DQMPFCandidateAnalyzer.cc

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#include "DQMOffline/JetMET/interface/DQMPFCandidateAnalyzer.h"

#include "FWCore/Framework/interface/Event.h"
#include "FWCore/Framework/interface/EventSetup.h"
#include "FWCore/Common/interface/TriggerNames.h"
#include "DataFormats/JetReco/interface/CaloJetCollection.h"
#include "DataFormats/JetReco/interface/CaloJet.h"
#include "DataFormats/JetReco/interface/JPTJetCollection.h"
#include "DataFormats/JetReco/interface/PFJetCollection.h"
#include "DataFormats/JetReco/interface/PFJet.h"
#include "DataFormats/PatCandidates/interface/Jet.h"
#include "DataFormats/Candidate/interface/Candidate.h"
#include "DataFormats/Common/interface/Handle.h"
#include "FWCore/MessageLogger/interface/MessageLogger.h"

#include "DataFormats/L1GlobalTrigger/interface/L1GlobalTriggerReadoutSetupFwd.h"
#include "DataFormats/L1GlobalTrigger/interface/L1GlobalTriggerReadoutSetup.h"
#include "DataFormats/L1GlobalTrigger/interface/L1GlobalTriggerReadoutRecord.h"

#include "FWCore/Framework/interface/ESHandle.h"
#include "DataFormats/Math/interface/deltaR.h"
#include "RecoJets/JetAssociationAlgorithms/interface/JetTracksAssociationDRCalo.h"
#include "DataFormats/Math/interface/Point3D.h"
#include "MagneticField/Records/interface/IdealMagneticFieldRecord.h"
#include "TrackingTools/Records/interface/TrackingComponentsRecord.h"
#include "DataFormats/TrackingRecHit/interface/TrackingRecHit.h"
#include "DataFormats/TrackerRecHit2D/interface/SiStripMatchedRecHit2D.h"
#include "DataFormats/TrackerRecHit2D/interface/ProjectedSiStripRecHit2D.h"
#include "DataFormats/TrackerRecHit2D/interface/SiStripRecHit2D.h"
#include "DataFormats/TrackingRecHit/interface/InvalidTrackingRecHit.h"
#include "DataFormats/SiStripCluster/interface/SiStripCluster.h"
#include "DataFormats/DetId/interface/DetId.h"
#include "DataFormats/SiStripDetId/interface/SiStripDetId.h"
#include "CalibFormats/SiStripObjects/interface/SiStripQuality.h"
#include "CondFormats/SiStripObjects/interface/SiStripNoises.h"
#include "CalibFormats/SiStripObjects/interface/SiStripGain.h"
#include "CalibTracker/Records/interface/SiStripQualityRcd.h"
#include "CondFormats/DataRecord/interface/SiStripNoisesRcd.h"
#include "CalibTracker/Records/interface/SiStripGainRcd.h"

#include <string>

#include <cmath>

using namespace edm;
using namespace reco;
using namespace std;

// ***********************************************************
DQMPFCandidateAnalyzer::DQMPFCandidateAnalyzer(const edm::ParameterSet& pSet)
//: trackPropagator_(new jetAnalysis::TrackPropagatorToCalo)//,
//sOverNCalculator_(new jetAnalysis::StripSignalOverNoiseCalculator)
{
  miniaodfilterdec = -1;

  candidateType_ = pSet.getUntrackedParameter<std::string>("CandType");
  //here only choice between miniaod or reco

  LSBegin_ = pSet.getParameter<int>("LSBegin");
  LSEnd_ = pSet.getParameter<int>("LSEnd");

  isMiniAOD_ = (std::string("Packed") == candidateType_);

  mInputCollection_ = pSet.getParameter<edm::InputTag>("PFCandidateLabel");

  if (isMiniAOD_) {
    pflowPackedToken_ = consumes<std::vector<pat::PackedCandidate> >(mInputCollection_);
  } else {
    pflowToken_ = consumes<std::vector<reco::PFCandidate> >(mInputCollection_);
  }

  miniaodfilterdec = -1;

  // Smallest track pt
  ptMinCand_ = pSet.getParameter<double>("ptMinCand");

  // Smallest raw HCAL energy linked to the track
  hcalMin_ = pSet.getParameter<double>("hcalMin");

  diagnosticsParameters_ = pSet.getParameter<std::vector<edm::ParameterSet> >("METDiagonisticsParameters");

  edm::ConsumesCollector iC = consumesCollector();
  //DCS
  DCSFilter_ = new JetMETDQMDCSFilter(pSet.getParameter<ParameterSet>("DCSFilter"), iC);
  if (isMiniAOD_) {
    METFilterMiniAODLabel_ = pSet.getParameter<edm::InputTag>("FilterResultsLabelMiniAOD");
    METFilterMiniAODToken_ = consumes<edm::TriggerResults>(METFilterMiniAODLabel_);

    METFilterMiniAODLabel2_ = pSet.getParameter<edm::InputTag>("FilterResultsLabelMiniAOD2");
    METFilterMiniAODToken2_ = consumes<edm::TriggerResults>(METFilterMiniAODLabel2_);

    HBHENoiseStringMiniAOD = pSet.getParameter<std::string>("HBHENoiseLabelMiniAOD");
  }

  if (!isMiniAOD_) {
    hbheNoiseFilterResultTag_ = pSet.getParameter<edm::InputTag>("HBHENoiseFilterResultLabel");
    hbheNoiseFilterResultToken_ = consumes<bool>(hbheNoiseFilterResultTag_);
  }
  //jet cleanup parameters
  cleaningParameters_ = pSet.getParameter<ParameterSet>("CleaningParameters");

  //Vertex requirements
  bypassAllPVChecks_ = cleaningParameters_.getParameter<bool>("bypassAllPVChecks");
  bypassAllDCSChecks_ = cleaningParameters_.getParameter<bool>("bypassAllDCSChecks");
  vertexTag_ = cleaningParameters_.getParameter<edm::InputTag>("vertexCollection");
  vertexToken_ = consumes<std::vector<reco::Vertex> >(edm::InputTag(vertexTag_));

  verbose_ = pSet.getParameter<int>("verbose");
}

// ***********************************************************
DQMPFCandidateAnalyzer::~DQMPFCandidateAnalyzer() {
  delete DCSFilter_;
  LogTrace("DQMPFCandidateAnalyzer") << "[DQMPFCandidateAnalyzer] Saving the histos";
}

// ***********************************************************
void DQMPFCandidateAnalyzer::bookHistograms(DQMStore::IBooker& ibooker, edm::Run const& iRun, edm::EventSetup const&) {
  ibooker.setCurrentFolder("JetMET/PFCandidates/" + mInputCollection_.label());
  std::string DirName = "JetMET/PFCandidates/" + mInputCollection_.label();

  if (!isMiniAOD_) {
    if (!occupancyPFCandRECO_.empty())
      occupancyPFCandRECO_.clear();
    if (!occupancyPFCand_nameRECO_.empty())
      occupancyPFCand_nameRECO_.clear();
    if (!etaMinPFCandRECO_.empty())
      etaMinPFCandRECO_.clear();
    if (!etaMaxPFCandRECO_.empty())
      etaMaxPFCandRECO_.clear();
    if (!typePFCandRECO_.empty())
      typePFCandRECO_.clear();
    if (!countsPFCandRECO_.empty())
      countsPFCandRECO_.clear();
    if (!ptPFCandRECO_.empty())
      ptPFCandRECO_.clear();
    if (!ptPFCand_nameRECO_.empty())
      ptPFCand_nameRECO_.clear();
    if (!multiplicityPFCandRECO_.empty())
      multiplicityPFCandRECO_.clear();
    if (!multiplicityPFCand_nameRECO_.empty())
      multiplicityPFCand_nameRECO_.clear();
    for (std::vector<edm::ParameterSet>::const_iterator v = diagnosticsParameters_.begin();
         v != diagnosticsParameters_.end();
         v++) {
      int etaNBinsPFCand = v->getParameter<int>("etaNBins");
      double etaMinPFCand = v->getParameter<double>("etaMin");
      double etaMaxPFCand = v->getParameter<double>("etaMax");
      int phiNBinsPFCand = v->getParameter<int>("phiNBins");
      double phiMinPFCand = v->getParameter<double>("phiMin");
      double phiMaxPFCand = v->getParameter<double>("phiMax");
      int nMinPFCand = v->getParameter<int>("nMin");
      int nMaxPFCand = v->getParameter<int>("nMax");
      int nbinsPFCand = v->getParameter<double>("nbins");
      etaMinPFCandRECO_.push_back(etaMinPFCand);
      etaMaxPFCandRECO_.push_back(etaMaxPFCand);
      typePFCandRECO_.push_back(v->getParameter<int>("type"));
      countsPFCandRECO_.push_back(0);
      multiplicityPFCandRECO_.push_back(
          ibooker.book1D(std::string(v->getParameter<std::string>("name")).append("_multiplicity_").c_str(),
                         std::string(v->getParameter<std::string>("name")) + "multiplicity",
                         nbinsPFCand,
                         nMinPFCand,
                         nMaxPFCand));
      multiplicityPFCand_nameRECO_.push_back(
          std::string(v->getParameter<std::string>("name")).append("_multiplicity_"));
      map_of_MEs.insert(std::pair<std::string, MonitorElement*>(
          DirName + "/" + multiplicityPFCand_nameRECO_[multiplicityPFCand_nameRECO_.size() - 1],
          multiplicityPFCandRECO_[multiplicityPFCandRECO_.size() - 1]));

      //push back names first, we need to create histograms with the name and fill it for endcap plots later
      occupancyPFCand_nameRECO_.push_back(std::string(v->getParameter<std::string>("name")).append("_occupancy_"));

      ptPFCand_nameRECO_.push_back(std::string(v->getParameter<std::string>("name")).append("_pt_"));
      //special booking for endcap plots, merge plots for eminus and eplus into one plot, using variable binning
      //barrel plots have eta-boundaries on minus and plus side
      //parameters start on minus side
      if (etaMinPFCand * etaMaxPFCand < 0) {  //barrel plots, plot only in barrel region
        occupancyPFCandRECO_.push_back(
            ibooker.book2D(std::string(v->getParameter<std::string>("name")).append("_occupancy_").c_str(),
                           std::string(v->getParameter<std::string>("name")) + "occupancy",
                           etaNBinsPFCand,
                           etaMinPFCand,
                           etaMaxPFCand,
                           phiNBinsPFCand,
                           phiMinPFCand,
                           phiMaxPFCand));
        ptPFCandRECO_.push_back(ibooker.book2D(std::string(v->getParameter<std::string>("name")).append("_pt_").c_str(),
                                               std::string(v->getParameter<std::string>("name")) + "pt",
                                               etaNBinsPFCand,
                                               etaMinPFCand,
                                               etaMaxPFCand,
                                               phiNBinsPFCand,
                                               phiMinPFCand,
                                               phiMaxPFCand));
      } else {  //endcap or forward plots,
        const int nbins_eta_endcap = 2 * (etaNBinsPFCand + 1);
        double eta_limits_endcap[nbins_eta_endcap];
        for (int i = 0; i < nbins_eta_endcap; i++) {
          if (i < (etaNBinsPFCand + 1)) {
            eta_limits_endcap[i] = etaMinPFCand + i * (etaMaxPFCand - etaMinPFCand) / (double)etaNBinsPFCand;
          } else {
            eta_limits_endcap[i] =
                -etaMaxPFCand + (i - (etaNBinsPFCand + 1)) * (etaMaxPFCand - etaMinPFCand) / (double)etaNBinsPFCand;
          }
        }
        TH2F* hist_temp_occup = new TH2F((occupancyPFCand_nameRECO_[occupancyPFCand_nameRECO_.size() - 1]).c_str(),
                                         "occupancy",
                                         nbins_eta_endcap - 1,
                                         eta_limits_endcap,
                                         phiNBinsPFCand,
                                         phiMinPFCand,
                                         phiMaxPFCand);
        occupancyPFCandRECO_.push_back(
            ibooker.book2D(occupancyPFCand_nameRECO_[occupancyPFCand_nameRECO_.size() - 1], hist_temp_occup));
        TH2F* hist_temp_pt = new TH2F((ptPFCand_nameRECO_[ptPFCand_nameRECO_.size() - 1]).c_str(),
                                      "pt",
                                      nbins_eta_endcap - 1,
                                      eta_limits_endcap,
                                      phiNBinsPFCand,
                                      phiMinPFCand,
                                      phiMaxPFCand);
        ptPFCandRECO_.push_back(ibooker.book2D(ptPFCand_nameRECO_[ptPFCand_nameRECO_.size() - 1], hist_temp_pt));
      }

      map_of_MEs.insert(std::pair<std::string, MonitorElement*>(
          DirName + "/" + occupancyPFCand_nameRECO_[occupancyPFCand_nameRECO_.size() - 1],
          occupancyPFCandRECO_[occupancyPFCandRECO_.size() - 1]));
      map_of_MEs.insert(std::pair<std::string, MonitorElement*>(
          DirName + "/" + ptPFCand_nameRECO_[ptPFCand_nameRECO_.size() - 1], ptPFCandRECO_[ptPFCandRECO_.size() - 1]));
    }

    mProfileIsoPFChHad_TrackOccupancy = ibooker.book2D(
        "IsoPfChHad_Track_profile", "Isolated PFChHadron Tracker_occupancy", 108, -2.7, 2.7, 160, -M_PI, M_PI);
    map_of_MEs.insert(std::pair<std::string, MonitorElement*>(DirName + "/" + "IsoPfChHad_Track_profile",
                                                              mProfileIsoPFChHad_TrackOccupancy));
    mProfileIsoPFChHad_TrackPt =
        ibooker.book2D("IsoPfChHad_TrackPt", "Isolated PFChHadron TrackPt", 108, -2.7, 2.7, 160, -M_PI, M_PI);
    map_of_MEs.insert(
        std::pair<std::string, MonitorElement*>(DirName + "/" + "IsoPfChHad_TrackPt", mProfileIsoPFChHad_TrackPt));

    mProfileIsoPFChHad_EcalOccupancyCentral = ibooker.book2D("IsoPfChHad_ECAL_profile_central",
                                                             "IsolatedPFChHa ECAL occupancy (Barrel)",
                                                             180,
                                                             -1.479,
                                                             1.479,
                                                             125,
                                                             -M_PI,
                                                             M_PI);
    map_of_MEs.insert(std::pair<std::string, MonitorElement*>(DirName + "/" + "IsoPfChHad_ECAL_profile_central",
                                                              mProfileIsoPFChHad_EcalOccupancyCentral));
    mProfileIsoPFChHad_EMPtCentral = ibooker.book2D(
        "IsoPfChHad_EMPt_central", "Isolated PFChHadron HadPt_central", 180, -1.479, 1.479, 360, -M_PI, M_PI);
    map_of_MEs.insert(std::pair<std::string, MonitorElement*>(DirName + "/" + "IsoPfChHad_EMPt_central",
                                                              mProfileIsoPFChHad_EMPtCentral));

    mProfileIsoPFChHad_EcalOccupancyEndcap = ibooker.book2D(
        "IsoPfChHad_ECAL_profile_endcap", "IsolatedPFChHa ECAL occupancy (Endcap)", 110, -2.75, 2.75, 125, -M_PI, M_PI);
    map_of_MEs.insert(std::pair<std::string, MonitorElement*>(DirName + "/" + "IsoPfChHad_ECAL_profile_endcap",
                                                              mProfileIsoPFChHad_EcalOccupancyEndcap));
    mProfileIsoPFChHad_EMPtEndcap =
        ibooker.book2D("IsoPfChHad_EMPt_endcap", "Isolated PFChHadron EMPt_endcap", 110, -2.75, 2.75, 125, -M_PI, M_PI);
    map_of_MEs.insert(std::pair<std::string, MonitorElement*>(DirName + "/" + "IsoPfChHad_EMPt_endcap",
                                                              mProfileIsoPFChHad_EMPtEndcap));

    const int nbins_eta = 16;

    double eta_limits[nbins_eta] = {-2.650,
                                    -2.500,
                                    -2.322,
                                    -2.172,
                                    -2.043,
                                    -1.930,
                                    -1.830,
                                    -1.740,
                                    1.740,
                                    1.830,
                                    1.930,
                                    2.043,
                                    2.172,
                                    2.3122,
                                    2.500,
                                    2.650};

    TH2F* hist_temp_HCAL = new TH2F("IsoPfChHad_HCAL_profile_endcap",
                                    "IsolatedPFChHa HCAL occupancy (outer endcap)",
                                    nbins_eta - 1,
                                    eta_limits,
                                    36,
                                    -M_PI,
                                    M_PI);
    TH2F* hist_tempPt_HCAL = (TH2F*)hist_temp_HCAL->Clone("Isolated PFCHHadron HadPt (outer endcap)");

    mProfileIsoPFChHad_HcalOccupancyCentral = ibooker.book2D("IsoPfChHad_HCAL_profile_central",
                                                             "IsolatedPFChHa HCAL occupancy (Central Part)",
                                                             40,
                                                             -1.740,
                                                             1.740,
                                                             72,
                                                             -M_PI,
                                                             M_PI);
    map_of_MEs.insert(std::pair<std::string, MonitorElement*>(DirName + "/" + "IsoPfChHad_HCAL_profile_central",
                                                              mProfileIsoPFChHad_HcalOccupancyCentral));
    mProfileIsoPFChHad_HadPtCentral = ibooker.book2D(
        "IsoPfChHad_HadPt_central", "Isolated PFChHadron HadPt_central", 40, -1.740, 1.740, 72, -M_PI, M_PI);
    map_of_MEs.insert(std::pair<std::string, MonitorElement*>(DirName + "/" + "IsoPfChHad_HadPt_central",
                                                              mProfileIsoPFChHad_HadPtCentral));

    mProfileIsoPFChHad_HcalOccupancyEndcap = ibooker.book2D("IsoPfChHad_HCAL_profile_endcap", hist_temp_HCAL);
    map_of_MEs.insert(std::pair<std::string, MonitorElement*>(DirName + "/" + "IsoPfChHad_HCAL_profile_endcap",
                                                              mProfileIsoPFChHad_HcalOccupancyEndcap));
    mProfileIsoPFChHad_HadPtEndcap = ibooker.book2D("IsoPfChHad_HadPt_endcap", hist_tempPt_HCAL);
    map_of_MEs.insert(std::pair<std::string, MonitorElement*>(DirName + "/" + "IsoPfChHad_HadPt_endcap",
                                                              mProfileIsoPFChHad_HadPtEndcap));

    //actual HCAL segmentation in pseudorapidity -> reduce by a factor of two
    //const int nbins_eta_hcal_total=54;
    //double eta_limits_hcal_total[nbins_eta_hcal_total]=
    //   {-2.650,-2.500,-2.322,-2.172,-2.043,-1.930,-1.830,-1.740,-1.653,-1.566,-1.479,-1.392,-1.305,
    //   -1.218,-1.131,-1.044,-0.957,-0.870,-0.783,-0.696,-0.609,-0.522,-0.435,-0.348,-0.261,-0.174,-0.087,0.0,
    //   0.087, 0.174, 0.261, 0.348, 0.435, 0.522, 0.609, 0.783, 0.870, 0.957, 1.044, 1.131, 1.218
    //   1.305, 1.392, 1.479, 1.566, 1.653, 1.740, 1.830, 1.930, 2.043, 2.172, 2.322, 2.500, 2.650}
    //

    const int nbins_eta_hcal_total = 28;
    double eta_limits_hcal_total[nbins_eta_hcal_total] = {
        -2.650, -2.322, -2.043, -1.830, -1.653, -1.479, -1.305, -1.131, -0.957, -0.783, -0.609, -0.435, -0.261, -0.087,
        0.087,  0.261,  0.435,  0.609,  0.783,  0.957,  1.131,  1.305,  1.479,  1.653,  1.830,  2.043,  2.322,  2.650};
    float eta_limits_hcal_total_f[nbins_eta_hcal_total];
    float log_bin_spacing = log(200.) / 40.;
    const int nbins_pt_total_hcal = 41;
    double pt_limits_hcal[nbins_pt_total_hcal];
    float pt_limits_hcal_f[nbins_pt_total_hcal];
    for (int i = 0; i < nbins_pt_total_hcal; i++) {
      pt_limits_hcal[i] = exp(i * log_bin_spacing);
      pt_limits_hcal_f[i] = exp(i * log_bin_spacing);
    }
    for (int i = 0; i < nbins_eta_hcal_total; i++) {
      eta_limits_hcal_total_f[i] = (float)eta_limits_hcal_total[i];
    }
    m_HOverTrackP_trackPtVsEta = ibooker.book2D("HOverTrackP_trackPtVsEta",
                                                "HOverTrackP_trackPtVsEta",
                                                nbins_pt_total_hcal - 1,
                                                pt_limits_hcal_f,
                                                nbins_eta_hcal_total - 1,
                                                eta_limits_hcal_total_f);
    m_HOverTrackPVsTrackP_Barrel = ibooker.bookProfile(
        "HOverTrackPVsTrackP_Barrel", "HOverTrackPVsTrackP_Barrel", nbins_pt_total_hcal - 1, pt_limits_hcal, 0, 4, " ");
    m_HOverTrackPVsTrackP_EndCap = ibooker.bookProfile(
        "HOverTrackPVsTrackP_EndCap", "HOverTrackPVsTrackP_EndCap", nbins_pt_total_hcal - 1, pt_limits_hcal, 0, 4, " ");
    m_HOverTrackPVsTrackPt_Barrel = ibooker.bookProfile("HOverTrackPVsTrackPt_Barrel",
                                                        "HOverTrackPVsTrackPt_Barrel",
                                                        nbins_pt_total_hcal - 1,
                                                        pt_limits_hcal,
                                                        0,
                                                        4,
                                                        " ");
    m_HOverTrackPVsTrackPt_EndCap = ibooker.bookProfile("HOverTrackPVsTrackPt_EndCap",
                                                        "HOverTrackPVsTrackPt_EndCap",
                                                        nbins_pt_total_hcal - 1,
                                                        pt_limits_hcal,
                                                        0,
                                                        4,
                                                        " ");

    m_HOverTrackPVsEta_hPt_1_10 = ibooker.bookProfile("HOverTrackPVsEta_hPt_1_10",
                                                      "HOverTrackPVsEta, 1<hPt<10 GeV",
                                                      nbins_eta_hcal_total - 1,
                                                      eta_limits_hcal_total,
                                                      0,
                                                      4,
                                                      " ");
    m_HOverTrackPVsEta_hPt_10_20 = ibooker.bookProfile("HOverTrackPVsEta_hPt_10_20",
                                                       "HOverTrackPVsEta, 10<hPt<20 GeV",
                                                       nbins_eta_hcal_total - 1,
                                                       eta_limits_hcal_total,
                                                       0,
                                                       4,
                                                       " ");
    m_HOverTrackPVsEta_hPt_20_50 = ibooker.bookProfile("HOverTrackPVsEta_hPt_20_50",
                                                       "HOverTrackPVsEta, 20<hPt<50 GeV",
                                                       nbins_eta_hcal_total - 1,
                                                       eta_limits_hcal_total,
                                                       0,
                                                       4,
                                                       " ");
    m_HOverTrackPVsEta_hPt_50 = ibooker.bookProfile("HOverTrackPVsEta_hPt_50",
                                                    "HOverTrackPVsEta, hPt>50 GeV",
                                                    nbins_eta_hcal_total - 1,
                                                    eta_limits_hcal_total,
                                                    0,
                                                    4,
                                                    " ");

    m_HOverTrackP_Barrel_hPt_1_10 =
        ibooker.book1D("HOverTrackP_Barrel_hPt_1_10", "HOverTrackP_B, 1<hPt<10 GeV", 50, 0, 4);
    m_HOverTrackP_Barrel_hPt_10_20 =
        ibooker.book1D("HOverTrackP_Barrel_hPt_10_20", "HOverTrackP_B, 10<hPt<20 GeV", 50, 0, 4);
    m_HOverTrackP_Barrel_hPt_20_50 =
        ibooker.book1D("HOverTrackP_Barrel_hPt_20_50", "HOverTrackP_B, 20<hPt<50 GeV", 50, 0, 4);
    m_HOverTrackP_Barrel_hPt_50 = ibooker.book1D("HOverTrackP_Barrel_hPt_50", "HOverTrackP_B, hPt>50 GeV", 50, 0, 4);

    m_HOverTrackP_EndCap_hPt_1_10 =
        ibooker.book1D("HOverTrackP_EndCap_hPt_1_10", "HOverTrackP_E, 1<hPt<10 GeV", 50, 0, 4);
    m_HOverTrackP_EndCap_hPt_10_20 =
        ibooker.book1D("HOverTrackP_EndCap_hPt_10_20", "HOverTrackP_E, 10<hPt<20 GeV", 50, 0, 4);
    m_HOverTrackP_EndCap_hPt_20_50 =
        ibooker.book1D("HOverTrackP_EndCap_hPt_20_50", "HOverTrackP_E, 20<hPt<50 GeV", 50, 0, 4);
    m_HOverTrackP_EndCap_hPt_50 = ibooker.book1D("HOverTrackP_EndCap_hPt_50", "HOverTrackP_E, hPt>50 GeV", 50, 0, 4);

    map_of_MEs.insert(std::pair<std::string, MonitorElement*>(DirName + "/" + "HOverTrackP_trackPtVsEta",
                                                              m_HOverTrackP_trackPtVsEta));
    map_of_MEs.insert(std::pair<std::string, MonitorElement*>(DirName + "/" + "HOverTrackPVsTrackP_Barrel",
                                                              m_HOverTrackPVsTrackP_Barrel));
    map_of_MEs.insert(std::pair<std::string, MonitorElement*>(DirName + "/" + "HOverTrackPVsTrackP_EndCap",
                                                              m_HOverTrackPVsTrackP_EndCap));
    map_of_MEs.insert(std::pair<std::string, MonitorElement*>(DirName + "/" + "HOverTrackPVsTrackPt_Barrel",
                                                              m_HOverTrackPVsTrackPt_Barrel));
    map_of_MEs.insert(std::pair<std::string, MonitorElement*>(DirName + "/" + "HOverTrackPVsTrackPt_EndCap",
                                                              m_HOverTrackPVsTrackPt_EndCap));
    map_of_MEs.insert(std::pair<std::string, MonitorElement*>(DirName + "/" + "HOverTrackPVsEta_hPt_1_10",
                                                              m_HOverTrackPVsEta_hPt_1_10));
    map_of_MEs.insert(std::pair<std::string, MonitorElement*>(DirName + "/" + "HOverTrackPVsEta_hPt_10_20",
                                                              m_HOverTrackPVsEta_hPt_10_20));
    map_of_MEs.insert(std::pair<std::string, MonitorElement*>(DirName + "/" + "HOverTrackPVsEta_hPt_20_50",
                                                              m_HOverTrackPVsEta_hPt_20_50));
    map_of_MEs.insert(
        std::pair<std::string, MonitorElement*>(DirName + "/" + "HOverTrackPVsEta_hPt_50", m_HOverTrackPVsEta_hPt_50));
    map_of_MEs.insert(std::pair<std::string, MonitorElement*>(DirName + "/" + "HOverTrackP_Barrel_hPt_1_10",
                                                              m_HOverTrackP_Barrel_hPt_1_10));
    map_of_MEs.insert(std::pair<std::string, MonitorElement*>(DirName + "/" + "HOverTrackP_Barrel_hPt_10_20",
                                                              m_HOverTrackP_Barrel_hPt_10_20));
    map_of_MEs.insert(std::pair<std::string, MonitorElement*>(DirName + "/" + "HOverTrackP_Barrel_hPt_20_50",
                                                              m_HOverTrackP_Barrel_hPt_20_50));
    map_of_MEs.insert(std::pair<std::string, MonitorElement*>(DirName + "/" + "HOverTrackP_Barrel_hPt_50",
                                                              m_HOverTrackP_Barrel_hPt_50));
    map_of_MEs.insert(std::pair<std::string, MonitorElement*>(DirName + "/" + "HOverTrackP_EndCap_hPt_1_10",
                                                              m_HOverTrackP_EndCap_hPt_1_10));
    map_of_MEs.insert(std::pair<std::string, MonitorElement*>(DirName + "/" + "HOverTrackP_EndCap_hPt_10_20",
                                                              m_HOverTrackP_EndCap_hPt_10_20));
    map_of_MEs.insert(std::pair<std::string, MonitorElement*>(DirName + "/" + "HOverTrackP_EndCap_hPt_20_50",
                                                              m_HOverTrackP_EndCap_hPt_20_50));
    map_of_MEs.insert(std::pair<std::string, MonitorElement*>(DirName + "/" + "HOverTrackP_EndCap_hPt_50",
                                                              m_HOverTrackP_EndCap_hPt_50));
  } else {  //MiniAOD workflow
    if (!occupancyPFCand_.empty())
      occupancyPFCand_.clear();
    if (!occupancyPFCand_name_.empty())
      occupancyPFCand_name_.clear();
    if (!occupancyPFCand_puppiNolepWeight_.empty())
      occupancyPFCand_puppiNolepWeight_.clear();
    if (!occupancyPFCand_name_puppiNolepWeight_.empty())
      occupancyPFCand_name_puppiNolepWeight_.clear();
    if (!etaMinPFCand_.empty())
      etaMinPFCand_.clear();
    if (!etaMaxPFCand_.empty())
      etaMaxPFCand_.clear();
    if (!typePFCand_.empty())
      typePFCand_.clear();
    if (!countsPFCand_.empty())
      countsPFCand_.clear();
    if (!ptPFCand_.empty())
      ptPFCand_.clear();
    if (!ptPFCand_name_.empty())
      ptPFCand_name_.clear();
    if (!ptPFCand_puppiNolepWeight_.empty())
      ptPFCand_puppiNolepWeight_.clear();
    if (!ptPFCand_name_puppiNolepWeight_.empty())
      ptPFCand_name_puppiNolepWeight_.clear();
    if (!multiplicityPFCand_.empty())
      multiplicityPFCand_.clear();
    if (!multiplicityPFCand_name_.empty())
      multiplicityPFCand_name_.clear();
    for (std::vector<edm::ParameterSet>::const_iterator v = diagnosticsParameters_.begin();
         v != diagnosticsParameters_.end();
         v++) {
      int etaNBinsPFCand = v->getParameter<int>("etaNBins");
      double etaMinPFCand = v->getParameter<double>("etaMin");
      double etaMaxPFCand = v->getParameter<double>("etaMax");
      int phiNBinsPFCand = v->getParameter<int>("phiNBins");
      double phiMinPFCand = v->getParameter<double>("phiMin");
      double phiMaxPFCand = v->getParameter<double>("phiMax");
      int nMinPFCand = v->getParameter<int>("nMin");
      int nMaxPFCand = v->getParameter<int>("nMax");
      int nbinsPFCand = v->getParameter<double>("nbins");

      // etaNBins_.push_back(etaNBins);
      etaMinPFCand_.push_back(etaMinPFCand);
      etaMaxPFCand_.push_back(etaMaxPFCand);
      typePFCand_.push_back(v->getParameter<int>("type"));
      countsPFCand_.push_back(0);

      multiplicityPFCand_.push_back(
          ibooker.book1D(std::string(v->getParameter<std::string>("name")).append("_multiplicity_").c_str(),
                         std::string(v->getParameter<std::string>("name")) + "multiplicity",
                         nbinsPFCand,
                         nMinPFCand,
                         nMaxPFCand));
      multiplicityPFCand_name_.push_back(std::string(v->getParameter<std::string>("name")).append("_multiplicity_"));
      map_of_MEs.insert(std::pair<std::string, MonitorElement*>(
          DirName + "/" + multiplicityPFCand_name_[multiplicityPFCand_name_.size() - 1],
          multiplicityPFCand_[multiplicityPFCand_.size() - 1]));
      //push back names first, we need to create histograms with the name and fill it for endcap plots later
      occupancyPFCand_name_.push_back(
          std::string(v->getParameter<std::string>("name")).append("_occupancy_puppiWeight_"));
      ptPFCand_name_.push_back(std::string(v->getParameter<std::string>("name")).append("_pt_puppiWeight_"));
      //push back names first, we need to create histograms with the name and fill it for endcap plots later
      occupancyPFCand_name_puppiNolepWeight_.push_back(
          std::string(v->getParameter<std::string>("name")).append("_occupancy_puppiNolepWeight_"));
      ptPFCand_name_puppiNolepWeight_.push_back(
          std::string(v->getParameter<std::string>("name")).append("_pt_puppiNolepWeight_"));
      //special booking for endcap plots, merge plots for eminus and eplus into one plot, using variable binning
      //barrel plots have eta-boundaries on minus and plus side
      //parameters start on minus side
      if (etaMinPFCand * etaMaxPFCand < 0) {  //barrel plots, plot only in barrel region
        occupancyPFCand_.push_back(
            ibooker.book2D(std::string(v->getParameter<std::string>("name")).append("_occupancy_puppiWeight_").c_str(),
                           std::string(v->getParameter<std::string>("name")) + "occupancy_puppiWeight_",
                           etaNBinsPFCand,
                           etaMinPFCand,
                           etaMaxPFCand,
                           phiNBinsPFCand,
                           phiMinPFCand,
                           phiMaxPFCand));
        ptPFCand_.push_back(
            ibooker.book2D(std::string(v->getParameter<std::string>("name")).append("_pt_puppiWeight_").c_str(),
                           std::string(v->getParameter<std::string>("name")) + "pt_puppiWeight_",
                           etaNBinsPFCand,
                           etaMinPFCand,
                           etaMaxPFCand,
                           phiNBinsPFCand,
                           phiMinPFCand,
                           phiMaxPFCand));
        occupancyPFCand_puppiNolepWeight_.push_back(ibooker.book2D(
            std::string(v->getParameter<std::string>("name")).append("_occupancy_puppiNolepWeight_").c_str(),
            std::string(v->getParameter<std::string>("name")) + "occupancy_puppiNolepWeight",
            etaNBinsPFCand,
            etaMinPFCand,
            etaMaxPFCand,
            phiNBinsPFCand,
            phiMinPFCand,
            phiMaxPFCand));
        ptPFCand_puppiNolepWeight_.push_back(
            ibooker.book2D(std::string(v->getParameter<std::string>("name")).append("_pt_puppiNolepWeight_").c_str(),
                           std::string(v->getParameter<std::string>("name")) + "pt_puppiNolepWeight",
                           etaNBinsPFCand,
                           etaMinPFCand,
                           etaMaxPFCand,
                           phiNBinsPFCand,
                           phiMinPFCand,
                           phiMaxPFCand));
      } else {  //endcap or forward plots,
        const int nbins_eta_endcap = 2 * (etaNBinsPFCand + 1);
        double eta_limits_endcap[nbins_eta_endcap];
        for (int i = 0; i < nbins_eta_endcap; i++) {
          if (i < (etaNBinsPFCand + 1)) {
            eta_limits_endcap[i] = etaMinPFCand + i * (etaMaxPFCand - etaMinPFCand) / (double)etaNBinsPFCand;
          } else {
            eta_limits_endcap[i] =
                -etaMaxPFCand + (i - (etaNBinsPFCand + 1)) * (etaMaxPFCand - etaMinPFCand) / (double)etaNBinsPFCand;
          }
        }
        TH2F* hist_temp_occup = new TH2F((occupancyPFCand_name_[occupancyPFCand_name_.size() - 1]).c_str(),
                                         (occupancyPFCand_name_[occupancyPFCand_name_.size() - 1]).c_str(),
                                         nbins_eta_endcap - 1,
                                         eta_limits_endcap,
                                         phiNBinsPFCand,
                                         phiMinPFCand,
                                         phiMaxPFCand);
        occupancyPFCand_.push_back(
            ibooker.book2D(occupancyPFCand_name_[occupancyPFCand_name_.size() - 1], hist_temp_occup));
        TH2F* hist_temp_pt = new TH2F((ptPFCand_name_[ptPFCand_name_.size() - 1]).c_str(),
                                      (ptPFCand_name_[ptPFCand_name_.size() - 1]).c_str(),
                                      nbins_eta_endcap - 1,
                                      eta_limits_endcap,
                                      phiNBinsPFCand,
                                      phiMinPFCand,
                                      phiMaxPFCand);
        ptPFCand_.push_back(ibooker.book2D(ptPFCand_name_[ptPFCand_name_.size() - 1], hist_temp_pt));
        TH2F* hist_temp_occup_puppiNolepWeight = new TH2F(
            (occupancyPFCand_name_puppiNolepWeight_[occupancyPFCand_name_puppiNolepWeight_.size() - 1]).c_str(),
            (occupancyPFCand_name_puppiNolepWeight_[occupancyPFCand_name_puppiNolepWeight_.size() - 1]).c_str(),
            nbins_eta_endcap - 1,
            eta_limits_endcap,
            phiNBinsPFCand,
            phiMinPFCand,
            phiMaxPFCand);
        occupancyPFCand_puppiNolepWeight_.push_back(
            ibooker.book2D(occupancyPFCand_name_puppiNolepWeight_[occupancyPFCand_name_puppiNolepWeight_.size() - 1],
                           hist_temp_occup_puppiNolepWeight));
        TH2F* hist_temp_pt_puppiNolepWeight =
            new TH2F((ptPFCand_name_puppiNolepWeight_[ptPFCand_name_puppiNolepWeight_.size() - 1]).c_str(),
                     (ptPFCand_name_puppiNolepWeight_[ptPFCand_name_puppiNolepWeight_.size() - 1]).c_str(),
                     nbins_eta_endcap - 1,
                     eta_limits_endcap,
                     phiNBinsPFCand,
                     phiMinPFCand,
                     phiMaxPFCand);
        ptPFCand_puppiNolepWeight_.push_back(
            ibooker.book2D(ptPFCand_name_puppiNolepWeight_[ptPFCand_name_puppiNolepWeight_.size() - 1],
                           hist_temp_pt_puppiNolepWeight));
      }
      map_of_MEs.insert(std::pair<std::string, MonitorElement*>(
          DirName + "/" + occupancyPFCand_name_puppiNolepWeight_[occupancyPFCand_name_puppiNolepWeight_.size() - 1],
          occupancyPFCand_puppiNolepWeight_[occupancyPFCand_puppiNolepWeight_.size() - 1]));
      map_of_MEs.insert(std::pair<std::string, MonitorElement*>(
          DirName + "/" + ptPFCand_name_puppiNolepWeight_[ptPFCand_name_puppiNolepWeight_.size() - 1],
          ptPFCand_puppiNolepWeight_[ptPFCand_puppiNolepWeight_.size() - 1]));
      map_of_MEs.insert(std::pair<std::string, MonitorElement*>(
          DirName + "/" + occupancyPFCand_name_[occupancyPFCand_name_.size() - 1],
          occupancyPFCand_[occupancyPFCand_.size() - 1]));
      map_of_MEs.insert(std::pair<std::string, MonitorElement*>(
          DirName + "/" + ptPFCand_name_[ptPFCand_name_.size() - 1], ptPFCand_[ptPFCand_.size() - 1]));
    }
  }
}

// ***********************************************************
void DQMPFCandidateAnalyzer::dqmBeginRun(const edm::Run& iRun, const edm::EventSetup& iSetup) {
  miniaodfilterindex = -1;

  if (isMiniAOD_) {
    bool changed_filter = true;
    if (FilterhltConfig_.init(iRun, iSetup, METFilterMiniAODLabel_.process(), changed_filter)) {
      miniaodfilterdec = 0;
      for (unsigned int i = 0; i < FilterhltConfig_.size(); i++) {
        std::string search = FilterhltConfig_.triggerName(i).substr(
            5);  //actual label of filter, the first 5 items are Flag_, so stripped off
        std::string search2 =
            HBHENoiseStringMiniAOD;  //all filters end with DQM, which is not in the flag --> ONLY not for HBHEFilters
        std::size_t found = search2.find(search);
        if (found != std::string::npos) {
          miniaodfilterindex = i;
        }
      }
    } else if (FilterhltConfig_.init(iRun, iSetup, METFilterMiniAODLabel2_.process(), changed_filter)) {
      miniaodfilterdec = 1;
      for (unsigned int i = 0; i < FilterhltConfig_.size(); i++) {
        std::string search = FilterhltConfig_.triggerName(i).substr(
            5);  //actual label of filter, the first 5 items are Flag_, so stripped off
        std::string search2 =
            HBHENoiseStringMiniAOD;  //all filters end with DQM, which is not in the flag --> ONLY not for HBHEFilters
        std::size_t found = search2.find(search);
        if (found != std::string::npos) {
          miniaodfilterindex = i;
        }
      }
    } else {
      edm::LogWarning("MiniAOD MET Filter HLT OBject version")
          << "nothing found with both RECO and reRECO label" << std::endl;
    }
  }
}

// ***********************************************************
void DQMPFCandidateAnalyzer::analyze(const edm::Event& iEvent, const edm::EventSetup& iSetup) {
  //Vertex information
  Handle<VertexCollection> vertexHandle;
  iEvent.getByToken(vertexToken_, vertexHandle);

  if (!vertexHandle.isValid()) {
    LogDebug("") << "CaloMETAnalyzer: Could not find vertex collection" << std::endl;
    if (verbose_)
      std::cout << "CaloMETAnalyzer: Could not find vertex collection" << std::endl;
  }
  numPV_ = 0;
  if (vertexHandle.isValid()) {
    VertexCollection vertexCollection = *(vertexHandle.product());
    numPV_ = vertexCollection.size();
  }
  bool bPrimaryVertex = (bypassAllPVChecks_ || (numPV_ > 0));

  int myLuminosityBlock;
  myLuminosityBlock = iEvent.luminosityBlock();

  if (myLuminosityBlock < LSBegin_)
    return;
  if (myLuminosityBlock > LSEnd_ && LSEnd_ > 0)
    return;

  if (verbose_)
    std::cout << "METAnalyzer analyze" << std::endl;

  std::string DirName = "JetMET/PFCandidates/" + mInputCollection_.label();

  bool hbhenoifilterdecision = true;
  if (!isMiniAOD_) {  //not checked for MiniAOD -> for miniaod decision filled as "triggerResults" bool
    edm::Handle<bool> HBHENoiseFilterResultHandle;
    iEvent.getByToken(hbheNoiseFilterResultToken_, HBHENoiseFilterResultHandle);
    if (!HBHENoiseFilterResultHandle.isValid()) {
      LogDebug("") << "METAnalyzer: Could not find HBHENoiseFilterResult" << std::endl;
      if (verbose_)
        std::cout << "METAnalyzer: Could not find HBHENoiseFilterResult" << std::endl;
    }
    hbhenoifilterdecision = *HBHENoiseFilterResultHandle;
  } else {  //need to check if we go for version 1 or version 2
    edm::Handle<edm::TriggerResults> metFilterResults;
    iEvent.getByToken(METFilterMiniAODToken_, metFilterResults);
    if (metFilterResults.isValid()) {
      if (miniaodfilterindex != -1) {
        hbhenoifilterdecision = metFilterResults->accept(miniaodfilterindex);
      }
    } else {
      iEvent.getByToken(METFilterMiniAODToken2_, metFilterResults);
      if (metFilterResults.isValid()) {
        if (miniaodfilterindex != -1) {
          hbhenoifilterdecision = metFilterResults->accept(miniaodfilterindex);
        }
      }
    }
  }

  //DCS Filter
  bool bDCSFilter = (bypassAllDCSChecks_ || DCSFilter_->filter(iEvent, iSetup));

  for (unsigned int i = 0; i < countsPFCand_.size(); i++) {
    countsPFCand_[i] = 0;
  }
  if (bDCSFilter && hbhenoifilterdecision && bPrimaryVertex) {
    if (isMiniAOD_) {
      edm::Handle<std::vector<pat::PackedCandidate> > packedParticleFlow;
      iEvent.getByToken(pflowPackedToken_, packedParticleFlow);
      //11, 13, 22 for el/mu/gamma, 211 chargedHadron, 130 neutralHadrons, 1 and 2 hadHF and EGammaHF
      for (unsigned int i = 0; i < packedParticleFlow->size(); i++) {
        const pat::PackedCandidate& c = packedParticleFlow->at(i);
        for (unsigned int j = 0; j < typePFCand_.size(); j++) {
          if (abs(c.pdgId()) == typePFCand_[j]) {
            //second check for endcap, if inside barrel Max and Min symmetric around 0
            if (((c.eta() > etaMinPFCand_[j]) && (c.eta() < etaMaxPFCand_[j])) ||
                ((c.eta() > (-etaMaxPFCand_[j])) && (c.eta() < (-etaMinPFCand_[j])))) {
              countsPFCand_[j] += 1;
              ptPFCand_[j] = map_of_MEs[DirName + "/" + ptPFCand_name_[j]];
              if (ptPFCand_[j] && ptPFCand_[j]->getRootObject())
                ptPFCand_[j]->Fill(c.eta(), c.phi(), c.pt() * c.puppiWeight());
              occupancyPFCand_[j] = map_of_MEs[DirName + "/" + occupancyPFCand_name_[j]];
              if (occupancyPFCand_[j] && occupancyPFCand_[j]->getRootObject())
                occupancyPFCand_[j]->Fill(c.eta(), c.phi(), c.puppiWeight());
              ptPFCand_puppiNolepWeight_[j] = map_of_MEs[DirName + "/" + ptPFCand_name_puppiNolepWeight_[j]];
              if (ptPFCand_puppiNolepWeight_[j] && ptPFCand_puppiNolepWeight_[j]->getRootObject())
                ptPFCand_puppiNolepWeight_[j]->Fill(c.eta(), c.phi(), c.pt() * c.puppiWeightNoLep());
              occupancyPFCand_puppiNolepWeight_[j] =
                  map_of_MEs[DirName + "/" + occupancyPFCand_name_puppiNolepWeight_[j]];
              if (occupancyPFCand_puppiNolepWeight_[j] && occupancyPFCand_puppiNolepWeight_[j]->getRootObject()) {
                occupancyPFCand_puppiNolepWeight_[j]->Fill(c.eta(), c.phi(), c.puppiWeightNoLep());
              }
            }
          }
        }
      }
      for (unsigned int j = 0; j < countsPFCand_.size(); j++) {
        multiplicityPFCand_[j] = map_of_MEs[DirName + "/" + multiplicityPFCand_name_[j]];
        if (multiplicityPFCand_[j] && multiplicityPFCand_[j]->getRootObject()) {
          multiplicityPFCand_[j]->Fill(countsPFCand_[j]);
        }
      }
    } else {
      edm::Handle<std::vector<reco::PFCandidate> > particleFlow;
      iEvent.getByToken(pflowToken_, particleFlow);
      for (unsigned int i = 0; i < particleFlow->size(); i++) {
        const reco::PFCandidate& c = particleFlow->at(i);
        for (unsigned int j = 0; j < typePFCandRECO_.size(); j++) {
          if (c.particleId() == typePFCandRECO_[j]) {
            //second check for endcap, if inside barrel Max and Min symmetric around 0
            if (((c.eta() > etaMinPFCandRECO_[j]) && (c.eta() < etaMaxPFCandRECO_[j])) ||
                ((c.eta() > (-etaMaxPFCandRECO_[j])) && (c.eta() < (-etaMinPFCandRECO_[j])))) {
              countsPFCandRECO_[j] += 1;
              ptPFCandRECO_[j] = map_of_MEs[DirName + "/" + ptPFCand_nameRECO_[j]];
              if (ptPFCandRECO_[j] && ptPFCandRECO_[j]->getRootObject())
                ptPFCandRECO_[j]->Fill(c.eta(), c.phi(), c.pt());
              occupancyPFCandRECO_[j] = map_of_MEs[DirName + "/" + occupancyPFCand_nameRECO_[j]];
              if (occupancyPFCandRECO_[j] && occupancyPFCandRECO_[j]->getRootObject())
                occupancyPFCandRECO_[j]->Fill(c.eta(), c.phi());
            }
            //fill quantities for isolated charged hadron quantities
            //only for charged hadrons
            if (c.particleId() == 1 && c.pt() > ptMinCand_) {
              // At least 1 GeV in HCAL
              double ecalRaw = c.rawEcalEnergy();
              double hcalRaw = c.rawHcalEnergy();
              if ((ecalRaw + hcalRaw) > hcalMin_) {
                const PFCandidate::ElementsInBlocks& theElements = c.elementsInBlocks();
                if (theElements.empty())
                  continue;
                unsigned int iTrack = -999;
                std::vector<unsigned int> iECAL;  // =999;
                std::vector<unsigned int> iHCAL;  // =999;
                const reco::PFBlockRef blockRef = theElements[0].first;
                const edm::OwnVector<reco::PFBlockElement>& elements = blockRef->elements();
                // Check that there is only one track in the block.
                unsigned int nTracks = 0;
                for (unsigned int iEle = 0; iEle < elements.size(); iEle++) {
                  // Find the tracks in the block
                  PFBlockElement::Type type = elements[iEle].type();
                  switch (type) {
                    case PFBlockElement::TRACK:
                      iTrack = iEle;
                      nTracks++;
                      break;
                    case PFBlockElement::ECAL:
                      iECAL.push_back(iEle);
                      break;
                    case PFBlockElement::HCAL:
                      iHCAL.push_back(iEle);
                      break;
                    default:
                      continue;
                  }
                }
                if (nTracks == 1) {
                  // Characteristics of the track
                  const reco::PFBlockElementTrack& et =
                      dynamic_cast<const reco::PFBlockElementTrack&>(elements[iTrack]);
                  mProfileIsoPFChHad_TrackOccupancy = map_of_MEs[DirName + "/" + "IsoPfChHad_Track_profile"];
                  if (mProfileIsoPFChHad_TrackOccupancy && mProfileIsoPFChHad_TrackOccupancy->getRootObject())
                    mProfileIsoPFChHad_TrackOccupancy->Fill(et.trackRef()->eta(), et.trackRef()->phi());
                  mProfileIsoPFChHad_TrackPt = map_of_MEs[DirName + "/" + "IsoPfChHad_TrackPt"];
                  if (mProfileIsoPFChHad_TrackPt && mProfileIsoPFChHad_TrackPt->getRootObject())
                    mProfileIsoPFChHad_TrackPt->Fill(et.trackRef()->eta(), et.trackRef()->phi(), et.trackRef()->pt());
                  if (c.rawEcalEnergy() == 0) {  //isolated hadron, nothing in ECAL
                    //right now take corrected hcalEnergy, do we want the rawHcalEnergy instead
                    m_HOverTrackP_trackPtVsEta = map_of_MEs[DirName + "/" + "HOverTrackP_trackPtVsEta"];
                    if (m_HOverTrackP_trackPtVsEta && m_HOverTrackP_trackPtVsEta->getRootObject())
                      m_HOverTrackP_trackPtVsEta->Fill(c.pt(), c.eta(), c.hcalEnergy() / et.trackRef()->p());
                    if (c.pt() > 1 && c.pt() < 10) {
                      m_HOverTrackPVsEta_hPt_1_10 = map_of_MEs[DirName + "/" + "HOverTrackPVsEta_hPt_1_10"];
                      if (m_HOverTrackPVsEta_hPt_1_10 && m_HOverTrackPVsEta_hPt_1_10->getRootObject())
                        m_HOverTrackPVsEta_hPt_1_10->Fill(c.eta(), c.hcalEnergy() / et.trackRef()->p());
                    } else if (c.pt() > 10 && c.pt() < 20) {
                      m_HOverTrackPVsEta_hPt_10_20 = map_of_MEs[DirName + "/" + "HOverTrackPVsEta_hPt_10_20"];
                      if (m_HOverTrackPVsEta_hPt_10_20 && m_HOverTrackPVsEta_hPt_10_20->getRootObject())
                        m_HOverTrackPVsEta_hPt_10_20->Fill(c.eta(), c.hcalEnergy() / et.trackRef()->p());
                    } else if (c.pt() > 20 && c.pt() < 50) {
                      m_HOverTrackPVsEta_hPt_20_50 = map_of_MEs[DirName + "/" + "HOverTrackPVsEta_hPt_20_50"];
                      if (m_HOverTrackPVsEta_hPt_20_50 && m_HOverTrackPVsEta_hPt_20_50->getRootObject())
                        m_HOverTrackPVsEta_hPt_20_50->Fill(c.eta(), c.hcalEnergy() / et.trackRef()->p());
                    } else if (c.pt() > 50) {
                      m_HOverTrackPVsEta_hPt_50 = map_of_MEs[DirName + "/" + "HOverTrackPVsEta_hPt_50"];
                      if (m_HOverTrackPVsEta_hPt_50 && m_HOverTrackPVsEta_hPt_50->getRootObject())
                        m_HOverTrackPVsEta_hPt_50->Fill(c.eta(), c.hcalEnergy() / et.trackRef()->p());
                    }
                    if (fabs(c.eta() < 1.392)) {
                      if (c.pt() > 1 && c.pt() < 10) {
                        m_HOverTrackP_Barrel_hPt_1_10 = map_of_MEs[DirName + "/" + "HOverTrackP_Barrel_hPt_1_10"];
                        if (m_HOverTrackP_Barrel_hPt_1_10 && m_HOverTrackP_Barrel_hPt_1_10->getRootObject())
                          m_HOverTrackP_Barrel_hPt_1_10->Fill(c.hcalEnergy() / et.trackRef()->p());
                      } else if (c.pt() > 10 && c.pt() < 20) {
                        m_HOverTrackP_Barrel_hPt_10_20 = map_of_MEs[DirName + "/" + "HOverTrackP_Barrel_hPt_10_20"];
                        if (m_HOverTrackP_Barrel_hPt_10_20 && m_HOverTrackP_Barrel_hPt_10_20->getRootObject())
                          m_HOverTrackP_Barrel_hPt_10_20->Fill(c.hcalEnergy() / et.trackRef()->p());
                      } else if (c.pt() > 20 && c.pt() < 50) {
                        m_HOverTrackP_Barrel_hPt_20_50 = map_of_MEs[DirName + "/" + "HOverTrackP_Barrel_hPt_20_50"];
                        if (m_HOverTrackP_Barrel_hPt_20_50 && m_HOverTrackP_Barrel_hPt_20_50->getRootObject())
                          m_HOverTrackP_Barrel_hPt_20_50->Fill(c.hcalEnergy() / et.trackRef()->p());
                      } else if (c.pt() > 50) {
                        m_HOverTrackP_Barrel_hPt_50 = map_of_MEs[DirName + "/" + "HOverTrackP_Barrel_hPt_50"];
                        if (m_HOverTrackP_Barrel_hPt_50 && m_HOverTrackP_Barrel_hPt_50->getRootObject())
                          m_HOverTrackP_Barrel_hPt_50->Fill(c.hcalEnergy() / et.trackRef()->p());
                      }
                      m_HOverTrackPVsTrackP_Barrel = map_of_MEs[DirName + "/" + "HOverTrackPVsTrackP_Barrel"];
                      if (m_HOverTrackPVsTrackP_Barrel && m_HOverTrackPVsTrackP_Barrel->getRootObject())
                        m_HOverTrackPVsTrackP_Barrel->Fill(et.trackRef()->p(), c.hcalEnergy() / et.trackRef()->p());
                      m_HOverTrackPVsTrackPt_Barrel = map_of_MEs[DirName + "/" + "HOverTrackPVsTrackPt_Barrel"];
                      if (m_HOverTrackPVsTrackPt_Barrel && m_HOverTrackPVsTrackPt_Barrel->getRootObject())
                        m_HOverTrackPVsTrackPt_Barrel->Fill(et.trackRef()->pt(), c.hcalEnergy() / et.trackRef()->p());
                    } else {
                      m_HOverTrackPVsTrackP_EndCap = map_of_MEs[DirName + "/" + "HOverTrackPVsTrackP_EndCap"];
                      if (m_HOverTrackPVsTrackP_EndCap && m_HOverTrackPVsTrackP_EndCap->getRootObject())
                        m_HOverTrackPVsTrackP_EndCap->Fill(et.trackRef()->p(), c.hcalEnergy() / et.trackRef()->p());
                      m_HOverTrackPVsTrackPt_EndCap = map_of_MEs[DirName + "/" + "HOverTrackPVsTrackPt_EndCap"];
                      if (m_HOverTrackPVsTrackPt_EndCap && m_HOverTrackPVsTrackPt_EndCap->getRootObject())
                        m_HOverTrackPVsTrackPt_EndCap->Fill(et.trackRef()->pt(), c.hcalEnergy() / et.trackRef()->p());
                      if (c.pt() > 1 && c.pt() < 10) {
                        m_HOverTrackP_EndCap_hPt_1_10 = map_of_MEs[DirName + "/" + "HOverTrackP_EndCap_hPt_1_10"];
                        if (m_HOverTrackP_EndCap_hPt_1_10 && m_HOverTrackP_EndCap_hPt_1_10->getRootObject())
                          m_HOverTrackP_EndCap_hPt_1_10->Fill(c.hcalEnergy() / et.trackRef()->p());
                      } else if (c.pt() > 10 && c.pt() < 20) {
                        m_HOverTrackP_EndCap_hPt_10_20 = map_of_MEs[DirName + "/" + "HOverTrackP_EndCap_hPt_10_20"];
                        if (m_HOverTrackP_EndCap_hPt_10_20 && m_HOverTrackP_EndCap_hPt_10_20->getRootObject())
                          m_HOverTrackP_EndCap_hPt_10_20->Fill(c.hcalEnergy() / et.trackRef()->p());
                      } else if (c.pt() > 20 && c.pt() < 50) {
                        m_HOverTrackP_EndCap_hPt_20_50 = map_of_MEs[DirName + "/" + "HOverTrackP_EndCap_hPt_20_50"];
                        if (m_HOverTrackP_EndCap_hPt_20_50 && m_HOverTrackP_EndCap_hPt_20_50->getRootObject())
                          m_HOverTrackP_EndCap_hPt_20_50->Fill(c.hcalEnergy() / et.trackRef()->p());
                      } else if (c.pt() > 50) {
                        m_HOverTrackP_EndCap_hPt_50 = map_of_MEs[DirName + "/" + "HOverTrackP_EndCap_hPt_50"];
                        if (m_HOverTrackP_EndCap_hPt_50 && m_HOverTrackP_EndCap_hPt_50->getRootObject())
                          m_HOverTrackP_EndCap_hPt_50->Fill(c.hcalEnergy() / et.trackRef()->p());
                      }
                    }
                  }
                  //ECAL element
                  for (unsigned int ii = 0; ii < iECAL.size(); ii++) {
                    const reco::PFBlockElementCluster& eecal =
                        dynamic_cast<const reco::PFBlockElementCluster&>(elements[iECAL[ii]]);
                    if (fabs(eecal.clusterRef()->eta()) < 1.479) {
                      mProfileIsoPFChHad_EcalOccupancyCentral =
                          map_of_MEs[DirName + "/" + "IsoPfChHad_ECAL_profile_central"];
                      if (mProfileIsoPFChHad_EcalOccupancyCentral &&
                          mProfileIsoPFChHad_EcalOccupancyCentral->getRootObject())
                        mProfileIsoPFChHad_EcalOccupancyCentral->Fill(eecal.clusterRef()->eta(),
                                                                      eecal.clusterRef()->phi());
                      mProfileIsoPFChHad_EMPtCentral = map_of_MEs[DirName + "/" + "IsoPfChHad_EMPt_central"];
                      if (mProfileIsoPFChHad_EMPtCentral && mProfileIsoPFChHad_EMPtCentral->getRootObject())
                        mProfileIsoPFChHad_EMPtCentral->Fill(
                            eecal.clusterRef()->eta(), eecal.clusterRef()->phi(), eecal.clusterRef()->pt());
                    } else {
                      mProfileIsoPFChHad_EcalOccupancyEndcap =
                          map_of_MEs[DirName + "/" + "IsoPfChHad_ECAL_profile_endcap"];
                      if (mProfileIsoPFChHad_EcalOccupancyEndcap &&
                          mProfileIsoPFChHad_EcalOccupancyEndcap->getRootObject())
                        mProfileIsoPFChHad_EcalOccupancyEndcap->Fill(eecal.clusterRef()->eta(),
                                                                     eecal.clusterRef()->phi());
                      mProfileIsoPFChHad_EMPtEndcap = map_of_MEs[DirName + "/" + "IsoPfChHad_EMPt_endcap"];
                      if (mProfileIsoPFChHad_EMPtEndcap && mProfileIsoPFChHad_EMPtEndcap->getRootObject())
                        mProfileIsoPFChHad_EMPtEndcap->Fill(
                            eecal.clusterRef()->eta(), eecal.clusterRef()->phi(), eecal.clusterRef()->pt());
                    }
                  }
                  //HCAL element
                  for (unsigned int ii = 0; ii < iHCAL.size(); ii++) {
                    const reco::PFBlockElementCluster& ehcal =
                        dynamic_cast<const reco::PFBlockElementCluster&>(elements[iHCAL[ii]]);
                    if (fabs(ehcal.clusterRef()->eta()) < 1.740) {
                      mProfileIsoPFChHad_HcalOccupancyCentral =
                          map_of_MEs[DirName + "/" + "IsoPfChHad_HCAL_profile_central"];
                      if (mProfileIsoPFChHad_HcalOccupancyCentral &&
                          mProfileIsoPFChHad_HcalOccupancyCentral->getRootObject())
                        mProfileIsoPFChHad_HcalOccupancyCentral->Fill(ehcal.clusterRef()->eta(),
                                                                      ehcal.clusterRef()->phi());
                      mProfileIsoPFChHad_HadPtCentral = map_of_MEs[DirName + "/" + "IsoPfChHad_HadPt_central"];
                      if (mProfileIsoPFChHad_HadPtCentral && mProfileIsoPFChHad_HadPtCentral->getRootObject())
                        mProfileIsoPFChHad_HadPtCentral->Fill(
                            ehcal.clusterRef()->eta(), ehcal.clusterRef()->phi(), ehcal.clusterRef()->pt());
                    } else {
                      mProfileIsoPFChHad_HcalOccupancyEndcap =
                          map_of_MEs[DirName + "/" + "IsoPfChHad_HCAL_profile_endcap"];
                      if (mProfileIsoPFChHad_HcalOccupancyEndcap &&
                          mProfileIsoPFChHad_HcalOccupancyEndcap->getRootObject())
                        mProfileIsoPFChHad_HcalOccupancyEndcap->Fill(ehcal.clusterRef()->eta(),
                                                                     ehcal.clusterRef()->phi());
                      mProfileIsoPFChHad_HadPtEndcap = map_of_MEs[DirName + "/" + "IsoPfChHad_HadPt_endcap"];
                      if (mProfileIsoPFChHad_HadPtEndcap && mProfileIsoPFChHad_HadPtEndcap->getRootObject())
                        mProfileIsoPFChHad_HadPtEndcap->Fill(
                            ehcal.clusterRef()->eta(), ehcal.clusterRef()->phi(), ehcal.clusterRef()->pt());
                    }
                  }
                }
              }
            }
          }
        }
      }
      for (unsigned int j = 0; j < countsPFCandRECO_.size(); j++) {
        multiplicityPFCandRECO_[j] = map_of_MEs[DirName + "/" + multiplicityPFCand_nameRECO_[j]];
        if (multiplicityPFCandRECO_[j] && multiplicityPFCandRECO_[j]->getRootObject()) {
          multiplicityPFCandRECO_[j]->Fill(countsPFCandRECO_[j]);
        }
      }
    }  //candidate loop for both miniaod and reco
  }
}