HcalRecHitsAnalyzer.cc

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#include "DQMOffline/Hcal/interface/HcalRecHitsAnalyzer.h"
#include "DataFormats/HcalDetId/interface/HcalSubdetector.h"

#include "FWCore/Utilities/interface/ESInputTag.h"
#include "FWCore/Utilities/interface/Transition.h"

HcalRecHitsAnalyzer::HcalRecHitsAnalyzer(edm::ParameterSet const &conf)
    : topFolderName_(conf.getParameter<std::string>("TopFolderName")),
      hcalDDDRecConstantsToken_{esConsumes<HcalDDDRecConstants, HcalRecNumberingRecord, edm::Transition::BeginRun>()},
      caloGeometryRunToken_{esConsumes<CaloGeometry, CaloGeometryRecord, edm::Transition::BeginRun>()},
      caloGeometryEventToken_{esConsumes<CaloGeometry, CaloGeometryRecord>()},
      hcalTopologyToken_{esConsumes<HcalTopology, HcalRecNumberingRecord>()},
      hcalChannelQualityToken_{esConsumes<HcalChannelQuality, HcalChannelQualityRcd>(edm::ESInputTag("", "withTopo"))},
      hcalSeverityLevelComputerToken_{esConsumes<HcalSeverityLevelComputer, HcalSeverityLevelComputerRcd>()} {
  // DQM ROOT output
  outputFile_ = conf.getUntrackedParameter<std::string>("outputFile", "myfile.root");

  if (!outputFile_.empty()) {
    edm::LogInfo("OutputInfo") << " Hcal RecHit Task histograms will be saved to '" << outputFile_.c_str() << "'";
  } else {
    edm::LogInfo("OutputInfo") << " Hcal RecHit Task histograms will NOT be saved";
  }

  nevtot = 0;

  hcalselector_ = conf.getUntrackedParameter<std::string>("hcalselector", "all");
  ecalselector_ = conf.getUntrackedParameter<std::string>("ecalselector", "yes");
  eventype_ = conf.getUntrackedParameter<std::string>("eventype", "single");
  sign_ = conf.getUntrackedParameter<std::string>("sign", "*");
  // useAllHistos_ = conf.getUntrackedParameter<bool>("useAllHistos", false);

  // HEP17 configuration
  hep17_ = conf.getUntrackedParameter<bool>("hep17");

  // Collections
  tok_hbhe_ = consumes<HBHERecHitCollection>(conf.getUntrackedParameter<edm::InputTag>("HBHERecHitCollectionLabel"));
  tok_hf_ = consumes<HFRecHitCollection>(conf.getUntrackedParameter<edm::InputTag>("HFRecHitCollectionLabel"));
  tok_ho_ = consumes<HORecHitCollection>(conf.getUntrackedParameter<edm::InputTag>("HORecHitCollectionLabel"));
  edm::InputTag EBRecHitCollectionLabel = conf.getParameter<edm::InputTag>("EBRecHitCollectionLabel");
  tok_EB_ = consumes<EBRecHitCollection>(EBRecHitCollectionLabel);
  edm::InputTag EERecHitCollectionLabel = conf.getParameter<edm::InputTag>("EERecHitCollectionLabel");
  tok_EE_ = consumes<EERecHitCollection>(EERecHitCollectionLabel);

  subdet_ = 5;
  if (hcalselector_ == "noise")
    subdet_ = 0;
  if (hcalselector_ == "HB")
    subdet_ = 1;
  if (hcalselector_ == "HE")
    subdet_ = 2;
  if (hcalselector_ == "HO")
    subdet_ = 3;
  if (hcalselector_ == "HF")
    subdet_ = 4;
  if (hcalselector_ == "all")
    subdet_ = 5;
  if (hcalselector_ == "ZS")
    subdet_ = 6;

  etype_ = 1;
  if (eventype_ == "multi")
    etype_ = 2;

  iz = 1;
  if (sign_ == "-")
    iz = -1;
  if (sign_ == "*")
    iz = 0;

  imc = 0;
}

void HcalRecHitsAnalyzer::dqmBeginRun(const edm::Run &run, const edm::EventSetup &iSetup) {
  HcalDDDRecConstants const &hcons = iSetup.getData(hcalDDDRecConstantsToken_);
  maxDepthHB_ = hcons.getMaxDepth(0);
  maxDepthHE_ = hcons.getMaxDepth(1);
  maxDepthHF_ = std::max(hcons.getMaxDepth(2), 1);
  maxDepthHO_ = hcons.getMaxDepth(3);

  CaloGeometry const &geo = iSetup.getData(caloGeometryRunToken_);

  const HcalGeometry *gHB = static_cast<const HcalGeometry *>(geo.getSubdetectorGeometry(DetId::Hcal, HcalBarrel));
  const HcalGeometry *gHE = static_cast<const HcalGeometry *>(geo.getSubdetectorGeometry(DetId::Hcal, HcalEndcap));
  const HcalGeometry *gHO = static_cast<const HcalGeometry *>(geo.getSubdetectorGeometry(DetId::Hcal, HcalOuter));
  const HcalGeometry *gHF = static_cast<const HcalGeometry *>(geo.getSubdetectorGeometry(DetId::Hcal, HcalForward));

  nChannels_[1] = gHB->getHxSize(1);
  nChannels_[2] = std::max(int(gHE->getHxSize(2)), 1);
  nChannels_[3] = gHO->getHxSize(3);
  nChannels_[4] = gHF->getHxSize(4);

  nChannels_[0] = nChannels_[1] + nChannels_[2] + nChannels_[3] + nChannels_[4];

  // std::cout << "Channels HB:" << nChannels_[1] << " HE:" << nChannels_[2] <<
  // " HO:" << nChannels_[3] << " HF:" << nChannels_[4] << std::endl;

  // We hardcode the HF depths because in the dual readout configuration,
  // rechits are not defined for depths 3&4
  maxDepthHF_ = (maxDepthHF_ > 2 ? 2 : maxDepthHF_);  // We retain the dynamic possibility
                                                      // that HF might have 0 or 1 depths

  maxDepthAll_ = (maxDepthHB_ + maxDepthHO_ > maxDepthHE_ ? maxDepthHB_ + maxDepthHO_ : maxDepthHE_);
  maxDepthAll_ = (maxDepthAll_ > maxDepthHF_ ? maxDepthAll_ : maxDepthHF_);

  // Get Phi segmentation from geometry, use the max phi number so that all iphi
  // values are included.

  int NphiMax = hcons.getNPhi(0);

  NphiMax = (hcons.getNPhi(1) > NphiMax ? hcons.getNPhi(1) : NphiMax);
  NphiMax = (hcons.getNPhi(2) > NphiMax ? hcons.getNPhi(2) : NphiMax);
  NphiMax = (hcons.getNPhi(3) > NphiMax ? hcons.getNPhi(3) : NphiMax);

  // Center the iphi bins on the integers
  iphi_min_ = 0.5;
  iphi_max_ = NphiMax + 0.5;
  iphi_bins_ = (int)(iphi_max_ - iphi_min_);

  // Retain classic behavior, all plots have same ieta range.

  int iEtaMax = (hcons.getEtaRange(0).second > hcons.getEtaRange(1).second ? hcons.getEtaRange(0).second
                                                                           : hcons.getEtaRange(1).second);
  iEtaMax = (iEtaMax > hcons.getEtaRange(2).second ? iEtaMax : hcons.getEtaRange(2).second);
  iEtaMax = (iEtaMax > hcons.getEtaRange(3).second ? iEtaMax : hcons.getEtaRange(3).second);

  // Give an empty bin around the subdet ieta range to make it clear that all
  // ieta rings have been included
  ieta_min_ = -iEtaMax - 1.5;
  ieta_max_ = iEtaMax + 1.5;
  ieta_bins_ = (int)(ieta_max_ - ieta_min_);
}

void HcalRecHitsAnalyzer::bookHistograms(DQMStore::IBooker &ibooker,
                                         edm::Run const & /* iRun*/,
                                         edm::EventSetup const &)

{
  Char_t histo[200];

  ibooker.setCurrentFolder(topFolderName_);

  // General counters (drawn)

  // Produce both a total per subdetector, and number of rechits per subdetector
  // depth
  // The bins are 1 unit wide, and the range is determined by the number of
  // channels per subdetector

  for (int depth = 0; depth <= maxDepthHB_; depth++) {
    if (depth == 0) {
      sprintf(histo, "N_HB");
    } else {
      sprintf(histo, "N_HB_depth%d", depth);
    }
    int NBins = (int)(nChannels_[1] * 1.1);
    Nhb.push_back(ibooker.book1D(histo, histo, NBins, 0., (float)NBins));
  }
  for (int depth = 0; depth <= maxDepthHE_; depth++) {
    if (depth == 0) {
      sprintf(histo, "N_HE");
    } else {
      sprintf(histo, "N_HE_depth%d", depth);
    }
    int NBins = (int)(nChannels_[2] * 1.1);
    Nhe.push_back(ibooker.book1D(histo, histo, NBins, 0., (float)NBins));
  }
  for (int depth = 0; depth <= maxDepthHO_; depth++) {
    if (depth == 0) {
      sprintf(histo, "N_HO");
    } else {
      sprintf(histo, "N_HO_depth%d", depth);
    }
    int NBins = (int)(nChannels_[3] * 1.1);
    Nho.push_back(ibooker.book1D(histo, histo, NBins, 0., (float)NBins));
  }
  for (int depth = 0; depth <= maxDepthHF_; depth++) {
    if (depth == 0) {
      sprintf(histo, "N_HF");
    } else {
      sprintf(histo, "N_HF_depth%d", depth);
    }
    int NBins = (int)(nChannels_[4] * 1.1);
    Nhf.push_back(ibooker.book1D(histo, histo, NBins, 0., (float)NBins));
  }

  // ZS
  if (subdet_ == 6) {
  }

  // ALL others, except ZS
  else {
    for (int depth = 1; depth <= maxDepthAll_; depth++) {
      sprintf(histo, "emap_depth%d", depth);
      emap.push_back(ibooker.book2D(histo, histo, ieta_bins_, ieta_min_, ieta_max_, iphi_bins_, iphi_min_, iphi_max_));
    }
    sprintf(histo, "emap_HO");
    emap_HO = ibooker.book2D(histo, histo, ieta_bins_, ieta_min_, ieta_max_, iphi_bins_, iphi_min_, iphi_max_);

    // The mean energy histos are drawn, but not the RMS or emean seq

    for (int depth = 1; depth <= maxDepthHB_; depth++) {
      sprintf(histo, "emean_vs_ieta_HB%d", depth);
      emean_vs_ieta_HB.push_back(ibooker.bookProfile(histo, histo, ieta_bins_, ieta_min_, ieta_max_, -10., 2000., " "));

      sprintf(histo, "emean_vs_ieta_M0_HB%d", depth);
      emean_vs_ieta_HBM0.push_back(
          ibooker.bookProfile(histo, histo, ieta_bins_, ieta_min_, ieta_max_, -10., 2000., " "));

      sprintf(histo, "emean_vs_ieta_M3_HB%d", depth);
      emean_vs_ieta_HBM3.push_back(
          ibooker.bookProfile(histo, histo, ieta_bins_, ieta_min_, ieta_max_, -10., 2000., " "));
    }
    for (int depth = 1; depth <= maxDepthHE_; depth++) {
      sprintf(histo, "emean_vs_ieta_HE%d", depth);
      emean_vs_ieta_HE.push_back(ibooker.bookProfile(histo, histo, ieta_bins_, ieta_min_, ieta_max_, -10., 2000., " "));

      sprintf(histo, "emean_vs_ieta_M0_HE%d", depth);
      emean_vs_ieta_HEM0.push_back(
          ibooker.bookProfile(histo, histo, ieta_bins_, ieta_min_, ieta_max_, -10., 2000., " "));

      sprintf(histo, "emean_vs_ieta_M3_HE%d", depth);
      emean_vs_ieta_HEM3.push_back(
          ibooker.bookProfile(histo, histo, ieta_bins_, ieta_min_, ieta_max_, -10., 2000., " "));
    }

    if (hep17_) {
      for (int depth = 1; depth <= maxDepthHE_; depth++) {
        sprintf(histo, "emean_vs_ieta_HEP17_depth%d", depth);
        emean_vs_ieta_HEP17.push_back(
            ibooker.bookProfile(histo, histo, ieta_bins_, ieta_min_, ieta_max_, -10., 2000., " "));

        sprintf(histo, "emean_vs_ieta_M0_HEP17_depth%d", depth);
        emean_vs_ieta_HEP17M0.push_back(
            ibooker.bookProfile(histo, histo, ieta_bins_, ieta_min_, ieta_max_, -10., 2000., " "));

        sprintf(histo, "emean_vs_ieta_M3_HEP17_depth%d", depth);
        emean_vs_ieta_HEP17M3.push_back(
            ibooker.bookProfile(histo, histo, ieta_bins_, ieta_min_, ieta_max_, -10., 2000., " "));
      }
    }

    for (int depth = 1; depth <= maxDepthHF_; depth++) {
      sprintf(histo, "emean_vs_ieta_HF%d", depth);
      emean_vs_ieta_HF.push_back(ibooker.bookProfile(histo, histo, ieta_bins_, ieta_min_, ieta_max_, -10., 2000., " "));
    }
    sprintf(histo, "emean_vs_ieta_HO");
    emean_vs_ieta_HO = ibooker.bookProfile(histo, histo, ieta_bins_, ieta_min_, ieta_max_, -10., 2000., " ");

    // The only occupancy histos drawn are occupancy vs. ieta
    // but the maps are needed because this is where the latter are filled from

    for (int depth = 1; depth <= maxDepthHB_; depth++) {
      sprintf(histo, "occupancy_map_HB%d", depth);
      occupancy_map_HB.push_back(
          ibooker.book2D(histo, histo, ieta_bins_, ieta_min_, ieta_max_, iphi_bins_, iphi_min_, iphi_max_));
    }

    for (int depth = 1; depth <= maxDepthHE_; depth++) {
      sprintf(histo, "occupancy_map_HE%d", depth);
      occupancy_map_HE.push_back(
          ibooker.book2D(histo, histo, ieta_bins_, ieta_min_, ieta_max_, iphi_bins_, iphi_min_, iphi_max_));
    }

    sprintf(histo, "occupancy_map_HO");
    occupancy_map_HO = ibooker.book2D(histo, histo, ieta_bins_, ieta_min_, ieta_max_, iphi_bins_, iphi_min_, iphi_max_);

    for (int depth = 1; depth <= maxDepthHF_; depth++) {
      sprintf(histo, "occupancy_map_HF%d", depth);
      occupancy_map_HF.push_back(
          ibooker.book2D(histo, histo, ieta_bins_, ieta_min_, ieta_max_, iphi_bins_, iphi_min_, iphi_max_));
    }

    // nrechits vs iphi
    for (int depth = 1; depth <= maxDepthHB_; depth++) {
      sprintf(histo, "occupancy_vs_ieta_HB%d", depth);
      occupancy_vs_ieta_HB.push_back(ibooker.book1D(histo, histo, ieta_bins_, ieta_min_, ieta_max_));
      sprintf(histo, "nrechits_vs_iphi_HBP_d%d", depth);
      nrechits_vs_iphi_HBP.push_back(ibooker.book1D(histo, histo, iphi_bins_, iphi_min_, iphi_max_));
      sprintf(histo, "nrechits_vs_iphi_HBM_d%d", depth);
      nrechits_vs_iphi_HBM.push_back(ibooker.book1D(histo, histo, iphi_bins_, iphi_min_, iphi_max_));
    }

    for (int depth = 1; depth <= maxDepthHE_; depth++) {
      sprintf(histo, "occupancy_vs_ieta_HE%d", depth);
      occupancy_vs_ieta_HE.push_back(ibooker.book1D(histo, histo, ieta_bins_, ieta_min_, ieta_max_));
      sprintf(histo, "nrechits_vs_iphi_HEP_d%d", depth);
      nrechits_vs_iphi_HEP.push_back(ibooker.book1D(histo, histo, iphi_bins_, iphi_min_, iphi_max_));
      sprintf(histo, "nrechits_vs_iphi_HEM_d%d", depth);
      nrechits_vs_iphi_HEM.push_back(ibooker.book1D(histo, histo, iphi_bins_, iphi_min_, iphi_max_));
    }

    sprintf(histo, "occupancy_vs_ieta_HO");
    occupancy_vs_ieta_HO = ibooker.book1D(histo, histo, ieta_bins_, ieta_min_, ieta_max_);
    sprintf(histo, "nrechits_vs_iphi_HOP");
    nrechits_vs_iphi_HOP = ibooker.book1D(histo, histo, iphi_bins_, iphi_min_, iphi_max_);
    sprintf(histo, "nrechits_vs_iphi_HOM");
    nrechits_vs_iphi_HOM = ibooker.book1D(histo, histo, iphi_bins_, iphi_min_, iphi_max_);

    for (int depth = 1; depth <= maxDepthHF_; depth++) {
      sprintf(histo, "occupancy_vs_ieta_HF%d", depth);
      occupancy_vs_ieta_HF.push_back(ibooker.book1D(histo, histo, ieta_bins_, ieta_min_, ieta_max_));
      sprintf(histo, "nrechits_vs_iphi_HFP_d%d", depth);
      nrechits_vs_iphi_HFP.push_back(ibooker.book1D(histo, histo, iphi_bins_, iphi_min_, iphi_max_));
      sprintf(histo, "nrechits_vs_iphi_HFM_d%d", depth);
      nrechits_vs_iphi_HFM.push_back(ibooker.book1D(histo, histo, iphi_bins_, iphi_min_, iphi_max_));
    }

    // All status word histos except HF67 are drawn
    sprintf(histo, "HcalRecHitTask_RecHit_StatusWord_HB");
    RecHit_StatusWord_HB = ibooker.book1DD(histo, histo, 32, -0.5, 31.5);

    sprintf(histo, "HcalRecHitTask_RecHit_StatusWord_HE");
    RecHit_StatusWord_HE = ibooker.book1DD(histo, histo, 32, -0.5, 31.5);

    sprintf(histo, "HcalRecHitTask_RecHit_StatusWord_HF");
    RecHit_StatusWord_HF = ibooker.book1DD(histo, histo, 32, -0.5, 31.5);

    sprintf(histo, "HcalRecHitTask_RecHit_StatusWord_HO");
    RecHit_StatusWord_HO = ibooker.book1DD(histo, histo, 32, -0.5, 31.5);

    // Aux status word histos
    sprintf(histo, "HcalRecHitTask_RecHit_Aux_StatusWord_HB");
    RecHit_Aux_StatusWord_HB = ibooker.book1DD(histo, histo, 32, -0.5, 31.5);

    sprintf(histo, "HcalRecHitTask_RecHit_Aux_StatusWord_HE");
    RecHit_Aux_StatusWord_HE = ibooker.book1DD(histo, histo, 32, -0.5, 31.5);

    sprintf(histo, "HcalRecHitTask_RecHit_Aux_StatusWord_HF");
    RecHit_Aux_StatusWord_HF = ibooker.book1DD(histo, histo, 32, -0.5, 31.5);

    sprintf(histo, "HcalRecHitTask_RecHit_Aux_StatusWord_HO");
    RecHit_Aux_StatusWord_HO = ibooker.book1DD(histo, histo, 32, -0.5, 31.5);

  }  // end-of (subdet_ =! 6)

  // Status word correlations
  sprintf(histo, "HcalRecHitTask_RecHit_StatusWordCorr_HB");
  RecHit_StatusWordCorr_HB = ibooker.book2D(histo, histo, 2, -0.5, 1.5, 2, -0.5, 1.5);

  sprintf(histo, "HcalRecHitTask_RecHit_StatusWordCorr_HE");
  RecHit_StatusWordCorr_HE = ibooker.book2D(histo, histo, 2, -0.5, 1.5, 2, -0.5, 1.5);

  //======================= Now various cases one by one ===================

  // Histograms drawn for single pion scan
  if (subdet_ != 0 && imc != 0) {  // just not for noise
    sprintf(histo, "HcalRecHitTask_En_rechits_cone_profile_vs_ieta_all_depths");
    meEnConeEtaProfile = ibooker.bookProfile(histo, histo, ieta_bins_, ieta_min_, ieta_max_, -100., 2000., " ");

    sprintf(histo, "HcalRecHitTask_En_rechits_cone_profile_vs_ieta_all_depths_E");
    meEnConeEtaProfile_E = ibooker.bookProfile(histo, histo, ieta_bins_, ieta_min_, ieta_max_, -100., 2000., " ");

    sprintf(histo, "HcalRecHitTask_En_rechits_cone_profile_vs_ieta_all_depths_EH");
    meEnConeEtaProfile_EH = ibooker.bookProfile(histo, histo, ieta_bins_, ieta_min_, ieta_max_, -100., 2000., " ");
  }

  // ************** HB **********************************
  if (subdet_ == 1 || subdet_ == 5) {
    // Only severity level, energy of rechits and overall HB timing histos are
    // drawn

    sprintf(histo, "HcalRecHitTask_severityLevel_HB");
    sevLvl_HB = ibooker.book1DD(histo, histo, 25, -0.5, 24.5);

    sprintf(histo, "HcalRecHitTask_energy_of_rechits_HB");
    meRecHitsEnergyHB = ibooker.book1DD(histo, histo, 2010, -10., 2000.);

    sprintf(histo, "HcalRecHitTask_cleaned_energy_of_rechits_HB");
    meRecHitsCleanedEnergyHB = ibooker.book1DD(histo, histo, 2010, -10., 2000.);

    sprintf(histo, "HcalRecHitTask_energy_of_rechits_M0_HB");
    meRecHitsEnergyHBM0 = ibooker.book1DD(histo, histo, 2010, -10., 2000.);

    sprintf(histo, "HcalRecHitTask_energy_of_rechits_M3_HB");
    meRecHitsEnergyHBM3 = ibooker.book1DD(histo, histo, 2010, -10., 2000.);

    sprintf(histo, "HcalRecHitTask_energy_of_rechits_M2vM0_HB");
    meRecHitsEnergyM2vM0HB = ibooker.book2D(histo, histo, 42, -10., 200., 42, -10., 200.);

    sprintf(histo, "HcalRecHitTask_energy_of_rechits_M3vM0_HB");
    meRecHitsEnergyM3vM0HB = ibooker.book2D(histo, histo, 42, -10., 200., 42, -10., 200.);

    sprintf(histo, "HcalRecHitTask_energy_of_rechits_M3vM2_HB");
    meRecHitsEnergyM3vM2HB = ibooker.book2D(histo, histo, 42, -10., 200., 42, -10., 200.);

    sprintf(histo, "HcalRecHitTask_M2Log10Chi2_of_rechits_HB");
    meRecHitsM2Chi2HB = ibooker.book1D(histo, histo, 120, -2., 10.);

    sprintf(histo, "HcalRecHitTask_timing_HB");
    meTimeHB = ibooker.book1DD(histo, histo, 70, -48., 92.);

    // High, medium and low histograms to reduce RAM usage
    sprintf(histo, "HcalRecHitTask_timing_vs_energy_Low_HB");
    meTE_Low_HB = ibooker.book2D(histo, histo, 50, -5., 45., 70, -48., 92.);

    sprintf(histo, "HcalRecHitTask_timing_vs_energy_HB");
    meTE_HB = ibooker.book2D(histo, histo, 150, -5., 295., 70, -48., 92.);

    sprintf(histo, "HcalRecHitTask_timing_vs_energy_High_HB");
    meTE_High_HB = ibooker.book2D(histo, histo, 150, -5., 2995., 70, -48., 92.);

    sprintf(histo, "HcalRecHitTask_timing_vs_energy_profile_Low_HB");
    meTEprofileHB_Low = ibooker.bookProfile(histo, histo, 50, -5., 45., -48., 92., " ");

    sprintf(histo, "HcalRecHitTask_timing_vs_energy_profile_HB");
    meTEprofileHB = ibooker.bookProfile(histo, histo, 150, -5., 295., -48., 92., " ");

    sprintf(histo, "HcalRecHitTask_Log10Chi2_vs_energy_profile_HB");
    meLog10Chi2profileHB = ibooker.bookProfile(histo, histo, 150, -5., 295., -2., 9.9, " ");

    sprintf(histo, "HcalRecHitTask_timing_vs_energy_profile_High_HB");
    meTEprofileHB_High = ibooker.bookProfile(histo, histo, 150, -5., 2995., -48., 92., " ");
  }

  // ********************** HE ************************************
  if (subdet_ == 2 || subdet_ == 5) {
    // Only severity level, energy of rechits and overall HB timing histos are
    // drawn
    sprintf(histo, "HcalRecHitTask_severityLevel_HE");
    sevLvl_HE = ibooker.book1DD(histo, histo, 25, -0.5, 24.5);

    sprintf(histo, "HcalRecHitTask_energy_of_rechits_HE");
    meRecHitsEnergyHE = ibooker.book1DD(histo, histo, 2010, -10., 2000.);

    sprintf(histo, "HcalRecHitTask_cleaned_energy_of_rechits_HE");
    meRecHitsCleanedEnergyHE = ibooker.book1DD(histo, histo, 2010, -10., 2000.);

    sprintf(histo, "HcalRecHitTask_energy_of_rechits_M0_HE");
    meRecHitsEnergyHEM0 = ibooker.book1DD(histo, histo, 2010, -10., 2000.);

    sprintf(histo, "HcalRecHitTask_energy_of_rechits_M3_HE");
    meRecHitsEnergyHEM3 = ibooker.book1DD(histo, histo, 2010, -10., 2000.);

    if (hep17_) {
      sprintf(histo, "HcalRecHitTask_energy_of_rechits_HEP17");
      meRecHitsEnergyHEP17.push_back(ibooker.book1D(histo, histo, 2010, -10., 2000.));

      sprintf(histo, "HcalRecHitTask_energy_of_rechits_M0_HEP17");
      meRecHitsEnergyHEP17M0.push_back(ibooker.book1D(histo, histo, 2010, -10., 2000.));

      sprintf(histo, "HcalRecHitTask_energy_of_rechits_M3_HEP17");
      meRecHitsEnergyHEP17M3.push_back(ibooker.book1D(histo, histo, 2010, -10., 2000.));
      for (int depth = 1; depth <= maxDepthHE_; depth++) {
        sprintf(histo, "HcalRecHitTask_energy_of_rechits_HEP17_depth%d", depth);
        meRecHitsEnergyHEP17.push_back(ibooker.book1D(histo, histo, 2010, -10., 2000.));

        sprintf(histo, "HcalRecHitTask_energy_of_rechits_M0_HEP17_depth%d", depth);
        meRecHitsEnergyHEP17M0.push_back(ibooker.book1D(histo, histo, 2010, -10., 2000.));

        sprintf(histo, "HcalRecHitTask_energy_of_rechits_M3_HEP17_depth%d", depth);
        meRecHitsEnergyHEP17M3.push_back(ibooker.book1D(histo, histo, 2010, -10., 2000.));
      }
    }

    sprintf(histo, "HcalRecHitTask_energy_of_rechits_M2vM0_HE");
    meRecHitsEnergyM2vM0HE = ibooker.book2D(histo, histo, 42, -10., 200., 42, -10., 200.);

    sprintf(histo, "HcalRecHitTask_energy_of_rechits_M3vM0_HE");
    meRecHitsEnergyM3vM0HE = ibooker.book2D(histo, histo, 42, -10., 200., 42, -10., 200.);

    sprintf(histo, "HcalRecHitTask_energy_of_rechits_M3vM2_HE");
    meRecHitsEnergyM3vM2HE = ibooker.book2D(histo, histo, 42, -10., 200., 42, -10., 200.);

    sprintf(histo, "HcalRecHitTask_M2Log10Chi2_of_rechits_HE");
    meRecHitsM2Chi2HE = ibooker.book1D(histo, histo, 120, -2., 10.);

    sprintf(histo, "HcalRecHitTask_timing_HE");
    meTimeHE = ibooker.book1DD(histo, histo, 70, -48., 92.);

    sprintf(histo, "HcalRecHitTask_timing_vs_energy_Low_HE");
    meTE_Low_HE = ibooker.book2D(histo, histo, 80, -5., 75., 70, -48., 92.);

    sprintf(histo, "HcalRecHitTask_timing_vs_energy_HE");
    meTE_HE = ibooker.book2D(histo, histo, 200, -5., 395., 70, -48., 92.);

    sprintf(histo, "HcalRecHitTask_timing_vs_energy_profile_Low_HE");
    meTEprofileHE_Low = ibooker.bookProfile(histo, histo, 80, -5., 75., -48., 92., " ");

    sprintf(histo, "HcalRecHitTask_timing_vs_energy_profile_HE");
    meTEprofileHE = ibooker.bookProfile(histo, histo, 200, -5., 395., -48., 92., " ");

    sprintf(histo, "HcalRecHitTask_Log10Chi2_vs_energy_profile_HE");
    meLog10Chi2profileHE = ibooker.bookProfile(histo, histo, 200, -5., 395., -2., 9.9, " ");
  }

  // ************** HO ****************************************
  if (subdet_ == 3 || subdet_ == 5) {
    // Only severity level, energy of rechits and overall HB timing histos are
    // drawn

    sprintf(histo, "HcalRecHitTask_severityLevel_HO");
    sevLvl_HO = ibooker.book1DD(histo, histo, 25, -0.5, 24.5);

    sprintf(histo, "HcalRecHitTask_energy_of_rechits_HO");
    meRecHitsEnergyHO = ibooker.book1DD(histo, histo, 2010, -10., 2000.);

    sprintf(histo, "HcalRecHitTask_cleaned_energy_of_rechits_HO");
    meRecHitsCleanedEnergyHO = ibooker.book1DD(histo, histo, 2010, -10., 2000.);

    sprintf(histo, "HcalRecHitTask_timing_HO");
    meTimeHO = ibooker.book1DD(histo, histo, 80, -80., 80.);

    sprintf(histo, "HcalRecHitTask_timing_vs_energy_HO");
    meTE_HO = ibooker.book2D(histo, histo, 60, -5., 55., 80, -80., 80.);

    sprintf(histo, "HcalRecHitTask_timing_vs_energy_High_HO");
    meTE_High_HO = ibooker.book2D(histo, histo, 100, -5., 995., 80, -80., 80.);

    sprintf(histo, "HcalRecHitTask_timing_vs_energy_profile_HO");
    meTEprofileHO = ibooker.bookProfile(histo, histo, 60, -5., 55., -80., 80., " ");

    sprintf(histo, "HcalRecHitTask_timing_vs_energy_profile_High_HO");
    meTEprofileHO_High = ibooker.bookProfile(histo, histo, 100, -5., 995., -80., 80., " ");
  }

  // ********************** HF ************************************
  if (subdet_ == 4 || subdet_ == 5) {
    // Only severity level, energy of rechits and overall HB timing histos are
    // drawn

    sprintf(histo, "HcalRecHitTask_severityLevel_HF");
    sevLvl_HF = ibooker.book1DD(histo, histo, 25, -0.5, 24.5);

    sprintf(histo, "HcalRecHitTask_energy_of_rechits_HF");
    meRecHitsEnergyHF = ibooker.book1DD(histo, histo, 2010, -10., 2000.);

    sprintf(histo, "HcalRecHitTask_cleaned_energy_of_rechits_HF");
    meRecHitsCleanedEnergyHF = ibooker.book1DD(histo, histo, 2010, -10., 2000.);

    sprintf(histo, "HcalRecHitTask_timing_HF");
    meTimeHF = ibooker.book1DD(histo, histo, 70, -48., 92.);

    sprintf(histo, "HcalRecHitTask_timing_vs_energy_Low_HF");
    meTE_Low_HF = ibooker.book2D(histo, histo, 100, -5., 195., 70, -48., 92.);

    sprintf(histo, "HcalRecHitTask_timing_vs_energy_HF");
    meTE_HF = ibooker.book2D(histo, histo, 200, -5., 995., 70, -48., 92.);

    sprintf(histo, "HcalRecHitTask_timing_vs_energy_profile_Low_HF");
    meTEprofileHF_Low = ibooker.bookProfile(histo, histo, 100, -5., 195., -48., 92., " ");

    sprintf(histo, "HcalRecHitTask_timing_vs_energy_profile_HF");
    meTEprofileHF = ibooker.bookProfile(histo, histo, 200, -5., 995., -48., 92., " ");
  }
}

void HcalRecHitsAnalyzer::analyze(edm::Event const &ev, edm::EventSetup const &iSetup) {
  using namespace edm;

  // cuts for each subdet_ector mimiking  "Scheme B"
  //  double cutHB = 0.9, cutHE = 1.4, cutHO = 1.1, cutHFL = 1.2, cutHFS = 1.8;

  // energy in ECAL
  double eEcalCone = 0.;

  // HCAL energy around MC eta-phi at all depths;
  double partR = 0.3;

  // Single particle samples: actual eta-phi position of cluster around
  // hottest cell
  double etaHot = 99999.;
  double phiHot = 99999.;

  //   previously was:  iSetup.get<IdealGeometryRecord>().get (geometry);
  geometry = &iSetup.getData(caloGeometryEventToken_);

  // HCAL Topology **************************************************
  theHcalTopology = &iSetup.getData(hcalTopologyToken_);

  // HCAL channel status map ****************************************
  theHcalChStatus = &iSetup.getData(hcalChannelQualityToken_);

  // Assignment of severity levels **********************************
  theHcalSevLvlComputer = &iSetup.getData(hcalSeverityLevelComputerToken_);

  // Fill working vectors of HCAL RecHits quantities (all of these are drawn)
  fillRecHitsTmp(subdet_, ev);

  // HB
  if (subdet_ == 5 || subdet_ == 1) {
    for (unsigned int iv = 0; iv < hcalHBSevLvlVec.size(); iv++) {
      sevLvl_HB->Fill(hcalHBSevLvlVec[iv]);
    }
  }
  // HE
  if (subdet_ == 5 || subdet_ == 2) {
    for (unsigned int iv = 0; iv < hcalHESevLvlVec.size(); iv++) {
      sevLvl_HE->Fill(hcalHESevLvlVec[iv]);
    }
  }
  // HO
  if (subdet_ == 5 || subdet_ == 3) {
    for (unsigned int iv = 0; iv < hcalHOSevLvlVec.size(); iv++) {
      sevLvl_HO->Fill(hcalHOSevLvlVec[iv]);
    }
  }
  // HF
  if (subdet_ == 5 || subdet_ == 4) {
    for (unsigned int iv = 0; iv < hcalHFSevLvlVec.size(); iv++) {
      sevLvl_HF->Fill(hcalHFSevLvlVec[iv]);
    }
  }

  // Counting, including ZS items
  // Filling HCAL maps  ----------------------------------------------------
  //   double maxE = -99999.;

  // element 0: any depth. element 1,2,..: depth 1,2
  std::vector<int> nhb_v(maxDepthHB_ + 1, 0);
  std::vector<int> nhe_v(maxDepthHE_ + 1, 0);
  std::vector<int> nho_v(maxDepthHO_ + 1, 0);
  std::vector<int> nhf_v(maxDepthHF_ + 1, 0);

  for (unsigned int i = 0; i < cen.size(); i++) {
    int sub = csub[i];
    int depth = cdepth[i];
    int ieta = cieta[i];
    int iphi = ciphi[i];
    double en = cen[i];
    double enM0 = cenM0[i];
    double enM3 = cenM3[i];
    //     double eta    = ceta[i];
    //     double phi    = cphi[i];
    uint32_t stwd = cstwd[i];
    uint32_t auxstwd = cauxstwd[i];
    //    double z   = cz[i];

    // This will be true if hep17 == "yes" and the rechit is in the hep17 wedge
    bool isHEP17 = (sub == 2) && (iphi >= 63) && (iphi <= 66) && (ieta > 0) && (hep17_);

    // Make sure that an invalid depth won't cause an error. We should probably
    // report the problem as well.
    if (depth < 1)
      continue;
    if (sub == 1 && depth > maxDepthHB_)
      continue;
    if (sub == 2 && depth > maxDepthHE_)
      continue;
    if (sub == 3 && depth > maxDepthHO_)
      continue;
    if (sub == 4 && depth > maxDepthHF_)
      continue;

    if (sub == 1) {
      nhb_v[depth]++;
      nhb_v[0]++;
    }  // element 0: any depth, element 1,2,..: depth 1,2,...
    if (sub == 2) {
      nhe_v[depth]++;
      nhe_v[0]++;
    }  //
    if (sub == 3) {
      nho_v[depth]++;
      nho_v[0]++;
    }  //
    if (sub == 4) {
      nhf_v[depth]++;
      nhf_v[0]++;
    }  //

    if (subdet_ == 6) {  // ZS specific
    }

    if (subdet_ != 6) {
      int ieta2 = ieta;
      int depth2 = depth;
      if (sub == 4) {
        if (ieta2 < 0)
          ieta2--;
        else
          ieta2++;
      }
      if (sub == 3)
        emap_HO->Fill(double(ieta2), double(iphi), en);  // HO
      else
        emap[depth2 - 1]->Fill(double(ieta2), double(iphi), en);  // HB+HE+HF

      // to distinguish HE and HF
      if (depth == 1 || depth == 2) {
        int ieta1 = ieta;
        if (sub == 4) {
          if (ieta1 < 0)
            ieta1--;
          else
            ieta1++;
        }
      }

      if (sub == 1) {
        emean_vs_ieta_HB[depth - 1]->Fill(double(ieta), en);
        emean_vs_ieta_HBM0[depth - 1]->Fill(double(ieta), enM0);
        emean_vs_ieta_HBM3[depth - 1]->Fill(double(ieta), enM3);
        occupancy_map_HB[depth - 1]->Fill(double(ieta), double(iphi));
        if (ieta > 0)
          nrechits_vs_iphi_HBP[depth - 1]->Fill(double(iphi));
        else
          nrechits_vs_iphi_HBM[depth - 1]->Fill(double(iphi));
      }
      if (sub == 2) {
        if (!isHEP17) {
          emean_vs_ieta_HE[depth - 1]->Fill(double(ieta), en);
          emean_vs_ieta_HEM0[depth - 1]->Fill(double(ieta), enM0);
          emean_vs_ieta_HEM3[depth - 1]->Fill(double(ieta), enM3);
        } else {
          emean_vs_ieta_HEP17[depth - 1]->Fill(double(ieta), en);
          emean_vs_ieta_HEP17M0[depth - 1]->Fill(double(ieta), enM0);
          emean_vs_ieta_HEP17M3[depth - 1]->Fill(double(ieta), enM3);
        }
        occupancy_map_HE[depth - 1]->Fill(double(ieta), double(iphi));
        if (ieta > 0)
          nrechits_vs_iphi_HEP[depth - 1]->Fill(double(iphi));
        else
          nrechits_vs_iphi_HEM[depth - 1]->Fill(double(iphi));
      }
      if (sub == 3) {
        emean_vs_ieta_HO->Fill(double(ieta), en);
        occupancy_map_HO->Fill(double(ieta), double(iphi));
        if (ieta > 0)
          nrechits_vs_iphi_HOP->Fill(double(iphi));
        else
          nrechits_vs_iphi_HOM->Fill(double(iphi));
      }
      if (sub == 4) {
        emean_vs_ieta_HF[depth - 1]->Fill(double(ieta), en);
        occupancy_map_HF[depth - 1]->Fill(double(ieta), double(iphi));
        if (ieta > 0)
          nrechits_vs_iphi_HFP[depth - 1]->Fill(double(iphi));
        else
          nrechits_vs_iphi_HFM[depth - 1]->Fill(double(iphi));
      }
    }

    // 32-bit status word
    uint32_t statadd;

    // Statusword correlation
    unsigned int sw27 = 27;
    unsigned int sw13 = 13;

    uint32_t statadd27 = 0x1 << sw27;
    uint32_t statadd13 = 0x1 << sw13;

    float status27 = 0;
    float status13 = 0;

    if (stwd & statadd27)
      status27 = 1;
    if (stwd & statadd13)
      status13 = 1;

    if (sub == 1) {
      RecHit_StatusWordCorr_HB->Fill(status13, status27);
    } else if (sub == 2) {
      RecHit_StatusWordCorr_HE->Fill(status13, status27);
    }

    for (unsigned int isw = 0; isw < 32; isw++) {
      statadd = 0x1 << (isw);
      if (stwd & statadd) {
        if (sub == 1)
          RecHit_StatusWord_HB->Fill(isw);
        else if (sub == 2)
          RecHit_StatusWord_HE->Fill(isw);
        else if (sub == 3)
          RecHit_StatusWord_HO->Fill(isw);
        else if (sub == 4) {
          RecHit_StatusWord_HF->Fill(isw);
        }
      }
    }

    for (unsigned int isw = 0; isw < 32; isw++) {
      statadd = 0x1 << (isw);
      if (auxstwd & statadd) {
        if (sub == 1)
          RecHit_Aux_StatusWord_HB->Fill(isw);
        else if (sub == 2)
          RecHit_Aux_StatusWord_HE->Fill(isw);
        else if (sub == 3)
          RecHit_Aux_StatusWord_HO->Fill(isw);
        else if (sub == 4)
          RecHit_Aux_StatusWord_HF->Fill(isw);
      }
    }
  }

  for (int depth = 0; depth <= maxDepthHB_; depth++)
    Nhb[depth]->Fill(double(nhb_v[depth]));
  for (int depth = 0; depth <= maxDepthHE_; depth++)
    Nhe[depth]->Fill(double(nhe_v[depth]));
  for (int depth = 0; depth <= maxDepthHO_; depth++)
    Nho[depth]->Fill(double(nho_v[depth]));
  for (int depth = 0; depth <= maxDepthHF_; depth++)
    Nhf[depth]->Fill(double(nhf_v[depth]));

  //===========================================================================
  // SUBSYSTEMS,
  //===========================================================================

  if ((subdet_ != 6) && (subdet_ != 0)) {
    double clusEta = 999.;
    double clusPhi = 999.;
    double clusEn = 0.;

    double HcalCone = 0.;

    int ietaMax = 9999;
    //     double enMax1 = -9999.;
    //     double enMax2 = -9999.;
    //     double enMax3 = -9999.;
    //     double enMax4 = -9999.;
    //     double enMax  = -9999.;
    //     double etaMax =  9999.;

    //   CYCLE over cells ====================================================

    for (unsigned int i = 0; i < cen.size(); i++) {
      int sub = csub[i];
      double eta = ceta[i];
      double phi = cphi[i];
      double ieta = cieta[i];
      double iphi = ciphi[i];
      double en = cen[i];
      double enM0 = cenM0[i];
      double enM3 = cenM3[i];
      double chi2 = cchi2[i];
      double chi2_log10 = 9.99;  // initial value - stay with this value if chi2<0.
      if (chi2 > 0.)
        chi2_log10 = log10(chi2);
      double t = ctime[i];
      double depth = cdepth[i];
      int sevlev = csevlev[i];

      bool isHEP17 = (sub == 2) && (iphi >= 63) && (iphi <= 66) && (ieta > 0) && (hep17_);

      //       int   ieta = cieta[i];

      double rhot = dR(etaHot, phiHot, eta, phi);
      if (rhot < partR && en > 1.) {
        clusEta = (clusEta * clusEn + eta * en) / (clusEn + en);
        clusPhi = phi12(clusPhi, clusEn, phi, en);
        clusEn += en;
      }

      // The energy and overall timing histos are drawn while
      // the ones split by depth are not
      if (sub == 1 && (subdet_ == 1 || subdet_ == 5)) {
        meTimeHB->Fill(t);
        meRecHitsEnergyHB->Fill(en);
        if (sevlev <= 9)
          meRecHitsCleanedEnergyHB->Fill(en);

        meRecHitsEnergyHBM0->Fill(enM0);
        meRecHitsEnergyHBM3->Fill(enM3);

        meRecHitsEnergyM2vM0HB->Fill(enM0, en);
        meRecHitsEnergyM3vM0HB->Fill(enM0, enM3);
        meRecHitsEnergyM3vM2HB->Fill(en, enM3);

        meRecHitsM2Chi2HB->Fill(chi2_log10);
        meLog10Chi2profileHB->Fill(en, chi2_log10);

        meTE_Low_HB->Fill(en, t);
        meTE_HB->Fill(en, t);
        meTE_High_HB->Fill(en, t);
        meTEprofileHB_Low->Fill(en, t);
        meTEprofileHB->Fill(en, t);
        meTEprofileHB_High->Fill(en, t);
      }
      if (sub == 2 && (subdet_ == 2 || subdet_ == 5)) {
        meTimeHE->Fill(t);
        if (!isHEP17) {
          meRecHitsEnergyHE->Fill(en);
          if (sevlev <= 9)
            meRecHitsCleanedEnergyHE->Fill(en);

          meRecHitsEnergyHEM0->Fill(enM0);
          meRecHitsEnergyHEM3->Fill(enM3);
        } else {
          meRecHitsEnergyHEP17[0]->Fill(en);
          meRecHitsEnergyHEP17M0[0]->Fill(enM0);
          meRecHitsEnergyHEP17M3[0]->Fill(enM3);
          meRecHitsEnergyHEP17[depth]->Fill(en);
          meRecHitsEnergyHEP17M0[depth]->Fill(enM0);
          meRecHitsEnergyHEP17M3[depth]->Fill(enM3);
        }

        meRecHitsEnergyM2vM0HE->Fill(enM0, en);
        meRecHitsEnergyM3vM0HE->Fill(enM0, enM3);
        meRecHitsEnergyM3vM2HE->Fill(en, enM3);

        meRecHitsM2Chi2HE->Fill(chi2_log10);
        meLog10Chi2profileHE->Fill(en, chi2_log10);

        meTE_Low_HE->Fill(en, t);
        meTE_HE->Fill(en, t);
        meTEprofileHE_Low->Fill(en, t);
        meTEprofileHE->Fill(en, t);
      }
      if (sub == 4 && (subdet_ == 4 || subdet_ == 5)) {
        meTimeHF->Fill(t);
        meRecHitsEnergyHF->Fill(en);
        if (sevlev <= 9)
          meRecHitsCleanedEnergyHF->Fill(en);

        meTE_Low_HF->Fill(en, t);
        meTE_HF->Fill(en, t);
        meTEprofileHF_Low->Fill(en, t);
        meTEprofileHF->Fill(en, t);
      }
      if (sub == 3 && (subdet_ == 3 || subdet_ == 5)) {
        meTimeHO->Fill(t);
        meRecHitsEnergyHO->Fill(en);
        if (sevlev <= 9)
          meRecHitsCleanedEnergyHO->Fill(en);

        meTE_HO->Fill(en, t);
        meTE_High_HO->Fill(en, t);
        meTEprofileHO->Fill(en, t);
        meTEprofileHO_High->Fill(en, t);
      }
    }

    if (imc != 0) {
      // Cone by depth are not drawn, the others are used for pion scan
      meEnConeEtaProfile->Fill(double(ietaMax), HcalCone);  //
      meEnConeEtaProfile_E->Fill(double(ietaMax), eEcalCone);
      meEnConeEtaProfile_EH->Fill(double(ietaMax), HcalCone + eEcalCone);
    }

    // Single particle samples ONLY !  ======================================
    // Fill up some histos for "integrated" subsustems.
    // These are not drawn
  }

  nevtot++;
}

void HcalRecHitsAnalyzer::fillRecHitsTmp(int subdet_, edm::Event const &ev) {
  using namespace edm;

  // initialize data vectors
  csub.clear();
  cen.clear();
  cenM0.clear();
  cenM3.clear();
  cchi2.clear();
  ceta.clear();
  cphi.clear();
  ctime.clear();
  cieta.clear();
  ciphi.clear();
  cdepth.clear();
  cz.clear();
  cstwd.clear();
  cauxstwd.clear();
  csevlev.clear();
  hcalHBSevLvlVec.clear();
  hcalHESevLvlVec.clear();
  hcalHFSevLvlVec.clear();
  hcalHOSevLvlVec.clear();

  if (subdet_ == 1 || subdet_ == 2 || subdet_ == 5 || subdet_ == 6 || subdet_ == 0) {
    // HBHE
    edm::Handle<HBHERecHitCollection> hbhecoll;
    if (ev.getByToken(tok_hbhe_, hbhecoll)) {
      for (HBHERecHitCollection::const_iterator j = hbhecoll->begin(); j != hbhecoll->end(); j++) {
        HcalDetId cell(j->id());
        const HcalGeometry *cellGeometry = dynamic_cast<const HcalGeometry *>(geometry->getSubdetectorGeometry(cell));
        double eta = cellGeometry->getPosition(cell).eta();
        double phi = cellGeometry->getPosition(cell).phi();
        double zc = cellGeometry->getPosition(cell).z();
        int sub = cell.subdet();
        int depth = cell.depth();
        int inteta = cell.ieta();
        int intphi = cell.iphi();
        double en = j->energy();
        double enM0 = j->eraw();
        double enM3 = j->eaux();
        double chi2 = j->chi2();
        double t = j->time();
        int stwd = j->flags();
        int auxstwd = j->aux();

        int severityLevel = hcalSevLvl((CaloRecHit *)&*j);
        if (cell.subdet() == HcalBarrel) {
          hcalHBSevLvlVec.push_back(severityLevel);
        } else if (cell.subdet() == HcalEndcap) {
          hcalHESevLvlVec.push_back(severityLevel);
        }

        if ((iz > 0 && eta > 0.) || (iz < 0 && eta < 0.) || iz == 0) {
          csub.push_back(sub);
          cen.push_back(en);
          cenM0.push_back(enM0);
          cenM3.push_back(enM3);
          cchi2.push_back(chi2);
          ceta.push_back(eta);
          cphi.push_back(phi);
          ctime.push_back(t);
          cieta.push_back(inteta);
          ciphi.push_back(intphi);
          cdepth.push_back(depth);
          cz.push_back(zc);
          cstwd.push_back(stwd);
          cauxstwd.push_back(auxstwd);
          csevlev.push_back(severityLevel);
        }
      }
    }
  }

  if (subdet_ == 4 || subdet_ == 5 || subdet_ == 6 || subdet_ == 0) {
    // HF
    edm::Handle<HFRecHitCollection> hfcoll;
    if (ev.getByToken(tok_hf_, hfcoll)) {
      for (HFRecHitCollection::const_iterator j = hfcoll->begin(); j != hfcoll->end(); j++) {
        HcalDetId cell(j->id());
        auto cellGeometry = (geometry->getSubdetectorGeometry(cell))->getGeometry(cell);
        double eta = cellGeometry->getPosition().eta();
        double phi = cellGeometry->getPosition().phi();
        double zc = cellGeometry->getPosition().z();
        int sub = cell.subdet();
        int depth = cell.depth();
        int inteta = cell.ieta();
        int intphi = cell.iphi();
        double en = j->energy();
        double enM0 = 0.;
        double enM3 = 0.;
        double chi2 = 0.;
        double t = j->time();
        int stwd = j->flags();
        int auxstwd = j->aux();

        int severityLevel = hcalSevLvl((CaloRecHit *)&*j);
        if (cell.subdet() == HcalForward) {
          hcalHFSevLvlVec.push_back(severityLevel);
        }

        if ((iz > 0 && eta > 0.) || (iz < 0 && eta < 0.) || iz == 0) {
          csub.push_back(sub);
          cen.push_back(en);
          cenM0.push_back(enM0);
          cenM3.push_back(enM3);
          cchi2.push_back(chi2);
          ceta.push_back(eta);
          cphi.push_back(phi);
          ctime.push_back(t);
          cieta.push_back(inteta);
          ciphi.push_back(intphi);
          cdepth.push_back(depth);
          cz.push_back(zc);
          cstwd.push_back(stwd);
          cauxstwd.push_back(auxstwd);
          csevlev.push_back(severityLevel);
        }
      }
    }
  }

  // HO
  if (subdet_ == 3 || subdet_ == 5 || subdet_ == 6 || subdet_ == 0) {
    edm::Handle<HORecHitCollection> hocoll;
    if (ev.getByToken(tok_ho_, hocoll)) {
      for (HORecHitCollection::const_iterator j = hocoll->begin(); j != hocoll->end(); j++) {
        HcalDetId cell(j->id());
        auto cellGeometry = (geometry->getSubdetectorGeometry(cell))->getGeometry(cell);
        double eta = cellGeometry->getPosition().eta();
        double phi = cellGeometry->getPosition().phi();
        double zc = cellGeometry->getPosition().z();
        int sub = cell.subdet();
        int depth = cell.depth();
        int inteta = cell.ieta();
        int intphi = cell.iphi();
        double t = j->time();
        double en = j->energy();
        double enM0 = 0.;
        double enM3 = 0.;
        double chi2 = 0.;
        int stwd = j->flags();
        int auxstwd = j->aux();

        int severityLevel = hcalSevLvl((CaloRecHit *)&*j);
        if (cell.subdet() == HcalOuter) {
          hcalHOSevLvlVec.push_back(severityLevel);
        }

        if ((iz > 0 && eta > 0.) || (iz < 0 && eta < 0.) || iz == 0) {
          csub.push_back(sub);
          cen.push_back(en);
          cenM0.push_back(enM0);
          cenM3.push_back(enM3);
          cchi2.push_back(chi2);
          ceta.push_back(eta);
          cphi.push_back(phi);
          ctime.push_back(t);
          cieta.push_back(inteta);
          ciphi.push_back(intphi);
          cdepth.push_back(depth);
          cz.push_back(zc);
          cstwd.push_back(stwd);
          cauxstwd.push_back(auxstwd);
          csevlev.push_back(severityLevel);
        }
      }
    }
  }
}

double HcalRecHitsAnalyzer::dR(double eta1, double phi1, double eta2, double phi2) {
  double PI = 3.1415926535898;
  double deltaphi = phi1 - phi2;
  if (phi2 > phi1) {
    deltaphi = phi2 - phi1;
  }
  if (deltaphi > PI) {
    deltaphi = 2. * PI - deltaphi;
  }
  double deltaeta = eta2 - eta1;
  double tmp = sqrt(deltaeta * deltaeta + deltaphi * deltaphi);
  return tmp;
}

double HcalRecHitsAnalyzer::phi12(double phi1, double en1, double phi2, double en2) {
  // weighted mean value of phi1 and phi2

  double tmp;
  double PI = 3.1415926535898;
  double a1 = phi1;
  double a2 = phi2;

  if (a1 > 0.5 * PI && a2 < 0.)
    a2 += 2 * PI;
  if (a2 > 0.5 * PI && a1 < 0.)
    a1 += 2 * PI;
  tmp = (a1 * en1 + a2 * en2) / (en1 + en2);
  if (tmp > PI)
    tmp -= 2. * PI;

  return tmp;
}

double HcalRecHitsAnalyzer::dPhiWsign(double phi1, double phi2) {
  // clockwise      phi2 w.r.t phi1 means "+" phi distance
  // anti-clockwise phi2 w.r.t phi1 means "-" phi distance

  double PI = 3.1415926535898;
  double a1 = phi1;
  double a2 = phi2;
  double tmp = a2 - a1;
  if (a1 * a2 < 0.) {
    if (a1 > 0.5 * PI)
      tmp += 2. * PI;
    if (a2 > 0.5 * PI)
      tmp -= 2. * PI;
  }
  return tmp;
}

int HcalRecHitsAnalyzer::hcalSevLvl(const CaloRecHit *hit) {
  HcalDetId id = hit->detid();
  if (theHcalTopology->getMergePositionFlag() && id.subdet() == HcalEndcap) {
    id = theHcalTopology->idFront(id);
  }

  const uint32_t recHitFlag = hit->flags();
  const uint32_t dbStatusFlag = theHcalChStatus->getValues(id)->getValue();

  int severityLevel = theHcalSevLvlComputer->getSeverityLevel(id, recHitFlag, dbStatusFlag);

  return severityLevel;
}

DEFINE_FWK_MODULE(HcalRecHitsAnalyzer);