int NeroAll::analyze(const edm::Event&iEvent)
{
if(isMc_ <0 )
{
isMc_ = ( iEvent.isRealData() ) ? 0 : 1;
isRealData = ( iEvent.isRealData() ) ? 1 : 0;
}
if( isSkim() == 0)
{
//TODO FILL all_
isRealData = ( iEvent.isRealData() ) ? 1 : 0;
runNum = iEvent.id().run();
lumiNum = iEvent.luminosityBlock();
eventNum = iEvent.id().event();
iEvent.getByLabel(edm::InputTag("generator"), info_handle); // USE TOKEN AND INPUT TAG ?
iEvent.getByLabel(edm::InputTag("addPileupInfo"), pu_handle);
mcWeight = info_handle->weight();
//PU
puTrueInt = 0;
for(const auto & pu : *pu_handle)
{
//Intime
if (pu.getBunchCrossing() == 0)
puTrueInt += pu.getTrueNumInteractions();
//Out-of-time
}
}
return 0;
}
void UAHiggsTree::GetGenMET(const edm::Event& iEvent , const edm::EventSetup& iSetup,
const string GenMETCollection_ , vector<MyGenMET>& METVector )
{
using namespace std;
using namespace edm;
using namespace reco;
METVector.clear();
Handle<GenMETCollection> met;
iEvent.getByLabel(GenMETCollection_, met);
for(reco::GenMETCollection::const_iterator met_iter=met->begin();
met_iter != met->end(); met_iter++)
{
MyGenMET mymet;
mymet.pt=met_iter->pt();
mymet.phi=met_iter->phi();
mymet.eta=met_iter->eta();
METVector.push_back(mymet);
}
}
void ChPartTree::GetL1Trig(const edm::Event& iEvent, const edm::EventSetup& iSetup)
{
using namespace std;
// Tests
/*
if (L1TrigDebug)
{
edm::ESHandle<L1GtTriggerMenu> menuRcd;
iSetup.get<L1GtTriggerMenuRcd>().get(menuRcd) ;
const L1GtTriggerMenu* menu = menuRcd.product();
for (CItAlgo algo = menu->gtAlgorithmMap().begin();
algo!=menu->gtAlgorithmMap().end();
++algo)
{
cout << "Name: " << (algo->second).algoName()
<< " Alias: " << (algo->second).algoAlias()
<< " Bit: " << (algo->second).algoBitNumber()
<< " Result: " << l1AlgorithmResult(iEvent, iSetup, (algo->second).algoName() )
<< std::endl;
}
}
*/
edm::Handle<L1GlobalTriggerReadoutRecord> L1GTRR;
iEvent.getByLabel("gtDigis",L1GTRR);
for (int i=0 ; i <128 ; i++)
{
if (L1TrigDebug) cout << "PhysicsTriggerWord :" << i << " " << L1GTRR->decisionWord()[i] << endl;
L1Trig.PhysTrigWord[i] = L1GTRR->decisionWord()[i];
}
for (int i=0 ; i <64 ; i++)
{
if (L1TrigDebug) cout << "technicalTriggerWord :" << i << " " << L1GTRR->technicalTriggerWord()[i] << endl;
L1Trig.TechTrigWord[i] = L1GTRR->technicalTriggerWord()[i];
}
}
void UAHiggsTree::GetGenPart(const edm::Event& iEvent, const edm::EventSetup& iSetup)
{
using namespace std;
using namespace edm;
using namespace reco;
// Clear GenPart List
// (evt->GenPart).clear();
GenPart.clear();
GenElec.clear();
GenMu.clear();
GenNu.clear();
// Handle to access PDG data from iSetup
ESHandle <ParticleDataTable> pdt;
iSetup.getData( pdt );
// Handle to access GenParticleCollection
Handle<GenParticleCollection> genParticles;
iEvent.getByLabel(genPartColl_, genParticles);
if (!genParticles.isValid()) {
cerr << "[UAHiggsTree::GetGenPart] Error: non valid GenParticleCollection " << endl;
return;
}
// List for Daugther/Mother Search
vector<const reco::Candidate *> cands;
vector<const Candidate *>::const_iterator found = cands.begin();
for(GenParticleCollection::const_iterator p = genParticles->begin();
p != genParticles->end(); ++ p) {
cands.push_back(&*p);
}
// Loop on generated particle and store if status=3
if ( GenPartDebug )
cout << "GenPart # : " << genParticles->size() << endl;
for(GenParticleCollection::const_iterator p = genParticles->begin();
p != genParticles->end(); ++ p) {
int st = p->status();
MyGenPart genpart;
if ( GenPartDebug )
{
if(( fabs(p->pdgId())==11 || fabs(p->pdgId())== 13) && st==1)
cout << p-genParticles->begin()
<< " " << st
<< " " << p->pdgId()
<< " " << (pdt->particle(p->pdgId()))->name()
<< " " << p->pt()
<< " " << p->eta()
<< " " << p->phi()
<< " " << p->charge()
<< endl ;
if(( fabs(p->pdgId())==11 || fabs(p->pdgId())== 13) && st==3)
cout << p-genParticles->begin()
<< " " << st
<< " " << p->pdgId()
<< " " << (pdt->particle(p->pdgId()))->name()
<< " " << p->pt()
<< " " << p->eta()
<< " " << p->phi()
<< " " << p->charge()
<< endl ;
}
// Four vector
genpart.pt = p->pt();
genpart.eta = p->eta();
genpart.phi = p->phi();
genpart.e = p->energy();
genpart.px = p->px();
genpart.py = p->py();
genpart.pz = p->pz();
genpart.m = p->mass();
//genpart.v.SetPxPyPzE( p->px() , p->py() , p->pz() , p->energy() );
genpart.Part.v.SetPxPyPzE( p->px() , p->py() , p->pz() , p->energy() );
// Extra properties
genpart.Part.charge = p->charge();
genpart.charge = p->charge();
genpart.pdgId = p->pdgId();
genpart.name = (pdt->particle(p->pdgId()))->name();
genpart.status = p->status();
// Mother Daughter relations
int nMo = p->numberOfMothers();
int nDa = p->numberOfDaughters();
int iMo1 = -1 , iMo2 = -1 ;
int iDa1 = -1 , iDa2 = -1 ;
found = find(cands.begin(), cands.end(), p->mother(0));
if(found != cands.end()) iMo1 = found - cands.begin() ;
found = find(cands.begin(), cands.end(), p->mother(nMo-1));
if(found != cands.end()) iMo2 = found - cands.begin() ;
found = find(cands.begin(), cands.end(), p->daughter(0));
if(found != cands.end()) iDa1 = found - cands.begin() ;
found = find(cands.begin(), cands.end(), p->daughter(nDa-1));
if(found != cands.end()) iDa2 = found - cands.begin() ;
if ( GenPartDebug )
{
cout << "Mother : " << iMo1 << " " << iMo2 << endl;
cout << "Daugther: " << iDa1 << " " << iDa2 << endl;
}
genpart.mo1 = iMo1 ;
genpart.mo2 = iMo2 ;
genpart.da1 = iDa1 ;
genpart.da2 = iDa2 ;
// Store
if(st==3)
GenPart.push_back(genpart);
if(fabs(genpart.pdgId)==11 && st==1)
GenElec.push_back(genpart);
if(fabs(genpart.pdgId)==13 && st==1)
GenMu.push_back(genpart);
if((fabs(genpart.pdgId)==12 && st==1)||(fabs(genpart.pdgId)==14 && st==1))
GenNu.push_back(genpart);
}
}
// ------------ method called for each event ------------
void
ThreePointCorrelatorEtaTest::analyze(const edm::Event& iEvent, const edm::EventSetup& iSetup)
{
using namespace edm;
using namespace std;
edm::Handle<reco::VertexCollection> vertices;
iEvent.getByLabel(vertexSrc_,vertices);
double bestvz=-999.9, bestvx=-999.9, bestvy=-999.9;
double bestvzError=-999.9, bestvxError=-999.9, bestvyError=-999.9;
const reco::Vertex & vtx = (*vertices)[0];
bestvz = vtx.z(); bestvx = vtx.x(); bestvy = vtx.y();
bestvzError = vtx.zError(); bestvxError = vtx.xError(); bestvyError = vtx.yError();
//first selection; vertices
if(bestvz < vzLow_ || bestvz > vzHigh_ ) return;
Handle<CaloTowerCollection> towers;
iEvent.getByLabel(towerSrc_, towers);
Handle<reco::TrackCollection> tracks;
iEvent.getByLabel(trackSrc_, tracks);
if( useCentrality_ ){
CentralityProvider * centProvider = 0;
if (!centProvider) centProvider = new CentralityProvider(iSetup);
centProvider->newEvent(iEvent,iSetup);
int hiBin = centProvider->getBin();
cbinHist->Fill( hiBin );
if( hiBin < Nmin_ || hiBin >= Nmax_ ) return;
}
const int NetaBins = etaBins_.size() - 1 ;
// initialize Qcos and Qsin
double QcosTRK = 0.;
double QsinTRK = 0.;
double QcountsTrk = 0;
double Q1[NetaBins][2][2];
double Q1_count[NetaBins][2];
double Q2[NetaBins][2][2];
double Q2_count[NetaBins][2];
for(int i = 0; i < NetaBins; i++){
for(int j = 0; j < 2; j++){
Q1_count[i][j] = 0.0;
Q2_count[i][j] = 0.0;
for(int k = 0; k < 2; k++){
Q1[i][j][k] = 0.0;
Q2[i][j][k] = 0.0;
}
}
}
int nTracks = 0;
for(unsigned it = 0; it < tracks->size(); it++){
const reco::Track & trk = (*tracks)[it];
math::XYZPoint bestvtx(bestvx,bestvy,bestvz);
double dzvtx = trk.dz(bestvtx);
double dxyvtx = trk.dxy(bestvtx);
double dzerror = sqrt(trk.dzError()*trk.dzError()+bestvzError*bestvzError);
double dxyerror = sqrt(trk.d0Error()*trk.d0Error()+bestvxError*bestvyError);
double nhits = trk.numberOfValidHits();
double chi2n = trk.normalizedChi2();
double nlayers = trk.hitPattern().trackerLayersWithMeasurement();
chi2n = chi2n/nlayers;
double weight = 1.0;
if(!trk.quality(reco::TrackBase::highPurity)) continue;
if(fabs(trk.ptError())/trk.pt() > offlineptErr_ ) continue;
if(fabs(dzvtx/dzerror) > offlineDCA_) continue;
if(fabs(dxyvtx/dxyerror) > offlineDCA_) continue;
if(fabs(trk.eta()) < 2.4 && trk.pt() > 0.4 ){nTracks++;}// NtrkOffline
if(fabs(trk.eta()) > 2.4 || trk.pt() < ptLow_ || trk.pt() > ptHigh_) continue;
if(chi2n > offlineChi2_) continue;
if(nhits < offlinenhits_) continue;
if( messAcceptance_ ) { if( trk.phi() < holeRight_ && trk.phi() > holeLeft_ ) continue;}
if( doEffCorrection_ ){ weight = 1.0/effTable->GetBinContent( effTable->FindBin(trk.eta(), trk.pt()) );}
else{ weight = 1.0; }
trkPhi->Fill( trk.phi() );//make sure if messAcceptance is on or off
QcosTRK += weight*cos( 2*trk.phi() );
QsinTRK += weight*sin( 2*trk.phi() );
QcountsTrk += weight;
for(int eta = 0; eta < NetaBins; eta++){
if( trk.eta() > etaBins_[eta] && trk.eta() < etaBins_[eta+1] ){
if( trk.charge() == 1){
Q1[eta][0][0] += weight*cos( trk.phi() );
Q1[eta][0][1] += weight*sin( trk.phi() );
Q1_count[eta][0] += weight;
Q2[eta][0][0] += weight*weight*cos( 2*trk.phi() );
Q2[eta][0][1] += weight*weight*sin( 2*trk.phi() );
Q2_count[eta][0] += weight*weight;
}
else if( trk.charge() == -1){
Q1[eta][1][0] += weight*cos( trk.phi() );
Q1[eta][1][1] += weight*sin( trk.phi() );
Q1_count[eta][1] += weight;
Q2[eta][1][0] += weight*weight*cos( 2*trk.phi() );
Q2[eta][1][1] += weight*weight*sin( 2*trk.phi() );
Q2_count[eta][1] += weight*weight;
}
}
}
}
if( !useCentrality_ ) if( nTracks < Nmin_ || nTracks >= Nmax_ ) return;
Ntrk->Fill(nTracks);
//loop over calo towers (HF)
double Q3[2][2];
double ETT[2];
for(int i = 0; i < 2; i++){
ETT[i] = 0.;
for(int j = 0; j < 2; j++){
Q3[i][j] = 0.;
}
}
int HFside = 2;
if( useBothSide_ ) HFside = 1;
for(unsigned i = 0; i < towers->size(); ++i){
const CaloTower & hit= (*towers)[i];
double caloEta = hit.eta();
double caloPhi = hit.phi();
double w = hit.hadEt( vtx.z() ) + hit.emEt( vtx.z() );
if( reverseBeam_ ) caloEta = -hit.eta();
if( messAcceptance_ ){if( caloPhi < holeRight_ && caloPhi > holeLeft_ ) continue;} hfPhi->Fill( caloPhi );//make sure if messAcceptance is on or off
if( caloEta < etaHighHF_ && caloEta > etaLowHF_ ){
Q3[0][0] += w*cos( -2*caloPhi );
Q3[0][1] += w*sin( -2*caloPhi );
ETT[0] += w;
}
else if( caloEta < -etaLowHF_ && caloEta > -etaHighHF_ ){
Q3[1][0] += w*cos( -2*caloPhi );
Q3[1][1] += w*sin( -2*caloPhi );
ETT[1] += w;
}
else{continue;}
}
for(int ieta = 0; ieta < NetaBins; ieta++){
for(int HF = 0; HF < HFside; HF++){
for(int sign = 0; sign < 2; sign++){
if( Q1_count[ieta][sign] == 0.0 || ETT[HF] == 0.0 ) continue;
double Q_real = get3RealOverlap(Q1[ieta][sign][0], Q2[ieta][sign][0], Q3[HF][0], Q1[ieta][sign][1], Q2[ieta][sign][1], Q3[HF][1], Q1_count[ieta][sign], Q2_count[ieta][sign], ETT[HF] );
QvsdEta[ieta][sign][HF]->Fill( Q_real, (Q1_count[ieta][sign]*Q1_count[ieta][sign] - Q2_count[ieta][sign])*ETT[HF] );
}
if( Q1_count[ieta][0] == 0.0 || Q1_count[ieta][1] == 0.0 || ETT[HF] == 0.0 ) continue;
double Q_real = get3Real(Q1[ieta][0][0]/Q1_count[ieta][0],Q1[ieta][1][0]/Q1_count[ieta][1],Q3[HF][0]/ETT[HF], Q1[ieta][0][1]/Q1_count[ieta][0], Q1[ieta][1][1]/Q1_count[ieta][1], Q3[HF][1]/ETT[HF]);
QvsdEta[ieta][2][HF]->Fill( Q_real, Q1_count[ieta][0]*Q1_count[ieta][1]*ETT[HF] );
}
}
/*
calculate v2 using 3 sub-events method:
*/
aveQ3[0][0]->Fill( Q3[0][0]/ETT[0], ETT[0] );//HF+ cos
aveQ3[0][1]->Fill( Q3[0][1]/ETT[0], ETT[0] );//HF+ sin
aveQ3[1][0]->Fill( Q3[1][0]/ETT[1], ETT[1] );//HF- cos
aveQ3[1][1]->Fill( Q3[1][1]/ETT[1], ETT[1] );//HF- sin
QcosTRK = QcosTRK/QcountsTrk;
QsinTRK = QsinTRK/QcountsTrk;
double QaQc = get2Real(Q3[1][0]/ETT[1], QcosTRK/QcountsTrk, Q3[1][1]/ETT[1], QsinTRK/QcountsTrk );
double QaQb = get2Real(Q3[1][0]/ETT[1], Q3[0][0]/ETT[0], Q3[1][1]/ETT[1], -Q3[0][1]/ETT[0]);//an extra minus sign
double QcQb = get2Real(QcosTRK/QcountsTrk, Q3[0][0]/ETT[0], QsinTRK/QcountsTrk, Q3[0][1]/ETT[0]);
c2_ac->Fill( QaQc, ETT[1]*QcountsTrk );
c2_cb->Fill( QcQb, ETT[1]*ETT[0] );
c2_ab->Fill( QaQb, ETT[0]*QcountsTrk );
}
// ------------ method called to skim the data ------------
bool MCBarrelEndcapFilter::filter(edm::Event& iEvent, const edm::EventSetup& iSetup)
{
using namespace edm;
bool accepted = false;
Handle<HepMCProduct> evt;
iEvent.getByLabel(label_, evt);
vector<HepMC::GenParticle*> barrel_passed;
vector<HepMC::GenParticle*> endcap_passed;
const HepMC::GenEvent * myGenEvent = evt->GetEvent();
if(verbose) cout << "Start Event\n";
for ( HepMC::GenEvent::particle_const_iterator p = myGenEvent->particles_begin();
p != myGenEvent->particles_end(); ++p ) {
if(verbose) cout << abs((*p)->pdg_id()) << ' '
<< (*p)->momentum().perp() << ' '
<< (*p)->momentum().eta() << ' '
<< (*p)->status() << endl;
// check for barrel conditions
if ((abs((*p)->pdg_id()) == abs(barrelID) || barrelID == 0) &&
(*p)->momentum().perp() > ptMinBarrel && (*p)->momentum().eta() > etaMinBarrel
&& (*p)->momentum().eta() < etaMaxBarrel && ((*p)->status() == statusBarrel || statusBarrel == 0))
{
if(verbose) cout << "Found Barrel\n";
// passed barrel conditions ...
// ... now check pair-conditions with endcap passed particles
//
unsigned int i=0;
double invmass =0.;
while(!accepted && i<endcap_passed.size()) {
invmass = ( math::PtEtaPhiMLorentzVector((*p)->momentum()) + math::PtEtaPhiMLorentzVector(endcap_passed[i]->momentum())).mass();
if(verbose) cout << "Invariant Mass is" << invmass << endl;
if(invmass > minInvMass && invmass < maxInvMass) {
accepted = true;
}
i++;
}
// if we found a matching pair quit the loop
if(accepted) break;
else{
barrel_passed.push_back(*p); // else remember the particle to have passed barrel conditions
}
}
// check for endcap conditions
if ((abs((*p)->pdg_id()) == abs(endcapID) || endcapID == 0) &&
(*p)->momentum().perp() > ptMinEndcap && (*p)->momentum().eta() > etaMinEndcap
&& (*p)->momentum().eta() < etaMaxEndcap && ((*p)->status() == statusEndcap || statusEndcap == 0)) {
if(verbose) cout << "Found Endcap\n";
// passed endcap conditions ...
// ... now check pair-conditions with barrel passed particles vector
unsigned int i=0;
double invmass =0.;
while(!accepted && i<barrel_passed.size()) {
if((*p) != barrel_passed[i]) {
if(verbose) cout << "Checking to match Barrel\n";
invmass = ( math::PtEtaPhiMLorentzVector((*p)->momentum()) + math::PtEtaPhiMLorentzVector(barrel_passed[i]->momentum())).mass();
if(verbose) cout << "Invariant Mass is" << invmass << endl;
if(invmass > minInvMass && invmass < maxInvMass) {
accepted = true;
}
i++;
}
}
// if we found a matching pair quit the loop
if(accepted) break;
else {
endcap_passed.push_back(*p); // else remember the particle to have passed endcap conditions
}
}
}
if(verbose)
{
cout << "This event ";
if (accepted){ cout << "passed "; } else {cout << "failed ";}
cout << "the filter\n";
}
return accepted;
}
void UAHiggsTree::GetGenKin(const edm::Event& iEvent)
{
using namespace std;
using namespace edm;
using namespace reco;
/*
// MC Process Id and PtHat for AOD
Handle< int > genProcessID;
iEvent.getByLabel( "genEventProcID", genProcessID );
int processId = *genProcessID;
cout<<"Process ID : "<<processId<<endl;
*/
//K Factor For Signal
edm::Handle<double> KFactor;
try {
iEvent.getByLabel("KFactorProducer",KFactor);
double kfactor = *KFactor;
GenKin.kfactor=kfactor;
}
catch (...){;}
/*
// MC Process Id and PtHat for RECO
Handle<HepMCProduct> hepMCHandle;
iEvent.getByLabel(hepMCColl_, hepMCHandle ) ;
const HepMC::GenEvent* GenEvt = hepMCHandle->GetEvent() ;
int processId = GenEvt->signal_process_id();
if (GenKinDebug) cout<<"Process ID2: "<<processId<<endl;
double ptHat = GenEvt->event_scale();
if (GenKinDebug) cout<<"PtHat MC : "<<ptHat<<endl;
GenKin.MCProcId = processId ;
GenKin.Scale = ptHat ;
// PDF Info -> x,Q, parton id's -> see HepMC manual
const HepMC::PdfInfo* PdfInfo = GenEvt->pdf_info();
double x1 = PdfInfo->x1();
double x2 = PdfInfo->x2();
double Q = PdfInfo->scalePDF();
int id1 = PdfInfo->id1();
int id2 = PdfInfo->id2();
GenKin.x1 = x1 ;
GenKin.x2 = x2 ;
GenKin.Q = Q ;
GenKin.Part1Id = id1 ;
GenKin.Part2Id = id2 ; */
// Gen MET: From GenMETCollection
Handle<GenMETCollection> genmet;
// iEvent.getByLabel(GenMetColl_ , genmet);
iEvent.getByLabel("genMetTrue" , genmet);
if (GenKinDebug)
{
cout << "GenMET et() = " << (genmet->front()).et() << endl ;
cout << "GenMET px() = " << (genmet->front()).px() << endl ;
cout << "GenMET py() = " << (genmet->front()).py() << endl ;
cout << "GenMET phi() = " << (genmet->front()).phi() << endl;
}
GenKin.Met = (genmet->front()).et() ;
GenKin.MetX = (genmet->front()).px() ;
GenKin.MetY = (genmet->front()).py() ;
GenKin.MetPhi = (genmet->front()).phi() ;
// Gen MET: From GenPart Neutrinos ( no SUSY !!! )
// ... Handle to access GenParticleCollection
Handle<GenParticleCollection> genParticles;
iEvent.getByLabel(genPartColl_, genParticles);
if (!genParticles.isValid()) {
cerr << "[UAHiggsTree::GetGenKin] Error: non valid GenParticleCollection " << endl;
return;
}
double met1Px = 0 ;
double met1Py = 0 ;
double met1Pz = 0 ;
double met1E = 0 ;
double met3Px = 0 ;
double met3Py = 0 ;
double met3Pz = 0 ;
double met3E = 0 ;
// ... Loop on stable (final) particles
for(GenParticleCollection::const_iterator p = genParticles->begin(); p != genParticles->end(); ++ p)
{
int st = p->status();
int pid = p->pdgId();
if ( st == 1 && ( abs(pid)==12 || abs(pid)==14 || abs(pid)==16 ) )
{
met1Px += p->px();
met1Py += p->py();
met1Pz += p->pz();
met1E += p->energy();
}
else if ( st == 3 && ( abs(pid)==12 || abs(pid)==14 || abs(pid)==16 ) )
{
met3Px += p->px();
met3Py += p->py();
met3Pz += p->pz();
met3E += p->energy();
}
}
// ... Set Missing Et 4-Vector
GenKin.MetGP1.SetPxPyPzE( met1Px , met1Py , met1Pz , met1E ) ;
GenKin.MetGP3.SetPxPyPzE( met3Px , met3Py , met3Pz , met3E ) ;
}
void UAHiggsTree::GetRecoMuon(const edm::Event& iEvent, const edm::EventSetup& iSetup,
const string globalMuonCollection_, vector<MyMuon>& MuonVector )
{
using namespace std;
using namespace edm;
using namespace reco;
// BORIS 3D IP stuff: Declaration
ESHandle<TransientTrackBuilder> theTTBuilder;
iSetup.get<TransientTrackRecord>().get("TransientTrackBuilder",theTTBuilder);
MuonVector.clear();
Handle<MuonCollection> muonsHandle;
try {
iEvent.getByLabel(globalMuonCollection_,muonsHandle);
} catch ( cms::Exception& ex ) {
printf("Error! can't get globalMuon collection\n");
}
const MuonCollection & muons = *(muonsHandle.product());
for (reco::MuonCollection::const_iterator iMuon = muons.begin();
iMuon != muons.end(); iMuon++) {
MyMuon muon;
// Global Muon
muon.pt = iMuon->pt();
muon.px = iMuon->px();
muon.py = iMuon->py();
muon.pz = iMuon->pz();
muon.e = sqrt(iMuon->momentum().mag2()+MASS_MU*MASS_MU);
muon.eta = iMuon->eta();
muon.phi = iMuon->phi();
muon.Part.v.SetPxPyPzE(iMuon->px(),
iMuon->py(),
iMuon->pz(),
sqrt(iMuon->momentum().mag2()+MASS_MU*MASS_MU));
muon.Part.charge = iMuon->charge();
// Global Properties
muon.nChambers = iMuon -> numberOfChambers();
muon.nChambersMatched = iMuon -> numberOfMatches();
muon.AllGlobalMuons = muon::isGoodMuon(*iMuon,muon::AllGlobalMuons);
muon.AllStandAloneMuons = muon::isGoodMuon(*iMuon,muon::AllStandAloneMuons);
muon.AllTrackerMuons = muon::isGoodMuon(*iMuon,muon::AllTrackerMuons);
muon.TrackerMuonArbitrated = muon::isGoodMuon(*iMuon,muon::TrackerMuonArbitrated);
muon.AllArbitrated = muon::isGoodMuon(*iMuon,muon::AllArbitrated);
muon.GlobalMuonPromptTight = muon::isGoodMuon(*iMuon,muon::GlobalMuonPromptTight);
muon.TMLastStationLoose = muon::isGoodMuon(*iMuon,muon::TMLastStationLoose);
muon.TMLastStationTight = muon::isGoodMuon(*iMuon,muon::TMLastStationTight);
muon.TM2DCompatibilityLoose = muon::isGoodMuon(*iMuon,muon::TM2DCompatibilityLoose);
muon.TM2DCompatibilityTight = muon::isGoodMuon(*iMuon,muon::TM2DCompatibilityTight);
muon.TMOneStationLoose = muon::isGoodMuon(*iMuon,muon::TMOneStationLoose);
muon.TMOneStationTight = muon::isGoodMuon(*iMuon,muon::TMOneStationTight);
muon.TMLastStationOptimizedLowPtLoose = muon::isGoodMuon(*iMuon,muon::TMLastStationOptimizedLowPtLoose);
muon.TMLastStationOptimizedLowPtTight = muon::isGoodMuon(*iMuon,muon::TMLastStationOptimizedLowPtTight);
muon.GMTkChiCompatibility = muon::isGoodMuon(*iMuon,muon::GMTkChiCompatibility);
muon.GMStaChiCompatibility = muon::isGoodMuon(*iMuon,muon::GMStaChiCompatibility);
muon.GMTkKinkTight = muon::isGoodMuon(*iMuon,muon::GMTkKinkTight);
muon.TMLastStationAngLoose = muon::isGoodMuon(*iMuon,muon::TMLastStationAngLoose);
muon.TMLastStationAngTight = muon::isGoodMuon(*iMuon,muon::TMLastStationAngTight);
muon.TMOneStationAngLoose = muon::isGoodMuon(*iMuon,muon::TMOneStationAngLoose);
muon.TMOneStationAngTight = muon::isGoodMuon(*iMuon,muon::TMOneStationAngTight);
muon.TMLastStationOptimizedBarrelLowPtLoose = muon::isGoodMuon(*iMuon,muon::TMLastStationOptimizedBarrelLowPtLoose);
muon.TMLastStationOptimizedBarrelLowPtTight = muon::isGoodMuon(*iMuon,muon::TMLastStationOptimizedBarrelLowPtTight);
muon.isoR03sumPt = iMuon->isolationR03().sumPt ;
muon.isoR03emEt = iMuon->isolationR03().emEt ;
muon.isoR03hadEt = iMuon->isolationR03().hadEt ;
muon.isoR03hoEt = iMuon->isolationR03().hoEt ;
muon.isoR03nTracks = iMuon->isolationR03().nTracks ;
muon.isoR03nJets = iMuon->isolationR03().nJets ;
muon.isoR05sumPt = iMuon->isolationR05().sumPt ;
muon.isoR05emEt = iMuon->isolationR05().emEt ;
muon.isoR05hadEt = iMuon->isolationR05().hadEt ;
muon.isoR05hoEt = iMuon->isolationR05().hoEt ;
muon.isoR05nTracks = iMuon->isolationR05().nTracks ;
muon.isoR05nJets = iMuon->isolationR05().nJets ;
muon.calEnergyEm = iMuon->calEnergy().em ;
muon.calEnergyHad = iMuon->calEnergy().had ;
muon.calEnergyHo = iMuon->calEnergy().ho ;
muon.calEnergyEmS9 = iMuon->calEnergy().emS9 ;
muon.calEnergyHadS9= iMuon->calEnergy().hadS9;
muon.calEnergyHoS9 = iMuon->calEnergy().hoS9 ;
muon.IsGlobalMuon = iMuon->isGlobalMuon() ;
muon.IsTrackerMuon = iMuon->isTrackerMuon() ;
muon.IsStandaloneMuon = iMuon->isStandAloneMuon() ;
muon.IsCaloMuon = iMuon->isCaloMuon() ;
// Global Muon Track
if(iMuon->globalTrack().isAvailable()){
reco::TrackRef glTrack = iMuon->globalTrack();
muon.globalTrack.Part.v.SetPxPyPzE(glTrack->momentum().x(),
glTrack->momentum().y(),
glTrack->momentum().z(),
sqrt(glTrack->momentum().mag2()+MASS_MU*MASS_MU));
muon.globalTrack.Part.charge = glTrack->charge();
muon.globalTrack.numberOfValidTkHits = glTrack->hitPattern().numberOfValidTrackerHits();
muon.globalTrack.numberOfValidMuonHits = glTrack->hitPattern().numberOfValidMuonHits();
// cout<<glTrack->hitPattern().numberOfValidTrackerHits()<<endl;
// cout<<glTrack->hitPattern().numberOfValidMuonHits()<<endl;
muon.globalTrack.numberOfValidStripHits = glTrack->hitPattern().numberOfValidStripHits();
muon.globalTrack.numberOfValidPixelHits = glTrack->hitPattern().numberOfValidPixelHits();
muon.globalTrack.numberOfValidMuonRPCHits = glTrack->hitPattern().numberOfValidMuonRPCHits();
muon.globalTrack.numberOfValidMuonCSCHits = glTrack->hitPattern().numberOfValidMuonCSCHits();
muon.globalTrack.numberOfValidMuonDTHits = glTrack->hitPattern().numberOfValidMuonDTHits();
muon.globalTrack.nhit = glTrack->hitPattern().numberOfValidHits();
muon.globalTrack.chi2n = glTrack->normalizedChi2();
muon.globalTrack.dz = glTrack->dz();
muon.globalTrack.d0 = glTrack->d0();
muon.globalTrack.edz = glTrack->dzError();
muon.globalTrack.ed0 = glTrack->d0Error();
muon.globalTrack.ept = glTrack->ptError();
muon.globalTrack.vx = glTrack->vertex().x();
muon.globalTrack.vy = glTrack->vertex().y();
muon.globalTrack.vz = glTrack->vertex().z();
muon.globalTrack.quality[0] = glTrack->quality(reco::TrackBase::qualityByName("loose"));
muon.globalTrack.quality[1] = glTrack->quality(reco::TrackBase::qualityByName("tight"));
muon.globalTrack.quality[2] = glTrack->quality(reco::TrackBase::qualityByName("highPurity"));
muon.globalTrack.vtxid.clear();
muon.globalTrack.vtxdxy.clear();
muon.globalTrack.vtxdz.clear();
for ( int i = 0 ; i != vtxid ; i++ )
{
muon.globalTrack.vtxid.push_back( i );
muon.globalTrack.vtxdxy.push_back( glTrack->dxy( vtxid_xyz[i] ) );
muon.globalTrack.vtxdz.push_back( glTrack->dz( vtxid_xyz[i] ) );
}
}
else {
muon.globalTrack.d0 = -999;
for ( int i = 0 ; i != vtxid ; i++ )
{
muon.globalTrack.vtxid.push_back( i );
muon.globalTrack.vtxdxy.push_back( -999 );
muon.globalTrack.vtxdz.push_back( -999 );
}
}
// Inner Muon Track
if(iMuon->innerTrack().isAvailable()){
reco::TrackRef inTrack = iMuon->innerTrack();
muon.innerTrack.Part.v.SetPxPyPzE(inTrack->momentum().x(),
inTrack->momentum().y(),
inTrack->momentum().z(),
sqrt(inTrack->momentum().mag2()+MASS_MU*MASS_MU));
muon.innerTrack.Part.charge = inTrack->charge();
muon.innerTrack.numberOfValidTkHits = inTrack->hitPattern().numberOfValidTrackerHits();
muon.innerTrack.numberOfValidMuonHits = inTrack->hitPattern().numberOfValidMuonHits();
muon.innerTrack.numberOfValidStripHits = inTrack->hitPattern().numberOfValidStripHits();
muon.innerTrack.numberOfValidPixelHits = inTrack->hitPattern().numberOfValidPixelHits();
muon.innerTrack.numberOfValidMuonRPCHits = inTrack->hitPattern().numberOfValidMuonRPCHits();
muon.innerTrack.numberOfValidMuonCSCHits = inTrack->hitPattern().numberOfValidMuonCSCHits();
muon.innerTrack.numberOfValidMuonDTHits = inTrack->hitPattern().numberOfValidMuonDTHits();
muon.innerTrack.nhit = inTrack->hitPattern().numberOfValidHits();
muon.innerTrack.chi2n = inTrack->normalizedChi2();
muon.innerTrack.dz = inTrack->dz();
muon.innerTrack.d0 = inTrack->d0();
muon.innerTrack.edz = inTrack->dzError();
muon.innerTrack.ed0 = inTrack->d0Error();
muon.innerTrack.ept = inTrack->ptError();
muon.innerTrack.vx = inTrack->vertex().x();
muon.innerTrack.vy = inTrack->vertex().y();
muon.innerTrack.vz = inTrack->vertex().z();
muon.innerTrack.quality[0] = inTrack->quality(reco::TrackBase::qualityByName("loose"));
muon.innerTrack.quality[1] = inTrack->quality(reco::TrackBase::qualityByName("tight"));
muon.innerTrack.quality[2] = inTrack->quality(reco::TrackBase::qualityByName("highPurity"));
muon.innerTrack.vtxid.clear();
muon.innerTrack.vtxdxy.clear();
muon.innerTrack.vtxdz.clear();
for ( int i = 0 ; i != vtxid ; i++ )
{
muon.innerTrack.vtxid.push_back( i );
muon.innerTrack.vtxdxy.push_back( inTrack->dxy( vtxid_xyz[i] ) );
muon.innerTrack.vtxdz.push_back( inTrack->dz( vtxid_xyz[i] ) );
}
// Boris 3D IP Stuff
int iVtx = 0;
muon.vtxid.clear();
muon.tip.clear();
muon.tipErr.clear();
muon.ip.clear();
muon.ipErr.clear();
muon.tip2.clear();
muon.tip2Err.clear();
muon.ip2.clear();
muon.ip2Err.clear();
// ... redo muon trajectory
reco::TransientTrack tt = theTTBuilder->build(iMuon->innerTrack());
// ... get beamspot + first entry in IP respecting BS
edm::Handle<reco::BeamSpot> bs;
iEvent.getByLabel(edm::InputTag("offlineBeamSpot"),bs);
reco::Vertex bsvtx = reco::Vertex(reco::Vertex::Point(bs->position().x(),bs->position().y(),bs->position().z()),reco::Vertex::Error());
Measurement1D ip = IPTools::absoluteTransverseImpactParameter(tt,bsvtx).second;
Measurement1D ip3D = IPTools::absoluteImpactParameter3D(tt,bsvtx).second;
muon.vtxid.push_back( iVtx );
++iVtx;
muon.tip.push_back( ip.value() );
muon.tipErr.push_back( ip.error() );
muon.ip.push_back( ip3D.value() );
muon.ipErr.push_back( ip3D.error() );
muon.tip2.push_back( ip.value() );
muon.tip2Err.push_back( ip.error() );
muon.ip2.push_back( ip3D.value() );
muon.ip2Err.push_back( ip3D.error() );
// ... Loop on vtx collections
for (unsigned int ivc=0; ivc!= vertexs.size(); ivc++){
// ... get vertex collection
edm::Handle<reco::VertexCollection> vertices;
iEvent.getByLabel(vertexs.at(ivc),vertices);
//cout << vertexs.at(ivc) << " -> size = " << vertices->end()-vertices->begin() << endl;
// ... prepare refitting
VertexReProducer revertex(vertices, iEvent);
Handle<reco::BeamSpot> pvbeamspot;
iEvent.getByLabel(revertex.inputBeamSpot(), pvbeamspot);
// ... Loop on vtx in curent collection
for(VertexCollection::const_iterator pvtx=vertices->begin(); pvtx!= vertices->end() ; ++pvtx)
{
reco::Vertex vertexYesB;
reco::Vertex vertexNoB;
reco::TrackCollection newTkCollection;
vertexYesB = *pvtx ;
// ... Remove lepton track
bool foundMatch(false);
for (reco::Vertex::trackRef_iterator itk = pvtx->tracks_begin(); itk!=pvtx->tracks_end(); ++itk)
{
bool refMatching = (itk->get() == &*(iMuon->innerTrack()) );
if(refMatching){
foundMatch = true;
}else{
newTkCollection.push_back(*itk->get());
}
}//track collection for vertexNoB is set
//cout << "checking mu matching" << endl;
if(!foundMatch) {
//cout << "WARNING: no muon matching found" << endl;
vertexNoB = vertexYesB;
}else{
vector<TransientVertex> pvs = revertex.makeVertices(newTkCollection, *pvbeamspot, iSetup) ;
//cout << pvs.size() << endl;
if(pvs.empty()) {
vertexNoB = reco::Vertex(reco::Vertex::Point(bs->position().x(),bs->position().y(),bs->position().z()),
reco::Vertex::Error());
} else {
//vertexNoB = findClosestVertex<TransientVertex>(zPos,pvs);
vertexNoB = pvs.front(); //take the first in the list
}
}
// ... Compute 3D IP
Measurement1D ip = IPTools::absoluteTransverseImpactParameter(tt,vertexYesB).second;
Measurement1D ip3D = IPTools::absoluteImpactParameter3D(tt,vertexYesB).second;
Measurement1D ip_2 = IPTools::absoluteTransverseImpactParameter(tt,vertexNoB).second;
Measurement1D ip3D_2 = IPTools::absoluteImpactParameter3D(tt,vertexNoB).second;
muon.vtxid.push_back( iVtx );
++iVtx;
muon.tip.push_back( ip.value() );
muon.tipErr.push_back( ip.error() );
muon.ip.push_back( ip3D.value() );
muon.ipErr.push_back( ip3D.error() );
muon.tip2.push_back( ip_2.value() );
muon.tip2Err.push_back( ip_2.error() );
muon.ip2.push_back( ip3D_2.value() );
muon.ip2Err.push_back( ip3D_2.error() );
/*
if (foundMatch){
cout << ip3D.value() << " " << ip3D_2.value() << endl;
}
*/
} // END ... Loop on vtx in curent collection
} // END ... Loop on vtx collections
} else {
muon.innerTrack.d0 = -999;
for ( int i = 0 ; i != vtxid ; i++ )
{
muon.innerTrack.vtxid.push_back( i );
muon.innerTrack.vtxdxy.push_back( -999 ) ;
muon.innerTrack.vtxdz.push_back( -999 );
muon.vtxid.push_back( i ) ;
muon.tip.push_back( -999 ) ;
muon.tipErr.push_back( -999 ) ;
muon.ip.push_back( -999 ) ;
muon.ipErr.push_back( -999 ) ;
muon.tip2.push_back( -999 ) ;
muon.tip2Err.push_back(-999 ) ;
muon.ip2.push_back( -999 ) ;
muon.ip2Err.push_back( -999 ) ;
}
}
// Outer Muon Track
if(iMuon->outerTrack().isAvailable()){
reco::TrackRef outTrack = iMuon->outerTrack();
muon.outerTrack.Part.v.SetPxPyPzE(outTrack->momentum().x(),
outTrack->momentum().y(),
outTrack->momentum().z(),
sqrt(outTrack->momentum().mag2()+MASS_MU*MASS_MU));
muon.outerTrack.Part.charge = outTrack->charge();
muon.outerTrack.numberOfValidTkHits = outTrack->hitPattern().numberOfValidTrackerHits();
muon.outerTrack.numberOfValidMuonHits = outTrack->hitPattern().numberOfValidMuonHits();
muon.outerTrack.numberOfValidStripHits = outTrack->hitPattern().numberOfValidStripHits();
muon.outerTrack.numberOfValidPixelHits = outTrack->hitPattern().numberOfValidPixelHits();
muon.outerTrack.numberOfValidMuonRPCHits = outTrack->hitPattern().numberOfValidMuonRPCHits();
muon.outerTrack.numberOfValidMuonCSCHits = outTrack->hitPattern().numberOfValidMuonCSCHits();
muon.outerTrack.numberOfValidMuonDTHits = outTrack->hitPattern().numberOfValidMuonDTHits();
muon.outerTrack.nhit = outTrack->hitPattern().numberOfValidHits();
muon.outerTrack.chi2n = outTrack->normalizedChi2();
muon.outerTrack.dz = outTrack->dz();
muon.outerTrack.d0 = outTrack->d0();
muon.outerTrack.edz = outTrack->dzError();
muon.outerTrack.ed0 = outTrack->d0Error();
muon.outerTrack.ept = outTrack->ptError();
muon.outerTrack.vx = outTrack->vertex().x();
muon.outerTrack.vy = outTrack->vertex().y();
muon.outerTrack.vz = outTrack->vertex().z();
muon.outerTrack.quality[0] = outTrack->quality(reco::TrackBase::qualityByName("loose"));
muon.outerTrack.quality[1] = outTrack->quality(reco::TrackBase::qualityByName("tight"));
muon.outerTrack.quality[2] = outTrack->quality(reco::TrackBase::qualityByName("highPurity"));
muon.outerTrack.vtxid.clear();
muon.outerTrack.vtxdxy.clear();
muon.outerTrack.vtxdz.clear();
for ( int i = 0 ; i != vtxid ; i++ )
{
muon.outerTrack.vtxid.push_back( i );
muon.outerTrack.vtxdxy.push_back( outTrack->dxy( vtxid_xyz[i] ) );
muon.outerTrack.vtxdz.push_back( outTrack->dz( vtxid_xyz[i] ) );
}
}
else {
muon.outerTrack.d0 = -999;
for ( int i = 0 ; i != vtxid ; i++ )
{
muon.outerTrack.vtxid.push_back( i );
muon.outerTrack.vtxdxy.push_back( -999 );
muon.outerTrack.vtxdz.push_back( -999 );
}
}
MuonVector.push_back(muon);
} // end for MuonCollection
}
void ChPartTree::GetFwdGap(const edm::Event& iEvent , const edm::EventSetup& iSetup )
{
using namespace std;
int nTowersHF_plus = 0;
int nTowersHF_minus = 0;
int nTowersHE_plus = 0;
int nTowersHE_minus = 0;
int nTowersHB_plus = 0;
int nTowersHB_minus = 0;
int nTowersEE_plus = 0;
int nTowersEE_minus = 0;
int nTowersEB_plus = 0;
int nTowersEB_minus = 0;
//Sum(E)
double sumEHF_plus = 0.;
double sumEHF_minus = 0.;
double sumEHE_plus = 0.;
double sumEHE_minus = 0.;
double sumEHB_plus = 0.;
double sumEHB_minus = 0.;
double sumEEE_plus = 0.;
double sumEEE_minus = 0.;
double sumEEB_plus = 0.;
double sumEEB_minus = 0.;
// Sum(ET)
double sumETHF_plus = 0.;
double sumETHF_minus = 0.;
double sumETHE_plus = 0.;
double sumETHE_minus = 0.;
double sumETHB_plus = 0.;
double sumETHB_minus = 0.;
double sumETEE_plus = 0.;
double sumETEE_minus = 0.;
double sumETEB_plus = 0.;
double sumETEB_minus = 0.;
FwdGap.Reset();
// Calo tower collection from event
edm::Handle<CaloTowerCollection> towerCollectionH;
iEvent.getByLabel(caloTowerTag_,towerCollectionH);
const CaloTowerCollection& towerCollection = *towerCollectionH;
// Loop over calo towers
CaloTowerCollection::const_iterator calotower = towerCollection.begin();
CaloTowerCollection::const_iterator calotowers_end = towerCollection.end();
for(; calotower != calotowers_end; ++calotower) {
bool hasHCAL = false;
bool hasHF = false;
bool hasHE = false;
bool hasHB = false;
bool hasHO = false;
bool hasECAL = false;
bool hasEE = false;
bool hasEB = false;
for(size_t iconst = 0; iconst < calotower->constituentsSize(); iconst++){
DetId detId = calotower->constituent(iconst);
if(detId.det()==DetId::Hcal){
hasHCAL = true;
HcalDetId hcalDetId(detId);
if(hcalDetId.subdet()==HcalForward) hasHF = true;
else if(hcalDetId.subdet()==HcalEndcap) hasHE = true;
else if(hcalDetId.subdet()==HcalBarrel) hasHB = true;
else if(hcalDetId.subdet()==HcalOuter) hasHO = true;
} else if(detId.det()==DetId::Ecal){
hasECAL = true;
EcalSubdetector ecalSubDet = (EcalSubdetector)detId.subdetId();
if(ecalSubDet == EcalEndcap) hasEE = true;
else if(ecalSubDet == EcalBarrel) hasEB = true;
}
}
int zside = calotower->zside();
double caloTowerEnergy = calotower->energy();
// FIXME
//double caloTowerET = calotower->et(primVtx.position());
//double caloTowerET = calotower->et(primVtx.z());
double caloTowerET = calotower->et();
// HCAL: Towers made of at least one component from HB,HE,HF
if( hasHF && !hasHE ){
if( caloTowerEnergy >= energyThresholdHF_ ){
if(zside >= 0){
++nTowersHF_plus;
sumEHF_plus += caloTowerEnergy;
sumETHF_plus += caloTowerET;
} else{
++nTowersHF_minus;
sumEHF_minus += caloTowerEnergy;
sumETHF_minus += caloTowerET;
}
}
} else if( hasHE && !hasHF && !hasHB ){
if( caloTowerEnergy >= energyThresholdHE_ ){
if(zside >= 0){
++nTowersHE_plus;
sumEHE_plus += caloTowerEnergy;
sumETHE_plus += caloTowerET;
} else{
++nTowersHE_minus;
sumEHE_minus += caloTowerEnergy;
sumETHE_minus += caloTowerET;
}
}
} else if( hasHB && !hasHE ){
if( caloTowerEnergy >= energyThresholdHB_ ){
if(zside >= 0){
++nTowersHB_plus;
sumEHB_plus += caloTowerEnergy;
sumETHB_plus += caloTowerET;
} else{
++nTowersHB_minus;
sumEHB_minus += caloTowerEnergy;
sumETHB_minus += caloTowerET;
}
}
}
// ECAL: Towers made of at least one component from EB,EE
if( hasEE && !hasEB ){
if( caloTowerEnergy >= energyThresholdEE_ ){
if(zside >= 0){
++nTowersEE_plus;
sumEEE_plus += caloTowerEnergy;
sumETEE_plus += caloTowerET;
} else{
++nTowersEE_minus;
sumEEE_minus += caloTowerEnergy;
sumETEE_minus += caloTowerET;
}
}
} else if( hasEB && !hasEE ){
if( caloTowerEnergy >= energyThresholdEB_ ){
if(zside >= 0){
++nTowersEB_plus;
sumEEB_plus += caloTowerEnergy;
sumETEB_plus += caloTowerET;
} else{
++nTowersEB_minus;
sumEEB_minus += caloTowerEnergy;
sumETEB_minus += caloTowerET;
}
}
}
}
FwdGap.nTowersHF_plus = nTowersHF_plus ;
FwdGap.nTowersHF_minus = nTowersHF_minus ;
FwdGap.nTowersHE_plus = nTowersHE_plus ;
FwdGap.nTowersHE_minus = nTowersHE_minus ;
FwdGap.nTowersHB_plus = nTowersHB_plus ;
FwdGap.nTowersHB_minus = nTowersHB_minus ;
FwdGap.nTowersEE_plus = nTowersEE_plus ;
FwdGap.nTowersEE_minus = nTowersEE_minus ;
FwdGap.nTowersEB_plus = nTowersEB_plus ;
FwdGap.nTowersEB_minus = nTowersEB_minus ;
FwdGap.sumEHF_plus = sumEHF_plus ;
FwdGap.sumEHF_minus = sumEHF_minus ;
FwdGap.sumEHE_plus = sumEHE_plus ;
FwdGap.sumEHE_minus = sumEHE_minus ;
FwdGap.sumEHB_plus = sumEHB_plus ;
FwdGap.sumEHB_minus = sumEHB_minus ;
FwdGap.sumEEE_plus = sumEEE_plus ;
FwdGap.sumEEE_minus = sumEEE_minus ;
FwdGap.sumEEB_plus = sumEEB_plus ;
FwdGap.sumEEB_minus = sumEEB_minus ;
FwdGap.sumETHF_plus = sumETHF_plus ;
FwdGap.sumETHF_minus = sumETHF_minus ;
FwdGap.sumETHE_plus = sumETHE_plus ;
FwdGap.sumETHE_minus = sumETHE_minus ;
FwdGap.sumETHB_plus = sumETHB_plus ;
FwdGap.sumETHB_minus = sumETHB_minus ;
FwdGap.sumETEE_plus = sumETEE_plus ;
FwdGap.sumETEE_minus = sumETEE_minus ;
FwdGap.sumETEB_plus = sumETEB_plus ;
FwdGap.sumETEB_minus = sumETEB_minus ;
/*
cout << "[FwdGap]: " << sumEHF_plus << " " << sumEHF_minus << " "
<< sumEHE_plus << " " << sumEHE_minus << " "
<< sumEHB_plus << " " << sumEHB_minus << " "
<< sumEEE_plus << " " << sumEEE_minus << " "
<< sumEEB_plus << " " << sumEEB_minus << " " << endl ;
*/
}
void UAHiggsTree::GetGenJet(const edm::Event& iEvent , const edm::EventSetup& iSetup,
const string GenJetCollection_ , vector<MyGenJet>& JetVector )
{
using namespace std;
using namespace edm;
using namespace reco;
// Clear
JetVector.clear();
// Handle to access PDG data from iSetup
ESHandle <ParticleDataTable> pdt;
iSetup.getData( pdt );
// get gen jet collection
Handle<GenJetCollection> genjets;
iEvent.getByLabel(GenJetCollection_, genjets);
for(GenJetCollection::const_iterator genjet=genjets->begin();genjet!=genjets->end();genjet++){
MyGenJet Jet;
Jet.et = genjet->et();
Jet.pt = genjet->pt();
Jet.eta = genjet->eta();
Jet.phi = genjet->phi();
Jet.e = genjet->energy();
Jet.px = genjet->px();
Jet.py = genjet->py();
Jet.pz = genjet->pz();
Jet.npart = genjet->nConstituents();
Jet.JetPart.clear();
if (GenJetDebug) cout << genjet->nConstituents() << endl;
std::vector <const reco::GenParticle*> mcparts = genjet->getGenConstituents();
for (unsigned i = 0; i < mcparts.size (); i++) {
const reco::GenParticle* p = mcparts[i];
if (GenJetDebug)
cout << i
<< " " << p->pdgId()
<< " " << (pdt->particle(p->pdgId()))->name()
<< " " << p->pt()
<< " " << p->eta()
<< " " << p->phi()
<< " " << p->charge()
<< endl ;
MyGenPart genpart;
// Four vector
genpart.pt = p->pt();
genpart.eta = p->eta();
genpart.phi = p->phi();
genpart.e = p->energy();
genpart.px = p->px();
genpart.py = p->py();
genpart.pz = p->pz();
genpart.m = p->mass();
genpart.Part.v.SetPxPyPzE( p->px() , p->py() , p->pz() , p->energy() );
// Extra properties
genpart.Part.charge = p->charge();
genpart.charge = p->charge();
genpart.pdgId = p->pdgId();
genpart.name = (pdt->particle(p->pdgId()))->name();
genpart.status = p->status();
Jet.JetPart.push_back(genpart);
}
vector<int> i;
JetVector.push_back(Jet);
}
}