ToFLevel2/inc/ToFCore.h

#ifndef l2tofcore_h
#define l2tofcore_h
#include <TSystem.h>
#include <TSQLServer.h>


/**
 * \brief  Variables needed for ToF calculations: Raw data, calibration constants, etc...
 */

struct ToFInput {
//! The alpha vector from the track fit
  Double_t al_pp[5];  
//! The dEdx from the tracker
  Double_t trkmip;  
//! The 24 k1 constants for S11-S31 for Z=1,Z=2,Z>2
  Float_t k_s11s31[24][3]; 
//! The 24 k1 constants for S11-S32 for Z=1,Z=2,Z>2
  Float_t k_s11s32[24][3];
//! The 18 k1 constants for S12-S31 for Z=1,Z=2,Z>2
  Float_t k_s12s31[18][3];
//! The 18 k1 constants for S12-S32 for Z=1,Z=2,Z>2
  Float_t k_s12s32[18][3];
//! The 6 k1 constants for S21-S31 for Z=1,Z=2,Z>2
  Float_t k_S21S31[6][3];
//! The 6 k1 constants for S21-S32 for Z=1,Z=2,Z>2
  Float_t k_S21S32[6][3];
//! The 6 k1 constants for S22-S31 for Z=1,Z=2,Z>2
  Float_t k_S22S31[6][3];
//! The 6 k1 constants for S22-S32 for Z=1,Z=2,Z>2
  Float_t k_S22S32[6][3];
//! The 16 k1 constants for S11-S21 for Z=1,Z=2,Z>2
  Float_t k_s11s21[16][3];
//! The 16 k1 k2 constants for S11-S22 for Z=1,Z=2,Z>2
  Float_t k_s11s22[16][3];
//! The 12 k1 k2 constants for S12-S21 for Z=1,Z=2,Z>2
  Float_t k_s12s21[12][3]; 
//! The 12 k1 k2 constants for S12-S22 for Z=1,Z=2,Z>2
  Float_t k_s12s22[12][3];
//! parameters for the attenuation fit for S11
  Float_t adcx11[4][8][2];
//! parameters for the attenuation fit for S12
  Float_t adcx12[4][6][2];
//! parameters for the attenuation fit for S21
  Float_t adcx21[4][2][2];
//! parameters for the attenuation fit for S22
  Float_t adcx22[4][2][2];
//! parameters for the attenuation fit for S31
  Float_t adcx31[4][3][2];
//! parameters for the attenuation fit for S32
  Float_t adcx32[4][3][2];
//! constants for the time-walk for S11
  Float_t tw11[8][2];
//! constants for the time-walk for S12
  Float_t tw12[6][2];
//! constants for the time-walk for S21
  Float_t tw21[2][2];
//! constants for the time-walk for S22
  Float_t tw22[2][2];
//! constants for the time-walk for S31
  Float_t tw31[3][2];
//! constants for the time-walk for S32
  Float_t tw32[3][2];
//! constants to get the position from the timing for S11
  Float_t y_coor_lin11[8][2];
//! constants to get the position from the timing for S12
  Float_t x_coor_lin12[6][2];
//! constants to get the position from the timing for S21
  Float_t x_coor_lin21[2][2];
//! constants to get the position from the timing for S22
  Float_t y_coor_lin22[2][2];
//! constants to get the position from the timing for S31
  Float_t y_coor_lin31[3][2];
//! constants to get the position from the timing for S32
  Float_t x_coor_lin32[3][2];
//! raw ADC matrix 4x12 : 12 half-boards @ 4 channels
  Int_t adc[12][4];
//! raw TDC matrix 4x12 : 12 half-boards @ 4 channels
  Int_t tdc[12][4];
//! patterntrig contains trigger information 
  Int_t patterntrig[6];
  Int_t ntrk;
};

/**
 * \brief  Internal output variables from ToF calculations: beta, etc... 
 *
 * Look at ToFLevel2 class for the real Level2 ToF output 
 */

struct ToFOutput {
//! beta track dependend, 12 measurements for the 12 combinations, beta[13] is weighted mean
  Float_t beta_a[13];
//! internal variable: beta ToF standalone, 12 measurements for the 12 combinations, beta[13] is weighted mean
  Float_t betatof_a[13];
//! x-measurement using the TDC values and the calibration
  Float_t xtofpos[3];
//! y-measurement using the TDC values and the calibration
  Float_t ytofpos[3];
//! x-measurement at the ToF layers from tracker
  Float_t xtr_tof[6];
//! y-measurement at the ToF layers from tracker
  Float_t ytr_tof[6];
//! matrix 4x12 which contains the dEdx value for each PMT
  Float_t adc_c[12][4];
//! internal variable: ToF standalone: matrix 4x12 which contains the dEdx value for each PMT
  Float_t adctof_c[12][4];
//! matrix 4x12 which contains the time-walk corrected TDC value for each PMT
  Float_t tdc_c[12][4];
//! internal variable: matrix is filled if beta is calculated
  Int_t tofmask[12][4]; 
//! internal variable: number of the hitted paddle for each ToF layer from ToF standalone
  Int_t tof_i_flag[6];
//! number of hitted paddle(s) from ToF standalone for each ToF layer: flag = flag + 2**(paddlenumber-1)
  Int_t tof_j_flag[6];
//! internal variable: array flagging the artificial ToF standalone ADCs, "0" if normal ADC value 
  Int_t adcflagtof[12][4];
//! internal variable: array is always "0" since there are no artificial TDC values with ToF standalone
  Int_t tdcflagtof[12][4];
//! array flagging the artificial track dependend ADCs, "0" if normal ADC value 
  Int_t adcflag[12][4];
//! array flagging the artificial track dependend TDCs, "0" if normal TDC value 
  Int_t tdcflag[12][4];
};

extern int ToFCore(UInt_t run, TFile *file, GL_TABLES *glt, Int_t ToFargc, char *ToFargv[]);

#endif
1	mocchiut	1.1	#ifndef l2tofcore_h
2			#define l2tofcore_h
3			#include <TSystem.h>
4			#include <TSQLServer.h>
5
6	pam-de	1.5
7			/**
8			* \brief Variables needed for ToF calculations: Raw data, calibration constants, etc...
9			*/
10
11	mocchiut	1.1	struct ToFInput {
12	mocchiut	1.8	//! The alpha vector from the track fit
13	pam-de	1.5	Double_t al_pp[5];
14	mocchiut	1.8	//! The dEdx from the tracker
15			Double_t trkmip;
16			//! The 24 k1 constants for S11-S31 for Z=1,Z=2,Z>2
17			Float_t k_s11s31[24][3];
18			//! The 24 k1 constants for S11-S32 for Z=1,Z=2,Z>2
19			Float_t k_s11s32[24][3];
20			//! The 18 k1 constants for S12-S31 for Z=1,Z=2,Z>2
21			Float_t k_s12s31[18][3];
22			//! The 18 k1 constants for S12-S32 for Z=1,Z=2,Z>2
23			Float_t k_s12s32[18][3];
24			//! The 6 k1 constants for S21-S31 for Z=1,Z=2,Z>2
25			Float_t k_S21S31[6][3];
26			//! The 6 k1 constants for S21-S32 for Z=1,Z=2,Z>2
27			Float_t k_S21S32[6][3];
28			//! The 6 k1 constants for S22-S31 for Z=1,Z=2,Z>2
29			Float_t k_S22S31[6][3];
30			//! The 6 k1 constants for S22-S32 for Z=1,Z=2,Z>2
31			Float_t k_S22S32[6][3];
32			//! The 16 k1 constants for S11-S21 for Z=1,Z=2,Z>2
33			Float_t k_s11s21[16][3];
34			//! The 16 k1 k2 constants for S11-S22 for Z=1,Z=2,Z>2
35			Float_t k_s11s22[16][3];
36			//! The 12 k1 k2 constants for S12-S21 for Z=1,Z=2,Z>2
37			Float_t k_s12s21[12][3];
38			//! The 12 k1 k2 constants for S12-S22 for Z=1,Z=2,Z>2
39			Float_t k_s12s22[12][3];
40	pam-de	1.5	//! parameters for the attenuation fit for S11
41	mocchiut	1.6	Float_t adcx11[4][8][2];
42	pam-de	1.5	//! parameters for the attenuation fit for S12
43	mocchiut	1.6	Float_t adcx12[4][6][2];
44	pam-de	1.5	//! parameters for the attenuation fit for S21
45	mocchiut	1.6	Float_t adcx21[4][2][2];
46	pam-de	1.5	//! parameters for the attenuation fit for S22
47	mocchiut	1.6	Float_t adcx22[4][2][2];
48	pam-de	1.5	//! parameters for the attenuation fit for S31
49	mocchiut	1.6	Float_t adcx31[4][3][2];
50	pam-de	1.5	//! parameters for the attenuation fit for S32
51	mocchiut	1.6	Float_t adcx32[4][3][2];
52	pam-de	1.5	//! constants for the time-walk for S11
53	mocchiut	1.1	Float_t tw11[8][2];
54	pam-de	1.5	//! constants for the time-walk for S12
55	mocchiut	1.1	Float_t tw12[6][2];
56	pam-de	1.5	//! constants for the time-walk for S21
57	mocchiut	1.1	Float_t tw21[2][2];
58	pam-de	1.5	//! constants for the time-walk for S22
59	mocchiut	1.1	Float_t tw22[2][2];
60	pam-de	1.5	//! constants for the time-walk for S31
61	mocchiut	1.1	Float_t tw31[3][2];
62	pam-de	1.5	//! constants for the time-walk for S32
63	mocchiut	1.1	Float_t tw32[3][2];
64	pam-de	1.5	//! constants to get the position from the timing for S11
65	mocchiut	1.9	Float_t y_coor_lin11[8][2];
66	pam-de	1.5	//! constants to get the position from the timing for S12
67	mocchiut	1.9	Float_t x_coor_lin12[6][2];
68	pam-de	1.5	//! constants to get the position from the timing for S21
69	mocchiut	1.9	Float_t x_coor_lin21[2][2];
70	pam-de	1.5	//! constants to get the position from the timing for S22
71	mocchiut	1.1	Float_t y_coor_lin22[2][2];
72	pam-de	1.5	//! constants to get the position from the timing for S31
73	mocchiut	1.9	Float_t y_coor_lin31[3][2];
74	pam-de	1.5	//! constants to get the position from the timing for S32
75	mocchiut	1.9	Float_t x_coor_lin32[3][2];
76	pam-de	1.5	//! raw ADC matrix 4x12 : 12 half-boards @ 4 channels
77	mocchiut	1.1	Int_t adc[12][4];
78	pam-de	1.5	//! raw TDC matrix 4x12 : 12 half-boards @ 4 channels
79	mocchiut	1.1	Int_t tdc[12][4];
80	pam-de	1.5	//! patterntrig contains trigger information
81	mocchiut	1.1	Int_t patterntrig[6];
82			Int_t ntrk;
83			};
84
85	pam-de	1.5	/**
86			* \brief Internal output variables from ToF calculations: beta, etc...
87			*
88			* Look at ToFLevel2 class for the real Level2 ToF output
89			*/
90
91	mocchiut	1.1	struct ToFOutput {
92	pam-de	1.5	//! beta track dependend, 12 measurements for the 12 combinations, beta[13] is weighted mean
93	mocchiut	1.1	Float_t beta_a[13];
94	pam-de	1.5	//! internal variable: beta ToF standalone, 12 measurements for the 12 combinations, beta[13] is weighted mean
95	mocchiut	1.1	Float_t betatof_a[13];
96	pam-de	1.5	//! x-measurement using the TDC values and the calibration
97	mocchiut	1.1	Float_t xtofpos[3];
98	pam-de	1.5	//! y-measurement using the TDC values and the calibration
99	mocchiut	1.1	Float_t ytofpos[3];
100	mocchiut	1.6	//! x-measurement at the ToF layers from tracker
101			Float_t xtr_tof[6];
102			//! y-measurement at the ToF layers from tracker
103			Float_t ytr_tof[6];
104	pam-de	1.5	//! matrix 4x12 which contains the dEdx value for each PMT
105	mocchiut	1.1	Float_t adc_c[12][4];
106	pam-de	1.5	//! internal variable: ToF standalone: matrix 4x12 which contains the dEdx value for each PMT
107	mocchiut	1.1	Float_t adctof_c[12][4];
108	pam-de	1.5	//! matrix 4x12 which contains the time-walk corrected TDC value for each PMT
109	mocchiut	1.1	Float_t tdc_c[12][4];
110	pam-de	1.5	//! internal variable: matrix is filled if beta is calculated
111	mocchiut	1.2	Int_t tofmask[12][4];
112	pam-de	1.5	//! internal variable: number of the hitted paddle for each ToF layer from ToF standalone
113	mocchiut	1.2	Int_t tof_i_flag[6];
114	pam-de	1.5	//! number of hitted paddle(s) from ToF standalone for each ToF layer: flag = flag + 2**(paddlenumber-1)
115	mocchiut	1.1	Int_t tof_j_flag[6];
116	pam-de	1.5	//! internal variable: array flagging the artificial ToF standalone ADCs, "0" if normal ADC value
117	mocchiut	1.4	Int_t adcflagtof[12][4];
118	pam-de	1.5	//! internal variable: array is always "0" since there are no artificial TDC values with ToF standalone
119	mocchiut	1.4	Int_t tdcflagtof[12][4];
120	pam-de	1.5	//! array flagging the artificial track dependend ADCs, "0" if normal ADC value
121	mocchiut	1.4	Int_t adcflag[12][4];
122	pam-de	1.5	//! array flagging the artificial track dependend TDCs, "0" if normal TDC value
123	mocchiut	1.4	Int_t tdcflag[12][4];
124	mocchiut	1.1	};
125
126	mocchiut	1.7	extern int ToFCore(UInt_t run, TFile file, GL_TABLES glt, Int_t ToFargc, char *ToFargv[]);
127	mocchiut	1.1
128			#endif