardReg = 0;

  double pTSum500_TransReg = 0;
  double pTSum500_AwayReg = 0;
  double pTSum500_TowardReg = 0;

  double nTrk900_TransReg = 0;
  double nTrk900_AwayReg = 0;
  double nTrk900_TowardReg = 0;

  double pTSum900_TransReg = 0;
  double pTSum900_AwayReg = 0;
  double pTSum900_TowardReg = 0;
  if (!track.empty()) {
    if (track[0]->pt() > 1.) {
      for (size_t i = 1; i < track.size(); i++) {
        double dphi =
            (180. / PI) * (deltaPhi(track[0]->phi(), track[i]->phi()));
        fill1D(hdPhi_maxpTTrack_tracks_, dphi);
        if (fabs(dphi) > 60. && fabs(dphi) < 120.) {
          pTSum500_TransReg = pTSum500_TransReg + track[i]->pt();
          nTrk500_TransReg++;
          if (track[i]->pt() > 0.9) {
            pTSum900_TransReg = pTSum900_TransReg + track[i]->pt();
            nTrk900_TransReg++;
          }
        }

        if (fabs(dphi) > 120. && fabs(dphi) < 180.) {
          pTSum500_AwayReg = pTSum500_AwayReg + track[i]->pt();
          nTrk500_AwayReg++;
          if (track[i]->pt() > 0.9) {
            pTSum900_AwayReg = pTSum900_AwayReg + track[i]->pt();
            nTrk900_AwayReg++;
          }
        }

        if (fabs(dphi) < 60.) {
          pTSum500_TowardReg = pTSum500_TowardReg + track[i]->pt();
          nTrk500_TowardReg++;
          if (track[i]->pt() > 0.9) {
            pTSum900_TowardReg = pTSum900_TowardReg + track[i]->pt();
            nTrk900_TowardReg++;
          }
        }
      }  // track loop
    }    // leading track
         // non empty collection
    fillProfile(hdNdEtadPhi_pTMax_Toward500_, track[0]->pt(), nTrk500_TowardReg,
                w);
    fillProfile(hdNdEtadPhi_pTMax_Transverse500_, track[0]->pt(),
                nTrk500_TransReg, w);
    fillProfile(hdNdEtadPhi_pTMax_Away500_, track[0]->pt(), nTrk500_AwayReg, w);

    fillProfile(hpTSumdEtadPhi_pTMax_Toward500_, track[0]->pt(),
                pTSum500_TowardReg, w);
    fillProfile(hpTSumdEtadPhi_pTMax_Transverse500_, track[0]->pt(),
                pTSum500_TransReg, w);
    fillProfile(hpTSumdEtadPhi_pTMax_Away500_, track[0]->pt(), pTSum500_AwayReg,
                w);

    fillProfile(hdNdEtadPhi_pTMax_Toward900_, track[0]->pt(), nTrk900_TowardReg,
                w);
    fillProfile(hdNdEtadPhi_pTMax_Transverse900_, track[0]->pt(),
                nTrk900_TransReg, w);
    fillProfile(hdNdEtadPhi_pTMax_Away900_, track[0]->pt(), nTrk900_AwayReg, w);

    fillProfile(hpTSumdEtadPhi_pTMax_Toward900_, track[0]->pt(),
                pTSum900_TowardReg, w);
    fillProfile(hpTSumdEtadPhi_pTMax_Transverse900_, track[0]->pt(),
                pTSum900_TransReg, w);
    fillProfile(hpTSumdEtadPhi_pTMax_Away900_, track[0]->pt(), pTSum900_AwayReg,
                w);
  }
}

void QcdUeDQM::fillUE_with_ChargedJets(
    const std::vector<const reco::Track *> &track,
    const edm::Handle<reco::TrackJetCollection> &trackJets) {
  double w = 0.119;
  double nTrk500_TransReg = 0;
  double nTrk500_AwayReg = 0;
  double nTrk500_TowardReg = 0;

  double pTSum500_TransReg = 0;
  double pTSum500_AwayReg = 0;
  double pTSum500_TowardReg = 0;

  double nTrk900_TransReg = 0;
  double nTrk900_AwayReg = 0;
  double nTrk900_TowardReg = 0;

  double pTSum900_TransReg = 0;
  double pTSum900_AwayReg = 0;
  double pTSum900_TowardReg = 0;

  if (!(trackJets->empty()) && (trackJets->begin())->pt() > 1.) {
    double jetPhi = (trackJets->begin())->phi();
    for (size_t i = 0; i < track.size(); i++) {
      double dphi = (180. / PI) * (deltaPhi(jetPhi, track[i]->phi()));
      fill1D(hdPhi_chargedJet_tracks_, dphi);
      if (fabs(dphi) > 60. && fabs(dphi) < 120.) {
        pTSum500_TransReg = pTSum500_TransReg + track[i]->pt();
        nTrk500_TransReg++;
        if (track[i]->pt() > 0.9) {
          pTSum900_TransReg = pTSum900_TransReg + track[i]->pt();
          nTrk900_TransReg++;
        }
      }

      if (fabs(dphi) > 120. && fabs(dphi) < 180.) {
        pTSum500_AwayReg = pTSum500_AwayReg + track[i]->pt();
        nTrk500_AwayReg++;
        if (track[i]->pt() > 0.9) {
          pTSum900_AwayReg = pTSum900_AwayReg + track[i]->pt();
          nTrk900_AwayReg++;
        }
      }
      if (fabs(dphi) < 60.) {
        pTSum500_TowardReg = pTSum500_TowardReg + track[i]->pt();
        nTrk500_TowardReg++;
        if (track[i]->pt() > 0.9) {
          pTSum900_TowardReg = pTSum900_TowardReg + track[i]->pt();
          nTrk900_TowardReg++;
        }
      }
    }  // tracks loop

  }  // leading track jet

  fillProfile(hdNdEtadPhi_trackJet_Toward500_, (trackJets->begin())->pt(),
              nTrk500_TowardReg, w);
  fillProfile(hdNdEtadPhi_trackJet_Transverse500_, (trackJets->begin())->pt(),
              nTrk500_TransReg, w);
  fillProfile(hdNdEtadPhi_trackJet_Away500_, (trackJets->begin())->pt(),
              nTrk500_AwayReg, w);

  fillProfile(hpTSumdEtadPhi_trackJet_Toward500_, (trackJets->begin())->pt(),
              pTSum500_TowardReg, w);
  fillProfile(hpTSumdEtadPhi_trackJet_Transverse500_,
              (trackJets->begin())->pt(), pTSum500_TransReg, w);
  fillProfile(hpTSumdEtadPhi_trackJet_Away500_, (trackJets->begin())->pt(),
              pTSum500_AwayReg, w);

  fillProfile(hdNdEtadPhi_trackJet_Toward900_, (trackJets->begin())->pt(),
              nTrk900_TowardReg, w);
  fillProfile(hdNdEtadPhi_trackJet_Transverse900_, (trackJets->begin())->pt(),
              nTrk900_TransReg, w);
  fillProfile(hdNdEtadPhi_trackJet_Away900_, (trackJets->begin())->pt(),
              nTrk900_AwayReg, w);

  fillProfile(hpTSumdEtadPhi_trackJet_Toward900_, (trackJets->begin())->pt(),
              pTSum900_TowardReg, w);
  fillProfile(hpTSumdEtadPhi_trackJet_Transverse900_,
              (trackJets->begin())->pt(), pTSum900_TransReg, w);
  fillProfile(hpTSumdEtadPhi_trackJet_Away900_, (trackJets->begin())->pt(),
              pTSum900_AwayReg, w);
}

/*
void QcdUeDQM:: fillUE_with_CaloJets(const std::vector<const reco::Track *>
&track, const edm::Handle<reco::CaloJetCollection> &caloJets)
{
double w = 0.119;
double nTrk500_TransReg = 0;
double nTrk500_AwayReg = 0;
double nTrk500_TowardReg = 0;

double pTSum500_TransReg = 0;
double pTSum500_AwayReg = 0;
double pTSum500_TowardReg = 0;

double nTrk900_TransReg = 0;
double nTrk900_AwayReg = 0;
double nTrk900_TowardReg = 0;

double pTSum900_TransReg = 0;
double pTSum900_AwayReg = 0;
double pTSum900_TowardReg = 0;
    if(!(caloJets->empty()) && (caloJets->begin())->pt() > 1.)
          {
            double jetPhi = (caloJets->begin())->phi();
             for(size_t i = 0; i < track.size();i++)
                   {
                         double dphi =
(180./PI)*(deltaPhi(jetPhi,track[i]->phi()));
                         fill1D(hdPhi_caloJet_tracks_,dphi);
                         if(fabs(dphi)>60. && fabs(dphi)<120.)
                           {
                                 pTSum500_TransReg =  pTSum500_TransReg +
track[i]->pt();
                                 nTrk500_TransReg++;
                                 if(track[i]->pt() > 0.9)
                                 {
                                 pTSum900_TransReg =  pTSum900_TransReg +
track[i]->pt();
                                 nTrk900_TransReg++;
                                 }
                           }
                         if(fabs(dphi)>120. && fabs(dphi)<180.)
                           {
                                 pTSum500_AwayReg =  pTSum500_AwayReg +
track[i]->pt();
                                 nTrk500_AwayReg++;
                                 if(track[i]->pt() > 0.9)
                                 {
                                 pTSum900_AwayReg =  pTSum900_AwayReg +
track[i]->pt();
                                 nTrk900_AwayReg++;
                                 }
                           }
                         if(fabs(dphi)<60.)
                           {
                                 pTSum500_TowardReg =  pTSum500_TowardReg +
track[i]->pt();
                                 nTrk500_TowardReg++;
                                 if(track[i]->pt() > 0.9)
                                 {
                                 pTSum900_TowardReg =  pTSum900_TowardReg +
track[i]->pt();
                                 nTrk900_TowardReg++;
                                 }
                           }
                       }// tracks loop

                   }// leading calo jet
                 fillProfile(hdNdEtadPhi_caloJet_Toward500_,
(caloJets->begin())->pt(),nTrk500_TowardReg,w);
                 fillProfile(hdNdEtadPhi_caloJet_Transverse500_,
(caloJets->begin())->pt(),nTrk500_TransReg,w);
                 fillProfile(hdNdEtadPhi_caloJet_Away500_,
(caloJets->begin())->pt(),nTrk500_AwayReg,w);

                 fillProfile(hpTSumdEtadPhi_caloJet_Toward500_,
(caloJets->begin())->pt(),pTSum500_TowardReg,w);
                 fillProfile(hpTSumdEtadPhi_caloJet_Transverse500_,
(caloJets->begin())->pt(),pTSum500_TransReg,w);
                 fillProfile(hpTSumdEtadPhi_caloJet_Away500_,
(caloJets->begin())->pt(),pTSum500_AwayReg,w);

                 fillProfile(hdNdEtadPhi_caloJet_Toward900_,
(caloJets->begin())->pt(),nTrk900_TowardReg,w);
                 fillProfile(hdNdEtadPhi_caloJet_Transverse900_,
(caloJets->begin())->pt(),nTrk900_TransReg,w);
                 fillProfile(hdNdEtadPhi_caloJet_Away900_,
(caloJets->begin())->pt(),nTrk900_AwayReg,w);

                 fillProfile(hpTSumdEtadPhi_caloJet_Toward900_,
(caloJets->begin())->pt(),pTSum900_TowardReg,w);
                 fillProfile(hpTSumdEtadPhi_caloJet_Transverse900_,
(caloJets->begin())->pt(),pTSum900_TransReg,w);
                 fillProfile(hpTSumdEtadPhi_caloJet_Away900_,
(caloJets->begin())->pt(),pTSum900_AwayReg,w);


}

*/
void QcdUeDQM::fillHltBits(const Event &iEvent, const EventSetup &iSetup) {
  // Fill HLT trigger bits.

  Handle<TriggerResults> triggerResultsHLT;
  getProduct(hltUsedResName_, triggerResultsHLT, iEvent);

  /*  const unsigned int ntrigs(triggerResultsHLT.product()->size());
    if( ntrigs != 0 ) {
    const edm::TriggerNames & triggerNames =
  iEvent.triggerNames(*triggerResultsHLT);
    for (unsigned int j=0; j!=ntrigs; j++) {
  //    if(triggerResultsHLT->accept(j)){
  //    unsigned int hlt_prescale = hltConfig_.prescaleValue(iEvent, iSetup,
  triggerName);
      cout<<"trigger fired"<<triggerNames.triggerName(j)<<endl;
      for(unsigned int itrigName = 0; itrigName < hltTrgNames_.size();
  itrigName++ ) {
       unsigned int hlt_prescale = hltConfig.prescaleValue(iEvent, iSetup,
  hltTrgNames_[itrigName]);

       if(triggerNames.triggerIndex(hltTrgNames_[itrigName]) >= (unsigned
  int)ntrigs ) continue;
  //    if(
  triggerResultsHLT->accept(triggerNames.triggerIndex(hltTrgNames_[itrigName]))
  )cout<<hltTrgNames_[itrigName]<<endl;

   }
      }
     }
   // }
  */
  for (size_t i = 0; i < hltTrgBits_.size(); ++i) {
    if (hltTrgBits_.at(i) < 0) continue;  // ignore unknown trigger
    size_t tbit = hltTrgBits_.at(i);
    if (tbit < triggerResultsHLT->size()) {
      hltTrgDeci_[i] = triggerResultsHLT->accept(tbit);
    }
  }
  // fill correlation histogram
  for (size_t i = 0; i < hltTrgBits_.size(); ++i) {
    if (hltTrgDeci_.at(i)) h2TrigCorr_->Fill(i, i);
    for (size_t j = i + 1; j < hltTrgBits_.size(); ++j) {
      if (hltTrgDeci_.at(i) && hltTrgDeci_.at(j)) h2TrigCorr_->Fill(i, j);
      if (hltTrgDeci_.at(i) && !hltTrgDeci_.at(j)) h2TrigCorr_->Fill(j, i);
    }
  }
}