Changes by Massimo Masera to allow Recpoints and Clusters to be written

[u/mrichter/AliRoot.git] / ITS / AliITSresponseSSD.h

#ifndef ALIITSRESPONSESSD_H
#define ALIITSRESPONSESSD_H
 
#include "AliITSresponse.h"

class TString;

// response for SSD

//-----------------------------
class AliITSresponseSSD : public AliITSresponse {

 public:
    AliITSresponseSSD();
    AliITSresponseSSD(const char *dataType);
    virtual ~AliITSresponseSSD();
    AliITSresponseSSD(const AliITSresponseSSD &source); // copy constructor
    AliITSresponseSSD& operator=(const AliITSresponseSSD &source); // ass. op.

    virtual void    SetDiffCoeff(Float_t p1=0.,Float_t dummy=0.) {
	// Diffusion coefficient
	fDiffCoeff=p1;
    }
    virtual void    DiffCoeff(Float_t &diffc,Float_t &dummy) {
	// Get diffusion coefficient
	diffc= fDiffCoeff;
    }

    virtual  void   SetNoiseParam(Float_t np=420., Float_t nn=625.) {
	// set noise par
	fNoiseP=np; fNoiseN=nn;
    }
    virtual void    GetNoiseParam(Float_t &np, Float_t &nn) {
	// get noise par
	np=fNoiseP; nn=fNoiseN;
    }

    virtual void    SetParamOptions(const char *opt1="", const char *opt2="") {
	// parameters: "SetInvalid" to simulate the invalid strips
	fOption1=opt1; fOption2=opt2;
    }
    virtual void    ParamOptions(char *opt1,char *opt2) {
	// options
	strcpy(opt1,fOption1.Data());  strcpy(opt2,fOption2.Data());
    }

    // Number of parameters to be set
    // 4 couplings, mean number of invalid strips, RMS of invalid strips
    virtual  void   SetNDetParam(Int_t npar=6) {
	// set number of param
	fNPar=npar;
    }

    virtual  void   SetDetParam(Float_t *par);

    // Parameters options
    virtual Int_t   NDetParam() {
	// number of param
	return fNPar;
    }
    virtual void    GetDetParam(Float_t *dpar); 

    virtual void    SetDataType(const char *data="simulated") {
	// Type of data - real or simulated
	fDataType=data;
    }
    virtual const char  *DataType() const {
	// Get data type
	return fDataType.Data();
    }

    virtual void    SetSigmaSpread(Float_t p1=3., Float_t p2=2.) {
	// Set sigmas of the charge spread function: Pside-Nside
	// square of (microns)
	fSigmaP=p1; fSigmaN=p2;
    }
    virtual void    SigmaSpread(Float_t &sP, Float_t &sN) {
	// Get sigmas for the charge spread 
	sP=fSigmaP; sN=fSigmaN;
    }
    virtual void SetADCpereV(Float_t a=50./30000.0){ // Sets electron-hole
	// pairs to ADC value conversion factor are rather arbitrary
	// (need tuning) minimum ionizing particle--> ~30000 pairs--> ADC
	// channel 50
	fADCpereV = a;
    }
    virtual Double_t DEvToADC(Double_t eV){ // Converts electron-hole pairs to
	// ADC value conversion factor are rather arbitrary (need tuning)
	// minimum ionizing particle--> ~30000 pairs--> ADC channel 50
	return eV*fADCpereV;
    }
    virtual Int_t IEvToADC(Double_t eV){ // Converts electron-hole pairs to
	// ADC value
	return ((Int_t) DEvToADC(eV));
    }
  
 protected:
    Int_t   fNPar;            // Number of detector param 
    Float_t *fDetPar;         //[fNPar] Array of parameters

    Float_t fNoiseP;          // Noise on Pside
    Float_t fNoiseN;          // Noise on Nside

    Float_t fSigmaP;          // Sigma charge spread on Pside
    Float_t fSigmaN;          // Sigma charge spread on Nside
    Float_t fDiffCoeff;       // Diffusion Coefficient

    Float_t fADCpereV;        // Constant to convert eV to ADC.

    TString fOption1;         // Simulate invalid strips option
    TString fOption2;         // Not used for the moment
    TString fDataType;       // Type of data - real or simulated

    ClassDef(AliITSresponseSSD,1) //Response class for SSD
};
#endif