ZdcSimHitStudy.cc

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// Package:    ZdcSimHitStudy
// Class:      ZdcSimHitStudy
//
/*
  Description:
  This code has been developed to be a check for the ZDC sim. In 2009, it was
  found that the ZDC Simulation was unrealistic and needed repair. The aim of
  this code is to show the user the input and output of a ZDC MinBias
  simulation.

  Implementation:
  First a MinBias simulation should be run, it could be pythia,hijin,or hydjet.
  This will output a .root file which should have information about
  recoGenParticles, and g4SimHits_ZDCHits. Use this .root file as the input into
  the cfg.py which is found in the main directory of this package. This output
  will be another .root file which is meant to be viewed in a TBrowser.

*/
//
// Original Author: Jaime Gomez (U. of Maryland) with SIGNIFICANT assistance of
// Dr. Jefferey Temple (U. of Maryland) Adapted from: E. Garcia-Solis' (CSU)
// original code
//
//         Created:  Summer 2012

#include "FWCore/Framework/interface/Event.h"
#include "FWCore/Framework/interface/EventSetup.h"
#include "FWCore/Framework/interface/Frameworkfwd.h"
#include "FWCore/MessageLogger/interface/MessageLogger.h"
#include "FWCore/ParameterSet/interface/ParameterSet.h"
#include "FWCore/ServiceRegistry/interface/Service.h"
#include "FWCore/Utilities/interface/Exception.h"

#include "DQMServices/Core/interface/DQMEDAnalyzer.h"
#include "DQMServices/Core/interface/DQMStore.h"

#include "SimDataFormats/CaloHit/interface/PCaloHit.h"
#include "SimDataFormats/CaloHit/interface/PCaloHitContainer.h"

#include "DataFormats/HepMCCandidate/interface/GenParticle.h"
#include "DataFormats/HepMCCandidate/interface/GenParticleFwd.h"
#include "DataFormats/HcalDetId/interface/HcalZDCDetId.h"

#include <fstream>
#include <iostream>
#include <map>
#include <memory>
#include <string>
#include <vector>

class ZdcSimHitStudy : public DQMEDAnalyzer {
public:
  ZdcSimHitStudy(const edm::ParameterSet &ps);
  ~ZdcSimHitStudy() override = default;

protected:
  void bookHistograms(DQMStore::IBooker &, edm::Run const &, edm::EventSetup const &) override;

  void analyze(const edm::Event &e, const edm::EventSetup &c) override;
  void analyzeHits(std::vector<PCaloHit> &);
  int FillHitValHist(int side, int section, int channel, double energy, double time);

private:
  double enetotEmN, enetotHadN, enetotN;
  double enetotEmP, enetotHadP, enetotP;
  double enetot;

  //#   Below all the monitoring elements #
  //# are simply the plots "code names"  #
  //# they will be filled in the .cc file #

  const std::string g4Label, zdcHits, outFile_;
  const bool verbose_, checkHit_;
  const edm::EDGetTokenT<reco::GenParticleCollection> tok_gen_;
  const edm::EDGetTokenT<edm::PCaloHitContainer> tok_hits_;

  MonitorElement *meAllZdcNHit_, *meBadZdcDetHit_, *meBadZdcSecHit_, *meBadZdcIdHit_;
  MonitorElement *meZdcNHit_, *meZdcDetectHit_, *meZdcSideHit_, *meZdcETime_;
  MonitorElement *meZdcNHitEM_, *meZdcNHitHad_, *meZdcNHitLum_, *meZdc10Ene_;
  MonitorElement *meZdcSectionHit_, *meZdcChannelHit_, *meZdcEnergyHit_, *meZdcTimeWHit_;
  MonitorElement *meZdcHadEnergyHit_, *meZdcEMEnergyHit_, *meZdcTimeHit_, *meZdcHadL10EneP_;
  MonitorElement *meZdc10EneP_, *meZdcEHadCh_, *meZdcEEMCh_, *meZdcEML10EneP_;
  MonitorElement *meZdcEneEmN1_, *meZdcEneEmN2_, *meZdcEneEmN3_, *meZdcEneEmN4_, *meZdcEneEmN5_;
  MonitorElement *meZdcEneHadN1_, *meZdcEneHadN2_, *meZdcEneHadN3_, *meZdcEneHadN4_;
  MonitorElement *meZdcEneTEmN1_, *meZdcEneTEmN2_, *meZdcEneTEmN3_, *meZdcEneTEmN4_, *meZdcEneTEmN5_;
  MonitorElement *meZdcEneTHadN1_, *meZdcEneTHadN2_, *meZdcEneTHadN3_, *meZdcEneTHadN4_;
  MonitorElement *meZdcEneHadNTot_, *meZdcEneEmNTot_, *meZdcEneNTot_;
  MonitorElement *meZdcCorEEmNEHadN_;
  MonitorElement *meZdcEneEmP1_, *meZdcEneEmP2_, *meZdcEneEmP3_, *meZdcEneEmP4_, *meZdcEneEmP5_;
  MonitorElement *meZdcEneHadP1_, *meZdcEneHadP2_, *meZdcEneHadP3_, *meZdcEneHadP4_;
  MonitorElement *meZdcEneTEmP1_, *meZdcEneTEmP2_, *meZdcEneTEmP3_, *meZdcEneTEmP4_, *meZdcEneTEmP5_;
  MonitorElement *meZdcEneTHadP1_, *meZdcEneTHadP2_, *meZdcEneTHadP3_, *meZdcEneTHadP4_;
  MonitorElement *meZdcEneHadPTot_, *meZdcEneEmPTot_, *meZdcEnePTot_;
  MonitorElement *meZdcCorEEmPEHadP_, *meZdcCorEtotNEtotP_, *meZdcEneTot_;


  MonitorElement *genpart_Pi0F;
  MonitorElement *genpart_Pi0F_energydist;
  MonitorElement *genpart_Pi0B;
  MonitorElement *genpart_Pi0B_energydist;
  MonitorElement *genpart_NeutF;
  MonitorElement *genpart_NeutF_energydist;
  MonitorElement *genpart_NeutB;
  MonitorElement *genpart_NeutB_energydist;
  MonitorElement *genpart_GammaF;
  MonitorElement *genpart_GammaF_energydist;
  MonitorElement *genpart_GammaB;
  MonitorElement *genpart_GammaB_energydist;

  // N counts plots
  MonitorElement *genpart_Pi0F_counts;
  MonitorElement *genpart_Pi0B_counts;
  MonitorElement *genpart_NeutF_counts;
  MonitorElement *genpart_NeutB_counts;
  MonitorElement *genpart_GammaF_counts;
  MonitorElement *genpart_GammaB_counts;
};

ZdcSimHitStudy::ZdcSimHitStudy(const edm::ParameterSet &ps)
    : g4Label(ps.getUntrackedParameter<std::string>("moduleLabel", "g4SimHits")),
      zdcHits(ps.getUntrackedParameter<std::string>("HitCollection", "ZdcHits")),
      outFile_(ps.getUntrackedParameter<std::string>("outputFile", "zdcHitStudy.root")),
      verbose_(ps.getUntrackedParameter<bool>("Verbose", false)),
      checkHit_(true),
      tok_gen_(consumes<reco::GenParticleCollection>(edm::InputTag("genParticles"))),
      tok_hits_(consumes<edm::PCaloHitContainer>(edm::InputTag(g4Label, zdcHits))) {
  edm::LogVerbatim("ZdcSimHitStudy") << "Module Label: " << g4Label << "   Hits: " << zdcHits << " / " << checkHit_
                                     << "   Output: " << outFile_;
}

void ZdcSimHitStudy::bookHistograms(DQMStore::IBooker &ib, edm::Run const &run, edm::EventSetup const &es) {
  ib.setCurrentFolder("ZDCValidation");
  // Histograms for Hits
  //# Below we are filling the histograms made in the .h file. The syntax is as
  // follows:                                      # # plot_code_name =
  // ib.TypeofPlot[(1,2,3)-D,(F,I,D)]("Name as it will appear","Title",axis
  // options);                    # # They will be stored in the TFile
  // subdirectory set by :    ib.setCurrentFolder("FolderIwant") # # axis
  // options are like (#ofbins,min,max) #

  if (checkHit_) {
    ib.setCurrentFolder("ZDCValidation/ZdcSimHits");
    meAllZdcNHit_ = ib.book1D("ZDC Hits", "Number of All Hits in ZDC", 100, 0., 100.);
    meAllZdcNHit_->setAxisTitle("Total Hits", 1);
    meAllZdcNHit_->setAxisTitle("Counts", 2);
    ib.setCurrentFolder("ZDCValidation/ZdcSimHits/Excess_Info/Debug_Helper");
    meBadZdcDetHit_ = ib.book1D("Hiits with the wrong Det", "Hits with wrong Det in ZDC", 100, 0., 100.);
    meBadZdcDetHit_->setAxisTitle("Wrong Hits", 1);
    meBadZdcDetHit_->setAxisTitle("Counts", 2);
    meBadZdcSecHit_ = ib.book1D("Wrong Section Hits", "Hits with wrong Section in ZDC", 100, 0., 100.);
    meBadZdcSecHit_->setAxisTitle("Hits in wrong section", 1);
    meBadZdcSecHit_->setAxisTitle("Counts", 2);
    meBadZdcIdHit_ = ib.book1D("Wrong_ID_Hits", "Hits with wrong ID in ZDC", 100, 0., 100.);
    meBadZdcIdHit_->setAxisTitle("Hits with wrong ID", 1);
    meBadZdcIdHit_->setAxisTitle("Counts", 2);
    ib.setCurrentFolder("ZDCValidation/ZdcSimHits/Excess_Info/BasicHitInfo");
    meZdcNHitEM_ = ib.book1D("Hits in EM", "Number of Hits in ZDC EM", 100, 0., 100.);
    meZdcNHitEM_->setAxisTitle("EM Hits", 1);
    meZdcNHitEM_->setAxisTitle("Counts", 2);
    meZdcNHitHad_ = ib.book1D("Hits in HAD", "Number of Hits in ZDC Had", 100, 0., 100.);
    meZdcNHitHad_->setAxisTitle("HAD Hits", 1);
    meZdcNHitHad_->setAxisTitle("Counts", 2);
    meZdcNHitLum_ = ib.book1D("Hits in LUM", "Number of Hits in ZDC Lum", 100, 0., 100.);
    meZdcNHitLum_->setAxisTitle("LUM Hits", 1);
    meZdcNHitLum_->setAxisTitle("Counts", 2);
    meZdcDetectHit_ = ib.book1D("Calo Detector ID", "Calo Detector ID", 50, 0., 50.);
    meZdcDetectHit_->setAxisTitle("Detector Hits", 1);
    meZdcDetectHit_->setAxisTitle("Counts", 2);
    meZdcSideHit_ = ib.book1D("ZDC Side", "Side in ZDC", 4, -2, 2.);
    meZdcSideHit_->setAxisTitle("ZDC Side", 1);
    meZdcSideHit_->setAxisTitle("Counts", 2);
    meZdcSectionHit_ = ib.book1D("ZDC Section", "Section in ZDC", 4, 0., 4.);
    meZdcSectionHit_->setAxisTitle("ZDC Section", 1);
    meZdcSectionHit_->setAxisTitle("Counts", 2);
    meZdcChannelHit_ = ib.book1D("ZDC Channel", "Channel in ZDC", 10, 0., 10.);
    meZdcChannelHit_->setAxisTitle("ZDC Channel", 1);
    meZdcChannelHit_->setAxisTitle("Counts", 2);
    ib.setCurrentFolder("ZDCValidation/ZdcSimHits/");
    meZdcEnergyHit_ = ib.book1D("Hit Energy", "Hits Energy", 4000, 0., 8000.);
    meZdcEnergyHit_->setAxisTitle("Counts", 2);
    meZdcEnergyHit_->setAxisTitle("Energy (GeV)", 1);
    meZdcHadEnergyHit_ = ib.book1D("Hit Energy HAD", "Hits Energy in Had Section", 4000, 0., 8000.);
    meZdcHadEnergyHit_->setAxisTitle("Counts", 2);
    meZdcHadEnergyHit_->setAxisTitle("Energy (GeV)", 1);
    meZdcEMEnergyHit_ = ib.book1D("Hit Energy EM", "Hits Energy in EM Section", 4000, 0., 8000.);
    meZdcEMEnergyHit_->setAxisTitle("Counts", 2);
    meZdcEMEnergyHit_->setAxisTitle("Energy (GeV)", 1);
    ib.setCurrentFolder("ZDCValidation/ZdcSimHits/Excess_Info/BasicHitInfo");
    meZdcTimeHit_ = ib.book1D("Time in ZDC", "Time in ZDC", 300, 0., 600.);
    meZdcTimeHit_->setAxisTitle("Time (ns)", 1);
    meZdcTimeHit_->setAxisTitle("Counts", 2);
    meZdcTimeWHit_ = ib.book1D("Energy Weighted Time in ZDC", "Time in ZDC (E wtd)", 300, 0., 600.);
    meZdcTimeWHit_->setAxisTitle("Time (ns)", 1);
    meZdcTimeWHit_->setAxisTitle("Counts", 2);
    meZdc10Ene_ = ib.book1D("ZDC Log(E)", "Log10Energy in ZDC", 140, -20., 20.);
    meZdc10Ene_->setAxisTitle("Log(E) (GeV)", 1);
    meZdc10Ene_->setAxisTitle("Counts", 2);
    meZdcHadL10EneP_ = ib.bookProfile(
        "Log(EHAD) vs Contribution", "Log10Energy in Had ZDC vs Hit contribution", 140, -1., 20., 100, 0., 1.);
    meZdcHadL10EneP_->setAxisTitle("Log(EHAD) (GeV)", 1);
    meZdcHadL10EneP_->setAxisTitle("Counts", 2);
    meZdcEML10EneP_ = ib.bookProfile(
        "Log(EEM) vs Contribution", "Log10Energy in EM ZDC vs Hit contribution", 140, -1., 20., 100, 0., 1.);
    meZdcEML10EneP_->setAxisTitle("Log(EEM) (GeV)", 1);
    meZdcEML10EneP_->setAxisTitle("Counts", 2);
    ib.setCurrentFolder("ZDCValidation/ZdcSimHits");
    meZdcEHadCh_ = ib.book2D("ZDC EHAD vs Channel", "ZDC Had Section Energy vs Channel", 4000, 0., 8000., 6, 0., 6.);
    meZdcEHadCh_->setAxisTitle("Hadronic Channel Number", 2);
    meZdcEHadCh_->setAxisTitle("Energy (GeV)", 1);
    meZdcEEMCh_ = ib.book2D("ZDC EEM vs Channel", "ZDC EM Section Energy vs Channel", 4000, 0., 8000., 6, 0., 6.);
    meZdcEEMCh_->setAxisTitle("EM Channel Number", 2);
    meZdcEEMCh_->setAxisTitle("Energy (GeV)", 1);
    ib.setCurrentFolder("ZDCValidation/ZdcSimHits/Excess_Info/BasicHitInfo");
    meZdcETime_ = ib.book2D("E vs T", "Hits ZDC Energy vs Time", 4000, 0., 8000., 300, 0., 600.);
    meZdcETime_->setAxisTitle("Energy (GeV)", 1);
    meZdcETime_->setAxisTitle("Time (ns)", 2);
    ib.setCurrentFolder("ZDCValidation/ZdcSimHits/ENERGY_SUMS/Individual_Channels/NZDC");
    meZdcEneEmN1_ = ib.book1D("NZDC EM1 Energy", "Energy EM module N1", 4000, 0., 8000.);
    meZdcEneEmN1_->setAxisTitle("Energy (GeV)", 1);
    meZdcEneEmN1_->setAxisTitle("Counts", 2);
    meZdcEneEmN2_ = ib.book1D("NZDC EM2 Energy", "Energy EM module N2", 4000, 0., 8000.);
    meZdcEneEmN2_->setAxisTitle("Energy (GeV)", 1);
    meZdcEneEmN2_->setAxisTitle("Counts", 2);
    meZdcEneEmN3_ = ib.book1D("NZDC EM3 Energy", "Energy EM module N3", 4000, 0., 8000.);
    meZdcEneEmN3_->setAxisTitle("Energy (GeV)", 1);
    meZdcEneEmN3_->setAxisTitle("Counts", 2);
    meZdcEneEmN4_ = ib.book1D("NZDC EM4 Energy", "Energy EM module N4", 4000, 0., 8000.);
    meZdcEneEmN4_->setAxisTitle("Energy (GeV)", 1);
    meZdcEneEmN4_->setAxisTitle("Counts", 2);
    meZdcEneEmN5_ = ib.book1D("NZDC EM5 Energy", "Energy EM module N5", 4000, 0., 8000.);
    meZdcEneEmN5_->setAxisTitle("Energy (GeV)", 1);
    meZdcEneEmN5_->setAxisTitle("Counts", 2);
    meZdcEneHadN1_ = ib.book1D("NZDC HAD1 Energy", "Energy HAD module N1", 4000, 0., 8000.);
    meZdcEneHadN1_->setAxisTitle("Energy (GeV)", 1);
    meZdcEneHadN1_->setAxisTitle("Counts", 2);
    meZdcEneHadN2_ = ib.book1D("NZDC HAD2 Energy", "Energy HAD module N2", 4000, 0., 8000.);
    meZdcEneHadN2_->setAxisTitle("Energy (GeV)", 1);
    meZdcEneHadN2_->setAxisTitle("Counts", 2);
    meZdcEneHadN3_ = ib.book1D("NZDC HAD3 Energy", "Energy HAD module N3", 4000, 0., 8000.);
    meZdcEneHadN3_->setAxisTitle("Energy (GeV)", 1);
    meZdcEneHadN3_->setAxisTitle("Counts", 2);
    meZdcEneHadN4_ = ib.book1D("NZDC HAD4 Energy", "Energy HAD module N4", 4000, 0., 8000.);
    meZdcEneHadN4_->setAxisTitle("Energy (GeV)", 1);
    meZdcEneHadN4_->setAxisTitle("Counts", 2);
    ib.setCurrentFolder("ZDCValidation/ZdcSimHits/Excess_Info/Individual_ChannelvsTime/NZDC");
    meZdcEneTEmN1_ = ib.book2D("NZDC EM1 Energy vs Time", "Energy EM mod N1 vs Time", 4000, 0., 8000., 300, 0., 600.);
    meZdcEneTEmN1_->setAxisTitle("Energy (GeV)", 1);
    meZdcEneTEmN1_->setAxisTitle("Time (ns)", 2);
    meZdcEneTEmN2_ = ib.book2D("NZDC EM2 Energy vs Time", "Energy EM mod N2 vs Time", 4000, 0., 8000., 300, 0., 600.);
    meZdcEneTEmN2_->setAxisTitle("Energy (GeV)", 1);
    meZdcEneTEmN2_->setAxisTitle("Time (ns)", 2);
    meZdcEneTEmN3_ = ib.book2D("NZDC EM3 Energy vs Time", "Energy EM mod N3 vs Time", 4000, 0., 8000., 300, 0., 600.);
    meZdcEneTEmN3_->setAxisTitle("Energy (GeV)", 1);
    meZdcEneTEmN3_->setAxisTitle("Time (ns)", 2);
    meZdcEneTEmN4_ = ib.book2D("NZDC EM4 Energy vs Time", "Energy EM mod N4 vs Time", 4000, 0., 8000., 300, 0., 600.);
    meZdcEneTEmN4_->setAxisTitle("Energy (GeV)", 1);
    meZdcEneTEmN4_->setAxisTitle("Time (ns)", 2);
    meZdcEneTEmN5_ = ib.book2D("NZDC EM5 Energy vs Time", "Energy EM mod N5 vs Time", 4000, 0., 8000., 300, 0., 600.);
    meZdcEneTEmN5_->setAxisTitle("Energy (GeV)", 1);
    meZdcEneTEmN5_->setAxisTitle("Time (ns)", 2);
    meZdcEneTHadN1_ =
        ib.book2D("NZDC HAD1 Energy vs Time", "Energy HAD mod N1 vs Time", 4000, 0., 8000., 300, 0., 600.);
    meZdcEneTHadN1_->setAxisTitle("Energy (GeV)", 1);
    meZdcEneTHadN1_->setAxisTitle("Time (ns)", 2);
    meZdcEneTHadN2_ =
        ib.book2D("NZDC HAD2 Energy vs Time", "Energy HAD mod N2 vs Time", 4000, 0., 8000., 300, 0., 600.);
    meZdcEneTHadN2_->setAxisTitle("Energy (GeV)", 1);
    meZdcEneTHadN2_->setAxisTitle("Time (ns)", 2);
    meZdcEneTHadN3_ =
        ib.book2D("NZDC HAD3 Energy vs Time", "Energy HAD mod N3 vs Time", 4000, 0., 8000., 300, 0., 600.);
    meZdcEneTHadN3_->setAxisTitle("Energy (GeV)", 1);
    meZdcEneTHadN3_->setAxisTitle("Time (ns)", 2);
    meZdcEneTHadN4_ =
        ib.book2D("NZDC HAD4 Energy vs Time", "Energy HAD mod N4 vs Time", 4000, 0., 8000., 300, 0., 600.);
    meZdcEneTHadN4_->setAxisTitle("Energy (GeV)", 1);
    meZdcEneTHadN4_->setAxisTitle("Time (ns)", 2);
    ib.setCurrentFolder("ZDCValidation/ZdcSimHits/ENERGY_SUMS/NZDC");
    meZdcEneHadNTot_ = ib.book1D("NZDC EHAD", "Total N-ZDC HAD Energy", 4000, 0., 4000.);
    meZdcEneHadNTot_->setAxisTitle("Counts", 2);
    meZdcEneHadNTot_->setAxisTitle("Energy (GeV)", 1);
    meZdcEneEmNTot_ = ib.book1D("NZDC EEM", "Total N-ZDC EM Energy", 3000, 0., 3000.);
    meZdcEneEmNTot_->setAxisTitle("Counts", 2);
    meZdcEneEmNTot_->setAxisTitle("Energy (GeV)", 1);
    meZdcEneNTot_ = ib.book1D("NZDC ETOT", "Total N-ZDC Energy ", 7000, 0., 7000.);
    meZdcEneNTot_->setAxisTitle("Counts", 2);
    meZdcEneNTot_->setAxisTitle("Energy (GeV)", 1);
    ib.setCurrentFolder("ZDCValidation/ZdcSimHits/ENERGY_SUMS/Individual_Channels/PZDC");
    meZdcEneEmP1_ = ib.book1D("PZDC EM1 Energy", "Energy EM module P1", 3000, 0., 3000.);
    meZdcEneEmP1_->setAxisTitle("Energy (GeV)", 1);
    meZdcEneEmP1_->setAxisTitle("Counts", 2);
    meZdcEneEmP2_ = ib.book1D("PZDC EM2 Energy", "Energy EM module P2", 3000, 0., 3000.);
    meZdcEneEmP2_->setAxisTitle("Energy (GeV)", 1);
    meZdcEneEmP2_->setAxisTitle("Counts", 2);
    meZdcEneEmP3_ = ib.book1D("PZDC EM3 Energy", "Energy EM module P3", 3000, 0., 3000.);
    meZdcEneEmP3_->setAxisTitle("Energy (GeV)", 1);
    meZdcEneEmP3_->setAxisTitle("Counts", 2);
    meZdcEneEmP4_ = ib.book1D("PZDC EM4 Energy", "Energy EM module P4", 3000, 0., 3000.);
    meZdcEneEmP4_->setAxisTitle("Energy (GeV)", 1);
    meZdcEneEmP4_->setAxisTitle("Counts", 2);
    meZdcEneEmP5_ = ib.book1D("PZDC EM5 Energy", "Energy EM module P5", 3000, 0., 3000.);
    meZdcEneEmP5_->setAxisTitle("Energy (GeV)", 1);
    meZdcEneEmP5_->setAxisTitle("Counts", 2);
    meZdcEneHadP1_ = ib.book1D("PZDC HAD1 Energy", "Energy HAD module P1", 3000, 0., 3000.);
    meZdcEneHadP1_->setAxisTitle("Energy (GeV)", 1);
    meZdcEneHadP1_->setAxisTitle("Counts", 2);
    meZdcEneHadP2_ = ib.book1D("PZDC HAD2 Energy", "Energy HAD module P2", 3000, 0., 3000.);
    meZdcEneHadP2_->setAxisTitle("Energy (GeV)", 1);
    meZdcEneHadP2_->setAxisTitle("Counts", 2);
    meZdcEneHadP3_ = ib.book1D("PZDC HAD3 Energy", "Energy HAD module P3", 3000, 0., 3000.);
    meZdcEneHadP3_->setAxisTitle("Energy (GeV)", 1);
    meZdcEneHadP3_->setAxisTitle("Counts", 2);
    meZdcEneHadP4_ = ib.book1D("PZDC HAD4 Energy", "Energy HAD module P4", 3000, 0., 3000.);
    meZdcEneHadP4_->setAxisTitle("Energy (GeV)", 1);
    meZdcEneHadP4_->setAxisTitle("Counts", 2);
    ib.setCurrentFolder("ZDCValidation/ZdcSimHits/Excess_Info/Individual_ChannelvsTime/PZDC");
    meZdcEneTEmP1_ = ib.book2D("PZDC EM1 Energy vs Time", "Energy EM mod P1 vs Time", 4000, 0., 8000., 300, 0., 600.);
    meZdcEneTEmP1_->setAxisTitle("Energy (GeV)", 1);
    meZdcEneTEmP1_->setAxisTitle("Time (ns)", 2);
    meZdcEneTEmP2_ = ib.book2D("PZDC EM2 Energy vs Time", "Energy EM mod P2 vs Time", 4000, 0., 8000., 300, 0., 600.);
    meZdcEneTEmP2_->setAxisTitle("Energy (GeV)", 1);
    meZdcEneTEmP2_->setAxisTitle("Time (ns)", 2);
    meZdcEneTEmP3_ = ib.book2D("PZDC EM3 Energy vs Time", "Energy EM mod P3 vs Time", 4000, 0., 8000., 300, 0., 600.);
    meZdcEneTEmP3_->setAxisTitle("Energy (GeV)", 1);
    meZdcEneTEmP3_->setAxisTitle("Time (ns)", 2);
    meZdcEneTEmP4_ = ib.book2D("PZDC EM4 Energy vs Time", "Energy EM mod P4 vs Time", 4000, 0., 8000., 300, 0., 600.);
    meZdcEneTEmP4_->setAxisTitle("Energy (GeV)", 1);
    meZdcEneTEmP4_->setAxisTitle("Time (ns)", 2);
    meZdcEneTEmP5_ = ib.book2D("PZDC EM5 Energy vs Time", "Energy EM mod P5 vs Time", 4000, 0., 8000., 300, 0., 600.);
    meZdcEneTEmP5_->setAxisTitle("Energy (GeV)", 1);
    meZdcEneTEmP5_->setAxisTitle("Time (ns)", 2);
    meZdcEneTHadP1_ =
        ib.book2D("PZDC HAD1 Energy vs Time", "Energy HAD mod P1 vs Time", 4000, 0., 8000., 300, 0., 600.);
    meZdcEneTHadP1_->setAxisTitle("Energy (GeV)", 1);
    meZdcEneTHadP1_->setAxisTitle("Time (ns)", 2);
    meZdcEneTHadP2_ =
        ib.book2D("PZDC HAD2 Energy vs Time", "Energy HAD mod P2 vs Time", 4000, 0., 8000., 300, 0., 600.);
    meZdcEneTHadP2_->setAxisTitle("Energy (GeV)", 1);
    meZdcEneTHadP2_->setAxisTitle("Time (ns)", 2);
    meZdcEneTHadP3_ =
        ib.book2D("PZDC HAD3 Energy vs Time", "Energy HAD mod P3 vs Time", 4000, 0., 8000., 300, 0., 600.);
    meZdcEneTHadP3_->setAxisTitle("Energy (GeV)", 1);
    meZdcEneTHadP3_->setAxisTitle("Time (ns)", 2);
    meZdcEneTHadP4_ =
        ib.book2D("PZDC HAD4 Energy vs Time", "Energy HAD mod P4 vs Time", 4000, 0., 8000., 300, 0., 600.);
    meZdcEneTHadP4_->setAxisTitle("Energy (GeV)", 1);
    meZdcEneTHadP4_->setAxisTitle("Time (ns)", 2);
    ib.setCurrentFolder("ZDCValidation/ZdcSimHits/ENERGY_SUMS/PZDC");
    meZdcEneHadPTot_ = ib.book1D("PZDC EHAD", "Total P-ZDC HAD Energy", 10000, 0., 10000.);
    meZdcEneHadPTot_->setAxisTitle("Energy (GeV)", 1);
    meZdcEneHadPTot_->setAxisTitle("Counts", 2);
    meZdcEneEmPTot_ = ib.book1D("PZDC EEM", "Total P-ZDC EM Energy", 10000, 0., 10000.);
    meZdcEneEmPTot_->setAxisTitle("Energy (GeV)", 1);
    meZdcEneEmPTot_->setAxisTitle("Counts", 2);
    meZdcEnePTot_ = ib.book1D("PZDC ETOT", "Total P-ZDC Energy", 10000, 0., 10000.);
    meZdcEnePTot_->setAxisTitle("Energy (GeV)", 1);
    meZdcEnePTot_->setAxisTitle("Counts", 2);
    ib.setCurrentFolder("ZDCValidation/ZdcSimHits/ENERGY_SUMS/NZDC");
    meZdcCorEEmNEHadN_ = ib.book2D("NZDC EMvHAD", "N-ZDC Energy EM vs HAD", 3000, 0., 3000., 3000, 0., 3000.);
    meZdcCorEEmNEHadN_->setAxisTitle("EM Energy (GeV)", 1);
    meZdcCorEEmNEHadN_->setAxisTitle("HAD Energy (GeV)", 2);
    ib.setCurrentFolder("ZDCValidation/ZdcSimHits/ENERGY_SUMS/PZDC");
    meZdcCorEEmPEHadP_ = ib.book2D("PZDC EMvHAD", "P-ZDC Energy EM vs HAD", 3000, 0., 3000., 3000, 0., 3000.);
    meZdcCorEEmPEHadP_->setAxisTitle("EM Energy (GeV)", 1);
    meZdcCorEEmPEHadP_->setAxisTitle("HAD Energy (GeV)", 2);
    ib.setCurrentFolder("ZDCValidation/ZdcSimHits/ENERGY_SUMS");
    meZdcCorEtotNEtotP_ = ib.book2D("PZDC vs NZDC", "Energy N-ZDC vs P-ZDC", 3000, 0., 3000., 3000, 0., 3000.);
    meZdcCorEtotNEtotP_->setAxisTitle("N-ZDC Total Energy (GeV)", 1);
    meZdcCorEtotNEtotP_->setAxisTitle("P-ZDC Total Energy (GeV)", 2);
    meZdcEneTot_ = ib.book1D("ETOT ZDCs", "Total Energy ZDCs", 3000, 0., 3000.);
    meZdcEneTot_->setAxisTitle("Counts", 2);
    meZdcEneTot_->setAxisTitle("Energy (GeV)", 1);


    ib.setCurrentFolder("ZDCValidation/GenParticles/Forward");
    genpart_Pi0F = ib.book2D("Pi0_Forward", "Forward Generated Pi0s", 200, 7.5, 13, 100, -3.15, 3.15);
    genpart_Pi0F->setAxisTitle("Eta", 1);
    genpart_Pi0F->setAxisTitle("Phi (radians)", 2);
    genpart_Pi0F->setAxisTitle("Energy (GeV)", 3);
    genpart_Pi0F->setOption("lego2z,prof");
    genpart_Pi0F->getTH2F()->SetTitleOffset(1.4, "x");
    genpart_Pi0F->getTH2F()->SetTitleOffset(1.4, "y");

    genpart_Pi0F_counts =
        ib.book2D("Pi0_Forward_Counts", "Number of Forward Generated Pi0s", 200, 7.5, 13, 100, -3.15, 3.15);
    genpart_Pi0F_counts->setAxisTitle("#eta", 1);
    genpart_Pi0F_counts->setAxisTitle("#phi (radians)", 2);
    genpart_Pi0F_counts->setAxisTitle("Energy (GeV)", 3);
    genpart_Pi0F_counts->setOption("lego2z,prof");
    genpart_Pi0F_counts->getTH2F()->SetTitleOffset(1.4, "x");
    genpart_Pi0F_counts->getTH2F()->SetTitleOffset(1.4, "y");

    genpart_NeutF = ib.book2D("Neutron_Forward", "Forward Generated Neutrons", 200, 7.5, 13, 100, -3.15, 3.15);
    genpart_NeutF->setAxisTitle("Eta", 1);
    genpart_NeutF->setAxisTitle("Phi (radians)", 2);
    genpart_NeutF->setAxisTitle("Energy (GeV)", 3);
    genpart_NeutF->setOption("lego2z,prof");
    genpart_NeutF->getTH2F()->SetTitleOffset(1.4, "x");
    genpart_NeutF->getTH2F()->SetTitleOffset(1.4, "y");

    genpart_NeutF_counts =
        ib.book2D("Neutron_Forward_Counts", "Number of Forward Generated Neutrons", 200, 7.5, 13, 100, -3.15, 3.15);
    genpart_NeutF_counts->setAxisTitle("#eta", 1);
    genpart_NeutF_counts->setAxisTitle("#phi (radians)", 2);
    genpart_NeutF_counts->setAxisTitle("Energy (GeV)", 3);
    genpart_NeutF_counts->setOption("lego2z,prof");
    genpart_NeutF_counts->getTH2F()->SetTitleOffset(1.4, "x");
    genpart_NeutF_counts->getTH2F()->SetTitleOffset(1.4, "y");

    genpart_GammaF = ib.book2D("Gamma_Forward", "Forward Generated Gammas", 200, 7.5, 13, 100, -3.15, 3.15);
    genpart_GammaF->setAxisTitle("Eta", 1);
    genpart_GammaF->setAxisTitle("Phi (radians)", 2);
    genpart_GammaF->setAxisTitle("Energy (GeV)", 3);
    genpart_GammaF->setOption("lego2z,prof");
    genpart_GammaF->getTH2F()->SetTitleOffset(1.4, "x");
    genpart_GammaF->getTH2F()->SetTitleOffset(1.4, "y");

    genpart_GammaF_counts =
        ib.book2D("Gamma_Forward_Counts", "Number of Forward Generated Gammas", 200, 7.5, 13, 100, -3.15, 3.15);
    genpart_GammaF_counts->setAxisTitle("#eta", 1);
    genpart_GammaF_counts->setAxisTitle("#phi (radians)", 2);
    genpart_GammaF_counts->setAxisTitle("Energy (GeV)", 3);
    genpart_GammaF_counts->setOption("lego2z,prof");
    genpart_GammaF_counts->getTH2F()->SetTitleOffset(1.4, "x");
    genpart_GammaF_counts->getTH2F()->SetTitleOffset(1.4, "y");

    genpart_Pi0F_energydist = ib.book1D("Pi0_Forward_EDistribution", "Gen-Level Forward Pi0 Energy", 1500, 0, 1500);
    genpart_Pi0F_energydist->setAxisTitle("Energy (GeV)", 1);
    genpart_Pi0F_energydist->setAxisTitle("Counts", 2);
    genpart_NeutF_energydist = ib.book1D("N_Forward_EDistribution", "Gen-Level Forward Neutron Energy", 1500, 0, 1500);
    genpart_NeutF_energydist->setAxisTitle("Energy (GeV)", 1);
    genpart_NeutF_energydist->setAxisTitle("Counts", 2);
    genpart_GammaF_energydist =
        ib.book1D("Gamma_Forward_EDistribution", "Gen-Level Fowarad Gamma Energy", 1500, 0, 1500);
    genpart_GammaF_energydist->setAxisTitle("Energy (GeV)", 1);
    genpart_GammaF_energydist->setAxisTitle("Counts", 2);
    ib.setCurrentFolder("ZDCValidation/GenParticles/Backward");
    genpart_Pi0B = ib.book2D("Pi0_Backward", "Backward Generated Pi0s", 1000, -13, -7.5, 100, -3.15, 3.15);
    genpart_Pi0B->setAxisTitle("Eta", 1);
    genpart_Pi0B->setAxisTitle("Phi (radians)", 2);
    genpart_Pi0B->setAxisTitle("Energy (GeV)", 3);
    genpart_Pi0B->setOption("lego2z,prof");
    genpart_Pi0B->getTH2F()->SetTitleOffset(1.4, "x");
    genpart_Pi0B->getTH2F()->SetTitleOffset(1.4, "y");

    genpart_Pi0B_counts =
        ib.book2D("Pi0_Backwards_Counts", "Number of Backward Generated Pi0s", 200, -13, -7.5, 100, -3.15, 3.15);
    genpart_Pi0B_counts->setAxisTitle("#eta", 1);
    genpart_Pi0B_counts->setAxisTitle("#phi (radians)", 2);
    genpart_Pi0B_counts->setAxisTitle("Energy (GeV)", 3);
    genpart_Pi0B_counts->setOption("lego2z,prof");
    genpart_Pi0B_counts->getTH2F()->SetTitleOffset(1.4, "x");
    genpart_Pi0B_counts->getTH2F()->SetTitleOffset(1.4, "y");

    genpart_NeutB = ib.book2D("Neutron_Backward", "Backward Generated Neutrons", 1000, -13, -7.5, 100, -3.15, 3.15);
    genpart_NeutB->setAxisTitle("Eta", 1);
    genpart_NeutB->setAxisTitle("Phi (radians)", 2);
    genpart_NeutB->setAxisTitle("Energy (GeV)", 3);
    genpart_NeutB->setOption("lego2z,prof");
    genpart_NeutB->getTH2F()->SetTitleOffset(1.4, "x");
    genpart_NeutB->getTH2F()->SetTitleOffset(1.4, "y");

    genpart_NeutB_counts = ib.book2D(
        "Neutron_Backwards_Counts", "Number of Backward Generated Neutrons", 200, -13, -7.5, 100, -3.15, 3.15);
    genpart_NeutB_counts->setAxisTitle("#eta", 1);
    genpart_NeutB_counts->setAxisTitle("#phi (radians)", 2);
    genpart_NeutB_counts->setAxisTitle("Energy (GeV)", 3);
    genpart_NeutB_counts->setOption("lego2z,prof");
    genpart_NeutB_counts->getTH2F()->SetTitleOffset(1.4, "x");
    genpart_NeutB_counts->getTH2F()->SetTitleOffset(1.4, "y");

    genpart_GammaB = ib.book2D("Gamma_Backward", "Backward Generated Gammas", 1000, -13, -7.5, 100, -3.15, 3.15);
    genpart_GammaB->setAxisTitle("Eta", 1);
    genpart_GammaB->setAxisTitle("Phi (radians)", 2);
    genpart_GammaB->setAxisTitle("Energy (GeV)", 3);
    genpart_GammaB->setOption("lego2z,prof");
    genpart_GammaB->getTH2F()->SetTitleOffset(1.4, "x");
    genpart_GammaB->getTH2F()->SetTitleOffset(1.4, "y");

    genpart_GammaB_counts =
        ib.book2D("Gamma_Backwards_Counts", "Number of Backward Generated Gammas", 200, -13, -7.5, 100, -3.15, 3.15);
    genpart_GammaB_counts->setAxisTitle("#eta", 1);
    genpart_GammaB_counts->setAxisTitle("#phi (radians)", 2);
    genpart_GammaB_counts->setAxisTitle("Energy (GeV)", 3);
    genpart_GammaB_counts->setOption("lego2z,prof");
    genpart_GammaB_counts->getTH2F()->SetTitleOffset(1.4, "x");
    genpart_GammaB_counts->getTH2F()->SetTitleOffset(1.4, "y");

    genpart_Pi0B_energydist = ib.book1D("Pi0_Backward_EDistribution", "Gen-Level Backward Pi0 Energy", 1500, 0, 1500);
    genpart_Pi0B_energydist->setAxisTitle("Energy (GeV)", 1);
    genpart_Pi0B_energydist->setAxisTitle("Counts", 2);
    genpart_NeutB_energydist = ib.book1D("N_Backward_EDistribution", "Gen-Level Foward Neutron Energy", 1500, 0, 1500);
    genpart_NeutB_energydist->setAxisTitle("Energy (GeV)", 1);
    genpart_NeutB_energydist->setAxisTitle("Counts", 2);
    genpart_GammaB_energydist =
        ib.book1D("Gamma_Backward_EDistribution", "Gen-Level Backward Gamma Energy", 1500, 0, 1500);
    genpart_GammaB_energydist->setAxisTitle("Energy (GeV)", 1);
    genpart_GammaB_energydist->setAxisTitle("Counts", 2);
  }
}

// let's see if this breaks anything
/*void ZdcSimHitStudy::endJob() {
  if (dbe_ && outFile_.size() > 0) dbe_->save(outFile_);
  }*/

// void ZdcSimHitStudy::analyze(const edm::Event& e, const edm::EventSetup& ) {
void ZdcSimHitStudy::analyze(const edm::Event &iEvent, const edm::EventSetup &iSetup) {

  using namespace edm;
  bool gotGenParticles = true;

  const edm::Handle<reco::GenParticleCollection> &genhandle = iEvent.getHandle(tok_gen_);

  if (!(genhandle.isValid())) {
    gotGenParticles = false;  // this is the same kind of boolean except for the
  }

  // Handle<edm::PCaloHitContainer> zdcsimhandle;


  if (gotGenParticles) {  // if the boolean was able to find the leaf
                          // "genparticles" then do this
    for (reco::GenParticleCollection::const_iterator gen = genhandle->begin(); gen != genhandle->end();
         ++gen)  // here we iterate over all generated particles
    {
      //         double energy=gen->energy();
      reco::GenParticle thisParticle = (reco::GenParticle)(*gen);  // get the particle "gen" points to
      double energy_2 = thisParticle.energy();  // here I grab some of the attributes of the generated
                                                // particle....like its energy, its phi and its eta and
                                                // what kind of particle it is
      double gen_phi = thisParticle.phi();
      double gen_eta = thisParticle.eta();
      int gen_id = thisParticle.pdgId();

      if (gen_id == 111) {    // here i require a pi0
        if (gen_eta > 8.3) {  // eta requirement

          //# IMPORTANT     IMPORTANT         IMPORTANT            IMPORTANT #
          //# The real eta of the ZDC is |eta| > 8.3, I have only changed it
          // here to 3 because# # in the PG simulation the ZDC is at an eta of
          // about 4.5-7, in the real GEANT the # # ZDC is in its appropriate
          // place at the very foward region...please edit this if # # looking
          // at MinBias data or the like # # # # IMPORTANT     IMPORTANT
          // IMPORTANT IMPORTANT                          #

          genpart_Pi0F->Fill(gen_eta, gen_phi, energy_2);  // fill the lego plot
          genpart_Pi0F_counts->Fill(gen_eta, gen_phi, 1);
          // genpart_Pi0F_profile->Fill(gen_eta,gen_phi,energy_2);
          genpart_Pi0F_energydist->Fill(energy_2);  // fill the 1D distribution
        }
        if (gen_eta < -8.3) {  // neg eta requirement
          genpart_Pi0B->Fill(gen_eta, gen_phi, energy_2);
          // genpart_Pi0B_profile->Fill(gen_eta,gen_phi,energy_2);
          genpart_Pi0B_counts->Fill(gen_eta, gen_phi, 1);
          genpart_Pi0B_energydist->Fill(energy_2);
        }
      }
      if (gen_id == 2112) {  // require neutron
        if (gen_eta > 8.3) {
          genpart_NeutF->Fill(gen_eta, gen_phi, energy_2);
          // genpart_NeutF_profile->Fill(gen_eta,gen_phi,energy_2);
          genpart_NeutF_counts->Fill(gen_eta, gen_phi, 1);
          genpart_NeutF_energydist->Fill(energy_2);
        }
        if (gen_eta < -8.3) {
          genpart_NeutB->Fill(gen_eta, gen_phi, energy_2);
          // genpart_NeutB_profile->Fill(gen_eta,gen_phi,energy_2);
          genpart_NeutB_counts->Fill(gen_eta, gen_phi, 1);
          genpart_NeutB_energydist->Fill(energy_2);
        }
      }

      if (gen_id == 22) {  // require gamma
        if (gen_eta > 8.3) {
          genpart_GammaF->Fill(gen_eta, gen_phi, energy_2);
          // genpart_GammaF_profile->Fill(gen_eta,gen_phi,energy_2);
          genpart_GammaF_counts->Fill(gen_eta, gen_phi, 1);
          genpart_GammaF_energydist->Fill(energy_2);
        }
        if (gen_eta < -8.3) {
          genpart_GammaB->Fill(gen_eta, gen_phi, energy_2);
          // genpart_GammaB_profile->Fill(gen_eta,gen_phi,energy_2);
          genpart_GammaB_counts->Fill(gen_eta, gen_phi, 1);
          genpart_GammaB_energydist->Fill(energy_2);
        }
      }

    }  // end of GEN loop
  }


  // Below is the old script which I will comment later

  edm::LogVerbatim("ZdcSimHitStudy") << "Run = " << iEvent.id().run() << " Event = " << iEvent.id().event();

  bool getHits = false;
  if (checkHit_) {
    const edm::Handle<edm::PCaloHitContainer> &hitsZdc = iEvent.getHandle(tok_hits_);
    if (hitsZdc.isValid()) {
      getHits = true;
      std::vector<PCaloHit> caloHits;
      caloHits.insert(caloHits.end(), hitsZdc->begin(), hitsZdc->end());
      edm::LogVerbatim("ZdcSimHitStudy") << "ZdcValidation: Hit buffer " << caloHits.size();
      analyzeHits(caloHits);
    }
  }

  edm::LogVerbatim("ZdcSim") << "ZdcValidation: Input flags Hits " << getHits;
}

void ZdcSimHitStudy::analyzeHits(std::vector<PCaloHit> &hits) {
  int nHit = hits.size();
  int nZdcEM = 0, nZdcHad = 0, nZdcLum = 0;
  int nBad1 = 0, nBad2 = 0, nBad = 0;
  std::vector<double> encontZdcEM(140, 0.);
  std::vector<double> encontZdcHad(140, 0.);
  double entotZdcEM = 0;
  double entotZdcHad = 0;

  enetotEmN = 0;
  enetotHadN = 0.;
  enetotN = 0;
  enetotEmP = 0;
  enetotHadP = 0;
  enetotP = 0;
  enetot = 0;

  for (int i = 0; i < nHit; i++) {
    double energy = hits[i].energy();
    double log10en = log10(energy);
    int log10i = int((log10en + 10.) * 10.);
    double time = hits[i].time();
    unsigned int id_ = hits[i].id();
    HcalZDCDetId id = HcalZDCDetId(id_);
    int det = id.det();
    int side = id.zside();
    int section = id.section();
    int channel = id.channel();

    FillHitValHist(side, section, channel, energy, time);

    edm::LogVerbatim("ZdcSimHitStudy") << "Hit[" << i << "] ID " << std::hex << id_ << std::dec << " DetID " << id
                                       << " Det " << det << " side " << side << " Section " << section << " channel "
                                       << channel << " E " << energy << " time \n"
                                       << time;

    if (det == 5) {  // Check DetId.h
      if (section == HcalZDCDetId::EM)
        nZdcEM++;
      else if (section == HcalZDCDetId::HAD)
        nZdcHad++;
      else if (section == HcalZDCDetId::LUM)
        nZdcLum++;
      else {
        nBad++;
        nBad2++;
      }
    } else {
      nBad++;
      nBad1++;
    }

    meZdcDetectHit_->Fill(double(det));
    if (det == 5) {
      meZdcSideHit_->Fill(double(side));
      meZdcSectionHit_->Fill(double(section));
      meZdcChannelHit_->Fill(double(channel));
      meZdcEnergyHit_->Fill(energy);
      if (section == HcalZDCDetId::EM) {
        meZdcEMEnergyHit_->Fill(energy);
        meZdcEEMCh_->Fill(energy, channel);
        if (log10i >= 0 && log10i < 140)
          encontZdcEM[log10i] += energy;
        entotZdcEM += energy;
      }
      if (section == HcalZDCDetId::HAD) {
        meZdcHadEnergyHit_->Fill(energy);
        meZdcEHadCh_->Fill(energy, channel);
        if (log10i >= 0 && log10i < 140)
          encontZdcHad[log10i] += energy;
        entotZdcHad += energy;
      }
      meZdcTimeHit_->Fill(time);
      meZdcTimeWHit_->Fill(double(time), energy);
      meZdc10Ene_->Fill(log10en);
      meZdcETime_->Fill(energy, double(time));
    }
  }

  if (entotZdcEM != 0)
    for (int i = 0; i < 140; i++)
      meZdcEML10EneP_->Fill(-10. + (float(i) + 0.5) / 10., encontZdcEM[i] / entotZdcEM);
  if (entotZdcHad != 0)
    for (int i = 0; i < 140; i++)
      meZdcHadL10EneP_->Fill(-10. + (float(i) + 0.5) / 10., encontZdcHad[i] / entotZdcHad);

  if (nHit > 0) {
    meAllZdcNHit_->Fill(double(nHit));
    meBadZdcDetHit_->Fill(double(nBad1));
    meBadZdcSecHit_->Fill(double(nBad2));
    meBadZdcIdHit_->Fill(double(nBad));
    meZdcNHitEM_->Fill(double(nZdcEM));
    meZdcNHitHad_->Fill(double(nZdcHad));
    meZdcNHitLum_->Fill(double(nZdcLum));
    meZdcEnePTot_->Fill(enetotP);
    meZdcEneNTot_->Fill(enetotN);
    meZdcEneHadNTot_->Fill(enetotHadN);
    meZdcEneHadPTot_->Fill(enetotHadP);
    meZdcEneEmNTot_->Fill(enetotEmN);
    meZdcEneEmPTot_->Fill(enetotEmP);
    meZdcCorEEmNEHadN_->Fill(enetotEmN, enetotHadN);
    meZdcCorEEmPEHadP_->Fill(enetotEmP, enetotHadP);
    meZdcCorEtotNEtotP_->Fill(enetotN, enetotP);
    meZdcEneTot_->Fill(enetot);
  }
  edm::LogVerbatim("HcalSimHitStudy") << "HcalSimHitStudy::analyzeHits: Had " << nZdcHad << " EM " << nZdcEM << " Bad "
                                      << nBad << " All " << nHit;
}

int ZdcSimHitStudy::FillHitValHist(int side, int section, int channel, double energy, double time) {
  enetot += enetot;
  if (side == -1) {
    enetotN += energy;
    if (section == HcalZDCDetId::EM) {
      enetotEmN += energy;
      switch (channel) {
        case 1:
          meZdcEneEmN1_->Fill(energy);
          meZdcEneTEmN1_->Fill(energy, time);
          break;
        case 2:
          meZdcEneEmN2_->Fill(energy);
          meZdcEneTEmN2_->Fill(energy, time);
          break;
        case 3:
          meZdcEneEmN3_->Fill(energy);
          meZdcEneTEmN3_->Fill(energy, time);
          break;
        case 4:
          meZdcEneEmN4_->Fill(energy);
          meZdcEneTEmN4_->Fill(energy, time);
          break;
        case 5:
          meZdcEneEmN4_->Fill(energy);
          meZdcEneTEmN4_->Fill(energy, time);
          break;
      }
    }
    if (section == HcalZDCDetId::HAD) {
      enetotHadN += energy;
      switch (channel) {
        case 1:
          meZdcEneHadN1_->Fill(energy);
          meZdcEneTHadN1_->Fill(energy, time);
          break;
        case 2:
          meZdcEneHadN2_->Fill(energy);
          meZdcEneTHadN2_->Fill(energy, time);
          break;
        case 3:
          meZdcEneHadN3_->Fill(energy);
          meZdcEneTHadN3_->Fill(energy, time);
          break;
        case 4:
          meZdcEneHadN4_->Fill(energy);
          meZdcEneTHadN4_->Fill(energy, time);
          break;
      }
    }
  }
  if (side == 1) {
    enetotP += energy;
    if (section == HcalZDCDetId::EM) {
      enetotEmP += energy;
      switch (channel) {
        case 1:
          meZdcEneEmP1_->Fill(energy);
          meZdcEneTEmP1_->Fill(energy, time);
          break;
        case 2:
          meZdcEneEmP2_->Fill(energy);
          meZdcEneTEmP2_->Fill(energy, time);
          break;
        case 3:
          meZdcEneEmP3_->Fill(energy);
          meZdcEneTEmP3_->Fill(energy, time);
          break;
        case 4:
          meZdcEneEmP4_->Fill(energy);
          meZdcEneTEmP4_->Fill(energy, time);
          break;
        case 5:
          meZdcEneEmP4_->Fill(energy);
          meZdcEneTEmP4_->Fill(energy, time);
          break;
      }
    }
    if (section == HcalZDCDetId::HAD) {
      enetotHadP += energy;
      switch (channel) {
        case 1:
          meZdcEneHadP1_->Fill(energy);
          meZdcEneTHadP1_->Fill(energy, time);
          break;
        case 2:
          meZdcEneHadP2_->Fill(energy);
          meZdcEneTHadP2_->Fill(energy, time);
          break;
        case 3:
          meZdcEneHadP3_->Fill(energy);
          meZdcEneTHadP3_->Fill(energy, time);
          break;
        case 4:
          meZdcEneHadP4_->Fill(energy);
          meZdcEneTHadP4_->Fill(energy, time);
          break;
      }
    }
  }
  return 0;
}

#include "FWCore/Framework/interface/MakerMacros.h"
#include "FWCore/PluginManager/interface/ModuleDef.h"

DEFINE_FWK_MODULE(ZdcSimHitStudy);