class AliHMPIDCluster :public AliCluster3D
{
public:
- enum EClusterStatus {kFrm,kCoG,kLo1,kUnf,kMax,kNot,kEdg,kSi1,kNoLoc,kAbn,kEmp=-1}; //status flags
+ enum EClusterStatus {kFrm,kCoG,kLo1,kUnf,kMax,kNot,kEdg,kSi1,kNoLoc,kAbn,kBig,kEmp=-1}; //status flags
AliHMPIDCluster():AliCluster3D(),
fCh(-1),fSi(-1),fSt(kEmp),fBox(-1),fNlocMax(-1),fMaxQpad(-1),fMaxQ(-1),fQRaw(0),
fQ(0),fErrQ(-1),fXX(0),fErrX(-1),fYY(0),fErrY(-1),fChi2(-1),fDigs(0),fParam(AliHMPIDParam::Instance())
void Print (Option_t *opt="" )const; //overloaded TObject::Print() to print cluster info
static void FitFunc(Int_t &iNpars, Double_t* deriv, Double_t &chi2, Double_t *par, Int_t iflag);//fit function to be used by MINUIT
//private part
- Int_t Box ( )const{return fBox; } //Dimension of the cluster
+ Int_t Box ( )const{return fBox; } //Dimension of the cluster
void CoG ( ); //calculates center of gravity
void CorrSin ( ); //sinoidal correction
Int_t Ch ( )const{return fCh; } //chamber number
inline void Reset ( ); //cleans the cluster
void SetClusterParams(Double_t xL,Double_t yL,Int_t iCh ); //Set AliCluster3D part
Int_t Size ( )const{return fSi; } //returns number of pads in formed cluster
- Int_t Solve (TClonesArray *pCluLst,Bool_t isUnfold ); //solve cluster: MINUIT fit or CoG
+ Int_t Solve (TClonesArray *pCluLst,Int_t *pSigmaCut, Bool_t isUnfold); //solve cluster: MINUIT fit or CoG
Int_t Status ( ) const{return fSt;} //Status of cluster
Double_t QRaw ( )const{return fQRaw; } //raw cluster charge in QDC channels
Double_t Q ( )const{return fQ; } //given cluster charge in QDC channels
Double_t Qe ( )const{return fErrQ; } //Error in cluster charge in QDC channels
- Double_t X ( )const{return fXX; } //cluster x position in LRS
+ Double_t X ( )const{return fXX; } //cluster x position in LRS
Double_t Xe ( )const{return fErrX; } //cluster charge in QDC channels
- Double_t Y ( )const{return fYY; } //cluster y position in LRS
+ Double_t Y ( )const{return fYY; } //cluster y position in LRS
Double_t Ye ( )const{return fErrY; } //cluster charge in QDC channels
Double_t Chi2 ( )const{return fChi2; } //chi2 of the fit
- void DoCorrSin(Bool_t doCorrSin ){fgDoCorrSin=doCorrSin;} // Set sinoidal correction
- void SetX (Double_t x ){fXX=x;} // Setter
- void SetY (Double_t y ){fYY=y;} // Setter
+ void DoCorrSin(Bool_t doCorrSin ){fgDoCorrSin=doCorrSin;} // Set sinoidal correction
+ void SetX (Double_t x ){fXX=x;} // Setter
+ void SetY (Double_t y ){fYY=y;} // Setter
+ void SetSize (Int_t size ){fSi=size;} // Setter
+ void FindClusterSize(Int_t i,Int_t *pSigmaCut); //Find the clusterSize of deconvoluted clusters
protected:
Int_t fCh; //chamber number