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#include <HPSPFRecoTauAlgorithm.h>
Definition at line 25 of file HPSPFRecoTauAlgorithm.h.
| HPSPFRecoTauAlgorithm::HPSPFRecoTauAlgorithm | ( | ) |
Definition at line 5 of file HPSPFRecoTauAlgorithm.cc.
:
PFRecoTauAlgorithmBase()
{
}
| HPSPFRecoTauAlgorithm::HPSPFRecoTauAlgorithm | ( | const edm::ParameterSet & | config | ) |
Definition at line 10 of file HPSPFRecoTauAlgorithm.cc.
References configure().
:
PFRecoTauAlgorithmBase(config)
{
configure(config);
}
| HPSPFRecoTauAlgorithm::~HPSPFRecoTauAlgorithm | ( | ) |
Definition at line 16 of file HPSPFRecoTauAlgorithm.cc.
References candidateMerger_.
{
if(candidateMerger_ !=0 ) delete candidateMerger_;
}
| void HPSPFRecoTauAlgorithm::applyElectronRejection | ( | reco::PFTau & | tau, |
| double | stripEnergy | ||
| ) | [private] |
Definition at line 584 of file HPSPFRecoTauAlgorithm.cc.
References abs, edm::Ref< C, T, F >::isNonnull(), reco::PFTau::leadPFChargedHadrCand(), reco::PFTau::setbremsRecoveryEOverPLead(), reco::PFTau::setecalStripSumEOverPLead(), reco::PFTau::setelectronPreIDDecision(), reco::PFTau::setelectronPreIDOutput(), reco::PFTau::setelectronPreIDTrack(), reco::PFTau::setemFraction(), reco::PFTau::sethcal3x3OverPLead(), reco::PFTau::sethcalMaxOverPLead(), reco::PFTau::sethcalTotOverPLead(), reco::PFTau::setmaximumHCALPFClusterEt(), and funct::sin().
Referenced by buildOneProng(), buildOneProngStrip(), buildOneProngTwoStrips(), and buildThreeProngs().
{
//Here we apply the common electron rejection variables.
//The only not common is the E/P that is applied in the decay mode
//construction
if(tau.leadPFChargedHadrCand().isNonnull()) {
PFCandidateRef leadCharged = tau.leadPFChargedHadrCand();
math::XYZVector caloDir(leadCharged->positionAtECALEntrance().x(),
leadCharged->positionAtECALEntrance().y(),
leadCharged->positionAtECALEntrance().z());
tau.setmaximumHCALPFClusterEt(leadCharged->hcalEnergy()*sin(caloDir.theta()));
if(leadCharged->trackRef().isNonnull()) {
TrackRef track = leadCharged->trackRef();
tau.setemFraction(leadCharged->ecalEnergy()/(leadCharged->ecalEnergy()+leadCharged->hcalEnergy()));
//For H/P trust particle Flow ! :Just take HCAL energy of the candidate
//end of story
tau.sethcalTotOverPLead(leadCharged->hcalEnergy()/track->p());
tau.sethcalMaxOverPLead(leadCharged->hcalEnergy()/track->p());
tau.sethcal3x3OverPLead(leadCharged->hcalEnergy()/track->p());
tau.setelectronPreIDTrack(track);
tau.setelectronPreIDOutput(leadCharged->mva_e_pi());
//Since PF uses brem recovery we will store the default ecal energy here
tau.setbremsRecoveryEOverPLead(leadCharged->ecalEnergy()/track->p());
tau.setecalStripSumEOverPLead((leadCharged->ecalEnergy()-stripEnergy)/track->p());
bool electronDecision;
if(std::abs(leadCharged->pdgId())==11)
electronDecision=true;
else
electronDecision=false;
tau.setelectronPreIDDecision(electronDecision);
}
}
}
| void HPSPFRecoTauAlgorithm::applyMassConstraint | ( | math::XYZTLorentzVector & | vec, |
| double | mass | ||
| ) | [private] |
Definition at line 699 of file HPSPFRecoTauAlgorithm.cc.
References scaleCards::mass, and mathSSE::sqrt().
Referenced by buildOneProngStrip(), and buildOneProngTwoStrips().
| void HPSPFRecoTauAlgorithm::applyMuonRejection | ( | reco::PFTau & | tau | ) | [private] |
Definition at line 552 of file HPSPFRecoTauAlgorithm.cc.
References edm::Ref< C, T, F >::isNonnull(), reco::PFTau::leadPFChargedHadrCand(), RPCpg::mu, reco::PFTau::setCaloComp(), reco::PFTau::setMuonDecision(), and reco::PFTau::setSegComp().
Referenced by buildOneProng(), buildOneProngStrip(), buildOneProngTwoStrips(), and buildThreeProngs().
{
// Require that no signal track has segment matches
//Also:
//The segment compatibility is the number of matched Muon Segments
//the old available does not exist in the muons anymore so i will fill the data format with that
bool decision=true;
float caloComp=0.0;
float segComp=0.0;
if(tau.leadPFChargedHadrCand().isNonnull()) {
MuonRef mu =tau.leadPFChargedHadrCand()->muonRef();
if(mu.isNonnull()){
segComp=(float)(mu->matches().size());
if(mu->caloCompatibility()>caloComp)
caloComp = mu->caloCompatibility();
if(segComp<1.0)
decision=false;
tau.setCaloComp(caloComp);
tau.setSegComp(segComp);
tau.setMuonDecision(decision);
}
}
}
| void HPSPFRecoTauAlgorithm::associateIsolationCandidates | ( | reco::PFTau & | tau, |
| double | tauCone | ||
| ) | [private] |
Definition at line 446 of file HPSPFRecoTauAlgorithm.cc.
References edm::RefVector< C, T, F >::begin(), chargeIsolationCone_, edm::RefVector< C, T, F >::end(), gammaIsolationCone_, i, edm::Ref< C, T, F >::isNull(), neutrHadrIsolationCone_, reco::LeafCandidate::p4(), reco::PFTau::pfTauTagInfoRef(), edm::RefVector< C, T, F >::push_back(), dt_dqm_sourceclient_common_cff::reco, removeCandidateFromRefVector(), reco::PFTau::setisolationPFCands(), reco::PFTau::setisolationPFChargedHadrCands(), reco::PFTau::setisolationPFChargedHadrCandsPtSum(), reco::PFTau::setisolationPFGammaCands(), reco::PFTau::setisolationPFGammaCandsEtSum(), reco::PFTau::setisolationPFNeutrHadrCands(), reco::PFTau::signalPFChargedHadrCands(), reco::PFTau::signalPFGammaCands(), and useIsolationAnnulus_.
Referenced by buildOneProng(), buildOneProngStrip(), buildOneProngTwoStrips(), and buildThreeProngs().
{
using namespace reco;
//Information to get filled
double sumPT=0;
double sumET=0;
if(tau.pfTauTagInfoRef().isNull()) return;
PFCandidateRefVector hadrons;
PFCandidateRefVector gammas;
PFCandidateRefVector neutral;
//Remove candidates outside the cones
if(useIsolationAnnulus_)
{
for(unsigned int i=0;i<tau.pfTauTagInfoRef()->PFChargedHadrCands().size();++i) {
double DR = ROOT::Math::VectorUtil::DeltaR(tau.p4(),tau.pfTauTagInfoRef()->PFChargedHadrCands().at(i)->p4());
if(DR>tauCone && DR<chargeIsolationCone_)
hadrons.push_back(tau.pfTauTagInfoRef()->PFChargedHadrCands().at(i));
}
for(unsigned int i=0;i<tau.pfTauTagInfoRef()->PFGammaCands().size();++i) {
double DR = ROOT::Math::VectorUtil::DeltaR(tau.p4(),tau.pfTauTagInfoRef()->PFGammaCands().at(i)->p4());
if(DR>tauCone && DR<gammaIsolationCone_)
gammas.push_back(tau.pfTauTagInfoRef()->PFGammaCands().at(i));
}
for(unsigned int i=0;i<tau.pfTauTagInfoRef()->PFNeutrHadrCands().size();++i) {
double DR = ROOT::Math::VectorUtil::DeltaR(tau.p4(),tau.pfTauTagInfoRef()->PFNeutrHadrCands().at(i)->p4());
if(DR>tauCone && DR <neutrHadrIsolationCone_)
neutral.push_back(tau.pfTauTagInfoRef()->PFNeutrHadrCands().at(i));
}
}
else
{
for(unsigned int i=0;i<tau.pfTauTagInfoRef()->PFChargedHadrCands().size();++i) {
double DR = ROOT::Math::VectorUtil::DeltaR(tau.p4(),tau.pfTauTagInfoRef()->PFChargedHadrCands().at(i)->p4());
if(DR<chargeIsolationCone_)
hadrons.push_back(tau.pfTauTagInfoRef()->PFChargedHadrCands().at(i));
}
for(unsigned int i=0;i<tau.pfTauTagInfoRef()->PFGammaCands().size();++i) {
double DR = ROOT::Math::VectorUtil::DeltaR(tau.p4(),tau.pfTauTagInfoRef()->PFGammaCands().at(i)->p4());
if(DR<gammaIsolationCone_)
gammas.push_back(tau.pfTauTagInfoRef()->PFGammaCands().at(i));
}
for(unsigned int i=0;i<tau.pfTauTagInfoRef()->PFNeutrHadrCands().size();++i) {
double DR = ROOT::Math::VectorUtil::DeltaR(tau.p4(),tau.pfTauTagInfoRef()->PFNeutrHadrCands().at(i)->p4());
if(DR <neutrHadrIsolationCone_)
neutral.push_back(tau.pfTauTagInfoRef()->PFNeutrHadrCands().at(i));
}
}
//remove the signal Constituents from the collections
for(PFCandidateRefVector::const_iterator i=tau.signalPFChargedHadrCands().begin();i!=tau.signalPFChargedHadrCands().end();++i)
{
removeCandidateFromRefVector(*i,hadrons);
}
for(PFCandidateRefVector::const_iterator i=tau.signalPFGammaCands().begin();i!=tau.signalPFGammaCands().end();++i)
{
removeCandidateFromRefVector(*i,gammas);
removeCandidateFromRefVector(*i,hadrons);//special case where we included a hadron if the strip!
}
//calculate isolation deposits
for(unsigned int i=0;i<hadrons.size();++i)
{
sumPT+=hadrons.at(i)->pt();
}
for(unsigned int i=0;i<gammas.size();++i)
{
sumET+=gammas.at(i)->pt();
}
tau.setisolationPFChargedHadrCandsPtSum(sumPT);
tau.setisolationPFGammaCandsEtSum(sumET);
tau.setisolationPFChargedHadrCands(hadrons);
tau.setisolationPFNeutrHadrCands(neutral);
tau.setisolationPFGammaCands(gammas);
PFCandidateRefVector isoAll = hadrons;
for(unsigned int i=0;i<gammas.size();++i)
isoAll.push_back(gammas.at(i));
for(unsigned int i=0;i<neutral.size();++i)
isoAll.push_back(neutral.at(i));
tau.setisolationPFCands(isoAll);
}
| void HPSPFRecoTauAlgorithm::buildOneProng | ( | const reco::PFTauTagInfoRef & | tagInfo, |
| const reco::PFCandidateRefVector & | hadrons | ||
| ) | [private] |
Definition at line 87 of file HPSPFRecoTauAlgorithm.cc.
References applyElectronRejection(), applyMuonRejection(), associateIsolationCandidates(), edm::RefVector< C, T, F >::at(), getBestTauCandidate(), h, leadPionThreshold_, matchingCone_, RecoPFTauTag_cff::PFTau, pfTaus_, edm::RefVector< C, T, F >::push_back(), reco::PFTau::setleadPFCand(), reco::PFTau::setleadPFChargedHadrCand(), reco::PFTau::setpfTauTagInfoRef(), reco::PFTau::setsignalPFCands(), reco::PFTau::setsignalPFChargedHadrCands(), edm::RefVector< C, T, F >::size(), metsig::tau, and tauThreshold_.
Referenced by buildPFTau().
{
PFTauCollection taus;
if(hadrons.size()>0)
for(unsigned int h=0;h<hadrons.size();++h) {
PFCandidateRef hadron = hadrons.at(h);
//In the one prong case the lead Track pt should be above the tau Threshold!
//since all the tau is just one track!
if(hadron->pt()>tauThreshold_)
if(hadron->pt()>leadPionThreshold_)
//The track should be within the matching cone
if(ROOT::Math::VectorUtil::DeltaR(hadron->p4(),tagInfo->pfjetRef()->p4())<matchingCone_) {
//OK Lets create a Particle Flow Tau!
PFTau tau = PFTau(hadron->charge(),hadron->p4(),hadron->vertex());
//Associate the Tag Info to the tau
tau.setpfTauTagInfoRef(tagInfo);
//Put the Hadron in the signal Constituents
PFCandidateRefVector signal;
signal.push_back(hadron);
//Set The signal candidates of the PF Tau
tau.setsignalPFChargedHadrCands(signal);
tau.setsignalPFCands(signal);
tau.setleadPFChargedHadrCand(hadron);
tau.setleadPFCand(hadron);
//Fill isolation variables
associateIsolationCandidates(tau,0.0);
//Apply Muon rejection algorithms
applyMuonRejection(tau);
applyElectronRejection(tau,0.0);
//Save this candidate
taus.push_back(tau);
}
}
if(taus.size()>0) {
pfTaus_.push_back(getBestTauCandidate(taus));
}
}
| void HPSPFRecoTauAlgorithm::buildOneProngStrip | ( | const reco::PFTauTagInfoRef & | , |
| const std::vector< reco::PFCandidateRefVector > & | , | ||
| const reco::PFCandidateRefVector & | |||
| ) | [private] |
Definition at line 137 of file HPSPFRecoTauAlgorithm.cc.
References applyElectronRejection(), applyMassConstraint(), applyMuonRejection(), associateIsolationCandidates(), edm::RefVector< C, T, F >::at(), edm::RefVector< C, T, F >::begin(), coneMetric_, createMergedLorentzVector(), edm::RefVector< C, T, F >::end(), getBestTauCandidate(), isNarrowTau(), j, matchingCone_, max(), oneProngStripMassWindow_, pfTaus_, edm::RefVector< C, T, F >::push_back(), removeCandidateFromRefVector(), edm::RefVector< C, T, F >::size(), strip(), stripPtThreshold_, metsig::tau, and tauThreshold_.
Referenced by buildPFTau().
{
//Create output Collection
PFTauCollection taus;
//make taus like this only if there is at least one hadron+ 1 strip
if(hadrons.size()>0&&strips.size()>0){
//Combinatorics between strips and clusters
for(std::vector<PFCandidateRefVector>::const_iterator candVector=strips.begin();candVector!=strips.end();++candVector)
for(PFCandidateRefVector::const_iterator hadron=hadrons.begin();hadron!=hadrons.end();++hadron) {
//First Cross cleaning ! If you asked to clusterize the candidates
//with tracks too then you should not double count the track
PFCandidateRefVector emConstituents = *candVector;
removeCandidateFromRefVector(*hadron,emConstituents);
//Create a LorentzVector for the strip
math::XYZTLorentzVector strip = createMergedLorentzVector(emConstituents);
//TEST: Apply Strip Constraint
applyMassConstraint(strip,0.1349);
//create the Particle Flow Tau: Hadron plus Strip
PFTau tau((*hadron)->charge(),
(*hadron)->p4()+strip,
(*hadron)->vertex());
//Check tau threshold, mass, Matching Cone window
if(tau.pt()>tauThreshold_&&strip.pt()>stripPtThreshold_)
if(tau.mass()>oneProngStripMassWindow_.at(0)&&tau.mass()<oneProngStripMassWindow_.at(1))//Apply mass window
if(ROOT::Math::VectorUtil::DeltaR(tau.p4(),tagInfo->pfjetRef()->p4())<matchingCone_) { //Apply matching cone
//Set The Tag Infor ref
tau.setpfTauTagInfoRef(tagInfo);
//Create the signal vectors
PFCandidateRefVector signal;
PFCandidateRefVector signalH;
PFCandidateRefVector signalG;
//Store the hadron in the PFTau
signalH.push_back(*hadron);
signal.push_back(*hadron);
//calculate the cone size : For the strip use it as one candidate !
double tauCone=0.0;
if(coneMetric_ =="angle")
tauCone=std::max(fabs(ROOT::Math::VectorUtil::Angle(tau.p4(),(*hadron)->p4())),
fabs(ROOT::Math::VectorUtil::Angle(tau.p4(),strip)));
else if(coneMetric_ == "DR")
tauCone=std::max(ROOT::Math::VectorUtil::DeltaR(tau.p4(),(*hadron)->p4()),
ROOT::Math::VectorUtil::DeltaR(tau.p4(),strip));
if(emConstituents.size()>0)
for(PFCandidateRefVector::const_iterator j=emConstituents.begin();j!=emConstituents.end();++j) {
signal.push_back(*j);
signalG.push_back(*j);
}
//Set the PFTau
tau.setsignalPFChargedHadrCands(signalH);
tau.setsignalPFGammaCands(signalG);
tau.setsignalPFCands(signal);
tau.setleadPFChargedHadrCand(*hadron);
tau.setleadPFNeutralCand(emConstituents.at(0));
//Set the lead Candidate->Can be the hadron or the leading PFGamma(When we clear the Dataformat we will put the strip)
if((*hadron)->pt()>emConstituents.at(0)->pt())
tau.setleadPFCand(*hadron);
else
tau.setleadPFCand(emConstituents.at(0));
//Apply the signal cone size formula
if(isNarrowTau(tau,tauCone)) {
//calculate the isolation Deposits
associateIsolationCandidates(tau,tauCone);
//Set Muon Rejection
applyMuonRejection(tau);
applyElectronRejection(tau,strip.energy());
taus.push_back(tau);
}
}
}
}
if(taus.size()>0) {
pfTaus_.push_back(getBestTauCandidate(taus));
}
}
| void HPSPFRecoTauAlgorithm::buildOneProngTwoStrips | ( | const reco::PFTauTagInfoRef & | , |
| const std::vector< reco::PFCandidateRefVector > & | , | ||
| const reco::PFCandidateRefVector & | |||
| ) | [private] |
Definition at line 233 of file HPSPFRecoTauAlgorithm.cc.
References applyElectronRejection(), applyMassConstraint(), applyMuonRejection(), associateIsolationCandidates(), edm::RefVector< C, T, F >::at(), edm::RefVector< C, T, F >::begin(), coneMetric_, createMergedLorentzVector(), edm::RefVector< C, T, F >::end(), getBestTauCandidate(), isNarrowTau(), j, matchingCone_, max(), oneProngTwoStripsMassWindow_, oneProngTwoStripsPi0MassWindow_, pfTaus_, edm::RefVector< C, T, F >::push_back(), removeCandidateFromRefVector(), edm::RefVector< C, T, F >::size(), stripPtThreshold_, metsig::tau, and tauThreshold_.
Referenced by buildPFTau().
{
PFTauCollection taus;
//make taus like this only if there is at least one hadron+ 2 strips
if(hadrons.size()>0&&strips.size()>1){
//Combinatorics between strips and clusters
for(unsigned int Nstrip1=0;Nstrip1<strips.size()-1;++Nstrip1)
for(unsigned int Nstrip2=Nstrip1+1;Nstrip2<strips.size();++Nstrip2)
for(PFCandidateRefVector::const_iterator hadron=hadrons.begin();hadron!=hadrons.end();++hadron) {
//Create the strips and the vectors .Again cross clean the track if associated
PFCandidateRefVector emConstituents1 = strips.at(Nstrip1);
PFCandidateRefVector emConstituents2 = strips.at(Nstrip2);
removeCandidateFromRefVector(*hadron,emConstituents1);
removeCandidateFromRefVector(*hadron,emConstituents2);
//Create a LorentzVector for the strip
math::XYZTLorentzVector strip1 = createMergedLorentzVector(emConstituents1);
math::XYZTLorentzVector strip2 = createMergedLorentzVector(emConstituents2);
//Apply Mass Constraints
applyMassConstraint(strip1,0.0);
applyMassConstraint(strip2,0.0);
PFTau tau((*hadron)->charge(),
(*hadron)->p4()+strip1+strip2,
(*hadron)->vertex());
if(tau.pt()>tauThreshold_&&strip1.pt()>stripPtThreshold_&&strip2.pt()>stripPtThreshold_)
if((strip1+strip2).M() >oneProngTwoStripsPi0MassWindow_.at(0) &&(strip1+strip2).M() <oneProngTwoStripsPi0MassWindow_.at(1) )//pi0 conmstraint for two strips
if(tau.mass()>oneProngTwoStripsMassWindow_.at(0)&&tau.mass()<oneProngTwoStripsMassWindow_.at(1))//Apply mass window
if(ROOT::Math::VectorUtil::DeltaR(tau.p4(),tagInfo->pfjetRef()->p4())<matchingCone_) { //Apply matching cone
//create the PFTau
tau.setpfTauTagInfoRef(tagInfo);
//Create the signal vectors
PFCandidateRefVector signal;
PFCandidateRefVector signalH;
PFCandidateRefVector signalG;
//Store the hadron in the PFTau
signalH.push_back(*hadron);
signal.push_back(*hadron);
//calculate the cone size from the reconstructed Objects
double tauCone=1000.0;
if(coneMetric_ =="angle") {
tauCone=std::max(std::max(fabs(ROOT::Math::VectorUtil::Angle(tau.p4(),(*hadron)->p4())),
fabs(ROOT::Math::VectorUtil::Angle(tau.p4(),strip1))),
fabs(ROOT::Math::VectorUtil::Angle(tau.p4(),strip2)));
}
else if(coneMetric_ =="DR") {
tauCone=std::max(std::max((ROOT::Math::VectorUtil::DeltaR(tau.p4(),(*hadron)->p4())),
(ROOT::Math::VectorUtil::DeltaR(tau.p4(),strip1))),
(ROOT::Math::VectorUtil::DeltaR(tau.p4(),strip2)));
}
for(PFCandidateRefVector::const_iterator j=emConstituents1.begin();j!=emConstituents1.end();++j) {
signal.push_back(*j);
signalG.push_back(*j);
}
for(PFCandidateRefVector::const_iterator j=emConstituents2.begin();j!=emConstituents2.end();++j) {
signal.push_back(*j);
signalG.push_back(*j);
}
//Set the PFTau
tau.setsignalPFChargedHadrCands(signalH);
tau.setsignalPFGammaCands(signalG);
tau.setsignalPFCands(signal);
tau.setleadPFChargedHadrCand(*hadron);
//Set the lead Candidate->Can be the hadron or the leading PFGamma(When we clear the Dataformat we will put the strip)
if((*hadron)->pt()>emConstituents1.at(0)->pt())
tau.setleadPFCand(*hadron);
else
tau.setleadPFCand(emConstituents1.at(0));
//Apply the cone size formula
if(isNarrowTau(tau,tauCone)) {
//calculate the isolation Deposits
associateIsolationCandidates(tau,tauCone);
applyMuonRejection(tau);
//For two strips take the nearest strip to the track
if(ROOT::Math::VectorUtil::DeltaR(strip1,(*hadron)->p4())<
ROOT::Math::VectorUtil::DeltaR(strip2,(*hadron)->p4()))
applyElectronRejection(tau,strip1.energy());
else
applyElectronRejection(tau,strip2.energy());
taus.push_back(tau);
}
}
}
}
if(taus.size()>0) {
pfTaus_.push_back(getBestTauCandidate(taus));
}
}
| PFTau HPSPFRecoTauAlgorithm::buildPFTau | ( | const reco::PFTauTagInfoRef & | tagInfo, |
| const reco::Vertex & | vertex | ||
| ) | [virtual] |
Implements PFRecoTauAlgorithmBase.
Definition at line 22 of file HPSPFRecoTauAlgorithm.cc.
References TransientTrackBuilder::build(), buildOneProng(), buildOneProngStrip(), buildOneProngTwoStrips(), buildThreeProngs(), candidateMerger_, doOneProngs_, doOneProngStrips_, doOneProngTwoStrips_, doThreeProngs_, getBestTauCandidate(), edm::Ref< C, T, F >::isNonnull(), metsig::jet, reco::PFTau::leadPFChargedHadrCand(), singlePfTauSkim_cff::leadTrack, PFCandidateMergerBase::mergeCandidates(), pfTaus_, reco::PFTau::pfTauTagInfoRef(), reco::PFTau::setleadPFChargedHadrCandsignedSipt(), reco::LeafCandidate::setP4(), reco::PFTau::setpfTauTagInfoRef(), IPTools::signedTransverseImpactParameter(), edm::RefVector< C, T, F >::size(), TauTagTools::sortRefVectorByPt(), RecoTauPiZeroBuilderPlugins_cfi::strips, and PFRecoTauAlgorithmBase::TransientTrackBuilder_.
{
PFTau pfTau;
pfTaus_.clear();
//make the strips globally.
std::vector<PFCandidateRefVector> strips = candidateMerger_->mergeCandidates(tagInfo->PFCands());
//Sort the hadrons globally and once!
PFCandidateRefVector hadrons = tagInfo->PFChargedHadrCands();
if(hadrons.size()>1)
TauTagTools::sortRefVectorByPt(hadrons);
//OK For this Tau Tag Info we should create all the possible taus
//One Prongs
if(doOneProngs_)
buildOneProng(tagInfo,hadrons);
//One Prong Strips
if(doOneProngStrips_)
buildOneProngStrip(tagInfo,strips,hadrons);
//One Prong TwoStrips
if(doOneProngTwoStrips_)
buildOneProngTwoStrips(tagInfo,strips,hadrons);
//Three Prong
if(doThreeProngs_)
buildThreeProngs(tagInfo,hadrons);
//Lets see if we created any taus
if(pfTaus_.size()>0) {
pfTau = getBestTauCandidate(pfTaus_);
//Set the IP for the leading track
if(TransientTrackBuilder_!=0 &&pfTau.leadPFChargedHadrCand()->trackRef().isNonnull()) {
const TransientTrack leadTrack=TransientTrackBuilder_->build(pfTau.leadPFChargedHadrCand()->trackRef());
if(pfTau.pfTauTagInfoRef().isNonnull())
if(pfTau.pfTauTagInfoRef()->pfjetRef().isNonnull()) {
PFJetRef jet = pfTau.pfTauTagInfoRef()->pfjetRef();
GlobalVector jetDir(jet->px(),jet->py(),jet->pz());
if(IPTools::signedTransverseImpactParameter(leadTrack,jetDir,vertex).first)
pfTau.setleadPFChargedHadrCandsignedSipt(IPTools::signedTransverseImpactParameter(leadTrack,jetDir,vertex).second.significance());
}
}
}
else { //null PFTau
//Simone asked that in case there is no tau returned make a tau
//without refs and the LV of the jet
pfTau.setpfTauTagInfoRef(tagInfo);
pfTau.setP4(tagInfo->pfjetRef()->p4());
}
return pfTau;
}
| void HPSPFRecoTauAlgorithm::buildThreeProngs | ( | const reco::PFTauTagInfoRef & | tagInfo, |
| const reco::PFCandidateRefVector & | hadrons | ||
| ) | [private] |
Definition at line 353 of file HPSPFRecoTauAlgorithm.cc.
References a, abs, applyElectronRejection(), applyMuonRejection(), associateIsolationCandidates(), edm::RefVector< C, T, F >::at(), b, trackerHits::c, DeDxDiscriminatorTools::charge(), coneMetric_, getBestTauCandidate(), isNarrowTau(), leadPionThreshold_, reco::LeafCandidate::mass(), matchingCone_, max(), reco::LeafCandidate::p4(), RecoPFTauTag_cff::PFTau, pfTaus_, reco::LeafCandidate::pt(), edm::RefVector< C, T, F >::push_back(), refitThreeProng(), reco::PFTau::setleadPFCand(), reco::PFTau::setleadPFChargedHadrCand(), reco::PFTau::setpfTauTagInfoRef(), reco::PFTau::setsignalPFCands(), reco::PFTau::setsignalPFChargedHadrCands(), edm::RefVector< C, T, F >::size(), metsig::tau, tauThreshold_, and threeProngMassWindow_.
Referenced by buildPFTau().
{
PFTauCollection taus;
//get Hadrons
//Require at least three hadrons
if(hadrons.size()>2)
for(unsigned int a=0;a<hadrons.size()-2;++a)
for(unsigned int b=a+1;b<hadrons.size()-1;++b)
for(unsigned int c=b+1;c<hadrons.size();++c) {
PFCandidateRef h1 = hadrons.at(a);
PFCandidateRef h2 = hadrons.at(b);
PFCandidateRef h3 = hadrons.at(c);
//check charge Compatibility and lead track
int charge=h1->charge()+h2->charge()+h3->charge();
if(std::abs(charge)==1 && h1->pt()>leadPionThreshold_)
//check the track refs
if(h1->trackRef()!=h2->trackRef()&&h1->trackRef()!=h3->trackRef()&&h2->trackRef()!=h3->trackRef())
{
//create the tau
PFTau tau = PFTau(charge,h1->p4()+h2->p4()+h3->p4(),h1->vertex());
tau.setpfTauTagInfoRef(tagInfo);
if(tau.pt()>tauThreshold_)//Threshold
if(ROOT::Math::VectorUtil::DeltaR(tau.p4(),tagInfo->pfjetRef()->p4())<matchingCone_) {//Matching Cone
PFCandidateRefVector signal;
signal.push_back(h1);
signal.push_back(h2);
signal.push_back(h3);
//calculate the tau cone by getting the maximum distance
double tauCone = 10000.0;
if(coneMetric_=="DR")
{
tauCone = std::max(ROOT::Math::VectorUtil::DeltaR(tau.p4(),h1->p4()),
std::max(ROOT::Math::VectorUtil::DeltaR(tau.p4(),h2->p4()),
ROOT::Math::VectorUtil::DeltaR(tau.p4(),h3->p4())));
}
else if(coneMetric_=="angle")
{
tauCone =std::max(fabs(ROOT::Math::VectorUtil::Angle(tau.p4(),h1->p4())),
std::max(fabs(ROOT::Math::VectorUtil::Angle(tau.p4(),h2->p4())),
fabs(ROOT::Math::VectorUtil::Angle(tau.p4(),h3->p4()))));
}
//Set The PFTau
tau.setsignalPFChargedHadrCands(signal);
tau.setsignalPFCands(signal);
tau.setleadPFChargedHadrCand(h1);
tau.setleadPFCand(h1);
if(isNarrowTau(tau,tauCone)) {
//calculate the isolation Deposits
associateIsolationCandidates(tau,tauCone);
applyMuonRejection(tau);
applyElectronRejection(tau,0.0);
taus.push_back(tau);
}
}
}
}
if(taus.size()>0) {
PFTau bestTau = getBestTauCandidate(taus);
if(refitThreeProng(bestTau))
//Apply mass constraint
if(bestTau.mass()>threeProngMassWindow_.at(0)&&bestTau.mass()<threeProngMassWindow_.at(1))//MassWindow
pfTaus_.push_back(bestTau);
}
}
| void HPSPFRecoTauAlgorithm::configure | ( | const edm::ParameterSet & | p | ) | [private] |
Definition at line 628 of file HPSPFRecoTauAlgorithm.cc.
References candidateMerger_, chargeIsolationCone_, TauTagTools::computeConeSizeTFormula(), coneMetric_, coneSizeFormula, coneSizeFormula_, doOneProngs_, doOneProngStrips_, doOneProngTwoStrips_, doThreeProngs_, emMerger_, Exception, gammaIsolationCone_, edm::ParameterSet::getParameter(), leadPionThreshold_, matchingCone_, maxSignalCone_, minSignalCone_, neutrHadrIsolationCone_, oneProngStripMassWindow_, oneProngTwoStripsMassWindow_, oneProngTwoStripsPi0MassWindow_, overlapCriterion_, stripPtThreshold_, tauThreshold_, threeProngMassWindow_, and useIsolationAnnulus_.
Referenced by HPSPFRecoTauAlgorithm().
{
emMerger_ = p.getParameter<std::string>("emMergingAlgorithm");
overlapCriterion_ = p.getParameter<std::string>("candOverlapCriterion");
doOneProngs_ = p.getParameter<bool>("doOneProng");
doOneProngStrips_ = p.getParameter<bool>("doOneProngStrip");
doOneProngTwoStrips_ = p.getParameter<bool>("doOneProngTwoStrips");
doThreeProngs_ = p.getParameter<bool>("doThreeProng");
tauThreshold_ = p.getParameter<double>("tauPtThreshold");
leadPionThreshold_ = p.getParameter<double>("leadPionThreshold");
stripPtThreshold_ = p.getParameter<double>("stripPtThreshold");
chargeIsolationCone_ = p.getParameter<double>("chargeHadrIsolationConeSize");
gammaIsolationCone_ = p.getParameter<double>("gammaIsolationConeSize");
neutrHadrIsolationCone_ = p.getParameter<double>("neutrHadrIsolationConeSize");
useIsolationAnnulus_ = p.getParameter<bool>("useIsolationAnnulus");
oneProngStripMassWindow_ = p.getParameter<std::vector<double> >("oneProngStripMassWindow");
oneProngTwoStripsMassWindow_ = p.getParameter<std::vector<double> >("oneProngTwoStripsMassWindow");
oneProngTwoStripsPi0MassWindow_= p.getParameter<std::vector<double> >("oneProngTwoStripsPi0MassWindow");
threeProngMassWindow_ = p.getParameter<std::vector<double> >("threeProngMassWindow");
matchingCone_ = p.getParameter<double>("matchingCone");
coneMetric_ = p.getParameter<std::string>("coneMetric");
coneSizeFormula_ = p.getParameter<std::string>("coneSizeFormula");
minSignalCone_ = p.getParameter<double>("minimumSignalCone");
maxSignalCone_ = p.getParameter<double>("maximumSignalCone");
//Initialize The Merging Algorithm!
if(emMerger_ =="StripBased")
candidateMerger_ = new PFCandidateStripMerger(p);
//Add the Pi0 Merger from Evan here
if(oneProngStripMassWindow_.size()!=2)
throw cms::Exception("") << "OneProngStripMassWindow must be a vector of size 2 [min,max] " << std::endl;
if(oneProngTwoStripsMassWindow_.size()!=2)
throw cms::Exception("") << "OneProngTwoStripsMassWindow must be a vector of size 2 [min,max] " << std::endl;
if(threeProngMassWindow_.size()!=2)
throw cms::Exception("") << "ThreeProngMassWindow must be a vector of size 2 [min,max] " << std::endl;
if(coneMetric_!= "angle" && coneMetric_ != "DR")
throw cms::Exception("") << "Cone Metric should be angle or DR " << std::endl;
coneSizeFormula = TauTagTools::computeConeSizeTFormula(coneSizeFormula_,"Signal cone size Formula");
}
| math::XYZTLorentzVector HPSPFRecoTauAlgorithm::createMergedLorentzVector | ( | const reco::PFCandidateRefVector & | cands | ) | [private] |
Definition at line 678 of file HPSPFRecoTauAlgorithm.cc.
References edm::RefVector< C, T, F >::at(), i, and edm::RefVector< C, T, F >::size().
Referenced by buildOneProngStrip(), and buildOneProngTwoStrips().
| reco::PFTau HPSPFRecoTauAlgorithm::getBestTauCandidate | ( | reco::PFTauCollection & | taus | ) | [private] |
Definition at line 763 of file HPSPFRecoTauAlgorithm.cc.
References overlapCriterion_, and MCScenario_CRAFT1_22X::sorter().
Referenced by buildOneProng(), buildOneProngStrip(), buildOneProngTwoStrips(), buildPFTau(), and buildThreeProngs().
{
reco::PFTauCollection::iterator it;
if(overlapCriterion_ =="Isolation"){
HPSTauIsolationSorter sorter;
it = std::min_element(taus.begin(),taus.end(),sorter);
}
else if(overlapCriterion_ =="Pt"){
HPSTauPtSorter sorter;
it = std::min_element(taus.begin(),taus.end(),sorter);
}
return *it;
}
| bool HPSPFRecoTauAlgorithm::isNarrowTau | ( | const reco::PFTau & | tau, |
| double | cone | ||
| ) | [private] |
Definition at line 432 of file HPSPFRecoTauAlgorithm.cc.
References coneSizeFormula, reco::LeafCandidate::energy(), reco::LeafCandidate::et(), maxSignalCone_, and minSignalCone_.
Referenced by buildOneProngStrip(), buildOneProngTwoStrips(), and buildThreeProngs().
{
double allowedConeSize=coneSizeFormula.Eval(tau.energy(),tau.et());
if (allowedConeSize<minSignalCone_) allowedConeSize=minSignalCone_;
if (allowedConeSize>maxSignalCone_) allowedConeSize=maxSignalCone_;
if(cone<allowedConeSize)
return true;
else
return false;
}
| bool HPSPFRecoTauAlgorithm::refitThreeProng | ( | reco::PFTau & | tau | ) | [private] |
Definition at line 709 of file HPSPFRecoTauAlgorithm.cc.
References edm::RefVector< C, T, F >::at(), TransientTrackBuilder::build(), TransientVertex::hasRefittedTracks(), TransientVertex::isValid(), p1, p2, p3, TransientVertex::position(), TransientVertex::refittedTracks(), reco::LeafCandidate::setP4(), reco::LeafCandidate::setVertex(), reco::PFTau::signalPFChargedHadrCands(), mathSSE::sqrt(), PFRecoTauAlgorithmBase::TransientTrackBuilder_, KalmanVertexFitter::vertex(), PV3DBase< T, PVType, FrameType >::x(), PV3DBase< T, PVType, FrameType >::y(), and PV3DBase< T, PVType, FrameType >::z().
Referenced by buildThreeProngs().
{
bool response=false;
//Get Hadrons
reco::PFCandidateRefVector hadrons = tau.signalPFChargedHadrCands();
PFCandidateRef h1 = hadrons.at(0);
PFCandidateRef h2 = hadrons.at(1);
PFCandidateRef h3 = hadrons.at(2);
//Make transient tracks
std::vector<TransientTrack> transientTracks;
transientTracks.push_back(TransientTrackBuilder_->build(h1->trackRef()));
transientTracks.push_back(TransientTrackBuilder_->build(h2->trackRef()));
transientTracks.push_back(TransientTrackBuilder_->build(h3->trackRef()));
//Apply the Vertex Fit
KalmanVertexFitter fitter(true);
TransientVertex myVertex = fitter.vertex(transientTracks);
//Just require a valid vertex+ 3 refitted tracks
if(myVertex.isValid()&&
myVertex.hasRefittedTracks()&&
myVertex.refittedTracks().size()==3) {
response=true;
math::XYZPoint vtx(myVertex.position().x(),myVertex.position().y(),myVertex.position().z());
//Create a LV for each refitted track
math::XYZTLorentzVector p1(myVertex.refittedTracks().at(0).track().px(),
myVertex.refittedTracks().at(0).track().py(),
myVertex.refittedTracks().at(0).track().pz(),
sqrt(myVertex.refittedTracks().at(0).track().momentum().mag2() +0.139*0.139));
math::XYZTLorentzVector p2(myVertex.refittedTracks().at(1).track().px(),
myVertex.refittedTracks().at(1).track().py(),
myVertex.refittedTracks().at(1).track().pz(),
sqrt(myVertex.refittedTracks().at(1).track().momentum().mag2() +0.139*0.139));
math::XYZTLorentzVector p3(myVertex.refittedTracks().at(2).track().px(),
myVertex.refittedTracks().at(2).track().py(),
myVertex.refittedTracks().at(2).track().pz(),
sqrt(myVertex.refittedTracks().at(2).track().momentum().mag2() +0.139*0.139));
//Update the tau p4
tau.setP4(p1+p2+p3);
//Update the vertex
tau.setVertex(vtx);
}
return response;
}
| void HPSPFRecoTauAlgorithm::removeCandidateFromRefVector | ( | const reco::PFCandidateRef & | cand, |
| reco::PFCandidateRefVector & | vec | ||
| ) | [private] |
Definition at line 688 of file HPSPFRecoTauAlgorithm.cc.
References edm::RefVector< C, T, F >::begin(), edm::RefVector< C, T, F >::end(), edm::RefVector< C, T, F >::erase(), and spr::find().
Referenced by associateIsolationCandidates(), buildOneProngStrip(), and buildOneProngTwoStrips().
{
PFCandidateRefVector newVec;
PFCandidateRefVector::iterator it;
it = std::find(vec.begin(),vec.end(),cand);
if(it!=vec.end())
vec.erase(it);
}
Definition at line 39 of file HPSPFRecoTauAlgorithm.h.
Referenced by buildPFTau(), configure(), and ~HPSPFRecoTauAlgorithm().
double HPSPFRecoTauAlgorithm::chargeIsolationCone_ [private] |
Definition at line 98 of file HPSPFRecoTauAlgorithm.h.
Referenced by associateIsolationCandidates(), and configure().
std::string HPSPFRecoTauAlgorithm::coneMetric_ [private] |
Definition at line 118 of file HPSPFRecoTauAlgorithm.h.
Referenced by buildOneProngStrip(), buildOneProngTwoStrips(), buildThreeProngs(), and configure().
TFormula HPSPFRecoTauAlgorithm::coneSizeFormula [private] |
Definition at line 123 of file HPSPFRecoTauAlgorithm.h.
Referenced by configure(), and isNarrowTau().
std::string HPSPFRecoTauAlgorithm::coneSizeFormula_ [private] |
Definition at line 117 of file HPSPFRecoTauAlgorithm.h.
Referenced by configure().
bool HPSPFRecoTauAlgorithm::doOneProngs_ [private] |
Definition at line 84 of file HPSPFRecoTauAlgorithm.h.
Referenced by buildPFTau(), and configure().
bool HPSPFRecoTauAlgorithm::doOneProngStrips_ [private] |
Definition at line 85 of file HPSPFRecoTauAlgorithm.h.
Referenced by buildPFTau(), and configure().
bool HPSPFRecoTauAlgorithm::doOneProngTwoStrips_ [private] |
Definition at line 86 of file HPSPFRecoTauAlgorithm.h.
Referenced by buildPFTau(), and configure().
bool HPSPFRecoTauAlgorithm::doThreeProngs_ [private] |
Definition at line 87 of file HPSPFRecoTauAlgorithm.h.
Referenced by buildPFTau(), and configure().
std::string HPSPFRecoTauAlgorithm::emMerger_ [private] |
Definition at line 78 of file HPSPFRecoTauAlgorithm.h.
Referenced by configure().
double HPSPFRecoTauAlgorithm::gammaIsolationCone_ [private] |
Definition at line 99 of file HPSPFRecoTauAlgorithm.h.
Referenced by associateIsolationCandidates(), and configure().
double HPSPFRecoTauAlgorithm::leadPionThreshold_ [private] |
Definition at line 93 of file HPSPFRecoTauAlgorithm.h.
Referenced by buildOneProng(), buildThreeProngs(), and configure().
double HPSPFRecoTauAlgorithm::matchingCone_ [private] |
Definition at line 112 of file HPSPFRecoTauAlgorithm.h.
Referenced by buildOneProng(), buildOneProngStrip(), buildOneProngTwoStrips(), buildThreeProngs(), and configure().
double HPSPFRecoTauAlgorithm::maxSignalCone_ [private] |
Definition at line 120 of file HPSPFRecoTauAlgorithm.h.
Referenced by configure(), and isNarrowTau().
double HPSPFRecoTauAlgorithm::minSignalCone_ [private] |
Definition at line 119 of file HPSPFRecoTauAlgorithm.h.
Referenced by configure(), and isNarrowTau().
double HPSPFRecoTauAlgorithm::neutrHadrIsolationCone_ [private] |
Definition at line 100 of file HPSPFRecoTauAlgorithm.h.
Referenced by associateIsolationCandidates(), and configure().
std::vector<double> HPSPFRecoTauAlgorithm::oneProngStripMassWindow_ [private] |
Definition at line 106 of file HPSPFRecoTauAlgorithm.h.
Referenced by buildOneProngStrip(), and configure().
std::vector<double> HPSPFRecoTauAlgorithm::oneProngTwoStripsMassWindow_ [private] |
Definition at line 107 of file HPSPFRecoTauAlgorithm.h.
Referenced by buildOneProngTwoStrips(), and configure().
std::vector<double> HPSPFRecoTauAlgorithm::oneProngTwoStripsPi0MassWindow_ [private] |
Definition at line 108 of file HPSPFRecoTauAlgorithm.h.
Referenced by buildOneProngTwoStrips(), and configure().
std::string HPSPFRecoTauAlgorithm::overlapCriterion_ [private] |
Definition at line 81 of file HPSPFRecoTauAlgorithm.h.
Referenced by configure(), and getBestTauCandidate().
Definition at line 125 of file HPSPFRecoTauAlgorithm.h.
Referenced by buildOneProng(), buildOneProngStrip(), buildOneProngTwoStrips(), buildPFTau(), and buildThreeProngs().
double HPSPFRecoTauAlgorithm::stripPtThreshold_ [private] |
Definition at line 96 of file HPSPFRecoTauAlgorithm.h.
Referenced by buildOneProngStrip(), buildOneProngTwoStrips(), and configure().
double HPSPFRecoTauAlgorithm::tauThreshold_ [private] |
Definition at line 91 of file HPSPFRecoTauAlgorithm.h.
Referenced by buildOneProng(), buildOneProngStrip(), buildOneProngTwoStrips(), buildThreeProngs(), and configure().
std::vector<double> HPSPFRecoTauAlgorithm::threeProngMassWindow_ [private] |
Definition at line 109 of file HPSPFRecoTauAlgorithm.h.
Referenced by buildThreeProngs(), and configure().
bool HPSPFRecoTauAlgorithm::useIsolationAnnulus_ [private] |
Definition at line 103 of file HPSPFRecoTauAlgorithm.h.
Referenced by associateIsolationCandidates(), and configure().
1.7.3