[u/mrichter/AliRoot.git] / PWG / CaloTrackCorrBase / AliCaloPID.h

#ifndef ALICALOPID_H
#define ALICALOPID_H
/* Copyright(c) 1998-1999, ALICE Experiment at CERN, All rights reserved. *
 * See cxx source for full Copyright notice     */

//_________________________________________________________________________
// Class for PID selection with calorimeters
// The Output of the main method GetIdentifiedParticleType is a PDG number identifying the cluster, 
// being kPhoton, kElectron, kPi0 ... as defined in the header file
//   - GetIdentifiedParticleType(const AliVCluster * cluster) 
//      Assignes a PID tag to the cluster, right now there is the possibility to : use bayesian weights from reco, 
//      recalculate them (EMCAL) or use other procedures not used in reco.
//      In order to recalculate Bayesian, it is necessary to load the EMCALUtils library
//      and do SwitchOnBayesianRecalculation().
//      To change the PID parameters from Low to High like the ones by default, use the constructor 
//      AliCaloPID(flux)
//      where flux is AliCaloPID::kLow or AliCaloPID::kHigh
//      If it is necessary to change the parameters use the constructor 
//      AliCaloPID(AliEMCALPIDUtils *utils) and set the parameters before.

//   - GetGetIdentifiedParticleTypeFromBayesian(const Double_t * pid, const Float_t energy)
//      Reads the PID weights array of the ESDs and depending on its magnitude identifies the particle, 
//      executed when bayesian is ON by GetIdentifiedParticleType(const AliVCluster * cluster) 
//   - SetPIDBits: Simple PID, depending on the thresholds fLOCut fTOFCut and even the
//     result of the PID bayesian a different PID bit is set. 
//
//
//*-- Author: Gustavo Conesa (INFN-LNF)

// --- ROOT system ---
#include <TObject.h> 
class TString ;
class TLorentzVector ;
#include <TFormula.h>
class TList;
class TH2F ;

//--- AliRoot system ---
class AliVCluster;
class AliVCaloCells;
class AliAODPWG4Particle;
class AliEMCALPIDUtils;
class AliCalorimeterUtils;
class AliVEvent;

class AliCaloPID : public TObject {
	
 public: 
  
  AliCaloPID() ; // ctor
  AliCaloPID(const Int_t particleFlux) ; // ctor, to be used when recalculating bayesian PID
  AliCaloPID(const TNamed * emcalpid) ; // ctor, to be used when recalculating bayesian PID and need different parameters
  virtual ~AliCaloPID() ;//virtual dtor
  	
  enum PidType 
  {
    kPhoton         = 22,
    kPi0            = 111,
    kEta            = 221, 
    kElectron       = 11, 
    kEleCon         =-11, 
    kNeutralHadron  = 2112, 
    kChargedHadron  = 211, 
    kNeutralUnknown = 130, 
    kChargedUnknown = 321
  };
  
  enum TagType {kPi0Decay, kEtaDecay, kOtherDecay, kConversion, kNoTag = -1};
  
  // Main methods
  
  TList *   GetCreateOutputObjects();

  void      InitParameters();
  
  Bool_t    IsInPi0SplitAsymmetryRange(const Float_t energy, const Float_t asy,  const Int_t nlm);

  Bool_t    IsInPi0SplitMassRange     (const Float_t energy, const Float_t mass, const Int_t nlm);
  
  Bool_t    IsInMergedM02Range        (const Float_t energy, const Float_t m02,  const Int_t nlm);
  
  
  Int_t     GetIdentifiedParticleTypeFromBayesWeights(const Bool_t isEMCAL, const Double_t * pid, const Float_t energy) ;

  Int_t     GetIdentifiedParticleTypeFromClusterSplitting(AliVCluster * cluster, AliVCaloCells* cells, 
                                                          AliCalorimeterUtils * caloutils,
                                                          Double_t vertex[3], 
                                                          Int_t & nLocMax, Double_t & mass, Double_t & angle,
                                                          Double_t & e1  , Double_t & e2                     ) ;
  
  Int_t     GetIdentifiedParticleType(const AliVCluster * cluster) ;
  
  TString   GetPIDParametersList();
  
  Bool_t    IsTrackMatched(AliVCluster * cluster, AliCalorimeterUtils* cu, AliVEvent* event) const ;    
  
  void      SetPIDBits(AliVCluster * cluster, AliAODPWG4Particle *aodph, 
                       AliCalorimeterUtils* cu, AliVEvent* event);
  
  void      Print(const Option_t * opt)const;
  
  void      PrintClusterPIDWeights(const Double_t * pid) const;
  
  //Check if cluster photon-like. Uses photon cluster parameterization in real pp data 
  //Returns distance in sigmas. Recommended cut 2.5
  Float_t TestPHOSDispersion(const Double_t pt, const Double_t m20, const Double_t m02) const ; 
  //Checks distance to the closest track. Takes into account 
  //non-perpendicular incidence of tracks.
  Float_t TestPHOSChargedVeto(const Double_t dx,  const Double_t dz, const Double_t ptTrack, 
                              const Int_t chargeTrack, const Double_t mf) const ;
  
  // Setters, getters
  
  void    SetDebug(Int_t deb)                  { fDebug = deb                 ; }
  Int_t   GetDebug()                     const { return fDebug                ; }	

  enum    eventType{kLow,kHigh};
  void    SetLowParticleFlux()                 { fParticleFlux        = kLow  ; }
  void    SetHighParticleFlux()                { fParticleFlux        = kHigh ; }  
  // not really used, only for bayesian recalculation in EMCAL, but could be useful in future
  
  // Bayesian
  
  void    SwitchOnBayesian()                   { fUseBayesianWeights  = kTRUE ; }
  void    SwitchOffBayesian()                  { fUseBayesianWeights  = kFALSE; }
  void    SwitchOnBayesianRecalculation()      { fRecalculateBayesian = kTRUE ; fUseBayesianWeights  = kTRUE ;} // EMCAL
  void    SwitchOffBayesianRecalculation()     { fRecalculateBayesian = kFALSE; } // EMCAL
  
  AliEMCALPIDUtils * GetEMCALPIDUtils() ; 
  
  //Weight getters
  Float_t GetEMCALPhotonWeight()         const { return fEMCALPhotonWeight    ; }
  Float_t GetEMCALPi0Weight()            const { return fEMCALPi0Weight       ; }
  Float_t GetEMCALElectronWeight()       const { return fEMCALElectronWeight  ; }
  Float_t GetEMCALChargeWeight()         const { return fEMCALChargeWeight    ; }
  Float_t GetEMCALNeutralWeight()        const { return fEMCALNeutralWeight   ; }
  Float_t GetPHOSPhotonWeight()          const { return fPHOSPhotonWeight     ; }
  Float_t GetPHOSPi0Weight()             const { return fPHOSPi0Weight        ; }
  Float_t GetPHOSElectronWeight()        const { return fPHOSElectronWeight   ; }
  Float_t GetPHOSChargeWeight()          const { return fPHOSChargeWeight     ; }
  Float_t GetPHOSNeutralWeight()         const { return fPHOSNeutralWeight    ; }
  
  Bool_t  IsPHOSPIDWeightFormulaOn()     const { return fPHOSWeightFormula    ; } 

  TFormula * GetPHOSPhotonWeightFormula()      { 
    if(!fPHOSPhotonWeightFormula) 
      fPHOSPhotonWeightFormula = new TFormula("phos_photon_weight",
                                              fPHOSPhotonWeightFormulaExpression);
    return fPHOSPhotonWeightFormula                                           ; } 
  
  TFormula * GetPHOSPi0WeightFormula()         { 
    if(!fPHOSPi0WeightFormula) 
      fPHOSPi0WeightFormula = new TFormula("phos_pi0_weight",
                                           fPHOSPi0WeightFormulaExpression);
    return fPHOSPi0WeightFormula                                              ; } 
  
  TString  GetPHOSPhotonWeightFormulaExpression() const { return fPHOSPhotonWeightFormulaExpression ; } 
  TString  GetPHOSPi0WeightFormulaExpression()    const { return fPHOSPi0WeightFormulaExpression    ; } 
  
  //Weight setters
  void    SetEMCALPhotonWeight  (Float_t  w)   { fEMCALPhotonWeight   = w     ; }
  void    SetEMCALPi0Weight     (Float_t  w)   { fEMCALPi0Weight      = w     ; }
  void    SetEMCALElectronWeight(Float_t  w)   { fEMCALElectronWeight = w     ; }
  void    SetEMCALChargeWeight  (Float_t  w)   { fEMCALChargeWeight   = w     ; }
  void    SetEMCALNeutralWeight (Float_t  w)   { fEMCALNeutralWeight  = w     ; }
  void    SetPHOSPhotonWeight   (Float_t  w)   { fPHOSPhotonWeight    = w     ; }
  void    SetPHOSPi0Weight      (Float_t  w)   { fPHOSPi0Weight       = w     ; }
  void    SetPHOSElectronWeight (Float_t  w)   { fPHOSElectronWeight  = w     ; }
  void    SetPHOSChargeWeight   (Float_t  w)   { fPHOSChargeWeight    = w     ; }
  void    SetPHOSNeutralWeight  (Float_t  w)   { fPHOSNeutralWeight   = w     ; }
  
  void    UsePHOSPIDWeightFormula   (Bool_t ok )           { fPHOSWeightFormula                 = ok ; } 
  void    SetPHOSPhotonWeightFormulaExpression(TString ph) { fPHOSPhotonWeightFormulaExpression = ph ; } 
  void    SetPHOSPi0WeightFormulaExpression   (TString pi) { fPHOSPi0WeightFormulaExpression    = pi ; }
  
  //PID cuts 
  
  void    SetEMCALLambda0CutMax(Float_t lcut ) { fEMCALL0CutMax     = lcut    ; }
  Float_t GetEMCALLambda0CutMax()        const { return fEMCALL0CutMax        ; }   
  
  void    SetEMCALLambda0CutMin(Float_t lcut ) { fEMCALL0CutMin     = lcut    ; }
  Float_t GetEMCALLambda0CutMin()        const { return fEMCALL0CutMin        ; }   
  
  void    SetEMCALDEtaCut(Float_t dcut )       { fEMCALDEtaCut      = dcut    ; }
  Float_t GetEMCALDEtaCut()              const { return fEMCALDEtaCut         ; }   
  
  void    SetEMCALDPhiCut(Float_t dcut )       { fEMCALDPhiCut      = dcut    ; }
  Float_t GetEMCALDPhiCut()              const { return fEMCALDPhiCut         ; }   
  
  void    SetTOFCut(Float_t tcut )             { fTOFCut            = tcut    ; }
  Float_t GetTOFCut()                    const { return fTOFCut               ; }   
  
  void    SetPHOSRCut(Float_t rcut )           { fPHOSRCut          = rcut    ; }
  Float_t GetPHOSRCut()                  const { return fPHOSRCut             ; }   

  void    SetPHOSDispersionCut(Float_t dcut )  { fPHOSDispersionCut = dcut    ; }
  Float_t GetPHOSDispersionCut()         const { return fPHOSDispersionCut    ; }   
  
  // Cluster splitting analysis
  
  void    SwitchOnClusterSplittingPID()        { fDoClusterSplitting = kTRUE  ; }
  void    SwitchOffClusterplittingPID()        { fDoClusterSplitting = kFALSE ; }
  
  void    SwitchOnSimpleSplitMassCut()         { fUseSimpleMassCut   = kTRUE  ; }
  void    SwitchOffSimpleSplitMassCut()        { fUseSimpleMassCut   = kFALSE ; }

  void    SwitchOnSimpleSplitM02Cut()          { fUseSimpleM02Cut    = kTRUE  ; }
  void    SwitchOffSimpleSplitM02Cut()         { fUseSimpleM02Cut    = kFALSE ; }
  
  void    SwitchOnSplitAsymmetryCut()          { fUseSplitAsyCut     = kTRUE  ; }
  void    SwitchOffSplitAsymmetryCut()         { fUseSplitAsyCut     = kFALSE ; }
  
  void    SetClusterSplittingM02Cut(Float_t min=0, Float_t max=100) 
  { fSplitM02MinCut   = min ; fSplitM02MaxCut  = max ; }
  
  void    SetClusterSplittingMinNCells(Int_t cut)   { fSplitMinNCells = cut   ; }
  
  void    SetSplitEnergyFractionMinimum(Float_t min){ fSplitEFracMin  = min   ; }
  Float_t GetSplitEnergyFractionMinimum() const     { return fSplitEFracMin   ; }
  
  Float_t GetPi0MinMass()                const { return fMassPi0Min           ; } // Simple cut case
  Float_t GetEtaMinMass()                const { return fMassEtaMin           ; } // Simple cut case
  Float_t GetPhotonMinMass()             const { return fMassPhoMin           ; }  
  Float_t GetPi0MaxMass()                const { return fMassPi0Max           ; }
  Float_t GetEtaMaxMass()                const { return fMassEtaMax           ; }
  Float_t GetPhotonMaxMass()             const { return fMassPhoMax           ; }
  
  void    SetSplitWidthSigma(Float_t s)        { fSplitWidthSigma        = s  ; }
  void    SetPi0MassWidthSelectionParameters    (Int_t iparam, Float_t param) { if(iparam < 7 ) fMassWidthPi0Param[iparam] = param ; }
  void    SetM02MinimumSelectionParameters      (Int_t inlm, Int_t iparam, Float_t param)
  { if(iparam < 6 && inlm < 2) fM02MinParam[inlm][iparam] = param ; }
  void    SetAsymmetryMinimumSelectionParameters(Int_t inlm, Int_t iparam, Float_t param)
  { if(iparam < 6 && inlm < 2) fAsyMinParam[inlm][iparam] = param ; }

  void    SetPi0MassRange(Float_t min, Float_t max)    { fMassPi0Min    = min ; fMassPi0Max = max ; } // Simple case
  void    SetEtaMassRange(Float_t min, Float_t max)    { fMassEtaMin    = min ; fMassEtaMax = max ; }
  void    SetPhotonMassRange(Float_t min, Float_t max) { fMassPhoMin    = min ; fMassPhoMax = max ; }
    
private:
  
  Int_t	    fDebug;                             // Debug level
  Int_t     fParticleFlux;                      // Particle flux for setting PID parameters

  // Bayesian
  AliEMCALPIDUtils * fEMCALPIDUtils;            // Pointer to EMCALPID to redo the PID Bayesian calculation
  Bool_t    fUseBayesianWeights;                // Select clusters based on weights calculated in reconstruction
  Bool_t    fRecalculateBayesian;               // Recalculate PID bayesian or use simple PID?

  Float_t   fEMCALPhotonWeight;                 // Bayesian PID weight for photons in EMCAL 
  Float_t   fEMCALPi0Weight;                    // Bayesian PID weight for pi0 in EMCAL 
  Float_t   fEMCALElectronWeight;               // Bayesian PID weight for electrons in EMCAL 
  Float_t   fEMCALChargeWeight;                 // Bayesian PID weight for charged hadrons in EMCAL 
  Float_t   fEMCALNeutralWeight;                // Bayesian PID weight for neutral hadrons in EMCAL 
  Float_t   fPHOSPhotonWeight;                  // Bayesian PID weight for photons in PHOS 
  Float_t   fPHOSPi0Weight;                     // Bayesian PID weight for pi0 in PHOS 
  Float_t   fPHOSElectronWeight;                // Bayesian PID weight for electrons in PHOS 
  Float_t   fPHOSChargeWeight;                  // Bayesian PID weight for charged hadrons in PHOS 
  Float_t   fPHOSNeutralWeight;                 // Bayesian PID weight for neutral hadrons in PHOS 
  
  Bool_t    fPHOSWeightFormula ;                // Use parametrized weight threshold, function of energy
  TFormula *fPHOSPhotonWeightFormula ;          // Formula for photon weight
  TFormula *fPHOSPi0WeightFormula ;             // Formula for pi0 weight
  TString   fPHOSPhotonWeightFormulaExpression; // Photon weight formula in string
  TString   fPHOSPi0WeightFormulaExpression;    // Pi0 weight formula in string

  // PID calculation
  Float_t   fEMCALL0CutMax;                     // Max Cut on shower shape lambda0, used in PID evaluation, only EMCAL
  Float_t   fEMCALL0CutMin;                     // Min Cut on shower shape lambda0, used in PID evaluation, only EMCAL
  Float_t   fEMCALDEtaCut;                      // Track matching cut on Dz
  Float_t   fEMCALDPhiCut;                      // Track matching cut on Dx

  Float_t   fTOFCut;                            // Cut on TOF, used in PID evaluation
  
  Float_t   fPHOSDispersionCut;                 // Shower shape elipse radious cut
  Float_t   fPHOSRCut;                          // Track-Cluster distance cut for track matching in PHOS  
  
  // Cluster splitting mass ranges
  Bool_t    fDoClusterSplitting;                // Cluster splitting analysis
  Bool_t    fUseSimpleMassCut;                  // Use simple min-max pi0 mass cut
  Bool_t    fUseSimpleM02Cut;                   // Use simple min-max M02 cut
  Bool_t    fUseSplitAsyCut ;                   // Remove splitted clusters with too large asymmetry, range defined in AliCaloPID
  Float_t   fSplitM02MaxCut ;                   // Study clusters with l0 smaller than cut
  Float_t   fSplitM02MinCut ;                   // Study clusters with l0 larger than cut  // simple case
  Int_t     fSplitMinNCells ;                   // Study clusters with ncells larger than cut  
  Float_t   fMassEtaMin  ;                      // Min Eta mass
  Float_t   fMassEtaMax  ;                      // Max Eta mass  
  Float_t   fMassPi0Min  ;                      // Min Pi0 mass // simple cut case
  Float_t   fMassPi0Max  ;                      // Min Pi0 mass // simple cut case
  Float_t   fMassPhoMin  ;                      // Min Photon mass
  Float_t   fMassPhoMax  ;                      // Min Photon mass
  Float_t   fMassWidthPi0Param[7] ;             // 3 param for pol2 fit on width, 2 param for mass position NLM=1 and NLM>1 for pi0 selection
  Float_t   fM02MinParam[2][6] ;                // 4 param for pol3 fit on M02 minimum
  Float_t   fAsyMinParam[2][6] ;                // 4 param for pol3 fit on asymmetry minimum, for 2 cases, NLM=1 and NLM>=2
  Float_t   fSplitEFracMin  ;                   // Do not use clusters with too large energy in cluster compared 
                                                // to energy in splitted clusters
  Float_t   fSplitWidthSigma;                   // Cut on mass+-width*fSplitWidthSigma


  AliCaloPID & operator = (const AliCaloPID & cpid) ; // cpy assignment
  AliCaloPID(              const AliCaloPID & cpid) ; // cpy ctor
  
  ClassDef(AliCaloPID,16)
  
} ;


#endif //ALICALOPID_H
Commit	Line	Data
1c5acb87	1	#ifndef ALICALOPID_H
	2	#define ALICALOPID_H
	3	/* Copyright(c) 1998-1999, ALICE Experiment at CERN, All rights reserved. *
	4	* See cxx source for full Copyright notice */
1c5acb87	5
1c5acb87	6	//_________________________________________________________________________
bdd2a262	7	// Class for PID selection with calorimeters
49b5c49b	8	// The Output of the main method GetIdentifiedParticleType is a PDG number identifying the cluster,
bdd2a262	9	// being kPhoton, kElectron, kPi0 ... as defined in the header file
3c1d9afb	10	// - GetIdentifiedParticleType(const AliVCluster * cluster)
49b5c49b	11	// Assignes a PID tag to the cluster, right now there is the possibility to : use bayesian weights from reco,
49b5c49b	12	// recalculate them (EMCAL) or use other procedures not used in reco.
bdd2a262	13	// In order to recalculate Bayesian, it is necessary to load the EMCALUtils library
	14	// and do SwitchOnBayesianRecalculation().
	15	// To change the PID parameters from Low to High like the ones by default, use the constructor
	16	// AliCaloPID(flux)
	17	// where flux is AliCaloPID::kLow or AliCaloPID::kHigh
	18	// If it is necessary to change the parameters use the constructor
	19	// AliCaloPID(AliEMCALPIDUtils *utils) and set the parameters before.
49b5c49b	20
3c1d9afb	21	// - GetGetIdentifiedParticleTypeFromBayesian(const Double_t * pid, const Float_t energy)
49b5c49b	22	// Reads the PID weights array of the ESDs and depending on its magnitude identifies the particle,
3c1d9afb	23	// executed when bayesian is ON by GetIdentifiedParticleType(const AliVCluster * cluster)
9a6fa057	24	// - SetPIDBits: Simple PID, depending on the thresholds fLOCut fTOFCut and even the
bdd2a262	25	// result of the PID bayesian a different PID bit is set.
bdd2a262	26	//
1c5acb87	27	//
	28	//*-- Author: Gustavo Conesa (INFN-LNF)
	29
	30	// --- ROOT system ---
	31	#include <TObject.h>
	32	class TString ;
	33	class TLorentzVector ;
a5fb4114	34	#include <TFormula.h>
f21fc003	35	class TList;
d39cba7e	36	class TH2F ;
1c5acb87	37
1c5acb87	38	//--- AliRoot system ---
0ae57829	39	class AliVCluster;
3c1d9afb	40	class AliVCaloCells;
1c5acb87	41	class AliAODPWG4Particle;
c5693f62	42	class AliEMCALPIDUtils;
f2ccb5b8	43	class AliCalorimeterUtils;
49b5c49b	44	class AliVEvent;
1c5acb87	45
	46	class AliCaloPID : public TObject {
	47
477d6cee	48	public:
	49
	50	AliCaloPID() ; // ctor
bdd2a262	51	AliCaloPID(const Int_t particleFlux) ; // ctor, to be used when recalculating bayesian PID
f21fc003	52	AliCaloPID(const TNamed * emcalpid) ; // ctor, to be used when recalculating bayesian PID and need different parameters
477d6cee	53	virtual ~AliCaloPID() ;//virtual dtor
c5693f62	54
3c1d9afb	55	enum PidType
3c1d9afb	56	{
a5fb4114	57	kPhoton = 22,
	58	kPi0 = 111,
	59	kEta = 221,
	60	kElectron = 11,
	61	kEleCon =-11,
	62	kNeutralHadron = 2112,
	63	kChargedHadron = 211,
477d6cee	64	kNeutralUnknown = 130,
a5fb4114	65	kChargedUnknown = 321
477d6cee	66	};
	67
	68	enum TagType {kPi0Decay, kEtaDecay, kOtherDecay, kConversion, kNoTag = -1};
	69
49b5c49b	70	// Main methods
49b5c49b	71
a5fb4114	72	TList * GetCreateOutputObjects();
d39cba7e	73
a5fb4114	74	void InitParameters();
9a6fa057	75
995c6150	76	Bool_t IsInPi0SplitAsymmetryRange(const Float_t energy, const Float_t asy, const Int_t nlm);
	77
	78	Bool_t IsInPi0SplitMassRange (const Float_t energy, const Float_t mass, const Int_t nlm);
	79
	80	Bool_t IsInMergedM02Range (const Float_t energy, const Float_t m02, const Int_t nlm);
5a72d9af	81
5a72d9af	82
3c1d9afb	83	Int_t GetIdentifiedParticleTypeFromBayesWeights(const Bool_t isEMCAL, const Double_t * pid, const Float_t energy) ;
	84
	85	Int_t GetIdentifiedParticleTypeFromClusterSplitting(AliVCluster * cluster, AliVCaloCells* cells,
	86	AliCalorimeterUtils * caloutils,
	87	Double_t vertex[3],
bfdcf7fb	88	Int_t & nLocMax, Double_t & mass, Double_t & angle,
bfdcf7fb	89	Double_t & e1 , Double_t & e2 ) ;
477d6cee	90
3c1d9afb	91	Int_t GetIdentifiedParticleType(const AliVCluster * cluster) ;
477d6cee	92
9a6fa057	93	TString GetPIDParametersList();
477d6cee	94
49b5c49b	95	Bool_t IsTrackMatched(AliVCluster * cluster, AliCalorimeterUtils* cu, AliVEvent* event) const ;
49b5c49b	96
3c1d9afb	97	void SetPIDBits(AliVCluster * cluster, AliAODPWG4Particle *aodph,
49b5c49b	98	AliCalorimeterUtils* cu, AliVEvent* event);
477d6cee	99
a5fb4114	100	void Print(const Option_t * opt)const;
a5fb4114	101
3c1d9afb	102	void PrintClusterPIDWeights(const Double_t * pid) const;
3c1d9afb	103
49b5c49b	104	//Check if cluster photon-like. Uses photon cluster parameterization in real pp data
	105	//Returns distance in sigmas. Recommended cut 2.5
	106	Float_t TestPHOSDispersion(const Double_t pt, const Double_t m20, const Double_t m02) const ;
	107	//Checks distance to the closest track. Takes into account
	108	//non-perpendicular incidence of tracks.
	109	Float_t TestPHOSChargedVeto(const Double_t dx, const Double_t dz, const Double_t ptTrack,
	110	const Int_t chargeTrack, const Double_t mf) const ;
	111
	112	// Setters, getters
	113
	114	void SetDebug(Int_t deb) { fDebug = deb ; }
	115	Int_t GetDebug() const { return fDebug ; }
	116
	117	enum eventType{kLow,kHigh};
	118	void SetLowParticleFlux() { fParticleFlux = kLow ; }
	119	void SetHighParticleFlux() { fParticleFlux = kHigh ; }
	120	// not really used, only for bayesian recalculation in EMCAL, but could be useful in future
	121
	122	// Bayesian
	123
	124	void SwitchOnBayesian() { fUseBayesianWeights = kTRUE ; }
	125	void SwitchOffBayesian() { fUseBayesianWeights = kFALSE; }
	126	void SwitchOnBayesianRecalculation() { fRecalculateBayesian = kTRUE ; fUseBayesianWeights = kTRUE ;} // EMCAL
	127	void SwitchOffBayesianRecalculation() { fRecalculateBayesian = kFALSE; } // EMCAL
	128
c5693f62	129	AliEMCALPIDUtils * GetEMCALPIDUtils() ;
477d6cee	130
477d6cee	131	//Weight getters
49b5c49b	132	Float_t GetEMCALPhotonWeight() const { return fEMCALPhotonWeight ; }
	133	Float_t GetEMCALPi0Weight() const { return fEMCALPi0Weight ; }
	134	Float_t GetEMCALElectronWeight() const { return fEMCALElectronWeight ; }
	135	Float_t GetEMCALChargeWeight() const { return fEMCALChargeWeight ; }
	136	Float_t GetEMCALNeutralWeight() const { return fEMCALNeutralWeight ; }
	137	Float_t GetPHOSPhotonWeight() const { return fPHOSPhotonWeight ; }
	138	Float_t GetPHOSPi0Weight() const { return fPHOSPi0Weight ; }
	139	Float_t GetPHOSElectronWeight() const { return fPHOSElectronWeight ; }
	140	Float_t GetPHOSChargeWeight() const { return fPHOSChargeWeight ; }
	141	Float_t GetPHOSNeutralWeight() const { return fPHOSNeutralWeight ; }
	142
	143	Bool_t IsPHOSPIDWeightFormulaOn() const { return fPHOSWeightFormula ; }
	144
	145	TFormula * GetPHOSPhotonWeightFormula() {
a5fb4114	146	if(!fPHOSPhotonWeightFormula)
	147	fPHOSPhotonWeightFormula = new TFormula("phos_photon_weight",
	148	fPHOSPhotonWeightFormulaExpression);
49b5c49b	149	return fPHOSPhotonWeightFormula ; }
477d6cee	150
49b5c49b	151	TFormula * GetPHOSPi0WeightFormula() {
a5fb4114	152	if(!fPHOSPi0WeightFormula)
	153	fPHOSPi0WeightFormula = new TFormula("phos_pi0_weight",
	154	fPHOSPi0WeightFormulaExpression);
49b5c49b	155	return fPHOSPi0WeightFormula ; }
5ae09196	156
49b5c49b	157	TString GetPHOSPhotonWeightFormulaExpression() const { return fPHOSPhotonWeightFormulaExpression ; }
49b5c49b	158	TString GetPHOSPi0WeightFormulaExpression() const { return fPHOSPi0WeightFormulaExpression ; }
5ae09196	159
a5fb4114	160	//Weight setters
49b5c49b	161	void SetEMCALPhotonWeight (Float_t w) { fEMCALPhotonWeight = w ; }
	162	void SetEMCALPi0Weight (Float_t w) { fEMCALPi0Weight = w ; }
	163	void SetEMCALElectronWeight(Float_t w) { fEMCALElectronWeight = w ; }
	164	void SetEMCALChargeWeight (Float_t w) { fEMCALChargeWeight = w ; }
	165	void SetEMCALNeutralWeight (Float_t w) { fEMCALNeutralWeight = w ; }
	166	void SetPHOSPhotonWeight (Float_t w) { fPHOSPhotonWeight = w ; }
	167	void SetPHOSPi0Weight (Float_t w) { fPHOSPi0Weight = w ; }
	168	void SetPHOSElectronWeight (Float_t w) { fPHOSElectronWeight = w ; }
	169	void SetPHOSChargeWeight (Float_t w) { fPHOSChargeWeight = w ; }
	170	void SetPHOSNeutralWeight (Float_t w) { fPHOSNeutralWeight = w ; }
	171
	172	void UsePHOSPIDWeightFormula (Bool_t ok ) { fPHOSWeightFormula = ok ; }
	173	void SetPHOSPhotonWeightFormulaExpression(TString ph) { fPHOSPhotonWeightFormulaExpression = ph ; }
	174	void SetPHOSPi0WeightFormulaExpression (TString pi) { fPHOSPi0WeightFormulaExpression = pi ; }
d39cba7e	175
49b5c49b	176	//PID cuts
d39cba7e	177
49b5c49b	178	void SetEMCALLambda0CutMax(Float_t lcut ) { fEMCALL0CutMax = lcut ; }
	179	Float_t GetEMCALLambda0CutMax() const { return fEMCALL0CutMax ; }
	180
	181	void SetEMCALLambda0CutMin(Float_t lcut ) { fEMCALL0CutMin = lcut ; }
	182	Float_t GetEMCALLambda0CutMin() const { return fEMCALL0CutMin ; }
	183
	184	void SetEMCALDEtaCut(Float_t dcut ) { fEMCALDEtaCut = dcut ; }
	185	Float_t GetEMCALDEtaCut() const { return fEMCALDEtaCut ; }
	186
	187	void SetEMCALDPhiCut(Float_t dcut ) { fEMCALDPhiCut = dcut ; }
	188	Float_t GetEMCALDPhiCut() const { return fEMCALDPhiCut ; }
	189
	190	void SetTOFCut(Float_t tcut ) { fTOFCut = tcut ; }
	191	Float_t GetTOFCut() const { return fTOFCut ; }
	192
	193	void SetPHOSRCut(Float_t rcut ) { fPHOSRCut = rcut ; }
	194	Float_t GetPHOSRCut() const { return fPHOSRCut ; }
a5fb4114	195
49b5c49b	196	void SetPHOSDispersionCut(Float_t dcut ) { fPHOSDispersionCut = dcut ; }
	197	Float_t GetPHOSDispersionCut() const { return fPHOSDispersionCut ; }
	198
3c1d9afb	199	// Cluster splitting analysis
	200
	201	void SwitchOnClusterSplittingPID() { fDoClusterSplitting = kTRUE ; }
	202	void SwitchOffClusterplittingPID() { fDoClusterSplitting = kFALSE ; }
5a72d9af	203
	204	void SwitchOnSimpleSplitMassCut() { fUseSimpleMassCut = kTRUE ; }
	205	void SwitchOffSimpleSplitMassCut() { fUseSimpleMassCut = kFALSE ; }
3c1d9afb	206
5a72d9af	207	void SwitchOnSimpleSplitM02Cut() { fUseSimpleM02Cut = kTRUE ; }
	208	void SwitchOffSimpleSplitM02Cut() { fUseSimpleM02Cut = kFALSE ; }
	209
667432ef	210	void SwitchOnSplitAsymmetryCut() { fUseSplitAsyCut = kTRUE ; }
	211	void SwitchOffSplitAsymmetryCut() { fUseSplitAsyCut = kFALSE ; }
	212
3c1d9afb	213	void SetClusterSplittingM02Cut(Float_t min=0, Float_t max=100)
	214	{ fSplitM02MinCut = min ; fSplitM02MaxCut = max ; }
	215
667432ef	216	void SetClusterSplittingMinNCells(Int_t cut) { fSplitMinNCells = cut ; }
	217
	218	void SetSplitEnergyFractionMinimum(Float_t min){ fSplitEFracMin = min ; }
	219	Float_t GetSplitEnergyFractionMinimum() const { return fSplitEFracMin ; }
3c1d9afb	220
5a72d9af	221	Float_t GetPi0MinMass() const { return fMassPi0Min ; } // Simple cut case
5a72d9af	222	Float_t GetEtaMinMass() const { return fMassEtaMin ; } // Simple cut case
3c1d9afb	223	Float_t GetPhotonMinMass() const { return fMassPhoMin ; }
	224	Float_t GetPi0MaxMass() const { return fMassPi0Max ; }
	225	Float_t GetEtaMaxMass() const { return fMassEtaMax ; }
	226	Float_t GetPhotonMaxMass() const { return fMassPhoMax ; }
	227
5a72d9af	228	void SetSplitWidthSigma(Float_t s) { fSplitWidthSigma = s ; }
995c6150	229	void SetPi0MassWidthSelectionParameters (Int_t iparam, Float_t param) { if(iparam < 7 ) fMassWidthPi0Param[iparam] = param ; }
a5a3f703	230	void SetM02MinimumSelectionParameters (Int_t inlm, Int_t iparam, Float_t param)
667432ef	231	{ if(iparam < 6 && inlm < 2) fM02MinParam[inlm][iparam] = param ; }
afc83530	232	void SetAsymmetryMinimumSelectionParameters(Int_t inlm, Int_t iparam, Float_t param)
667432ef	233	{ if(iparam < 6 && inlm < 2) fAsyMinParam[inlm][iparam] = param ; }
5a72d9af	234
	235	void SetPi0MassRange(Float_t min, Float_t max) { fMassPi0Min = min ; fMassPi0Max = max ; } // Simple case
	236	void SetEtaMassRange(Float_t min, Float_t max) { fMassEtaMin = min ; fMassEtaMax = max ; }
	237	void SetPhotonMassRange(Float_t min, Float_t max) { fMassPhoMin = min ; fMassPhoMax = max ; }
667432ef	238
f2ccb5b8	239	private:
477d6cee	240
49b5c49b	241	Int_t fDebug; // Debug level
	242	Int_t fParticleFlux; // Particle flux for setting PID parameters
	243
	244	// Bayesian
	245	AliEMCALPIDUtils * fEMCALPIDUtils; // Pointer to EMCALPID to redo the PID Bayesian calculation
	246	Bool_t fUseBayesianWeights; // Select clusters based on weights calculated in reconstruction
	247	Bool_t fRecalculateBayesian; // Recalculate PID bayesian or use simple PID?
	248
	249	Float_t fEMCALPhotonWeight; // Bayesian PID weight for photons in EMCAL
	250	Float_t fEMCALPi0Weight; // Bayesian PID weight for pi0 in EMCAL
	251	Float_t fEMCALElectronWeight; // Bayesian PID weight for electrons in EMCAL
	252	Float_t fEMCALChargeWeight; // Bayesian PID weight for charged hadrons in EMCAL
	253	Float_t fEMCALNeutralWeight; // Bayesian PID weight for neutral hadrons in EMCAL
	254	Float_t fPHOSPhotonWeight; // Bayesian PID weight for photons in PHOS
	255	Float_t fPHOSPi0Weight; // Bayesian PID weight for pi0 in PHOS
	256	Float_t fPHOSElectronWeight; // Bayesian PID weight for electrons in PHOS
	257	Float_t fPHOSChargeWeight; // Bayesian PID weight for charged hadrons in PHOS
	258	Float_t fPHOSNeutralWeight; // Bayesian PID weight for neutral hadrons in PHOS
a5fb4114	259
9a6fa057	260	Bool_t fPHOSWeightFormula ; // Use parametrized weight threshold, function of energy
	261	TFormula *fPHOSPhotonWeightFormula ; // Formula for photon weight
	262	TFormula *fPHOSPi0WeightFormula ; // Formula for pi0 weight
a5fb4114	263	TString fPHOSPhotonWeightFormulaExpression; // Photon weight formula in string
	264	TString fPHOSPi0WeightFormulaExpression; // Pi0 weight formula in string
	265
49b5c49b	266	// PID calculation
	267	Float_t fEMCALL0CutMax; // Max Cut on shower shape lambda0, used in PID evaluation, only EMCAL
	268	Float_t fEMCALL0CutMin; // Min Cut on shower shape lambda0, used in PID evaluation, only EMCAL
	269	Float_t fEMCALDEtaCut; // Track matching cut on Dz
	270	Float_t fEMCALDPhiCut; // Track matching cut on Dx
ae182e60	271
49b5c49b	272	Float_t fTOFCut; // Cut on TOF, used in PID evaluation
	273
	274	Float_t fPHOSDispersionCut; // Shower shape elipse radious cut
	275	Float_t fPHOSRCut; // Track-Cluster distance cut for track matching in PHOS
49b5c49b	276
3c1d9afb	277	// Cluster splitting mass ranges
3c1d9afb	278	Bool_t fDoClusterSplitting; // Cluster splitting analysis
5a72d9af	279	Bool_t fUseSimpleMassCut; // Use simple min-max pi0 mass cut
5a72d9af	280	Bool_t fUseSimpleM02Cut; // Use simple min-max M02 cut
667432ef	281	Bool_t fUseSplitAsyCut ; // Remove splitted clusters with too large asymmetry, range defined in AliCaloPID
667432ef	282	Float_t fSplitM02MaxCut ; // Study clusters with l0 smaller than cut
5a72d9af	283	Float_t fSplitM02MinCut ; // Study clusters with l0 larger than cut // simple case
3c1d9afb	284	Int_t fSplitMinNCells ; // Study clusters with ncells larger than cut
	285	Float_t fMassEtaMin ; // Min Eta mass
	286	Float_t fMassEtaMax ; // Max Eta mass
5a72d9af	287	Float_t fMassPi0Min ; // Min Pi0 mass // simple cut case
5a72d9af	288	Float_t fMassPi0Max ; // Min Pi0 mass // simple cut case
3c1d9afb	289	Float_t fMassPhoMin ; // Min Photon mass
3c1d9afb	290	Float_t fMassPhoMax ; // Min Photon mass
5a72d9af	291	Float_t fMassWidthPi0Param[7] ; // 3 param for pol2 fit on width, 2 param for mass position NLM=1 and NLM>1 for pi0 selection
667432ef	292	Float_t fM02MinParam[2][6] ; // 4 param for pol3 fit on M02 minimum
667432ef	293	Float_t fAsyMinParam[2][6] ; // 4 param for pol3 fit on asymmetry minimum, for 2 cases, NLM=1 and NLM>=2
5a72d9af	294	Float_t fSplitEFracMin ; // Do not use clusters with too large energy in cluster compared
	295	// to energy in splitted clusters
	296	Float_t fSplitWidthSigma; // Cut on mass+-width*fSplitWidthSigma
	297
	298
3c1d9afb	299
5a72d9af	300	AliCaloPID & operator = (const AliCaloPID & cpid) ; // cpy assignment
5a72d9af	301	AliCaloPID( const AliCaloPID & cpid) ; // cpy ctor
c5693f62	302
afc83530	303	ClassDef(AliCaloPID,16)
3c1d9afb	304
e5dbdaf0	305	} ;
1c5acb87	306
	307
	308	#endif //ALICALOPID_H
	309
	310
	311