LCOV - code coverage report
Current view: top level - STEER/ESD - AliESDTZERO.h (source / functions) Hit Total Coverage
Test: coverage.info Lines: 36 48 75.0 %
Date: 2016-06-14 17:26:59 Functions: 36 51 70.6 %

          Line data    Source code
       1             : 
       2             : // -*- mode: C++ -*- 
       3             : #ifndef ALIESDTZERO_H
       4             : #define ALIESDTZERO_H
       5             : 
       6             : /* Copyright(c) 1998-1999, ALICE Experiment at CERN, All rights reserved. *
       7             :  * See cxx source for full Copyright notice                               */
       8             : 
       9             : 
      10             : //-------------------------------------------------------------------------
      11             : //                          Class AliESDTZERO
      12             : //   This is a class that summarizes the TZERO data for the ESD   
      13             : //   Origin: Christian Klein-Boesing, CERN, Christian.Klein-Boesing@cern.ch 
      14             : //-------------------------------------------------------------------------
      15             : 
      16             : 
      17             : 
      18             : #include <TObject.h>
      19             : #include <TBits.h>
      20             : 
      21          60 : class AliESDTZERO: public TObject {
      22             : public:
      23             :   AliESDTZERO();
      24             :   AliESDTZERO(const AliESDTZERO& tzero);
      25             :   AliESDTZERO& operator=(const AliESDTZERO& tzero);
      26             :   virtual void Copy(TObject &obj) const;
      27             : 
      28          32 :   Double32_t GetT0zVertex() const {return fT0zVertex;}
      29          32 :   void SetT0zVertex(Double32_t z) {fT0zVertex=z;}
      30           0 :   Double32_t GetT0() const {return fT0timeStart;}
      31           0 :   void SetT0(Double_t timeStart) {fT0timeStart = timeStart;}
      32           0 :   Float_t GetT0clock() const {return fT0clock;}
      33           0 :   void SetT0clock(Float_t timeStart) {fT0clock = timeStart;}
      34             :   //1st
      35          48 :   Double32_t GetT0TOF(Int_t i) const {return fT0TOF[i];}
      36          16 :   const Double32_t * GetT0TOF() const {return fT0TOF;}
      37          96 :   void SetT0TOF(Int_t icase, Float_t time) { fT0TOF[icase] = time;}
      38             :   //best
      39          48 :   Double32_t GetT0TOFbest(Int_t i) const {return fT0TOFbest[i];}
      40           0 :   const Double32_t * GetT0TOFbest() const {return fT0TOFbest;}
      41          96 :   void SetT0TOFbest(Int_t icase, Float_t time) { fT0TOFbest[icase] = time;}
      42             : 
      43           0 :   Int_t GetT0Trig() const {return fT0trig;}
      44          32 :   void SetT0Trig(Int_t tvdc) {fT0trig = tvdc;}
      45           0 :   Bool_t GetT0Trig(Int_t i) {return (fT0trig&(1<<i)) != 0;}
      46           0 :   const Double32_t * GetT0time() const {return fT0time;}
      47             :   void SetT0time(Double32_t time[24]) {
      48         816 :     for (Int_t i=0; i<24; i++) fT0time[i] = time[i];
      49          16 :   }
      50          16 :   const Double32_t * GetT0amplitude() const {return fT0amplitude;}
      51             :   void SetT0amplitude(Double32_t amp[24]) {
      52         816 :     for (Int_t i=0; i<24; i++) fT0amplitude[i] = amp[i];
      53          16 :   }
      54        1152 :   Float_t GetTimeFull(Int_t ch, Int_t hit)  const {return fTimeFull[ch][hit];}
      55           0 :   Float_t GetOrA(Int_t hit) const {return fOrA[hit];}
      56           0 :    Float_t GetOrC(Int_t hit) const {return fOrC[hit];}
      57        1600 :    Float_t GetTVDC(Int_t hit) const {return fTVDC[hit];}
      58             :   
      59        3840 :   void SetTimeFull(Int_t ch, Int_t hit, Float_t time) {fTimeFull[ch][hit] = time;}
      60         160 :   void SetOrA (Int_t hit, Float_t time) { fOrA[hit] = time ;}
      61         160 :   void SetOrC (Int_t hit, Float_t time) { fOrC[hit] = time;}
      62         160 :   void SetTVDC(Int_t hit, Float_t time) { fTVDC[hit] = time;}
      63             :   
      64          32 :   void SetMultC(Float_t mult) {fMultC = mult;}
      65          32 :   void SetMultA(Float_t mult) {fMultA = mult;}
      66          16 :    Float_t GetMultC()       const {return fMultC;}
      67          16 :    Float_t GetMultA()       const {return fMultA;}
      68             : 
      69          80 :   void SetBackgroundFlag(Bool_t back = false) {fBackground = back;}
      70          80 :   void SetPileupFlag(Bool_t back = false) {fPileup  = back;}
      71          16 :   void SetSatelliteFlag(Bool_t sat = false) { fSattelite = sat;}
      72             :  
      73          16 :   Bool_t GetBackgroundFlag()  const {return fBackground;}
      74          16 :    Bool_t GetPileupFlag() const {return fPileup;}
      75          16 :   Bool_t GetSatellite() const {return fSattelite;}
      76             : 
      77         640 :   void SetPileupTime (Int_t hit, Float_t time) { fPileupTime[hit] = time;}
      78           0 :   Float_t GetPileupTime(Int_t hit) const  {return fPileupTime[hit];}
      79             : 
      80         160 :   void SetPileupBits(TBits pileup) {fPileupBits=pileup;}
      81         176 :   TBits GetT0PileupBits() const {return fPileupBits;}
      82             :   //new QTC
      83           0 :   const  Double32_t* GetT0NewAmplitude() const {return fT0NewAmplitude;}
      84             :   void SetT0NewAmplitude( Double32_t newamp[24]) {
      85         816 :     for (Int_t i=0; i<24; i++) fT0NewAmplitude[i] = newamp[i];
      86          16 :   }
      87             : 
      88             :   void    Reset();
      89             :   void    Print(const Option_t *opt=0) const;
      90             : 
      91             :  
      92             : private:
      93             : 
      94             :   Float_t      fT0clock;     // backward compatibility
      95             :   Double32_t   fT0TOF[3];     // interaction time in ps with 1st time( A&C, A, C)
      96             :   Double32_t   fT0zVertex;       // vertex z position estimated by the T0, cm
      97             :   Double32_t   fT0timeStart;     // interaction time estimated by the T0
      98             :   Int_t        fT0trig;            // T0 trigger signals
      99             :   Double32_t   fT0time[24];      // best TOF on each T0 PMT
     100             :   Double32_t   fT0amplitude[24]; // number of particles(MIPs) on each T0 PMT
     101             :   Float_t fTimeFull[24][5];    // array's TDC no-correction ;centred  around 0, ns
     102             :   Float_t fOrA[5];  //hardware OrA centred around 0, ns
     103             :   Float_t fOrC[5];  //hardware OrC centred around 0, ns
     104             :   Float_t fTVDC[5]; //hardware TVDC centred around 0, ns
     105             :   Bool_t fPileup;   // pile-up flag
     106             :   Bool_t fSattelite; //sattelite flag
     107             :   Float_t fMultC; // multiplicity on the C side
     108             :   Float_t fMultA; // multiplicity on the A side
     109             :   Bool_t fBackground; //sattelite flag
     110             :   Float_t fPileupTime[6];
     111             :   Double32_t   fT0TOFbest[3]; // interaction time in ps ( A&C, A, C) with best time
     112             :   Double32_t fT0NewAmplitude[24]; //new QTC
     113             :   TBits fPileupBits;     //BC number
     114             : 
     115        1168 :   ClassDef(AliESDTZERO,9)
     116             : };
     117             : 
     118             : 
     119             : #endif

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