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#include <ConversionProducer.h>
$Id:
Description: Produces converted photon objects using default track collections
Implementation: <Notes on="" implementation>="">
Definition at line 67 of file ConversionProducer.h.
typedef math::XYZPointF ConversionProducer::Point [private] |
Definition at line 87 of file ConversionProducer.h.
typedef std::vector<Point> ConversionProducer::PointCollection [private] |
Definition at line 88 of file ConversionProducer.h.
| ConversionProducer::ConversionProducer | ( | const edm::ParameterSet & | iConfig | ) | [explicit] |
Definition at line 74 of file ConversionProducer.cc.
References algoName_, allowD0_, allowDeltaCot_, allowDeltaPhi_, allowMinApproach_, allowOppCharge_, allowSingleLeg_, allowTrackBC_, allowVertex_, bcBarrelCollection_, bcEndcapCollection_, bypassPreselEcal_, bypassPreselEcalEcal_, bypassPreselGsf_, ConvertedPhotonCollection_, d0Cut_, deltaCotTheta_, deltaEta_, deltaPhi_, dEtacutForSCmatching_, dEtaTkBC_, dPhicutForSCmatching_, dPhiTkBC_, dzCut_, energyBC_, energyTotalBC_, edm::ParameterSet::getParameter(), halfWayEta_, maxChi2Left_, maxChi2Right_, maxNumOfTrackInPU_, maxTrackRho_, maxTrackZ_, minApproachHigh_, minApproachLow_, minHitsLeft_, minHitsRight_, minSCEt_, r_cut, rightBC_, scBarrelProducer_, scEndcapProducer_, src_, AlCaHLTBitMon_QueryRunRegistry::string, thettbuilder_, theVertexFinder_, usePvtx_, vertexProducer_, and vtxChi2_.
: theVertexFinder_(0) { algoName_ = iConfig.getParameter<std::string>( "AlgorithmName" ); src_ = iConfig.getParameter<edm::InputTag>("src"); maxNumOfTrackInPU_ = iConfig.getParameter<int>("maxNumOfTrackInPU"); maxTrackRho_ = iConfig.getParameter<double>("maxTrackRho"); maxTrackZ_ = iConfig.getParameter<double>("maxTrackZ"); allowTrackBC_ = iConfig.getParameter<bool>("AllowTrackBC"); allowD0_ = iConfig.getParameter<bool>("AllowD0"); allowDeltaPhi_ = iConfig.getParameter<bool>("AllowDeltaPhi"); allowDeltaCot_ = iConfig.getParameter<bool>("AllowDeltaCot"); allowMinApproach_ = iConfig.getParameter<bool>("AllowMinApproach"); allowOppCharge_ = iConfig.getParameter<bool>("AllowOppCharge"); allowVertex_ = iConfig.getParameter<bool>("AllowVertex"); bypassPreselGsf_ = iConfig.getParameter<bool>("bypassPreselGsf"); bypassPreselEcal_ = iConfig.getParameter<bool>("bypassPreselEcal"); bypassPreselEcalEcal_ = iConfig.getParameter<bool>("bypassPreselEcalEcal"); deltaEta_ = iConfig.getParameter<double>("deltaEta"); halfWayEta_ = iConfig.getParameter<double>("HalfwayEta");//open angle to search track matches with BC d0Cut_ = iConfig.getParameter<double>("d0"); usePvtx_ = iConfig.getParameter<bool>("UsePvtx");//if use primary vertices vertexProducer_ = iConfig.getParameter<std::string>("primaryVertexProducer"); //Track-cluster matching eta and phi cuts dEtaTkBC_ = iConfig.getParameter<double>("dEtaTrackBC");//TODO research on cut endcap/barrel dPhiTkBC_ = iConfig.getParameter<double>("dPhiTrackBC"); bcBarrelCollection_ = iConfig.getParameter<edm::InputTag>("bcBarrelCollection"); bcEndcapCollection_ = iConfig.getParameter<edm::InputTag>("bcEndcapCollection"); scBarrelProducer_ = iConfig.getParameter<edm::InputTag>("scBarrelProducer"); scEndcapProducer_ = iConfig.getParameter<edm::InputTag>("scEndcapProducer"); energyBC_ = iConfig.getParameter<double>("EnergyBC");//BC energy threshold energyTotalBC_ = iConfig.getParameter<double>("EnergyTotalBC");//BC energy threshold minSCEt_ = iConfig.getParameter<double>("minSCEt");//super cluster energy threshold dEtacutForSCmatching_ = iConfig.getParameter<double>("dEtacutForSCmatching");// dEta between conversion momentum direction and SC position dPhicutForSCmatching_ = iConfig.getParameter<double>("dPhicutForSCmatching");// dPhi between conversion momentum direction and SC position //Track cuts on left right track: at least one leg reaches ECAL //Left track: must exist, must reach Ecal and match BC, so loose cut on Chi2 and tight on hits //Right track: not necessary to exist (if allowSingleLeg_), not necessary to reach ECAL or match BC, so tight cut on Chi2 and loose on hits maxChi2Left_ = iConfig.getParameter<double>("MaxChi2Left"); maxChi2Right_ = iConfig.getParameter<double>("MaxChi2Right"); minHitsLeft_ = iConfig.getParameter<int>("MinHitsLeft"); minHitsRight_ = iConfig.getParameter<int>("MinHitsRight"); //Track Open angle cut on delta cot(theta) and delta phi deltaCotTheta_ = iConfig.getParameter<double>("DeltaCotTheta"); deltaPhi_ = iConfig.getParameter<double>("DeltaPhi"); minApproachLow_ = iConfig.getParameter<double>("MinApproachLow"); minApproachHigh_ = iConfig.getParameter<double>("MinApproachHigh"); // if allow single track collection, by default False allowSingleLeg_ = iConfig.getParameter<bool>("AllowSingleLeg"); rightBC_ = iConfig.getParameter<bool>("AllowRightBC"); //track inner position dz cut, need RECO dzCut_ = iConfig.getParameter<double>("dz"); //track analytical cross cut r_cut = iConfig.getParameter<double>("rCut"); vtxChi2_ = iConfig.getParameter<double>("vtxChi2"); theVertexFinder_ = new ConversionVertexFinder ( iConfig ); thettbuilder_ = 0; //output ConvertedPhotonCollection_ = iConfig.getParameter<std::string>("convertedPhotonCollection"); produces< reco::ConversionCollection >(ConvertedPhotonCollection_); }
| ConversionProducer::~ConversionProducer | ( | ) |
Definition at line 167 of file ConversionProducer.cc.
References theVertexFinder_.
{
// do anything here that needs to be done at desctruction time
// (e.g. close files, deallocate resources etc.)
delete theVertexFinder_;
}
| void ConversionProducer::buildCollection | ( | edm::Event & | iEvent, |
| const edm::EventSetup & | iSetup, | ||
| const std::multimap< float, edm::Ptr< reco::ConversionTrack > > & | allTracks, | ||
| const std::multimap< double, reco::CaloClusterPtr > & | superClusterPtrs, | ||
| const std::multimap< double, reco::CaloClusterPtr > & | basicClusterPtrs, | ||
| const reco::Vertex & | the_pvtx, | ||
| reco::ConversionCollection & | outputConvPhotonCollection | ||
| ) | [private] |
match the track pair with a SC. If at least one track matches, store the SC
Definition at line 299 of file ConversionProducer.cc.
References reco::Conversion::algoByName(), algoName_, allowOppCharge_, allowTrackBC_, muonTagProbeFilters_cff::allTracks, reco::Conversion::arbitratedEcalSeeded, reco::Conversion::arbitratedMerged, reco::Conversion::arbitratedMergedEcalGeneral, TransientTrackBuilder::build(), bypassPreselEcal_, bypassPreselEcalEcal_, bypassPreselGsf_, edm::RefToBase< T >::castTo(), checkPhi(), checkVertex(), reco::Vertex::chi2(), ChiSquaredProbability(), deltaEta_, energyTotalBC_, reco::Conversion::generalTracksOnly, edm::RefToBase< T >::get(), edm::EventSetup::get(), getMatchedBC(), getTrackImpactPosition(), ZmumuStandalonSelection_cff::goodVertex, reco::Conversion::highPurity, edm::RefToBase< T >::isNonnull(), reco::Vertex::isValid(), matchingSC(), reco::Vertex::ndof(), ConversionHitChecker::nHitsBeforeVtx(), ConversionHitChecker::nSharedHits(), preselectTrackPair(), edm::ESHandle< T >::product(), findQualityFiles::rr, reco::Conversion::setMatchingSuperCluster(), reco::Conversion::setQuality(), thettbuilder_, toFConverterP(), toFConverterV(), trackD0Cut(), trackQualityFilter(), and vtxChi2_.
Referenced by produce().
{
edm::ESHandle<TrackerGeometry> trackerGeomHandle;
edm::ESHandle<MagneticField> magFieldHandle;
iSetup.get<TrackerDigiGeometryRecord>().get( trackerGeomHandle );
iSetup.get<IdealMagneticFieldRecord>().get( magFieldHandle );
const TrackerGeometry* trackerGeom = trackerGeomHandle.product();
const MagneticField* magField = magFieldHandle.product();
// std::vector<math::XYZPointF> trackImpactPosition;
// trackImpactPosition.reserve(allTracks.size());//track impact position at ECAL
// std::vector<bool> trackValidECAL;//Does this track reach ECAL basic cluster (reach ECAL && match with BC)
// trackValidECAL.assign(allTracks.size(), false);
//
// std::vector<reco::CaloClusterPtr> trackMatchedBC;
// reco::CaloClusterPtr empty_bc;
// trackMatchedBC.assign(allTracks.size(), empty_bc);//TODO find a better way to avoid copy constructor
//
// std::vector<int> bcHandleId;//the associated BC handle id, -1 invalid, 0 barrel 1 endcap
// bcHandleId.assign(allTracks.size(), -1);
// not used std::multimap<double, int> trackInnerEta;//Track innermost state Eta map to TrackRef index, to be used in track pair sorting
std::map<edm::Ptr<reco::ConversionTrack>, math::XYZPointF> trackImpactPosition;
std::map<edm::Ptr<reco::ConversionTrack>, reco::CaloClusterPtr> trackMatchedBC;
ConversionHitChecker hitChecker;
//2 propagate all tracks into ECAL, record its eta and phi
for (std::multimap<float, edm::Ptr<reco::ConversionTrack> >::const_iterator tk_ref = allTracks.begin(); tk_ref != allTracks.end(); ++tk_ref ){
const reco::Track* tk = tk_ref->second->trackRef().get() ;
//check impact position then match with BC
math::XYZPointF ew;
if ( getTrackImpactPosition(tk, trackerGeom, magField, ew) ){
trackImpactPosition[tk_ref->second] = ew;
reco::CaloClusterPtr closest_bc;//the closest matching BC to track
if ( getMatchedBC(basicClusterPtrs, ew, closest_bc) ){
trackMatchedBC[tk_ref->second] = closest_bc;
}
}
}
//3. pair up tracks:
//TODO it is k-Closest pair of point problem
//std::cout << " allTracks.size() " << allTracks.size() << std::endl;
for(std::multimap<float, edm::Ptr<reco::ConversionTrack> >::const_iterator ll = allTracks.begin(); ll != allTracks.end(); ++ll ) {
bool track1HighPurity=true;
//std::cout << " Loop on allTracks " << std::endl;
const edm::RefToBase<reco::Track> & left = ll->second->trackRef();
//TODO: This is a workaround, should be fixed with a proper function in the TTBuilder
//(Note that the TrackRef and GsfTrackRef versions of the constructor are needed
// to properly get refit tracks in the output vertex)
reco::TransientTrack ttk_l;
if (dynamic_cast<const reco::GsfTrack*>(left.get())) {
ttk_l = thettbuilder_->build(left.castTo<reco::GsfTrackRef>());
}
else {
ttk_l = thettbuilder_->build(left.castTo<reco::TrackRef>());
}
// if ((allowTrackBC_ && !trackValidECAL[ll-allTracks.begin()]) )//this Left leg should have valid BC
// continue;
if (the_pvtx.isValid()){
if (!(trackD0Cut(left, the_pvtx))) track1HighPurity=false;
} else {
if (!(trackD0Cut(left))) track1HighPurity=false;
}
std::vector<int> right_candidates;//store all right legs passed the cut (theta/approach and ref pair)
std::vector<double> right_candidate_theta, right_candidate_approach;
std::vector<std::pair<bool, reco::Vertex> > vertex_candidates;
//inner loop only over tracks between eta and eta + deltaEta of the first track
float etasearch = ll->first + deltaEta_;
std::multimap<float, edm::Ptr<reco::ConversionTrack> >::const_iterator rr = ll;
++rr;
for (; rr != allTracks.lower_bound(etasearch); ++rr ) {
bool track2HighPurity = true;
bool highPurityPair = true;
const edm::RefToBase<reco::Track> & right = rr->second->trackRef();
//TODO: This is a workaround, should be fixed with a proper function in the TTBuilder
reco::TransientTrack ttk_r;
if (dynamic_cast<const reco::GsfTrack*>(right.get())) {
ttk_r = thettbuilder_->build(right.castTo<reco::GsfTrackRef>());
}
else {
ttk_r = thettbuilder_->build(right.castTo<reco::TrackRef>());
}
//std::cout << " This track is " << right->algoName() << std::endl;
//all vertexing preselection should go here
//check for opposite charge
if ( allowOppCharge_ && (left->charge()*right->charge() > 0) )
continue; //same sign, reject pair
//if ( (allowTrackBC_ && !trackValidECAL[rr-allTracks.begin()] && rightBC_) )// if right track matches ECAL
// continue;
double approachDist = -999.;
//apply preselection to track pair, overriding preselection for gsf+X or ecalseeded+X pairs if so configured
bool preselected = preselectTrackPair(ttk_l,ttk_r, approachDist);
preselected = preselected || (bypassPreselGsf_ && (left->algo()==29 || right->algo()==29));
preselected = preselected || (bypassPreselEcal_ && (left->algo()==15 || right->algo()==15 || left->algo()==16 || right->algo()==16));
preselected = preselected || (bypassPreselEcalEcal_ && (left->algo()==15 || left->algo()==16) && (right->algo()==15 || right->algo()==16));
if (!preselected) {
continue;
}
//do the actual vertex fit
reco::Vertex theConversionVertex;//by default it is invalid
bool goodVertex = checkVertex(ttk_l, ttk_r, magField, theConversionVertex);
//bail as early as possible in case the fit didn't return a good vertex
if (!goodVertex) {
continue;
}
//track pair pass the quality cut
if ( !( (trackQualityFilter(left, true) && trackQualityFilter(right, false))
|| (trackQualityFilter(left, false) && trackQualityFilter(right, true)) ) ) {
highPurityPair=false;
}
if (the_pvtx.isValid()){
if (!(trackD0Cut(right, the_pvtx))) track2HighPurity=false;
} else {
if (!(trackD0Cut(right))) track2HighPurity=false;
}
//if all cuts passed, go ahead to make conversion candidates
std::vector<edm::RefToBase<reco::Track> > trackPairRef;
trackPairRef.push_back(left);//left track
trackPairRef.push_back(right);//right track
std::vector<math::XYZVectorF> trackPin;
std::vector<math::XYZVectorF> trackPout;
std::vector<math::XYZPointF> trackInnPos;
std::vector<uint8_t> nHitsBeforeVtx;
std::vector<Measurement1DFloat> dlClosestHitToVtx;
if (left->extra().isNonnull() && right->extra().isNonnull()){//only available on TrackExtra
trackInnPos.push_back( toFConverterP(left->innerPosition()));
trackInnPos.push_back( toFConverterP(right->innerPosition()));
trackPin.push_back(toFConverterV(left->innerMomentum()));
trackPin.push_back(toFConverterV(right->innerMomentum()));
trackPout.push_back(toFConverterV(left->outerMomentum()));
trackPout.push_back(toFConverterV(right->outerMomentum()));
}
if (ll->second->trajRef().isNonnull() && rr->second->trajRef().isNonnull()) {
std::pair<uint8_t,Measurement1DFloat> leftWrongHits = hitChecker.nHitsBeforeVtx(*ll->second->trajRef().get(),theConversionVertex);
std::pair<uint8_t,Measurement1DFloat> rightWrongHits = hitChecker.nHitsBeforeVtx(*rr->second->trajRef().get(),theConversionVertex);
nHitsBeforeVtx.push_back(leftWrongHits.first);
nHitsBeforeVtx.push_back(rightWrongHits.first);
dlClosestHitToVtx.push_back(leftWrongHits.second);
dlClosestHitToVtx.push_back(rightWrongHits.second);
}
uint8_t nSharedHits = hitChecker.nSharedHits(*left.get(),*right.get());
//if using kinematic fit, check with chi2 post cut
if (theConversionVertex.isValid()){
const float chi2Prob = ChiSquaredProbability(theConversionVertex.chi2(), theConversionVertex.ndof());
if (chi2Prob<vtxChi2_) highPurityPair=false;
}
//std::cout << " highPurityPair after vertex cut " << highPurityPair << std::endl;
std::vector<math::XYZPointF> trkPositionAtEcal;
std::vector<reco::CaloClusterPtr> matchingBC;
if (allowTrackBC_){//TODO find out the BC ptrs if not doing matching, otherwise, leave it empty
//const int lbc_handle = bcHandleId[ll-allTracks.begin()],
// rbc_handle = bcHandleId[rr-allTracks.begin()];
std::map<edm::Ptr<reco::ConversionTrack>, math::XYZPointF>::const_iterator trackImpactPositionLeft = trackImpactPosition.find(ll->second);
std::map<edm::Ptr<reco::ConversionTrack>, math::XYZPointF>::const_iterator trackImpactPositionRight = trackImpactPosition.find(rr->second);
std::map<edm::Ptr<reco::ConversionTrack>, reco::CaloClusterPtr>::const_iterator trackMatchedBCLeft = trackMatchedBC.find(ll->second);
std::map<edm::Ptr<reco::ConversionTrack>, reco::CaloClusterPtr>::const_iterator trackMatchedBCRight = trackMatchedBC.find(rr->second);
if (trackImpactPositionLeft!=trackImpactPosition.end()) {
trkPositionAtEcal.push_back(trackImpactPositionLeft->second);//left track
}
else {
trkPositionAtEcal.push_back(math::XYZPointF());//left track
}
if (trackImpactPositionRight!=trackImpactPosition.end()) {//second track ECAL position may be invalid
trkPositionAtEcal.push_back(trackImpactPositionRight->second);
}
double total_e_bc = 0.;
if (trackMatchedBCLeft!=trackMatchedBC.end()) {
matchingBC.push_back(trackMatchedBCLeft->second);//left track
total_e_bc += trackMatchedBCLeft->second->energy();
}
else {
matchingBC.push_back( reco::CaloClusterPtr() );//left track
}
if (trackMatchedBCRight!=trackMatchedBC.end()) {//second track ECAL position may be invalid
matchingBC.push_back(trackMatchedBCRight->second);
total_e_bc += trackMatchedBCRight->second->energy();
}
if (total_e_bc<energyTotalBC_) {
highPurityPair = false;
}
}
//signature cuts, then check if vertex, then post-selection cuts
highPurityPair = highPurityPair && track1HighPurity && track2HighPurity && goodVertex && checkPhi(left, right, trackerGeom, magField, theConversionVertex) ;
/*
for ( std::vector<edm::RefToBase<reco::Track> >::iterator iTk=trackPairRef.begin(); iTk!=trackPairRef.end(); iTk++) {
math::XYZPointF impPos;
if ( getTrackImpactPosition(*iTk, trackerGeom, magField, impPos) ) {
}
}
*/
const float minAppDist = approachDist;
reco::Conversion::ConversionAlgorithm algo = reco::Conversion::algoByName(algoName_);
float dummy=0;
reco::CaloClusterPtrVector scPtrVec;
reco::Conversion newCandidate(scPtrVec, trackPairRef, trkPositionAtEcal, theConversionVertex, matchingBC, minAppDist, trackInnPos, trackPin, trackPout, nHitsBeforeVtx, dlClosestHitToVtx, nSharedHits, dummy, algo );
// Fill in scPtrVec with the macthing SC
if ( matchingSC ( superClusterPtrs, newCandidate, scPtrVec) )
newCandidate.setMatchingSuperCluster( scPtrVec);
//std::cout << " ConversionProducer scPtrVec.size " << scPtrVec.size() << std::endl;
newCandidate.setQuality(reco::Conversion::highPurity, highPurityPair);
bool generalTracksOnly = ll->second->isTrackerOnly() && rr->second->isTrackerOnly() && !dynamic_cast<const reco::GsfTrack*>(ll->second->trackRef().get()) && !dynamic_cast<const reco::GsfTrack*>(rr->second->trackRef().get());
bool arbitratedEcalSeeded = ll->second->isArbitratedEcalSeeded() && rr->second->isArbitratedEcalSeeded();
bool arbitratedMerged = ll->second->isArbitratedMerged() && rr->second->isArbitratedMerged();
bool arbitratedMergedEcalGeneral = ll->second->isArbitratedMergedEcalGeneral() && rr->second->isArbitratedMergedEcalGeneral();
newCandidate.setQuality(reco::Conversion::generalTracksOnly, generalTracksOnly);
newCandidate.setQuality(reco::Conversion::arbitratedEcalSeeded, arbitratedEcalSeeded);
newCandidate.setQuality(reco::Conversion::arbitratedMerged, arbitratedMerged);
newCandidate.setQuality(reco::Conversion::arbitratedMergedEcalGeneral, arbitratedMergedEcalGeneral);
outputConvPhotonCollection.push_back(newCandidate);
}
}
}
| void ConversionProducer::buildSuperAndBasicClusterGeoMap | ( | const edm::Event & | iEvent, |
| std::multimap< double, reco::CaloClusterPtr > & | basicClusterPtrs, | ||
| std::multimap< double, reco::CaloClusterPtr > & | superClusterPtrs | ||
| ) | [private] |
Definition at line 239 of file ConversionProducer.cc.
References bcBarrelCollection_, bcEndcapCollection_, energyBC_, edm::Event::getByLabel(), edm::HandleBase::isValid(), findQualityFiles::jj, minSCEt_, scBarrelProducer_, and scEndcapProducer_.
Referenced by produce().
{
// Get the Super Cluster collection in the Barrel
edm::Handle<edm::View<reco::CaloCluster> > scBarrelHandle;
iEvent.getByLabel(scBarrelProducer_,scBarrelHandle);
if (!scBarrelHandle.isValid()) {
edm::LogError("ConvertedPhotonProducer") << "Error! Can't get the product "<<scBarrelProducer_;
}
// Get the Super Cluster collection in the Endcap
edm::Handle<edm::View<reco::CaloCluster> > scEndcapHandle;
iEvent.getByLabel(scEndcapProducer_,scEndcapHandle);
if (!scEndcapHandle.isValid()) {
edm::LogError("ConvertedPhotonProducer") << "Error! Can't get the product "<<scEndcapProducer_;
}
edm::Handle<edm::View<reco::CaloCluster> > bcBarrelHandle;
edm::Handle<edm::View<reco::CaloCluster> > bcEndcapHandle;//TODO check cluster type if BasicCluster or PFCluster
iEvent.getByLabel( bcBarrelCollection_, bcBarrelHandle);
if (!bcBarrelHandle.isValid()) {
edm::LogError("ConvertedPhotonProducer") << "Error! Can't get the product "<<bcBarrelCollection_;
}
iEvent.getByLabel( bcEndcapCollection_, bcEndcapHandle);
if (! bcEndcapHandle.isValid()) {
edm::LogError("ConvertedPhotonProducer") << "Error! Can't get the product "<<bcEndcapCollection_;
}
edm::Handle<edm::View<reco::CaloCluster> > bcHandle = bcBarrelHandle;
edm::Handle<edm::View<reco::CaloCluster> > scHandle = scBarrelHandle;
if ( bcHandle.isValid() ) {
for (unsigned jj = 0; jj < 2; ++jj ){
for (unsigned ii = 0; ii < bcHandle->size(); ++ii ) {
if (bcHandle->ptrAt(ii)->energy()>energyBC_)
basicClusterPtrs.insert(std::make_pair(bcHandle->ptrAt(ii)->position().eta(), bcHandle->ptrAt(ii)));
}
bcHandle = bcEndcapHandle;
}
}
if ( scHandle.isValid() ) {
for (unsigned jj = 0; jj < 2; ++jj ){
for (unsigned ii = 0; ii < scHandle->size(); ++ii ) {
if (scHandle->ptrAt(ii)->energy()>minSCEt_)
superClusterPtrs.insert(std::make_pair(scHandle->ptrAt(ii)->position().eta(), scHandle->ptrAt(ii)));
}
scHandle = scEndcapHandle;
}
}
}
| bool ConversionProducer::checkPhi | ( | const edm::RefToBase< reco::Track > & | tk_l, |
| const edm::RefToBase< reco::Track > & | tk_r, | ||
| const TrackerGeometry * | trackerGeom, | ||
| const MagneticField * | magField, | ||
| const reco::Vertex & | the_vertex | ||
| ) | [private] |
Definition at line 731 of file ConversionProducer.cc.
References allowDeltaPhi_, anyDirection, SiPixelRawToDigiRegional_cfi::deltaPhi, deltaPhi_, dPhi(), TrajectoryStateOnSurface::globalDirection(), trajectoryStateTransform::innerStateOnSurface(), edm::RefToBase< T >::isNonnull(), reco::Vertex::isValid(), TrajectoryStateOnSurface::isValid(), PV3DBase< T, PVType, FrameType >::phi(), reco::Vertex::position(), and makeMuonMisalignmentScenario::rot.
Referenced by buildCollection().
{
if (!allowDeltaPhi_)
return true;
//if track has innermost momentum, check with innermost phi
//if track also has valid vertex, propagate to vertex then calculate phi there
//if track has no innermost momentum, just return true, because track->phi() makes no sense
if (tk_l->extra().isNonnull() && tk_r->extra().isNonnull()){
double iphi1 = tk_l->innerMomentum().phi(), iphi2 = tk_r->innerMomentum().phi();
if (vtx.isValid()){
PropagatorWithMaterial propag( anyDirection, 0.000511, magField );
double recoPhoR = vtx.position().Rho();
Surface::RotationType rot;
ReferenceCountingPointer<BoundCylinder> theBarrel_(new BoundCylinder( Surface::PositionType(0,0,0), rot,
SimpleCylinderBounds( recoPhoR-0.001, recoPhoR+0.001, -fabs(vtx.position().z()), fabs(vtx.position().z()))));
ReferenceCountingPointer<BoundDisk> theDisk_(
new BoundDisk( Surface::PositionType( 0, 0, vtx.position().z()), rot,
SimpleDiskBounds( 0, recoPhoR, -0.001, 0.001)));
const TrajectoryStateOnSurface myTSOS1 = trajectoryStateTransform::innerStateOnSurface(*tk_l, *trackerGeom, magField);
const TrajectoryStateOnSurface myTSOS2 = trajectoryStateTransform::innerStateOnSurface(*tk_r, *trackerGeom, magField);
TrajectoryStateOnSurface stateAtVtx1, stateAtVtx2;
stateAtVtx1 = propag.propagate(myTSOS1, *theBarrel_);
if (!stateAtVtx1.isValid() ) {
stateAtVtx1 = propag.propagate(myTSOS1, *theDisk_);
}
if (stateAtVtx1.isValid()){
iphi1 = stateAtVtx1.globalDirection().phi();
}
stateAtVtx2 = propag.propagate(myTSOS2, *theBarrel_);
if (!stateAtVtx2.isValid() ) {
stateAtVtx2 = propag.propagate(myTSOS2, *theDisk_);
}
if (stateAtVtx2.isValid()){
iphi2 = stateAtVtx2.globalDirection().phi();
}
}
const double dPhi = reco::deltaPhi(iphi1, iphi2);
return (fabs(dPhi) < deltaPhi_);
} else {
return true;
}
}
| bool ConversionProducer::checkTrackPair | ( | const std::pair< edm::RefToBase< reco::Track >, reco::CaloClusterPtr > & | ll, |
| const std::pair< edm::RefToBase< reco::Track >, reco::CaloClusterPtr > & | rr | ||
| ) | [private] |
Definition at line 837 of file ConversionProducer.cc.
References allowTrackBC_, energyTotalBC_, edm::Ptr< T >::isNonnull(), rightBC_, and findQualityFiles::rr.
{
const reco::CaloClusterPtr& bc_l = ll.second;//can be null, so check isNonnull()
const reco::CaloClusterPtr& bc_r = rr.second;
//The cuts should be ordered by considering if takes time and if cuts off many fakes
if (allowTrackBC_){
//check energy of BC
double total_e_bc = 0;
if (bc_l.isNonnull()) total_e_bc += bc_l->energy();
if (rightBC_)
if (bc_r.isNonnull())
total_e_bc += bc_r->energy();
if (total_e_bc < energyTotalBC_) return false;
}
return true;
}
| bool ConversionProducer::checkVertex | ( | const reco::TransientTrack & | ttk_l, |
| const reco::TransientTrack & | ttk_r, | ||
| const MagneticField * | magField, | ||
| reco::Vertex & | the_vertex | ||
| ) | [private] |
Definition at line 861 of file ConversionProducer.cc.
References newFWLiteAna::found, ConversionVertexFinder::run(), and theVertexFinder_.
Referenced by buildCollection().
{
bool found = false;
std::vector<reco::TransientTrack> pair;
pair.push_back(ttk_l);
pair.push_back(ttk_r);
found = theVertexFinder_->run(pair, the_vertex);
return found;
}
| double ConversionProducer::etaTransformation | ( | float | EtaParticle, |
| float | Zvertex | ||
| ) | [private] |
Definition at line 879 of file ConversionProducer.cc.
References ETA, etaBarrelEndcap, funct::log(), PI, R_ECAL, funct::tan(), and Z_Endcap.
Referenced by matchingSC().
{
//---Definitions
const float PI = 3.1415927;
//---Definitions for ECAL
const float R_ECAL = 136.5;
const float Z_Endcap = 328.0;
const float etaBarrelEndcap = 1.479;
//---ETA correction
float Theta = 0.0 ;
float ZEcal = R_ECAL*sinh(EtaParticle)+Zvertex;
if(ZEcal != 0.0) Theta = atan(R_ECAL/ZEcal);
if(Theta<0.0) Theta = Theta+PI ;
double ETA = - log(tan(0.5*Theta));
if( fabs(ETA) > etaBarrelEndcap )
{
float Zend = Z_Endcap ;
if(EtaParticle<0.0 ) Zend = -Zend ;
float Zlen = Zend - Zvertex ;
float RR = Zlen/sinh(EtaParticle);
Theta = atan(RR/Zend);
if(Theta<0.0) Theta = Theta+PI ;
ETA = - log(tan(0.5*Theta));
}
//---Return the result
return ETA;
//---end
}
| bool ConversionProducer::getMatchedBC | ( | const std::multimap< double, reco::CaloClusterPtr > & | bcMap, |
| const math::XYZPointF & | trackImpactPosition, | ||
| reco::CaloClusterPtr & | closestBC | ||
| ) | [private] |
Definition at line 695 of file ConversionProducer.cc.
References kinem::delta_eta(), kinem::delta_phi(), SiPixelRawToDigiRegional_cfi::deltaPhi, dEtaTkBC_, dPhiTkBC_, and halfWayEta_.
Referenced by buildCollection().
{
const double track_eta = trackImpactPosition.eta();
const double track_phi = trackImpactPosition.phi();
double min_eta = 999., min_phi = 999.;
reco::CaloClusterPtr closest_bc;
for (std::multimap<double, reco::CaloClusterPtr>::const_iterator bc = bcMap.lower_bound(track_eta - halfWayEta_);
bc != bcMap.upper_bound(track_eta + halfWayEta_); ++bc){//use eta map to select possible BC collection then loop in
const reco::CaloClusterPtr& ebc = bc->second;
const double delta_eta = track_eta-(ebc->position().eta());
const double delta_phi = reco::deltaPhi(track_phi, (ebc->position().phi()));
if (fabs(delta_eta)<dEtaTkBC_ && fabs(delta_phi)<dPhiTkBC_){
if (fabs(min_eta)>fabs(delta_eta) && fabs(min_phi)>fabs(delta_phi)){//take the closest to track BC
min_eta = delta_eta;
min_phi = delta_phi;
closest_bc = bc->second;
//TODO check if min_eta>delta_eta but min_phi<delta_phi
}
}
}
if (min_eta < 999.){
closestBC = closest_bc;
return true;
} else
return false;
}
| bool ConversionProducer::getTrackImpactPosition | ( | const reco::Track * | tk_ref, |
| const TrackerGeometry * | trackerGeom, | ||
| const MagneticField * | magField, | ||
| math::XYZPointF & | ew | ||
| ) | [private] |
Definition at line 619 of file ConversionProducer.cc.
References alongMomentum, epsilon, PV3DBase< T, PVType, FrameType >::eta(), TrajectoryStateOnSurface::globalPosition(), TrajectoryStateOnSurface::isValid(), trajectoryStateTransform::outerStateOnSurface(), and makeMuonMisalignmentScenario::rot.
Referenced by buildCollection().
{
PropagatorWithMaterial propag( alongMomentum, 0.000511, magField );
ReferenceCountingPointer<Surface> ecalWall(
new BoundCylinder( GlobalPoint(0.,0.,0.), TkRotation<float>(),
SimpleCylinderBounds( 129, 129, -320.5, 320.5 ) ) );
const float epsilon = 0.001;
Surface::RotationType rot; // unit rotation matrix
const float barrelRadius = 129.f;
const float barrelHalfLength = 270.9f;
const float endcapRadius = 171.1f;
const float endcapZ = 320.5f;
ReferenceCountingPointer<BoundCylinder> theBarrel_(new BoundCylinder( Surface::PositionType(0,0,0), rot,
SimpleCylinderBounds( barrelRadius-epsilon, barrelRadius+epsilon, -barrelHalfLength, barrelHalfLength)));
ReferenceCountingPointer<BoundDisk> theNegativeEtaEndcap_(
new BoundDisk( Surface::PositionType( 0, 0, -endcapZ), rot,
SimpleDiskBounds( 0, endcapRadius, -epsilon, epsilon)));
ReferenceCountingPointer<BoundDisk> thePositiveEtaEndcap_(
new BoundDisk( Surface::PositionType( 0, 0, endcapZ), rot,
SimpleDiskBounds( 0, endcapRadius, -epsilon, epsilon)));
//const TrajectoryStateOnSurface myTSOS = trajectoryStateTransform::innerStateOnSurface(*(*ref), *trackerGeom, magField);
const TrajectoryStateOnSurface myTSOS = trajectoryStateTransform::outerStateOnSurface(*tk_ref, *trackerGeom, magField);
TrajectoryStateOnSurface stateAtECAL;
stateAtECAL = propag.propagate(myTSOS, *theBarrel_);
if (!stateAtECAL.isValid() || ( stateAtECAL.isValid() && fabs(stateAtECAL.globalPosition().eta() ) >1.479 ) ) {
//endcap propagator
if (myTSOS.globalPosition().eta() > 0.) {
stateAtECAL = propag.propagate(myTSOS, *thePositiveEtaEndcap_);
} else {
stateAtECAL = propag.propagate(myTSOS, *theNegativeEtaEndcap_);
}
}
if (stateAtECAL.isValid()){
ew = stateAtECAL.globalPosition();
return true;
}
else
return false;
}
| bool ConversionProducer::matchingSC | ( | const std::multimap< double, reco::CaloClusterPtr > & | scMap, |
| reco::Conversion & | conv, | ||
| reco::CaloClusterPtrVector & | mSC | ||
| ) | [private] |
Definition at line 666 of file ConversionProducer.cc.
References kinem::delta_eta(), kinem::delta_phi(), SiPixelRawToDigiRegional_cfi::deltaPhi, dEtacutForSCmatching_, dPhicutForSCmatching_, etaTransformation(), match(), edm::PtrVector< T >::push_back(), reco::Conversion::refittedPairMomentum(), and reco::Conversion::zOfPrimaryVertexFromTracks().
Referenced by buildCollection().
{
// double dRMin=999.;
double detaMin=999.;
double dphiMin=999.;
reco::CaloClusterPtr match;
for (std::multimap<double, reco::CaloClusterPtr>::const_iterator scItr = scMap.begin(); scItr != scMap.end(); scItr++) {
const reco::CaloClusterPtr& sc = scItr->second;
const double delta_phi = reco::deltaPhi( aConv.refittedPairMomentum().phi(), sc->phi());
double sceta = sc->eta();
double conveta = etaTransformation(aConv.refittedPairMomentum().eta(), aConv.zOfPrimaryVertexFromTracks() );
const double delta_eta = fabs(conveta - sceta);
if ( fabs(delta_eta) < fabs(detaMin) && fabs(delta_phi) < fabs(dphiMin) ) {
detaMin= fabs(delta_eta);
dphiMin= fabs(delta_phi);
match=sc;
}
}
if ( fabs(detaMin) < dEtacutForSCmatching_ && fabs(dphiMin) < dPhicutForSCmatching_ ) {
mSC.push_back(match);
return true;
} else
return false;
}
| bool ConversionProducer::preselectTrackPair | ( | const reco::TransientTrack & | ttk_l, |
| const reco::TransientTrack & | ttk_r, | ||
| double & | appDist | ||
| ) | [private] |
Definition at line 777 of file ConversionProducer.cc.
References abs, allowDeltaCot_, allowMinApproach_, TangentApproachInRPhi::calculate(), ClosestApproachInRPhi::calculate(), ClosestApproachInRPhi::crossingPoint(), TangentApproachInRPhi::crossingPoint(), deltaCotTheta_, dzCut_, reco::TransientTrack::innermostMeasurementState(), maxTrackRho_, maxTrackZ_, minApproachHigh_, PV3DBase< T, PVType, FrameType >::perp(), TangentApproachInRPhi::perpdist(), r_cut, rho, ClosestApproachInRPhi::status(), TangentApproachInRPhi::status(), funct::tan(), reco::TransientTrack::track(), TangentApproachInRPhi::trajectoryParameters(), and PV3DBase< T, PVType, FrameType >::z().
Referenced by buildCollection().
{
double dCotTheta = 1./tan(ttk_l.track().innerMomentum().theta()) - 1./tan(ttk_r.track().innerMomentum().theta());
if (allowDeltaCot_ && (std::abs(dCotTheta) > deltaCotTheta_)) {
return false;
}
//non-conversion hypothesis, reject prompt track pairs
ClosestApproachInRPhi closest;
closest.calculate(ttk_l.innermostMeasurementState(),ttk_r.innermostMeasurementState());
if (!closest.status()) {
return false;
}
if (closest.crossingPoint().perp() < r_cut) {
return false;
}
//compute tangent point btw tracks (conversion hypothesis)
TangentApproachInRPhi tangent;
tangent.calculate(ttk_l.innermostMeasurementState(),ttk_r.innermostMeasurementState());
if (!tangent.status()) {
return false;
}
GlobalPoint tangentPoint = tangent.crossingPoint();
double rho = tangentPoint.perp();
//reject candidates well outside of tracker bounds
if (rho > maxTrackRho_) {
return false;
}
if (std::abs(tangentPoint.z()) > maxTrackZ_) {
return false;
}
std::pair<GlobalTrajectoryParameters,GlobalTrajectoryParameters> trajs = tangent.trajectoryParameters();
//very large separation in z, no hope
if (std::abs(trajs.first.position().z() - trajs.second.position().z()) > dzCut_) {
return false;
}
float minApproach = tangent.perpdist();
appDist = minApproach;
if (allowMinApproach_ && (minApproach < minApproachLow_ || minApproach > minApproachHigh_) ) {
return false;
}
return true;
}
| void ConversionProducer::produce | ( | edm::Event & | iEvent, |
| const edm::EventSetup & | iSetup | ||
| ) | [private, virtual] |
Implements edm::EDProducer.
Definition at line 178 of file ConversionProducer.cc.
References buildCollection(), buildSuperAndBasicClusterGeoMap(), ConvertedPhotonCollection_, edm::EventSetup::get(), edm::Event::getByLabel(), maxNumOfTrackInPU_, edm::Event::put(), src_, thettbuilder_, usePvtx_, GoodVertex_cfg::vertexCollection, and vertexProducer_.
{
using namespace edm;
reco::ConversionCollection outputConvPhotonCollection;
std::auto_ptr<reco::ConversionCollection> outputConvPhotonCollection_p(new reco::ConversionCollection);
//std::cout << " ConversionProducer::produce " << std::endl;
//Read multiple track input collections
edm::Handle<edm::View<reco::ConversionTrack> > trackCollectionHandle;
iEvent.getByLabel(src_,trackCollectionHandle);
//build map of ConversionTracks ordered in eta
std::multimap<float, edm::Ptr<reco::ConversionTrack> > convTrackMap;
for (edm::PtrVector<reco::ConversionTrack>::const_iterator tk_ref = trackCollectionHandle->ptrVector().begin(); tk_ref != trackCollectionHandle->ptrVector().end(); ++tk_ref ){
convTrackMap.insert(std::make_pair((*tk_ref)->track()->eta(),*tk_ref));
}
edm::Handle<reco::VertexCollection> vertexHandle;
reco::VertexCollection vertexCollection;
if (usePvtx_){
iEvent.getByLabel(vertexProducer_, vertexHandle);
if (!vertexHandle.isValid()) {
edm::LogError("ConversionProducer") << "Error! Can't get the product primary Vertex Collection "<< "\n";
usePvtx_ = false;
}
if (usePvtx_)
vertexCollection = *(vertexHandle.product());
}
edm::ESHandle<TransientTrackBuilder> hTransientTrackBuilder;
iSetup.get<TransientTrackRecord>().get("TransientTrackBuilder",hTransientTrackBuilder);
thettbuilder_ = hTransientTrackBuilder.product();
reco::Vertex the_pvtx;
//because the priamry vertex is sorted by quality, the first one is the best
if (!vertexCollection.empty())
the_pvtx = *(vertexCollection.begin());
if (trackCollectionHandle->size()> maxNumOfTrackInPU_){
iEvent.put( outputConvPhotonCollection_p, ConvertedPhotonCollection_);
return;
}
// build Super and Basic cluster geometry map to search in eta bounds for clusters
std::multimap<double, reco::CaloClusterPtr> basicClusterPtrs;
std::multimap<double, reco::CaloClusterPtr> superClusterPtrs;
buildSuperAndBasicClusterGeoMap(iEvent,basicClusterPtrs,superClusterPtrs);
buildCollection( iEvent, iSetup, convTrackMap, superClusterPtrs, basicClusterPtrs, the_pvtx, outputConvPhotonCollection);//allow empty basicClusterPtrs
outputConvPhotonCollection_p->assign(outputConvPhotonCollection.begin(), outputConvPhotonCollection.end());
iEvent.put( outputConvPhotonCollection_p, ConvertedPhotonCollection_);
}
| math::XYZPointF ConversionProducer::toFConverterP | ( | const math::XYZPoint & | val | ) | [inline, private] |
Definition at line 188 of file ConversionProducer.h.
Referenced by buildCollection().
{
return math::XYZPointF(val.x(),val.y(),val.z());
}
| math::XYZVectorF ConversionProducer::toFConverterV | ( | const math::XYZVector & | val | ) | [inline, private] |
Definition at line 192 of file ConversionProducer.h.
Referenced by buildCollection().
{
return math::XYZVectorF(val.x(),val.y(),val.z());
}
| bool ConversionProducer::trackD0Cut | ( | const edm::RefToBase< reco::Track > & | ref, |
| const reco::Vertex & | the_pvtx | ||
| ) | [inline, private] |
Definition at line 613 of file ConversionProducer.cc.
References allowD0_, d0Cut_, and reco::Vertex::position().
| bool ConversionProducer::trackD0Cut | ( | const edm::RefToBase< reco::Track > & | ref | ) | [inline, private] |
Definition at line 608 of file ConversionProducer.cc.
References allowD0_, and d0Cut_.
Referenced by buildCollection().
| bool ConversionProducer::trackQualityFilter | ( | const edm::RefToBase< reco::Track > & | ref, |
| bool | isLeft | ||
| ) | [inline, private] |
Definition at line 597 of file ConversionProducer.cc.
References maxChi2Left_, maxChi2Right_, minHitsLeft_, and minHitsRight_.
Referenced by buildCollection().
{
bool pass = true;
if (isLeft){
pass = (ref->normalizedChi2() < maxChi2Left_ && ref->found() >= minHitsLeft_);
} else {
pass = (ref->normalizedChi2() < maxChi2Right_ && ref->found() >= minHitsRight_);
}
return pass;
}
std::string ConversionProducer::algoName_ [private] |
Definition at line 85 of file ConversionProducer.h.
Referenced by buildCollection(), and ConversionProducer().
bool ConversionProducer::allowD0_ [private] |
Definition at line 98 of file ConversionProducer.h.
Referenced by ConversionProducer(), and trackD0Cut().
bool ConversionProducer::allowDeltaCot_ [private] |
Definition at line 98 of file ConversionProducer.h.
Referenced by ConversionProducer(), and preselectTrackPair().
bool ConversionProducer::allowDeltaPhi_ [private] |
Definition at line 98 of file ConversionProducer.h.
Referenced by checkPhi(), and ConversionProducer().
bool ConversionProducer::allowMinApproach_ [private] |
Definition at line 98 of file ConversionProducer.h.
Referenced by ConversionProducer(), and preselectTrackPair().
bool ConversionProducer::allowOppCharge_ [private] |
Definition at line 98 of file ConversionProducer.h.
Referenced by buildCollection(), and ConversionProducer().
bool ConversionProducer::allowSingleLeg_ [private] |
Definition at line 132 of file ConversionProducer.h.
Referenced by ConversionProducer().
bool ConversionProducer::allowTrackBC_ [private] |
Definition at line 98 of file ConversionProducer.h.
Referenced by buildCollection(), checkTrackPair(), and ConversionProducer().
bool ConversionProducer::allowVertex_ [private] |
Definition at line 98 of file ConversionProducer.h.
Referenced by ConversionProducer().
Definition at line 94 of file ConversionProducer.h.
Referenced by buildSuperAndBasicClusterGeoMap(), and ConversionProducer().
Definition at line 95 of file ConversionProducer.h.
Referenced by buildSuperAndBasicClusterGeoMap(), and ConversionProducer().
bool ConversionProducer::bypassPreselEcal_ [private] |
Definition at line 100 of file ConversionProducer.h.
Referenced by buildCollection(), and ConversionProducer().
bool ConversionProducer::bypassPreselEcalEcal_ [private] |
Definition at line 100 of file ConversionProducer.h.
Referenced by buildCollection(), and ConversionProducer().
bool ConversionProducer::bypassPreselGsf_ [private] |
Definition at line 100 of file ConversionProducer.h.
Referenced by buildCollection(), and ConversionProducer().
std::string ConversionProducer::ConvertedPhotonCollection_ [private] |
Definition at line 96 of file ConversionProducer.h.
Referenced by ConversionProducer(), and produce().
double ConversionProducer::d0Cut_ [private] |
Definition at line 119 of file ConversionProducer.h.
Referenced by ConversionProducer(), and trackD0Cut().
double ConversionProducer::deltaCotTheta_ [private] |
Definition at line 126 of file ConversionProducer.h.
Referenced by ConversionProducer(), and preselectTrackPair().
double ConversionProducer::deltaEta_ [private] |
Definition at line 108 of file ConversionProducer.h.
Referenced by buildCollection(), and ConversionProducer().
double ConversionProducer::deltaPhi_ [private] |
Definition at line 126 of file ConversionProducer.h.
Referenced by checkPhi(), and ConversionProducer().
double ConversionProducer::dEtacutForSCmatching_ [private] |
Definition at line 115 of file ConversionProducer.h.
Referenced by ConversionProducer(), and matchingSC().
double ConversionProducer::dEtaTkBC_ [private] |
Definition at line 121 of file ConversionProducer.h.
Referenced by ConversionProducer(), and getMatchedBC().
double ConversionProducer::dPhicutForSCmatching_ [private] |
Definition at line 116 of file ConversionProducer.h.
Referenced by ConversionProducer(), and matchingSC().
double ConversionProducer::dPhiTkBC_ [private] |
Definition at line 121 of file ConversionProducer.h.
Referenced by ConversionProducer(), and getMatchedBC().
double ConversionProducer::dzCut_ [private] |
Definition at line 120 of file ConversionProducer.h.
Referenced by ConversionProducer(), and preselectTrackPair().
double ConversionProducer::energyBC_ [private] |
Definition at line 117 of file ConversionProducer.h.
Referenced by buildSuperAndBasicClusterGeoMap(), and ConversionProducer().
double ConversionProducer::energyTotalBC_ [private] |
Definition at line 118 of file ConversionProducer.h.
Referenced by buildCollection(), checkTrackPair(), and ConversionProducer().
double ConversionProducer::halfWayEta_ [private] |
Definition at line 110 of file ConversionProducer.h.
Referenced by ConversionProducer(), and getMatchedBC().
double ConversionProducer::halfWayPhi_ [private] |
Definition at line 110 of file ConversionProducer.h.
double ConversionProducer::maxChi2Left_ [private] |
Definition at line 123 of file ConversionProducer.h.
Referenced by ConversionProducer(), and trackQualityFilter().
double ConversionProducer::maxChi2Right_ [private] |
Definition at line 123 of file ConversionProducer.h.
Referenced by ConversionProducer(), and trackQualityFilter().
unsigned int ConversionProducer::maxNumOfTrackInPU_ [private] |
Definition at line 111 of file ConversionProducer.h.
Referenced by ConversionProducer(), and produce().
double ConversionProducer::maxTrackRho_ [private] |
Definition at line 113 of file ConversionProducer.h.
Referenced by ConversionProducer(), and preselectTrackPair().
double ConversionProducer::maxTrackZ_ [private] |
Definition at line 112 of file ConversionProducer.h.
Referenced by ConversionProducer(), and preselectTrackPair().
double ConversionProducer::minApproachHigh_ [private] |
Definition at line 126 of file ConversionProducer.h.
Referenced by ConversionProducer(), and preselectTrackPair().
double ConversionProducer::minApproachLow_ [private] |
Definition at line 126 of file ConversionProducer.h.
Referenced by ConversionProducer().
double ConversionProducer::minHitsLeft_ [private] |
Definition at line 124 of file ConversionProducer.h.
Referenced by ConversionProducer(), and trackQualityFilter().
double ConversionProducer::minHitsRight_ [private] |
Definition at line 124 of file ConversionProducer.h.
Referenced by ConversionProducer(), and trackQualityFilter().
double ConversionProducer::minSCEt_ [private] |
Definition at line 114 of file ConversionProducer.h.
Referenced by buildSuperAndBasicClusterGeoMap(), and ConversionProducer().
double ConversionProducer::r_cut [private] |
Definition at line 129 of file ConversionProducer.h.
Referenced by ConversionProducer(), and preselectTrackPair().
bool ConversionProducer::rightBC_ [private] |
Definition at line 133 of file ConversionProducer.h.
Referenced by checkTrackPair(), and ConversionProducer().
Definition at line 92 of file ConversionProducer.h.
Referenced by buildSuperAndBasicClusterGeoMap(), and ConversionProducer().
Definition at line 93 of file ConversionProducer.h.
Referenced by buildSuperAndBasicClusterGeoMap(), and ConversionProducer().
edm::InputTag ConversionProducer::src_ [private] |
Definition at line 90 of file ConversionProducer.h.
Referenced by ConversionProducer(), and produce().
const TransientTrackBuilder* ConversionProducer::thettbuilder_ [private] |
Definition at line 106 of file ConversionProducer.h.
Referenced by buildCollection(), ConversionProducer(), and produce().
Definition at line 104 of file ConversionProducer.h.
Referenced by checkVertex(), ConversionProducer(), and ~ConversionProducer().
bool ConversionProducer::usePvtx_ [private] |
Definition at line 102 of file ConversionProducer.h.
Referenced by ConversionProducer(), and produce().
std::string ConversionProducer::vertexProducer_ [private] |
Definition at line 103 of file ConversionProducer.h.
Referenced by ConversionProducer(), and produce().
double ConversionProducer::vtxChi2_ [private] |
Definition at line 130 of file ConversionProducer.h.
Referenced by buildCollection(), and ConversionProducer().
1.7.3