#ifndef MARS_MSignalPix #define MARS_MSignalPix #ifndef MARS_MParContainer #include "MParContainer.h" #endif #ifndef MARS_MMath #include "MMath.h" #endif class MSignalPix : public MParContainer { private: Bool_t fIsCore; //! the pixel is a Core pixel -> kTRUE Short_t fRing; // NT: number of analyzed rings around the core pixels, fRing>0 means: used, fRing= 0 means: unused, fRing= -1 means: unmapped (no possible to use in the calculation of the image parameters) Short_t fIdxIsland; //! the pixel is a Core pixel -> kTRUE Float_t fPhot; // The number of Cerenkov photons Float_t fErrPhot; // the error of fPhot Float_t fArrivalTime; // Calibrated Arrival Time Float_t fTimeSlope; // Time between half rise time and position of maximum public: MSignalPix(Float_t phot=0, Float_t errphot=0); MSignalPix(const MSignalPix &pix) : fIsCore(pix.fIsCore), fRing(pix.fRing), fIdxIsland(pix.fIdxIsland), fPhot(pix.fPhot), fErrPhot(pix.fErrPhot), fArrivalTime(pix.fArrivalTime), fTimeSlope(pix.fTimeSlope) { } // TObject void Clear(Option_t *o=0); void Copy(TObject &obj) const { MSignalPix &pix = (MSignalPix&)obj; pix.fIsCore = fIsCore; pix.fRing = fRing; pix.fIdxIsland = fIdxIsland; pix.fPhot = fPhot; pix.fErrPhot = fErrPhot; pix.fArrivalTime = fArrivalTime; pix.fTimeSlope = fTimeSlope; } void Print(Option_t *opt = NULL) const; // MSignalPix Float_t GetNumPhotons() const { return fPhot; } Float_t GetErrorPhot() const { return fErrPhot; } Float_t GetArrivalTime() const { return fArrivalTime; } Float_t GetTimeSlope() const { return fTimeSlope; } Bool_t IsPixelUsed() const { return fRing>0; } Bool_t IsPixelUnmapped() const { return fRing==-1; } void SetPixelUnused() { fRing=0; } void SetPixelUsed() { fRing=1; } void SetPixelUnmapped() { fRing=-1; } void SetIdxIsland(Short_t num) { fIdxIsland=num; } Short_t GetIdxIsland() const { return fIdxIsland; } void SetRing(UShort_t r) { fRing = r; } Short_t GetRing() const { return fRing;} void SetPixelCore(Bool_t b=kTRUE) { fIsCore = b; } Bool_t IsPixelCore() const { return fIsCore; } void SetNumPhotons(Float_t f) { MMath::ReducePrecision(f); fPhot = f; } void SetErrorPhot(Float_t f) { MMath::ReducePrecision(f); fErrPhot = f; } void Set(Float_t np, Float_t ep) { MMath::ReducePrecision(np); MMath::ReducePrecision(ep); fPhot = np; fErrPhot = ep; } void SetArrivalTime(Float_t tm) { fArrivalTime = tm; } void SetTimeSlope(Float_t ts) { fTimeSlope = ts; } //void AddNumPhotons(Float_t f) { fPhot += f; } //void Scale(Float_t f) { fPhot /= f; } ClassDef(MSignalPix, 8) // class containing information about the Cerenkov Photons in a pixel }; #endif