#include <EcalHaloAlgo.h>
Definition at line 42 of file EcalHaloAlgo.h.
EcalHaloAlgo::EcalHaloAlgo | ( | ) |
Definition at line 17 of file EcalHaloAlgo.cc.
{ RoundnessCut = 0 ; AngleCut = 0 ; EBRecHitEnergyThreshold = 0.; EERecHitEnergyThreshold = 0.; ESRecHitEnergyThreshold = 0.; SumEnergyThreshold = 0.; NHitsThreshold =0; }
EcalHaloAlgo::~EcalHaloAlgo | ( | ) | [inline] |
Definition at line 48 of file EcalHaloAlgo.h.
{}
EcalHaloData EcalHaloAlgo::Calculate | ( | const CaloGeometry & | TheCaloGeometry, |
edm::Handle< reco::PhotonCollection > & | ThePhotons, | ||
edm::Handle< reco::SuperClusterCollection > & | TheSuperClusters, | ||
edm::Handle< EBRecHitCollection > & | TheEBRecHits, | ||
edm::Handle< EERecHitCollection > & | TheEERecHits, | ||
edm::Handle< ESRecHitCollection > & | TheESRecHits | ||
) |
Definition at line 28 of file EcalHaloAlgo.cc.
References abs, angle(), CompareTime(), DetId::Ecal, reco::EcalHaloData::GetPhiWedges(), reco::EcalHaloData::GetShowerShapesAngle(), reco::EcalHaloData::GetShowerShapesRoundness(), CaloGeometry::getSubdetectorGeometry(), reco::EcalHaloData::GetSuperClusters(), i, hit::id, EBDetId::ieta(), edm::helper::Filler< Map >::insert(), EBDetId::iphi(), edm::HandleBase::isValid(), j, edm::Handle< T >::product(), edm::RefVector< C, T, F >::push_back(), DetId::rawId(), EcalClusterTools::roundnessBarrelSuperClusters(), reco::PhiWedge::SetPlusZOriginConfidence(), python::multivaluedict::sort(), and cond::rpcobgas::time.
Referenced by reco::EcalHaloDataProducer::produce().
{ EcalHaloData TheEcalHaloData; // Store energy sum of rechits as a function of iPhi (iphi goes from 1 to 72) float SumE[361]; // Store number of rechits as a function of iPhi int NumHits[361]; // Store minimum time of rechit as a function of iPhi float MinTimeHits[361]; // Store maximum time of rechit as a function of iPhi float MaxTimeHits[361]; // initialize for(int i = 0 ; i < 361 ; i++ ) { SumE[i] = 0.; NumHits[i] = 0 ; MinTimeHits[i] = 9999.; MaxTimeHits[i] = -9999.; } // Loop over EB RecHits for(EBRecHitCollection::const_iterator hit = TheEBRecHits->begin() ; hit != TheEBRecHits->end() ; hit++ ) { // Arbitrary threshold to kill noise (needs to be optimized with data) if (hit->energy() < EBRecHitEnergyThreshold ) continue; // Get Det Id of the rechit DetId id = DetId(hit->id()); const CaloSubdetectorGeometry* TheSubGeometry = 0; const CaloCellGeometry* cell = 0 ; // Get EB geometry TheSubGeometry = TheCaloGeometry.getSubdetectorGeometry(DetId::Ecal, 1); EBDetId EcalID(id.rawId()); if( TheSubGeometry ) cell = TheSubGeometry->getGeometry(id); if(cell) { // GlobalPoint globalpos = cell->getPosition(); // float r = TMath::Sqrt ( globalpos.y()*globalpos.y() + globalpos.x()*globalpos.x()); int iPhi = EcalID.iphi(); if( iPhi < 361 ) // just to be safe { //iPhi = (iPhi-1)/5 +1; // convert ecal iphi to phiwedge iphi (e.g. there are 5 crystal per phi wedge, as in calotowers ) SumE[iPhi] += hit->energy(); NumHits[iPhi] ++; float time = hit->time(); MinTimeHits[iPhi] = time < MinTimeHits[iPhi] ? time : MinTimeHits[iPhi]; MaxTimeHits[iPhi] = time > MaxTimeHits[iPhi] ? time : MaxTimeHits[iPhi]; } } } //for( int iPhi = 1 ; iPhi < 73; iPhi++ ) for( int iPhi = 1 ; iPhi < 361; iPhi++ ) { if( SumE[iPhi] >= SumEnergyThreshold && NumHits[iPhi] > NHitsThreshold ) { // Build PhiWedge and store to EcalHaloData if energy or #hits pass thresholds PhiWedge wedge(SumE[iPhi], iPhi, NumHits[iPhi], MinTimeHits[iPhi], MaxTimeHits[iPhi]); // Loop over rechits again to calculate direction based on timing info // Loop over EB RecHits std::vector<const EcalRecHit*> Hits; for(EBRecHitCollection::const_iterator hit = TheEBRecHits->begin() ; hit != TheEBRecHits->end() ; hit++ ) { if (hit->energy() < EBRecHitEnergyThreshold ) continue; // Get Det Id of the rechit DetId id = DetId(hit->id()); EBDetId EcalID(id.rawId()); int Hit_iPhi = EcalID.iphi(); //Hit_iPhi = (Hit_iPhi-1)/5 +1; // convert ecal iphi to phiwedge iphi if( Hit_iPhi != iPhi ) continue; Hits.push_back( &(*hit) ); } std::sort( Hits.begin() , Hits.end(), CompareTime); float MinusToPlus = 0.; float PlusToMinus = 0.; for( unsigned int i = 0 ; i < Hits.size() ; i++ ) { DetId id_i = DetId(Hits[i]->id()); EBDetId EcalID_i(id_i.rawId()); int ieta_i = EcalID_i.ieta(); for( unsigned int j = (i+1) ; j < Hits.size() ; j++ ) { DetId id_j = DetId(Hits[j]->id() ); EBDetId EcalID_j(id_j.rawId()); int ieta_j = EcalID_j.ieta(); if( ieta_i > ieta_j ) PlusToMinus += TMath::Abs(ieta_j - ieta_i ); else MinusToPlus += TMath::Abs(ieta_j -ieta_i) ; } } float PlusZOriginConfidence = (PlusToMinus+MinusToPlus) ? PlusToMinus / (PlusToMinus+MinusToPlus) : -1.; wedge.SetPlusZOriginConfidence(PlusZOriginConfidence); TheEcalHaloData.GetPhiWedges().push_back(wedge); } } std::vector<float> vShowerShapes_Roundness; std::vector<float> vShowerShapes_Angle ; for(reco::SuperClusterCollection::const_iterator cluster = TheSuperClusters->begin() ; cluster != TheSuperClusters->end() ; cluster++ ) { if( abs(cluster->eta()) <= 1.48 ) { vector<float> shapes = EcalClusterTools::roundnessBarrelSuperClusters( *cluster, (*TheEBRecHits.product())); float roundness = shapes[0]; float angle = shapes[1]; // Check if supercluster belongs to photon and passes the cuts on roundness and angle, if so store the reference to it if( (roundness >=0 && roundness < GetRoundnessCut()) && angle >= 0 && angle < GetAngleCut() ) { edm::Ref<SuperClusterCollection> TheClusterRef( TheSuperClusters, cluster - TheSuperClusters->begin()); bool BelongsToPhoton = false; if( ThePhotons.isValid() ) { for(reco::PhotonCollection::const_iterator iPhoton = ThePhotons->begin() ; iPhoton != ThePhotons->end() ; iPhoton++ ) { if(iPhoton->isEB()) if ( TheClusterRef == iPhoton->superCluster() ) { BelongsToPhoton = true; break; } } } //Only store refs to suspicious EB SuperClusters which belong to Photons //Showershape variables are more discriminating for these cases if( BelongsToPhoton ) { TheEcalHaloData.GetSuperClusters().push_back( TheClusterRef ) ; } } vShowerShapes_Roundness.push_back(shapes[0]); vShowerShapes_Angle.push_back(shapes[1]); } else { vShowerShapes_Roundness.push_back(-1.); vShowerShapes_Angle.push_back(-1.); } } edm::ValueMap<float>::Filler TheRoundnessFiller( TheEcalHaloData.GetShowerShapesRoundness() ); TheRoundnessFiller.insert( TheSuperClusters, vShowerShapes_Roundness.begin(), vShowerShapes_Roundness.end() ); TheRoundnessFiller.fill(); edm::ValueMap<float>::Filler TheAngleFiller( TheEcalHaloData.GetShowerShapesAngle() ); TheAngleFiller.insert( TheSuperClusters, vShowerShapes_Angle.begin() , vShowerShapes_Angle.end() ); TheAngleFiller.fill(); return TheEcalHaloData; }
float EcalHaloAlgo::GetAngleCut | ( | ) | [inline] |
float EcalHaloAlgo::GetEBRecHitEnergyThreshold | ( | ) | [inline] |
Definition at line 70 of file EcalHaloAlgo.h.
References EBRecHitEnergyThreshold.
{ return EBRecHitEnergyThreshold;}
float EcalHaloAlgo::GetEERecHitEnergyThreshold | ( | ) | [inline] |
Definition at line 71 of file EcalHaloAlgo.h.
References EERecHitEnergyThreshold.
{ return EERecHitEnergyThreshold;}
float EcalHaloAlgo::GetESRecHitEnergyThreshold | ( | ) | [inline] |
Definition at line 72 of file EcalHaloAlgo.h.
References ESRecHitEnergyThreshold.
{ return ESRecHitEnergyThreshold;}
float EcalHaloAlgo::GetPhiWedgeEnergyThreshold | ( | ) | [inline] |
Definition at line 75 of file EcalHaloAlgo.h.
References SumEnergyThreshold.
{ return SumEnergyThreshold;}
int EcalHaloAlgo::GetPhiWedgeNHitsThreshold | ( | ) | [inline] |
float EcalHaloAlgo::GetRoundnessCut | ( | ) | [inline] |
void EcalHaloAlgo::SetAngleCut | ( | float | a = 4. | ) | [inline] |
Definition at line 55 of file EcalHaloAlgo.h.
Referenced by reco::EcalHaloDataProducer::produce().
void EcalHaloAlgo::SetPhiWedgeEnergyThreshold | ( | float | SumE | ) | [inline] |
Definition at line 60 of file EcalHaloAlgo.h.
References SumEnergyThreshold.
{ SumEnergyThreshold = SumE ;}
void EcalHaloAlgo::SetPhiWedgeNHitsThreshold | ( | int | nhits | ) | [inline] |
Definition at line 61 of file EcalHaloAlgo.h.
References NHitsThreshold.
{ NHitsThreshold = nhits ; }
void EcalHaloAlgo::SetPhiWedgeThresholds | ( | float | SumE, |
int | nhits | ||
) | [inline] |
Definition at line 62 of file EcalHaloAlgo.h.
References NHitsThreshold, and SumEnergyThreshold.
Referenced by reco::EcalHaloDataProducer::produce().
{ SumEnergyThreshold = SumE ; NHitsThreshold = nhits ;}
void EcalHaloAlgo::SetRecHitEnergyThresholds | ( | float | EB, |
float | EE, | ||
float | ES | ||
) | [inline] |
Definition at line 58 of file EcalHaloAlgo.h.
References EBRecHitEnergyThreshold, EERecHitEnergyThreshold, and ESRecHitEnergyThreshold.
Referenced by reco::EcalHaloDataProducer::produce().
{ EBRecHitEnergyThreshold = EB; EERecHitEnergyThreshold = EE ; ESRecHitEnergyThreshold = ES;}
void EcalHaloAlgo::SetRoundnessCut | ( | float | r = 100. | ) | [inline] |
Definition at line 53 of file EcalHaloAlgo.h.
References alignCSCRings::r, and RoundnessCut.
Referenced by reco::EcalHaloDataProducer::produce().
{ RoundnessCut=r; }
float EcalHaloAlgo::AngleCut [private] |
Definition at line 84 of file EcalHaloAlgo.h.
Referenced by GetAngleCut(), and SetAngleCut().
float EcalHaloAlgo::EBRecHitEnergyThreshold [private] |
Definition at line 87 of file EcalHaloAlgo.h.
Referenced by GetEBRecHitEnergyThreshold(), and SetRecHitEnergyThresholds().
float EcalHaloAlgo::EERecHitEnergyThreshold [private] |
Definition at line 88 of file EcalHaloAlgo.h.
Referenced by GetEERecHitEnergyThreshold(), and SetRecHitEnergyThresholds().
float EcalHaloAlgo::ESRecHitEnergyThreshold [private] |
Definition at line 89 of file EcalHaloAlgo.h.
Referenced by GetESRecHitEnergyThreshold(), and SetRecHitEnergyThresholds().
int EcalHaloAlgo::NHitsThreshold [private] |
Definition at line 93 of file EcalHaloAlgo.h.
Referenced by GetPhiWedgeNHitsThreshold(), SetPhiWedgeNHitsThreshold(), and SetPhiWedgeThresholds().
float EcalHaloAlgo::RoundnessCut [private] |
Definition at line 82 of file EcalHaloAlgo.h.
Referenced by GetRoundnessCut(), and SetRoundnessCut().
float EcalHaloAlgo::SumEnergyThreshold [private] |
Definition at line 92 of file EcalHaloAlgo.h.
Referenced by GetPhiWedgeEnergyThreshold(), SetPhiWedgeEnergyThreshold(), and SetPhiWedgeThresholds().