ElectronMuonTopoInfo.h

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/*
  Copyright (C) 2002-2023 CERN for the benefit of the ATLAS collaboration
*/
 
/**************************************************************************
 **
 **   File: Trigger/TrigEvent/TrigTopoEvent/ElectronMuonTopoInfo.h
 **
 **   Description: -Class for description of combined electron-muon object for 
 **         algorithms in TrigEgammaMuonCombHypo package
 **
 **   Author: Pavel Jez <pavel.jez@cern.ch>
 **
 **   Created:   Apr 9, 2011
 **
 **
 **************************************************************************/ 
 
#ifndef _ELECTRONMUONTOPOINFO_H_ 
#define _ELECTRONMUONTOPOINFO_H_
 
// standard stuff
#include <string>
#include <map>
#include <cmath> 
// general athena stuff
#include "GaudiKernel/MsgStream.h"
 
#include "TrigParticle/TrigElectron.h"
#include "TrigParticle/TrigTau.h"
#include "TrigMuonEvent/CombinedMuonFeature.h"
#include "egammaEvent/egammaContainer.h"
 
#include "tauEvent/TauJetContainer.h"
#include "tauEvent/TauJet.h"
#include "tauEvent/TauDetailsContainer.h"
#include "tauEvent/TauCommonDetails.h"
#include "tauEvent/TauCommonExtraDetails.h"
#include "tauEvent/TauPID.h"
 
 

 
class ElectronMuonTopoInfo  {
  
  public:
    ElectronMuonTopoInfo();
    ElectronMuonTopoInfo(int roiWord, float deltaPhi=-1., float deltaR = -1., float invMass = -1., bool el_valid = false, bool oppositeCharge = 0, unsigned short vertexState =0);
    
    ~ElectronMuonTopoInfo();
    
    
 
  int   RoiWord()  const { return m_roiWord;    }
  float DeltaPhi() const { return m_DeltaPhi;   }
  float DeltaR()   const { return m_DeltaR;       }
  float InvMass()  const { return m_InvMass;    }
  bool  ElecValid() const{ return m_electronValid; }
  bool  OppositeCharge() const { return m_oppositeCharge; }
  unsigned short VertexState() const { return m_vertexState;}
  
  
  void  SetRoiWord(int RoiWord);
  void  SetDeltaPhi(float DeltaPhi);
  void  SetDeltaR(float DeltaR);
  void  SetInvMass(float InvMass);
  void  SetElecValid(bool ElecValid);
  void  SetOppositeCharge(bool OppositeCharge); 
  void  SetVertexState(unsigned short vextexState);
  
  
  
  
  enum Vertex {  Common, NotCommon, Unapplicable }; 
  Vertex commonVertex(const TrigElectron* electron1, const CombinedMuonFeature* muon1); 
  bool opositeCharge(const TrigElectron* electron1, const CombinedMuonFeature* muon1); 
 
  double invariantMass(const TrigElectron* electron1, const CombinedMuonFeature* muon1); 
  double deltaPhi(const TrigElectron* electron1, const CombinedMuonFeature* muon1); 
  double deltaR(const TrigElectron* electron1, const CombinedMuonFeature* muon1); 
 
  //overloading for L2 tau tau combinations
  double invariantMass(const TrigTau* tau1, const TrigTau* tau2); 
  double deltaPhi(const TrigTau* tau1, const TrigTau* tau2); 
  double deltaR(const TrigTau* tau1, const TrigTau* tau2); 
  //overloading for L2 tau e combinations
  double invariantMass(const TrigTau* tau1, const TrigElectron* electron1); 
  double deltaPhi(const TrigTau* tau1, const TrigElectron* electron1); 
  double deltaR(const TrigTau* tau1, const TrigElectron* electron1); 
  //overloading for L2 tau mu combinations
  double invariantMass(const TrigTau* tau1, const CombinedMuonFeature* muon1); 
  double deltaPhi(const TrigTau* tau1, const CombinedMuonFeature* muon1); 
  double deltaR(const TrigTau* tau1, const CombinedMuonFeature* muon1); 
 
 
  // overloading for EF
  Vertex commonVertex(const Trk::Perigee* perigeeEL, const Trk::Perigee* perigeeMU, double& pull, bool debug = false);
 
  bool opositeCharge(const egamma* electron1, const Trk::Perigee* muon1);
  double invariantMass(const egamma* electron1, const Trk::Perigee* muon1);
  double deltaR(const egamma* electron1, const Trk::Perigee* muon1);
  double deltaPhi(const egamma* electron1, const Trk::Perigee* muon1);
 
  double invariantMass(double Pt1, double  eta1, double phi1,  double m1,
               double Pt2, double  eta2, double phi2,  double m2) const ;
 
  // overloading for EF tau tau combinations
  double deltaR(const Analysis::TauJet* tau1, const Analysis::TauJet* tau2);
  double deltaPhi(const Analysis::TauJet* tau1, const Analysis::TauJet* tau2);
  double invariantMass(const Analysis::TauJet* tau1, const Analysis::TauJet* tau2);
  // overloading for EF tau e combinations
  double deltaR(const Analysis::TauJet* tau1, const egamma* electron1);
  double deltaPhi(const Analysis::TauJet* tau1, const egamma* electron1);
  double invariantMass(const Analysis::TauJet* tau1, const egamma* electron1);
  // overloading for EF tau mu combinations
  double deltaR(const Analysis::TauJet* tau1, const Trk::Perigee* muon1);
  double deltaPhi(const Analysis::TauJet* tau1, const Trk::Perigee* muon1);
  double invariantMass(const Analysis::TauJet* tau1, const Trk::Perigee* muon1);
  
 
  private:
  int  m_roiWord;
  float m_DeltaPhi;
  float m_DeltaR;
  float m_InvMass;
  bool  m_electronValid;
  bool  m_oppositeCharge;
  unsigned short m_vertexState;
  
};

std::string str( const ElectronMuonTopoInfo& d );
 
MsgStream& operator<< ( MsgStream& m, const ElectronMuonTopoInfo& d );
    
// comparison operators
bool operator==( const ElectronMuonTopoInfo& d1,  const ElectronMuonTopoInfo& d2 );
inline bool operator!=( const ElectronMuonTopoInfo& d1,  const ElectronMuonTopoInfo& d2 ) {
  return !( d1 == d2 ); 
    }
 
 
CLASS_DEF( ElectronMuonTopoInfo , 129722551 , 1 )
  
  
#endif //ELECTRONMUONTOPOINFO_H_