// Base class for the PHOS reconstruction parameters.
// Do not use in the reconstruction; use derivative classes instead.
-#include "TNamed.h"
+#include "AliDetectorRecoParam.h"
-
-class AliPHOSRecoParam : public TNamed {
+class AliPHOSRecoParam : public AliDetectorRecoParam {
public:
AliPHOSRecoParam& operator = (const AliPHOSRecoParam& recoParam);
virtual ~AliPHOSRecoParam() {}
- Float_t GetClusteringThreshold() const { return fClusteringThreshold; }
- Float_t GetLocalMaxCut() const { return fLocMaxCut; }
- Float_t GetMinE() const { return fMinE; }
- Float_t GetLogWeight() const { return fW0; }
- Bool_t SubtractPedestals() const { return fSubtractPedestals; }
- Bool_t ToUnfold() const { return fUnfold; }
- Bool_t IsOldRCUFormat() const { return fOldRCUFormat; }
- const char* DecoderVersion() const { return fDecoderVersion.Data();}
-
- void SetClusteringThreshold(Float_t cluth) { fClusteringThreshold=cluth; }
- void SetLocalMaxCut(Float_t cut) { fLocMaxCut =cut; }
- void SetMinE(Float_t minE) { fMinE =minE; }
- void SetLogWeight(Float_t w) { fW0 =w; }
- void SetSubtractPedestals(Bool_t subtract) { fSubtractPedestals =subtract;}
- void SetDecoderVersion(const char* version="v1"){fDecoderVersion =version ;}
- void SetUnfolding(Bool_t toUnfold=kFALSE) {fUnfold =toUnfold;}
- void SetOldRCUFormat(Bool_t oldRCU = kTRUE) {fOldRCUFormat =oldRCU; }
+ Float_t GetEMCClusteringThreshold() const { return fEMCClusteringThreshold; }
+ Float_t GetEMCLocalMaxCut() const { return fEMCLocMaxCut; }
+ Float_t GetEMCRawDigitThreshold() const { return fEMCRawDigitThreshold; }
+ Float_t GetEMCMinE() const { return fEMCMinE; }
+ Float_t GetEMCLogWeight() const { return fEMCW0; }
+ Float_t GetEMCSampleQualityCut() const { return fEMCSampleQualityCut; }
+ Float_t GetEMCEcoreRadius() const { return fEMCEcoreRadius; }
+ Bool_t EMCEcore2ESD() const { return fEMCEcore2ESD; }
+ Bool_t EMCSubtractPedestals() const { return fEMCSubtractPedestals; }
+ Bool_t EMCToUnfold() const { return fEMCUnfold; }
+ const char* EMCFitterVersion() const { return fEMCFitterVersion.Data(); }
+ Bool_t GetEMCEnergyCorrectionOn() const { return fEMCEnergyCorrectionOn; }
+ Int_t GetGlobalAltroOffset() const { return fGlobalAltroOffset ; }
+ Int_t GetGlobalAltroThreshold() const { return fGlobalAltroThreshold ; }
+
+ Float_t GetCPVClusteringThreshold() const { return fCPVClusteringThreshold; }
+ Float_t GetCPVLocalMaxCut() const { return fCPVLocMaxCut; }
+ Float_t GetCPVMinE() const { return fCPVMinE; }
+ Float_t GetCPVLogWeight() const { return fCPVW0; }
+ Bool_t CPVToUnfold() const { return fCPVUnfold; }
+
+ void SetEMCClusteringThreshold(Float_t cluth) { fEMCClusteringThreshold=cluth; }
+ void SetEMCLocalMaxCut(Float_t cut) { fEMCLocMaxCut =cut; }
+ void SetEMCRawDigitThreshold(Float_t rawDigTh) { fEMCRawDigitThreshold =rawDigTh;}
+ void SetEMCMinE(Float_t minE) { fEMCMinE =minE; }
+ void SetEMCLogWeight(Float_t w) { fEMCW0 =w; }
+ void SetEMCSampleQualityCut(Float_t qu) { fEMCSampleQualityCut =qu; }
+ void SetEMCEcoreRadius(Float_t rCore) { fEMCEcoreRadius =rCore; }
+ void SetEMCEcore2ESD(Bool_t ecore) { fEMCEcore2ESD =ecore; }
+ void SetEMCSubtractPedestals(Bool_t subtract) { fEMCSubtractPedestals =subtract;}
+ void SetEMCFitterVersion(const char* version="v1") { fEMCFitterVersion =version ; }
+ void SetEMCUnfolding(Bool_t toUnfold=kFALSE) { fEMCUnfold =toUnfold;}
+ void SetEMCEnergyCorrectionOn(Bool_t on=kTRUE) { fEMCEnergyCorrectionOn =on; }
+ void SetGlobalAltroOffset(Int_t offset=5) { fGlobalAltroOffset =offset ; }
+ void SetGlobalAltroThreshold(Int_t ZSth=5) { fGlobalAltroThreshold =ZSth; }
+
+ void SetCPVClusteringThreshold(Float_t cluth) { fCPVClusteringThreshold=cluth; }
+ void SetCPVLocalMaxCut(Float_t cut) { fCPVLocMaxCut =cut; }
+ void SetCPVMinE(Float_t minE) { fCPVMinE =minE; }
+ void SetCPVLogWeight(Float_t w) { fCPVW0 =w; }
+ void SetCPVUnfolding(Bool_t toUnfold=kFALSE) { fCPVUnfold =toUnfold;}
+
+ virtual void Print(const Option_t *option="RecoParam") const;
+
+ static AliPHOSRecoParam* GetDefaultParameters();
+ static const TObjArray* GetMappings();
protected:
- Float_t fClusteringThreshold;
- Float_t fLocMaxCut;
- Float_t fMinE;
- Float_t fW0;
- Bool_t fSubtractPedestals;
- Bool_t fUnfold;
- Bool_t fOldRCUFormat; // kTRUE if RCU has old firmware (2006-2007)
- TString fDecoderVersion ;
+ Float_t fEMCClusteringThreshold; // EMC: Min.digit energy to start a new cluster, in GeV
+ Float_t fEMCLocMaxCut; // EMC: Min.energy difference between two local maxima, in GeV
+ Float_t fEMCRawDigitThreshold; // EMC: Min.amplitude of a digit produced from raw data in ADC
+ Float_t fEMCMinE; // EMC: Min.E in the digits list associated with rec.point, in GeV
+ Float_t fEMCW0; // EMC: Log.weight to evaluate a local coordinate of rec.point
+ Float_t fEMCSampleQualityCut; // EMC: Cut on pulse shape fit quality
+ Float_t fEMCEcoreRadius; // EMC: Radius within which the core energy is calculated, in cm
+ Bool_t fEMCEcore2ESD; // EMC: true if Ecore is stored in ESD instead of Etot
+ Bool_t fEMCSubtractPedestals; // EMC: true if pedestal should be subtracted (in non-ZS)
+ Bool_t fEMCUnfold; // EMC: true if overlapped clusters should be unfolded
+ Bool_t fEMCEnergyCorrectionOn; // EMC: if true do non-linear correction of cluster energy
+ TString fEMCFitterVersion ; // EMC: AliPHOSRawFitter version
+ Int_t fGlobalAltroOffset ; // Offset used in ALTRO chips in SZ runs
+ Int_t fGlobalAltroThreshold ; // Threshold used in ALTRO chips in SZ runs
+
+ Float_t fCPVClusteringThreshold; // CPV: Min.digit energy to start a new cluster, in GeV
+ Float_t fCPVLocMaxCut; // CPV: Min.energy difference between two local maxima, in GeV
+ Float_t fCPVMinE; // CPV: Min.E in the digits list associated with rec.point, in GeV
+ Float_t fCPVW0; // CPV: Log.weight to evaluate a local coordinate of rec.point
+ Bool_t fCPVUnfold; // CPV: true if overlapped clusters should be unfolded
+
+ static TObjArray* fgkMaps; // ALTRO mappings for RCU0..RCU3
- ClassDef(AliPHOSRecoParam,2)
+ ClassDef(AliPHOSRecoParam,10)
};
#endif
git://git.uio.no / u / mrichter / AliRoot.git / blobdiff