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// |
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// Electron |
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// |
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// Details to be worked out... |
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< |
// |
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// Authors: C.Loizides, J. Bendavid |
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// This class holds information about reconstructed electrons from CMSSW. |
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// |
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// Authors: C.Loizides, J.Bendavid, S.Xie |
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//-------------------------------------------------------------------------------------------------- |
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< |
#ifndef DATATREE_ELECTRON_H |
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< |
#define DATATREE_ELECTRON_H |
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#ifndef MITANA_DATATREE_ELECTRON_H |
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#define MITANA_DATATREE_ELECTRON_H |
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|
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< |
#include "MitAna/DataTree/interface/Lepton.h" |
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#include "MitAna/DataTree/interface/SuperCluster.h" |
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#include "MitAna/DataTree/interface/ChargedParticle.h" |
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#include "MitAna/DataCont/interface/Ref.h" |
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namespace mithep |
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{ |
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class Electron : public Lepton |
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class Electron : public ChargedParticle |
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{ |
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public: |
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< |
Electron() {} |
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Electron(Double_t px, Double_t py, Double_t pz, Double_t e) : Lepton(px,py,pz,e) {} |
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~Electron() {} |
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> |
Electron() : |
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fCharge(-99), fScPixCharge(0), |
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fESuperClusterOverP(0), fESeedClusterOverPout(0), fDeltaEtaSuperClTrkAtVtx(0), |
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fDeltaEtaSeedClTrkAtCalo(0), fDeltaPhiSuperClTrkAtVtx(0), |
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fDeltaPhiSeedClTrkAtCalo(0), fFBrem(0), fHadronicOverEm(0), fHcalDepth1OverEcal(0), |
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fHcalDepth2OverEcal(0), fNumberOfClusters(0), fE15(0), fE25Max(0), |
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fE55(0), fCovEtaEta(0), fCoviEtaiEta(0), |
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fCaloIsolation(0), fHcalJurassicIsolation(0), |
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fHcalDepth1TowerSumEtDr04(0), fHcalDepth2TowerSumEtDr04(0), |
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fEcalJurassicIsolation(0), fTrackIsolationDr04(0), fCaloTowerIsolation(0), |
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fHcalDepth1TowerSumEtDr03(0), fHcalDepth2TowerSumEtDr03(0), |
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fEcalRecHitSumEtDr03(0), fTrackIsolation(0), fPassLooseID(0), |
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fPassTightID(0), fIDLikelihood(0), fPIn(0), fPOut(0), fFracSharedHits(0), |
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fMva(0), fD0PV(0), fD0PVErr(0), fIp3dPV(0), fIp3dPVErr(0), |
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fD0PVBS(0), fD0PVBSErr(0), fIp3dPVBS(0), fIp3dPVBSErr(0), |
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fConvPartnerDCotTheta(0), fConvPartnerDist(0), fConvPartnerRadius(0), |
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fIsEnergyScaleCorrected(0), fIsMomentumCorrected(0), |
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fClassification(0), fIsEB(), fIsEE(0), fIsEBEEGap(0), fIsEBEtaGap(0), |
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fIsEBPhiGap(0), fIsEEDeeGap(0), fIsEERingGap(0), |
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fIsEcalDriven(0), fIsTrackerDriven(0) {} |
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> |
|
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> |
const Track *BestTrk() const; |
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> |
Double_t D0PV() const { return fD0PV; } |
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Double_t D0PVErr() const { return fD0PVErr; } |
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Double_t D0PVSignificance() const { return fD0PV/fD0PVErr; } |
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Double_t Ip3dPV() const { return fIp3dPV; } |
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Double_t Ip3dPVErr() const { return fIp3dPVErr; } |
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Double_t Ip3dPVSignificance() const { return fIp3dPV/fIp3dPVErr; } |
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Double_t D0PVBS() const { return fD0PVBS; } |
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Double_t D0PVBSErr() const { return fD0PVBSErr; } |
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Double_t D0PVBSSignificance() const { return fD0PVBS/fD0PVBSErr; } |
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Double_t Ip3dPVBS() const { return fIp3dPVBS; } |
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Double_t Ip3dPVBSErr() const { return fIp3dPVBSErr; } |
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Double_t Ip3dPVBSSignificance() const { return fIp3dPVBS/fIp3dPVBSErr; } |
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Double_t ConvPartnerDCotTheta() const { return fConvPartnerDCotTheta; } |
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Double_t ConvPartnerDist() const { return fConvPartnerDist; } |
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Double_t ConvPartnerRadius() const { return fConvPartnerRadius; } |
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Double_t CaloIsolation() const { return fCaloIsolation; } // *DEPRECATED* |
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Int_t Classification() const { return fClassification; } |
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Double_t CovEtaEta() const { return fCovEtaEta; } |
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Double_t CoviEtaiEta() const { return fCoviEtaiEta; } |
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Double_t DeltaEtaSuperClusterTrackAtVtx() const |
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{ return fDeltaEtaSuperClTrkAtVtx; } |
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Double_t DeltaEtaSeedClusterTrackAtCalo() const |
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{ return fDeltaEtaSeedClTrkAtCalo; } |
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Double_t DeltaPhiSuperClusterTrackAtVtx() const |
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{ return fDeltaPhiSuperClTrkAtVtx; } |
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Double_t DeltaPhiSeedClusterTrackAtCalo() const |
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{ return fDeltaPhiSeedClTrkAtCalo; } |
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Double_t E15() const { return fE15; } |
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Double_t E25Max() const { return fE25Max; } |
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Double_t E55() const { return fE55; } |
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Double_t ESuperClusterOverP() const { return fESuperClusterOverP; } |
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Double_t ESeedClusterOverPout() const { return fESeedClusterOverPout; } |
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Double_t ESeedClusterOverPIn() const; |
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Double_t FBrem() const { return fFBrem; } |
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Double_t FBremOld() const { return (PIn() - POut())/PIn(); } |
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Double_t FracSharedHits() const { return fFracSharedHits; } |
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const Track *GsfTrk() const { return fGsfTrackRef.Obj(); } |
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Double_t HadronicOverEm() const { return fHadronicOverEm; } |
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Double_t HcalDepth1OverEcal() const { return fHcalDepth1OverEcal; } |
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Double_t HcalDepth2OverEcal() const { return fHcalDepth2OverEcal; } |
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Bool_t HasGsfTrk() const { return fGsfTrackRef.IsValid(); } |
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Bool_t HasTrackerTrk() const { return fTrackerTrackRef.IsValid(); } |
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Bool_t HasSuperCluster() const { return fSuperClusterRef.IsValid(); } |
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Double_t HcalIsolation() const { return fHcalJurassicIsolation; } // *DEPRECATED* |
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Double_t IDLikelihood() const { return fIDLikelihood; } |
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Bool_t IsEnergyScaleCorrected() const { return fIsEnergyScaleCorrected; } |
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Bool_t IsMomentumCorrected() const { return fIsMomentumCorrected; } |
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Bool_t IsEB() const { return fIsEB; } |
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Bool_t IsEE() const { return fIsEE; } |
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Bool_t IsEBEEGap() const { return fIsEBEEGap; } |
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Bool_t IsEBEtaGap() const { return fIsEBEtaGap; } |
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Bool_t IsEBPhiGap() const { return fIsEBPhiGap; } |
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Bool_t IsEEDeeGap() const { return fIsEEDeeGap; } |
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Bool_t IsEERingGap() const { return fIsEERingGap; } |
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Bool_t IsEcalDriven() const { return fIsEcalDriven; } |
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Bool_t IsTrackerDriven() const { return fIsTrackerDriven; } |
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Double_t Mva() const { return fMva; } |
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Double_t NumberOfClusters() const { return fNumberOfClusters; } |
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EObjType ObjType() const { return kElectron; } |
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Double_t PassLooseID() const { return fPassLooseID; } |
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Double_t PassTightID() const { return fPassTightID; } |
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Double_t PIn() const { return fPIn; } |
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Double_t POut() const { return fPOut; } |
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const SuperCluster *SCluster() const { return fSuperClusterRef.Obj(); } |
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Double_t ScPixCharge() const { return fScPixCharge; } |
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|
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Double_t EcalRecHitIsoDr04() const { return fEcalJurassicIsolation; } |
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Double_t HcalTowerSumEtDr04() const { return HcalDepth1TowerSumEtDr04() + |
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HcalDepth2TowerSumEtDr04(); } |
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Double_t HcalDepth1TowerSumEtDr04() const { return fHcalDepth1TowerSumEtDr04; } |
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Double_t HcalDepth2TowerSumEtDr04() const { return fHcalDepth2TowerSumEtDr04; } |
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Double_t TrackIsolationDr04() const { return fTrackIsolationDr04; } |
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Double_t EcalRecHitIsoDr03() const { return fEcalRecHitSumEtDr03; } |
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Double_t HcalTowerSumEtDr03() const { return fCaloTowerIsolation; } |
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Double_t HcalDepth1TowerSumEtDr03() const { return fHcalDepth1TowerSumEtDr03; } |
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Double_t HcalDepth2TowerSumEtDr03() const { return fHcalDepth2TowerSumEtDr03; } |
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Double_t TrackIsolationDr03() const { return fTrackIsolation; } |
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ClassDef(Electron, 1) // Electron class |
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void SetCharge(Char_t x) { fCharge = x; ClearCharge(); } |
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void SetScPixCharge(Char_t x) { fScPixCharge = x; } |
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void SetD0PV(Double_t x) { fD0PV = x; } |
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void SetD0PVErr(Double_t x) { fD0PVErr = x; } |
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void SetIp3dPV(Double_t x) { fIp3dPV = x; } |
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void SetIp3dPVErr(Double_t x) { fIp3dPVErr = x; } |
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void SetD0PVBS(Double_t x) { fD0PVBS = x; } |
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void SetD0PVBSErr(Double_t x) { fD0PVBSErr = x; } |
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void SetIp3dPVBS(Double_t x) { fIp3dPVBS = x; } |
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void SetIp3dPVBSErr(Double_t x) { fIp3dPVBSErr = x; } |
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void SetConvPartnerDCotTheta(Double_t x) { fConvPartnerDCotTheta = x; } |
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void SetConvPartnerDist(Double_t x) { fConvPartnerDist = x; } |
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void SetConvPartnerRadius(Double_t x) { fConvPartnerRadius = x; } |
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void SetClassification(Int_t x) { fClassification = x; } |
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void SetCovEtaEta(Double_t CovEtaEta) { fCovEtaEta = CovEtaEta; } |
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void SetCoviEtaiEta(Double_t CoviEtaiEta) { fCoviEtaiEta = CoviEtaiEta; } |
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void SetDeltaEtaSuperClusterTrackAtVtx(Double_t x) |
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{ fDeltaEtaSuperClTrkAtVtx = x; } |
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void SetDeltaEtaSeedClusterTrackAtCalo(Double_t x) |
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{ fDeltaEtaSeedClTrkAtCalo = x; } |
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void SetDeltaPhiSuperClusterTrackAtVtx(Double_t x) |
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{ fDeltaPhiSuperClTrkAtVtx = x; } |
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void SetDeltaPhiSeedClusterTrackAtCalo(Double_t x) |
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{ fDeltaPhiSeedClTrkAtCalo = x; } |
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void SetE15(Double_t x) { fE15 = x; } |
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void SetE25Max(Double_t x) { fE25Max = x; } |
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void SetE55(Double_t x) { fE55 = x; } |
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void SetESeedClusterOverPout(Double_t x) { fESeedClusterOverPout = x; } |
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void SetESuperClusterOverP(Double_t x) { fESuperClusterOverP = x; } |
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void SetFBrem(Double_t x) { fFBrem = x; } |
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void SetFracSharedHits(Double_t x) { fFracSharedHits = x; } |
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void SetGsfTrk(const Track* t) |
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{ fGsfTrackRef = t; ClearCharge(); } |
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void SetHadronicOverEm(Double_t x) { fHadronicOverEm = x; } |
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void SetHcalDepth1OverEcal(Double_t x) { fHcalDepth1OverEcal = x; } |
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void SetHcalDepth2OverEcal(Double_t x) { fHcalDepth2OverEcal = x; } |
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void SetIDLikelihood(Double_t likelihood) { fIDLikelihood = likelihood; } |
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void SetIsEnergyScaleCorrected(Bool_t x) { fIsEnergyScaleCorrected = x; } |
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void SetIsMomentumCorrected(Bool_t x) { fIsMomentumCorrected = x; } |
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void SetNumberOfClusters(Double_t x) { fNumberOfClusters = x; } |
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void SetPIn(Double_t PIn) { fPIn = PIn; } |
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void SetPOut(Double_t POut) { fPOut = POut; } |
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void SetPassLooseID(Double_t passLooseID) { fPassLooseID = passLooseID; } |
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void SetPassTightID(Double_t passTightID) { fPassTightID = passTightID; } |
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void SetPtEtaPhi(Double_t pt, Double_t eta, Double_t phi); |
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void SetSuperCluster(const SuperCluster* sc) |
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{ fSuperClusterRef = sc; } |
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void SetTrackerTrk(const Track* t) |
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{ fTrackerTrackRef = t; ClearCharge(); } |
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void SetEcalRecHitIsoDr04(Double_t x) { fEcalJurassicIsolation = x; } |
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void SetHcalDepth1TowerSumEtDr04(Double_t x) { fHcalDepth1TowerSumEtDr04 = x; } |
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void SetHcalDepth2TowerSumEtDr04(Double_t x) { fHcalDepth2TowerSumEtDr04 = x; } |
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void SetTrackIsolationDr04(Double_t x) { fTrackIsolationDr04 = x; } |
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void SetEcalRecHitIsoDr03(Double_t x) { fEcalRecHitSumEtDr03 = x; } |
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void SetHcalTowerSumEtDr03(Double_t x) { fCaloTowerIsolation = x; } |
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void SetHcalDepth1TowerSumEtDr03(Double_t x) { fHcalDepth1TowerSumEtDr03 = x; } |
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void SetHcalDepth2TowerSumEtDr03(Double_t x) { fHcalDepth2TowerSumEtDr03 = x; } |
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void SetTrackIsolationDr03(Double_t x) { fTrackIsolation = x; } |
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void SetMva(Double_t x) { fMva = x; } |
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void SetIsEB(Bool_t b) { fIsEB = b; } |
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void SetIsEE(Bool_t b) { fIsEE = b; } |
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void SetIsEBEEGap(Bool_t b) { fIsEBEEGap = b; } |
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void SetIsEBEtaGap(Bool_t b) { fIsEBEtaGap = b; } |
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void SetIsEBPhiGap(Bool_t b) { fIsEBPhiGap = b; } |
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void SetIsEEDeeGap(Bool_t b) { fIsEEDeeGap = b; } |
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void SetIsEERingGap(Bool_t b) { fIsEERingGap = b; } |
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void SetIsEcalDriven(Bool_t b) { fIsEcalDriven = b; } |
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void SetIsTrackerDriven(Bool_t b) { fIsTrackerDriven = b; } |
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|
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|
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const Track *TrackerTrk() const { return fTrackerTrackRef.Obj(); } |
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const Track *Trk() const { return BestTrk(); } |
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> |
|
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protected: |
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> |
Double_t GetCharge() const; |
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> |
Double_t GetMass() const { return 0.51099892e-3; } |
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> |
void GetMom() const; |
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> |
|
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Vect3C fMom; //stored three-momentum |
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Char_t fCharge; //stored charge - filled with -99 when reading old files |
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Char_t fScPixCharge; //charge from supercluster-pixel matching |
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Ref<Track> fGsfTrackRef; //gsf track reference |
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Ref<Track> fTrackerTrackRef; //tracker track reference |
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Ref<SuperCluster> fSuperClusterRef; //reference to SuperCluster |
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> |
Double32_t fESuperClusterOverP; //[0,0,14]super cluster e over p ratio |
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> |
Double32_t fESeedClusterOverPout; //[0,0,14]seed cluster e over p mom |
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> |
Double32_t fDeltaEtaSuperClTrkAtVtx; //[0,0,14]delta eta of super cluster with trk |
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> |
Double32_t fDeltaEtaSeedClTrkAtCalo; //[0,0,14]delta eta of seeed cluster with trk |
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> |
Double32_t fDeltaPhiSuperClTrkAtVtx; //[0,0,14]delta phi of super cluster with trk |
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> |
Double32_t fDeltaPhiSeedClTrkAtCalo; //[0,0,14]delta phi of seeed cluster with trk |
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> |
Double32_t fFBrem; //[0,0,14]brem fraction |
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> |
Double32_t fHadronicOverEm; //[0,0,14]hadronic over em fraction *DEPRECATED* |
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> |
Double32_t fHcalDepth1OverEcal; //[0,0,14]hadronic over em fraction depth1 |
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> |
Double32_t fHcalDepth2OverEcal; //[0,0,14]hadronic over em fraction depth2 |
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> |
Double32_t fNumberOfClusters; //[0,0,14]number of associated clusters |
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> |
Double32_t fE15; //[0,0,14]1x5 crystal energy |
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> |
Double32_t fE25Max; //[0,0,14]2x5 crystal energy (max of two possible sums) |
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> |
Double32_t fE55; //[0,0,14]5x5 crystal energy |
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> |
Double32_t fCovEtaEta; //[0,0,14]variance eta-eta |
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> |
Double32_t fCoviEtaiEta; //[0,0,14]covariance eta-eta (in crystals) |
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> |
Double32_t fCaloIsolation; //[0,0,14](non-jura) ecal isolation based on rechits dR 0.3 *DEPRECATED* |
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> |
Double32_t fHcalJurassicIsolation; //[0,0,14]hcal jura iso dR 0.4 *DEPRECATED* |
| 226 |
> |
Double32_t fHcalDepth1TowerSumEtDr04; //[0,0,14]hcal depth1 tower based isolation dR 0.4 |
| 227 |
> |
Double32_t fHcalDepth2TowerSumEtDr04; //[0,0,14]hcal depth2 tower based isolation dR 0.4 |
| 228 |
> |
Double32_t fEcalJurassicIsolation; //[0,0,14]ecal jura iso dR 0.4 *RENAMING* |
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> |
Double32_t fTrackIsolationDr04; //[0,0,14]isolation based on tracks dR 0.4 |
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> |
Double32_t fCaloTowerIsolation; //[0,0,14]hcal tower based isolation dR 0.3 *DEPRECATED* |
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> |
Double32_t fHcalDepth1TowerSumEtDr03; //[0,0,14]hcal depth1 tower based isolation dR 0.3 |
| 232 |
> |
Double32_t fHcalDepth2TowerSumEtDr03; //[0,0,14]hcal depth2 tower based isolation dR 0.3 |
| 233 |
> |
Double32_t fEcalRecHitSumEtDr03; //[0,0,14]ecal jura iso dR 0.3 |
| 234 |
> |
Double32_t fTrackIsolation; //[0,0,14]isolation based on tracks dR 0.3 *RENAMING* |
| 235 |
> |
Double32_t fPassLooseID; //[0,0,14]pass loose id |
| 236 |
> |
Double32_t fPassTightID; //[0,0,14]pass tight id |
| 237 |
> |
Double32_t fIDLikelihood; //[0,0,14]likelihood value |
| 238 |
> |
Double32_t fPIn; //[0,0,14]momentum at vtx |
| 239 |
> |
Double32_t fPOut; //[0,0,14]momentum at ecal surface |
| 240 |
> |
Double32_t fFracSharedHits; //[0,0,14]fraction of shared hits btw gsf and std. track |
| 241 |
> |
Double32_t fMva; //[0,0,14] pflow mva output |
| 242 |
> |
Double32_t fD0PV; //[0,0,14]transverse impact parameter to signal PV |
| 243 |
> |
Double32_t fD0PVErr; //[0,0,14]transverse impact parameter uncertainty to signal PV |
| 244 |
> |
Double32_t fIp3dPV; //[0,0,14]3d impact parameter to signal PV |
| 245 |
> |
Double32_t fIp3dPVErr; //[0,0,14]3d impact parameter uncertainty to signal PV |
| 246 |
> |
Double32_t fD0PVBS; //[0,0,14]transverse impact parameter to signal PV w/ bs constraint |
| 247 |
> |
Double32_t fD0PVBSErr; //[0,0,14]transverse impact parameter uncertainty to signal PV w/ bs constraint |
| 248 |
> |
Double32_t fIp3dPVBS; //[0,0,14]3d impact parameter to signal PV w/ bs constraint |
| 249 |
> |
Double32_t fIp3dPVBSErr; //[0,0,14]3d impact parameter uncertainty to signal PV w/ bs constraint |
| 250 |
> |
Double32_t fConvPartnerDCotTheta; //[0,0,14]delta cot theta to nearest conversion partner track |
| 251 |
> |
Double32_t fConvPartnerDist; //[0,0,14]distance in x-y plane to nearest conversion partner track |
| 252 |
> |
Double32_t fConvPartnerRadius; //[0,0,14]radius of helix intersection with conversion partner track |
| 253 |
> |
Bool_t fIsEnergyScaleCorrected; //class dependent escale correction |
| 254 |
> |
Bool_t fIsMomentumCorrected; //class dependent E-p combination |
| 255 |
> |
Int_t fClassification; //classification (see GsfElectron.h) |
| 256 |
> |
Bool_t fIsEB; //is ECAL barrel |
| 257 |
> |
Bool_t fIsEE; //is ECAL Endcap |
| 258 |
> |
Bool_t fIsEBEEGap; //is in barrel-endcap gap |
| 259 |
> |
Bool_t fIsEBEtaGap; //is in EB eta module gap |
| 260 |
> |
Bool_t fIsEBPhiGap; //is in EB phi module gap |
| 261 |
> |
Bool_t fIsEEDeeGap; //is in EE dee gap |
| 262 |
> |
Bool_t fIsEERingGap; //is in EE ring gap |
| 263 |
> |
Bool_t fIsEcalDriven; //is std. egamma electron |
| 264 |
> |
Bool_t fIsTrackerDriven; //is pflow track-seeded electron |
| 265 |
> |
|
| 266 |
> |
ClassDef(Electron, 4) // Electron class |
| 267 |
|
}; |
| 268 |
|
} |
| 269 |
+ |
|
| 270 |
+ |
//-------------------------------------------------------------------------------------------------- |
| 271 |
+ |
inline const mithep::Track *mithep::Electron::BestTrk() const |
| 272 |
+ |
{ |
| 273 |
+ |
// Return "best" track. |
| 274 |
+ |
|
| 275 |
+ |
if (HasGsfTrk()) |
| 276 |
+ |
return GsfTrk(); |
| 277 |
+ |
else if (HasTrackerTrk()) |
| 278 |
+ |
return TrackerTrk(); |
| 279 |
+ |
|
| 280 |
+ |
return 0; |
| 281 |
+ |
} |
| 282 |
+ |
|
| 283 |
+ |
//-------------------------------------------------------------------------------------------------- |
| 284 |
+ |
inline Double_t mithep::Electron::GetCharge() const |
| 285 |
+ |
{ |
| 286 |
+ |
// Return stored charge, unless it is set to invalid (-99), |
| 287 |
+ |
// in that case get charge from track as before |
| 288 |
+ |
|
| 289 |
+ |
if (fCharge==-99) |
| 290 |
+ |
return mithep::ChargedParticle::GetCharge(); |
| 291 |
+ |
else |
| 292 |
+ |
return fCharge; |
| 293 |
+ |
|
| 294 |
+ |
} |
| 295 |
+ |
|
| 296 |
+ |
//-------------------------------------------------------------------------------------------------- |
| 297 |
+ |
inline void mithep::Electron::GetMom() const |
| 298 |
+ |
{ |
| 299 |
+ |
// Get momentum of the electron. We use an explicitly stored three vector, with the pdg mass, |
| 300 |
+ |
// since the momentum vector may be computed non-trivially in cmssw |
| 301 |
+ |
|
| 302 |
+ |
fCachedMom.SetCoordinates(fMom.Rho(),fMom.Eta(),fMom.Phi(),GetMass()); |
| 303 |
+ |
} |
| 304 |
+ |
|
| 305 |
+ |
//------------------------------------------------------------------------------------------------- |
| 306 |
+ |
inline Double_t mithep::Electron::ESeedClusterOverPIn() const |
| 307 |
+ |
{ |
| 308 |
+ |
// Return energy of the SuperCluster seed divided by the magnitude |
| 309 |
+ |
// of the track momentum at the vertex. |
| 310 |
+ |
|
| 311 |
+ |
return SCluster()->Seed()->Energy() / PIn(); |
| 312 |
+ |
} |
| 313 |
+ |
|
| 314 |
+ |
//------------------------------------------------------------------------------------------------- |
| 315 |
+ |
inline void mithep::Electron::SetPtEtaPhi(Double_t pt, Double_t eta, Double_t phi) |
| 316 |
+ |
{ |
| 317 |
+ |
// Set three-vector |
| 318 |
+ |
|
| 319 |
+ |
fMom.Set(pt,eta,phi); |
| 320 |
+ |
ClearMom(); |
| 321 |
+ |
} |
| 322 |
|
#endif |
