#include <HiggsDQM.h>

Inheritance diagram for HiggsDQM:

Public Member Functions
	HiggsDQM (const edm::ParameterSet &ps)
virtual	~HiggsDQM ()
Protected Member Functions
void	analyze (edm::Event const &e, edm::EventSetup const &eSetup)
void	beginJob ()
void	beginLuminosityBlock (edm::LuminosityBlock const &lumiSeg, edm::EventSetup const &context)
void	beginRun (edm::Run const &run, edm::EventSetup const &eSetup)
void	endJob ()
void	endLuminosityBlock (edm::LuminosityBlock const &lumiSeg, edm::EventSetup const &c)
void	endRun (edm::Run const &run, edm::EventSetup const &eSetup)
Private Member Functions
void	bookHistos (DQMStore *bei)
double	calcDeltaPhi (double phi1, double phi2)
double	Distance (const reco::Candidate &c1, const reco::Candidate &c2)
double	DistancePhi (const reco::Candidate &c1, const reco::Candidate &c2)
Private Attributes
DQMStore *	bei_
MonitorElement *	h_caloMet
MonitorElement *	h_caloMet_phi
MonitorElement *	h_dielemass
MonitorElement *	h_dimumass_GMGM
MonitorElement *	h_dimumass_GMTM
MonitorElement *	h_dimumass_TMTM
MonitorElement *	h_eCombIso
MonitorElement *	h_eEta
MonitorElement *	h_eMultiplicity
MonitorElement *	h_ePhi
MonitorElement *	h_ePt
MonitorElement *	h_jet2_et
MonitorElement *	h_jet_count
MonitorElement *	h_jet_et
MonitorElement *	h_lepcounts
MonitorElement *	h_mCombIso
MonitorElement *	h_mEta_GM
MonitorElement *	h_mEta_GMPT
MonitorElement *	h_mEta_GMTM
MonitorElement *	h_mEta_STAM
MonitorElement *	h_mEta_TM
MonitorElement *	h_mMultiplicity
MonitorElement *	h_mPhi_GM
MonitorElement *	h_mPhi_GMPT
MonitorElement *	h_mPhi_GMTM
MonitorElement *	h_mPhi_STAM
MonitorElement *	h_mPhi_TM
MonitorElement *	h_mPt_GM
MonitorElement *	h_mPt_GMPT
MonitorElement *	h_mPt_GMTM
MonitorElement *	h_mPt_STAM
MonitorElement *	h_mPt_TM
MonitorElement *	h_pfMet
MonitorElement *	h_pfMet_phi
MonitorElement *	h_vertex_chi2
MonitorElement *	h_vertex_d0
MonitorElement *	h_vertex_number
MonitorElement *	h_vertex_numTrks
MonitorElement *	h_vertex_sumTrks
HLTConfigProvider	hltConfigProvider_
int	ievt
int	irun
bool	isValidHltConfig_
int	leptonflavor
reco::CandidateCollection *	leptonscands_
unsigned long long	m_cacheID_
int	nElectron
int	nEvents_
int	nfourlept
int	nHiggs
int	nLepton
int	nLooseIsolEle
int	nLooseIsolMu
int	nLumiSecs_
int	nMuon
int	nZEE
int	nZMuMu
float	pi
double	ptThrMu1_
double	ptThrMu2_
edm::InputTag	theCaloJetCollectionLabel
edm::InputTag	theCaloMETCollectionLabel
std::string	theElecTriggerPathToPass
edm::InputTag	theElectronCollectionLabel
edm::InputTag	theMuonCollectionLabel
std::string	theMuonTriggerPathToPass
edm::InputTag	thePfMETCollectionLabel
edm::InputTag	theTriggerResultsCollection

Detailed Description

Definition at line 43 of file HiggsDQM.h.

Constructor & Destructor Documentation

HiggsDQM::HiggsDQM ( const edm::ParameterSet & ps )

Definition at line 129 of file HiggsDQM.cc.

References bookHistos(), edm::ParameterSet::getParameter(), edm::ParameterSet::getUntrackedParameter(), and cppFunctionSkipper::operator.

                                           {
 //cout<<"Entering  HiggsDQM::HiggsDQM: "<<endl;
 
  edm::LogInfo("HZZ4LeptonsDQM") <<  " Creating HZZ4LeptonsDQM " << "\n" ;

  bei_ = Service<DQMStore>().operator->();
  bei_->setCurrentFolder("Physics/Higgs");
  bookHistos(bei_);

  typedef std::vector<edm::InputTag> vtag;
  // Get parameters from configuration file
  theElecTriggerPathToPass    = ps.getParameter<string>("elecTriggerPathToPass");
  theMuonTriggerPathToPass    = ps.getParameter<string>("muonTriggerPathToPass");
  theTriggerResultsCollection = ps.getParameter<InputTag>("triggerResultsCollection");
  theMuonCollectionLabel      = ps.getParameter<InputTag>("muonCollection");
  theElectronCollectionLabel  = ps.getParameter<InputTag>("electronCollection");
  theCaloJetCollectionLabel   = ps.getParameter<InputTag>("caloJetCollection");
  theCaloMETCollectionLabel   = ps.getParameter<InputTag>("caloMETCollection");
  thePfMETCollectionLabel     = ps.getParameter<InputTag>("pfMETCollection");
  // just to initialize
  isValidHltConfig_ = false;
  // cuts:
  ptThrMu1_ = ps.getUntrackedParameter<double>("PtThrMu1");
  ptThrMu2_ = ps.getUntrackedParameter<double>("PtThrMu2");
 

  
 //cout<<"...leaving  HiggsDQM::HiggsDQM. "<<endl;
}

HiggsDQM::~HiggsDQM ( ) [virtual]

Definition at line 161 of file HiggsDQM.cc.

                   {
  //cout<<"Entering HiggsDQM::~HiggsDQM: "<<endl;
  
  edm::LogInfo("HiggsDQM") <<  " Deleting HiggsDQM " << "\n" ;

  //cout<<"...leaving HiggsDQM::~HiggsDQM. "<<endl;
}

Member Function Documentation

void HiggsDQM::analyze	(	edm::Event const &	e,
		edm::EventSetup const &	eSetup
	)		`[protected, virtual]`

Implements edm::EDAnalyzer.

Definition at line 258 of file HiggsDQM.cc.

References edm::EventID::event(), edm::Event::getByLabel(), muon::GlobalMuonPromptTight, i, edm::EventBase::id(), reco::Muon::isGlobalMuon(), muon::isGoodMuon(), reco::Muon::isTrackerMuon(), edm::HandleBase::isValid(), j, LogDebug, RPCpg::mu, reco::LeafCandidate::p(), PFMET_cfi::pfMet, edm::Handle< T >::product(), reco::LeafCandidate::pt(), reco::LeafCandidate::px(), reco::LeafCandidate::py(), reco::LeafCandidate::pz(), edm::EventID::run(), reco::Muon::SegmentAndTrackArbitration, muon::segmentCompatibility(), mathSSE::sqrt(), v, and GoodVertex_cfg::vertexCollection.

                                                                    {
  //cout<<"[HiggsDQM::analyze()] "<<endl;

//-------------------------------
//--- Trigger Info
//-------------------------------
  // short-circuit if hlt problems
  if( ! isValidHltConfig_ ) return;
  // Did it pass certain HLT path?
  Handle<TriggerResults> HLTresults;
  e.getByLabel(theTriggerResultsCollection, HLTresults); 
  if ( !HLTresults.isValid() ) return;
  //unsigned int triggerIndex_elec = hltConfig.triggerIndex(theElecTriggerPathToPass);
  //unsigned int triggerIndex_muon = hltConfig.triggerIndex(theMuonTriggerPathToPass);
  bool passed_electron_HLT = true;
  bool passed_muon_HLT     = true;
  //if (triggerIndex_elec < HLTresults->size()) passed_electron_HLT = HLTresults->accept(triggerIndex_elec);
  //if (triggerIndex_muon < HLTresults->size()) passed_muon_HLT     = HLTresults->accept(triggerIndex_muon);
  //if ( !(passed_electron_HLT || passed_muon_HLT) ) return;

//-------------------------------
//--- Vertex Info
//-------------------------------
  Handle<VertexCollection> vertexHandle;
  e.getByLabel("offlinePrimaryVertices", vertexHandle);
  if ( vertexHandle.isValid() ){
    VertexCollection vertexCollection = *(vertexHandle.product());
    int vertex_number     = vertexCollection.size();
    VertexCollection::const_iterator v = vertexCollection.begin();
    double vertex_chi2    = v->normalizedChi2(); //v->chi2();
    double vertex_d0      = sqrt(v->x()*v->x()+v->y()*v->y());
    //double vertex_ndof    = v->ndof();cout << "ndof="<<vertex_ndof<<endl;
    double vertex_numTrks = v->tracksSize();
    double vertex_sumTrks = 0.0;
    for (Vertex::trackRef_iterator vertex_curTrack = v->tracks_begin(); vertex_curTrack!=v->tracks_end(); vertex_curTrack++) {
      vertex_sumTrks += (*vertex_curTrack)->pt();
    }
    h_vertex_number->Fill(vertex_number);
    h_vertex_chi2->Fill(vertex_chi2);
    h_vertex_d0  ->Fill(vertex_d0);
    h_vertex_numTrks->Fill(vertex_numTrks);
    h_vertex_sumTrks->Fill(vertex_sumTrks);
  }
  
//-------------------------------
//--- Electrons
//-------------------------------
  float nEle=0;
  Handle<GsfElectronCollection> electronCollection;
  e.getByLabel(theElectronCollectionLabel, electronCollection);
  if ( electronCollection.isValid() ){
    int posEle=0,negEle=0;
    // If it passed electron HLT and the collection was found, find electrons near Z mass
    if( passed_electron_HLT ) {
      for (reco::GsfElectronCollection::const_iterator recoElectron=electronCollection->begin(); recoElectron!=electronCollection->end(); recoElectron++){
//      cout << "Electron with pt= " <<  recoElectron->pt() << " and eta" << recoElectron->eta() << " p=" <<  recoElectron->p() << endl;
        h_ePt->Fill(recoElectron->pt());
        h_eEta->Fill(recoElectron->eta());
        h_ePhi->Fill(recoElectron->phi());
        if(recoElectron->charge()==1){
          posEle++;
        }else if(recoElectron->charge()==-1){
          negEle++;
        }
      // Require electron to pass some basic cuts
      //if ( recoElectron->et() < 20 || fabs(recoElectron->eta())>2.5 ) continue;
      // Tighter electron cuts
      //if ( recoElectron->deltaPhiSuperClusterTrackAtVtx() > 0.58 || 
      //     recoElectron->deltaEtaSuperClusterTrackAtVtx() > 0.01 || 
      //     recoElectron->sigmaIetaIeta() > 0.027 ) continue;
      } // end of loop over electrons
    } // end if passed HLT
    nEle = posEle+negEle; if(nEle>9.) nEle=9.;
    h_eMultiplicity->Fill(nEle);  

    // Z->ee:
    unsigned int eleCollectionSize = electronCollection->size();
    for(unsigned int i=0; i<eleCollectionSize; i++) {
      const GsfElectron& ele = electronCollection->at(i);
      double pt = ele.pt();
      if(pt>ptThrMu1_){
        for(unsigned int j=i+1; j<eleCollectionSize; j++) {
          const GsfElectron& ele2 = electronCollection->at(j);
          double pt2 = ele2.pt();
          if(pt2>ptThrMu2_){
            const math::XYZTLorentzVector ZRecoEE (ele.px()+ele2.px(), ele.py()+ele2.py() , ele.pz()+ele2.pz(), ele.p()+ele2.p());
            h_dielemass->Fill(ZRecoEE.mass());
          }
        }
      }
    }
  }
  
  
  
//-------------------------------
//--- Muons
//-------------------------------
  float nMu=0;
  Handle<MuonCollection> muonCollection;
  e.getByLabel(theMuonCollectionLabel,muonCollection);
  if ( muonCollection.isValid() ){
    // Find the highest pt muons
    int posMu=0,negMu=0;
    TLorentzVector m1, m2;
    if( passed_muon_HLT ) {
      for (reco::MuonCollection::const_iterator recoMuon=muonCollection->begin(); recoMuon!=muonCollection->end(); recoMuon++){
        //cout << "Muon with pt= " <<  muIter->pt() << " and eta" << muIter->eta() << " p=" <<  muIter->p() << endl;
        if(recoMuon->isGlobalMuon()&&recoMuon->isTrackerMuon()){
          h_mPt_GMTM->Fill(recoMuon->pt());
          h_mEta_GMTM->Fill(recoMuon->eta());
          h_mPhi_GMTM->Fill(recoMuon->phi());
        }else if(recoMuon->isGlobalMuon()&&(muon::isGoodMuon( (*recoMuon),muon::GlobalMuonPromptTight))){
          h_mPt_GMPT->Fill(recoMuon->pt());
          h_mEta_GMPT->Fill(recoMuon->eta());
          h_mPhi_GMPT->Fill(recoMuon->phi());
        }else if(recoMuon->isGlobalMuon()){
          h_mPt_GM->Fill(recoMuon->pt());
          h_mEta_GM->Fill(recoMuon->eta());
          h_mPhi_GM->Fill(recoMuon->phi());
        }else if(recoMuon->isTrackerMuon()&&(muon::segmentCompatibility((*recoMuon),reco::Muon::SegmentAndTrackArbitration))){
          h_mPt_TM->Fill(recoMuon->pt());
          h_mEta_TM->Fill(recoMuon->eta());
          h_mPhi_TM->Fill(recoMuon->phi());
        }else if(recoMuon->isStandAloneMuon()){
          h_mPt_STAM->Fill(recoMuon->pt());
          h_mEta_STAM->Fill(recoMuon->eta());
          h_mPhi_STAM->Fill(recoMuon->phi());
        }
        if ( recoMuon->charge()==1 ){
          posMu++;
        }else if ( recoMuon->charge()==-1 ){
          negMu++;
        }
      }
      nMu = posMu+negMu; if(nMu>9.) nMu=9.;
      h_mMultiplicity->Fill(nMu);
    }

    // Z->mumu:
    unsigned int muonCollectionSize = muonCollection->size();
    for(unsigned int i=0; i<muonCollectionSize; i++) {
      const Muon& mu = muonCollection->at(i);
      //if (!mu.isGlobalMuon()) continue;
      double pt = mu.pt();
      if(pt>ptThrMu1_){
        for(unsigned int j=i+1; j<muonCollectionSize; j++) {
          const Muon& mu2 = muonCollection->at(j);
          double pt2 = mu2.pt();
          if(pt2>ptThrMu2_){
            // Glb + Glb  
            if(mu.isGlobalMuon() && mu2.isGlobalMuon()){
              const math::XYZTLorentzVector ZRecoGMGM (mu.px()+mu2.px(), mu.py()+mu2.py() , mu.pz()+mu2.pz(), mu.p()+mu2.p());
              h_dimumass_GMGM->Fill(ZRecoGMGM.mass());
            }
            // Glb + TM 
            else if(mu.isGlobalMuon() && mu2.isTrackerMuon()){
              const math::XYZTLorentzVector ZRecoGMTM (mu.px()+mu2.px(), mu.py()+mu2.py() , mu.pz()+mu2.pz(), mu.p()+mu2.p());
              h_dimumass_GMTM->Fill(ZRecoGMTM.mass());
            }
            // TM + TM 
            else if(mu.isTrackerMuon() && mu2.isTrackerMuon()){
              const math::XYZTLorentzVector ZRecoTMTM (mu.px()+mu2.px(), mu.py()+mu2.py() , mu.pz()+mu2.pz(), mu.p()+mu2.p());
              h_dimumass_TMTM->Fill(ZRecoTMTM.mass());
            }
          }
        }
      }
    }
  }
  
//-------------------------------
//--- Jets
//-------------------------------
  Handle<CaloJetCollection> caloJetCollection;
  e.getByLabel (theCaloJetCollectionLabel,caloJetCollection);
  if ( caloJetCollection.isValid() ){
    float jet_et    = -8.0;
    //    float jet_eta   = -8.0; // UNUSED
    //    float jet_phi   = -8.0; // UNUSED
    int   jet_count = 0;
    float jet2_et   = -9.0;
    //    float jet2_eta  = -9.0; // UNUSED
    //    float jet2_phi  = -9.0; // UNUSED
    for (CaloJetCollection::const_iterator i_calojet = caloJetCollection->begin(); i_calojet != caloJetCollection->end(); i_calojet++) {
      float jet_current_et = i_calojet->et();
      // if it overlaps with electron, it is not a jet
      //if ( electron_et>0.0 && fabs(i_calojet->eta()-electron_eta ) < 0.2 && calcDeltaPhi(i_calojet->phi(), electron_phi ) < 0.2) continue;
      //if ( electron2_et>0.0&& fabs(i_calojet->eta()-electron2_eta) < 0.2 && calcDeltaPhi(i_calojet->phi(), electron2_phi) < 0.2) continue;
      // if it has too low Et, throw away
      if (jet_current_et < 15) continue;
      jet_count++;
      if (jet_current_et > jet_et) {
        jet2_et  = jet_et;  // 2nd highest jet get's et from current highest
        //        jet2_eta = jet_eta; // UNUSED
        //        jet2_phi = jet_phi; // UNUSED
        jet_et   = i_calojet->et(); // current highest jet gets et from the new highest
        //        jet_eta  = i_calojet->eta(); // UNUSED
        //        jet_phi  = i_calojet->phi(); // UNUSED
      } else if (jet_current_et > jet2_et) {
        jet2_et  = i_calojet->et();
        //        jet2_eta = i_calojet->eta(); // UNUSED
        //        jet2_phi = i_calojet->phi(); // UNUSED
      }
    }
    if (jet_et>0.0) {
      h_jet_et   ->Fill(jet_et);
      h_jet_count->Fill(jet_count);
    }
  }
  
//-------------------------------
//--- MET
//-------------------------------
  Handle<CaloMETCollection> caloMETCollection;
  e.getByLabel(theCaloMETCollectionLabel, caloMETCollection);
  if ( caloMETCollection.isValid() ){
    float caloMet = caloMETCollection->begin()->et();
    float caloMet_phi = caloMETCollection->begin()->phi();
    h_caloMet        ->Fill(caloMet);
    h_caloMet_phi    ->Fill(caloMet_phi);
  }
  Handle<PFMETCollection> pfMETCollection;
  e.getByLabel(thePfMETCollectionLabel, pfMETCollection);
  if ( pfMETCollection.isValid() ){
    float pfMet = pfMETCollection->begin()->et();
    float pfMet_phi = pfMETCollection->begin()->phi();
    h_pfMet        ->Fill(pfMet);
    h_pfMet_phi    ->Fill(pfMet_phi);
  }
  
//-------------------------------------
//--- Events with more than 2 leptons:
//-------------------------------------
  if(nMu+nEle > 2 && nMu+nEle < 10){
    if(nMu==0 && nEle==3) h_lepcounts->Fill(0);
    if(nMu==0 && nEle==4) h_lepcounts->Fill(1);
    if(nMu==0 && nEle==5) h_lepcounts->Fill(2);
    if(nMu==0 && nEle==6) h_lepcounts->Fill(3);
    if(nMu==0 && nEle==7) h_lepcounts->Fill(4);
    if(nMu==0 && nEle==8) h_lepcounts->Fill(5);
    if(nMu==0 && nEle==9) h_lepcounts->Fill(6);
    if(nMu==1 && nEle==2) h_lepcounts->Fill(7);
    if(nMu==1 && nEle==3) h_lepcounts->Fill(8);
    if(nMu==1 && nEle==4) h_lepcounts->Fill(9);
    if(nMu==1 && nEle==5) h_lepcounts->Fill(10);
    if(nMu==1 && nEle==6) h_lepcounts->Fill(11);
    if(nMu==1 && nEle==7) h_lepcounts->Fill(12);
    if(nMu==1 && nEle==8) h_lepcounts->Fill(13);
    if(nMu==2 && nEle==1) h_lepcounts->Fill(14);
    if(nMu==2 && nEle==2) h_lepcounts->Fill(15);
    if(nMu==2 && nEle==3) h_lepcounts->Fill(16);
    if(nMu==2 && nEle==4) h_lepcounts->Fill(17);
    if(nMu==2 && nEle==5) h_lepcounts->Fill(18);
    if(nMu==2 && nEle==6) h_lepcounts->Fill(19);
    if(nMu==2 && nEle==7) h_lepcounts->Fill(20);
    if(nMu==3 && nEle==0) h_lepcounts->Fill(21);
    if(nMu==3 && nEle==1) h_lepcounts->Fill(22);
    if(nMu==3 && nEle==2) h_lepcounts->Fill(23);
    if(nMu==3 && nEle==3) h_lepcounts->Fill(24);
    if(nMu==3 && nEle==4) h_lepcounts->Fill(25);
    if(nMu==3 && nEle==5) h_lepcounts->Fill(26);
    if(nMu==3 && nEle==6) h_lepcounts->Fill(27);
    if(nMu==4 && nEle==0) h_lepcounts->Fill(28);
    if(nMu==4 && nEle==1) h_lepcounts->Fill(29);
    if(nMu==4 && nEle==2) h_lepcounts->Fill(30);
    if(nMu==4 && nEle==3) h_lepcounts->Fill(31);
    if(nMu==4 && nEle==4) h_lepcounts->Fill(32);
    if(nMu==4 && nEle==5) h_lepcounts->Fill(33);
    if(nMu==5 && nEle==0) h_lepcounts->Fill(34);
    if(nMu==5 && nEle==1) h_lepcounts->Fill(35);
    if(nMu==5 && nEle==2) h_lepcounts->Fill(36);
    if(nMu==5 && nEle==3) h_lepcounts->Fill(37);
    if(nMu==5 && nEle==4) h_lepcounts->Fill(38);
    if(nMu==6 && nEle==0) h_lepcounts->Fill(39);
    if(nMu==6 && nEle==1) h_lepcounts->Fill(40);
    if(nMu==6 && nEle==2) h_lepcounts->Fill(41);
    if(nMu==6 && nEle==3) h_lepcounts->Fill(42);
    if(nMu==7 && nEle==0) h_lepcounts->Fill(43);
    if(nMu==7 && nEle==1) h_lepcounts->Fill(44);
    if(nMu==7 && nEle==2) h_lepcounts->Fill(45);
    if(nMu==8 && nEle==0) h_lepcounts->Fill(46);
    if(nMu==8 && nEle==1) h_lepcounts->Fill(47);
    if(nMu==9 && nEle==0) h_lepcounts->Fill(48);
    
  
  }
  if ((nMu+nEle) >= 10)
    LogDebug("HiggsDQM") <<"WARNING: "<<nMu+nEle<<" leptons in this event: run="<<e.id().run()<<", event="<<e.id().event()<< "\n"; 
//     std::cout <<"WARNING: "<<nMu+nEle<<" leptons in this event: run="<<e.id().run()<<", event="<<e.id().event()<< "\n"; 
  
/*  /// channel conditions
  nElectron=0;
  nMuon=0;
  if (decaychannel=="2e2mu") {
    if ( posEle>=1 && negEle>=1 ) {
      nElectron=posEle+negEle;
    }
    if ( posMu>=1 && negMu>=1 ) {
      nMuon=posMu+negMu;
    }
  }
  else if (decaychannel=="4e") {
    if ( posEle>=2 && negEle>=2 ) {
      nElectron=posEle+negEle;
    }
  }
  else if (decaychannel=="4mu") {
    if ( posMu>=2 && negMu>=2 ) {
      nMuon=posMu+negMu;
    }  
  }
       

  // Pairs of EE MuMu 
  int nZEE=0,nZMuMu=0;
  if (decaychannel=="2e2mu"){
    Handle<CompositeCandidateCollection> zEECandidates;
    e.getByLabel(zToEETag_.label(), zEECandidates);    
    for ( CompositeCandidateCollection::const_iterator zIter=zEECandidates->begin(); zIter!= zEECandidates->end(); ++zIter ) {
//      cout << "Zee mass= " << double(zIter->p4().mass()) << endl;
      if ( double(zIter->p4().mass())> 12. ){ 
        nZEE++;
      }
    }
    Handle<CompositeCandidateCollection> zMuMuCandidates;
    e.getByLabel(zToMuMuTag_.label(), zMuMuCandidates);
    for ( CompositeCandidateCollection::const_iterator zIter=zMuMuCandidates->begin(); zIter!= zMuMuCandidates->end(); ++zIter ) {
//      cout << "Zmumu mass= " << double(zIter->p4().mass()) << endl;
      if ( zIter->p4().mass()> 12. ){
        nZMuMu++;
      }
    }    
  }
  
  // exclusive couples ZEE and ZMUMU
  if (decaychannel=="4e" ){
    Handle<CompositeCandidateCollection> higgsCandidates;
    e.getByLabel(hTozzTo4leptonsTag_.label(), higgsCandidates);
    for ( CompositeCandidateCollection::const_iterator hIter=higgsCandidates->begin(); hIter!= higgsCandidates->end(); ++hIter ) {
      if (nZEE<2) nZEE=0;
      for (size_t ndau=0; ndau<hIter->numberOfDaughters();ndau++){
        if ( hIter->daughter(ndau)->p4().mass()> 12.){  
          nZEE++;
        }
      }
    }
  }
  //
  if (decaychannel=="4mu" ){
    Handle<CompositeCandidateCollection> higgsCandidates;
    e.getByLabel(hTozzTo4leptonsTag_.label(), higgsCandidates);
    for ( CompositeCandidateCollection::const_iterator hIter=higgsCandidates->begin(); hIter!= higgsCandidates->end(); ++hIter ) {
      if (nZMuMu<2) nZMuMu=0;
      for (size_t ndau=0; ndau<hIter->numberOfDaughters();ndau++){
        if ( hIter->daughter(ndau)->p4().mass()> 12. ){  
          nZMuMu++;
        }
      }
    }
  }

  // 4 lepton combinations
  Handle<CompositeCandidateCollection> higgsCandidates;
  e.getByLabel(hTozzTo4leptonsTag_.label(), higgsCandidates);
   int nHiggs=0;
  for ( CompositeCandidateCollection::const_iterator hIter=higgsCandidates->begin(); hIter!= higgsCandidates->end(); ++hIter ) {
    if ( hIter->p4().mass()> 100. ){  
      nHiggs++;
    }
  }    
*/
//  cout<<"Z and Higgs candidates: "<<nZEE<<" "<<nZMuMu<<" "<<nHiggs<<endl;

  //cout<<"[leaving HiggsDQM::analyze()] "<<endl;

}

void HiggsDQM::beginJob ( void ) [protected, virtual]

Reimplemented from edm::EDAnalyzer.

Definition at line 171 of file HiggsDQM.cc.

References pi.

                       {
  //cout<<"Entering HiggsDQM::beginJob: "<<endl;

  nLumiSecs_ = 0;
  nEvents_   = 0;
  pi = 3.14159265;
  

  //cout<<"...leaving HiggsDQM::beginJob. "<<endl;
}

void HiggsDQM::beginLuminosityBlock	(	edm::LuminosityBlock const &	lumiSeg,
		edm::EventSetup const &	context
	)		`[protected, virtual]`

Reimplemented from edm::EDAnalyzer.

Definition at line 198 of file HiggsDQM.cc.

                                                                          {
  //cout<<"Entering HiggsDQM::beginLuminosityBlock: "<<endl;
  
  edm::LogInfo ("HiggsDQM") <<"[HiggsDQM]: Begin of LS transition";

  //cout<<"...leaving HiggsDQM::beginLuminosityBlock. "<<endl;
}

void HiggsDQM::beginRun	(	edm::Run const &	run,
		edm::EventSetup const &	eSetup
	)		`[protected, virtual]`

Reimplemented from edm::EDAnalyzer.

Definition at line 184 of file HiggsDQM.cc.

                                                                   {
  edm::LogInfo ("HiggsDQM") <<"[HiggsDQM]: Begining of Run";
  // passed as parameter to HLTConfigProvider::init(), not yet used
  bool isConfigChanged = false;
  
  // isValidHltConfig_ used to short-circuit analyze() in case of problems
  //  const std::string hltProcessName( "HLT" );
  const std::string hltProcessName = theTriggerResultsCollection.process();
  isValidHltConfig_ = hltConfigProvider_.init( run, eSetup, hltProcessName, isConfigChanged );

}

void HiggsDQM::bookHistos ( DQMStore * bei ) [private]

Definition at line 209 of file HiggsDQM.cc.

References DQMStore::book1D(), DQMStore::cd(), and DQMStore::setCurrentFolder().

                                      {
  bei->cd();
  bei->setCurrentFolder("Physics/Higgs");
  h_vertex_number = bei->book1D("h_vertex_number", "Number of event vertices in collection", 10,-0.5,   9.5 );
  h_vertex_chi2  = bei->book1D("h_vertex_chi2" , "Event Vertex #chi^{2}/n.d.o.f."          , 100, 0.0,   2.0 );
  h_vertex_numTrks = bei->book1D("h_vertex_numTrks", "Event Vertex, number of tracks"     , 100, -0.5,  99.5 );
  h_vertex_sumTrks = bei->book1D("h_vertex_sumTrks", "Event Vertex, sum of track pt"      , 100,  0.0, 100.0 );
  h_vertex_d0    = bei->book1D("h_vertex_d0"   , "Event Vertex d0"                        , 100,  -10.0,  10.0);
  h_jet_et       = bei->book1D("h_jet_et",       "Jet with highest E_{T} (from "+theCaloJetCollectionLabel.label()+");E_{T}(1^{st} jet) (GeV)",    20, 0., 200.0);
  h_jet2_et      = bei->book1D("h_jet2_et",      "Jet with 2^{nd} highest E_{T} (from "+theCaloJetCollectionLabel.label()+");E_{T}(2^{nd} jet) (GeV)",    20, 0., 200.0);
  h_jet_count    = bei->book1D("h_jet_count",    "Number of "+theCaloJetCollectionLabel.label()+" (E_{T} > 15 GeV);Number of Jets", 8, -0.5, 7.5);
  h_caloMet      = bei->book1D("h_caloMet",        "Calo Missing E_{T}; GeV"          , 20,  0.0 , 100);
  h_caloMet_phi  = bei->book1D("h_caloMet_phi",    "Calo Missing E_{T} #phi;#phi(MET)", 35, -3.5, 3.5 );
  h_pfMet        = bei->book1D("h_pfMet",        "Pf Missing E_{T}; GeV"          , 20,  0.0 , 100);
  h_pfMet_phi    = bei->book1D("h_pfMet_phi",    "Pf Missing E_{T} #phi;#phi(MET)", 35, -3.5, 3.5 );
  h_eMultiplicity = bei_->book1D("NElectrons","# of electrons per event",10,0.,10.);
  h_mMultiplicity = bei_->book1D("NMuons","# of muons per event",10,0.,10.);
  h_ePt = bei_->book1D("ElePt","Pt of electrons",50,0.,100.);
  h_eEta = bei_->book1D("EleEta","Eta of electrons",100,-5.,5.);
  h_ePhi = bei_->book1D("ElePhi","Phi of electrons",100,-3.5,3.5);
  h_mPt_GMTM = bei_->book1D("MuonPt_GMTM","Pt of global+tracker muons",50,0.,100.);
  h_mEta_GMTM = bei_->book1D("MuonEta_GMTM","Eta of global+tracker muons",60,-3.,3.);
  h_mPhi_GMTM = bei_->book1D("MuonPhi_GMTM","Phi of global+tracker muons",70,-3.5,3.5);
  h_mPt_GMPT = bei_->book1D("MuonPt_GMPT","Pt of global prompt-tight muons",50,0.,100.);
  h_mEta_GMPT = bei_->book1D("MuonEta_GMPT","Eta of global prompt-tight muons",60,-3.,3.);
  h_mPhi_GMPT = bei_->book1D("MuonPhi_GMPT","Phi of global prompt-tight muons",70,-3.5,3.5);
  h_mPt_GM = bei_->book1D("MuonPt_GM","Pt of global muons",50,0.,100.);
  h_mEta_GM = bei_->book1D("MuonEta_GM","Eta of global muons",60,-3.,3.);
  h_mPhi_GM = bei_->book1D("MuonPhi_GM","Phi of global muons",70,-3.5,3.5);
  h_mPt_TM = bei_->book1D("MuonPt_TM","Pt of tracker muons",50,0.,100.);
  h_mEta_TM = bei_->book1D("MuonEta_TM","Eta of tracker muons",60,-3.,3.);
  h_mPhi_TM = bei_->book1D("MuonPhi_TM","Phi of tracker muons",70,-3.5,3.5);
  h_mPt_STAM = bei_->book1D("MuonPt_STAM","Pt of STA muons",50,0.,100.);
  h_mEta_STAM = bei_->book1D("MuonEta_STAM","Eta of STA muons",60,-3.,3.);
  h_mPhi_STAM = bei_->book1D("MuonPhi_STAM","Phi of STA muons",70,-3.5,3.5);
  h_eCombIso = bei_->book1D("EleCombIso","CombIso of electrons",100,0.,10.);
  h_mCombIso = bei_->book1D("MuonCombIso","CombIso of muons",100,0.,10.);
  h_dimumass_GMGM = bei->book1D("DimuMass_GMGM","Invariant mass of GMGM pairs",100,0.,200.);
  h_dimumass_GMTM = bei->book1D("DimuMass_GMTM","Invariant mass of GMTM pairs",100,0.,200.);
  h_dimumass_TMTM = bei->book1D("DimuMass_TMTM","Invariant mass of TMTM pairs",100,0.,200.);
  h_dielemass = bei->book1D("DieleMass","Invariant mass of EE pairs",100,0.,200.);
  h_lepcounts = bei->book1D("LeptonCounts","LeptonCounts for multi lepton events",49,0.,49.);
  
  bei->cd();  

}

double HiggsDQM::calcDeltaPhi	(	double	phi1,
		double	phi2
	)		`[private]`

Definition at line 117 of file HiggsDQM.cc.

References SiPixelRawToDigiRegional_cfi::deltaPhi.

                                                      {
  double deltaPhi = phi1 - phi2;
  if (deltaPhi < 0) deltaPhi = -deltaPhi;
  if (deltaPhi > 3.1415926) {
    deltaPhi = 2 * 3.1415926 - deltaPhi;
  }
  return deltaPhi;
}

double HiggsDQM::Distance	(	const reco::Candidate &	c1,
		const reco::Candidate &	c2
	)		`[private]`

Definition at line 108 of file HiggsDQM.cc.

References deltaR().

                                                                              {
        return  deltaR(c1,c2);
}

double HiggsDQM::DistancePhi	(	const reco::Candidate &	c1,
		const reco::Candidate &	c2
	)		`[private]`

Definition at line 112 of file HiggsDQM.cc.

References SiPixelRawToDigiRegional_cfi::deltaPhi, and reco::Candidate::p4().

                                                                                 {
        return  deltaPhi(c1.p4().phi(),c2.p4().phi());
}

void HiggsDQM::endJob ( void ) [protected, virtual]

Reimplemented from edm::EDAnalyzer.

Definition at line 665 of file HiggsDQM.cc.

                     {
//  cout<<"In HiggsDQM::endJob "<<endl;
  edm::LogInfo("HiggsDQM") <<"[HiggsDQM]: endjob called!";

}

void HiggsDQM::endLuminosityBlock	(	edm::LuminosityBlock const &	lumiSeg,
		edm::EventSetup const &	c
	)		`[protected, virtual]`

Reimplemented from edm::EDAnalyzer.

Definition at line 638 of file HiggsDQM.cc.

References edm::LuminosityBlockBase::luminosityBlock().

                                                                                                {
//  cout<<"Entering HiggsDQM::endLuminosityBlock: "<<endl;

  edm::LogInfo ("HiggsDQM") <<"[HiggsDQM]: End of LS transition, performing the DQM client operation";

  nLumiSecs_++;
  //cout << "nLumiSecs_: "<< nLumiSecs_ << endl;
  
  edm::LogInfo("HiggsDQM") << "====================================================== " << endl << " ===> Iteration # " << nLumiSecs_ << " " << lumiSeg.luminosityBlock() << endl  << "====================================================== " << endl;

//  cout<<"...leaving HiggsDQM::endLuminosityBlock. "<<endl;
}

void HiggsDQM::endRun	(	edm::Run const &	run,
		edm::EventSetup const &	eSetup
	)		`[protected, virtual]`

Reimplemented from edm::EDAnalyzer.

Definition at line 653 of file HiggsDQM.cc.

                                                                   {
//  cout<<"Entering HiggsDQM::endRun: "<<endl;

  //edm::LogVerbatim ("HiggsDQM") <<"[HiggsDQM]: End of Run, saving  DQM output ";
  //int iRun = run.run();
  
//  cout<<"...leaving HiggsDQM::endRun. "<<endl;
}