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bendavid |
1.1 |
//--------------------------------------------------------------------------------------------------
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paus |
1.8 |
// $Id: CaloJet.h,v 1.7 2012/03/28 12:15:34 paus Exp $
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bendavid |
1.1 |
//
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// CaloJet
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//
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loizides |
1.3 |
// This class holds information about reconstructed jet based on calorimeter towers.
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bendavid |
1.1 |
//
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paus |
1.7 |
// Authors: S.Xie, C.Loizides, J.Bendavid, C.Paus
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bendavid |
1.1 |
//--------------------------------------------------------------------------------------------------
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#ifndef MITANA_DATATREE_CALOJET_H
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#define MITANA_DATATREE_CALOJET_H
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#include "MitAna/DataTree/interface/Jet.h"
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#include "MitAna/DataCont/interface/RefArray.h"
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#include "MitAna/DataTree/interface/CaloTower.h"
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namespace mithep
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{
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class CaloJet : public Jet
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{
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public:
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CaloJet() : fMaxEInEmTowers(0), fMaxEInHadTowers(0), fEnergyFractionH(0),
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fEnergyFractionEm(0), fHadEnergyInHB(0), fHadEnergyInHO(0), fHadEnergyInHE(0),
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fHadEnergyInHF(0), fEmEnergyInEB(0), fEmEnergyInEE(0), fEmEnergyInHF(0),
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bendavid |
1.6 |
fTowersArea(0), fHPD(0), fRBX(0), fN90Hits(0), fSubDetector1(0), fSubDetector2(0),
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fSubDetector3(0), fSubDetector4(0), fRestrictedEMF(0), fNHCalTowers(0),
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fNECalTowers(0), fApproximatefHPD(0), fApproximatefRBX(0), fHitsInN90(0),
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fNHits2RPC(0), fNHits3RPC(0), fNHitsRPC(0) {}
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bendavid |
1.1 |
CaloJet(Double_t px, Double_t py, Double_t pz, Double_t e) :
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Jet(px,py,pz,e),
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fMaxEInEmTowers(0), fMaxEInHadTowers(0), fEnergyFractionH(0),
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fEnergyFractionEm(0), fHadEnergyInHB(0), fHadEnergyInHO(0), fHadEnergyInHE(0),
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fHadEnergyInHF(0), fEmEnergyInEB(0), fEmEnergyInEE(0), fEmEnergyInHF(0),
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bendavid |
1.6 |
fTowersArea(0), fHPD(0), fRBX(0), fN90Hits(0), fSubDetector1(0), fSubDetector2(0),
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fSubDetector3(0), fSubDetector4(0), fRestrictedEMF(0), fNHCalTowers(0),
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fNECalTowers(0), fApproximatefHPD(0), fApproximatefRBX(0), fHitsInN90(0),
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fNHits2RPC(0), fNHits3RPC(0), fNHitsRPC(0) {}
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bendavid |
1.1 |
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loizides |
1.3 |
void AddTower(const CaloTower *t) { fTowers.Add(t); }
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Bool_t HasTower(const CaloTower *t) const { return fTowers.HasObject(t); }
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loizides |
1.4 |
UInt_t NTowers() const { return fTowers.Entries(); }
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loizides |
1.3 |
const CaloTower *Tower(UInt_t i) const { return fTowers.At(i); }
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UInt_t NConstituents() const { return NTowers(); }
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EObjType ObjType() const { return kCaloJet; }
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Double_t EmEnergyInEB() const { return fEmEnergyInEB; }
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Double_t EmEnergyInEE() const { return fEmEnergyInEE; }
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Double_t EmEnergyInHF() const { return fEmEnergyInHF; }
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Double_t EnergyFractionH() const { return fEnergyFractionH; }
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Double_t EnergyFractionEm() const { return fEnergyFractionEm; }
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Double_t HadEnergyInHO() const { return fHadEnergyInHO; }
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Double_t HadEnergyInHB() const { return fHadEnergyInHB; }
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Double_t HadEnergyInHF() const { return fHadEnergyInHF; }
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Double_t HadEnergyInHE() const { return fHadEnergyInHE; }
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bendavid |
1.5 |
Jet *MakeCopy() const { return new CaloJet(*this); }
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loizides |
1.3 |
Double_t MaxEInEmTowers() const { return fMaxEInEmTowers; }
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Double_t MaxEInHadTowers() const { return fMaxEInHadTowers; }
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void SetEmEnergyInEB(Double_t val) { fEmEnergyInEB = val; }
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void SetEmEnergyInEE(Double_t val) { fEmEnergyInEE = val; }
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void SetEmEnergyInHF(Double_t val) { fEmEnergyInHF = val; }
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void SetEnergyFractionH(Double_t val) { fEnergyFractionH = val; }
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void SetEnergyFractionEm(Double_t val) { fEnergyFractionEm = val; }
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void SetHadEnergyInHO(Double_t val) { fHadEnergyInHO = val; }
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void SetHadEnergyInHB(Double_t val) { fHadEnergyInHB = val; }
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void SetHadEnergyInHF(Double_t val) { fHadEnergyInHF = val; }
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void SetHadEnergyInHE(Double_t val) { fHadEnergyInHE = val; }
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void SetMaxEInEmTowers(Double_t val) { fMaxEInEmTowers = val; }
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void SetMaxEInHadTowers(Double_t val) { fMaxEInHadTowers = val; }
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void SetTowersArea(Double_t val) { fTowersArea = val; }
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bendavid |
1.6 |
void SetFHPD(Double_t val) { fHPD = val; }
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void SetFRBX(Double_t val) { fRBX = val; }
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void SetN90Hits(Int_t val) { fN90Hits = val; }
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void SetFSubDetector1(Double_t val) { fSubDetector1 = val; }
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void SetFSubDetector2(Double_t val) { fSubDetector2 = val; }
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void SetFSubDetector3(Double_t val) { fSubDetector3 = val; }
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void SetFSubDetector4(Double_t val) { fSubDetector4 = val; }
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void SetRestrictedEMF(Double_t val) { fRestrictedEMF = val; }
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void SetNHCalTowers(Int_t val) { fNHCalTowers = val; }
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void SetNECalTowers(Int_t val) { fNECalTowers = val; }
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void SetApproximatefHPD(Double_t val) { fApproximatefHPD = val; }
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void SetApproximatefRBX(Double_t val) { fApproximatefRBX = val; }
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void SetHitsInN90(Int_t val) { fHitsInN90 = val; }
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void SetNHits2RPC(Int_t val) { fNHits2RPC = val; }
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void SetNHits3RPC(Int_t val) { fNHits3RPC = val; }
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void SetNHitsRPC(Int_t val) { fNHitsRPC = val; }
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loizides |
1.3 |
Double_t TowersArea() const { return fTowersArea; }
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bendavid |
1.6 |
Double_t FHPD() const { return fHPD; }
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Double_t FRBX() const { return fRBX; }
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UInt_t N90Hits() const { return fN90Hits; }
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Double_t FSubDetector1() const { return fSubDetector1; }
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Double_t FSubDetector2() const { return fSubDetector2; }
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Double_t FSubDetector3() const { return fSubDetector3; }
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Double_t FSubDetector4() const { return fSubDetector4; }
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Double_t RestrictedEMF() const { return fRestrictedEMF; }
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UInt_t NHCalTowers() const { return fNHCalTowers; }
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UInt_t NECalTowers() const { return fNECalTowers; }
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Double_t ApproximatefHPD() const { return fApproximatefHPD; }
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Double_t ApproximatefRBX() const { return fApproximatefRBX; }
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UInt_t HitsInN90() const { return fHitsInN90; }
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UInt_t NHits2RPC() const { return fNHits2RPC; }
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UInt_t NHits3RPC() const { return fNHits3RPC; }
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UInt_t NHitsRPC() const { return fNHitsRPC; }
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paus |
1.7 |
// Some structural tools
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paus |
1.8 |
void Mark(UInt_t i = 1) const;
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bendavid |
1.1 |
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protected:
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loizides |
1.3 |
Double32_t fMaxEInEmTowers; //[0,0,14]maximum energy in EM towers
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Double32_t fMaxEInHadTowers; //[0,0,14]maximum energy in HCAL towers
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Double32_t fEnergyFractionH; //[0,0,14]hadronic energy fraction
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Double32_t fEnergyFractionEm; //[0,0,14]electromagnetic energy fraction
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Double32_t fHadEnergyInHB; //[0,0,14]hadronic energy in HB
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Double32_t fHadEnergyInHO; //[0,0,14]hadronic energy in HO
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Double32_t fHadEnergyInHE; //[0,0,14]hadronic energy in HE
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Double32_t fHadEnergyInHF; //[0,0,14]hadronic energy in HF
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Double32_t fEmEnergyInEB; //[0,0,14]electromagnetic energy in EB
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Double32_t fEmEnergyInEE; //[0,0,14]electromagnetic energy in EE
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Double32_t fEmEnergyInHF; //[0,0,14]electromagnetic energy extracted from HF
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Double32_t fTowersArea; //[0,0,14]area of contributing towers
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bendavid |
1.6 |
Double32_t fHPD; //[0,0,14]energy from hottest hpd
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Double32_t fRBX; //[0,0,14]energy fraction from hottest rbx
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Int_t fN90Hits; //number of hits comprising 90 percent of the energy
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Double32_t fSubDetector1; //[0,0,14]
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Double32_t fSubDetector2; //[0,0,14]
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Double32_t fSubDetector3; //[0,0,14]
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Double32_t fSubDetector4; //[0,0,14]
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Double32_t fRestrictedEMF; //[0,0,14]
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Int_t fNHCalTowers;
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Int_t fNECalTowers;
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Double32_t fApproximatefHPD; //[0,0,14]
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Double32_t fApproximatefRBX; //[0,0,14]
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Int_t fHitsInN90;
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Int_t fNHits2RPC;
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Int_t fNHits3RPC;
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Int_t fNHitsRPC;
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loizides |
1.3 |
RefArray<CaloTower> fTowers; //calotowers in jet
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bendavid |
1.1 |
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bendavid |
1.6 |
ClassDef(CaloJet, 2) // CaloJet class
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bendavid |
1.1 |
};
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}
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paus |
1.7 |
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//--------------------------------------------------------------------------------------------------
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paus |
1.8 |
inline void mithep::CaloJet::Mark(UInt_t i) const
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paus |
1.7 |
{
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// mark myself
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paus |
1.8 |
mithep::DataObject::Mark(i);
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paus |
1.7 |
// mark my dependencies if they are there
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paus |
1.8 |
fTowers.Mark(i);
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paus |
1.7 |
}
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bendavid |
1.1 |
#endif
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