[u/mrichter/AliRoot.git] / STEER / STEERBase / AliTPCPIDResponse.h

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

//-------------------------------------------------------
//                    TPC PID class
// A very naive design... Should be made better by the detector experts...
//   Origin: Iouri Belikov, CERN, Jouri.Belikov@cern.ch 
// With many additions and modifications suggested by
//      Alexander Kalweit, GSI, alexander.philipp.kalweit@cern.ch
//      Dariusz Miskowiec, GSI, D.Miskowiec@gsi.de
// ...and some modifications by
//      Mikolaj Krzewicki, GSI, mikolaj.krzewicki@cern.ch
// ...and some modifications plus eta correction functions by
//      Benjamin Hess, University of Tuebingen, bhess@cern.ch
//-------------------------------------------------------
#include <Rtypes.h>

#include <TNamed.h>
#include <TVectorF.h>
#include <TObjArray.h>

#include "AliPID.h"
#include "AliVTrack.h"

class TH2D;
class TSpline3;

class AliTPCPIDResponse: public TNamed {
public:
  AliTPCPIDResponse();
  //TODO Remove? AliTPCPIDResponse(const Double_t *param);
  AliTPCPIDResponse(const AliTPCPIDResponse&);
  AliTPCPIDResponse& operator=(const AliTPCPIDResponse&);
  virtual ~AliTPCPIDResponse();

  enum EChamberStatus {
    kChamberOff=0,
    kChamberHighGain=1,
    kChamberLowGain=2,
    kChamberInvalid=3
  };
  
  enum ETPCgainScenario {
    kDefault= 0,
    kALLhigh = 1,
    kOROChigh = 2,
    kGainScenarioInvalid = 3
  };

  static const Int_t fgkNumberOfParticleSpecies=AliPID::kSPECIESC;
  static const Int_t fgkNumberOfGainScenarios=3;
  static const Int_t fgkNumberOfdEdxSourceScenarios=3;

  enum ETPCdEdxSource {
    kdEdxDefault=0,        // use combined dEdx from IROC+OROC (assumes ideal detector)
    kdEdxOROC=1,       // use only OROC
    kdEdxHybrid=2,   // Use IROC+OROC dEdx only where IROCS are good (high gain), otherwise fall back to OROC only
    kdEdxInvalid=3     //invalid
  };

  void SetSigma(Float_t res0, Float_t resN2);
  void SetBetheBlochParameters(Double_t kp1,
                               Double_t kp2,
                               Double_t kp3,
                               Double_t kp4,
                               Double_t kp5
                               );
  //Better prevent user from setting fMIP != 50. because fMIP set fix to 50 for much other code:
  void SetMip(Float_t mip) { fMIP = mip; } // Set overall normalisation; mean dE/dx for MIP
  Double_t Bethe(Double_t bg) const;
  void SetUseDatabase(Bool_t useDatabase) { fUseDatabase = useDatabase;}
  Bool_t GetUseDatabase() const { return fUseDatabase;}
  
  void SetResponseFunction(AliPID::EParticleType type, TObject * const o) { fResponseFunctions.AddAt(o,(Int_t)type); }
  const TObject * GetResponseFunction(AliPID::EParticleType type) { return fResponseFunctions.At((Int_t)type); }
  void SetVoltage(Int_t n, Float_t v) {fVoltageMap[n]=v;}
  void SetVoltageMap(const TVectorF& a) {fVoltageMap=a;} //resets ownership, ~ will not delete contents
  Float_t GetVoltage(Int_t n) const {return fVoltageMap[n];}
  void SetLowGainIROCthreshold(Float_t v) {fLowGainIROCthreshold=v;}
  void SetBadIROCthreshold(Float_t v) {fBadIROCthreshhold=v;}
  void SetLowGainOROCthreshold(Float_t v) {fLowGainOROCthreshold=v;}
  void SetBadOROCthreshold(Float_t v) {fBadOROCthreshhold=v;}
  void SetMaxBadLengthFraction(Float_t f) {fMaxBadLengthFraction=f;}

  void SetMagField(Double_t mf) { fMagField=mf; }
  
  const TH2D* GetEtaCorrMap() const { return fhEtaCorr; };
  Bool_t SetEtaCorrMap(TH2D* hMap);
  
  Double_t GetEtaCorrection(const AliVTrack *track, AliPID::EParticleType species, ETPCdEdxSource dedxSource = kdEdxDefault) const;
  
  Double_t GetEtaCorrectedTrackdEdx(const AliVTrack *track, AliPID::EParticleType species, ETPCdEdxSource dedxSource = kdEdxDefault) const;

  const TH2D* GetSigmaPar1Map() const { return fhEtaSigmaPar1; };
  Double_t GetSigmaPar0() const { return fSigmaPar0; };
  Bool_t SetSigmaParams(TH2D* hSigmaPar1Map, Double_t sigmaPar0);
  
  Double_t GetSigmaPar1(const AliVTrack *track, AliPID::EParticleType species, ETPCdEdxSource dedxSource = kdEdxDefault) const;

  //NEW
  void SetSigma(Float_t res0, Float_t resN2, ETPCgainScenario gainScenario );
  Double_t GetExpectedSignal( const AliVTrack* track,
                              AliPID::EParticleType species,
                              ETPCdEdxSource dedxSource = kdEdxDefault,
                              Bool_t correctEta = kFALSE) const;//TODO: In future, default kTRUE
  Double_t GetExpectedSigma( const AliVTrack* track, 
                             AliPID::EParticleType species,
                             ETPCdEdxSource dedxSource = kdEdxDefault,
                             Bool_t correctEta = kFALSE) const;//TODO: In future, default kTRUE
  Float_t GetNumberOfSigmas( const AliVTrack* track,
                             AliPID::EParticleType species,
                             ETPCdEdxSource dedxSource = kdEdxDefault,
                             Bool_t correctEta = kFALSE) const;//TODO: In future, default kTRUE
  
  Float_t GetSignalDelta( const AliVTrack* track,
                          AliPID::EParticleType species,
                          ETPCdEdxSource dedxSource = kdEdxDefault,
                          Bool_t correctEta = kFALSE, Bool_t ratio=kFALSE) const;
  
  void SetResponseFunction(TObject* o,
                           AliPID::EParticleType type,
                           ETPCgainScenario gainScenario);
  void Print(Option_t* option="") const;
  TSpline3* GetResponseFunction( AliPID::EParticleType species,
                                 ETPCgainScenario gainScenario ) const;
  TSpline3* GetResponseFunction( const AliVTrack* track,
                                 AliPID::EParticleType species,
                                 ETPCdEdxSource dedxSource = kdEdxDefault) const;
  Bool_t ResponseFunctiondEdxN(const AliVTrack* track, 
                               AliPID::EParticleType species,
                               ETPCdEdxSource dedxSource,
                               Double_t& dEdx, Int_t& nPoints, ETPCgainScenario& gainScenario, TSpline3** responseFunction) const;
  Bool_t sectorNumbersInOut(Double_t* trackPositionInner,
                            Double_t* trackPositionOuter,
                            Float_t& phiIn, Float_t& phiOut, 
                            Int_t& in, Int_t& out ) const;
  AliTPCPIDResponse::EChamberStatus TrackStatus(const AliVTrack* track, Int_t layer) const;
  Float_t MaxClusterRadius(const AliVTrack* track) const;
  Bool_t TrackApex(const AliVTrack* track, Float_t magField, Double_t position[3]) const;
  static const char* GainScenarioName(Int_t n) {return fgkGainScenarioName[(n>fgkNumberOfdEdxSourceScenarios)?fgkNumberOfdEdxSourceScenarios+1:n];}
  Int_t ResponseFunctionIndex( AliPID::EParticleType species,
                               ETPCgainScenario gainScenario ) const;
  void ResetSplines();

  //OLD
  Double_t GetExpectedSignal(const Float_t mom,
                     AliPID::EParticleType n=AliPID::kKaon) const;
  Double_t GetExpectedSigma(const Float_t mom, const Int_t nPoints,
                            AliPID::EParticleType n=AliPID::kKaon) const;
  Float_t  GetNumberOfSigmas(const Float_t mom, 
                             const Float_t dEdx, 
			                       const Int_t nPoints,
                             AliPID::EParticleType n=AliPID::kKaon) const {
    //
    // Deprecated function (for backward compatibility). Please use 
    // GetNumberOfSigmas(const AliVTrack *track, AliPID::EParticleType species, ETPCdEdxSource dedxSource )
    // instead!TODO
    //
    
    Double_t bethe=GetExpectedSignal(mom,n);
    Double_t sigma=GetExpectedSigma(mom,nPoints,n);
    return (dEdx-bethe)/sigma;
  }

  Double_t GetMIP() const { return fMIP;} 
  Float_t  GetRes0()  const { return fRes0[0];  }
  Float_t  GetResN2() const { return fResN2[0]; }
  Float_t  GetRes0(ETPCgainScenario s)  const { return fRes0[s];  }
  Float_t  GetResN2(ETPCgainScenario s) const { return fResN2[s]; }

protected:
  Double_t GetExpectedSignal(const AliVTrack* track,
                             AliPID::EParticleType species,
                             Double_t dEdx,
                             const TSpline3* responseFunction,
                             Bool_t correctEta) const; 
  
  Double_t GetExpectedSigma(const AliVTrack* track, 
                            AliPID::EParticleType species,
                            ETPCgainScenario gainScenario,
                            Double_t dEdx,
                            Int_t nPoints,
                            const TSpline3* responseFunction,
                            Bool_t correctEta) const;
                             
  Double_t GetEtaCorrection(const AliVTrack *track, Double_t dEdxSplines) const;
  
  Double_t GetSigmaPar1(const AliVTrack *track, AliPID::EParticleType species,
                        Double_t dEdx, const TSpline3* responseFunction) const;
  
private:
  Float_t fMIP;          // dEdx for MIP
  Float_t fRes0[fgkNumberOfGainScenarios];  // relative dEdx resolution  rel sigma = fRes0*sqrt(1+fResN2/npoint)
  Float_t fResN2[fgkNumberOfGainScenarios]; // relative Npoint dependence rel  sigma = fRes0*sqrt(1+fResN2/npoint)

  Double_t fKp1;   // Parameters
  Double_t fKp2;   //    of
  Double_t fKp3;   // the ALEPH
  Double_t fKp4;   // Bethe-Bloch
  Double_t fKp5;   // formula

  Bool_t fUseDatabase; // flag if fine-tuned database-response or simple ALEPH BB should be used
  
  TObjArray fResponseFunctions; //! ObjArray of response functions individually for each particle
  TVectorF fVoltageMap; //!stores a map of voltages wrt nominal for all chambers
  Float_t fLowGainIROCthreshold;  //voltage threshold below which the IROC is considered low gain
  Float_t fBadIROCthreshhold;     //voltage threshold for bad IROCS
  Float_t fLowGainOROCthreshold;  //voltage threshold below which the OROC is considered low gain
  Float_t fBadOROCthreshhold;     //voltage threshold for bad OROCS
  Float_t fMaxBadLengthFraction;  //the maximum allowed fraction of track length in a bad sector.

  Int_t sectorNumber(Double_t phi) const;

  Double_t fMagField;  //! Magnetic field

  static const char* fgkGainScenarioName[fgkNumberOfGainScenarios+1];

  TH2D* fhEtaCorr; //! Map for TPC eta correction
  TH2D* fhEtaSigmaPar1; //! Map for parameter 1 of the dEdx sigma parametrisation
  
  Double_t fSigmaPar0; // Parameter 0 of the dEdx sigma parametrisation

  ClassDef(AliTPCPIDResponse,5)   // TPC PID class
};

#endif
Commit	Line	Data
10d100d4	1	#ifndef ALITPCPIDRESPONSE_H
10d100d4	2	#define ALITPCPIDRESPONSE_H
8c6a71ab	3	/* Copyright(c) 1998-1999, ALICE Experiment at CERN, All rights reserved. *
	4	* See cxx source for full Copyright notice */
	5
	6	//-------------------------------------------------------
	7	// TPC PID class
	8	// A very naive design... Should be made better by the detector experts...
	9	// Origin: Iouri Belikov, CERN, Jouri.Belikov@cern.ch
aea7a46d	10	// With many additions and modifications suggested by
	11	// Alexander Kalweit, GSI, alexander.philipp.kalweit@cern.ch
	12	// Dariusz Miskowiec, GSI, D.Miskowiec@gsi.de
f84b18dd	13	// ...and some modifications by
	14	// Mikolaj Krzewicki, GSI, mikolaj.krzewicki@cern.ch
	15	// ...and some modifications plus eta correction functions by
	16	// Benjamin Hess, University of Tuebingen, bhess@cern.ch
8c6a71ab	17	//-------------------------------------------------------
8c6a71ab	18	#include <Rtypes.h>
644666df	19
	20	#include <TNamed.h>
	21	#include <TVectorF.h>
d2aa6df0	22	#include <TObjArray.h>
8c6a71ab	23
aea7a46d	24	#include "AliPID.h"
f84b18dd	25	#include "AliVTrack.h"
aea7a46d	26
f84b18dd	27	class TH2D;
644666df	28	class TSpline3;
	29
	30	class AliTPCPIDResponse: public TNamed {
8c6a71ab	31	public:
10d100d4	32	AliTPCPIDResponse();
1b45e564	33	//TODO Remove? AliTPCPIDResponse(const Double_t *param);
644666df	34	AliTPCPIDResponse(const AliTPCPIDResponse&);
644666df	35	AliTPCPIDResponse& operator=(const AliTPCPIDResponse&);
f84b18dd	36	virtual ~AliTPCPIDResponse();
644666df	37
	38	enum EChamberStatus {
	39	kChamberOff=0,
	40	kChamberHighGain=1,
	41	kChamberLowGain=2,
	42	kChamberInvalid=3
	43	};
	44
	45	enum ETPCgainScenario {
	46	kDefault= 0,
	47	kALLhigh = 1,
	48	kOROChigh = 2,
	49	kGainScenarioInvalid = 3
	50	};
	51
	52	static const Int_t fgkNumberOfParticleSpecies=AliPID::kSPECIESC;
	53	static const Int_t fgkNumberOfGainScenarios=3;
	54	static const Int_t fgkNumberOfdEdxSourceScenarios=3;
	55
	56	enum ETPCdEdxSource {
	57	kdEdxDefault=0, // use combined dEdx from IROC+OROC (assumes ideal detector)
	58	kdEdxOROC=1, // use only OROC
	59	kdEdxHybrid=2, // Use IROC+OROC dEdx only where IROCS are good (high gain), otherwise fall back to OROC only
	60	kdEdxInvalid=3 //invalid
	61	};
	62
10d100d4	63	void SetSigma(Float_t res0, Float_t resN2);
aea7a46d	64	void SetBetheBlochParameters(Double_t kp1,
	65	Double_t kp2,
	66	Double_t kp3,
	67	Double_t kp4,
	68	Double_t kp5
	69	);
1b45e564	70	//Better prevent user from setting fMIP != 50. because fMIP set fix to 50 for much other code:
10d100d4	71	void SetMip(Float_t mip) { fMIP = mip; } // Set overall normalisation; mean dE/dx for MIP
aea7a46d	72	Double_t Bethe(Double_t bg) const;
d2aa6df0	73	void SetUseDatabase(Bool_t useDatabase) { fUseDatabase = useDatabase;}
644666df	74	Bool_t GetUseDatabase() const { return fUseDatabase;}
d2aa6df0	75
d2aa6df0	76	void SetResponseFunction(AliPID::EParticleType type, TObject * const o) { fResponseFunctions.AddAt(o,(Int_t)type); }
deae51a8	77	const TObject * GetResponseFunction(AliPID::EParticleType type) { return fResponseFunctions.At((Int_t)type); }
644666df	78	void SetVoltage(Int_t n, Float_t v) {fVoltageMap[n]=v;}
	79	void SetVoltageMap(const TVectorF& a) {fVoltageMap=a;} //resets ownership, ~ will not delete contents
	80	Float_t GetVoltage(Int_t n) const {return fVoltageMap[n];}
	81	void SetLowGainIROCthreshold(Float_t v) {fLowGainIROCthreshold=v;}
	82	void SetBadIROCthreshold(Float_t v) {fBadIROCthreshhold=v;}
	83	void SetLowGainOROCthreshold(Float_t v) {fLowGainOROCthreshold=v;}
	84	void SetBadOROCthreshold(Float_t v) {fBadOROCthreshhold=v;}
	85	void SetMaxBadLengthFraction(Float_t f) {fMaxBadLengthFraction=f;}
	86
	87	void SetMagField(Double_t mf) { fMagField=mf; }
d2aa6df0	88
f84b18dd	89	const TH2D* GetEtaCorrMap() const { return fhEtaCorr; };
	90	Bool_t SetEtaCorrMap(TH2D* hMap);
	91
	92	Double_t GetEtaCorrection(const AliVTrack *track, AliPID::EParticleType species, ETPCdEdxSource dedxSource = kdEdxDefault) const;
	93
	94	Double_t GetEtaCorrectedTrackdEdx(const AliVTrack *track, AliPID::EParticleType species, ETPCdEdxSource dedxSource = kdEdxDefault) const;
	95
	96	const TH2D* GetSigmaPar1Map() const { return fhEtaSigmaPar1; };
	97	Double_t GetSigmaPar0() const { return fSigmaPar0; };
	98	Bool_t SetSigmaParams(TH2D* hSigmaPar1Map, Double_t sigmaPar0);
	99
	100	Double_t GetSigmaPar1(const AliVTrack *track, AliPID::EParticleType species, ETPCdEdxSource dedxSource = kdEdxDefault) const;
	101
644666df	102	//NEW
644666df	103	void SetSigma(Float_t res0, Float_t resN2, ETPCgainScenario gainScenario );
644666df	104	Double_t GetExpectedSignal( const AliVTrack* track,
644666df	105	AliPID::EParticleType species,
f84b18dd	106	ETPCdEdxSource dedxSource = kdEdxDefault,
f84b18dd	107	Bool_t correctEta = kFALSE) const;//TODO: In future, default kTRUE
644666df	108	Double_t GetExpectedSigma( const AliVTrack* track,
644666df	109	AliPID::EParticleType species,
f84b18dd	110	ETPCdEdxSource dedxSource = kdEdxDefault,
f84b18dd	111	Bool_t correctEta = kFALSE) const;//TODO: In future, default kTRUE
644666df	112	Float_t GetNumberOfSigmas( const AliVTrack* track,
644666df	113	AliPID::EParticleType species,
f84b18dd	114	ETPCdEdxSource dedxSource = kdEdxDefault,
f84b18dd	115	Bool_t correctEta = kFALSE) const;//TODO: In future, default kTRUE
567624b5	116
	117	Float_t GetSignalDelta( const AliVTrack* track,
	118	AliPID::EParticleType species,
	119	ETPCdEdxSource dedxSource = kdEdxDefault,
1d59271b	120	Bool_t correctEta = kFALSE, Bool_t ratio=kFALSE) const;
567624b5	121
644666df	122	void SetResponseFunction(TObject* o,
	123	AliPID::EParticleType type,
	124	ETPCgainScenario gainScenario);
	125	void Print(Option_t* option="") const;
	126	TSpline3* GetResponseFunction( AliPID::EParticleType species,
	127	ETPCgainScenario gainScenario ) const;
	128	TSpline3* GetResponseFunction( const AliVTrack* track,
	129	AliPID::EParticleType species,
f84b18dd	130	ETPCdEdxSource dedxSource = kdEdxDefault) const;
644666df	131	Bool_t ResponseFunctiondEdxN(const AliVTrack* track,
644666df	132	AliPID::EParticleType species,
f84b18dd	133	ETPCdEdxSource dedxSource,
f84b18dd	134	Double_t& dEdx, Int_t& nPoints, ETPCgainScenario& gainScenario, TSpline3** responseFunction) const;
f85a3764	135	Bool_t sectorNumbersInOut(Double_t* trackPositionInner,
f85a3764	136	Double_t* trackPositionOuter,
644666df	137	Float_t& phiIn, Float_t& phiOut,
	138	Int_t& in, Int_t& out ) const;
	139	AliTPCPIDResponse::EChamberStatus TrackStatus(const AliVTrack* track, Int_t layer) const;
	140	Float_t MaxClusterRadius(const AliVTrack* track) const;
	141	Bool_t TrackApex(const AliVTrack* track, Float_t magField, Double_t position[3]) const;
	142	static const char* GainScenarioName(Int_t n) {return fgkGainScenarioName[(n>fgkNumberOfdEdxSourceScenarios)?fgkNumberOfdEdxSourceScenarios+1:n];}
	143	Int_t ResponseFunctionIndex( AliPID::EParticleType species,
	144	ETPCgainScenario gainScenario ) const;
	145	void ResetSplines();
	146
644666df	147	//OLD
10d100d4	148	Double_t GetExpectedSignal(const Float_t mom,
aea7a46d	149	AliPID::EParticleType n=AliPID::kKaon) const;
10d100d4	150	Double_t GetExpectedSigma(const Float_t mom, const Int_t nPoints,
644666df	151	AliPID::EParticleType n=AliPID::kKaon) const;
	152	Float_t GetNumberOfSigmas(const Float_t mom,
	153	const Float_t dEdx,
	154	const Int_t nPoints,
	155	AliPID::EParticleType n=AliPID::kKaon) const {
f84b18dd	156	//
	157	// Deprecated function (for backward compatibility). Please use
	158	// GetNumberOfSigmas(const AliVTrack *track, AliPID::EParticleType species, ETPCdEdxSource dedxSource )
	159	// instead!TODO
	160	//
	161
10d100d4	162	Double_t bethe=GetExpectedSignal(mom,n);
	163	Double_t sigma=GetExpectedSigma(mom,nPoints,n);
	164	return (dEdx-bethe)/sigma;
	165	}
aea7a46d	166
10d100d4	167	Double_t GetMIP() const { return fMIP;}
644666df	168	Float_t GetRes0() const { return fRes0[0]; }
	169	Float_t GetResN2() const { return fResN2[0]; }
	170	Float_t GetRes0(ETPCgainScenario s) const { return fRes0[s]; }
	171	Float_t GetResN2(ETPCgainScenario s) const { return fResN2[s]; }
b981edcd	172
f84b18dd	173	protected:
	174	Double_t GetExpectedSignal(const AliVTrack* track,
	175	AliPID::EParticleType species,
	176	Double_t dEdx,
	177	const TSpline3* responseFunction,
	178	Bool_t correctEta) const;
	179
	180	Double_t GetExpectedSigma(const AliVTrack* track,
	181	AliPID::EParticleType species,
	182	ETPCgainScenario gainScenario,
	183	Double_t dEdx,
	184	Int_t nPoints,
	185	const TSpline3* responseFunction,
	186	Bool_t correctEta) const;
	187
	188	Double_t GetEtaCorrection(const AliVTrack *track, Double_t dEdxSplines) const;
	189
	190	Double_t GetSigmaPar1(const AliVTrack *track, AliPID::EParticleType species,
	191	Double_t dEdx, const TSpline3* responseFunction) const;
	192
8c6a71ab	193	private:
10d100d4	194	Float_t fMIP; // dEdx for MIP
644666df	195	Float_t fRes0[fgkNumberOfGainScenarios]; // relative dEdx resolution rel sigma = fRes0*sqrt(1+fResN2/npoint)
644666df	196	Float_t fResN2[fgkNumberOfGainScenarios]; // relative Npoint dependence rel sigma = fRes0*sqrt(1+fResN2/npoint)
aea7a46d	197
	198	Double_t fKp1; // Parameters
	199	Double_t fKp2; // of
	200	Double_t fKp3; // the ALEPH
	201	Double_t fKp4; // Bethe-Bloch
	202	Double_t fKp5; // formula
	203
d2aa6df0	204	Bool_t fUseDatabase; // flag if fine-tuned database-response or simple ALEPH BB should be used
644666df	205
d2aa6df0	206	TObjArray fResponseFunctions; //! ObjArray of response functions individually for each particle
644666df	207	TVectorF fVoltageMap; //!stores a map of voltages wrt nominal for all chambers
	208	Float_t fLowGainIROCthreshold; //voltage threshold below which the IROC is considered low gain
	209	Float_t fBadIROCthreshhold; //voltage threshold for bad IROCS
	210	Float_t fLowGainOROCthreshold; //voltage threshold below which the OROC is considered low gain
	211	Float_t fBadOROCthreshhold; //voltage threshold for bad OROCS
	212	Float_t fMaxBadLengthFraction; //the maximum allowed fraction of track length in a bad sector.
	213
644666df	214	Int_t sectorNumber(Double_t phi) const;
	215
	216	Double_t fMagField; //! Magnetic field
	217
	218	static const char* fgkGainScenarioName[fgkNumberOfGainScenarios+1];
d2aa6df0	219
f84b18dd	220	TH2D* fhEtaCorr; //! Map for TPC eta correction
	221	TH2D* fhEtaSigmaPar1; //! Map for parameter 1 of the dEdx sigma parametrisation
	222
	223	Double_t fSigmaPar0; // Parameter 0 of the dEdx sigma parametrisation
	224
	225	ClassDef(AliTPCPIDResponse,5) // TPC PID class
8c6a71ab	226	};
	227
	228	#endif
	229
	230