ToFLevel2/inc/ToFLevel2.h

/**
 * \file ToFLevel2.h
 * \author Gianfranca DeRosa / Wolfgang Menn / Rita Carbone with E. M. supervision
 */

#ifndef ToFLevel2_h
#define ToFLevel2_h
//
#include <TObject.h>
#include <TArrayI.h>
#include <TArrayF.h>
#include <TClonesArray.h>

#include <math.h> // EMILIANO
#include <iostream> // from ToFLevel2.cpp
#include <fstream> // Emiliano
#include <sstream> // Emiliano 
#include <string> // Emiliano


#include <ToFStruct.h>

#include <TrkLevel2.h> // Emiliano
#include <TrigLevel2.h> // Emiliano 
#include <GLTables.h> // Emiliano
#include <OrbitalInfo.h> // Emiliano
#include <ToFCore.h> // Emiliano
#include <physics/tof/TofEvent.h>

//
// Declaration of the core fortran routines
//
#define tofl2com tofl2com_
extern "C" int tofl2com();
#define toftrk toftrk_
extern "C" int toftrk();
#define rdtofcal rdtofcal_
extern "C" int rdtofcal(char [], int *);

//
// class which contains track related variables
//
#define ZTOF11 53.74
#define ZTOF12 53.04
#define ZTOF21 23.94
#define ZTOF22 23.44
#define ZTOF31 -23.49
#define ZTOF32 -24.34


class ToFGeom : public TObject {

private:
  TArrayI  ePlane, eXY;

public:
  ToFGeom() {
    int plane[24] = { 
      0, 0, 0, 0, 0, 0, 0, 0,
      1, 1, 1, 1, 1, 1, 
      2, 2,             
      3, 3,             
      4, 4, 4,
      5, 5, 5
    };
    int plXY[6]= {  2,  1,  1,  2,  2,  1 }; // X==1, Y==2 */
    ePlane.Set(24,plane);
    eXY.Set(6,plXY);
  }

  int GetPad(   int idpmt)  { return (int)((idpmt+0.5)/2.); }
  int GetPlane( int idpmt)  { return ePlane[ GetPad(idpmt) ];  }
  int GetXY(    int idpmt)  { return eXY[ GetPlane(idpmt) ]; }

   ClassDef(ToFGeom,1);

};


/**
 * \brief  Class which contains the PMT data
 *
 * If there is a valid ADC or a TDC value (value<4095) for a PMT, both ADC and TDC data
 * are stored in the PMT class.
 * Look in the ToFLevel2Ex.cxx example in the repository how to read the PMT class. 
 */
class ToFPMT : public TObject {

 private:

 public:
    Int_t pmt_id;     ///<the identification number of the PMT from 0 to 47
    Float_t adc;      ///<raw ADC value for this PMT
    Float_t tdc;      ///<raw TDC value for this PMT
    Float_t tdc_tw;   ///<time-walk corrected TDC value for this PMT
    //
    ToFPMT();
    ToFPMT(const ToFPMT&);
    //
    ToFPMT* GetToFPMT(){return this;};
    void Clear(Option_t *t="");

    ClassDef(ToFPMT,2);
};

/**
 * \brief  Class used to calibrate adc to dEdx for each PMT
 *
 * Class used to calibrate adc to dEdx for each PMT
 */
class ToFdEdx : public TObject {

 private:
    //
    ToFGeom  eGeom;  // ToF geometry
    //
    Float_t  adc_he;
    TArrayF eDEDXpmt;  // 0-47  pmt dEdx
    // parameters:
    TArrayF PMTsat;  // 0-47  saturation parameters
    Float_t adc[48];
    //

    TArrayF parAtt[48];      // 48 x 6
    TArrayF parPos[48];      // 48 x 4
    TArrayF parDesatBB[48];  // 48 x 3
    TArrayF parBBneg[48];    // 48 x 3
    TArrayF  parBBpos;    // 48 x 1
 
    double f_adcPC( float x );
    double f_BB( TArrayF &p, float x );
    double f_BB5B( float x );
    double f_att( TArrayF &p, float x ) ;
    double f_att5B( float x );
    double f_desatBB( TArrayF &p, float x );  
    double f_desatBB5B( float x );
    double f_pos( TArrayF &p, float x );
    double f_pos5B( float x );
    float Get_adc_he( int id, float pl_x[6], float pl_y[6]);

    Bool_t conn[12]; 

    UInt_t ts[12];
    UInt_t te[12];    
   
    
 public:
    ToFdEdx();   // class constructor
    ~ToFdEdx(){ Delete(); };  // class distructor
    //
    void Clear(Option_t *option="");
    void Delete(Option_t *option="") { Clear(); }

    void Init(pamela::tof::TofEvent *tofl0 );  // init parameters
    void Init(Int_t i, Int_t j, Float_t adce);
    void Define_PMTsat();

    void ReadParAtt(            const char *fname  );
    void ReadParPos(            const char *fname  );
    void ReadParBBneg(          const char *fname  );
    void ReadParBBpos(          const char *fname  );
    void ReadParDesatBB(        const char *fname  );

    void CheckConnectors(UInt_t atime, GL_PARAM *glparam, TSQLServer *dbc);

    void Process( UInt_t atime, Float_t betamean, Float_t *xtr_tof, Float_t *ytr_tof); //
    void Print(Option_t *option="");

    Float_t GetdEdx_pmt(Int_t ipmt) { return eDEDXpmt[ipmt]; }  // 0-47 dEdx for each PMT for tracked events
    //
    ToFdEdx* GetToFdEdx(){return this;};
    ClassDef(ToFdEdx,2);
};


/**
 * \brief Class which contains the tracker related variables
 *
 * We can use the ToF standalone to find hitted paddles, calculate beta, etc..
 * These results are then stored with the "trkseqno" = -1.
 * If we use the track from the tracker, then the penetration points in the
 * scintillators are calculated, which defines the hitted paddles. For these paddles
 * we calculate then all the output.
 * Note: The artificial ADC values are stored as dEdx in the output, the dEdx will be
 * by definition = 1. However, the artificial TDC values are just used internally
 * and not stored in the output. But one can see in both cases which PMT has artificial
 * values using "adcflag" and "tdcflag".
 * Look in the ToFLevel2Ex.cxx example in the repository how to read the tracker related
 * variables. 
 */
class ToFTrkVar : public TObject {

 private:

 public:
  //
  Int_t trkseqno; ///< tracker sequ. number: -1=ToF standalone, 0=first Tracker track, ...
  //
  Int_t npmttdc;  ///<number of the TDC measurements used to evaluate beta
  TArrayI pmttdc;  ///<contains the ID (0..47) for the PMT used to evaluate beta
  TArrayI tdcflag; ///<flag for artificial TDC, "0" if normal TDC value

/**
 * \brief beta, 12 measurements for the 12  combinations, beta[13] is modified weighted mean
 *
 * The 12 measurements are S11-S31, S11-S32, S12-S31, S12-S32, and then analogue for
 * S2-S3 and S1-S2. 
 * The calculation of beta[13] is now modified:
 * We check the individual weights for artificial TDC values, then calculate
 * am mean beta for the first time. In a second step we loop again through
 * the single measurements, checking for the residual from the mean
 * The cut on the residual reject measurements > "x"-sigma. A chi2 value is
 * calculated, furthermore a "quality" value by adding the weights which
 * are finally used. If all measurements are taken, "quality" will be = 505.
 * A chi2 cut around 3-4 and a quality-cut > 400 is needed for clean beta
 * The Level2 beta[12] which is derived in the fortran routines uses: 10.,200.,20.
 * This is not a very high quality measurement. One can re-calculate a new beta[13]
 * using the L2-method "CalcBeta"
 */
  Float_t beta[13]; 
  //
  Int_t npmtadc;  ///<number of the ADC measurements used for dEdx evaluation
  TArrayI pmtadc; ///<contains the ID (0..47) for the PMT used to evaluate dEdx
  TArrayI adcflag; ///<flag for artificial ADCs, "0" if normal ADC value
  TArrayF dedx;    ///<energy loss for this PMT in mip
  //
  Float_t xtofpos[3];  ///<x-measurement using the TDC values and the calibration from S12, S21, S32
  Float_t ytofpos[3];  ///<x-measurement using the TDC values and the calibration from S11, S22, S31
  //
  Float_t xtr_tof[6];  ///<x-measurement in the ToF layers from tracker
  Float_t ytr_tof[6];  ///<x-measurement in the ToF layers from tracker
  //
  ToFTrkVar();
  ToFTrkVar(const ToFTrkVar&);

  ToFTrkVar* GetToFTrkVar(){return this;};
  void Clear(Option_t *t="");

  ClassDef(ToFTrkVar,1);
  //
};

/**
 * \brief  Class to describe ToF LEVEL2 data
 *
 */

class ToFLevel2 : public TObject {
 private:

 public:
  //
  TClonesArray *PMT; ///<class needed to store PMT hit informations
  TClonesArray *ToFTrk; ///<track related variable class
  Int_t tof_j_flag[6];  ///<number of hitted paddle(s) for each ToF layer: flag = flag + 2**(paddlenumber-1)
  //
  Int_t unpackError;///< zero if no error presente
  Int_t default_calib; ///< one if the default calibration has been used to process the data, zero otherwise
  //
  Float_t GetdEdx(Int_t notrack, Int_t plane, Int_t adcfl); // gf Apr 07

  Float_t CalcBeta(Int_t notrack, Float_t resmax, Float_t qualitycut, Float_t chi2cut);  //  wm feb 08

  //
//  Float_t CalcBeta(Int_t notrack, Float_t resmax, Float_t chi2cut, Float_t qualitycut);   // wm feb 08
  //
  // methods to make life simplier during the analysis, returns a pointer to the ToFTrkVar class containing track related variables
  //
  Int_t ntrk(){return ToFTrk->GetEntries();};
  Int_t npmt(){return PMT->GetEntries();};

  //
  void GetLevel2Struct(cToFLevel2 *) const;
  //
  ToFTrkVar *GetToFTrkVar(Int_t notrack);
  ToFPMT *GetToFPMT(Int_t nohit);
  Int_t GetPMTid(Int_t gg, Int_t hh);
  TString GetPMTName(Int_t ind);
  
  Int_t GetPlaneIndex(Int_t pmt_id);
  void GetMatrix(Int_t notrack, Float_t adc[4][12], Float_t tdc[4][12]);
  void GetPMTIndex(Int_t pmt_id, Int_t &gg, Int_t &hh);

  // gf Apr 07
  void GetdEdxPaddle(Int_t notrack, Int_t paddleid, Int_t adcfl, Float_t &PadEdx, Int_t &SatWarning); // gf Apr 07
  TString GetPMTName(Int_t ind, Int_t &iplane, Int_t &ipaddle,Int_t &ipmt);
  Int_t GetPaddleIdOfTrack(Float_t xtr, Float_t ytr, Int_t plane); // gf Apr 07
  Int_t GetPaddleIdOfTrack(Float_t xtr, Float_t ytr, Int_t plane, Float_t margin); // wm jun 2008
  void GetPMTPaddle(Int_t pmt_id, Int_t &plane, Int_t &paddle); // gf Apr 07
  void GetPaddlePMT(Int_t paddle, Int_t &pmtleft, Int_t &pmtright); // gf Apr 07
  void GetPaddleGeometry(Int_t plane, Int_t paddle, Float_t &xleft, Float_t &xright, Float_t &yleft, Float_t &yright); // gf Apr 07
  Int_t GetPaddleid(Int_t plane, Int_t paddle);
  void GetPaddlePlane(Int_t padid, Int_t &plane, Int_t &paddle);
  Int_t GetNPaddle(Int_t plane);
  //
  //
  //
  Int_t Process(TrkLevel2 *trk, TrigLevel2 *trg, GL_RUN *run, OrbitalInfo *orb, Bool_t force); // Emiliano
  
  //
  // constructor
  //
  ToFLevel2();
  ~ToFLevel2(){Delete();}; //ELENA
  void Delete(Option_t *t=""); //ELENA
  void Set();//ELENA
  //
  //
  ToFLevel2*   GetToFLevel2(){return this;};

/**
 * Method to get the z-position of the 6 TOF layers from the plane ID
 * @param plane_id Plane ID (11 12 21 22 31 32)
 */
  Float_t      GetZTOF(Int_t plane_id){
      switch(plane_id){
      case 11: return ZTOF11;
      case 12: return ZTOF12;
      case 21: return ZTOF21;
      case 22: return ZTOF22;
      case 31: return ZTOF31;
      case 32: return ZTOF32;
      default: return 0.;
      };
  };

    //
    // Paddles position
    //
    /*
      S11 8 paddles  33.0 x 5.1 cm
      S12 6 paddles  40.8 x 5.5 cm
      S21 2 paddles  18.0 x 7.5 cm
      S22 2 paddles  15.0 x 9.0 cm
      S31 3 paddles  15.0 x 6.0 cm
      S32 3 paddles  18.0 x 5.0 cm
    */

    Int_t  GetToFPlaneID(Int_t ip);
    Int_t  GetToFPlaneIndex(Int_t plane_id);
    Bool_t HitPaddle(Int_t ,Int_t);
    Int_t  GetNHitPaddles(Int_t plane);
    void Clear(Option_t *t="");
    //
    ClassDef(ToFLevel2,4);
};

#endif

1	pam-de	1.14	/**
2			* \file ToFLevel2.h
3	mocchiut	1.24	* \author Gianfranca DeRosa / Wolfgang Menn / Rita Carbone with E. M. supervision
4	pam-de	1.14	*/
5
6	mocchiut	1.1	#ifndef ToFLevel2_h
7			#define ToFLevel2_h
8			//
9			#include <TObject.h>
10	mocchiut	1.4	#include <TArrayI.h>
11			#include <TArrayF.h>
12	mocchiut	1.1	#include <TClonesArray.h>
13	pam-fi	1.6
14	mocchiut	1.18	#include <math.h> // EMILIANO
15	mocchiut	1.21	#include <iostream> // from ToFLevel2.cpp
16			#include <fstream> // Emiliano
17			#include <sstream> // Emiliano
18			#include <string> // Emiliano
19
20	mocchiut	1.18
21	pam-fi	1.6	#include <ToFStruct.h>
22	pam-de	1.14
23	mocchiut	1.21	#include <TrkLevel2.h> // Emiliano
24			#include <TrigLevel2.h> // Emiliano
25			#include <GLTables.h> // Emiliano
26			#include <OrbitalInfo.h> // Emiliano
27			#include <ToFCore.h> // Emiliano
28	carbone	1.23	#include <physics/tof/TofEvent.h>
29
30	mocchiut	1.21	//
31			// Declaration of the core fortran routines
32			//
33			#define tofl2com tofl2com_
34			extern "C" int tofl2com();
35			#define toftrk toftrk_
36			extern "C" int toftrk();
37			#define rdtofcal rdtofcal_
38			extern "C" int rdtofcal(char [], int *);
39	pam-de	1.14
40	mocchiut	1.1	//
41			// class which contains track related variables
42			//
43			#define ZTOF11 53.74
44			#define ZTOF12 53.04
45			#define ZTOF21 23.94
46			#define ZTOF22 23.44
47			#define ZTOF31 -23.49
48			#define ZTOF32 -24.34
49
50	mocchiut	1.4
51	carbone	1.23	class ToFGeom : public TObject {
52
53			private:
54			TArrayI ePlane, eXY;
55
56			public:
57			ToFGeom() {
58			int plane[24] = {
59			0, 0, 0, 0, 0, 0, 0, 0,
60			1, 1, 1, 1, 1, 1,
61			2, 2,
62			3, 3,
63			4, 4, 4,
64			5, 5, 5
65			};
66			int plXY[6]= { 2, 1, 1, 2, 2, 1 }; // X==1, Y==2 */
67			ePlane.Set(24,plane);
68			eXY.Set(6,plXY);
69			}
70
71			int GetPad( int idpmt) { return (int)((idpmt+0.5)/2.); }
72			int GetPlane( int idpmt) { return ePlane[ GetPad(idpmt) ]; }
73			int GetXY( int idpmt) { return eXY[ GetPlane(idpmt) ]; }
74
75			ClassDef(ToFGeom,1);
76
77			};
78
79
80	pam-de	1.14	/**
81			* \brief Class which contains the PMT data
82			*
83	pam-de	1.15	* If there is a valid ADC or a TDC value (value<4095) for a PMT, both ADC and TDC data
84			* are stored in the PMT class.
85			* Look in the ToFLevel2Ex.cxx example in the repository how to read the PMT class.
86	pam-de	1.14	*/
87	mocchiut	1.4	class ToFPMT : public TObject {
88	pam-de	1.14
89	mocchiut	1.4	private:
90
91			public:
92	pam-de	1.14	Int_t pmt_id; ///<the identification number of the PMT from 0 to 47
93	mocchiut	1.25	Float_t adc; ///<raw ADC value for this PMT
94	mocchiut	1.17	Float_t tdc; ///<raw TDC value for this PMT
95	pam-de	1.15	Float_t tdc_tw; ///<time-walk corrected TDC value for this PMT
96	mocchiut	1.4	//
97			ToFPMT();
98			ToFPMT(const ToFPMT&);
99			//
100			ToFPMT* GetToFPMT(){return this;};
101	mocchiut	1.19	void Clear(Option_t *t="");
102	mocchiut	1.4
103	mocchiut	1.17	ClassDef(ToFPMT,2);
104	mocchiut	1.4	};
105
106	carbone	1.23	/**
107			* \brief Class used to calibrate adc to dEdx for each PMT
108			*
109			* Class used to calibrate adc to dEdx for each PMT
110			*/
111			class ToFdEdx : public TObject {
112
113			private:
114			//
115			ToFGeom eGeom; // ToF geometry
116			//
117			Float_t adc_he;
118			TArrayF eDEDXpmt; // 0-47 pmt dEdx
119			// parameters:
120			TArrayF PMTsat; // 0-47 saturation parameters
121	mocchiut	1.24	Float_t adc[48];
122			//
123	carbone	1.23
124			TArrayF parAtt[48]; // 48 x 6
125			TArrayF parPos[48]; // 48 x 4
126			TArrayF parDesatBB[48]; // 48 x 3
127			TArrayF parBBneg[48]; // 48 x 3
128			TArrayF parBBpos; // 48 x 1
129
130			double f_adcPC( float x );
131			double f_BB( TArrayF &p, float x );
132			double f_BB5B( float x );
133			double f_att( TArrayF &p, float x ) ;
134			double f_att5B( float x );
135			double f_desatBB( TArrayF &p, float x );
136			double f_desatBB5B( float x );
137			double f_pos( TArrayF &p, float x );
138			double f_pos5B( float x );
139			float Get_adc_he( int id, float pl_x[6], float pl_y[6]);
140
141			Bool_t conn[12];
142
143			UInt_t ts[12];
144			UInt_t te[12];
145
146
147			public:
148			ToFdEdx(); // class constructor
149			~ToFdEdx(){ Delete(); }; // class distructor
150			//
151			void Clear(Option_t *option="");
152			void Delete(Option_t *option="") { Clear(); }
153
154	mocchiut	1.24	void Init(pamela::tof::TofEvent *tofl0 ); // init parameters
155			void Init(Int_t i, Int_t j, Float_t adce);
156	carbone	1.23	void Define_PMTsat();
157
158			void ReadParAtt( const char *fname );
159			void ReadParPos( const char *fname );
160			void ReadParBBneg( const char *fname );
161			void ReadParBBpos( const char *fname );
162			void ReadParDesatBB( const char *fname );
163
164			void CheckConnectors(UInt_t atime, GL_PARAM glparam, TSQLServer dbc);
165
166	mocchiut	1.24	void Process( UInt_t atime, Float_t betamean, Float_t xtr_tof, Float_t ytr_tof); //
167	carbone	1.23	void Print(Option_t *option="");
168
169			Float_t GetdEdx_pmt(Int_t ipmt) { return eDEDXpmt[ipmt]; } // 0-47 dEdx for each PMT for tracked events
170			//
171			ToFdEdx* GetToFdEdx(){return this;};
172	mocchiut	1.24	ClassDef(ToFdEdx,2);
173	carbone	1.23	};
174
175	mocchiut	1.4
176	pam-de	1.14	/**
177	pam-de	1.15	* \brief Class which contains the tracker related variables
178	pam-de	1.14	*
179	pam-de	1.15	* We can use the ToF standalone to find hitted paddles, calculate beta, etc..
180			* These results are then stored with the "trkseqno" = -1.
181			* If we use the track from the tracker, then the penetration points in the
182			* scintillators are calculated, which defines the hitted paddles. For these paddles
183			* we calculate then all the output.
184			* Note: The artificial ADC values are stored as dEdx in the output, the dEdx will be
185			* by definition = 1. However, the artificial TDC values are just used internally
186			* and not stored in the output. But one can see in both cases which PMT has artificial
187			* values using "adcflag" and "tdcflag".
188			* Look in the ToFLevel2Ex.cxx example in the repository how to read the tracker related
189			* variables.
190	pam-de	1.14	*/
191	mocchiut	1.1	class ToFTrkVar : public TObject {
192	pam-de	1.14
193	mocchiut	1.1	private:
194
195			public:
196	mocchiut	1.13	//
197	pam-de	1.14	Int_t trkseqno; ///< tracker sequ. number: -1=ToF standalone, 0=first Tracker track, ...
198	mocchiut	1.1	//
199	pam-de	1.15	Int_t npmttdc; ///<number of the TDC measurements used to evaluate beta
200			TArrayI pmttdc; ///<contains the ID (0..47) for the PMT used to evaluate beta
201			TArrayI tdcflag; ///<flag for artificial TDC, "0" if normal TDC value
202
203			/**
204	mocchiut	1.20	* \brief beta, 12 measurements for the 12 combinations, beta[13] is modified weighted mean
205	pam-de	1.15	*
206			* The 12 measurements are S11-S31, S11-S32, S12-S31, S12-S32, and then analogue for
207			* S2-S3 and S1-S2.
208	mocchiut	1.20	* The calculation of beta[13] is now modified:
209			* We check the individual weights for artificial TDC values, then calculate
210			* am mean beta for the first time. In a second step we loop again through
211			* the single measurements, checking for the residual from the mean
212			* The cut on the residual reject measurements > "x"-sigma. A chi2 value is
213			* calculated, furthermore a "quality" value by adding the weights which
214			* are finally used. If all measurements are taken, "quality" will be = 505.
215			* A chi2 cut around 3-4 and a quality-cut > 400 is needed for clean beta
216			* The Level2 beta[12] which is derived in the fortran routines uses: 10.,200.,20.
217			* This is not a very high quality measurement. One can re-calculate a new beta[13]
218			* using the L2-method "CalcBeta"
219	pam-de	1.15	*/
220			Float_t beta[13];
221			//
222			Int_t npmtadc; ///<number of the ADC measurements used for dEdx evaluation
223			TArrayI pmtadc; ///<contains the ID (0..47) for the PMT used to evaluate dEdx
224			TArrayI adcflag; ///<flag for artificial ADCs, "0" if normal ADC value
225			TArrayF dedx; ///<energy loss for this PMT in mip
226	mocchiut	1.4	//
227	pam-de	1.15	Float_t xtofpos[3]; ///<x-measurement using the TDC values and the calibration from S12, S21, S32
228			Float_t ytofpos[3]; ///<x-measurement using the TDC values and the calibration from S11, S22, S31
229	mocchiut	1.16	//
230			Float_t xtr_tof[6]; ///<x-measurement in the ToF layers from tracker
231			Float_t ytr_tof[6]; ///<x-measurement in the ToF layers from tracker
232	mocchiut	1.1	//
233			ToFTrkVar();
234			ToFTrkVar(const ToFTrkVar&);
235	pam-de	1.14
236	mocchiut	1.1	ToFTrkVar* GetToFTrkVar(){return this;};
237	mocchiut	1.19	void Clear(Option_t *t="");
238	mocchiut	1.4
239	mocchiut	1.1	ClassDef(ToFTrkVar,1);
240			//
241			};
242
243	pam-de	1.14	/**
244			* \brief Class to describe ToF LEVEL2 data
245			*
246			*/
247
248	mocchiut	1.1	class ToFLevel2 : public TObject {
249			private:
250	pam-de	1.14
251	mocchiut	1.1	public:
252	mocchiut	1.4	//
253	pam-de	1.14	TClonesArray *PMT; ///<class needed to store PMT hit informations
254			TClonesArray *ToFTrk; ///<track related variable class
255			Int_t tof_j_flag[6]; ///<number of hitted paddle(s) for each ToF layer: flag = flag + 2**(paddlenumber-1)
256	mocchiut	1.17	//
257			Int_t unpackError;///< zero if no error presente
258			Int_t default_calib; ///< one if the default calibration has been used to process the data, zero otherwise
259	mocchiut	1.1	//
260	mocchiut	1.16	Float_t GetdEdx(Int_t notrack, Int_t plane, Int_t adcfl); // gf Apr 07
261	mocchiut	1.20
262			Float_t CalcBeta(Int_t notrack, Float_t resmax, Float_t qualitycut, Float_t chi2cut); // wm feb 08
263
264			//
265			// Float_t CalcBeta(Int_t notrack, Float_t resmax, Float_t chi2cut, Float_t qualitycut); // wm feb 08
266	mocchiut	1.1	//
267			// methods to make life simplier during the analysis, returns a pointer to the ToFTrkVar class containing track related variables
268			//
269			Int_t ntrk(){return ToFTrk->GetEntries();};
270	mocchiut	1.4	Int_t npmt(){return PMT->GetEntries();};
271	pam-de	1.14
272	mocchiut	1.1	//
273	pam-fi	1.6	void GetLevel2Struct(cToFLevel2 *) const;
274			//
275	pam-de	1.14	ToFTrkVar *GetToFTrkVar(Int_t notrack);
276			ToFPMT *GetToFPMT(Int_t nohit);
277	mocchiut	1.4	Int_t GetPMTid(Int_t gg, Int_t hh);
278			TString GetPMTName(Int_t ind);
279	mocchiut	1.16
280	mocchiut	1.4	Int_t GetPlaneIndex(Int_t pmt_id);
281			void GetMatrix(Int_t notrack, Float_t adc[4][12], Float_t tdc[4][12]);
282	mocchiut	1.5	void GetPMTIndex(Int_t pmt_id, Int_t &gg, Int_t &hh);
283	mocchiut	1.16
284			// gf Apr 07
285			void GetdEdxPaddle(Int_t notrack, Int_t paddleid, Int_t adcfl, Float_t &PadEdx, Int_t &SatWarning); // gf Apr 07
286			TString GetPMTName(Int_t ind, Int_t &iplane, Int_t &ipaddle,Int_t &ipmt);
287			Int_t GetPaddleIdOfTrack(Float_t xtr, Float_t ytr, Int_t plane); // gf Apr 07
288	pamela	1.22	Int_t GetPaddleIdOfTrack(Float_t xtr, Float_t ytr, Int_t plane, Float_t margin); // wm jun 2008
289	mocchiut	1.16	void GetPMTPaddle(Int_t pmt_id, Int_t &plane, Int_t &paddle); // gf Apr 07
290			void GetPaddlePMT(Int_t paddle, Int_t &pmtleft, Int_t &pmtright); // gf Apr 07
291			void GetPaddleGeometry(Int_t plane, Int_t paddle, Float_t &xleft, Float_t &xright, Float_t &yleft, Float_t &yright); // gf Apr 07
292			Int_t GetPaddleid(Int_t plane, Int_t paddle);
293			void GetPaddlePlane(Int_t padid, Int_t &plane, Int_t &paddle);
294			Int_t GetNPaddle(Int_t plane);
295			//
296	mocchiut	1.20	//
297	mocchiut	1.21	//
298			Int_t Process(TrkLevel2 trk, TrigLevel2 trg, GL_RUN run, OrbitalInfo orb, Bool_t force); // Emiliano
299	mocchiut	1.16
300	mocchiut	1.1	//
301			// constructor
302			//
303			ToFLevel2();
304	mocchiut	1.13	~ToFLevel2(){Delete();}; //ELENA
305	mocchiut	1.19	void Delete(Option_t *t=""); //ELENA
306	mocchiut	1.13	void Set();//ELENA
307	mocchiut	1.1	//
308			//
309			ToFLevel2* GetToFLevel2(){return this;};
310	pam-de	1.14
311			/**
312	pam-de	1.15	* Method to get the z-position of the 6 TOF layers from the plane ID
313	pam-de	1.14	* @param plane_id Plane ID (11 12 21 22 31 32)
314			*/
315	mocchiut	1.4	Float_t GetZTOF(Int_t plane_id){
316	mocchiut	1.1	switch(plane_id){
317			case 11: return ZTOF11;
318			case 12: return ZTOF12;
319			case 21: return ZTOF21;
320			case 22: return ZTOF22;
321			case 31: return ZTOF31;
322			case 32: return ZTOF32;
323			default: return 0.;
324			};
325	mocchiut	1.4	};
326	pam-de	1.14
327	mocchiut	1.1	//
328			// Paddles position
329			//
330			/*
331			S11 8 paddles 33.0 x 5.1 cm
332			S12 6 paddles 40.8 x 5.5 cm
333			S21 2 paddles 18.0 x 7.5 cm
334			S22 2 paddles 15.0 x 9.0 cm
335			S31 3 paddles 15.0 x 6.0 cm
336			S32 3 paddles 18.0 x 5.0 cm
337			*/
338	pam-de	1.14
339	mocchiut	1.1	Int_t GetToFPlaneID(Int_t ip);
340			Int_t GetToFPlaneIndex(Int_t plane_id);
341			Bool_t HitPaddle(Int_t ,Int_t);
342			Int_t GetNHitPaddles(Int_t plane);
343	mocchiut	1.19	void Clear(Option_t *t="");
344	mocchiut	1.1	//
345	mocchiut	1.21	ClassDef(ToFLevel2,4);
346	mocchiut	1.1	};
347
348			#endif
349	pam-de	1.14