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ROOT interface to particle flow package. More...
#include <PFRootEventManager.h>
ROOT interface to particle flow package.
This base class allows to perform clustering and particle flow from ROOT CINT (or any program). It is designed to support analysis and developpement. Users should feel free to create their own PFRootEventManager, inheriting from this base class. Just reimplement the ProcessEntry function
An example:
gSystem->Load("libFWCoreFWLite.so"); gSystem->Load("libRecoParticleFlowPFRootEvent.so"); AutoLibraryLoader::enable(); gSystem->Load("libCintex.so"); ROOT::Cintex::Cintex::Enable(); PFRootEventManager em("pfRootEvent.opt"); int i=0; em.processEntry( i++ )
pfRootEvent.opt is an option file (see IO class):
root file test.root root hits_branch recoPFRecHits_pfcluster__Demo.obj root recTracks_branch recoPFRecTracks_pf_PFRecTrackCollection_Demo.obj display algos 1 display viewsize_etaphi 600 400 display viewsize_xy 400 400 display color_clusters 1 clustering thresh_Ecal_Barrel 0.2 clustering thresh_Seed_Ecal_Barrel 0.3 clustering thresh_Ecal_Endcap 0.2 clustering thresh_Seed_Ecal_Endcap 0.9 clustering neighbours_Ecal 4 clustering depthCor_Mode 1 clustering depthCor_A 0.89 clustering depthCor_B 7.3 clustering depthCor_A_preshower 0.89 clustering depthCor_B_preshower 4.0 clustering thresh_Hcal_Barrel 1.0 clustering thresh_Seed_Hcal_Barrel 1.4 clustering thresh_Hcal_Endcap 1.0 clustering thresh_Seed_Hcal_Endcap 1.4 clustering neighbours_Hcal 4
Definition at line 190 of file PFRootEventManager.h.
| typedef std::map<int, int> PFRootEventManager::EventToEntry |
Definition at line 891 of file PFRootEventManager.h.
| typedef std::map<int, EventToEntry> PFRootEventManager::LumisMap |
Definition at line 892 of file PFRootEventManager.h.
| typedef std::map<int, LumisMap> PFRootEventManager::RunsMap |
Definition at line 893 of file PFRootEventManager.h.
Definition at line 196 of file PFRootEventManager.h.
| PFRootEventManager::PFRootEventManager | ( | ) |
| PFRootEventManager::PFRootEventManager | ( | const char * | file | ) |
| is | an option file, see IO |
Definition at line 62 of file PFRootEventManager.cc.
References h_deltaETvisible_MCEHT_, h_deltaETvisible_MCPF_, initializeEventInformation(), and readOptions().
: iEvent_(0), options_(0), ev_(0), tree_(0), outTree_(0), outEvent_(0), // clusters_(new reco::PFClusterCollection), eventAuxiliary_( new edm::EventAuxiliary ), clustersECAL_(new reco::PFClusterCollection), clustersHCAL_(new reco::PFClusterCollection), clustersHO_(new reco::PFClusterCollection), clustersHFEM_(new reco::PFClusterCollection), clustersHFHAD_(new reco::PFClusterCollection), clustersPS_(new reco::PFClusterCollection), pfBlocks_(new reco::PFBlockCollection), pfCandidates_(new reco::PFCandidateCollection), pfCandidateElectronExtras_(new reco::PFCandidateElectronExtraCollection), //pfJets_(new reco::PFJetCollection), outFile_(0), calibFile_(0) { // iEvent_=0; h_deltaETvisible_MCEHT_ = new TH1F("h_deltaETvisible_MCEHT","Jet Et difference CaloTowers-MC" ,1000,-50.,50.); h_deltaETvisible_MCPF_ = new TH1F("h_deltaETvisible_MCPF" ,"Jet Et difference ParticleFlow-MC" ,1000,-50.,50.); readOptions(file, true, true); initializeEventInformation(); // maxERecHitEcal_ = -1; // maxERecHitHcal_ = -1; }
| PFRootEventManager::~PFRootEventManager | ( | ) | [virtual] |
| const reco::PFBlockCollection& PFRootEventManager::blocks | ( | ) | const [inline] |
Definition at line 391 of file PFRootEventManager.h.
References pfBlocks_.
Referenced by DisplayManager::findBlock().
{ return *pfBlocks_; }
| int PFRootEventManager::chargeValue | ( | const int & | pdgId | ) | const |
return the chargex3
Definition at line 2617 of file PFRootEventManager.cc.
References abs.
{
//...Purpose: to give three times the charge for a particle/parton.
// ID = particle ID
// hepchg = particle charge times 3
int kqa,kq1,kq2,kq3,kqj,irt,kqx,kqn;
int hepchg;
int ichg[109]={-1,2,-1,2,-1,2,-1,2,0,0,-3,0,-3,0,-3,0,
-3,0,0,0,0,0,0,3,0,0,0,0,0,0,3,0,3,6,0,0,3,6,0,0,-1,2,-1,2,-1,2,0,0,0,0,
-3,0,-3,0,-3,0,0,0,0,0,-1,2,-1,2,-1,2,0,0,0,0,
-3,0,-3,0,-3,0,3,3,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0};
//...Initial values. Simple case of direct readout.
hepchg=0;
kqa=std::abs(Id);
kqn=kqa/1000000000%10;
kqx=kqa/1000000%10;
kq3=kqa/1000%10;
kq2=kqa/100%10;
kq1=kqa/10%10;
kqj=kqa%10;
irt=kqa%10000;
//...illegal or ion
//...set ion charge to zero - not enough information
if(kqa==0 || kqa >= 10000000) {
if(kqn==1) {hepchg=0;}
}
//... direct translation
else if(kqa<=100) {hepchg = ichg[kqa-1];}
//... deuteron or tritium
else if(kqa==100 || kqa==101) {hepchg = -3;}
//... alpha or He3
else if(kqa==102 || kqa==104) {hepchg = -6;}
//... KS and KL (and undefined)
else if(kqj == 0) {hepchg = 0;}
//C... direct translation
else if(kqx>0 && irt<100)
{
hepchg = ichg[irt-1];
if(kqa==1000017 || kqa==1000018) {hepchg = 0;}
if(kqa==1000034 || kqa==1000052) {hepchg = 0;}
if(kqa==1000053 || kqa==1000054) {hepchg = 0;}
if(kqa==5100061 || kqa==5100062) {hepchg = 6;}
}
//...Construction from quark content for heavy meson, diquark, baryon.
//...Mesons.
else if(kq3==0)
{
hepchg = ichg[kq2-1]-ichg[kq1-1];
//...Strange or beauty mesons.
if((kq2==3) || (kq2==5)) {hepchg = ichg[kq1-1]-ichg[kq2-1];}
}
else if(kq1 == 0) {
//...Diquarks.
hepchg = ichg[kq3-1] + ichg[kq2-1];
}
else{
//...Baryons
hepchg = ichg[kq3-1]+ichg[kq2-1]+ichg[kq1-1];
}
//... fix sign of charge
if(Id<0 && hepchg!=0) {hepchg = -1*hepchg;}
// cout << hepchg<< endl;
return hepchg;
}
| const reco::PFSimParticle & PFRootEventManager::closestParticle | ( | reco::PFTrajectoryPoint::LayerType | layer, |
| double | eta, | ||
| double | phi, | ||
| double & | peta, | ||
| double & | pphi, | ||
| double & | pe | ||
| ) | const |
find the closest PFSimParticle to a point (eta,phi) in a given detector
Definition at line 4449 of file PFRootEventManager.cc.
References eta, reco::PFTrack::extrapolatedPoint(), i, reco::PFTrajectoryPoint::momentum(), reco::PFTrajectoryPoint::NLayers, reco::PFTrack::nTrajectoryMeasurements(), reco::PFTrack::nTrajectoryPoints(), phi, reco::PFTrajectoryPoint::position(), and trueParticles_.
Referenced by fillOutEventWithClusters().
{
if( trueParticles_.empty() ) {
string err = "PFRootEventManager::closestParticle : ";
err += "vector of PFSimParticles is empty";
throw std::length_error( err.c_str() );
}
double mindist2 = 99999999;
unsigned iClosest=0;
for(unsigned i=0; i<trueParticles_.size(); i++) {
const reco::PFSimParticle& ptc = trueParticles_[i];
// protection for old version of the PFSimParticle
// dataformats.
if( layer >= reco::PFTrajectoryPoint::NLayers ||
ptc.nTrajectoryMeasurements() + layer >=
ptc.nTrajectoryPoints() ) {
continue;
}
const reco::PFTrajectoryPoint& tp
= ptc.extrapolatedPoint( layer );
peta = tp.position().Eta();
pphi = tp.position().Phi();
pe = tp.momentum().E();
double deta = peta - eta;
double dphi = pphi - phi;
double dist2 = deta*deta + dphi*dphi;
if(dist2<mindist2) {
mindist2 = dist2;
iClosest = i;
}
}
return trueParticles_[iClosest];
}
| void PFRootEventManager::clustering | ( | ) |
read data from testbeam tree
performs clustering
Definition at line 2774 of file PFRootEventManager.cc.
References clusterAlgoECAL_, clusterAlgoHCAL_, clusterAlgoHFEM_, clusterAlgoHFHAD_, clusterAlgoHO_, clusterAlgoPS_, PFClusterAlgo::clusters(), clustersECAL_, clustersHCAL_, clustersHFEM_, clustersHFHAD_, clustersHO_, clustersPS_, gather_cfg::cout, PFClusterAlgo::doClustering(), fillOutEventWithClusters(), fillRecHitMask(), rechitsECAL_, rechitsHCAL_, rechitsHFEM_, rechitsHFHAD_, rechitsHO_, rechitsPS_, useHO_, VERBOSE, and verbosity_.
Referenced by processEntry().
{
if (verbosity_ == VERBOSE ) {
cout <<"start clustering"<<endl;
}
vector<bool> mask;
// ECAL clustering -------------------------------------------
fillRecHitMask( mask, rechitsECAL_ );
clusterAlgoECAL_.doClustering( rechitsECAL_, mask );
clustersECAL_ = clusterAlgoECAL_.clusters();
assert(clustersECAL_.get() );
fillOutEventWithClusters( *clustersECAL_ );
// HCAL clustering -------------------------------------------
fillRecHitMask( mask, rechitsHCAL_ );
clusterAlgoHCAL_.doClustering( rechitsHCAL_, mask );
clustersHCAL_ = clusterAlgoHCAL_.clusters();
fillOutEventWithClusters( *clustersHCAL_ );
// HO clustering -------------------------------------------
if (useHO_) {
fillRecHitMask( mask, rechitsHO_ );
clusterAlgoHO_.doClustering( rechitsHO_, mask );
clustersHO_ = clusterAlgoHO_.clusters();
fillOutEventWithClusters( *clustersHO_ );
}
// HF clustering -------------------------------------------
fillRecHitMask( mask, rechitsHFEM_ );
clusterAlgoHFEM_.doClustering( rechitsHFEM_, mask );
clustersHFEM_ = clusterAlgoHFEM_.clusters();
fillRecHitMask( mask, rechitsHFHAD_ );
clusterAlgoHFHAD_.doClustering( rechitsHFHAD_, mask );
clustersHFHAD_ = clusterAlgoHFHAD_.clusters();
// PS clustering -------------------------------------------
fillRecHitMask( mask, rechitsPS_ );
clusterAlgoPS_.doClustering( rechitsPS_, mask );
clustersPS_ = clusterAlgoPS_.clusters();
fillOutEventWithClusters( *clustersPS_ );
}
| void PFRootEventManager::connect | ( | const char * | infilename = "" | ) |
open the root file and connect to the tree
Definition at line 1588 of file PFRootEventManager.cc.
References caloJetsTag_, caloMetsTag_, caloTowersTag_, convBremGsfrecTracksTag_, conversionTag_, corrcaloJetsTag_, gather_cfg::cout, displacedRecTracksTag_, AutoLibraryLoader::enable(), ev_, genJetsTag_, genParticlesforJetsTag_, genParticlesforMETTag_, IO::GetOpt(), gsfrecTracksTag_, compare_using_db::ifile, inFileNames_, fwlite::ChainEvent::isValid(), MCTruthTag_, muonsTag_, options_, pfCandidateTag_, pfJetsTag_, pfMetsTag_, pfNuclearTrackerVertexTag_, photonTag_, primaryVerticesTag_, rechitsCLEANEDHandles_, rechitsCLEANEDTags_, rechitsCLEANEDV_, rechitsECALTag_, rechitsHCALTag_, rechitsHFEMTag_, rechitsHFHADTag_, rechitsHOTag_, rechitsPSTag_, recTracksTag_, fwlite::ChainEvent::size(), stdTracksTag_, AlCaHLTBitMon_QueryRunRegistry::string, o2o::tags, tcMetsTag_, trueParticlesTag_, useConvBremGsfTracks_, useConvBremPFRecTracks_, usePFConversions_, usePFNuclearInteractions_, usePFV0s_, and v0Tag_.
Referenced by readOptions().
{
cout<<"Opening input root files"<<endl;
options_->GetOpt("root","file", inFileNames_);
try {
AutoLibraryLoader::enable();
}
catch(string& err) {
cout<<err<<endl;
}
ev_ = new fwlite::ChainEvent(inFileNames_);
if ( !ev_ || !ev_->isValid() ) {
cout << "The rootfile(s) " << endl;
for ( unsigned int ifile=0; ifile<inFileNames_.size(); ++ifile )
std::cout << " - " << inFileNames_[ifile] << std::endl;
cout << " is (are) not valid file(s) to open" << endl;
return;
} else {
cout << "The rootfile(s) : " << endl;
for ( unsigned int ifile=0; ifile<inFileNames_.size(); ++ifile )
std::cout << " - " << inFileNames_[ifile] << std::endl;
cout<<" are opened with " << ev_->size() << " events." <<endl;
}
// hits branches ----------------------------------------------
std::string rechitsECALtagname;
options_->GetOpt("root","rechits_ECAL_inputTag", rechitsECALtagname);
rechitsECALTag_ = edm::InputTag(rechitsECALtagname);
std::string rechitsHCALtagname;
options_->GetOpt("root","rechits_HCAL_inputTag", rechitsHCALtagname);
rechitsHCALTag_ = edm::InputTag(rechitsHCALtagname);
std::string rechitsHOtagname;
options_->GetOpt("root","rechits_HO_inputTag", rechitsHOtagname);
rechitsHOTag_ = edm::InputTag(rechitsHOtagname);
std::string rechitsHFEMtagname;
options_->GetOpt("root","rechits_HFEM_inputTag", rechitsHFEMtagname);
rechitsHFEMTag_ = edm::InputTag(rechitsHFEMtagname);
std::string rechitsHFHADtagname;
options_->GetOpt("root","rechits_HFHAD_inputTag", rechitsHFHADtagname);
rechitsHFHADTag_ = edm::InputTag(rechitsHFHADtagname);
std::vector<string> rechitsCLEANEDtagnames;
options_->GetOpt("root","rechits_CLEANED_inputTags", rechitsCLEANEDtagnames);
for ( unsigned tags = 0; tags<rechitsCLEANEDtagnames.size(); ++tags )
rechitsCLEANEDTags_.push_back(edm::InputTag(rechitsCLEANEDtagnames[tags]));
rechitsCLEANEDV_.resize(rechitsCLEANEDTags_.size());
rechitsCLEANEDHandles_.resize(rechitsCLEANEDTags_.size());
// Tracks branches
std::string rechitsPStagname;
options_->GetOpt("root","rechits_PS_inputTag", rechitsPStagname);
rechitsPSTag_ = edm::InputTag(rechitsPStagname);
std::string recTrackstagname;
options_->GetOpt("root","recTracks_inputTag", recTrackstagname);
recTracksTag_ = edm::InputTag(recTrackstagname);
std::string displacedRecTrackstagname;
options_->GetOpt("root","displacedRecTracks_inputTag", displacedRecTrackstagname);
displacedRecTracksTag_ = edm::InputTag(displacedRecTrackstagname);
std::string primaryVerticestagname;
options_->GetOpt("root","primaryVertices_inputTag", primaryVerticestagname);
primaryVerticesTag_ = edm::InputTag(primaryVerticestagname);
std::string stdTrackstagname;
options_->GetOpt("root","stdTracks_inputTag", stdTrackstagname);
stdTracksTag_ = edm::InputTag(stdTrackstagname);
std::string gsfrecTrackstagname;
options_->GetOpt("root","gsfrecTracks_inputTag", gsfrecTrackstagname);
gsfrecTracksTag_ = edm::InputTag(gsfrecTrackstagname);
useConvBremGsfTracks_ = false;
options_->GetOpt("particle_flow", "useConvBremGsfTracks", useConvBremGsfTracks_);
if ( useConvBremGsfTracks_ ) {
std::string convBremGsfrecTrackstagname;
options_->GetOpt("root","convBremGsfrecTracks_inputTag", convBremGsfrecTrackstagname);
convBremGsfrecTracksTag_ = edm::InputTag(convBremGsfrecTrackstagname);
}
useConvBremPFRecTracks_ = false;
options_->GetOpt("particle_flow", "useConvBremPFRecTracks", useConvBremPFRecTracks_);
// muons branch
std::string muonstagname;
options_->GetOpt("root","muon_inputTag", muonstagname);
muonsTag_ = edm::InputTag(muonstagname);
// conversion
usePFConversions_=false;
options_->GetOpt("particle_flow", "usePFConversions", usePFConversions_);
if( usePFConversions_ ) {
std::string conversiontagname;
options_->GetOpt("root","conversion_inputTag", conversiontagname);
conversionTag_ = edm::InputTag(conversiontagname);
}
// V0
usePFV0s_=false;
options_->GetOpt("particle_flow", "usePFV0s", usePFV0s_);
if( usePFV0s_ ) {
std::string v0tagname;
options_->GetOpt("root","V0_inputTag", v0tagname);
v0Tag_ = edm::InputTag(v0tagname);
}
// Photons
std::string photontagname;
options_->GetOpt("root","Photon_inputTag",photontagname);
photonTag_ = edm::InputTag(photontagname);
//Displaced Vertices
usePFNuclearInteractions_=false;
options_->GetOpt("particle_flow", "usePFNuclearInteractions", usePFNuclearInteractions_);
if( usePFNuclearInteractions_ ) {
std::string pfNuclearTrackerVertextagname;
options_->GetOpt("root","PFDisplacedVertex_inputTag", pfNuclearTrackerVertextagname);
pfNuclearTrackerVertexTag_ = edm::InputTag(pfNuclearTrackerVertextagname);
}
std::string trueParticlestagname;
options_->GetOpt("root","trueParticles_inputTag", trueParticlestagname);
trueParticlesTag_ = edm::InputTag(trueParticlestagname);
std::string MCTruthtagname;
options_->GetOpt("root","MCTruth_inputTag", MCTruthtagname);
MCTruthTag_ = edm::InputTag(MCTruthtagname);
std::string caloTowerstagname;
options_->GetOpt("root","caloTowers_inputTag", caloTowerstagname);
caloTowersTag_ = edm::InputTag(caloTowerstagname);
std::string genJetstagname;
options_->GetOpt("root","genJets_inputTag", genJetstagname);
genJetsTag_ = edm::InputTag(genJetstagname);
std::string genParticlesforMETtagname;
options_->GetOpt("root","genParticlesforMET_inputTag", genParticlesforMETtagname);
genParticlesforMETTag_ = edm::InputTag(genParticlesforMETtagname);
std::string genParticlesforJetstagname;
options_->GetOpt("root","genParticlesforJets_inputTag", genParticlesforJetstagname);
genParticlesforJetsTag_ = edm::InputTag(genParticlesforJetstagname);
// PF candidates
std::string pfCandidatetagname;
options_->GetOpt("root","particleFlowCand_inputTag", pfCandidatetagname);
pfCandidateTag_ = edm::InputTag(pfCandidatetagname);
std::string caloJetstagname;
options_->GetOpt("root","CaloJets_inputTag", caloJetstagname);
caloJetsTag_ = edm::InputTag(caloJetstagname);
std::string corrcaloJetstagname;
options_->GetOpt("root","corrCaloJets_inputTag", corrcaloJetstagname);
corrcaloJetsTag_ = edm::InputTag(corrcaloJetstagname);
std::string pfJetstagname;
options_->GetOpt("root","PFJets_inputTag", pfJetstagname);
pfJetsTag_ = edm::InputTag(pfJetstagname);
std::string pfMetstagname;
options_->GetOpt("root","PFMET_inputTag", pfMetstagname);
pfMetsTag_ = edm::InputTag(pfMetstagname);
std::string caloMetstagname;
options_->GetOpt("root","CaloMET_inputTag", caloMetstagname);
caloMetsTag_ = edm::InputTag(caloMetstagname);
std::string tcMetstagname;
options_->GetOpt("root","TCMET_inputTag", tcMetstagname);
tcMetsTag_ = edm::InputTag(tcMetstagname);
}
| bool PFRootEventManager::countChargedAndPhotons | ( | ) | const |
study the sim event to check if the number of stable charged particles and stable photons match the selection
Definition at line 2558 of file PFRootEventManager.cc.
References abs, reco::PFTrack::charge(), DeDxDiscriminatorTools::charge(), reco::PFSimParticle::daughterIds(), alignCSCRings::e, filterTaus_, i, reco::tau::helpers::nCharged(), reco::PFSimParticle::pdgCode(), and trueParticles_.
Referenced by readFromSimulation().
{
int nPhoton = 0;
int nCharged = 0;
for ( unsigned i=0; i < trueParticles_.size(); i++) {
const reco::PFSimParticle& ptc = trueParticles_[i];
const std::vector<int>& daughters = ptc.daughterIds();
// if the particle decays before ECAL, we do not want to
// consider it.
if(!daughters.empty() ) continue;
double charge = ptc.charge();
double pdgCode = ptc.pdgCode();
if( std::abs(charge)>1e-9)
nCharged++;
else if( pdgCode==22 )
nPhoton++;
}
// const HepMC::GenEvent* myGenEvent = MCTruth_.GetEvent();
// if(!myGenEvent) {
// cerr<<"impossible to filter on the number of charged and "
// <<"neutral particles without the HepMCProduct. "
// <<"Please check that the branch edmHepMCProduct_*_*_* is found"<<endl;
// exit(1);
// }
// for ( HepMC::GenEvent::particle_const_iterator
// piter = myGenEvent->particles_begin();
// piter != myGenEvent->particles_end();
// ++piter ) {
// const HepMC::GenParticle* p = *piter;
// int partId = p->pdg_id();Long64_t lines = T->ReadFile("mon_fichier","i:j:k:x:y:z");
// // pdgTable_->GetParticle( partId )->Print();
// int charge = chargeValue(partId);
// cout<<partId <<" "<<charge/3.<<endl;
// if(charge)
// nCharged++;
// else
// nNeutral++;
// }
if( nCharged == filterTaus_[0] &&
nPhoton == filterTaus_[1] )
return true;
else
return false;
}
| bool PFRootEventManager::eventAccepted | ( | ) | const |
returns true if the event is accepted(have a look at the function implementation)
Definition at line 2090 of file PFRootEventManager.cc.
Referenced by processEntry().
{
// return highPtJet(10);
//return highPtPFCandidate( 10, PFCandidate::h );
return true;
}
| int PFRootEventManager::eventNumber | ( | ) | [inline] |
Definition at line 394 of file PFRootEventManager.h.
References iEvent_.
Referenced by DisplayManager::display(), DisplayManager::displayEvent(), DisplayManager::DisplayManager(), DisplayManager::displayNext(), DisplayManager::displayNextInteresting(), DisplayManager::displayPrevious(), and DialogFrame::doReProcessEvent().
{return iEvent_;}
| int PFRootEventManager::eventToEntry | ( | int | run, |
| int | lumi, | ||
| int | event | ||
| ) | const |
Definition at line 1827 of file PFRootEventManager.cc.
References gather_cfg::cout, and mapEventToEntry_.
Referenced by processEvent().
{
RunsMap::const_iterator iR = mapEventToEntry_.find( run );
if( iR != mapEventToEntry_.end() ) {
LumisMap::const_iterator iL = iR->second.find( lumi );
if( iL != iR->second.end() ) {
EventToEntry::const_iterator iE = iL->second.find( event );
if( iE != iL->second.end() ) {
return iE->second;
}
else {
cout<<"event "<<event<<" not found in run "<<run<<", lumi "<<lumi<<endl;
}
}
else {
cout<<"lumi "<<lumi<<" not found in run "<<run<<endl;
}
}
else{
cout<<"run "<<run<<" not found"<<endl;
}
return -1;
}
| std::string PFRootEventManager::expand | ( | const std::string & | oldString | ) | const |
Referenced by readOptions().
| void PFRootEventManager::fillClusterMask | ( | std::vector< bool > & | mask, |
| const reco::PFClusterCollection & | clusters | ||
| ) | const |
cluster mask set to true for rechits inside TCutG
Definition at line 4369 of file PFRootEventManager.cc.
Referenced by particleFlow().
{
TCutG* cutg = (TCutG*) gROOT->FindObject("CUTG");
if(!cutg) return;
mask.clear();
mask.reserve( clusters.size() );
for(unsigned i=0; i<clusters.size(); i++) {
double eta = clusters[i].position().Eta();
double phi = clusters[i].position().Phi();
if( cutg->IsInside( eta, phi ) )
mask.push_back( true );
else
mask.push_back( false );
}
}
| void PFRootEventManager::fillOutEventWithBlocks | ( | const reco::PFBlockCollection & | blocks | ) |
fills outEvent with blocks
Definition at line 2975 of file PFRootEventManager.cc.
References EventColin::addBlock(), i, and outEvent_.
| void PFRootEventManager::fillOutEventWithCaloTowers | ( | const CaloTowerCollection & | cts | ) |
fills outEvent with calo towers
Definition at line 2956 of file PFRootEventManager.cc.
References EventColin::addCaloTower(), EventColin::CaloTower::e, EventColin::CaloTower::ee, EventColin::CaloTower::eh, CaloTower::emEnergy(), reco::LeafCandidate::energy(), CaloTower::hadEnergy(), i, outEvent_, and edm::SortedCollection< T, SORT >::size().
| void PFRootEventManager::fillOutEventWithClusters | ( | const reco::PFClusterCollection & | clusters | ) |
fills OutEvent with clusters
Definition at line 2834 of file PFRootEventManager.cc.
References EventColin::addCluster(), closestParticle(), EventColin::Cluster::e, PFLayer::ECAL_BARREL, PFLayer::ECAL_ENDCAP, reco::PFTrajectoryPoint::ECALEntrance, reco::Particle::eta(), EventColin::Cluster::eta, exception, PFLayer::HCAL_BARREL1, PFLayer::HCAL_BARREL2, PFLayer::HCAL_ENDCAP, reco::PFTrajectoryPoint::HCALEntrance, reco::PFTrajectoryPoint::HOLayer, i, EventColin::Cluster::layer, reco::PFTrajectoryPoint::NLayers, outEvent_, EventColin::Cluster::particle, reco::PFSimParticle::pdgCode(), phi, reco::Particle::phi(), EventColin::Cluster::phi, EventColin::Cluster::type, and useHO_.
Referenced by clustering().
{
if(!outEvent_) return;
for(unsigned i=0; i<clusters.size(); i++) {
EventColin::Cluster cluster;
cluster.eta = clusters[i].position().Eta();
cluster.phi = clusters[i].position().Phi();
cluster.e = clusters[i].energy();
cluster.layer = clusters[i].layer();
if (!useHO_ && cluster.layer==PFLayer::HCAL_BARREL2) continue;
cluster.type = 1;
reco::PFTrajectoryPoint::LayerType tpLayer =
reco::PFTrajectoryPoint::NLayers;
switch( clusters[i].layer() ) {
case PFLayer::ECAL_BARREL:
case PFLayer::ECAL_ENDCAP:
tpLayer = reco::PFTrajectoryPoint::ECALEntrance;
break;
case PFLayer::HCAL_BARREL1:
case PFLayer::HCAL_ENDCAP:
tpLayer = reco::PFTrajectoryPoint::HCALEntrance;
break;
case PFLayer::HCAL_BARREL2:
tpLayer = reco::PFTrajectoryPoint::HOLayer;
break;
default:
break;
}
if(tpLayer < reco::PFTrajectoryPoint::NLayers) {
try {
double peta = -10;
double phi = -10;
double pe = -10;
const reco::PFSimParticle& ptc
= closestParticle( tpLayer,
cluster.eta, cluster.phi,
peta, phi, pe );
cluster.particle.eta = peta;
cluster.particle.phi = phi;
cluster.particle.e = pe;
cluster.particle.pdgCode = ptc.pdgCode();
}
catch( std::exception& err ) {
// cerr<<err.what()<<endl;
}
}
outEvent_->addCluster(cluster);
}
}
| void PFRootEventManager::fillOutEventWithPFCandidates | ( | const reco::PFCandidateCollection & | pfCandidates | ) |
fills OutEvent with candidates
Definition at line 2935 of file PFRootEventManager.cc.
References EventColin::addCandidate(), EventColin::Particle::e, reco::LeafCandidate::energy(), reco::LeafCandidate::eta(), EventColin::Particle::eta, i, outEvent_, reco::PFCandidate::particleId(), EventColin::Particle::pdgCode, reco::LeafCandidate::phi(), and EventColin::Particle::phi.
Referenced by particleFlow().
{
if(!outEvent_) return;
for ( unsigned i=0; i < pfCandidates.size(); i++) {
const reco::PFCandidate& candidate = pfCandidates[i];
EventColin::Particle outptc;
outptc.eta = candidate.eta();
outptc.phi = candidate.phi();
outptc.e = candidate.energy();
outptc.pdgCode = candidate.particleId();
outEvent_->addCandidate(outptc);
}
}
| void PFRootEventManager::fillOutEventWithSimParticles | ( | const reco::PFSimParticleCollection & | ptcs | ) |
fills OutEvent with sim particles
Definition at line 2897 of file PFRootEventManager.cc.
References EventColin::addParticle(), reco::PFSimParticle::daughterIds(), EventColin::Particle::e, reco::PFTrajectoryPoint::ECALEntrance, EventColin::Particle::eta, reco::PFTrack::extrapolatedPoint(), i, reco::PFTrajectoryPoint::momentum(), reco::PFTrack::nTrajectoryPoints(), outEvent_, reco::PFSimParticle::pdgCode(), EventColin::Particle::pdgCode, EventColin::Particle::phi, and reco::PFTrajectoryPoint::position().
Referenced by readFromSimulation().
{
if(!outEvent_) return;
for ( unsigned i=0; i < trueParticles.size(); i++) {
const reco::PFSimParticle& ptc = trueParticles[i];
unsigned ntrajpoints = ptc.nTrajectoryPoints();
if(ptc.daughterIds().empty() ) { // stable
reco::PFTrajectoryPoint::LayerType ecalEntrance
= reco::PFTrajectoryPoint::ECALEntrance;
if(ntrajpoints == 3) {
// old format for PFSimCandidates.
// in this case, the PFSimCandidate which does not decay
// before ECAL has 3 points: initial, ecal entrance, hcal entrance
ecalEntrance = static_cast<reco::PFTrajectoryPoint::LayerType>(1);
}
// else continue; // endcap case we do not care;
const reco::PFTrajectoryPoint& tpatecal
= ptc.extrapolatedPoint( ecalEntrance );
EventColin::Particle outptc;
outptc.eta = tpatecal.position().Eta();
outptc.phi = tpatecal.position().Phi();
outptc.e = tpatecal.momentum().E();
outptc.pdgCode = ptc.pdgCode();
outEvent_->addParticle(outptc);
}
}
}
| void PFRootEventManager::fillPhotonMask | ( | std::vector< bool > & | mask, |
| const reco::PhotonCollection & | photons | ||
| ) | const |
photon mask set to true for photons inside TCutG
Definition at line 4409 of file PFRootEventManager.cc.
Referenced by particleFlow().
{
TCutG* cutg = (TCutG*) gROOT->FindObject("CUTG");
if(!cutg) return;
mask.clear();
mask.reserve( photons.size() );
for(unsigned i=0; i<photons.size(); i++) {
double eta = photons[i].caloPosition().Eta();
double phi = photons[i].caloPosition().Phi();
if( cutg->IsInside( eta, phi ) )
mask.push_back( true );
else
mask.push_back( false );
}
}
| void PFRootEventManager::fillRecHitMask | ( | std::vector< bool > & | mask, |
| const reco::PFRecHitCollection & | rechits | ||
| ) | const |
rechit mask set to true for rechits inside TCutG
Definition at line 4344 of file PFRootEventManager.cc.
Referenced by clustering().
{
TCutG* cutg = (TCutG*) gROOT->FindObject("CUTG");
if(!cutg) {
mask.resize( rechits.size(), true);
return;
}
mask.clear();
mask.reserve( rechits.size() );
for(unsigned i=0; i<rechits.size(); i++) {
double eta = rechits[i].position().Eta();
double phi = rechits[i].position().Phi();
if( cutg->IsInside( eta, phi ) )
mask.push_back( true );
else
mask.push_back( false );
}
}
| void PFRootEventManager::fillTrackMask | ( | std::vector< bool > & | mask, |
| const reco::PFRecTrackCollection & | tracks | ||
| ) | const |
track mask set to true for rechits inside TCutG
Referenced by particleFlow().
| void PFRootEventManager::fillTrackMask | ( | std::vector< bool > & | mask, |
| const reco::GsfPFRecTrackCollection & | tracks | ||
| ) | const |
| std::string PFRootEventManager::getGenParticleName | ( | int | partId, |
| std::string & | latexStringName | ||
| ) | const |
get name of genParticle
Definition at line 4516 of file PFRootEventManager.cc.
References gather_cfg::cout, mergeVDriftHistosByStation::name, and AlCaHLTBitMon_QueryRunRegistry::string.
Referenced by DisplayManager::createGGenParticle(), and printGenParticles().
{
std::string name;
switch(partId) {
case 1: { name = "d";latexString="d"; break; }
case 2: { name = "u";latexString="u";break; }
case 3: { name = "s";latexString="s" ;break; }
case 4: { name = "c";latexString="c" ; break; }
case 5: { name = "b";latexString="b" ; break; }
case 6: { name = "t";latexString="t" ; break; }
case -1: { name = "~d";latexString="#bar{d}" ; break; }
case -2: { name = "~u";latexString="#bar{u}" ; break; }
case -3: { name = "~s";latexString="#bar{s}" ; break; }
case -4: { name = "~c";latexString="#bar{c}" ; break; }
case -5: { name = "~b";latexString="#bar{b}" ; break; }
case -6: { name = "~t";latexString="#bar{t}" ; break; }
case 11: { name = "e-";latexString=name ; break; }
case -11: { name = "e+";latexString=name ; break; }
case 12: { name = "nu_e";latexString="#nu_{e}" ; break; }
case -12: { name = "~nu_e";latexString="#bar{#nu}_{e}" ; break; }
case 13: { name = "mu-";latexString="#mu-" ; break; }
case -13: { name = "mu+";latexString="#mu+" ; break; }
case 14: { name = "nu_mu";latexString="#nu_{mu}" ; break; }
case -14: { name = "~nu_mu";latexString="#bar{#nu}_{#mu}"; break; }
case 15: { name = "tau-";latexString="#tau^{-}" ; break; }
case -15: { name = "tau+";latexString="#tau^{+}" ; break; }
case 16: { name = "nu_tau";latexString="#nu_{#tau}" ; break; }
case -16: { name = "~nu_tau";latexString="#bar{#nu}_{#tau}"; break; }
case 21: { name = "gluon";latexString= name; break; }
case 22: { name = "gamma";latexString= "#gamma"; break; }
case 23: { name = "Z0";latexString="Z^{0}" ; break; }
case 24: { name = "W+";latexString="W^{+}" ; break; }
case 25: { name = "H0";latexString=name ; break; }
case -24: { name = "W-";latexString="W^{-}" ; break; }
case 111: { name = "pi0";latexString="#pi^{0}" ; break; }
case 113: { name = "rho0";latexString="#rho^{0}" ; break; }
case 223: { name = "omega";latexString="#omega" ; break; }
case 333: { name = "phi";latexString= "#phi"; break; }
case 443: { name = "J/psi";latexString="J/#psi" ; break; }
case 553: { name = "Upsilon";latexString="#Upsilon" ; break; }
case 130: { name = "K0L";latexString=name ; break; }
case 211: { name = "pi+";latexString="#pi^{+}" ; break; }
case -211: { name = "pi-";latexString="#pi^{-}" ; break; }
case 213: { name = "rho+";latexString="#rho^{+}" ; break; }
case -213: { name = "rho-";latexString="#rho^{-}" ; break; }
case 221: { name = "eta";latexString="#eta" ; break; }
case 331: { name = "eta'";latexString="#eta'" ; break; }
case 441: { name = "etac";latexString="#eta_{c}" ; break; }
case 551: { name = "etab";latexString= "#eta_{b}"; break; }
case 310: { name = "K0S";latexString=name ; break; }
case 311: { name = "K0";latexString="K^{0}" ; break; }
case -311: { name = "Kbar0";latexString="#bar{#Kappa}^{0}" ; break; }
case 321: { name = "K+";latexString= "K^{+}"; break; }
case -321: { name = "K-";latexString="K^{-}"; break; }
case 411: { name = "D+";latexString="D^{+}" ; break; }
case -411: { name = "D-";latexString="D^{-}"; break; }
case 421: { name = "D0";latexString="D^{0}" ; break; }
case -421: { name = "D0-bar";latexString="#overline{D^{0}}" ; break; }
case 423: { name = "D*0";latexString="D^{*0}" ; break; }
case -423: { name = "D*0-bar";latexString="#overline{D^{*0}}" ; break; }
case 431: { name = "Ds_+";latexString="Ds_{+}" ; break; }
case -431: { name = "Ds_-";latexString="Ds_{-}" ; break; }
case 511: { name = "B0";latexString= name; break; }
case 521: { name = "B+";latexString="B^{+}" ; break; }
case -521: { name = "B-";latexString="B^{-}" ; break; }
case 531: { name = "Bs_0";latexString="Bs_{0}" ; break; }
case -531: { name = "anti-Bs_0";latexString="#overline{Bs_{0}}" ; break; }
case 541: { name = "Bc_+";latexString="Bc_{+}" ; break; }
case -541: { name = "Bc_+";latexString="Bc_{+}" ; break; }
case 313: { name = "K*0";latexString="K^{*0}" ; break; }
case -313: { name = "K*bar0";latexString="#bar{K}^{*0}" ; break; }
case 323: { name = "K*+";latexString="#K^{*+}"; break; }
case -323: { name = "K*-";latexString="#K^{*-}" ; break; }
case 413: { name = "D*+";latexString= "D^{*+}"; break; }
case -413: { name = "D*-";latexString= "D^{*-}" ; break; }
case 433: { name = "Ds*+";latexString="D_{s}^{*+}" ; break; }
case -433: { name = "Ds*-";latexString="B_{S}{*-}" ; break; }
case 513: { name = "B*0";latexString="B^{*0}" ; break; }
case -513: { name = "anti-B*0";latexString="#overline{B^{*0}}" ; break; }
case 523: { name = "B*+";latexString="B^{*+}" ; break; }
case -523: { name = "B*-";latexString="B^{*-}" ; break; }
case 533: { name = "B*_s0";latexString="B^{*}_{s0}" ; break; }
case -533 : {name="anti-B_s0"; latexString= "#overline{B_{s}^{0}}";break; }
case 543: { name = "B*_c+";latexString= "B^{*}_{c+}"; break; }
case -543: { name = "B*_c-";latexString= "B^{*}_{c-}"; break; }
case 1114: { name = "Delta-";latexString="#Delta^{-}" ; break; }
case -1114: { name = "Deltabar+";latexString="#bar{#Delta}^{+}" ; break; }
case -2112: { name = "nbar0";latexString="{bar}n^{0}" ; break; }
case 2112: { name = "n"; latexString=name ;break;}
case 2114: { name = "Delta0"; latexString="#Delta^{0}" ;break; }
case -2114: { name = "Deltabar0"; latexString="#bar{#Delta}^{0}" ;break; }
case 3122: { name = "Lambda0";latexString= "#Lambda^{0}"; break; }
case -3122: { name = "Lambdabar0";latexString="#bar{#Lambda}^{0}" ; break; }
case 3112: { name = "Sigma-"; latexString="#Sigma" ;break; }
case -3112: { name = "Sigmabar+"; latexString="#bar{#Sigma}^{+}" ;break; }
case 3114: { name = "Sigma*-"; latexString="#Sigma^{*}" ;break; }
case -3114: { name = "Sigmabar*+"; latexString="#bar{#Sigma}^{*+}" ;break; }
case 3212: { name = "Sigma0";latexString="#Sigma^{0}" ; break; }
case -3212: { name = "Sigmabar0";latexString="#bar{#Sigma}^{0}" ; break; }
case 3214: { name = "Sigma*0"; latexString="#Sigma^{*0}" ;break; }
case -3214: { name = "Sigma*bar0";latexString="#bar{#Sigma}^{*0}" ; break; }
case 3222: { name = "Sigma+"; latexString="#Sigma^{+}" ;break; }
case -3222: { name = "Sigmabar-"; latexString="#bar{#Sigma}^{-}";break; }
case 3224: { name = "Sigma*+"; latexString="#Sigma^{*+}" ;break; }
case -3224: { name = "Sigmabar*-"; latexString="#bar{#Sigma}^{*-}";break; }
case 2212: { name = "p";latexString=name ; break; }
case -2212: { name = "~p";latexString="#bar{p}" ; break; }
case -2214: { name = "Delta-";latexString="#Delta^{-}" ; break; }
case 2214: { name = "Delta+";latexString="#Delta^{+}" ; break; }
case -2224: { name = "Deltabar--"; latexString="#bar{#Delta}^{--}" ;break; }
case 2224: { name = "Delta++"; latexString= "#Delta^{++}";break; }
case 3312: { name = "Xi-"; latexString= "#Xi^{-}";break; }
case -3312: { name = "Xi+"; latexString= "#Xi^{+}";break; }
case 3314: { name = "Xi*-"; latexString= "#Xi^{*-}";break; }
case -3314: { name = "Xi*+"; latexString= "#Xi^{*+}";break; }
case 3322: { name = "Xi0"; latexString= "#Xi^{0}";break; }
case -3322: { name = "anti-Xi0"; latexString= "#overline{Xi^{0}}";break; }
case 3324: { name = "Xi*0"; latexString= "#Xi^{*0}";break; }
case -3324: { name = "anti-Xi*0"; latexString= "#overline{Xi^{*0}}";break; }
case 3334: { name = "Omega-"; latexString= "#Omega^{-}";break; }
case -3334: { name = "anti-Omega+"; latexString= "#Omega^{+}";break; }
case 4122: { name = "Lambda_c+"; latexString= "#Lambda_{c}^{+}";break; }
case -4122: { name = "Lambda_c-"; latexString= "#Lambda_{c}^{-}";break; }
case 4222: { name = "Sigma_c++"; latexString= "#Sigma_{c}^{++}";break; }
case -4222: { name = "Sigma_c--"; latexString= "#Sigma_{c}^{--}";break; }
case 92 : {name="String"; latexString= "String";break; }
case 2101 : {name="ud_0"; latexString= "ud_{0}";break; }
case -2101 : {name="anti-ud_0"; latexString= "#overline{ud}_{0}";break; }
case 2103 : {name="ud_1"; latexString= "ud_{1}";break; }
case -2103 : {name="anti-ud_1"; latexString= "#overline{ud}_{1}";break; }
case 2203 : {name="uu_1"; latexString= "uu_{1}";break; }
case -2203 : {name="anti-uu_1"; latexString= "#overline{uu}_{1}";break; }
case 3303 : {name="ss_1"; latexString= "#overline{ss}_{1}";break; }
case 3101 : {name="sd_0"; latexString= "sd_{0}";break; }
case -3101 : {name="anti-sd_0"; latexString= "#overline{sd}_{0}";break; }
case 3103 : {name="sd_1"; latexString= "sd_{1}";break; }
case -3103 : {name="anti-sd_1"; latexString= "#overline{sd}_{1}";break; }
case 20213 : {name="a_1+"; latexString= "a_{1}^{+}";break; }
case -20213 : {name="a_1-"; latexString= "a_{1}^{-}";break; }
default:
{
name = "unknown";
cout << "Unknown code : " << partId << endl;
break;
}
}
return name;
}
| bool PFRootEventManager::highPtJet | ( | double | ptMin | ) | const |
| bool PFRootEventManager::highPtPFCandidate | ( | double | ptMin, |
| reco::PFCandidate::ParticleType | type = reco::PFCandidate::X |
||
| ) | const |
returns true if there is a PFCandidate of a given type over a given pT
Definition at line 2103 of file PFRootEventManager.cc.
References i, reco::PFCandidate::particleId(), pfCandidates_, reco::LeafCandidate::pt(), PtMinSelector_cfg::ptMin, and X.
{
for( unsigned i=0; i<pfCandidates_->size(); ++i) {
const PFCandidate& pfc = (*pfCandidates_)[i];
if(type!= PFCandidate::X &&
pfc.particleId() != type ) continue;
if( pfc.pt() > ptMin ) return true;
}
return false;
}
| void PFRootEventManager::initializeEventInformation | ( | ) |
Definition at line 105 of file PFRootEventManager.cc.
References gather_cfg::cout, ev_, edm::EventID::event(), edm::EventBase::id(), edm::EventID::luminosityBlock(), mapEventToEntry_, edm::EventID::run(), fwlite::ChainEvent::size(), and fwlite::ChainEvent::to().
Referenced by PFRootEventManager().
{
unsigned int nev = ev_->size();
for ( unsigned int entry = 0; entry < nev; ++entry ) {
ev_->to(entry);
const edm::EventBase& iEv = *ev_;
mapEventToEntry_[iEv.id().run()][iEv.id().luminosityBlock()][iEv.id().event()] = entry;
}
cout<<"Number of events: "<< nev
<<" starting with event: "<<mapEventToEntry_.begin()->first<<endl;
}
| bool PFRootEventManager::isHadronicTau | ( | ) | const |
study the sim event to check if the tau decay is hadronic
Definition at line 2528 of file PFRootEventManager.cc.
References abs, reco::PFSimParticle::daughterIds(), i, reco::PFSimParticle::pdgCode(), and trueParticles_.
Referenced by readFromSimulation().
{
for ( unsigned i=0; i < trueParticles_.size(); i++) {
const reco::PFSimParticle& ptc = trueParticles_[i];
const std::vector<int>& ptcdaughters = ptc.daughterIds();
if (std::abs(ptc.pdgCode()) == 15) {
for ( unsigned int dapt=0; dapt < ptcdaughters.size(); ++dapt) {
const reco::PFSimParticle& daughter
= trueParticles_[ptcdaughters[dapt]];
int pdgdaugther = daughter.pdgCode();
int abspdgdaughter = std::abs(pdgdaugther);
if (abspdgdaughter == 11 ||
abspdgdaughter == 13) {
return false;
}//electron or muons?
}//loop daughter
}//tau
}//loop particles
return true;
}
| void PFRootEventManager::mcTruthMatching | ( | std::ostream & | out, |
| const reco::PFCandidateCollection & | candidates, | ||
| std::vector< std::list< simMatch > > & | candSimMatchTrack, | ||
| std::vector< std::list< simMatch > > & | candSimMatchEcal | ||
| ) | const |
Definition at line 4685 of file PFRootEventManager.cc.
References gather_cfg::cout, reco::PFSimParticle::daughterIds(), reco::PFRecHit::detId(), reco::PFBlockElement::ECAL, reco::PFBlock::elements(), reco::PFCandidate::elementsInBlocks(), reco::PFRecHit::energy(), relval_parameters_module::energy, i, edm::Ref< C, T, F >::isNull(), reco::PFSimParticle::recHitContrib(), reco::PFSimParticle::recHitContribFrac(), rechitsECAL_, reco::PFSimParticle::rectrackId(), reco::PFBlockElement::TRACK, trueParticles_, VERBOSE, and verbosity_.
{
if(!out) return;
out << endl;
out << "Running Monte Carlo Truth Matching Tool" << endl;
out << endl;
//resize matching vectors
candSimMatchTrack.resize(candidates.size());
candSimMatchEcal.resize(candidates.size());
for(unsigned i=0; i<candidates.size(); i++) {
const reco::PFCandidate& pfCand = candidates[i];
//Matching with ECAL clusters
if (verbosity_ == VERBOSE ) {
out <<i<<" " <<(*pfCandidates_)[i]<<endl;
out << "is matching:" << endl;
}
PFCandidate::ElementsInBlocks eleInBlocks
= pfCand.elementsInBlocks();
for(unsigned iel=0; iel<eleInBlocks.size(); ++iel) {
PFBlockRef blockRef = eleInBlocks[iel].first;
unsigned indexInBlock = eleInBlocks[iel].second;
//Retrieving elements of the block
const reco::PFBlock& blockh
= *blockRef;
const edm::OwnVector< reco::PFBlockElement >&
elements_h = blockh.elements();
reco::PFBlockElement::Type type
= elements_h[ indexInBlock ].type();
// cout <<"(" << blockRef.key() << "|" <<indexInBlock <<"|"
// << elements_h[ indexInBlock ].type() << ")," << endl;
//TRACK=================================
if(type == reco::PFBlockElement::TRACK){
const reco::PFRecTrackRef trackref
= elements_h[ indexInBlock ].trackRefPF();
assert( !trackref.isNull() );
const reco::PFRecTrack& track = *trackref;
const reco::TrackRef trkREF = track.trackRef();
unsigned rtrkID = track.trackId();
//looking for the matching charged simulated particle:
for ( unsigned isim=0; isim < trueParticles_.size(); isim++) {
const reco::PFSimParticle& ptc = trueParticles_[isim];
unsigned trackIDM = ptc.rectrackId();
if(trackIDM != 99999
&& trackIDM == rtrkID){
if (verbosity_ == VERBOSE )
out << "\tSimParticle " << isim
<< " through Track matching pTrectrack="
<< trkREF->pt() << " GeV" << endl;
//store info
std::pair<double, unsigned> simtrackmatch
= make_pair(trkREF->pt(),trackIDM);
candSimMatchTrack[i].push_back(simtrackmatch);
}//match
}//loop simparticles
}//TRACK
//ECAL=================================
if(type == reco::PFBlockElement::ECAL)
{
const reco::PFClusterRef clusterref
= elements_h[ indexInBlock ].clusterRef();
assert( !clusterref.isNull() );
const reco::PFCluster& cluster = *clusterref;
const std::vector< reco::PFRecHitFraction >&
fracs = cluster.recHitFractions();
// cout << "This is an ecal cluster of energy "
// << cluster.energy() << endl;
vector<unsigned> simpID;
vector<double> simpEC(trueParticles_.size(),0.0);
vector<unsigned> simpCN(trueParticles_.size(),0);
for(unsigned int rhit = 0; rhit < fracs.size(); ++rhit){
const reco::PFRecHitRef& rh = fracs[rhit].recHitRef();
if(rh.isNull()) continue;
const reco::PFRecHit& rechit_cluster = *rh;
// cout << rhit << " ID=" << rechit_cluster.detId()
// << " E=" << rechit_cluster.energy()
// << " fraction=" << fracs[rhit].fraction() << " ";
//loop on sim particules
// cout << "coming from sim particles: ";
for ( unsigned isim=0; isim < trueParticles_.size(); isim++) {
const reco::PFSimParticle& ptc = trueParticles_[isim];
vector<unsigned> rechitSimIDs
= ptc.recHitContrib();
vector<double> rechitSimFrac
= ptc.recHitContribFrac();
//cout << "Number of rechits contrib =" << rechitSimIDs.size() << endl;
if( !rechitSimIDs.size() ) continue; //no rechit
for ( unsigned isimrh=0; isimrh < rechitSimIDs.size(); isimrh++) {
if( rechitSimIDs[isimrh] == rechit_cluster.detId() ){
bool takenalready = false;
for(unsigned iss = 0; iss < simpID.size(); ++iss)
if(simpID[iss] == isim) takenalready = true;
if(!takenalready) simpID.push_back(isim);
simpEC[isim] +=
((rechit_cluster.energy()*rechitSimFrac[isimrh])/100.0)
*fracs[rhit].fraction();
simpCN[isim]++; //counting rechits
// cout << isim << " with contribution of ="
// << rechitSimFrac[isimrh] << "%, ";
}//match rechit
}//loop sim rechit
}//loop sim particules
// cout << endl;
}//loop cand rechit
for(unsigned is=0; is < simpID.size(); ++is)
{
double frac_of_cluster
= (simpEC[simpID[is]]/cluster.energy())*100.0;
//store info
std::pair<double, unsigned> simecalmatch
= make_pair(simpEC[simpID[is]],simpID[is]);
candSimMatchEcal[i].push_back(simecalmatch);
if (verbosity_ == VERBOSE ) {
out << "\tSimParticle " << simpID[is]
<< " through ECAL matching Epfcluster="
<< cluster.energy()
<< " GeV with N=" << simpCN[simpID[is]]
<< " rechits in common "
<< endl;
out << "\t\tsimparticle contributing to a total of "
<< simpEC[simpID[is]]
<< " GeV of this cluster ("
<< frac_of_cluster << "%) "
<< endl;
}
}//loop particle matched
}//ECAL clusters
}//loop elements
if (verbosity_ == VERBOSE )
cout << "==============================================================="
<< endl;
}//loop pfCandidates_
if (verbosity_ == VERBOSE ){
cout << "=================================================================="
<< endl;
cout << "SimParticles" << endl;
//loop simulated particles
for ( unsigned i=0; i < trueParticles_.size(); i++) {
cout << "==== Particle Simulated " << i << endl;
const reco::PFSimParticle& ptc = trueParticles_[i];
out <<i<<" "<<trueParticles_[i]<<endl;
if(!ptc.daughterIds().empty()){
cout << "Look at the desintegration products" << endl;
cout << endl;
continue;
}
//TRACKING
if(ptc.rectrackId() != 99999){
cout << "matching pfCandidate (trough tracking): " << endl;
for( unsigned icand=0; icand<candidates.size(); icand++ )
{
ITM it = candSimMatchTrack[icand].begin();
ITM itend = candSimMatchTrack[icand].end();
for(;it!=itend;++it)
if( i == it->second ){
out<<icand<<" "<<(*pfCandidates_)[icand]<<endl;
cout << endl;
}
}//loop candidate
}//trackmatch
//CALORIMETRY
vector<unsigned> rechitSimIDs
= ptc.recHitContrib();
vector<double> rechitSimFrac
= ptc.recHitContribFrac();
//cout << "Number of rechits contrib =" << rechitSimIDs.size() << endl;
if( !rechitSimIDs.size() ) continue; //no rechit
cout << "matching pfCandidate (through ECAL): " << endl;
//look at total ECAL desposition:
double totalEcalE = 0.0;
for(unsigned irh=0; irh<rechitsECAL_.size();++irh)
for ( unsigned isimrh=0; isimrh < rechitSimIDs.size();
isimrh++ )
if(rechitSimIDs[isimrh] == rechitsECAL_[irh].detId())
totalEcalE += (rechitsECAL_[irh].energy()*rechitSimFrac[isimrh]/100.0);
cout << "For info, this particle deposits E=" << totalEcalE
<< "(GeV) in the ECAL" << endl;
for( unsigned icand=0; icand<candidates.size(); icand++ )
{
ITM it = candSimMatchEcal[icand].begin();
ITM itend = candSimMatchEcal[icand].end();
for(;it!=itend;++it)
if( i == it->second )
out<<icand<<" "<<it->first<<"GeV "<<(*pfCandidates_)[icand]<<endl;
}//loop candidate
cout << endl;
}//loop particles
}//verbose
}//mctruthmatching
| void PFRootEventManager::particleFlow | ( | ) |
performs particle flow
Definition at line 2992 of file PFRootEventManager.cc.
References PFAlgo::checkCleaning(), clustersECAL_, clustersHCAL_, clustersHFEM_, clustersHFHAD_, clustersHO_, clustersPS_, convBremGsfrecTracks_, conversion_, gather_cfg::cout, debug_, displacedRecTracks_, egammaElectrons_, fillClusterMask(), fillOutEventWithPFCandidates(), fillPhotonMask(), fillTrackMask(), PFBlockAlgo::findBlocks(), gsfrecTracks_, muons_, muonsHandle_, pfAlgo_, pfBlockAlgo_, pfBlocks_, pfCandidateElectronExtras_, pfCandidates_, pfNuclearTrackerVertex_, photons_, PFAlgo::postMuonCleaning(), primaryVertices_, rechitsCLEANED_, PFAlgo::reconstructParticles(), recTracks_, PFAlgo::setEGElectronCollection(), PFAlgo::setElectronExtraRef(), PFBlockAlgo::setInput(), PFAlgo::setPFVertexParameters(), PFBlockAlgo::transferBlocks(), PFAlgo::transferCandidates(), PFAlgo::transferElectronExtra(), useAtHLT_, useEGElectrons_, useHO_, usePFElectrons_, v0_, VERBOSE, and verbosity_.
Referenced by processEntry().
{
if (verbosity_ == VERBOSE ) {
cout <<"start particle flow"<<endl;
}
if( debug_) {
cout<<"PFRootEventManager::particleFlow start"<<endl;
// cout<<"number of elements in memory: "
// <<reco::PFBlockElement::instanceCounter()<<endl;
}
edm::OrphanHandle< reco::PFRecTrackCollection > trackh( &recTracks_,
edm::ProductID(1) );
edm::OrphanHandle< reco::PFRecTrackCollection > displacedtrackh( &displacedRecTracks_,
edm::ProductID(77) );
edm::OrphanHandle< reco::PFClusterCollection > ecalh( clustersECAL_.get(),
edm::ProductID(2) );
edm::OrphanHandle< reco::PFClusterCollection > hcalh( clustersHCAL_.get(),
edm::ProductID(3) );
edm::OrphanHandle< reco::PFClusterCollection > hoh( clustersHO_.get(),
edm::ProductID(21) ); //GMA put this four
edm::OrphanHandle< reco::PFClusterCollection > hfemh( clustersHFEM_.get(),
edm::ProductID(31) );
edm::OrphanHandle< reco::PFClusterCollection > hfhadh( clustersHFHAD_.get(),
edm::ProductID(32) );
edm::OrphanHandle< reco::PFClusterCollection > psh( clustersPS_.get(),
edm::ProductID(4) );
edm::OrphanHandle< reco::GsfPFRecTrackCollection > gsftrackh( &gsfrecTracks_,
edm::ProductID(5) );
edm::OrphanHandle< reco::MuonCollection > muonh( &muons_,
edm::ProductID(6) );
edm::OrphanHandle< reco::PFDisplacedTrackerVertexCollection > nuclearh( &pfNuclearTrackerVertex_,
edm::ProductID(7) );
//recoPFRecTracks_pfNuclearTrackerVertex__TEST.
edm::OrphanHandle< reco::PFConversionCollection > convh( &conversion_,
edm::ProductID(8) );
edm::OrphanHandle< reco::PFV0Collection > v0( &v0_,
edm::ProductID(9) );
edm::OrphanHandle< reco::VertexCollection > vertexh( &primaryVertices_,
edm::ProductID(10) );
edm::OrphanHandle< reco::GsfPFRecTrackCollection > convBremGsftrackh( &convBremGsfrecTracks_,
edm::ProductID(11) );
edm::OrphanHandle< reco::PhotonCollection > photonh( &photons_, edm::ProductID(12) ) ;
vector<bool> trackMask;
fillTrackMask( trackMask, recTracks_ );
vector<bool> gsftrackMask;
fillTrackMask( gsftrackMask, gsfrecTracks_ );
vector<bool> ecalMask;
fillClusterMask( ecalMask, *clustersECAL_ );
vector<bool> hcalMask;
fillClusterMask( hcalMask, *clustersHCAL_ );
vector<bool> hoMask;
if (useHO_) {fillClusterMask( hoMask, *clustersHO_ );}
vector<bool> hfemMask;
fillClusterMask( hfemMask, *clustersHFEM_ );
vector<bool> hfhadMask;
fillClusterMask( hfhadMask, *clustersHFHAD_ );
vector<bool> psMask;
fillClusterMask( psMask, *clustersPS_ );
vector<bool> photonMask;
fillPhotonMask( photonMask, photons_ );
if ( !useAtHLT_ )
pfBlockAlgo_.setInput( trackh, gsftrackh, convBremGsftrackh,
muonh, nuclearh, displacedtrackh, convh, v0,
ecalh, hcalh, hoh, hfemh, hfhadh, psh,
photonh, trackMask,gsftrackMask,
ecalMask, hcalMask, hoMask, hfemMask, hfhadMask, psMask,photonMask );
else
pfBlockAlgo_.setInput( trackh, muonh, ecalh, hcalh, hfemh, hfhadh, psh, hoh,
trackMask, ecalMask, hcalMask, hoMask, psMask);
pfBlockAlgo_.findBlocks();
if( debug_) cout<<pfBlockAlgo_<<endl;
pfBlocks_ = pfBlockAlgo_.transferBlocks();
pfAlgo_.setPFVertexParameters(true, primaryVertices_);
if(useEGElectrons_)
pfAlgo_.setEGElectronCollection(egammaElectrons_);
pfAlgo_.reconstructParticles( *pfBlocks_.get() );
// pfAlgoOther_.reconstructParticles( blockh );
pfAlgo_.postMuonCleaning(muonsHandle_, *vertexh);
if(usePFElectrons_) {
pfCandidateElectronExtras_= pfAlgo_.transferElectronExtra();
edm::OrphanHandle<reco::PFCandidateElectronExtraCollection > electronExtraProd(&(*pfCandidateElectronExtras_),edm::ProductID(20));
pfAlgo_.setElectronExtraRef(electronExtraProd);
}
pfAlgo_.checkCleaning( rechitsCLEANED_ );
if( debug_) cout<< pfAlgo_<<endl;
pfCandidates_ = pfAlgo_.transferCandidates();
// pfCandidatesOther_ = pfAlgoOther_.transferCandidates();
fillOutEventWithPFCandidates( *pfCandidates_ );
if( debug_) cout<<"PFRootEventManager::particleFlow stop"<<endl;
}
| void PFRootEventManager::pfCandCompare | ( | int | entry | ) |
compare particle flow
Definition at line 3121 of file PFRootEventManager.cc.
References gather_cfg::cout, HLTFastRecoForTau_cff::deltaEta, SiPixelRawToDigiRegional_cfi::deltaPhi, i, pfCandCMSSW_, and pfCandidates_.
Referenced by processEntry().
{
/*
cout << "ievt " << entry <<" : PFCandidate : "
<< " original size : " << pfCandCMSSW_.size()
<< " current size : " << pfCandidates_->size() << endl;
*/
bool differentSize = pfCandCMSSW_.size() != pfCandidates_->size();
if ( differentSize ) {
cout << "+++WARNING+++ PFCandidate size changed for entry "
<< entry << " !" << endl
<< " - original size : " << pfCandCMSSW_.size() << endl
<< " - current size : " << pfCandidates_->size() << endl;
} else {
for(unsigned i=0; i<pfCandidates_->size(); i++) {
double deltaE = (*pfCandidates_)[i].energy()-pfCandCMSSW_[i].energy();
double deltaEta = (*pfCandidates_)[i].eta()-pfCandCMSSW_[i].eta();
double deltaPhi = (*pfCandidates_)[i].phi()-pfCandCMSSW_[i].phi();
if ( fabs(deltaE) > 1E-4 ||
fabs(deltaEta) > 1E-9 ||
fabs(deltaPhi) > 1E-9 ) {
cout << "+++WARNING+++ PFCandidate " << i
<< " changed for entry " << entry << " ! " << endl
<< " - Original : " << pfCandCMSSW_[i] << endl
<< " - Current : " << (*pfCandidates_)[i] << endl
<< " DeltaE = : " << deltaE << endl
<< " DeltaEta = : " << deltaEta << endl
<< " DeltaPhi = : " << deltaPhi << endl << endl;
}
}
}
}
| void PFRootEventManager::PreprocessRecHits | ( | reco::PFRecHitCollection & | rechits, |
| bool | findNeighbours | ||
| ) |
preprocess a rechit vector from a given rechit branch
Definition at line 2718 of file PFRootEventManager.cc.
References i, and setRecHitNeigbours().
Referenced by readFromSimulation().
{
map<unsigned, unsigned> detId2index;
for(unsigned i=0; i<rechits.size(); i++) {
rechits[i].calculatePositionREP();
if(findNeighbours)
detId2index.insert( make_pair(rechits[i].detId(), i) );
}
if(findNeighbours) {
for(unsigned i=0; i<rechits.size(); i++) {
setRecHitNeigbours( rechits[i], detId2index );
}
}
}
| void PFRootEventManager::PreprocessRecTracks | ( | reco::GsfPFRecTrackCollection & | rectracks | ) |
Definition at line 2706 of file PFRootEventManager.cc.
{
/*
for( unsigned i=0; i<recTracks.size(); ++i ) {
recTracks[i].calculatePositionREP();
recTracks[i].calculateBremPositionREP();
}
*/
}
| void PFRootEventManager::PreprocessRecTracks | ( | reco::PFRecTrackCollection & | rectracks | ) |
preprocess a rectrack vector from a given rectrack branch
Definition at line 2697 of file PFRootEventManager.cc.
{
/*
for( unsigned i=0; i<recTracks.size(); ++i ) {
recTracks[i].calculatePositionREP();
}
*/
}
| void PFRootEventManager::print | ( | std::ostream & | out = std::cout, |
| int | maxNLines = -1 |
||
| ) | const |
print information
Referenced by DialogFrame::doPrint(), DisplayManager::printDisplay(), and processEntry().
| void PFRootEventManager::printCluster | ( | const reco::PFCluster & | cluster, |
| std::ostream & | out = std::cout |
||
| ) | const |
Definition at line 4308 of file PFRootEventManager.cc.
References reco::PFCluster::energy(), relval_parameters_module::energy, eta, phi, reco::CaloCluster::position(), and printClustersEMin_.
Referenced by printClusters().
| void PFRootEventManager::printClusters | ( | const reco::PFClusterCollection & | clusters, |
| std::ostream & | out = std::cout |
||
| ) | const |
| void PFRootEventManager::printGenParticles | ( | std::ostream & | out = std::cout, |
| int | maxNLines = -1 |
||
| ) | const |
print the HepMC truth
Definition at line 4054 of file PFRootEventManager.cc.
References gather_cfg::cout, eta, configurableAnalysis::GenParticle, edm::HepMCProduct::GetEvent(), getGenParticleName(), gen::k, MCTruth_, mergeVDriftHistosByStation::name, submitDQMOfflineCAF::nLines, AlCaHLTBitMon_ParallelJobs::p, printGenParticlesPtMin_, and AlCaHLTBitMon_QueryRunRegistry::string.
Referenced by DialogFrame::doPrintGenParticles().
{
const HepMC::GenEvent* myGenEvent = MCTruth_.GetEvent();
if(!myGenEvent) return;
out<<"GenParticles ==========================================="<<endl;
std::cout << "Id Gen Name eta phi pT E Vtx1 "
<< " x y z "
<< "Moth Vtx2 eta phi R Z Da1 Da2 Ecal?"
<< std::endl;
int nLines = 0;
for ( HepMC::GenEvent::particle_const_iterator
piter = myGenEvent->particles_begin();
piter != myGenEvent->particles_end();
++piter ) {
if( nLines == maxNLines) break;
nLines++;
HepMC::GenParticle* p = *piter;
/* */
int partId = p->pdg_id();
// We have here a subset of particles only.
// To be filled according to the needs.
/*switch(partId) {
case 1: { name = "d"; break; }
case 2: { name = "u"; break; }
case 3: { name = "s"; break; }
case 4: { name = "c"; break; }
case 5: { name = "b"; break; }
case 6: { name = "t"; break; }
case -1: { name = "~d"; break; }
case -2: { name = "~u"; break; }
case -3: { name = "~s"; break; }
case -4: { name = "~c"; break; }
case -5: { name = "~b"; break; }
case -6: { name = "~t"; break; }
case 11: { name = "e-"; break; }
case -11: { name = "e+"; break; }
case 12: { name = "nu_e"; break; }
case -12: { name = "~nu_e"; break; }
case 13: { name = "mu-"; break; }
case -13: { name = "mu+"; break; }
case 14: { name = "nu_mu"; break; }
case -14: { name = "~nu_mu"; break; }
case 15: { name = "tau-"; break; }
case -15: { name = "tau+"; break; }
case 16: { name = "nu_tau"; break; }
case -16: { name = "~nu_tau"; break; }
case 21: { name = "gluon"; break; }
case 22: { name = "gamma"; break; }
case 23: { name = "Z0"; break; }
case 24: { name = "W+"; break; }
case 25: { name = "H0"; break; }
case -24: { name = "W-"; break; }
case 111: { name = "pi0"; break; }
case 113: { name = "rho0"; break; }
case 223: { name = "omega"; break; }
case 333: { name = "phi"; break; }
case 443: { name = "J/psi"; break; }
case 553: { name = "Upsilon"; break; }
case 130: { name = "K0L"; break; }
case 211: { name = "pi+"; break; }
case -211: { name = "pi-"; break; }
case 213: { name = "rho+"; break; }
case -213: { name = "rho-"; break; }
case 221: { name = "eta"; break; }
case 331: { name = "eta'"; break; }
case 441: { name = "etac"; break; }
case 551: { name = "etab"; break; }
case 310: { name = "K0S"; break; }
case 311: { name = "K0"; break; }
case -311: { name = "Kbar0"; break; }
case 321: { name = "K+"; break; }
case -321: { name = "K-"; break; }
case 411: { name = "D+"; break; }
case -411: { name = "D-"; break; }
case 421: { name = "D0"; break; }
case 431: { name = "Ds_+"; break; }
case -431: { name = "Ds_-"; break; }
case 511: { name = "B0"; break; }
case 521: { name = "B+"; break; }
case -521: { name = "B-"; break; }
case 531: { name = "Bs_0"; break; }
case 541: { name = "Bc_+"; break; }
case -541: { name = "Bc_+"; break; }
case 313: { name = "K*0"; break; }
case -313: { name = "K*bar0"; break; }
case 323: { name = "K*+"; break; }
case -323: { name = "K*-"; break; }
case 413: { name = "D*+"; break; }
case -413: { name = "D*-"; break; }
case 423: { name = "D*0"; break; }
case 513: { name = "B*0"; break; }
case 523: { name = "B*+"; break; }
case -523: { name = "B*-"; break; }
case 533: { name = "B*_s0"; break; }
case 543: { name = "B*_c+"; break; }
case -543: { name = "B*_c-"; break; }
case 1114: { name = "Delta-"; break; }
case -1114: { name = "Deltabar+"; break; }
case -2112: { name = "nbar0"; break; }
case 2112: { name = "n"; break; }
case 2114: { name = "Delta0"; break; }
case -2114: { name = "Deltabar0"; break; }
case 3122: { name = "Lambda0"; break; }
case -3122: { name = "Lambdabar0"; break; }
case 3112: { name = "Sigma-"; break; }
case -3112: { name = "Sigmabar+"; break; }
case 3212: { name = "Sigma0"; break; }
case -3212: { name = "Sigmabar0"; break; }
case 3214: { name = "Sigma*0"; break; }
case -3214: { name = "Sigma*bar0"; break; }
case 3222: { name = "Sigma+"; break; }
case -3222: { name = "Sigmabar-"; break; }
case 2212: { name = "p"; break; }
case -2212: { name = "~p"; break; }
case -2214: { name = "Delta-"; break; }
case 2214: { name = "Delta+"; break; }
case -2224: { name = "Deltabar--"; break; }
case 2224: { name = "Delta++"; break; }
default: {
name = "unknown";
cout << "Unknown code : " << partId << endl;
}
}
*/
std::string latexString;
std::string name = getGenParticleName(partId,latexString);
math::XYZTLorentzVector momentum1(p->momentum().px(),
p->momentum().py(),
p->momentum().pz(),
p->momentum().e() );
if(momentum1.pt()<printGenParticlesPtMin_) continue;
int vertexId1 = 0;
if ( !p->production_vertex() && p->pdg_id() == 2212 ) continue;
math::XYZVector vertex1;
vertexId1 = -1;
if(p->production_vertex() ) {
vertex1.SetCoordinates( p->production_vertex()->position().x()/10.,
p->production_vertex()->position().y()/10.,
p->production_vertex()->position().z()/10. );
vertexId1 = p->production_vertex()->barcode();
}
out.setf(std::ios::fixed, std::ios::floatfield);
out.setf(std::ios::right, std::ios::adjustfield);
out << std::setw(4) << p->barcode() << " "
<< name;
for(unsigned int k=0;k<11-name.length() && k<12; k++) out << " ";
double eta = momentum1.eta();
if ( eta > +10. ) eta = +10.;
if ( eta < -10. ) eta = -10.;
out << std::setw(6) << std::setprecision(2) << eta << " "
<< std::setw(6) << std::setprecision(2) << momentum1.phi() << " "
<< std::setw(7) << std::setprecision(2) << momentum1.pt() << " "
<< std::setw(7) << std::setprecision(2) << momentum1.e() << " "
<< std::setw(4) << vertexId1 << " "
<< std::setw(6) << std::setprecision(1) << vertex1.x() << " "
<< std::setw(6) << std::setprecision(1) << vertex1.y() << " "
<< std::setw(6) << std::setprecision(1) << vertex1.z() << " ";
if( p->production_vertex() ) {
if ( p->production_vertex()->particles_in_size() ) {
const HepMC::GenParticle* mother =
*(p->production_vertex()->particles_in_const_begin());
out << std::setw(4) << mother->barcode() << " ";
}
else
out << " " ;
}
if ( p->end_vertex() ) {
math::XYZTLorentzVector vertex2(p->end_vertex()->position().x()/10.,
p->end_vertex()->position().y()/10.,
p->end_vertex()->position().z()/10.,
p->end_vertex()->position().t()/10.);
int vertexId2 = p->end_vertex()->barcode();
std::vector<const HepMC::GenParticle*> children;
HepMC::GenVertex::particles_out_const_iterator firstDaughterIt =
p->end_vertex()->particles_out_const_begin();
HepMC::GenVertex::particles_out_const_iterator lastDaughterIt =
p->end_vertex()->particles_out_const_end();
for ( ; firstDaughterIt != lastDaughterIt ; ++firstDaughterIt ) {
children.push_back(*firstDaughterIt);
}
out << std::setw(4) << vertexId2 << " "
<< std::setw(6) << std::setprecision(2) << vertex2.eta() << " "
<< std::setw(6) << std::setprecision(2) << vertex2.phi() << " "
<< std::setw(5) << std::setprecision(1) << vertex2.pt() << " "
<< std::setw(6) << std::setprecision(1) << vertex2.z() << " ";
for ( unsigned id=0; id<children.size(); ++id )
out << std::setw(4) << children[id]->barcode() << " ";
}
out << std::endl;
}
}
| void PFRootEventManager::printMCCalib | ( | std::ofstream & | out | ) | const |
print calibration information
Definition at line 3770 of file PFRootEventManager.cc.
References deltaR(), genJets_, edm::HepMCProduct::GetEvent(), MCTruth_, pfJets_, mathSSE::sqrt(), and trueParticles_.
Referenced by processEntry().
{
if(!out) return;
// if (!out.is_open()) return;
// Use only for one PFSimParticle/GenParticles
const HepMC::GenEvent* myGenEvent = MCTruth_.GetEvent();
if(!myGenEvent) return;
int nGen = 0;
for ( HepMC::GenEvent::particle_const_iterator
piter = myGenEvent->particles_begin();
piter != myGenEvent->particles_end();
++piter ) nGen++;
int nSim = trueParticles_.size();
if ( nGen != 1 || nSim != 1 ) return;
// One GenJet
if ( genJets_.size() != 1 ) return;
double true_E = genJets_[0].p();
double true_eta = genJets_[0].eta();
double true_phi = genJets_[0].phi();
// One particle-flow jet
// if ( pfJets_.size() != 1 ) return;
double rec_ECALEnergy = 0.;
double rec_HCALEnergy = 0.;
double deltaRMin = 999.;
unsigned int theJet = 0;
for ( unsigned int ijet=0; ijet<pfJets_.size(); ++ijet ) {
double rec_ECAL = pfJets_[ijet].neutralEmEnergy();
double rec_HCAL = pfJets_[ijet].neutralHadronEnergy();
double rec_eta = pfJets_[0].eta();
double rec_phi = pfJets_[0].phi();
double deltaR = std::sqrt( (rec_eta-true_eta)*(rec_eta-true_eta)
+ (rec_phi-true_phi)*(rec_phi-true_phi) );
if ( deltaR < deltaRMin ) {
deltaRMin = deltaR;
rec_ECALEnergy = rec_ECAL;
rec_HCALEnergy = rec_HCAL;
}
}
if ( deltaRMin > 0.1 ) return;
std::vector < PFCandidatePtr > constituents = pfJets_[theJet].getPFConstituents ();
double pat_ECALEnergy = 0.;
double pat_HCALEnergy = 0.;
for (unsigned ic = 0; ic < constituents.size (); ++ic) {
if ( constituents[ic]->particleId() < 4 ) continue;
if ( constituents[ic]->particleId() == 4 )
pat_ECALEnergy += constituents[ic]->rawEcalEnergy();
else if ( constituents[ic]->particleId() == 5 )
pat_HCALEnergy += constituents[ic]->rawHcalEnergy();
}
out << true_eta << " " << true_phi << " " << true_E
<< " " << rec_ECALEnergy << " " << rec_HCALEnergy
<< " " << pat_ECALEnergy << " " << pat_HCALEnergy
<< " " << deltaRMin << std::endl;
}
| void PFRootEventManager::printRecHit | ( | const reco::PFRecHit & | rh, |
| unsigned | index, | ||
| const char * | seed = " ", |
||
| std::ostream & | out = std::cout |
||
| ) | const |
Definition at line 4283 of file PFRootEventManager.cc.
References reco::PFRecHit::energy(), relval_parameters_module::energy, eta, phi, reco::PFRecHit::position(), and printRecHitsEMin_.
Referenced by printRecHits().
| void PFRootEventManager::printRecHits | ( | const reco::PFRecHitCollection & | rechits, |
| const PFClusterAlgo & | clusterAlgo, | ||
| std::ostream & | out = std::cout |
||
| ) | const |
print rechits
Definition at line 4272 of file PFRootEventManager.cc.
References PFClusterAlgo::isSeed(), dbtoconf::out, and printRecHit().
| bool PFRootEventManager::processEntry | ( | int | entry | ) | [virtual] |
process one entry (pass the TTree entry)
Reimplemented in MyPFRootEventManager, and PFRootEventManagerColin.
Definition at line 1863 of file PFRootEventManager.cc.
References calibFile_, caloJetsCMSSW_, caloMetsCMSSW_, clustering(), clustersECAL_, clustersHCAL_, clustersHFEM_, clustersHFHAD_, clustersHO_, clustersPS_, convBremGsfrecTracks_, conversion_, corrcaloJetsCMSSW_, gather_cfg::cout, DeltaMETcut, DeltaPhicut, doClustering_, doCompare_, doJets_, doMet_, doParticleFlow_, doPFCandidateBenchmark_, doPFDQM_, doPFJetBenchmark_, doPFMETBenchmark_, doTauBenchmark_, ev_, edm::EventID::event(), eventAccepted(), PFCandidateManager::fill(), PFJetMonitor::fill(), PFMETMonitor::fillOne(), genJets_, genParticlesCMSSW_, gsfrecTracks_, edm::EventBase::id(), iEvent, iEvent_, JECinCaloMet_, edm::EventID::luminosityBlock(), MET1cut, metManager_, muons_, outEvent_, outTree_, particleFlow(), pfCandCompare(), pfCandidateManager_, pfCandidates_, PFJetBenchmark_, pfJetMonitor_, pfJets_, pfMETMonitor_, pfMetsCMSSW_, pfNuclearTrackerVertex_, primaryVertices_, print(), printMCCalib(), PFJetBenchmark::process(), readFromSimulation(), rechitsCLEANED_, rechitsECAL_, rechitsHCAL_, rechitsHFEM_, rechitsHFHAD_, rechitsHO_, rechitsPS_, reconstructCaloJets(), reconstructGenJets(), reconstructPFJets(), recTracks_, PFJetBenchmark::resChargedHadEnergyMax(), reset(), PFJetBenchmark::resNeutralEmEnergyMax(), PFJetBenchmark::resNeutralHadEnergyMax(), PFJetBenchmark::resPtMax(), edm::EventID::run(), EventColin::setNumber(), stdTracks_, tauBenchmark(), fwlite::ChainEvent::to(), trueParticles_, useHO_, v0_, VERBOSE, and verbosity_.
Referenced by DisplayManager::display(), DisplayManager::displayNextInteresting(), MyPFRootEventManager::processEntry(), PFRootEventManagerColin::processEntry(), and processEvent().
{
reset();
iEvent_ = entry;
bool exists = ev_->to(entry);
if ( !exists ) {
std::cout << "Entry " << entry << " does not exist " << std::endl;
return false;
}
const edm::EventBase& iEvent = *ev_;
if( outEvent_ ) outEvent_->setNumber(entry);
if(verbosity_ == VERBOSE ||
//entry < 10000 ||
entry < 10 ||
(entry < 100 && entry%10 == 0) ||
(entry < 1000 && entry%100 == 0) ||
entry%1000 == 0 )
cout<<"process entry "<< entry
<<", run "<<iEvent.id().run()
<<", lumi "<<iEvent.id().luminosityBlock()
<<", event:"<<iEvent.id().event()
<< endl;
//ev_->getTFile()->cd();
bool goodevent = readFromSimulation(entry);
/*
std::cout << "Rechits cleaned : " << std::endl;
for(unsigned i=0; i<rechitsCLEANED_.size(); i++) {
string seedstatus = " ";
printRecHit(rechitsCLEANED_[i], i, seedstatus.c_str());
}
*/
if(verbosity_ == VERBOSE ) {
cout<<"number of vertices : "<<primaryVertices_.size()<<endl;
cout<<"number of recTracks : "<<recTracks_.size()<<endl;
cout<<"number of gsfrecTracks : "<<gsfrecTracks_.size()<<endl;
cout<<"number of convBremGsfrecTracks : "<<convBremGsfrecTracks_.size()<<endl;
cout<<"number of muons : "<<muons_.size()<<endl;
cout<<"number of displaced vertices : "<<pfNuclearTrackerVertex_.size()<<endl;
cout<<"number of conversions : "<<conversion_.size()<<endl;
cout<<"number of v0 : "<<v0_.size()<<endl;
cout<<"number of stdTracks : "<<stdTracks_.size()<<endl;
cout<<"number of true particles : "<<trueParticles_.size()<<endl;
cout<<"number of ECAL rechits : "<<rechitsECAL_.size()<<endl;
cout<<"number of HCAL rechits : "<<rechitsHCAL_.size()<<endl;
cout<<"number of HO rechits : "<<rechitsHO_.size()<<endl;
cout<<"number of HFEM rechits : "<<rechitsHFEM_.size()<<endl;
cout<<"number of HFHAD rechits : "<<rechitsHFHAD_.size()<<endl;
cout<<"number of HF Cleaned rechits : "<<rechitsCLEANED_.size()<<endl;
cout<<"number of PS rechits : "<<rechitsPS_.size()<<endl;
}
if( doClustering_ ) {
clustering();
} else if( verbosity_ == VERBOSE ) {
cout<<"clustering is OFF - clusters come from the input file"<<endl;
}
if(verbosity_ == VERBOSE ) {
if(clustersECAL_.get() ) {
cout<<"number of ECAL clusters : "<<clustersECAL_->size()<<endl;
}
if(clustersHCAL_.get() ) {
cout<<"number of HCAL clusters : "<<clustersHCAL_->size()<<endl;
}
if(useHO_ && clustersHO_.get() ) {
cout<<"number of HO clusters : "<<clustersHO_->size()<<endl;
}
if(clustersHFEM_.get() ) {
cout<<"number of HFEM clusters : "<<clustersHFEM_->size()<<endl;
}
if(clustersHFHAD_.get() ) {
cout<<"number of HFHAD clusters : "<<clustersHFHAD_->size()<<endl;
}
if(clustersPS_.get() ) {
cout<<"number of PS clusters : "<<clustersPS_->size()<<endl;
}
}
if(doParticleFlow_) {
particleFlow();
if (doCompare_) pfCandCompare(entry);
}
if(doJets_) {
reconstructGenJets();
reconstructCaloJets();
reconstructPFJets();
}
// call print() in verbose mode
if( verbosity_ == VERBOSE ) print();
//COLIN the PFJet and PFMET benchmarks are very messy.
//COLIN compare with the filling of the PFCandidateBenchmark, which is one line.
goodevent = eventAccepted();
// evaluate PFJet Benchmark
if(doPFJetBenchmark_) { // start PFJet Benchmark
PFJetBenchmark_.process(pfJets_, genJets_);
double resPt = PFJetBenchmark_.resPtMax();
double resChargedHadEnergy = PFJetBenchmark_.resChargedHadEnergyMax();
double resNeutralHadEnergy = PFJetBenchmark_.resNeutralHadEnergyMax();
double resNeutralEmEnergy = PFJetBenchmark_.resNeutralEmEnergyMax();
if( verbosity_ == VERBOSE ){ //start debug print
cout << " =====================PFJetBenchmark =================" << endl;
cout<<"Resol Pt max "<<resPt
<<" resChargedHadEnergy Max " << resChargedHadEnergy
<<" resNeutralHadEnergy Max " << resNeutralHadEnergy
<< " resNeutralEmEnergy Max "<< resNeutralEmEnergy << endl;
} // end debug print
// PJ : printout for bad events (selected by the "if")
/*
if ( fabs(resPt) > 0.4 )
std::cout << "'" << iEvent.id().run() << ":" << iEvent.id().event() << "-"
<< iEvent.id().run() << ":" << iEvent.id().event() << "'," << std::endl;
*/
if ( resPt < -1. ) {
cout << " =====================PFJetBenchmark =================" << endl;
cout<<"process entry "<< entry << endl;
cout<<"Resol Pt max "<<resPt
<<" resChargedHadEnergy Max " << resChargedHadEnergy
<<" resNeutralHadEnergy Max " << resNeutralHadEnergy
<< " resNeutralEmEnergy Max "<< resNeutralEmEnergy
<< " Jet pt " << genJets_[0].pt() << endl;
// return true;
} else {
// return false;
}
// if (resNeutralEmEnergy>0.5) return true;
// else return false;
}// end PFJet Benchmark
// Addition to have DQM histograms : by S. Dutta
reco::MET reComputedMet_;
reco::MET computedGenMet_;
//-----------------------------------------------
//COLIN would be nice to move this long code to a separate function.
// is it necessary to re-set everything at each event??
if(doPFMETBenchmark_) { // start PFMet Benchmark
// Fill here the various met benchmarks
// pfMET vs GenMET
metManager_->setMET1(&genParticlesCMSSW_);
metManager_->setMET2(&pfMetsCMSSW_[0]);
metManager_->FillHisto("PF");
// cout events in tail
metManager_->coutTailEvents(entry,DeltaMETcut,DeltaPhicut, MET1cut);
// caloMET vs GenMET
metManager_->setMET2(&caloMetsCMSSW_[0]);
metManager_->FillHisto("Calo");
if ( doMet_ ) {
// recomputed pfMET vs GenMET
metManager_->setMET2(*pfCandidates_);
metManager_->FillHisto("recompPF");
metManager_->coutTailEvents(entry,DeltaMETcut,DeltaPhicut, MET1cut);
}
if (JECinCaloMet_)
{
// corrCaloMET vs GenMET
metManager_->setMET2(&caloMetsCMSSW_[0]);
metManager_->propagateJECtoMET2(caloJetsCMSSW_, corrcaloJetsCMSSW_);
metManager_->FillHisto("corrCalo");
}
}// end PFMET Benchmark
if( goodevent && doPFCandidateBenchmark_ ) {
pfCandidateManager_.fill( *pfCandidates_, genParticlesCMSSW_);
}
// Addition to have DQM histograms : by S. Dutta
if( goodevent && doPFDQM_ ) {
float deltaMin, deltaMax;
pfJetMonitor_.fill( pfJets_, genJets_, deltaMin, deltaMax);
if (doPFMETBenchmark_) {
pfMETMonitor_.fillOne( reComputedMet_, computedGenMet_, deltaMin, deltaMax);
}
}
//-----------------------------------------------
// evaluate tau Benchmark
if( goodevent && doTauBenchmark_) { // start tau Benchmark
double deltaEt = 0.;
deltaEt = tauBenchmark( *pfCandidates_ );
if( verbosity_ == VERBOSE ) cout<<"delta E_t ="<<deltaEt <<endl;
// cout<<"delta E_t ="<<deltaEt<<" delta E_t Other ="<<deltaEt1<<endl;
// if( deltaEt>0.4 ) {
// cout<<deltaEt<<endl;
// return true;
// }
// else return false;
} // end tau Benchmark
if(goodevent && outTree_)
outTree_->Fill();
if(calibFile_)
printMCCalib(*calibFile_);
return goodevent;
}
| bool PFRootEventManager::processEvent | ( | int | run, |
| int | lumi, | ||
| int | event | ||
| ) | [virtual] |
process one event (pass the CMS event number)
Definition at line 1851 of file PFRootEventManager.cc.
References gather_cfg::cout, eventToEntry(), and processEntry().
Referenced by DisplayManager::displayEvent().
{
int entry = eventToEntry(run, lumi, event);
if( entry < 0 ) {
cout<<"event "<<event<<" is not present, sorry."<<endl;
return false;
}
else
return processEntry( entry );
}
| void PFRootEventManager::readCMSSWJets | ( | ) |
Definition at line 4500 of file PFRootEventManager.cc.
References caloJetsCMSSW_, gather_cfg::cout, genJetsCMSSW_, i, and pfJetsCMSSW_.
{
cout<<"CMSSW Gen jets : size = " << genJetsCMSSW_.size() << endl;
for ( unsigned i = 0; i < genJetsCMSSW_.size(); i++) {
cout<<"Gen jet Et : " << genJetsCMSSW_[i].et() << endl;
}
cout<<"CMSSW PF jets : size = " << pfJetsCMSSW_.size() << endl;
for ( unsigned i = 0; i < pfJetsCMSSW_.size(); i++) {
cout<<"PF jet Et : " << pfJetsCMSSW_[i].et() << endl;
}
cout<<"CMSSW Calo jets : size = " << caloJetsCMSSW_.size() << endl;
for ( unsigned i = 0; i < caloJetsCMSSW_.size(); i++) {
cout<<"Calo jet Et : " << caloJetsCMSSW_[i].et() << endl;
}
}
| bool PFRootEventManager::readFromSimulation | ( | int | entry | ) |
read data from simulation tree
Definition at line 2116 of file PFRootEventManager.cc.
References caloJetsCMSSW_, caloJetsHandle_, caloJetsTag_, caloMetsCMSSW_, caloMetsHandle_, caloMetsTag_, caloTowers_, caloTowersHandle_, caloTowersTag_, dtNoiseDBValidation_cfg::cerr, convBremGsfrecTracks_, convBremGsfrecTracksHandle_, convBremGsfrecTracksTag_, conversion_, conversionHandle_, conversionTag_, corrcaloJetsCMSSW_, corrcaloJetsHandle_, corrcaloJetsTag_, countChargedAndPhotons(), gather_cfg::cout, displacedRecTracks_, displacedRecTracksHandle_, displacedRecTracksTag_, doTauBenchmark_, egammaElectronHandle_, egammaElectrons_, egammaElectronsTag_, ev_, fillOutEventWithSimParticles(), filterHadronicTaus_, filterNParticles_, filterTaus_, findRecHitNeighbours_, genJetsCMSSW_, genJetsHandle_, genJetsTag_, genParticlesCMSSW_, genParticlesforJets_, genParticlesforJetsHandle_, genParticlesforJetsTag_, genParticlesforMETHandle_, genParticlesforMETTag_, edm::EventBase::getByLabel(), gsfrecTracks_, gsfrecTracksHandle_, gsfrecTracksTag_, i, iEvent, isHadronicTau(), j, MCTruth_, MCTruthHandle_, MCTruthTag_, muons_, muonsHandle_, muonsTag_, pfCandCMSSW_, pfCandidateHandle_, pfCandidateTag_, pfJetsCMSSW_, pfJetsHandle_, pfJetsTag_, pfMetsCMSSW_, pfMetsHandle_, pfMetsTag_, pfNuclearTrackerVertex_, pfNuclearTrackerVertexHandle_, pfNuclearTrackerVertexTag_, photonHandle_, photons_, photonTag_, PreprocessRecHits(), primaryVertices_, primaryVerticesHandle_, primaryVerticesTag_, rechitsCLEANED_, rechitsCLEANEDHandles_, rechitsCLEANEDTags_, rechitsCLEANEDV_, rechitsECAL_, rechitsECALHandle_, rechitsECALTag_, rechitsHCAL_, rechitsHCALHandle_, rechitsHCALTag_, rechitsHFEM_, rechitsHFEMHandle_, rechitsHFEMTag_, rechitsHFHAD_, rechitsHFHADHandle_, rechitsHFHADTag_, rechitsHO_, rechitsHOHandle_, rechitsHOTag_, rechitsPS_, rechitsPSHandle_, rechitsPSTag_, recTracks_, recTracksHandle_, recTracksTag_, findQualityFiles::size, stdTracks_, stdTracksHandle_, stdTracksTag_, tcMetsCMSSW_, tcMetsHandle_, tcMetsTag_, trueParticles_, trueParticlesHandle_, trueParticlesTag_, useConvBremGsfTracks_, useEGElectrons_, useEGPhotons_, useHO_, usePFConversions_, usePFNuclearInteractions_, usePFV0s_, v0_, v0Handle_, v0Tag_, VERBOSE, and verbosity_.
Referenced by processEntry().
{
if (verbosity_ == VERBOSE ) {
cout <<"start reading from simulation"<<endl;
}
// if(!tree_) return false;
const edm::EventBase& iEvent = *ev_;
bool foundstdTracks = iEvent.getByLabel(stdTracksTag_,stdTracksHandle_);
if ( foundstdTracks ) {
stdTracks_ = *stdTracksHandle_;
// cout << "Found " << stdTracks_.size() << " standard tracks" << endl;
} else {
cerr<<"PFRootEventManager::ProcessEntry : stdTracks Collection not found : "
<<entry << " " << stdTracksTag_<<endl;
}
bool foundMCTruth = iEvent.getByLabel(MCTruthTag_,MCTruthHandle_);
if ( foundMCTruth ) {
MCTruth_ = *MCTruthHandle_;
// cout << "Found MC truth" << endl;
} else {
// cerr<<"PFRootEventManager::ProcessEntry : MCTruth Collection not found : "
// <<entry << " " << MCTruthTag_<<endl;
}
bool foundTP = iEvent.getByLabel(trueParticlesTag_,trueParticlesHandle_);
if ( foundTP ) {
trueParticles_ = *trueParticlesHandle_;
// cout << "Found " << trueParticles_.size() << " true particles" << endl;
} else {
//cerr<<"PFRootEventManager::ProcessEntry : trueParticles Collection not found : "
// <<entry << " " << trueParticlesTag_<<endl;
}
bool foundECAL = iEvent.getByLabel(rechitsECALTag_,rechitsECALHandle_);
if ( foundECAL ) {
rechitsECAL_ = *rechitsECALHandle_;
// cout << "Found " << rechitsECAL_.size() << " ECAL rechits" << endl;
} else {
cerr<<"PFRootEventManager::ProcessEntry : rechitsECAL Collection not found : "
<<entry << " " << rechitsECALTag_<<endl;
}
bool foundHCAL = iEvent.getByLabel(rechitsHCALTag_,rechitsHCALHandle_);
if ( foundHCAL ) {
rechitsHCAL_ = *rechitsHCALHandle_;
// cout << "Found " << rechitsHCAL_.size() << " HCAL rechits" << endl;
} else {
cerr<<"PFRootEventManager::ProcessEntry : rechitsHCAL Collection not found : "
<<entry << " " << rechitsHCALTag_<<endl;
}
if (useHO_) {
bool foundHO = iEvent.getByLabel(rechitsHOTag_,rechitsHOHandle_);
if ( foundHO ) {
rechitsHO_ = *rechitsHOHandle_;
// cout << "Found " << rechitsHO_.size() << " HO rechits" << endl;
} else {
cerr<<"PFRootEventManager::ProcessEntry : rechitsHO Collection not found : "
<<entry << " " << rechitsHOTag_<<endl;
}
}
bool foundHFEM = iEvent.getByLabel(rechitsHFEMTag_,rechitsHFEMHandle_);
if ( foundHFEM ) {
rechitsHFEM_ = *rechitsHFEMHandle_;
// cout << "Found " << rechitsHFEM_.size() << " HFEM rechits" << endl;
} else {
cerr<<"PFRootEventManager::ProcessEntry : rechitsHFEM Collection not found : "
<<entry << " " << rechitsHFEMTag_<<endl;
}
bool foundHFHAD = iEvent.getByLabel(rechitsHFHADTag_,rechitsHFHADHandle_);
if ( foundHFHAD ) {
rechitsHFHAD_ = *rechitsHFHADHandle_;
// cout << "Found " << rechitsHFHAD_.size() << " HFHAD rechits" << endl;
} else {
cerr<<"PFRootEventManager::ProcessEntry : rechitsHFHAD Collection not found : "
<<entry << " " << rechitsHFHADTag_<<endl;
}
for ( unsigned i=0; i<rechitsCLEANEDTags_.size(); ++i ) {
bool foundCLEANED = iEvent.getByLabel(rechitsCLEANEDTags_[i],
rechitsCLEANEDHandles_[i]);
if ( foundCLEANED ) {
rechitsCLEANEDV_[i] = *(rechitsCLEANEDHandles_[i]);
// cout << "Found " << rechitsCLEANEDV_[i].size() << " CLEANED rechits" << endl;
} else {
cerr<<"PFRootEventManager::ProcessEntry : rechitsCLEANED Collection not found : "
<<entry << " " << rechitsCLEANEDTags_[i]<<endl;
}
}
bool foundPS = iEvent.getByLabel(rechitsPSTag_,rechitsPSHandle_);
if ( foundPS ) {
rechitsPS_ = *rechitsPSHandle_;
// cout << "Found " << rechitsPS_.size() << " PS rechits" << endl;
} else {
cerr<<"PFRootEventManager::ProcessEntry : rechitsPS Collection not found : "
<<entry << " " << rechitsPSTag_<<endl;
}
bool foundCT = iEvent.getByLabel(caloTowersTag_,caloTowersHandle_);
if ( foundCT ) {
caloTowers_ = *caloTowersHandle_;
// cout << "Found " << caloTowers_.size() << " calo Towers" << endl;
} else {
cerr<<"PFRootEventManager::ProcessEntry : caloTowers Collection not found : "
<<entry << " " << caloTowersTag_<<endl;
}
bool foundPV = iEvent.getByLabel(primaryVerticesTag_,primaryVerticesHandle_);
if ( foundPV ) {
primaryVertices_ = *primaryVerticesHandle_;
// cout << "Found " << primaryVertices_.size() << " primary vertices" << endl;
} else {
cerr<<"PFRootEventManager::ProcessEntry : primaryVertices Collection not found : "
<<entry << " " << primaryVerticesTag_<<endl;
}
bool foundPFV = iEvent.getByLabel(pfNuclearTrackerVertexTag_,pfNuclearTrackerVertexHandle_);
if ( foundPFV ) {
pfNuclearTrackerVertex_ = *pfNuclearTrackerVertexHandle_;
// cout << "Found " << pfNuclearTrackerVertex_.size() << " secondary PF vertices" << endl;
} else if ( usePFNuclearInteractions_ ) {
cerr<<"PFRootEventManager::ProcessEntry : pfNuclearTrackerVertex Collection not found : "
<<entry << " " << pfNuclearTrackerVertexTag_<<endl;
}
bool foundrecTracks = iEvent.getByLabel(recTracksTag_,recTracksHandle_);
if ( foundrecTracks ) {
recTracks_ = *recTracksHandle_;
// cout << "Found " << recTracks_.size() << " PFRecTracks" << endl;
} else {
cerr<<"PFRootEventManager::ProcessEntry : recTracks Collection not found : "
<<entry << " " << recTracksTag_<<endl;
}
bool founddisplacedRecTracks = iEvent.getByLabel(displacedRecTracksTag_,displacedRecTracksHandle_);
if ( founddisplacedRecTracks ) {
displacedRecTracks_ = *displacedRecTracksHandle_;
// cout << "Found " << displacedRecTracks_.size() << " PFRecTracks" << endl;
} else {
cerr<<"PFRootEventManager::ProcessEntry : displacedRecTracks Collection not found : "
<<entry << " " << displacedRecTracksTag_<<endl;
}
bool foundgsfrecTracks = iEvent.getByLabel(gsfrecTracksTag_,gsfrecTracksHandle_);
if ( foundgsfrecTracks ) {
gsfrecTracks_ = *gsfrecTracksHandle_;
// cout << "Found " << gsfrecTracks_.size() << " GsfPFRecTracks" << endl;
} else {
cerr<<"PFRootEventManager::ProcessEntry : gsfrecTracks Collection not found : "
<<entry << " " << gsfrecTracksTag_<<endl;
}
bool foundconvBremGsfrecTracks = iEvent.getByLabel(convBremGsfrecTracksTag_,convBremGsfrecTracksHandle_);
if ( foundconvBremGsfrecTracks ) {
convBremGsfrecTracks_ = *convBremGsfrecTracksHandle_;
// cout << "Found " << convBremGsfrecTracks_.size() << " ConvBremGsfPFRecTracks" << endl;
} else if ( useConvBremGsfTracks_ ) {
cerr<<"PFRootEventManager::ProcessEntry : convBremGsfrecTracks Collection not found : "
<<entry << " " << convBremGsfrecTracksTag_<<endl;
}
bool foundmuons = iEvent.getByLabel(muonsTag_,muonsHandle_);
if ( foundmuons ) {
muons_ = *muonsHandle_;
/*
cout << "Found " << muons_.size() << " muons" << endl;
for ( unsigned imu=0; imu<muons_.size(); ++imu ) {
std::cout << " Muon " << imu << ":" << std::endl;
reco::MuonRef muonref( &muons_, imu );
PFMuonAlgo::printMuonProperties(muonref);
}
*/
} else {
cerr<<"PFRootEventManager::ProcessEntry : muons Collection not found : "
<<entry << " " << muonsTag_<<endl;
}
bool foundconversion = iEvent.getByLabel(conversionTag_,conversionHandle_);
if ( foundconversion ) {
conversion_ = *conversionHandle_;
// cout << "Found " << conversion_.size() << " conversion" << endl;
} else if ( usePFConversions_ ) {
cerr<<"PFRootEventManager::ProcessEntry : conversion Collection not found : "
<<entry << " " << conversionTag_<<endl;
}
bool foundv0 = iEvent.getByLabel(v0Tag_,v0Handle_);
if ( foundv0 ) {
v0_ = *v0Handle_;
// cout << "Found " << v0_.size() << " v0" << endl;
} else if ( usePFV0s_ ) {
cerr<<"PFRootEventManager::ProcessEntry : v0 Collection not found : "
<<entry << " " << v0Tag_<<endl;
}
if(useEGPhotons_) {
bool foundPhotons = iEvent.getByLabel(photonTag_,photonHandle_);
if ( foundPhotons) {
photons_ = *photonHandle_;
} else {
cerr <<"PFRootEventManager::ProcessEntry : photon collection not found : "
<< entry << " " << photonTag_ << endl;
}
}
if(useEGElectrons_) {
bool foundElectrons = iEvent.getByLabel(egammaElectronsTag_,egammaElectronHandle_);
if ( foundElectrons) {
// std::cout << " Found collection " << std::endl;
egammaElectrons_ = *egammaElectronHandle_;
} else
{
cerr <<"PFRootEventManager::ProcessEntry : electron collection not found : "
<< entry << " " << egammaElectronsTag_ << endl;
}
}
bool foundgenJets = iEvent.getByLabel(genJetsTag_,genJetsHandle_);
if ( foundgenJets ) {
genJetsCMSSW_ = *genJetsHandle_;
// cout << "Found " << genJetsCMSSW_.size() << " genJets" << endl;
} else {
//cerr<<"PFRootEventManager::ProcessEntry : genJets Collection not found : "
// <<entry << " " << genJetsTag_<<endl;
}
bool foundgenParticlesforJets = iEvent.getByLabel(genParticlesforJetsTag_,genParticlesforJetsHandle_);
if ( foundgenParticlesforJets ) {
genParticlesforJets_ = *genParticlesforJetsHandle_;
// cout << "Found " << genParticlesforJets_.size() << " genParticlesforJets" << endl;
} else {
//cerr<<"PFRootEventManager::ProcessEntry : genParticlesforJets Collection not found : "
// <<entry << " " << genParticlesforJetsTag_<<endl;
}
bool foundgenParticlesforMET = iEvent.getByLabel(genParticlesforMETTag_,genParticlesforMETHandle_);
if ( foundgenParticlesforMET ) {
genParticlesCMSSW_ = *genParticlesforMETHandle_;
// cout << "Found " << genParticlesCMSSW_.size() << " genParticlesforMET" << endl;
} else {
//cerr<<"PFRootEventManager::ProcessEntry : genParticlesforMET Collection not found : "
// <<entry << " " << genParticlesforMETTag_<<endl;
}
bool foundcaloJets = iEvent.getByLabel(caloJetsTag_,caloJetsHandle_);
if ( foundcaloJets ) {
caloJetsCMSSW_ = *caloJetsHandle_;
// cout << "Found " << caloJetsCMSSW_.size() << " caloJets" << endl;
} else {
cerr<<"PFRootEventManager::ProcessEntry : caloJets Collection not found : "
<<entry << " " << caloJetsTag_<<endl;
}
bool foundcorrcaloJets = iEvent.getByLabel(corrcaloJetsTag_,corrcaloJetsHandle_);
if ( foundcorrcaloJets ) {
corrcaloJetsCMSSW_ = *corrcaloJetsHandle_;
// cout << "Found " << corrcaloJetsCMSSW_.size() << " corrcaloJets" << endl;
} else {
//cerr<<"PFRootEventManager::ProcessEntry : corrcaloJets Collection not found : "
// <<entry << " " << corrcaloJetsTag_<<endl;
}
bool foundpfJets = iEvent.getByLabel(pfJetsTag_,pfJetsHandle_);
if ( foundpfJets ) {
pfJetsCMSSW_ = *pfJetsHandle_;
// cout << "Found " << pfJetsCMSSW_.size() << " PFJets" << endl;
} else {
cerr<<"PFRootEventManager::ProcessEntry : PFJets Collection not found : "
<<entry << " " << pfJetsTag_<<endl;
}
bool foundpfCands = iEvent.getByLabel(pfCandidateTag_,pfCandidateHandle_);
if ( foundpfCands ) {
pfCandCMSSW_ = *pfCandidateHandle_;
// cout << "Found " << pfCandCMSSW_.size() << " PFCandidates" << endl;
} else {
cerr<<"PFRootEventManager::ProcessEntry : PFCandidate Collection not found : "
<<entry << " " << pfCandidateTag_<<endl;
}
bool foundpfMets = iEvent.getByLabel(pfMetsTag_,pfMetsHandle_);
if ( foundpfMets ) {
pfMetsCMSSW_ = *pfMetsHandle_;
//cout << "Found " << pfMetsCMSSW_.size() << " PFMets" << endl;
} else {
cerr<<"PFRootEventManager::ProcessEntry : PFMets Collection not found : "
<<entry << " " << pfMetsTag_<<endl;
}
bool foundtcMets = iEvent.getByLabel(tcMetsTag_,tcMetsHandle_);
if ( foundtcMets ) {
tcMetsCMSSW_ = *tcMetsHandle_;
//cout << "Found " << tcMetsCMSSW_.size() << " TCMets" << endl;
} else {
cerr<<"TCRootEventManager::ProcessEntry : TCMets Collection not found : "
<<entry << " " << tcMetsTag_<<endl;
}
bool foundcaloMets = iEvent.getByLabel(caloMetsTag_,caloMetsHandle_);
if ( foundcaloMets ) {
caloMetsCMSSW_ = *caloMetsHandle_;
//cout << "Found " << caloMetsCMSSW_.size() << " CALOMets" << endl;
} else {
cerr<<"CALORootEventManager::ProcessEntry : CALOMets Collection not found : "
<<entry << " " << caloMetsTag_<<endl;
}
// now can use the tree
bool goodevent = true;
if(trueParticles_.size() ) {
// this is a filter to select single particle events.
if(filterNParticles_ && doTauBenchmark_ &&
trueParticles_.size() != filterNParticles_ ) {
cout << "PFRootEventManager : event discarded Nparticles="
<<filterNParticles_<< endl;
goodevent = false;
}
if(goodevent && doTauBenchmark_ && filterHadronicTaus_ && !isHadronicTau() ) {
cout << "PFRootEventManager : leptonic tau discarded " << endl;
goodevent = false;
}
if( goodevent && doTauBenchmark_ && !filterTaus_.empty()
&& !countChargedAndPhotons() ) {
assert( filterTaus_.size() == 2 );
cout <<"PFRootEventManager : tau discarded: "
<<"number of charged and neutral particles different from "
<<filterTaus_[0]<<","<<filterTaus_[1]<<endl;
goodevent = false;
}
if(goodevent)
fillOutEventWithSimParticles( trueParticles_ );
}
// if(caloTowersBranch_) {
// if(goodevent)
// fillOutEventWithCaloTowers( caloTowers_ );
// }
if(rechitsECAL_.size()) {
PreprocessRecHits( rechitsECAL_ , findRecHitNeighbours_);
}
if(rechitsHCAL_.size()) {
PreprocessRecHits( rechitsHCAL_ , findRecHitNeighbours_);
}
if (useHO_) {
if(rechitsHO_.size()) {
PreprocessRecHits( rechitsHO_ , findRecHitNeighbours_);
}
}
if(rechitsHFEM_.size()) {
PreprocessRecHits( rechitsHFEM_ , findRecHitNeighbours_);
}
if(rechitsHFHAD_.size()) {
PreprocessRecHits( rechitsHFHAD_ , findRecHitNeighbours_);
}
rechitsCLEANED_.clear();
for ( unsigned i=0; i<rechitsCLEANEDV_.size(); ++i ) {
if(rechitsCLEANEDV_[i].size()) {
PreprocessRecHits( rechitsCLEANEDV_[i] , false);
for ( unsigned j=0; j<rechitsCLEANEDV_[i].size(); ++j ) {
rechitsCLEANED_.push_back( (rechitsCLEANEDV_[i])[j] );
}
}
}
if(rechitsPS_.size()) {
PreprocessRecHits( rechitsPS_ , findRecHitNeighbours_);
}
/*
if ( recTracks_.size() ) {
PreprocessRecTracks( recTracks_);
}
if ( displacedRecTracks_.size() ) {
// cout << "preprocessing rec tracks" << endl;
PreprocessRecTracks( displacedRecTracks_);
}
if(gsfrecTracks_.size()) {
PreprocessRecTracks( gsfrecTracks_);
}
if(convBremGsfrecTracks_.size()) {
PreprocessRecTracks( convBremGsfrecTracks_);
}
*/
return goodevent;
}
| void PFRootEventManager::readOptions | ( | const char * | file, |
| bool | refresh = true, |
||
| bool | reconnect = false |
||
| ) |
parse option file if(reconnect), the rootfile will be reopened, and the tree reconnected
Definition at line 132 of file PFRootEventManager.cc.
References calibFile_, calibration_, dtNoiseDBValidation_cfg::cerr, clusterAlgoECAL_, clusterAlgoHCAL_, clusterAlgoHFEM_, clusterAlgoHFHAD_, clusterAlgoHO_, clusterAlgoPS_, connect(), gather_cfg::cout, debug_, Benchmark::DEFAULT, DeltaMETcut, DeltaPhicut, deltaRMax, dir, doClustering_, doCompare_, doJets_, doMet_, doParticleFlow_, doPFCandidateBenchmark_, doPFDQM_, doPFJetBenchmark_, doPFMETBenchmark_, doTauBenchmark_, dqmFile_, egammaElectronsTag_, PFClusterAlgo::enableDebugging(), exception, cmsRelvalreport::exit, expand(), fastsim_, timingPdfMaker::file1, filterHadronicTaus_, filterNParticles_, filterTaus_, findRecHitNeighbours_, IO::GetOpt(), JECinCaloMet_, jetAlgo_, jetAlgoType_, jetMaker_, jetsDebug_, MET1cut, metManager_, alignBH_cfg::mode, onlyTwoJets, options_, outEvent_, outFile_, EcalCondDB::outfilename, outjetfilename, outTree_, pfAlgo_, pfBlockAlgo_, pfCandidateManager_, pfjBenchmarkDebug, PFJetBenchmark_, pfJetMonitor_, pfMETMonitor_, plotAgainstReco, printClusters_, printClustersEMin_, printGenParticles_, printGenParticlesPtMin_, printMCTruthMatching_, printPFBlocks_, printPFCandidates_, printPFCandidatesPtMin_, printPFJets_, printPFJetsPtMin_, printRecHits_, printRecHitsEMin_, printSimParticles_, printSimParticlesPtMin_, PtMinSelector_cfg::ptMin, readSpecificOptions(), reset(), PFAlgo::setAlgo(), PFAlgo::setCandConnectorParameters(), PFClusterAlgo::setCleanRBXandHPDs(), PFJetAlgorithm::SetConeAngle(), FWLiteJetProducer::setConeAreaFraction(), PFJetAlgorithm::SetConeMerge(), FWLiteJetProducer::setConeRadius(), PFBlockAlgo::setDebug(), PFAlgo::setDebug(), FWLiteJetProducer::setDebug(), reco::PFCluster::setDepthCorParameters(), PFJetMonitor::setDirectory(), PFCandidateManager::setDirectory(), PFMETMonitor::setDirectory(), PFAlgo::setDisplacedVerticesParameters(), PFClusterAlgo::setHistos(), PFBlockAlgo::setHOTag(), PFAlgo::setHOTag(), FWLiteJetProducer::setMaxIterations(), FWLiteJetProducer::setMaxPairSize(), FWLiteJetProducer::setmEInputCut(), FWLiteJetProducer::setmEtInputCut(), PFClusterAlgo::setNNeighbours(), FWLiteJetProducer::setOverlapThreshold(), PFCandidateManager::setParameters(), PFBlockAlgo::setParameters(), PFMETMonitor::setParameters(), PFAlgo::setParameters(), PFJetMonitor::setParameters(), PFAlgo::setPFEleParameters(), PFAlgo::setPFMuonAndFakeParameters(), PFAlgo::setPFPhotonParameters(), PFAlgo::setPFPhotonRegWeights(), PFClusterAlgo::setPosCalcNCrystal(), PFClusterAlgo::setPosCalcP1(), PFAlgo::setPostHFCleaningParameters(), FWLiteJetProducer::setPtMin(), Benchmark::setRange(), FWLiteJetProducer::setRParam(), PFClusterAlgo::setS4S1CleanBarrel(), PFClusterAlgo::setS4S1CleanEndcap(), PFClusterAlgo::setS6S2DoubleSpikeBarrel(), PFClusterAlgo::setS6S2DoubleSpikeEndcap(), PFJetAlgorithm::SetSeedEt(), FWLiteJetProducer::setSeedThreshold(), PFClusterAlgo::setShowerSigma(), PFClusterAlgo::setThreshBarrel(), PFClusterAlgo::setThreshCleanBarrel(), PFClusterAlgo::setThreshCleanEndcap(), PFClusterAlgo::setThreshDoubleSpikeBarrel(), PFClusterAlgo::setThreshDoubleSpikeEndcap(), PFClusterAlgo::setThreshEndcap(), PFClusterAlgo::setThreshPtBarrel(), PFClusterAlgo::setThreshPtEndcap(), PFClusterAlgo::setThreshPtSeedBarrel(), PFClusterAlgo::setThreshPtSeedEndcap(), PFClusterAlgo::setThreshSeedBarrel(), PFClusterAlgo::setThreshSeedEndcap(), PFMETMonitor::setup(), PFCandidateManager::setup(), PFJetBenchmark::setup(), PFJetMonitor::setup(), PFClusterAlgo::setUseCornerCells(), PFBlockAlgo::setUseOptimization(), AlCaHLTBitMon_QueryRunRegistry::string, tauBenchmarkDebug_, thepfEnergyCalibrationHF_, FWLiteJetProducer::updateParameter(), useAtHLT_, useConvBremPFRecTracks_, useEGElectrons_, useEGPhotons_, useHO_, useKDTreeTrackEcalLinker_, usePFElectrons_, VERBOSE, and verbosity_.
Referenced by PFRootEventManager().
{
readSpecificOptions(file);
cout<<"calling PFRootEventManager::readOptions"<<endl;
reset();
PFGeometry pfGeometry; // initialize geometry
// cout<<"reading options "<<endl;
try {
if( !options_ )
options_ = new IO(file);
else if( refresh) {
delete options_;
options_ = new IO(file);
}
}
catch( const string& err ) {
cout<<err<<endl;
return;
}
debug_ = false;
options_->GetOpt("rootevent", "debug", debug_);
// output text file for calibration
string calibfilename;
options_->GetOpt("calib","outfile",calibfilename);
if (!calibfilename.empty()) {
calibFile_ = new std::ofstream(calibfilename.c_str());
std::cout << "Calib file name " << calibfilename << " " << calibfilename.c_str() << std::endl;
}
// output root file ------------------------------------------
if(!outFile_) {
string outfilename;
options_->GetOpt("root","outfile", outfilename);
bool doOutTree = false;
options_->GetOpt("root","outtree", doOutTree);
if(doOutTree) {
if(!outfilename.empty() ) {
outFile_ = TFile::Open(outfilename.c_str(), "recreate");
outFile_->cd();
//options_->GetOpt("root","outtree", doOutTree);
//if(doOutTree) {
// cout<<"do tree"<<endl;
outEvent_ = new EventColin();
outTree_ = new TTree("Eff","");
outTree_->Branch("event","EventColin", &outEvent_,32000,2);
}
// cout<<"don't do tree"<<endl;
}
}
// PFJet benchmark options and output jetfile to be open before input file!!!--
doPFJetBenchmark_ = false;
options_->GetOpt("pfjet_benchmark", "on/off", doPFJetBenchmark_);
if (doPFJetBenchmark_) {
string outjetfilename;
options_->GetOpt("pfjet_benchmark", "outjetfile", outjetfilename);
bool pfjBenchmarkDebug;
options_->GetOpt("pfjet_benchmark", "debug", pfjBenchmarkDebug);
bool plotAgainstReco=0;
options_->GetOpt("pfjet_benchmark", "plotAgainstReco", plotAgainstReco);
bool onlyTwoJets=1;
options_->GetOpt("pfjet_benchmark", "onlyTwoJets", onlyTwoJets);
double deltaRMax=0.1;
options_->GetOpt("pfjet_benchmark", "deltaRMax", deltaRMax);
fastsim_=true;
options_->GetOpt("Simulation","Fast",fastsim_);
PFJetBenchmark_.setup( outjetfilename,
pfjBenchmarkDebug,
plotAgainstReco,
onlyTwoJets,
deltaRMax );
}
// PFMET benchmark options and output jetfile to be open before input file!!!--
doPFMETBenchmark_ = false;
options_->GetOpt("pfmet_benchmark", "on/off", doPFMETBenchmark_);
if (doPFMETBenchmark_) {
//COLIN : looks like this benchmark is not written in the standard output file. Any particular reason for it?
doMet_ = false;
options_->GetOpt("MET", "on/off", doMet_);
JECinCaloMet_ = false;
options_->GetOpt("pfmet_benchmark", "JECinCaloMET", JECinCaloMet_);
std::string outmetfilename;
options_->GetOpt("pfmet_benchmark", "outmetfile", outmetfilename);
// define here the various benchmark comparison
metManager_.reset( new METManager(outmetfilename) );
metManager_->addGenBenchmark("PF");
metManager_->addGenBenchmark("Calo");
if ( doMet_ ) metManager_->addGenBenchmark("recompPF");
if (JECinCaloMet_) metManager_->addGenBenchmark("corrCalo");
bool pfmetBenchmarkDebug;
options_->GetOpt("pfmet_benchmark", "debug", pfmetBenchmarkDebug);
MET1cut = 10.0;
options_->GetOpt("pfmet_benchmark", "truemetcut", MET1cut);
DeltaMETcut = 30.0;
options_->GetOpt("pfmet_benchmark", "deltametcut", DeltaMETcut);
DeltaPhicut = 0.8;
options_->GetOpt("pfmet_benchmark", "deltaphicut", DeltaPhicut);
std::vector<unsigned int> vIgnoreParticlesIDs;
options_->GetOpt("pfmet_benchmark", "trueMetIgnoreParticlesIDs", vIgnoreParticlesIDs);
//std::cout << "FL: vIgnoreParticlesIDs.size() = " << vIgnoreParticlesIDs.size() << std::endl;
//std::cout << "FL: first = " << vIgnoreParticlesIDs[0] << std::endl;
metManager_->SetIgnoreParticlesIDs(&vIgnoreParticlesIDs);
std::vector<unsigned int> trueMetSpecificIdCut;
std::vector<double> trueMetSpecificEtaCut;
options_->GetOpt("pfmet_benchmark", "trueMetSpecificIdCut", trueMetSpecificIdCut);
options_->GetOpt("pfmet_benchmark", "trueMetSpecificEtaCut", trueMetSpecificEtaCut);
if (trueMetSpecificIdCut.size()!=trueMetSpecificEtaCut.size()) std::cout << "Warning: PFRootEventManager: trueMetSpecificIdCut.size()!=trueMetSpecificEtaCut.size()" << std::endl;
else metManager_->SetSpecificIdCut(&trueMetSpecificIdCut,&trueMetSpecificEtaCut);
}
doPFCandidateBenchmark_ = true;
options_->GetOpt("pfCandidate_benchmark", "on/off", doPFCandidateBenchmark_);
if (doPFCandidateBenchmark_) {
cout<<"+++ Setting PFCandidate benchmark"<<endl;
TDirectory* dir = outFile_->mkdir("DQMData");
dir = dir->mkdir("PFTask");
dir = dir->mkdir("particleFlowManager");
pfCandidateManager_.setDirectory( dir );
float dRMax = 0.5;
options_->GetOpt("pfCandidate_benchmark", "dRMax", dRMax);
float ptMin = 2;
options_->GetOpt("pfCandidate_benchmark", "ptMin", ptMin);
bool matchCharge = true;
options_->GetOpt("pfCandidate_benchmark", "matchCharge", matchCharge);
int mode = static_cast<int>(Benchmark::DEFAULT);
options_->GetOpt("pfCandidate_benchmark", "mode", mode);
pfCandidateManager_.setParameters( dRMax, matchCharge,
static_cast<Benchmark::Mode>(mode));
pfCandidateManager_.setRange( ptMin, 10e5, -4.5, 4.5, -10, 10);
pfCandidateManager_.setup();
//COLIN need to set the subdirectory.
cout<<"+++ Done "<<endl;
}
// Addition to have DQM histograms : by S. Dutta
doPFDQM_ = true;
options_->GetOpt("pfDQM_monitor", "on/off", doPFDQM_);
if (doPFDQM_) {
cout<<"+++ Setting PFDQM Monitoring " <<endl;
string dqmfilename;
dqmFile_ = 0;
options_->GetOpt("pfDQM_monitor","DQMFilename", dqmfilename);
dqmFile_ = TFile::Open(dqmfilename.c_str(), "recreate");
TDirectory* dir = dqmFile_->mkdir("DQMData");
TDirectory* dir1 = dir->mkdir("PFJetValidation");
TDirectory* dir2 = dir->mkdir("PFMETValidation");
pfJetMonitor_.setDirectory( dir1 );
pfMETMonitor_.setDirectory( dir2 );
float dRMax = 0.5;
options_->GetOpt("pfCandidate_benchmark", "dRMax", dRMax);
float ptMin = 2;
options_->GetOpt("pfCandidate_benchmark", "ptMin", ptMin);
bool matchCharge = true;
options_->GetOpt("pfCandidate_benchmark", "matchCharge", matchCharge);
int mode = static_cast<int>(Benchmark::DEFAULT);
options_->GetOpt("pfCandidate_benchmark", "mode", mode);
pfJetMonitor_.setParameters( dRMax, matchCharge, static_cast<Benchmark::Mode>(mode),
ptMin, 10e5, -4.5, 4.5, -10.0, 10.0, false);
pfJetMonitor_.setup();
pfMETMonitor_.setParameters( static_cast<Benchmark::Mode>(mode),
ptMin, 10e5, -4.5, 4.5, -10.0, 10.0, false);
pfMETMonitor_.setup();
}
//-----------------------------------------------
std::string outputFile0;
TFile* file0 = 0;
TH2F* hBNeighbour0 = 0;
TH2F* hENeighbour0 = 0;
options_->GetOpt("clustering", "ECAL", outputFile0);
if(!outputFile0.empty() ) {
file0 = TFile::Open(outputFile0.c_str(),"recreate");
hBNeighbour0 = new TH2F("BNeighbour0","f_{Neighbours} vs 1/E_{Seed} (ECAL Barrel)",500, 0., 0.5, 1000,0.,1.);
hENeighbour0 = new TH2F("ENeighbour0","f_{Neighbours} vs 1/E_{Seed} (ECAL Endcap)",500, 0., 0.2, 1000,0.,1.);
}
std::string outputFile1;
TFile* file1 = 0;
TH2F* hBNeighbour1 = 0;
TH2F* hENeighbour1 = 0;
options_->GetOpt("clustering", "HCAL", outputFile1);
if(!outputFile1.empty() ) {
file1 = TFile::Open(outputFile1.c_str(),"recreate");
hBNeighbour1 = new TH2F("BNeighbour1","f_{Neighbours} vs 1/E_{Seed} (HCAL Barrel)",500, 0., 0.05, 400,0.,1.);
hENeighbour1 = new TH2F("ENeighbour1","f_{Neighbours} vs 1/E_{Seed} (HCAL Endcap)",500, 0., 0.05, 400,0.,1.);
}
std::string outputFile2;
TFile* file2 = 0;
TH2F* hBNeighbour2 = 0;
TH2F* hENeighbour2 = 0;
options_->GetOpt("clustering", "HFEM", outputFile2);
if(!outputFile2.empty() ) {
file2 = TFile::Open(outputFile2.c_str(),"recreate");
hBNeighbour2 = new TH2F("BNeighbour2","f_{Neighbours} vs 1/E_{Seed} (HFEM Barrel)",500, 0., 0.02, 400,0.,1.);
hENeighbour2 = new TH2F("ENeighbour2","f_{Neighbours} vs 1/E_{Seed} (HFEM Endcap)",500, 0., 0.02, 400,0.,1.);
}
std::string outputFile3;
TFile* file3 = 0;
TH2F* hBNeighbour3 = 0;
TH2F* hENeighbour3 = 0;
options_->GetOpt("clustering", "HFHAD", outputFile3);
if(!outputFile3.empty() ) {
file3 = TFile::Open(outputFile3.c_str(),"recreate");
hBNeighbour3 = new TH2F("BNeighbour3","f_{Neighbours} vs 1/E_{Seed} (HFHAD Barrel)",500, 0., 0.02, 400,0.,1.);
hENeighbour3 = new TH2F("ENeighbour3","f_{Neighbours} vs 1/E_{Seed} (HFHAD Endcap)",500, 0., 0.02, 400,0.,1.);
}
std::string outputFile4;
TFile* file4 = 0;
TH2F* hBNeighbour4 = 0;
TH2F* hENeighbour4 = 0;
options_->GetOpt("clustering", "Preshower", outputFile4);
if(!outputFile4.empty() ) {
file4 = TFile::Open(outputFile4.c_str(),"recreate");
hBNeighbour4 = new TH2F("BNeighbour4","f_{Neighbours} vs 1/E_{Seed} (Preshower Barrel)",200, 0., 1000., 400,0.,1.);
hENeighbour4 = new TH2F("ENeighbour4","f_{Neighbours} vs 1/E_{Seed} (Preshower Endcap)",200, 0., 1000., 400,0.,1.);
}
// input root file --------------------------------------------
if( reconnect )
connect();
// filter --------------------------------------------------------------
filterNParticles_ = 0;
options_->GetOpt("filter", "nparticles", filterNParticles_);
filterHadronicTaus_ = true;
options_->GetOpt("filter", "hadronic_taus", filterHadronicTaus_);
filterTaus_.clear();
options_->GetOpt("filter", "taus", filterTaus_);
if( !filterTaus_.empty() &&
filterTaus_.size() != 2 ) {
cerr<<"PFRootEventManager::ReadOptions, bad filter/taus option."<<endl
<<"please use : "<<endl
<<"\tfilter taus n_charged n_neutral"<<endl;
filterTaus_.clear();
}
// clustering parameters -----------------------------------------------
//Rechit for Ring 0 and +-1/2
double threshold_R0=0.4;
options_->GetOpt("clustering", "threshold_Hit_R0", threshold_R0);
double threshold_R1=1.0;
options_->GetOpt("clustering", "threshold_Hit_R1", threshold_R1);
//Clustering
double threshHO_Seed_Ring0=1.0;
options_->GetOpt("clustering", "threshHO_Seed_Ring0", threshHO_Seed_Ring0);
double threshHO_Ring0=0.5;
options_->GetOpt("clustering", "threshHO_Ring0", threshHO_Ring0);
double threshHO_Seed_Outer=3.1;
options_->GetOpt("clustering", "threshHO_Seed_Outer", threshHO_Seed_Outer);
double threshHO_Outer=1.0;
options_->GetOpt("clustering", "threshHO_Outer", threshHO_Outer);
doClustering_ = true;
//options_->GetOpt("clustering", "on/off", doClustering_);
bool clusteringDebug = false;
options_->GetOpt("clustering", "debug", clusteringDebug );
findRecHitNeighbours_ = true;
options_->GetOpt("clustering", "findRecHitNeighbours",
findRecHitNeighbours_);
double threshEcalBarrel = 0.1;
options_->GetOpt("clustering", "thresh_Ecal_Barrel", threshEcalBarrel);
double threshPtEcalBarrel = 0.0;
options_->GetOpt("clustering", "thresh_Pt_Ecal_Barrel", threshPtEcalBarrel);
double threshSeedEcalBarrel = 0.3;
options_->GetOpt("clustering", "thresh_Seed_Ecal_Barrel",
threshSeedEcalBarrel);
double threshPtSeedEcalBarrel = 0.0;
options_->GetOpt("clustering", "thresh_Pt_Seed_Ecal_Barrel",
threshPtSeedEcalBarrel);
double threshCleanEcalBarrel = 1E5;
options_->GetOpt("clustering", "thresh_Clean_Ecal_Barrel",
threshCleanEcalBarrel);
std::vector<double> minS4S1CleanEcalBarrel;
options_->GetOpt("clustering", "minS4S1_Clean_Ecal_Barrel",
minS4S1CleanEcalBarrel);
double threshDoubleSpikeEcalBarrel = 10.;
options_->GetOpt("clustering", "thresh_DoubleSpike_Ecal_Barrel",
threshDoubleSpikeEcalBarrel);
double minS6S2DoubleSpikeEcalBarrel = 0.04;
options_->GetOpt("clustering", "minS6S2_DoubleSpike_Ecal_Barrel",
minS6S2DoubleSpikeEcalBarrel);
double threshEcalEndcap = 0.2;
options_->GetOpt("clustering", "thresh_Ecal_Endcap", threshEcalEndcap);
double threshPtEcalEndcap = 0.0;
options_->GetOpt("clustering", "thresh_Pt_Ecal_Endcap", threshPtEcalEndcap);
double threshSeedEcalEndcap = 0.8;
options_->GetOpt("clustering", "thresh_Seed_Ecal_Endcap",
threshSeedEcalEndcap);
double threshPtSeedEcalEndcap = 0.0;
options_->GetOpt("clustering", "thresh_Pt_Seed_Ecal_Endcap",
threshPtSeedEcalEndcap);
double threshCleanEcalEndcap = 1E5;
options_->GetOpt("clustering", "thresh_Clean_Ecal_Endcap",
threshCleanEcalEndcap);
std::vector<double> minS4S1CleanEcalEndcap;
options_->GetOpt("clustering", "minS4S1_Clean_Ecal_Endcap",
minS4S1CleanEcalEndcap);
double threshDoubleSpikeEcalEndcap = 1E9;
options_->GetOpt("clustering", "thresh_DoubleSpike_Ecal_Endcap",
threshDoubleSpikeEcalEndcap);
double minS6S2DoubleSpikeEcalEndcap = -1.;
options_->GetOpt("clustering", "minS6S2_DoubleSpike_Ecal_Endcap",
minS6S2DoubleSpikeEcalEndcap);
double showerSigmaEcal = 3;
options_->GetOpt("clustering", "shower_Sigma_Ecal",
showerSigmaEcal);
int nNeighboursEcal = 4;
options_->GetOpt("clustering", "neighbours_Ecal", nNeighboursEcal);
int posCalcNCrystalEcal = -1;
options_->GetOpt("clustering", "posCalc_nCrystal_Ecal",
posCalcNCrystalEcal);
double posCalcP1Ecal
= threshEcalBarrel<threshEcalEndcap ? threshEcalBarrel:threshEcalEndcap;
// options_->GetOpt("clustering", "posCalc_p1_Ecal",
// posCalcP1Ecal);
bool useCornerCellsEcal = false;
options_->GetOpt("clustering", "useCornerCells_Ecal",
useCornerCellsEcal);
clusterAlgoECAL_.setHistos(file0,hBNeighbour0,hENeighbour0);
clusterAlgoECAL_.setThreshBarrel( threshEcalBarrel );
clusterAlgoECAL_.setThreshSeedBarrel( threshSeedEcalBarrel );
clusterAlgoECAL_.setThreshPtBarrel( threshPtEcalBarrel );
clusterAlgoECAL_.setThreshPtSeedBarrel( threshPtSeedEcalBarrel );
clusterAlgoECAL_.setThreshCleanBarrel(threshCleanEcalBarrel);
clusterAlgoECAL_.setS4S1CleanBarrel(minS4S1CleanEcalBarrel);
clusterAlgoECAL_.setThreshDoubleSpikeBarrel( threshDoubleSpikeEcalBarrel );
clusterAlgoECAL_.setS6S2DoubleSpikeBarrel( minS6S2DoubleSpikeEcalBarrel );
clusterAlgoECAL_.setThreshEndcap( threshEcalEndcap );
clusterAlgoECAL_.setThreshSeedEndcap( threshSeedEcalEndcap );
clusterAlgoECAL_.setThreshPtEndcap( threshPtEcalEndcap );
clusterAlgoECAL_.setThreshPtSeedEndcap( threshPtSeedEcalEndcap );
clusterAlgoECAL_.setThreshCleanEndcap(threshCleanEcalEndcap);
clusterAlgoECAL_.setS4S1CleanEndcap(minS4S1CleanEcalEndcap);
clusterAlgoECAL_.setThreshDoubleSpikeEndcap( threshDoubleSpikeEcalEndcap );
clusterAlgoECAL_.setS6S2DoubleSpikeEndcap( minS6S2DoubleSpikeEcalEndcap );
clusterAlgoECAL_.setNNeighbours( nNeighboursEcal );
clusterAlgoECAL_.setShowerSigma( showerSigmaEcal );
clusterAlgoECAL_.setPosCalcNCrystal( posCalcNCrystalEcal );
clusterAlgoECAL_.setPosCalcP1( posCalcP1Ecal );
clusterAlgoECAL_.setUseCornerCells( useCornerCellsEcal );
clusterAlgoECAL_.enableDebugging( clusteringDebug );
int dcormode = 0;
options_->GetOpt("clustering", "depthCor_Mode", dcormode);
double dcora = -1;
options_->GetOpt("clustering", "depthCor_A", dcora);
double dcorb = -1;
options_->GetOpt("clustering", "depthCor_B", dcorb);
double dcorap = -1;
options_->GetOpt("clustering", "depthCor_A_preshower", dcorap);
double dcorbp = -1;
options_->GetOpt("clustering", "depthCor_B_preshower", dcorbp);
// if( dcormode > 0 &&
// dcora > -0.5 &&
// dcorb > -0.5 &&
// dcorap > -0.5 &&
// dcorbp > -0.5 ) {
// cout<<"set depth correction "
// <<dcormode<<" "<<dcora<<" "<<dcorb<<" "<<dcorap<<" "<<dcorbp<<endl;
reco::PFCluster::setDepthCorParameters( dcormode,
dcora, dcorb,
dcorap, dcorbp);
// }
// else {
// reco::PFCluster::setDepthCorParameters( -1,
// 0,0 ,
// 0,0 );
// }
// And now the HCAL
double threshHcalBarrel = 0.8;
options_->GetOpt("clustering", "thresh_Hcal_Barrel", threshHcalBarrel);
double threshPtHcalBarrel = 0.0;
options_->GetOpt("clustering", "thresh_Pt_Hcal_Barrel", threshPtHcalBarrel);
double threshSeedHcalBarrel = 1.4;
options_->GetOpt("clustering", "thresh_Seed_Hcal_Barrel",
threshSeedHcalBarrel);
double threshPtSeedHcalBarrel = 0.0;
options_->GetOpt("clustering", "thresh_Pt_Seed_Hcal_Barrel",
threshPtSeedHcalBarrel);
double threshCleanHcalBarrel = 1E5;
options_->GetOpt("clustering", "thresh_Clean_Hcal_Barrel",
threshCleanHcalBarrel);
std::vector<double> minS4S1CleanHcalBarrel;
options_->GetOpt("clustering", "minS4S1_Clean_Hcal_Barrel",
minS4S1CleanHcalBarrel);
double threshHcalEndcap = 0.8;
options_->GetOpt("clustering", "thresh_Hcal_Endcap", threshHcalEndcap);
double threshPtHcalEndcap = 0.0;
options_->GetOpt("clustering", "thresh_Pt_Hcal_Endcap", threshPtHcalEndcap);
double threshSeedHcalEndcap = 1.4;
options_->GetOpt("clustering", "thresh_Seed_Hcal_Endcap",
threshSeedHcalEndcap);
double threshPtSeedHcalEndcap = 0.0;
options_->GetOpt("clustering", "thresh_Pt_Seed_Hcal_Endcap",
threshPtSeedHcalEndcap);
double threshCleanHcalEndcap = 1E5;
options_->GetOpt("clustering", "thresh_Clean_Hcal_Endcap",
threshCleanHcalEndcap);
std::vector<double> minS4S1CleanHcalEndcap;
options_->GetOpt("clustering", "minS4S1_Clean_Hcal_Endcap",
minS4S1CleanHcalEndcap);
double showerSigmaHcal = 15;
options_->GetOpt("clustering", "shower_Sigma_Hcal",
showerSigmaHcal);
int nNeighboursHcal = 4;
options_->GetOpt("clustering", "neighbours_Hcal", nNeighboursHcal);
int posCalcNCrystalHcal = 5;
options_->GetOpt("clustering", "posCalc_nCrystal_Hcal",
posCalcNCrystalHcal);
bool useCornerCellsHcal = false;
options_->GetOpt("clustering", "useCornerCells_Hcal",
useCornerCellsHcal);
bool cleanRBXandHPDs = false;
options_->GetOpt("clustering", "cleanRBXandHPDs_Hcal",
cleanRBXandHPDs);
double posCalcP1Hcal
= threshHcalBarrel<threshHcalEndcap ? threshHcalBarrel:threshHcalEndcap;
// options_->GetOpt("clustering", "posCalc_p1_Hcal",
// posCalcP1Hcal);
clusterAlgoHCAL_.setHistos(file1,hBNeighbour1,hENeighbour1);
clusterAlgoHCAL_.setThreshBarrel( threshHcalBarrel );
clusterAlgoHCAL_.setThreshSeedBarrel( threshSeedHcalBarrel );
clusterAlgoHCAL_.setThreshPtBarrel( threshPtHcalBarrel );
clusterAlgoHCAL_.setThreshPtSeedBarrel( threshPtSeedHcalBarrel );
clusterAlgoHCAL_.setThreshCleanBarrel(threshCleanHcalBarrel);
clusterAlgoHCAL_.setS4S1CleanBarrel(minS4S1CleanHcalBarrel);
clusterAlgoHCAL_.setThreshEndcap( threshHcalEndcap );
clusterAlgoHCAL_.setThreshSeedEndcap( threshSeedHcalEndcap );
clusterAlgoHCAL_.setThreshPtEndcap( threshPtHcalEndcap );
clusterAlgoHCAL_.setThreshPtSeedEndcap( threshPtSeedHcalEndcap );
clusterAlgoHCAL_.setThreshCleanEndcap(threshCleanHcalEndcap);
clusterAlgoHCAL_.setS4S1CleanEndcap(minS4S1CleanHcalEndcap);
clusterAlgoHCAL_.setNNeighbours( nNeighboursHcal );
clusterAlgoHCAL_.setShowerSigma( showerSigmaHcal );
clusterAlgoHCAL_.setPosCalcNCrystal( posCalcNCrystalHcal );
clusterAlgoHCAL_.setPosCalcP1( posCalcP1Hcal );
clusterAlgoHCAL_.setUseCornerCells( useCornerCellsHcal );
clusterAlgoHCAL_.setCleanRBXandHPDs( cleanRBXandHPDs );
clusterAlgoHCAL_.enableDebugging( clusteringDebug );
// And now the HO
double threshHOBarrel = 0.5;
options_->GetOpt("clustering", "thresh_HO_Barrel", threshHOBarrel);
double threshPtHOBarrel = 0.0;
options_->GetOpt("clustering", "thresh_Pt_HO_Barrel", threshPtHOBarrel);
double threshSeedHOBarrel = 1.0;
options_->GetOpt("clustering", "thresh_Seed_HO_Barrel",
threshSeedHOBarrel);
double threshPtSeedHOBarrel = 0.0;
options_->GetOpt("clustering", "thresh_Pt_Seed_HO_Barrel",
threshPtSeedHOBarrel);
double threshCleanHOBarrel = 1E5;
options_->GetOpt("clustering", "thresh_Clean_HO_Barrel",
threshCleanHOBarrel);
std::vector<double> minS4S1CleanHOBarrel;
options_->GetOpt("clustering", "minS4S1_Clean_HO_Barrel",
minS4S1CleanHOBarrel);
double threshDoubleSpikeHOBarrel = 1E9;
options_->GetOpt("clustering", "thresh_DoubleSpike_HO_Barrel",
threshDoubleSpikeHOBarrel);
double minS6S2DoubleSpikeHOBarrel = -1;
options_->GetOpt("clustering", "minS6S2_DoubleSpike_HO_Barrel",
minS6S2DoubleSpikeHOBarrel);
double threshHOEndcap = 1.0;
options_->GetOpt("clustering", "thresh_HO_Endcap", threshHOEndcap);
double threshPtHOEndcap = 0.0;
options_->GetOpt("clustering", "thresh_Pt_HO_Endcap", threshPtHOEndcap);
double threshSeedHOEndcap = 3.1;
options_->GetOpt("clustering", "thresh_Seed_HO_Endcap",
threshSeedHOEndcap);
double threshPtSeedHOEndcap = 0.0;
options_->GetOpt("clustering", "thresh_Pt_Seed_HO_Endcap",
threshPtSeedHOEndcap);
double threshCleanHOEndcap = 1E5;
options_->GetOpt("clustering", "thresh_Clean_HO_Endcap",
threshCleanHOEndcap);
std::vector<double> minS4S1CleanHOEndcap;
options_->GetOpt("clustering", "minS4S1_Clean_HO_Endcap",
minS4S1CleanHOEndcap);
double threshDoubleSpikeHOEndcap = 1E9;
options_->GetOpt("clustering", "thresh_DoubleSpike_HO_Endcap",
threshDoubleSpikeHOEndcap);
double minS6S2DoubleSpikeHOEndcap = -1;
options_->GetOpt("clustering", "minS6S2_DoubleSpike_HO_Endcap",
minS6S2DoubleSpikeHOEndcap);
double showerSigmaHO = 15;
options_->GetOpt("clustering", "shower_Sigma_HO",
showerSigmaHO);
int nNeighboursHO = 4;
options_->GetOpt("clustering", "neighbours_HO", nNeighboursHO);
int posCalcNCrystalHO = 5;
options_->GetOpt("clustering", "posCalc_nCrystal_HO",
posCalcNCrystalHO);
bool useCornerCellsHO = false;
options_->GetOpt("clustering", "useCornerCells_HO",
useCornerCellsHO);
bool cleanRBXandHPDsHO = false;
options_->GetOpt("clustering", "cleanRBXandHPDs_HO",
cleanRBXandHPDsHO);
double posCalcP1HO
= threshHOBarrel<threshHOEndcap ? threshHOBarrel:threshHOEndcap;
// options_->GetOpt("clustering", "posCalc_p1_HO",
// posCalcP1HO);
clusterAlgoHO_.setHistos(file1,hBNeighbour1,hENeighbour1);
clusterAlgoHO_.setThreshBarrel( threshHOBarrel );
clusterAlgoHO_.setThreshSeedBarrel( threshSeedHOBarrel );
clusterAlgoHO_.setThreshPtBarrel( threshPtHOBarrel );
clusterAlgoHO_.setThreshPtSeedBarrel( threshPtSeedHOBarrel );
clusterAlgoHO_.setThreshCleanBarrel(threshCleanHOBarrel);
clusterAlgoHO_.setS4S1CleanBarrel(minS4S1CleanHOBarrel);
clusterAlgoHO_.setThreshDoubleSpikeBarrel( threshDoubleSpikeHOBarrel );
clusterAlgoHO_.setS6S2DoubleSpikeBarrel( minS6S2DoubleSpikeHOBarrel );
clusterAlgoHO_.setThreshEndcap( threshHOEndcap );
clusterAlgoHO_.setThreshSeedEndcap( threshSeedHOEndcap );
clusterAlgoHO_.setThreshPtEndcap( threshPtHOEndcap );
clusterAlgoHO_.setThreshPtSeedEndcap( threshPtSeedHOEndcap );
clusterAlgoHO_.setThreshCleanEndcap(threshCleanHOEndcap);
clusterAlgoHO_.setS4S1CleanEndcap(minS4S1CleanHOEndcap);
clusterAlgoHO_.setThreshDoubleSpikeEndcap( threshDoubleSpikeHOEndcap );
clusterAlgoHO_.setS6S2DoubleSpikeEndcap( minS6S2DoubleSpikeHOEndcap );
clusterAlgoHO_.setNNeighbours( nNeighboursHO );
clusterAlgoHO_.setShowerSigma( showerSigmaHO );
clusterAlgoHO_.setPosCalcNCrystal( posCalcNCrystalHO );
clusterAlgoHO_.setPosCalcP1( posCalcP1HO );
clusterAlgoHO_.setUseCornerCells( useCornerCellsHO );
clusterAlgoHO_.setCleanRBXandHPDs( cleanRBXandHPDs );
clusterAlgoHO_.enableDebugging( clusteringDebug );
// clustering HF EM
double threshHFEM = 0.;
options_->GetOpt("clustering", "thresh_HFEM", threshHFEM);
double threshPtHFEM = 0.;
options_->GetOpt("clustering", "thresh_Pt_HFEM", threshPtHFEM);
double threshSeedHFEM = 0.001;
options_->GetOpt("clustering", "thresh_Seed_HFEM",
threshSeedHFEM);
double threshPtSeedHFEM = 0.0;
options_->GetOpt("clustering", "thresh_Pt_Seed_HFEM",
threshPtSeedHFEM);
double threshCleanHFEM = 1E5;
options_->GetOpt("clustering", "thresh_Clean_HFEM",
threshCleanHFEM);
std::vector<double> minS4S1CleanHFEM;
options_->GetOpt("clustering", "minS4S1_Clean_HFEM",
minS4S1CleanHFEM);
double showerSigmaHFEM = 0.1;
options_->GetOpt("clustering", "shower_Sigma_HFEM",
showerSigmaHFEM);
int nNeighboursHFEM = 4;
options_->GetOpt("clustering", "neighbours_HFEM", nNeighboursHFEM);
int posCalcNCrystalHFEM = -1;
options_->GetOpt("clustering", "posCalc_nCrystal_HFEM",
posCalcNCrystalHFEM);
bool useCornerCellsHFEM = false;
options_->GetOpt("clustering", "useCornerCells_HFEM",
useCornerCellsHFEM);
double posCalcP1HFEM = threshHFEM;
// options_->GetOpt("clustering", "posCalc_p1_HFEM",
// posCalcP1HFEM);
clusterAlgoHFEM_.setHistos(file2,hBNeighbour2,hENeighbour2);
clusterAlgoHFEM_.setThreshEndcap( threshHFEM );
clusterAlgoHFEM_.setThreshSeedEndcap( threshSeedHFEM );
clusterAlgoHFEM_.setThreshPtEndcap( threshPtHFEM );
clusterAlgoHFEM_.setThreshPtSeedEndcap( threshPtSeedHFEM );
clusterAlgoHFEM_.setThreshCleanEndcap(threshCleanHFEM);
clusterAlgoHFEM_.setS4S1CleanEndcap(minS4S1CleanHFEM);
clusterAlgoHFEM_.setNNeighbours( nNeighboursHFEM );
clusterAlgoHFEM_.setShowerSigma( showerSigmaHFEM );
clusterAlgoHFEM_.setPosCalcNCrystal( posCalcNCrystalHFEM );
clusterAlgoHFEM_.setPosCalcP1( posCalcP1HFEM );
clusterAlgoHFEM_.setUseCornerCells( useCornerCellsHFEM );
clusterAlgoHFEM_.enableDebugging( clusteringDebug );
// clustering HFHAD
double threshHFHAD = 0.;
options_->GetOpt("clustering", "thresh_HFHAD", threshHFHAD);
double threshPtHFHAD = 0.;
options_->GetOpt("clustering", "thresh_Pt_HFHAD", threshPtHFHAD);
double threshSeedHFHAD = 0.001;
options_->GetOpt("clustering", "thresh_Seed_HFHAD",
threshSeedHFHAD);
double threshPtSeedHFHAD = 0.0;
options_->GetOpt("clustering", "thresh_Pt_Seed_HFHAD",
threshPtSeedHFHAD);
double threshCleanHFHAD = 1E5;
options_->GetOpt("clustering", "thresh_Clean_HFHAD",
threshCleanHFHAD);
std::vector<double> minS4S1CleanHFHAD;
options_->GetOpt("clustering", "minS4S1_Clean_HFHAD",
minS4S1CleanHFHAD);
double showerSigmaHFHAD = 0.1;
options_->GetOpt("clustering", "shower_Sigma_HFHAD",
showerSigmaHFHAD);
int nNeighboursHFHAD = 4;
options_->GetOpt("clustering", "neighbours_HFHAD", nNeighboursHFHAD);
int posCalcNCrystalHFHAD = -1;
options_->GetOpt("clustering", "posCalc_nCrystal_HFHAD",
posCalcNCrystalHFHAD);
bool useCornerCellsHFHAD = false;
options_->GetOpt("clustering", "useCornerCells_HFHAD",
useCornerCellsHFHAD);
double posCalcP1HFHAD = threshHFHAD;
// options_->GetOpt("clustering", "posCalc_p1_HFHAD",
// posCalcP1HFHAD);
clusterAlgoHFHAD_.setHistos(file3,hBNeighbour3,hENeighbour3);
clusterAlgoHFHAD_.setThreshEndcap( threshHFHAD );
clusterAlgoHFHAD_.setThreshSeedEndcap( threshSeedHFHAD );
clusterAlgoHFHAD_.setThreshPtEndcap( threshPtHFHAD );
clusterAlgoHFHAD_.setThreshPtSeedEndcap( threshPtSeedHFHAD );
clusterAlgoHFHAD_.setThreshCleanEndcap(threshCleanHFHAD);
clusterAlgoHFHAD_.setS4S1CleanEndcap(minS4S1CleanHFHAD);
clusterAlgoHFHAD_.setNNeighbours( nNeighboursHFHAD );
clusterAlgoHFHAD_.setShowerSigma( showerSigmaHFHAD );
clusterAlgoHFHAD_.setPosCalcNCrystal( posCalcNCrystalHFHAD );
clusterAlgoHFHAD_.setPosCalcP1( posCalcP1HFHAD );
clusterAlgoHFHAD_.setUseCornerCells( useCornerCellsHFHAD );
clusterAlgoHFHAD_.enableDebugging( clusteringDebug );
// clustering preshower
double threshPS = 0.0001;
options_->GetOpt("clustering", "thresh_PS", threshPS);
double threshPtPS = 0.0;
options_->GetOpt("clustering", "thresh_Pt_PS", threshPtPS);
double threshSeedPS = 0.001;
options_->GetOpt("clustering", "thresh_Seed_PS",
threshSeedPS);
double threshPtSeedPS = 0.0;
options_->GetOpt("clustering", "thresh_Pt_Seed_PS", threshPtSeedPS);
double threshCleanPS = 1E5;
options_->GetOpt("clustering", "thresh_Clean_PS", threshCleanPS);
std::vector<double> minS4S1CleanPS;
options_->GetOpt("clustering", "minS4S1_Clean_PS", minS4S1CleanPS);
//Comment Michel: PSBarrel shall be removed?
double threshPSBarrel = threshPS;
double threshSeedPSBarrel = threshSeedPS;
double threshPtPSBarrel = threshPtPS;
double threshPtSeedPSBarrel = threshPtSeedPS;
double threshCleanPSBarrel = threshCleanPS;
std::vector<double> minS4S1CleanPSBarrel = minS4S1CleanPS;
double threshPSEndcap = threshPS;
double threshSeedPSEndcap = threshSeedPS;
double threshPtPSEndcap = threshPtPS;
double threshPtSeedPSEndcap = threshPtSeedPS;
double threshCleanPSEndcap = threshCleanPS;
std::vector<double> minS4S1CleanPSEndcap = minS4S1CleanPS;
double showerSigmaPS = 0.1;
options_->GetOpt("clustering", "shower_Sigma_PS",
showerSigmaPS);
int nNeighboursPS = 4;
options_->GetOpt("clustering", "neighbours_PS", nNeighboursPS);
int posCalcNCrystalPS = -1;
options_->GetOpt("clustering", "posCalc_nCrystal_PS",
posCalcNCrystalPS);
bool useCornerCellsPS = false;
options_->GetOpt("clustering", "useCornerCells_PS",
useCornerCellsPS);
double posCalcP1PS = threshPS;
// options_->GetOpt("clustering", "posCalc_p1_PS",
// posCalcP1PS);
clusterAlgoPS_.setHistos(file4,hBNeighbour4,hENeighbour4);
clusterAlgoPS_.setThreshBarrel( threshPSBarrel );
clusterAlgoPS_.setThreshSeedBarrel( threshSeedPSBarrel );
clusterAlgoPS_.setThreshPtBarrel( threshPtPSBarrel );
clusterAlgoPS_.setThreshPtSeedBarrel( threshPtSeedPSBarrel );
clusterAlgoPS_.setThreshCleanBarrel(threshCleanPSBarrel);
clusterAlgoPS_.setS4S1CleanBarrel(minS4S1CleanPSBarrel);
clusterAlgoPS_.setThreshEndcap( threshPSEndcap );
clusterAlgoPS_.setThreshSeedEndcap( threshSeedPSEndcap );
clusterAlgoPS_.setThreshPtEndcap( threshPtPSEndcap );
clusterAlgoPS_.setThreshPtSeedEndcap( threshPtSeedPSEndcap );
clusterAlgoPS_.setThreshCleanEndcap(threshCleanPSEndcap);
clusterAlgoPS_.setS4S1CleanEndcap(minS4S1CleanPSEndcap);
clusterAlgoPS_.setNNeighbours( nNeighboursPS );
clusterAlgoPS_.setShowerSigma( showerSigmaPS );
clusterAlgoPS_.setPosCalcNCrystal( posCalcNCrystalPS );
clusterAlgoPS_.setPosCalcP1( posCalcP1PS );
clusterAlgoPS_.setUseCornerCells( useCornerCellsPS );
clusterAlgoPS_.enableDebugging( clusteringDebug );
// options for particle flow ---------------------------------------------
doParticleFlow_ = true;
doCompare_ = false;
options_->GetOpt("particle_flow", "on/off", doParticleFlow_);
options_->GetOpt("particle_flow", "comparison", doCompare_);
useKDTreeTrackEcalLinker_ = true;
options_->GetOpt("particle_flow", "useKDTreeTrackEcalLinker", useKDTreeTrackEcalLinker_);
std::cout << "Use Track-ECAL link optimization: " << useKDTreeTrackEcalLinker_ << std::endl;
pfBlockAlgo_.setUseOptimization(useKDTreeTrackEcalLinker_);
std::vector<double> DPtovPtCut;
std::vector<unsigned> NHitCut;
bool useIterTracking;
int nuclearInteractionsPurity;
options_->GetOpt("particle_flow", "DPtoverPt_Cut", DPtovPtCut);
options_->GetOpt("particle_flow", "NHit_Cut", NHitCut);
options_->GetOpt("particle_flow", "useIterTracking", useIterTracking);
options_->GetOpt("particle_flow", "nuclearInteractionsPurity", nuclearInteractionsPurity);
std::vector<double> PhotonSelectionCuts;
options_->GetOpt("particle_flow","useEGPhotons",useEGPhotons_);
options_->GetOpt("particle_flow","photonSelection", PhotonSelectionCuts);
try {
pfBlockAlgo_.setParameters( DPtovPtCut,
NHitCut,
useIterTracking,
useConvBremPFRecTracks_,
nuclearInteractionsPurity,
useEGPhotons_,
PhotonSelectionCuts);
}
catch( std::exception& err ) {
cerr<<"exception setting PFBlockAlgo parameters: "
<<err.what()<<". terminating."<<endl;
delete this;
exit(1);
}
bool blockAlgoDebug = false;
options_->GetOpt("blockAlgo", "debug", blockAlgoDebug);
pfBlockAlgo_.setDebug( blockAlgoDebug );
bool AlgoDebug = false;
options_->GetOpt("PFAlgo", "debug", AlgoDebug);
pfAlgo_.setDebug( AlgoDebug );
// read PFCluster calibration parameters
boost::shared_ptr<PFEnergyCalibration>
calibration( new PFEnergyCalibration() );
calibration_ = calibration;
bool usePFSCEleCalib;
std::vector<double> calibPFSCEle_Fbrem_barrel;
std::vector<double> calibPFSCEle_Fbrem_endcap;
std::vector<double> calibPFSCEle_barrel;
std::vector<double> calibPFSCEle_endcap;
options_->GetOpt("particle_flow","usePFSCEleCalib",usePFSCEleCalib);
options_->GetOpt("particle_flow","calibPFSCEle_Fbrem_barrel",calibPFSCEle_Fbrem_barrel);
options_->GetOpt("particle_flow","calibPFSCEle_Fbrem_endcap",calibPFSCEle_Fbrem_endcap);
options_->GetOpt("particle_flow","calibPFSCEle_barrel",calibPFSCEle_barrel);
options_->GetOpt("particle_flow","calibPFSCEle_endcap",calibPFSCEle_endcap);
boost::shared_ptr<PFSCEnergyCalibration>
thePFSCEnergyCalibration (new PFSCEnergyCalibration(calibPFSCEle_Fbrem_barrel,calibPFSCEle_Fbrem_endcap,
calibPFSCEle_barrel,calibPFSCEle_endcap ));
bool useEGammaSupercluster;
double sumEtEcalIsoForEgammaSC_barrel;
double sumEtEcalIsoForEgammaSC_endcap;
double coneEcalIsoForEgammaSC;
double sumPtTrackIsoForEgammaSC_barrel;
double sumPtTrackIsoForEgammaSC_endcap;
unsigned int nTrackIsoForEgammaSC;
double coneTrackIsoForEgammaSC;
options_->GetOpt("particle_flow","useEGammaSupercluster",useEGammaSupercluster);
options_->GetOpt("particle_flow","sumEtEcalIsoForEgammaSC_barrel",sumEtEcalIsoForEgammaSC_barrel);
options_->GetOpt("particle_flow","sumEtEcalIsoForEgammaSC_endcap",sumEtEcalIsoForEgammaSC_endcap);
options_->GetOpt("particle_flow","coneEcalIsoForEgammaSC",coneEcalIsoForEgammaSC);
options_->GetOpt("particle_flow","sumPtTrackIsoForEgammaSC_barrel",sumPtTrackIsoForEgammaSC_barrel);
options_->GetOpt("particle_flow","sumPtTrackIsoForEgammaSC_endcap",sumPtTrackIsoForEgammaSC_endcap);
options_->GetOpt("particle_flow","nTrackIsoForEgammaSC",nTrackIsoForEgammaSC);
options_->GetOpt("particle_flow","coneTrackIsoForEgammaSC",coneTrackIsoForEgammaSC);
options_->GetOpt("particle_flow","useEGammaElectrons",useEGElectrons_);
//--ab: get calibration factors for HF:
bool calibHF_use = false;
std::vector<double> calibHF_eta_step;
std::vector<double> calibHF_a_EMonly;
std::vector<double> calibHF_b_HADonly;
std::vector<double> calibHF_a_EMHAD;
std::vector<double> calibHF_b_EMHAD;
options_->GetOpt("particle_flow","calib_calibHF_use",calibHF_use);
options_->GetOpt("particle_flow","calib_calibHF_eta_step",calibHF_eta_step);
options_->GetOpt("particle_flow","calib_calibHF_a_EMonly",calibHF_a_EMonly);
options_->GetOpt("particle_flow","calib_calibHF_b_HADonly",calibHF_b_HADonly);
options_->GetOpt("particle_flow","calib_calibHF_a_EMHAD",calibHF_a_EMHAD);
options_->GetOpt("particle_flow","calib_calibHF_b_EMHAD",calibHF_b_EMHAD);
boost::shared_ptr<PFEnergyCalibrationHF> thepfEnergyCalibrationHF
( new PFEnergyCalibrationHF(calibHF_use,calibHF_eta_step,calibHF_a_EMonly,calibHF_b_HADonly,calibHF_a_EMHAD,calibHF_b_EMHAD) ) ;
thepfEnergyCalibrationHF_ = thepfEnergyCalibrationHF;
//----------------------------------------
double nSigmaECAL = 99999;
options_->GetOpt("particle_flow", "nsigma_ECAL", nSigmaECAL);
double nSigmaHCAL = 99999;
options_->GetOpt("particle_flow", "nsigma_HCAL", nSigmaHCAL);
try {
pfAlgo_.setParameters( nSigmaECAL, nSigmaHCAL,
calibration, thepfEnergyCalibrationHF_);
}
catch( std::exception& err ) {
cerr<<"exception setting PFAlgo parameters: "
<<err.what()<<". terminating."<<endl;
delete this;
exit(1);
}
std::vector<double> muonHCAL;
std::vector<double> muonECAL;
std::vector<double> muonHO;
options_->GetOpt("particle_flow", "muon_HCAL", muonHCAL);
options_->GetOpt("particle_flow", "muon_ECAL", muonECAL);
options_->GetOpt("particle_flow", "muon_HO", muonHO);
assert ( muonHCAL.size() == 2 && muonECAL.size() == 2 && muonHO.size() == 2);
double nSigmaTRACK = 3.0;
options_->GetOpt("particle_flow", "nsigma_TRACK", nSigmaTRACK);
double ptError = 1.0;
options_->GetOpt("particle_flow", "pt_error", ptError);
std::vector<double> factors45;
options_->GetOpt("particle_flow", "factors_45", factors45);
assert ( factors45.size() == 2 );
bool usePFMuonMomAssign = false;
options_->GetOpt("particle_flow", "usePFMuonMomAssign", usePFMuonMomAssign);
bool useBestMuonTrack = false;
options_->GetOpt("particle_flow", "useBestMuonTrack", useBestMuonTrack);
try {
pfAlgo_.setPFMuonAndFakeParameters(muonHCAL,
muonECAL,
muonHO,
nSigmaTRACK,
ptError,
factors45,
usePFMuonMomAssign,
useBestMuonTrack);
}
catch( std::exception& err ) {
cerr<<"exception setting PFAlgo Muon and Fake parameters: "
<<err.what()<<". terminating."<<endl;
delete this;
exit(1);
}
bool postHFCleaning = true;
options_->GetOpt("particle_flow", "postHFCleaning", postHFCleaning);
double minHFCleaningPt = 5.;
options_->GetOpt("particle_flow", "minHFCleaningPt", minHFCleaningPt);
double minSignificance = 2.5;
options_->GetOpt("particle_flow", "minSignificance", minSignificance);
double maxSignificance = 2.5;
options_->GetOpt("particle_flow", "maxSignificance", maxSignificance);
double minSignificanceReduction = 1.4;
options_->GetOpt("particle_flow", "minSignificanceReduction", minSignificanceReduction);
double maxDeltaPhiPt = 7.0;
options_->GetOpt("particle_flow", "maxDeltaPhiPt", maxDeltaPhiPt);
double minDeltaMet = 0.4;
options_->GetOpt("particle_flow", "minDeltaMet", minDeltaMet);
// Set post HF cleaning muon parameters
try {
pfAlgo_.setPostHFCleaningParameters(postHFCleaning,
minHFCleaningPt,
minSignificance,
maxSignificance,
minSignificanceReduction,
maxDeltaPhiPt,
minDeltaMet);
}
catch( std::exception& err ) {
cerr<<"exception setting post HF cleaning parameters: "
<<err.what()<<". terminating."<<endl;
delete this;
exit(1);
}
useAtHLT_ = false;
options_->GetOpt("particle_flow", "useAtHLT", useAtHLT_);
cout<<"use HLT tracking "<<useAtHLT_<<endl;
useHO_ = true;
options_->GetOpt("particle_flow", "useHO", useHO_);
cout<<"use of HO "<<useHO_<<endl;
usePFElectrons_ = false; // set true to use PFElectrons
options_->GetOpt("particle_flow", "usePFElectrons", usePFElectrons_);
cout<<"use PFElectrons "<<usePFElectrons_<<endl;
if( usePFElectrons_ ) {
// PFElectrons options -----------------------------
double mvaEleCut = -1.; // if = -1. get all the pre-id electrons
options_->GetOpt("particle_flow", "electron_mvaCut", mvaEleCut);
bool applyCrackCorrections=true;
options_->GetOpt("particle_flow","electron_crackCorrection",applyCrackCorrections);
string mvaWeightFileEleID = "";
options_->GetOpt("particle_flow", "electronID_mvaWeightFile",
mvaWeightFileEleID);
mvaWeightFileEleID = expand(mvaWeightFileEleID);
std::string egammaElectronstagname;
options_->GetOpt("particle_flow","egammaElectrons",egammaElectronstagname);
egammaElectronsTag_ = edm::InputTag(egammaElectronstagname);
//HO in the algorithm or not
pfBlockAlgo_.setHOTag(useHO_);
pfAlgo_.setHOTag(useHO_);
try {
pfAlgo_.setPFEleParameters(mvaEleCut,
mvaWeightFileEleID,
usePFElectrons_,
thePFSCEnergyCalibration,
calibration,
sumEtEcalIsoForEgammaSC_barrel,
sumEtEcalIsoForEgammaSC_endcap,
coneEcalIsoForEgammaSC,
sumPtTrackIsoForEgammaSC_barrel,
sumPtTrackIsoForEgammaSC_endcap,
nTrackIsoForEgammaSC,
coneTrackIsoForEgammaSC,
applyCrackCorrections,
usePFSCEleCalib,
useEGElectrons_,
useEGammaSupercluster);
}
catch( std::exception& err ) {
cerr<<"exception setting PFAlgo Electron parameters: "
<<err.what()<<". terminating."<<endl;
delete this;
exit(1);
}
}
bool usePFPhotons = true;
bool useReg=false;
string mvaWeightFileConvID = "";
string mvaWeightFileRegLCEB="";
string mvaWeightFileRegLCEE="";
string mvaWeightFileRegGCEB="";
string mvaWeightFileRegGCEEhr9="";
string mvaWeightFileRegGCEElr9="";
string mvaWeightFileRegRes="";
string X0Map="";
double mvaConvCut=-1.;
double sumPtTrackIsoForPhoton=2.0;
double sumPtTrackIsoSlopeForPhoton=0.001;
options_->GetOpt("particle_flow", "usePFPhotons", usePFPhotons);
options_->GetOpt("particle_flow", "conv_mvaCut", mvaConvCut);
options_->GetOpt("particle_flow", "useReg", useReg);
options_->GetOpt("particle_flow", "convID_mvaWeightFile", mvaWeightFileConvID);
options_->GetOpt("particle_flow", "mvaWeightFileRegLCEB", mvaWeightFileRegLCEB);
options_->GetOpt("particle_flow", "mvaWeightFileRegLCEE", mvaWeightFileRegLCEE);
options_->GetOpt("particle_flow", "mvaWeightFileRegGCEB", mvaWeightFileRegGCEB);
options_->GetOpt("particle_flow", "mvaWeightFileRegGCEEHr9", mvaWeightFileRegGCEEhr9);
options_->GetOpt("particle_flow", "mvaWeightFileRegGCEELr9", mvaWeightFileRegGCEElr9);
options_->GetOpt("particle_flow", "mvaWeightFileRegRes", mvaWeightFileRegRes);
options_->GetOpt("particle_flow", "X0Map", X0Map);
options_->GetOpt("particle_flow","sumPtTrackIsoForPhoton",sumPtTrackIsoForPhoton);
options_->GetOpt("particle_flow","sumPtTrackIsoSlopeForPhoton",sumPtTrackIsoSlopeForPhoton);
// cout<<"use PFPhotons "<<usePFPhotons<<endl;
if( usePFPhotons ) {
// PFPhoton options -----------------------------
TFile *infile_PFLCEB = new TFile(mvaWeightFileRegLCEB.c_str(),"READ");
TFile *infile_PFLCEE = new TFile(mvaWeightFileRegLCEE.c_str(),"READ");
TFile *infile_PFGCEB = new TFile(mvaWeightFileRegGCEB.c_str(),"READ");
TFile *infile_PFGCEEhR9 = new TFile(mvaWeightFileRegGCEEhr9.c_str(),"READ");
TFile *infile_PFGCEElR9 = new TFile(mvaWeightFileRegGCEElr9.c_str(),"READ");
TFile *infile_PFRes = new TFile(mvaWeightFileRegRes.c_str(),"READ");
const GBRForest *gbrLCBar = (GBRForest*)infile_PFLCEB->Get("PFLCorrEB");
const GBRForest *gbrLCEnd = (GBRForest*)infile_PFLCEE->Get("PFLCorrEE");
const GBRForest *gbrGCEB = (GBRForest*)infile_PFGCEB->Get("PFGCorrEB");
const GBRForest *gbrGCEEhr9 = (GBRForest*)infile_PFGCEEhR9->Get("PFGCorrEEHr9");
const GBRForest *gbrGCEElr9 = (GBRForest*)infile_PFGCEElR9->Get("PFGCorrEELr9");
const GBRForest *gbrRes = (GBRForest*)infile_PFRes->Get("PFRes");
try {
pfAlgo_.setPFPhotonParameters
(usePFPhotons,
mvaWeightFileConvID,
mvaConvCut,
useReg,
X0Map,
calibration,
sumPtTrackIsoForPhoton,
sumPtTrackIsoSlopeForPhoton
);
pfAlgo_.setPFPhotonRegWeights(gbrLCBar, gbrLCEnd,gbrGCEB,
gbrGCEEhr9,gbrGCEElr9,
gbrRes
);
}
catch( std::exception& err ) {
cerr<<"exception setting PFAlgo Photon parameters: "
<<err.what()<<". terminating."<<endl;
delete this;
exit(1);
}
}
bool rejectTracks_Bad = true;
bool rejectTracks_Step45 = true;
bool usePFConversions = false; // set true to use PFConversions
bool usePFNuclearInteractions = false;
bool usePFV0s = false;
double dptRel_DispVtx = 10;
options_->GetOpt("particle_flow", "usePFConversions", usePFConversions);
options_->GetOpt("particle_flow", "usePFV0s", usePFV0s);
options_->GetOpt("particle_flow", "usePFNuclearInteractions", usePFNuclearInteractions);
options_->GetOpt("particle_flow", "dptRel_DispVtx", dptRel_DispVtx);
try {
pfAlgo_.setDisplacedVerticesParameters(rejectTracks_Bad,
rejectTracks_Step45,
usePFNuclearInteractions,
usePFConversions,
usePFV0s,
dptRel_DispVtx);
}
catch( std::exception& err ) {
cerr<<"exception setting PFAlgo displaced vertex parameters: "
<<err.what()<<". terminating."<<endl;
delete this;
exit(1);
}
bool bCorrect = false;
bool bCalibPrimary = false;
double dptRel_PrimaryTrack = 0;
double dptRel_MergedTrack = 0;
double ptErrorSecondary = 0;
vector<double> nuclCalibFactors;
options_->GetOpt("particle_flow", "bCorrect", bCorrect);
options_->GetOpt("particle_flow", "bCalibPrimary", bCalibPrimary);
options_->GetOpt("particle_flow", "dptRel_PrimaryTrack", dptRel_PrimaryTrack);
options_->GetOpt("particle_flow", "dptRel_MergedTrack", dptRel_MergedTrack);
options_->GetOpt("particle_flow", "ptErrorSecondary", ptErrorSecondary);
options_->GetOpt("particle_flow", "nuclCalibFactors", nuclCalibFactors);
try {
pfAlgo_.setCandConnectorParameters(bCorrect, bCalibPrimary, dptRel_PrimaryTrack, dptRel_MergedTrack, ptErrorSecondary, nuclCalibFactors);
}
catch( std::exception& err ) {
cerr<<"exception setting PFAlgo cand connector parameters: "
<<err.what()<<". terminating."<<endl;
delete this;
exit(1);
}
int algo = 2;
options_->GetOpt("particle_flow", "algorithm", algo);
pfAlgo_.setAlgo( algo );
// pfAlgoOther_.setAlgo( 1 );
// jets options ---------------------------------
doJets_ = false;
options_->GetOpt("jets", "on/off", doJets_);
jetsDebug_ = false;
options_->GetOpt("jets", "debug", jetsDebug_);
jetAlgoType_=3; //FastJet as Default
options_->GetOpt("jets", "algo", jetAlgoType_);
double mEtInputCut = 0.5;
options_->GetOpt("jets", "EtInputCut", mEtInputCut);
double mEInputCut = 0.;
options_->GetOpt("jets", "EInputCut", mEInputCut);
double seedThreshold = 1.0;
options_->GetOpt("jets", "seedThreshold", seedThreshold);
double coneRadius = 0.5;
options_->GetOpt("jets", "coneRadius", coneRadius);
double coneAreaFraction= 1.0;
options_->GetOpt("jets", "coneAreaFraction", coneAreaFraction);
int maxPairSize=2;
options_->GetOpt("jets", "maxPairSize", maxPairSize);
int maxIterations=100;
options_->GetOpt("jets", "maxIterations", maxIterations);
double overlapThreshold = 0.75;
options_->GetOpt("jets", "overlapThreshold", overlapThreshold);
double ptMin = 10.;
options_->GetOpt("jets", "ptMin", ptMin);
double rparam = 1.0;
options_->GetOpt("jets", "rParam", rparam);
jetMaker_.setmEtInputCut (mEtInputCut);
jetMaker_.setmEInputCut(mEInputCut);
jetMaker_.setSeedThreshold(seedThreshold);
jetMaker_.setConeRadius(coneRadius);
jetMaker_.setConeAreaFraction(coneAreaFraction);
jetMaker_.setMaxPairSize(maxPairSize);
jetMaker_.setMaxIterations(maxIterations) ;
jetMaker_.setOverlapThreshold(overlapThreshold) ;
jetMaker_.setPtMin (ptMin);
jetMaker_.setRParam (rparam);
jetMaker_.setDebug(jetsDebug_);
jetMaker_.updateParameter();
cout <<"Opt: doJets? " << doJets_ <<endl;
cout <<"Opt: jetsDebug " << jetsDebug_ <<endl;
cout <<"Opt: algoType " << jetAlgoType_ <<endl;
cout <<"----------------------------------" << endl;
// tau benchmark options ---------------------------------
doTauBenchmark_ = false;
options_->GetOpt("tau_benchmark", "on/off", doTauBenchmark_);
if (doTauBenchmark_) {
double coneAngle = 0.5;
options_->GetOpt("tau_benchmark", "cone_angle", coneAngle);
double seedEt = 0.4;
options_->GetOpt("tau_benchmark", "seed_et", seedEt);
double coneMerge = 100.0;
options_->GetOpt("tau_benchmark", "cone_merge", coneMerge);
options_->GetOpt("tau_benchmark", "debug", tauBenchmarkDebug_);
// cout<<"jets debug "<<jetsDebug_<<endl;
if( tauBenchmarkDebug_ ) {
cout << "Tau Benchmark Options : ";
cout << "Angle=" << coneAngle << " seedEt=" << seedEt
<< " Merge=" << coneMerge << endl;
}
jetAlgo_.SetConeAngle(coneAngle);
jetAlgo_.SetSeedEt(seedEt);
jetAlgo_.SetConeMerge(coneMerge);
}
// print flags -------------
printRecHits_ = false;
printRecHitsEMin_ = 0.;
options_->GetOpt("print", "rechits", printRecHits_ );
options_->GetOpt("print", "rechits_emin", printRecHitsEMin_ );
printClusters_ = false;
printClustersEMin_ = 0.;
options_->GetOpt("print", "clusters", printClusters_ );
options_->GetOpt("print", "clusters_emin", printClustersEMin_ );
printPFBlocks_ = false;
options_->GetOpt("print", "PFBlocks", printPFBlocks_ );
printPFCandidates_ = true;
printPFCandidatesPtMin_ = 0.;
options_->GetOpt("print", "PFCandidates", printPFCandidates_ );
options_->GetOpt("print", "PFCandidates_ptmin", printPFCandidatesPtMin_ );
printPFJets_ = true;
printPFJetsPtMin_ = 0.;
options_->GetOpt("print", "jets", printPFJets_ );
options_->GetOpt("print", "jets_ptmin", printPFJetsPtMin_ );
printSimParticles_ = true;
printSimParticlesPtMin_ = 0.;
options_->GetOpt("print", "simParticles", printSimParticles_ );
options_->GetOpt("print", "simParticles_ptmin", printSimParticlesPtMin_ );
printGenParticles_ = true;
printGenParticlesPtMin_ = 0.;
options_->GetOpt("print", "genParticles", printGenParticles_ );
options_->GetOpt("print", "genParticles_ptmin", printGenParticlesPtMin_ );
//MCTruthMatching Tool set to false by default
//can only be used with fastsim and the UnFoldedMode set to true
//when generating the simulated file
printMCTruthMatching_ = false;
options_->GetOpt("print", "mctruthmatching", printMCTruthMatching_ );
verbosity_ = VERBOSE;
options_->GetOpt("print", "verbosity", verbosity_ );
cout<<"verbosity : "<<verbosity_<<endl;
}
| virtual void PFRootEventManager::readSpecificOptions | ( | const char * | file | ) | [inline, virtual] |
Reimplemented in PFRootEventManagerColin.
Definition at line 225 of file PFRootEventManager.h.
Referenced by readOptions().
{}
| void PFRootEventManager::reconstructCaloJets | ( | ) |
reconstruct calo jets
Definition at line 3232 of file PFRootEventManager.cc.
References caloJets_, caloTowers_, caloTowersPtrs_, edm::PtrVectorBase::clear(), gather_cfg::cout, i, jetsDebug_, ProtoJet::pt(), edm::PtrVector< T >::push_back(), reconstructFWLiteJets(), edm::SortedCollection< T, SORT >::size(), VERBOSE, and verbosity_.
Referenced by processEntry().
{
if (verbosity_ == VERBOSE || jetsDebug_ ) {
cout<<endl;
cout<<"start reconstruct CaloJets --- "<<endl;
}
caloJets_.clear();
caloTowersPtrs_.clear();
for( unsigned i=0; i<caloTowers_.size(); i++) {
reco::CandidatePtr candPtr( &caloTowers_, i );
caloTowersPtrs_.push_back( candPtr );
}
reconstructFWLiteJets( caloTowersPtrs_, caloJets_ );
if (jetsDebug_ ) {
for(unsigned ipj=0; ipj<caloJets_.size(); ipj++) {
const ProtoJet& protojet = caloJets_[ipj];
cout<<" calo jet "<<ipj<<" "<<protojet.pt() <<endl;
}
}
}
| void PFRootEventManager::reconstructFWLiteJets | ( | const reco::CandidatePtrVector & | Candidates, |
| std::vector< ProtoJet > & | output | ||
| ) |
used by the reconstruct*Jets functions
Produce jet collection using CMS Iterative Cone Algorithm
Definition at line 3315 of file PFRootEventManager.cc.
References FWLiteJetProducer::applyCuts(), gather_cfg::cout, LaserDQM_cfg::input, jetAlgoType_, jetMaker_, FWLiteJetProducer::makeFastJets(), FWLiteJetProducer::makeIterativeConeJets(), and FWLiteJetProducer::makeMidpointJets().
Referenced by reconstructCaloJets(), reconstructGenJets(), and reconstructPFJets().
{
// cout<<"!!! Make FWLite Jets "<<endl;
JetReco::InputCollection input;
// vector<ProtoJet> output;
jetMaker_.applyCuts (Candidates, &input);
if (jetAlgoType_==1) {// ICone
jetMaker_.makeIterativeConeJets(input, &output);
}
if (jetAlgoType_==2) {// MCone
jetMaker_.makeMidpointJets(input, &output);
}
if (jetAlgoType_==3) {// Fastjet
jetMaker_.makeFastJets(input, &output);
}
if((jetAlgoType_>3)||(jetAlgoType_<0)) {
cout<<"Unknown Jet Algo ! " <<jetAlgoType_ << endl;
}
//if (jetsDebug_) cout<<"Proto Jet Size " <<output.size()<<endl;
}
| void PFRootEventManager::reconstructGenJets | ( | ) |
reconstruct gen jets
Definition at line 3156 of file PFRootEventManager.cc.
References abs, reco::CompositePtrCandidate::begin(), edm::PtrVectorBase::clear(), gather_cfg::cout, reco::LeafCandidate::eta(), genJets_, genParticlesforJets_, genParticlesforJetsPtrs_, ProtoJet::getTowerList(), i, getHLTprescales::index, reco::isNeutrino(), ProtoJet::jetArea(), jetsDebug_, reco::makeSpecific(), ProtoJet::nPasses(), reco::LeafCandidate::p(), ProtoJet::p4(), reco::LeafCandidate::pdgId(), reco::LeafCandidate::phi(), ProtoJet::pileup(), reco::LeafCandidate::pt(), edm::PtrVector< T >::push_back(), reconstructFWLiteJets(), edm::refToPtr(), edm::RefVector< C, T, F >::size(), timingPdfMaker::specific, reco::LeafCandidate::status(), VERBOSE, and verbosity_.
Referenced by processEntry().
{
if (verbosity_ == VERBOSE || jetsDebug_) {
cout<<endl;
cout<<"start reconstruct GenJets --- "<<endl;
cout<< " input gen particles for jet: all neutrinos removed ; muons present" << endl;
}
genJets_.clear();
genParticlesforJetsPtrs_.clear();
if ( !genParticlesforJets_.size() ) return;
for(unsigned i=0; i<genParticlesforJets_.size(); i++) {
const reco::GenParticle& genPart = *(genParticlesforJets_[i]);
// remove all muons/neutrinos for PFJet studies
// if (reco::isNeutrino( genPart ) || reco::isMuon( genPart )) continue;
// remove all neutrinos for PFJet studies
if (reco::isNeutrino( genPart )) continue;
// Work-around a bug in the pythia di-jet gun.
if (std::abs(genPart.pdgId())<7 || std::abs(genPart.pdgId())==21 ) continue;
if (jetsDebug_ ) {
cout << " #" << i << " PDG code:" << genPart.pdgId()
<< " status " << genPart.status()
<< ", p/pt/eta/phi: " << genPart.p() << '/' << genPart.pt()
<< '/' << genPart.eta() << '/' << genPart.phi() << endl;
}
genParticlesforJetsPtrs_.push_back( refToPtr(genParticlesforJets_[i]) );
}
vector<ProtoJet> protoJets;
reconstructFWLiteJets(genParticlesforJetsPtrs_, protoJets );
// Convert Protojets to GenJets
int ijet = 0;
typedef vector <ProtoJet>::const_iterator IPJ;
for (IPJ ipj = protoJets.begin(); ipj != protoJets.end (); ipj++) {
const ProtoJet& protojet = *ipj;
const ProtoJet::Constituents& constituents = protojet.getTowerList();
reco::Jet::Point vertex (0,0,0); // do not have true vertex yet, use default
GenJet::Specific specific;
JetMaker::makeSpecific(constituents, &specific);
// constructor without constituents
GenJet newJet (protojet.p4(), vertex, specific);
// last step is to copy the constituents into the jet (new jet definition since 18X)
// namespace reco {
//class Jet : public CompositeRefBaseCandidate {
// public:
// typedef reco::CandidateBaseRefVector Constituents;
ProtoJet::Constituents::const_iterator constituent = constituents.begin();
for (; constituent != constituents.end(); ++constituent) {
// find index of this ProtoJet constituent in the overall collection PFconstit
// see class IndexedCandidate in JetRecoTypes.h
uint index = constituent->index();
newJet.addDaughter( genParticlesforJetsPtrs_[index] );
} // end loop on ProtoJet constituents
// last step: copy ProtoJet Variables into Jet
newJet.setJetArea(protojet.jetArea());
newJet.setPileup(protojet.pileup());
newJet.setNPasses(protojet.nPasses());
++ijet;
if (jetsDebug_ ) cout<<" gen jet "<<ijet<<" "<<newJet.print()<<endl;
genJets_.push_back (newJet);
} // end loop on protojets iterator IPJ
}
| void PFRootEventManager::reconstructPFJets | ( | ) |
reconstruct pf jets
Definition at line 3258 of file PFRootEventManager.cc.
References reco::CompositePtrCandidate::begin(), edm::PtrVectorBase::clear(), gather_cfg::cout, ProtoJet::getTowerList(), i, getHLTprescales::index, ProtoJet::jetArea(), jetsDebug_, reco::makeSpecific(), ProtoJet::nPasses(), ProtoJet::p4(), pfCandidates_, pfCandidatesPtrs_, pfJets_, ProtoJet::pileup(), edm::PtrVector< T >::push_back(), reconstructFWLiteJets(), timingPdfMaker::specific, VERBOSE, and verbosity_.
Referenced by processEntry().
{
if (verbosity_ == VERBOSE || jetsDebug_) {
cout<<endl;
cout<<"start reconstruct PF Jets --- "<<endl;
}
pfJets_.clear();
pfCandidatesPtrs_.clear();
for( unsigned i=0; i<pfCandidates_->size(); i++) {
reco::CandidatePtr candPtr( pfCandidates_.get(), i );
pfCandidatesPtrs_.push_back( candPtr );
}
vector<ProtoJet> protoJets;
reconstructFWLiteJets(pfCandidatesPtrs_, protoJets );
// Convert Protojets to PFJets
int ijet = 0;
typedef vector <ProtoJet>::const_iterator IPJ;
for (IPJ ipj = protoJets.begin(); ipj != protoJets.end (); ipj++) {
const ProtoJet& protojet = *ipj;
const ProtoJet::Constituents& constituents = protojet.getTowerList();
reco::Jet::Point vertex (0,0,0); // do not have true vertex yet, use default
PFJet::Specific specific;
JetMaker::makeSpecific(constituents, &specific);
// constructor without constituents
PFJet newJet (protojet.p4(), vertex, specific);
// last step is to copy the constituents into the jet (new jet definition since 18X)
// namespace reco {
//class Jet : public CompositeRefBaseCandidate {
// public:
// typedef reco::CandidateBaseRefVector Constituents;
ProtoJet::Constituents::const_iterator constituent = constituents.begin();
for (; constituent != constituents.end(); ++constituent) {
// find index of this ProtoJet constituent in the overall collection PFconstit
// see class IndexedCandidate in JetRecoTypes.h
uint index = constituent->index();
newJet.addDaughter(pfCandidatesPtrs_[index]);
} // end loop on ProtoJet constituents
// last step: copy ProtoJet Variables into Jet
newJet.setJetArea(protojet.jetArea());
newJet.setPileup(protojet.pileup());
newJet.setNPasses(protojet.nPasses());
++ijet;
if (jetsDebug_ ) cout<<" PF jet "<<ijet<<" "<<newJet.print()<<endl;
pfJets_.push_back (newJet);
} // end loop on protojets iterator IPJ
}
| void PFRootEventManager::reset | ( | void | ) |
reset before next event
Definition at line 119 of file PFRootEventManager.cc.
References ev_, fwlite::ChainEvent::getTFile(), fwlite::ChainEvent::isValid(), outEvent_, outTree_, and EventColin::reset().
Referenced by processEntry(), and readOptions().
| void PFRootEventManager::setRecHitNeigbours | ( | reco::PFRecHit & | rh, |
| const std::map< unsigned, unsigned > & | detId2index | ||
| ) |
for a given rechit, find the indices of the rechit neighbours, and store these indices in the rechit. The search is done in a detid to index map
Definition at line 2740 of file PFRootEventManager.cc.
References reco::PFRecHit::add4Neighbour(), reco::PFRecHit::add8Neighbour(), reco::PFRecHit::clearNeighbours(), i, reco::PFRecHit::neighboursIds4(), and reco::PFRecHit::neighboursIds8().
Referenced by PreprocessRecHits().
{
rh.clearNeighbours();
vector<unsigned> neighbours4DetId = rh.neighboursIds4();
vector<unsigned> neighbours8DetId = rh.neighboursIds8();
for( unsigned i=0; i<neighbours4DetId.size(); i++) {
unsigned detId = neighbours4DetId[i];
// cout<<"finding n for detId "<<detId<<endl;
const map<unsigned, unsigned>::const_iterator& it = detId2index.find(detId);
if(it != detId2index.end() ) {
// cout<<"found n index "<<it->second<<endl;
rh.add4Neighbour( it->second );
}
}
for( unsigned i=0; i<neighbours8DetId.size(); i++) {
unsigned detId = neighbours8DetId[i];
// cout<<"finding n for detId "<<detId<<endl;
const map<unsigned, unsigned>::const_iterator& it = detId2index.find(detId);
if(it != detId2index.end() ) {
// cout<<"found n index "<<it->second<<endl;
rh.add8Neighbour( it->second );
}
}
}
| edm::InputTag PFRootEventManager::stringToTag | ( | const std::vector< std::string > & | tagname | ) |
returns an InputTag from a vector of strings
Definition at line 4920 of file PFRootEventManager.cc.
References gather_cfg::cout.
{
if ( tagname.size() == 1 )
return edm::InputTag(tagname[0]);
else if ( tagname.size() == 2 )
return edm::InputTag(tagname[0], tagname[1]);
else if ( tagname.size() == 3 )
return tagname[2] == '*' ?
edm::InputTag(tagname[0], tagname[1]) :
edm::InputTag(tagname[0], tagname[1], tagname[2]);
else {
cout << "Invalid tag name with " << tagname.size() << " strings "<< endl;
return edm::InputTag();
}
}
| double PFRootEventManager::tauBenchmark | ( | const reco::PFCandidateCollection & | candidates | ) |
COLIN need to get rid of this mess.
performs the tau benchmark TODO move this function and the associated datamembers out of here use an official benchmark from RecoParticleFlow/Benchmark
Definition at line 3342 of file PFRootEventManager.cc.
References abs, EventColin::addJetEHT(), EventColin::addJetMC(), EventColin::addJetPF(), caloTowers_, dtNoiseDBValidation_cfg::cerr, reco::LeafCandidate::charge(), PFJetAlgorithm::Clear(), gather_cfg::cout, EventColin::Jet::e, EventColin::Jet::ee, EventColin::Jet::eh, relval_parameters_module::energy, EventColin::Jet::et, eta, EventColin::Jet::eta, EventColin::Jet::ete, EventColin::Jet::eth, fastsim_, PFJetAlgorithm::FindJets(), edm::HepMCProduct::GetEvent(), h_deltaETvisible_MCEHT_, h_deltaETvisible_MCPF_, i, reco::isNeutrino(), metsig::jet, jetAlgo_, MCTruth_, reco::PFTrajectoryPoint::momentum(), outEvent_, reco::LeafCandidate::p4(), reco::PFCandidate::particleId(), reco::PFSimParticle::pdgCode(), phi, EventColin::Jet::phi, edm::SortedCollection< T, SORT >::size(), mathSSE::sqrt(), tauBenchmarkDebug_, trueParticles_, Utils::VectorEPRtoXYZ(), VERBOSE, and verbosity_.
Referenced by processEntry().
{
//std::cout << "building jets from MC particles,"
// << "PF particles and caloTowers" << std::endl;
//initialize Jets Reconstruction
jetAlgo_.Clear();
//COLIN The following comment is not really adequate,
// since partTOTMC is not an action..
// one should say what this variable is for.
// see my comment later
//MAKING TRUE PARTICLE JETS
// TLorentzVector partTOTMC;
// colin: the following is not necessary
// since the lorentz vectors are initialized to 0,0,0,0.
// partTOTMC.SetPxPyPzE(0.0, 0.0, 0.0, 0.0);
//MAKING JETS WITH TAU DAUGHTERS
//Colin: this vector vectPART is not necessary !!
//it was just an efficient copy of trueparticles_.....
// vector<reco::PFSimParticle> vectPART;
// for ( unsigned i=0; i < trueParticles_.size(); i++) {
// const reco::PFSimParticle& ptc = trueParticles_[i];
// vectPART.push_back(ptc);
// }//loop
//COLIN one must not loop on trueParticles_ to find taus.
//the code was giving wrong results on non single tau events.
// first check that this is a single tau event.
TLorentzVector partTOTMC;
bool tauFound = false;
bool tooManyTaus = false;
if (fastsim_){
for ( unsigned i=0; i < trueParticles_.size(); i++) {
const reco::PFSimParticle& ptc = trueParticles_[i];
if (std::abs(ptc.pdgCode()) == 15) {
// this is a tau
if( i ) tooManyTaus = true;
else tauFound=true;
}
}
if(!tauFound || tooManyTaus ) {
// cerr<<"PFRootEventManager::tauBenchmark : not a single tau event"<<endl;
return -9999;
}
// loop on the daugthers of the tau
const std::vector<int>& ptcdaughters = trueParticles_[0].daughterIds();
// will contain the sum of the lorentz vectors of the visible daughters
// of the tau.
for ( unsigned int dapt=0; dapt < ptcdaughters.size(); ++dapt) {
const reco::PFTrajectoryPoint& tpatvtx
= trueParticles_[ptcdaughters[dapt]].trajectoryPoint(0);
TLorentzVector partMC;
partMC.SetPxPyPzE(tpatvtx.momentum().Px(),
tpatvtx.momentum().Py(),
tpatvtx.momentum().Pz(),
tpatvtx.momentum().E());
partTOTMC += partMC;
if (tauBenchmarkDebug_) {
//pdgcode
int pdgcode = trueParticles_[ptcdaughters[dapt]].pdgCode();
cout << pdgcode << endl;
cout << tpatvtx << endl;
cout << partMC.Px() << " " << partMC.Py() << " "
<< partMC.Pz() << " " << partMC.E()
<< " PT="
<< sqrt(partMC.Px()*partMC.Px()+partMC.Py()*partMC.Py())
<< endl;
}//debug
}//loop daughter
}else{
uint itau=0;
const HepMC::GenEvent* myGenEvent = MCTruth_.GetEvent();
for ( HepMC::GenEvent::particle_const_iterator
piter = myGenEvent->particles_begin();
piter != myGenEvent->particles_end();
++piter ) {
if (std::abs((*piter)->pdg_id())==15){
itau++;
tauFound=true;
for ( HepMC::GenVertex::particles_out_const_iterator bp =
(*piter)->end_vertex()->particles_out_const_begin();
bp != (*piter)->end_vertex()->particles_out_const_end(); ++bp ) {
uint nuId=std::abs((*bp)->pdg_id());
bool isNeutrino=(nuId==12)||(nuId==14)||(nuId==16);
if (!isNeutrino){
TLorentzVector partMC;
partMC.SetPxPyPzE((*bp)->momentum().x(),
(*bp)->momentum().y(),
(*bp)->momentum().z(),
(*bp)->momentum().e());
partTOTMC += partMC;
}
}
}
}
if (itau>1) tooManyTaus=true;
if(!tauFound || tooManyTaus ) {
cerr<<"PFRootEventManager::tauBenchmark : not a single tau event"<<endl;
return -9999;
}
}
EventColin::Jet jetmc;
jetmc.eta = partTOTMC.Eta();
jetmc.phi = partTOTMC.Phi();
jetmc.et = partTOTMC.Et();
jetmc.e = partTOTMC.E();
if(outEvent_) outEvent_->addJetMC( jetmc );
/*
//MC JETS RECONSTRUCTION (visible energy)
for ( unsigned i=0; i < trueParticles_.size(); i++) {
const reco::PFSimParticle& ptc = trueParticles_[i];
const std::vector<int>& ptcdaughters = ptc.daughterIds();
//PARTICULE NOT DISINTEGRATING BEFORE ECAL
if(ptcdaughters.size() != 0) continue;
//TAKE INFO AT VERTEX //////////////////////////////////////////////////
const reco::PFTrajectoryPoint& tpatvtx = ptc.trajectoryPoint(0);
TLorentzVector partMC;
partMC.SetPxPyPzE(tpatvtx.momentum().Px(),
tpatvtx.momentum().Py(),
tpatvtx.momentum().Pz(),
tpatvtx.momentum().E());
partTOTMC += partMC;
if (tauBenchmarkDebug_) {
//pdgcode
int pdgcode = ptc.pdgCode();
cout << pdgcode << endl;
cout << tpatvtx << endl;
cout << partMC.Px() << " " << partMC.Py() << " "
<< partMC.Pz() << " " << partMC.E()
<< " PT="
<< sqrt(partMC.Px()*partMC.Px()+partMC.Py()*partMC.Py())
<< endl;
}//debug?
}//loop true particles
*/
if (tauBenchmarkDebug_) {
cout << " ET Vector=" << partTOTMC.Et()
<< " " << partTOTMC.Eta()
<< " " << partTOTMC.Phi() << endl; cout << endl;
}//debug
//CALO TOWER JETS (ECAL+HCAL Towers)
//cout << endl;
//cout << "THERE ARE " << caloTowers_.size() << " CALO TOWERS" << endl;
vector<TLorentzVector> allcalotowers;
// vector<double> allemenergy;
// vector<double> allhadenergy;
double threshCaloTowers = 1E-10;
for ( unsigned int i = 0; i < caloTowers_.size(); ++i) {
if(caloTowers_[i].energy() < threshCaloTowers) {
// cout<<"skipping calotower"<<endl;
continue;
}
TLorentzVector caloT;
TVector3 pepr( caloTowers_[i].eta(),
caloTowers_[i].phi(),
caloTowers_[i].energy());
TVector3 pxyz = Utils::VectorEPRtoXYZ( pepr );
caloT.SetPxPyPzE(pxyz.X(),pxyz.Y(),pxyz.Z(),caloTowers_[i].energy());
allcalotowers.push_back(caloT);
// allemenergy.push_back( caloTowers_[i].emEnergy() );
// allhadenergy.push_back( caloTowers_[i].hadEnergy() );
}//loop calo towers
if ( tauBenchmarkDebug_)
cout << " RETRIEVED " << allcalotowers.size()
<< " CALOTOWER 4-VECTORS " << endl;
//ECAL+HCAL tower jets computation
jetAlgo_.Clear();
const vector< PFJetAlgorithm::Jet >& caloTjets
= jetAlgo_.FindJets( &allcalotowers );
//cout << caloTjets.size() << " CaloTower Jets found" << endl;
double JetEHTETmax = 0.0;
for ( unsigned i = 0; i < caloTjets.size(); i++) {
TLorentzVector jetmom = caloTjets[i].GetMomentum();
double jetcalo_pt = sqrt(jetmom.Px()*jetmom.Px()+jetmom.Py()*jetmom.Py());
double jetcalo_et = jetmom.Et();
EventColin::Jet jet;
jet.eta = jetmom.Eta();
jet.phi = jetmom.Phi();
jet.et = jetmom.Et();
jet.e = jetmom.E();
const vector<int>& indexes = caloTjets[i].GetIndexes();
for( unsigned ii=0; ii<indexes.size(); ii++){
jet.ee += caloTowers_[ indexes[ii] ].emEnergy();
jet.eh += caloTowers_[ indexes[ii] ].hadEnergy();
jet.ete += caloTowers_[ indexes[ii] ].emEt();
jet.eth += caloTowers_[ indexes[ii] ].hadEt();
}
if(outEvent_) outEvent_->addJetEHT( jet );
if ( tauBenchmarkDebug_) {
cout << " ECAL+HCAL jet : " << caloTjets[i] << endl;
cout << jetmom.Px() << " " << jetmom.Py() << " "
<< jetmom.Pz() << " " << jetmom.E()
<< " PT=" << jetcalo_pt << endl;
}//debug
if (jetcalo_et >= JetEHTETmax)
JetEHTETmax = jetcalo_et;
}//loop MCjets
//PARTICLE FLOW JETS
vector<TLorentzVector> allrecparticles;
// if ( tauBenchmarkDebug_) {
// cout << endl;
// cout << " THERE ARE " << pfBlocks_.size() << " EFLOW BLOCKS" << endl;
// }//debug
// for ( unsigned iefb = 0; iefb < pfBlocks_.size(); iefb++) {
// const std::vector< PFBlockParticle >& recparticles
// = pfBlocks_[iefb].particles();
for(unsigned i=0; i<candidates.size(); i++) {
// if (tauBenchmarkDebug_)
// cout << " there are " << recparticles.size()
// << " particle in this block" << endl;
const reco::PFCandidate& candidate = candidates[i];
if (tauBenchmarkDebug_) {
cout << i << " " << candidate << endl;
int type = candidate.particleId();
cout << " type= " << type << " " << candidate.charge()
<< endl;
}//debug
const math::XYZTLorentzVector& PFpart = candidate.p4();
TLorentzVector partRec(PFpart.Px(),
PFpart.Py(),
PFpart.Pz(),
PFpart.E());
//loading 4-vectors of Rec particles
allrecparticles.push_back( partRec );
}//loop on candidates
if (tauBenchmarkDebug_)
cout << " THERE ARE " << allrecparticles.size()
<< " RECONSTRUCTED 4-VECTORS" << endl;
jetAlgo_.Clear();
const vector< PFJetAlgorithm::Jet >& PFjets
= jetAlgo_.FindJets( &allrecparticles );
if (tauBenchmarkDebug_)
cout << PFjets.size() << " PF Jets found" << endl;
double JetPFETmax = 0.0;
for ( unsigned i = 0; i < PFjets.size(); i++) {
TLorentzVector jetmom = PFjets[i].GetMomentum();
double jetpf_pt = sqrt(jetmom.Px()*jetmom.Px()+jetmom.Py()*jetmom.Py());
double jetpf_et = jetmom.Et();
EventColin::Jet jet;
jet.eta = jetmom.Eta();
jet.phi = jetmom.Phi();
jet.et = jetmom.Et();
jet.e = jetmom.E();
if(outEvent_) outEvent_->addJetPF( jet );
if (tauBenchmarkDebug_) {
cout <<" Rec jet : "<< PFjets[i] <<endl;
cout << jetmom.Px() << " " << jetmom.Py() << " "
<< jetmom.Pz() << " " << jetmom.E()
<< " PT=" << jetpf_pt << " eta="<< jetmom.Eta()
<< " Phi=" << jetmom.Phi() << endl;
cout << "------------------------------------------------" << endl;
}//debug
if (jetpf_et >= JetPFETmax)
JetPFETmax = jetpf_et;
}//loop PF jets
//fill histos
double deltaEtEHT = JetEHTETmax - partTOTMC.Et();
h_deltaETvisible_MCEHT_->Fill(deltaEtEHT);
double deltaEt = JetPFETmax - partTOTMC.Et();
h_deltaETvisible_MCPF_ ->Fill(deltaEt);
if (verbosity_ == VERBOSE ) {
cout << "tau benchmark E_T(PF) - E_T(true) = " << deltaEt << endl;
}
return deltaEt/partTOTMC.Et();
}//Makejets
| bool PFRootEventManager::trackInsideGCut | ( | const reco::PFTrack & | track | ) | const |
is PFTrack inside cut G ? yes if at least one trajectory point is inside.
Definition at line 4324 of file PFRootEventManager.cc.
References i, pos, and reco::PFTrack::trajectoryPoints().
{
TCutG* cutg = (TCutG*) gROOT->FindObject("CUTG");
if(!cutg) return true;
const vector< reco::PFTrajectoryPoint >& points = track.trajectoryPoints();
for( unsigned i=0; i<points.size(); i++) {
if( ! points[i].isValid() ) continue;
const math::XYZPoint& pos = points[i].position();
if( cutg->IsInside( pos.Eta(), pos.Phi() ) ) return true;
}
// no point inside cut
return false;
}
| TTree* PFRootEventManager::tree | ( | ) | [inline] |
| void PFRootEventManager::write | ( | void | ) | [virtual] |
Reimplemented in MyPFRootEventManager, and PFRootEventManagerColin.
Definition at line 1795 of file PFRootEventManager.cc.
References clusterAlgoECAL_, clusterAlgoHCAL_, clusterAlgoHFEM_, clusterAlgoHFHAD_, clusterAlgoHO_, clusterAlgoPS_, gather_cfg::cout, doPFDQM_, doPFJetBenchmark_, doPFMETBenchmark_, dqmFile_, metManager_, outFile_, PFJetBenchmark_, pfJetMonitor_, pfMETMonitor_, PFJetBenchmark::write(), PFClusterAlgo::write(), and Benchmark::write().
{
if(doPFJetBenchmark_) PFJetBenchmark_.write();
if(doPFMETBenchmark_) metManager_->write();
clusterAlgoECAL_.write();
clusterAlgoHCAL_.write();
clusterAlgoHO_.write();
clusterAlgoPS_.write();
clusterAlgoHFEM_.write();
clusterAlgoHFHAD_.write();
// Addition to have DQM histograms : by S. Dutta
if (doPFDQM_) {
cout << " Writing DQM root file " << endl;
pfJetMonitor_.write();
pfMETMonitor_.write();
dqmFile_->Write();
}
//-----------------------------------------------
if(outFile_) {
outFile_->Write();
// outFile_->cd();
// // write histos here
// cout<<"writing output to "<<outFile_->GetName()<<endl;
// h_deltaETvisible_MCEHT_->Write();
// h_deltaETvisible_MCPF_->Write();
// if(outTree_) outTree_->Write();
// if(doPFCandidateBenchmark_) pfCandidateBenchmark_.write();
}
}
| std::ofstream* PFRootEventManager::calibFile_ |
Definition at line 887 of file PFRootEventManager.h.
Referenced by processEntry(), and readOptions().
| boost::shared_ptr<PFEnergyCalibration> PFRootEventManager::calibration_ |
Definition at line 884 of file PFRootEventManager.h.
Referenced by readOptions().
| std::vector<ProtoJet> PFRootEventManager::caloJets_ |
| std::vector<reco::CaloJet> PFRootEventManager::caloJetsCMSSW_ |
Definition at line 646 of file PFRootEventManager.h.
Referenced by processEntry(), readCMSSWJets(), and readFromSimulation().
| edm::Handle< std::vector<reco::CaloJet> > PFRootEventManager::caloJetsHandle_ |
CMSSW calo Jets.
Definition at line 644 of file PFRootEventManager.h.
Referenced by readFromSimulation().
Definition at line 645 of file PFRootEventManager.h.
Referenced by connect(), and readFromSimulation().
Calo MET.
Definition at line 657 of file PFRootEventManager.h.
Definition at line 665 of file PFRootEventManager.h.
Referenced by processEntry(), and readFromSimulation().
CMSSW Calo MET.
Definition at line 663 of file PFRootEventManager.h.
Referenced by readFromSimulation().
Definition at line 664 of file PFRootEventManager.h.
Referenced by connect(), and readFromSimulation().
Definition at line 518 of file PFRootEventManager.h.
Referenced by readFromSimulation(), reconstructCaloJets(), and tauBenchmark().
input collection of calotowers
Definition at line 516 of file PFRootEventManager.h.
Referenced by readFromSimulation().
for the reconstruction of jets. The elements will point to the objects in caloTowers_ has to be global to have a lifetime = lifetime of PFJets
Definition at line 523 of file PFRootEventManager.h.
Referenced by reconstructCaloJets().
Definition at line 517 of file PFRootEventManager.h.
Referenced by connect(), and readFromSimulation().
clustering algorithm for ECAL
Definition at line 698 of file PFRootEventManager.h.
Referenced by clustering(), DisplayManager::createGRecHit(), DisplayManager::loadGRecHits(), readOptions(), and write().
clustering algorithm for HCAL
Definition at line 701 of file PFRootEventManager.h.
Referenced by clustering(), DisplayManager::createGRecHit(), DisplayManager::loadGRecHits(), readOptions(), and write().
clustering algorithm for HF, electro-magnetic layer
Definition at line 707 of file PFRootEventManager.h.
Referenced by clustering(), DisplayManager::createGRecHit(), DisplayManager::loadGRecHits(), readOptions(), and write().
clustering algorithm for HF, hadronic layer
Definition at line 710 of file PFRootEventManager.h.
Referenced by clustering(), DisplayManager::createGRecHit(), DisplayManager::loadGRecHits(), readOptions(), and write().
clustering algorithm for HO
Definition at line 704 of file PFRootEventManager.h.
Referenced by clustering(), DisplayManager::loadGRecHits(), readOptions(), and write().
clustering algorithm for PS
Definition at line 713 of file PFRootEventManager.h.
Referenced by clustering(), DisplayManager::createGRecHit(), DisplayManager::loadGRecHits(), readOptions(), and write().
| boost::shared_ptr<pftools::PFClusterCalibration> PFRootEventManager::clusterCalibration_ |
particle data table.
Definition at line 883 of file PFRootEventManager.h.
| std::auto_ptr< reco::PFClusterCollection > PFRootEventManager::clustersECAL_ |
Definition at line 488 of file PFRootEventManager.h.
Referenced by clustering(), DisplayManager::loadGClusters(), particleFlow(), MyPFRootEventManager::processEntry(), processEntry(), and PFRootEventManagerColin::processHIGH_E_TAUS().
clusters ECAL
Definition at line 486 of file PFRootEventManager.h.
Definition at line 487 of file PFRootEventManager.h.
| std::auto_ptr< reco::PFClusterCollection > PFRootEventManager::clustersHCAL_ |
Definition at line 493 of file PFRootEventManager.h.
Referenced by clustering(), DisplayManager::loadGClusters(), particleFlow(), processEntry(), and PFRootEventManagerColin::processHIGH_E_TAUS().
clusters HCAL
Definition at line 491 of file PFRootEventManager.h.
Definition at line 492 of file PFRootEventManager.h.
| std::auto_ptr< reco::PFClusterCollection > PFRootEventManager::clustersHFEM_ |
Definition at line 503 of file PFRootEventManager.h.
Referenced by clustering(), DisplayManager::loadGClusters(), particleFlow(), and processEntry().
clusters HCAL
Definition at line 501 of file PFRootEventManager.h.
Definition at line 502 of file PFRootEventManager.h.
| std::auto_ptr< reco::PFClusterCollection > PFRootEventManager::clustersHFHAD_ |
Definition at line 508 of file PFRootEventManager.h.
Referenced by clustering(), DisplayManager::loadGClusters(), particleFlow(), and processEntry().
clusters HCAL
Definition at line 506 of file PFRootEventManager.h.
Definition at line 507 of file PFRootEventManager.h.
| std::auto_ptr< reco::PFClusterCollection > PFRootEventManager::clustersHO_ |
Definition at line 498 of file PFRootEventManager.h.
Referenced by clustering(), DisplayManager::loadGClusters(), particleFlow(), and processEntry().
clusters HO
Definition at line 496 of file PFRootEventManager.h.
Definition at line 497 of file PFRootEventManager.h.
| std::auto_ptr< reco::PFClusterCollection > PFRootEventManager::clustersPS_ |
Definition at line 513 of file PFRootEventManager.h.
Referenced by clustering(), DisplayManager::loadGClusters(), particleFlow(), and processEntry().
clusters PS
Definition at line 511 of file PFRootEventManager.h.
Definition at line 512 of file PFRootEventManager.h.
Definition at line 552 of file PFRootEventManager.h.
Referenced by particleFlow(), processEntry(), and readFromSimulation().
reconstructed secondary GSF tracks
Definition at line 550 of file PFRootEventManager.h.
Referenced by readFromSimulation().
Definition at line 551 of file PFRootEventManager.h.
Referenced by connect(), and readFromSimulation().
Definition at line 567 of file PFRootEventManager.h.
Referenced by particleFlow(), processEntry(), and readFromSimulation().
conversions
Definition at line 565 of file PFRootEventManager.h.
Referenced by readFromSimulation().
Definition at line 566 of file PFRootEventManager.h.
Referenced by connect(), and readFromSimulation().
| std::vector<reco::CaloJet> PFRootEventManager::corrcaloJetsCMSSW_ |
Definition at line 651 of file PFRootEventManager.h.
Referenced by processEntry(), and readFromSimulation().
| edm::Handle< std::vector<reco::CaloJet> > PFRootEventManager::corrcaloJetsHandle_ |
CMSSW corrected calo Jets.
Definition at line 649 of file PFRootEventManager.h.
Referenced by readFromSimulation().
Definition at line 650 of file PFRootEventManager.h.
Referenced by connect(), and readFromSimulation().
debug printouts for this PFRootEventManager on/off
Definition at line 832 of file PFRootEventManager.h.
Referenced by particleFlow(), and readOptions().
Definition at line 729 of file PFRootEventManager.h.
Referenced by processEntry(), and readOptions().
Definition at line 730 of file PFRootEventManager.h.
Referenced by processEntry(), and readOptions().
Definition at line 537 of file PFRootEventManager.h.
Referenced by particleFlow(), and readFromSimulation().
Definition at line 533 of file PFRootEventManager.h.
Referenced by readFromSimulation().
Definition at line 535 of file PFRootEventManager.h.
Referenced by connect(), and readFromSimulation().
clustering on/off. If on, rechits from tree are used to form clusters. If off, clusters from tree are used.
Definition at line 796 of file PFRootEventManager.h.
Referenced by processEntry(), and readOptions().
comparison with pf CMSSW
Definition at line 802 of file PFRootEventManager.h.
Referenced by processEntry(), and readOptions().
jets on/off
Definition at line 808 of file PFRootEventManager.h.
Referenced by processEntry(), and readOptions().
MET on/off.
Definition at line 811 of file PFRootEventManager.h.
Referenced by processEntry(), and readOptions().
particle flow on/off
Definition at line 799 of file PFRootEventManager.h.
Referenced by processEntry(), and readOptions().
Definition at line 733 of file PFRootEventManager.h.
Referenced by processEntry(), and readOptions().
Definition at line 745 of file PFRootEventManager.h.
Referenced by processEntry(), readOptions(), and write().
PFJet benchmark on/off.
Definition at line 826 of file PFRootEventManager.h.
Referenced by processEntry(), readOptions(), and write().
PFMET benchmark on/off.
Definition at line 829 of file PFRootEventManager.h.
Referenced by processEntry(), readOptions(), and write().
tau benchmark on/off
Definition at line 820 of file PFRootEventManager.h.
Referenced by processEntry(), readFromSimulation(), and readOptions().
| TFile* PFRootEventManager::dqmFile_ |
Definition at line 746 of file PFRootEventManager.h.
Referenced by readOptions(), and write().
Definition at line 545 of file PFRootEventManager.h.
Referenced by readFromSimulation().
Definition at line 547 of file PFRootEventManager.h.
Referenced by particleFlow(), and readFromSimulation().
Definition at line 546 of file PFRootEventManager.h.
Referenced by readFromSimulation(), and readOptions().
NEW: input event.
Definition at line 422 of file PFRootEventManager.h.
Referenced by connect(), DisplayManager::DisplayManager(), initializeEventInformation(), processEntry(), readFromSimulation(), and reset().
event auxiliary information
Definition at line 447 of file PFRootEventManager.h.
Definition at line 444 of file PFRootEventManager.h.
Fastsim or fullsim.
Definition at line 843 of file PFRootEventManager.h.
Referenced by readOptions(), and tauBenchmark().
| TFile* PFRootEventManager::file_ |
input file
Definition at line 683 of file PFRootEventManager.h.
Definition at line 788 of file PFRootEventManager.h.
Referenced by readFromSimulation(), and readOptions().
Definition at line 786 of file PFRootEventManager.h.
Referenced by readFromSimulation(), and readOptions().
| std::vector<int> PFRootEventManager::filterTaus_ |
Definition at line 790 of file PFRootEventManager.h.
Referenced by countChargedAndPhotons(), readFromSimulation(), and readOptions().
find rechit neighbours ?
Definition at line 835 of file PFRootEventManager.h.
Referenced by readFromSimulation(), and readOptions().
gen Jets
Definition at line 600 of file PFRootEventManager.h.
Referenced by printMCCalib(), processEntry(), and reconstructGenJets().
Definition at line 641 of file PFRootEventManager.h.
Referenced by readCMSSWJets(), and readFromSimulation().
CMSSW gen Jets.
Definition at line 639 of file PFRootEventManager.h.
Referenced by readFromSimulation().
Definition at line 640 of file PFRootEventManager.h.
Referenced by connect(), and readFromSimulation().
Definition at line 605 of file PFRootEventManager.h.
Referenced by processEntry(), and readFromSimulation().
Definition at line 597 of file PFRootEventManager.h.
Referenced by readFromSimulation(), and reconstructGenJets().
input collection of gen particles
Definition at line 595 of file PFRootEventManager.h.
Referenced by readFromSimulation().
gen particle base candidates (input for gen jets new since 1_8_0) the vector of references to genParticles genParticlesforJets_ is converted to a PtrVector, which is the input to jet reco
Definition at line 610 of file PFRootEventManager.h.
Referenced by reconstructGenJets().
Definition at line 596 of file PFRootEventManager.h.
Referenced by connect(), and readFromSimulation().
CMSSW GenParticles.
Definition at line 603 of file PFRootEventManager.h.
Referenced by readFromSimulation().
Definition at line 604 of file PFRootEventManager.h.
Referenced by connect(), and readFromSimulation().
Definition at line 542 of file PFRootEventManager.h.
Referenced by DisplayManager::loadGGsfRecTracks(), particleFlow(), processEntry(), and readFromSimulation().
reconstructed GSF tracks
Definition at line 540 of file PFRootEventManager.h.
Referenced by readFromSimulation().
Definition at line 541 of file PFRootEventManager.h.
Referenced by connect(), and readFromSimulation().
output histo dET ( EHT - MC)
Definition at line 435 of file PFRootEventManager.h.
Referenced by PFRootEventManager(), and tauBenchmark().
output histo dET ( PF - MC)
Definition at line 438 of file PFRootEventManager.h.
Referenced by PFRootEventManager(), and tauBenchmark().
current event
Definition at line 416 of file PFRootEventManager.h.
Referenced by eventNumber(), and processEntry().
| std::vector<std::string> PFRootEventManager::inFileNames_ |
propagate the Jet Energy Corrections to the caloMET on/off
Definition at line 814 of file PFRootEventManager.h.
Referenced by processEntry(), and readOptions().
native jet algorithm
Definition at line 737 of file PFRootEventManager.h.
Referenced by readOptions(), and tauBenchmark().
jet algo type
Definition at line 817 of file PFRootEventManager.h.
Referenced by readOptions(), and reconstructFWLiteJets().
wrapper to official jet algorithms
Definition at line 740 of file PFRootEventManager.h.
Referenced by readOptions(), and reconstructFWLiteJets().
debug printouts for jet algo on/off
Definition at line 839 of file PFRootEventManager.h.
Referenced by readOptions(), reconstructCaloJets(), reconstructGenJets(), and reconstructPFJets().
Definition at line 894 of file PFRootEventManager.h.
Referenced by eventToEntry(), and initializeEventInformation().
Definition at line 592 of file PFRootEventManager.h.
Referenced by DisplayManager::loadGGenParticles(), DisplayManager::lookForGenParticle(), DisplayManager::printGenParticleInfo(), printGenParticles(), printMCCalib(), PFRootEventManagerColin::processNeutral(), readFromSimulation(), and tauBenchmark().
Definition at line 591 of file PFRootEventManager.h.
Referenced by connect(), and readFromSimulation().
| double PFRootEventManager::MET1cut |
Definition at line 728 of file PFRootEventManager.h.
Referenced by processEntry(), and readOptions().
| std::auto_ptr<METManager> PFRootEventManager::metManager_ |
Definition at line 889 of file PFRootEventManager.h.
Referenced by processEntry(), readOptions(), and write().
Definition at line 562 of file PFRootEventManager.h.
Referenced by particleFlow(), processEntry(), and readFromSimulation().
muons
Definition at line 560 of file PFRootEventManager.h.
Referenced by particleFlow(), and readFromSimulation().
Definition at line 561 of file PFRootEventManager.h.
Referenced by connect(), and readFromSimulation().
options file parser
Definition at line 419 of file PFRootEventManager.h.
Referenced by connect(), readOptions(), PFRootEventManagerColin::readSpecificOptions(), and ~PFRootEventManager().
event for output tree
Definition at line 432 of file PFRootEventManager.h.
Referenced by fillOutEventWithBlocks(), fillOutEventWithCaloTowers(), fillOutEventWithClusters(), fillOutEventWithPFCandidates(), fillOutEventWithSimParticles(), processEntry(), readOptions(), reset(), tauBenchmark(), and ~PFRootEventManager().
| TFile* PFRootEventManager::outFile_ |
output file
Definition at line 689 of file PFRootEventManager.h.
Referenced by readOptions(), PFRootEventManagerColin::readSpecificOptions(), write(), MyPFRootEventManager::write(), PFRootEventManagerColin::write(), and ~PFRootEventManager().
| std::string PFRootEventManager::outFileName_ |
output filename
Definition at line 692 of file PFRootEventManager.h.
| TTree* PFRootEventManager::outTree_ |
output tree
Definition at line 428 of file PFRootEventManager.h.
Referenced by processEntry(), readOptions(), and reset().
particle flow algorithm
Definition at line 720 of file PFRootEventManager.h.
Referenced by particleFlow(), and readOptions().
algorithm for building the particle flow blocks
Definition at line 717 of file PFRootEventManager.h.
Referenced by particleFlow(), and readOptions().
| std::auto_ptr< reco::PFBlockCollection > PFRootEventManager::pfBlocks_ |
reconstructed pfblocks
Definition at line 613 of file PFRootEventManager.h.
Referenced by blocks(), DisplayManager::loadGPFBlocks(), particleFlow(), PFRootEventManagerColin::processHIGH_E_TAUS(), and DisplayManager::retrieveBadBrems().
Definition at line 680 of file PFRootEventManager.h.
Referenced by pfCandCompare(), and readFromSimulation().
| std::auto_ptr< reco::PFCandidateElectronExtraCollection > PFRootEventManager::pfCandidateElectronExtras_ |
PFCandidateElectronExtra.
Definition at line 619 of file PFRootEventManager.h.
Referenced by particleFlow().
CMSSW PF candidates.
Definition at line 678 of file PFRootEventManager.h.
Referenced by readFromSimulation().
Definition at line 732 of file PFRootEventManager.h.
Referenced by processEntry(), and readOptions().
| std::auto_ptr< reco::PFCandidateCollection > PFRootEventManager::pfCandidates_ |
reconstructed pfCandidates
Definition at line 616 of file PFRootEventManager.h.
Referenced by highPtPFCandidate(), particleFlow(), pfCandCompare(), processEntry(), and reconstructPFJets().
for the reconstruction of jets. The elements will point to the objects in pfCandidates_ has to be global to have a lifetime = lifetime of PFJets TODO make the other candidate PtrVectors for jets global as well
Definition at line 625 of file PFRootEventManager.h.
Referenced by reconstructPFJets().
Definition at line 679 of file PFRootEventManager.h.
Referenced by connect(), and readFromSimulation().
PFJet Benchmark.
Definition at line 725 of file PFRootEventManager.h.
Referenced by processEntry(), readOptions(), and write().
Definition at line 743 of file PFRootEventManager.h.
Referenced by processEntry(), readOptions(), and write().
PF Jets.
Definition at line 628 of file PFRootEventManager.h.
Referenced by highPtJet(), printMCCalib(), processEntry(), and reconstructPFJets().
Definition at line 636 of file PFRootEventManager.h.
Referenced by readCMSSWJets(), and readFromSimulation().
CMSSW PF Jets.
Definition at line 634 of file PFRootEventManager.h.
Referenced by readFromSimulation().
Definition at line 635 of file PFRootEventManager.h.
Referenced by connect(), and readFromSimulation().
Definition at line 744 of file PFRootEventManager.h.
Referenced by processEntry(), readOptions(), and write().
PF MET.
Definition at line 654 of file PFRootEventManager.h.
Definition at line 675 of file PFRootEventManager.h.
Referenced by processEntry(), and readFromSimulation().
CMSSW PF MET.
Definition at line 673 of file PFRootEventManager.h.
Referenced by readFromSimulation().
Definition at line 674 of file PFRootEventManager.h.
Referenced by connect(), and readFromSimulation().
Definition at line 582 of file PFRootEventManager.h.
Referenced by particleFlow(), processEntry(), and readFromSimulation().
| edm::Handle<reco::PFDisplacedTrackerVertexCollection> PFRootEventManager::pfNuclearTrackerVertexHandle_ |
PFDisplacedVertex.
Definition at line 580 of file PFRootEventManager.h.
Referenced by readFromSimulation().
Definition at line 581 of file PFRootEventManager.h.
Referenced by connect(), and readFromSimulation().
Definition at line 572 of file PFRootEventManager.h.
Referenced by particleFlow(), and readFromSimulation().
Definition at line 571 of file PFRootEventManager.h.
Referenced by connect(), and readFromSimulation().
Definition at line 529 of file PFRootEventManager.h.
Referenced by particleFlow(), processEntry(), and readFromSimulation().
reconstructed primary vertices
Definition at line 527 of file PFRootEventManager.h.
Referenced by readFromSimulation().
Definition at line 528 of file PFRootEventManager.h.
Referenced by connect(), and readFromSimulation().
print clusters yes/no
Definition at line 756 of file PFRootEventManager.h.
Referenced by DialogFrame::createCmdFrame(), readOptions(), and DialogFrame::selectPrintOption().
Definition at line 757 of file PFRootEventManager.h.
Referenced by printCluster(), and readOptions().
print MC truth yes/no
Definition at line 775 of file PFRootEventManager.h.
Referenced by DialogFrame::createCmdFrame(), DialogFrame::ProcessMessage(), readOptions(), and DialogFrame::selectPrintOption().
Definition at line 776 of file PFRootEventManager.h.
Referenced by printGenParticles(), and readOptions().
Definition at line 779 of file PFRootEventManager.h.
Referenced by readOptions().
print PFBlocks yes/no
Definition at line 760 of file PFRootEventManager.h.
Referenced by DialogFrame::createCmdFrame(), readOptions(), and DialogFrame::selectPrintOption().
print PFCandidates yes/no
Definition at line 763 of file PFRootEventManager.h.
Referenced by DialogFrame::createCmdFrame(), readOptions(), and DialogFrame::selectPrintOption().
Definition at line 764 of file PFRootEventManager.h.
Referenced by readOptions().
print PFJets yes/no
Definition at line 767 of file PFRootEventManager.h.
Referenced by DialogFrame::createCmdFrame(), readOptions(), and DialogFrame::selectPrintOption().
Definition at line 768 of file PFRootEventManager.h.
Referenced by readOptions().
print rechits yes/no
Definition at line 752 of file PFRootEventManager.h.
Referenced by DialogFrame::createCmdFrame(), readOptions(), and DialogFrame::selectPrintOption().
Definition at line 753 of file PFRootEventManager.h.
Referenced by printRecHit(), and readOptions().
print true particles yes/no
Definition at line 771 of file PFRootEventManager.h.
Referenced by DialogFrame::createCmdFrame(), readOptions(), and DialogFrame::selectPrintOption().
Definition at line 772 of file PFRootEventManager.h.
Referenced by readOptions().
Definition at line 478 of file PFRootEventManager.h.
Referenced by particleFlow(), processEntry(), and readFromSimulation().
Definition at line 476 of file PFRootEventManager.h.
Referenced by connect(), and readFromSimulation().
| std::vector< edm::InputTag > PFRootEventManager::rechitsCLEANEDTags_ |
Definition at line 477 of file PFRootEventManager.h.
Referenced by connect(), and readFromSimulation().
| std::vector< reco::PFRecHitCollection > PFRootEventManager::rechitsCLEANEDV_ |
rechits HF CLEANED
Definition at line 475 of file PFRootEventManager.h.
Referenced by connect(), and readFromSimulation().
Definition at line 452 of file PFRootEventManager.h.
Referenced by clustering(), DisplayManager::getMaxE(), DisplayManager::loadGRecHits(), DisplayManager::lookForMaxRecHit(), mcTruthMatching(), processEntry(), and readFromSimulation().
rechits ECAL
Definition at line 450 of file PFRootEventManager.h.
Referenced by readFromSimulation().
Definition at line 451 of file PFRootEventManager.h.
Referenced by connect(), and readFromSimulation().
Definition at line 457 of file PFRootEventManager.h.
Referenced by clustering(), DisplayManager::getMaxE(), DisplayManager::loadGRecHits(), DisplayManager::lookForMaxRecHit(), processEntry(), and readFromSimulation().
rechits HCAL
Definition at line 455 of file PFRootEventManager.h.
Referenced by readFromSimulation().
Definition at line 456 of file PFRootEventManager.h.
Referenced by connect(), and readFromSimulation().
Definition at line 467 of file PFRootEventManager.h.
Referenced by clustering(), DisplayManager::getMaxE(), DisplayManager::loadGRecHits(), processEntry(), and readFromSimulation().
rechits HF EM
Definition at line 465 of file PFRootEventManager.h.
Referenced by readFromSimulation().
Definition at line 466 of file PFRootEventManager.h.
Referenced by connect(), and readFromSimulation().
Definition at line 472 of file PFRootEventManager.h.
Referenced by clustering(), DisplayManager::getMaxE(), DisplayManager::loadGRecHits(), processEntry(), and readFromSimulation().
rechits HF HAD
Definition at line 470 of file PFRootEventManager.h.
Referenced by readFromSimulation().
Definition at line 471 of file PFRootEventManager.h.
Referenced by connect(), and readFromSimulation().
Definition at line 462 of file PFRootEventManager.h.
Referenced by clustering(), DisplayManager::getMaxE(), DisplayManager::loadGRecHits(), processEntry(), and readFromSimulation().
Definition at line 461 of file PFRootEventManager.h.
Referenced by connect(), and readFromSimulation().
Definition at line 483 of file PFRootEventManager.h.
Referenced by clustering(), DisplayManager::getMaxE(), DisplayManager::loadGRecHits(), processEntry(), and readFromSimulation().
Definition at line 482 of file PFRootEventManager.h.
Referenced by connect(), and readFromSimulation().
Definition at line 536 of file PFRootEventManager.h.
Referenced by DisplayManager::loadGRecTracks(), particleFlow(), processEntry(), PFRootEventManagerColin::processHIGH_E_TAUS(), and readFromSimulation().
reconstructed tracks
Definition at line 532 of file PFRootEventManager.h.
Referenced by readFromSimulation().
Definition at line 534 of file PFRootEventManager.h.
Referenced by connect(), and readFromSimulation().
Definition at line 557 of file PFRootEventManager.h.
Referenced by processEntry(), and readFromSimulation().
standard reconstructed tracks
Definition at line 555 of file PFRootEventManager.h.
Referenced by readFromSimulation().
Definition at line 556 of file PFRootEventManager.h.
Referenced by connect(), and readFromSimulation().
tau benchmark debug
Definition at line 823 of file PFRootEventManager.h.
Referenced by readOptions(), and tauBenchmark().
TCMET.
Definition at line 660 of file PFRootEventManager.h.
Definition at line 670 of file PFRootEventManager.h.
Referenced by readFromSimulation().
CMSSW TCMET.
Definition at line 668 of file PFRootEventManager.h.
Referenced by readFromSimulation().
Definition at line 669 of file PFRootEventManager.h.
Referenced by connect(), and readFromSimulation().
| boost::shared_ptr<PFEnergyCalibrationHF> PFRootEventManager::thepfEnergyCalibrationHF_ |
Definition at line 885 of file PFRootEventManager.h.
Referenced by readOptions().
| TTree* PFRootEventManager::tree_ |
Definition at line 587 of file PFRootEventManager.h.
Referenced by closestParticle(), countChargedAndPhotons(), isHadronicTau(), DisplayManager::loadGSimParticles(), mcTruthMatching(), printMCCalib(), MyPFRootEventManager::processEntry(), processEntry(), PFRootEventManagerColin::processHIGH_E_TAUS(), readFromSimulation(), and tauBenchmark().
true particles
Definition at line 585 of file PFRootEventManager.h.
Referenced by readFromSimulation().
Definition at line 586 of file PFRootEventManager.h.
Referenced by connect(), and readFromSimulation().
Use HLT tracking.
Definition at line 870 of file PFRootEventManager.h.
Referenced by particleFlow(), and readOptions().
Use Secondary Gsf Tracks.
Definition at line 855 of file PFRootEventManager.h.
Referenced by connect(), and readFromSimulation().
Use Conv Brem KF Tracks.
Definition at line 858 of file PFRootEventManager.h.
Referenced by connect(), and readOptions().
Use EGElectrons.
Definition at line 867 of file PFRootEventManager.h.
Referenced by particleFlow(), readFromSimulation(), and readOptions().
Use EGPhotons.
Definition at line 861 of file PFRootEventManager.h.
Referenced by readFromSimulation(), and readOptions().
Use of HO in links with tracks/HCAL and in particle flow reconstruction.
Definition at line 873 of file PFRootEventManager.h.
Referenced by clustering(), fillOutEventWithClusters(), particleFlow(), processEntry(), readFromSimulation(), and readOptions().
ECAL-track link optimization.
Definition at line 805 of file PFRootEventManager.h.
Referenced by readOptions().
Use of conversions in PFAlgo.
Definition at line 846 of file PFRootEventManager.h.
Referenced by connect(), and readFromSimulation().
Use PFElectrons.
Definition at line 864 of file PFRootEventManager.h.
Referenced by particleFlow(), and readOptions().
Use of PFDisplacedVertex in PFAlgo.
Definition at line 852 of file PFRootEventManager.h.
Referenced by connect(), and readFromSimulation().
Use of V0 in PFAlgo.
Definition at line 849 of file PFRootEventManager.h.
Referenced by connect(), and readFromSimulation().
Definition at line 577 of file PFRootEventManager.h.
Referenced by particleFlow(), processEntry(), and readFromSimulation().
Definition at line 576 of file PFRootEventManager.h.
Referenced by connect(), and readFromSimulation().
verbosity
Definition at line 782 of file PFRootEventManager.h.
Referenced by clustering(), npstat::BoxND< unsigned >::expand(), mcTruthMatching(), particleFlow(), processEntry(), readFromSimulation(), readOptions(), reconstructCaloJets(), reconstructGenJets(), reconstructPFJets(), and tauBenchmark().
1.7.3