Line data Source code
1 : #ifndef ALIVZEROTRIGGERDATA_H
2 : #define ALIVZEROTRIGGERDATA_H
3 : /* Copyright(c) 1998-1999, ALICE Experiment at CERN, All rights
4 : * reserved.
5 : *
6 : * See cxx source for full Copyright notice
7 : */
8 :
9 : // Class AliVZEROTriggerData
10 : // -------------------------
11 : // Retrieves and hold the FEE parameters
12 : // The parameters are recieved from the shuttle
13 : // AliVZEROTriggerData is then used in the AliVZEROTriggerSimulator
14 : //
15 :
16 : #include <TNamed.h>
17 :
18 : #include "AliVZERODataFEE.h"
19 :
20 :
21 : class AliVZEROTriggerData : public TNamed {
22 : public:
23 : AliVZEROTriggerData();
24 : AliVZEROTriggerData(Int_t nRun, UInt_t startTime, UInt_t endTime);
25 : ~AliVZEROTriggerData();
26 :
27 : void FillData(AliVZERODataFEE * data);
28 :
29 : // ----- Setters -----
30 :
31 : void SetClk1Win1(UShort_t* clks);
32 : void SetClk1Win1(UShort_t clk, Int_t board);
33 : void SetClk2Win1(UShort_t* clks);
34 : void SetClk2Win1(UShort_t clk, Int_t board);
35 :
36 : void SetClk1Win2(UShort_t* clks);
37 : void SetClk1Win2(UShort_t clk, Int_t board);
38 : void SetClk2Win2(UShort_t* clks);
39 : void SetClk2Win2(UShort_t clk, Int_t board);
40 :
41 : void SetDelayClk1Win1(UShort_t* delays);
42 : void SetDelayClk1Win1(UShort_t delay, Int_t board);
43 : void SetDelayClk2Win1(UShort_t* delays);
44 : void SetDelayClk2Win1(UShort_t delay, Int_t board);
45 :
46 : void SetDelayClk1Win2(UShort_t* delays);
47 : void SetDelayClk1Win2(UShort_t delay, Int_t board);
48 : void SetDelayClk2Win2(UShort_t* delays);
49 : void SetDelayClk2Win2(UShort_t delay, Int_t board);
50 :
51 : void SetLatchWin1(UShort_t *latchs);
52 : void SetLatchWin1(UShort_t latch, Int_t board);
53 : void SetLatchWin2(UShort_t *latchs);
54 : void SetLatchWin2(UShort_t latch, Int_t board);
55 :
56 : void SetResetWin1(UShort_t *resets);
57 : void SetResetWin1(UShort_t reset, Int_t board);
58 : void SetResetWin2(UShort_t *resets);
59 : void SetResetWin2(UShort_t reset, Int_t board);
60 :
61 : void SetPedestalSubtraction(Bool_t *peds);
62 : void SetPedestalSubtraction(Bool_t ped, Int_t board);
63 :
64 0 : void SetBBAThreshold(UShort_t th) {fBBAThreshold = th;};
65 0 : void SetBBCThreshold(UShort_t th) {fBBCThreshold = th;};
66 :
67 0 : void SetBGAThreshold(UShort_t th) {fBGAThreshold = th;};
68 0 : void SetBGCThreshold(UShort_t th) {fBGCThreshold = th;};
69 :
70 0 : void SetBBAForBGThreshold(UShort_t th) {fBBAForBGThreshold = th;};
71 0 : void SetBBCForBGThreshold(UShort_t th) {fBBCForBGThreshold = th;};
72 :
73 0 : void SetCentralityV0AThrLow(UShort_t th) {fCentralityVOAThrLow = th;};
74 0 : void SetCentralityV0AThrHigh(UShort_t th) {fCentralityVOAThrHigh = th;};
75 :
76 0 : void SetCentralityV0CThrLow(UShort_t th) {fCentralityVOCThrLow = th;};
77 0 : void SetCentralityV0CThrHigh(UShort_t th) {fCentralityVOCThrHigh = th;};
78 :
79 0 : void SetMultV0AThrLow(UShort_t th) {fMultV0AThrLow = th;};
80 0 : void SetMultV0AThrHigh(UShort_t th) {fMultV0AThrHigh = th;};
81 :
82 0 : void SetMultV0CThrLow(UShort_t th) {fMultV0CThrLow = th;};
83 0 : void SetMultV0CThrHigh(UShort_t th) {fMultV0CThrHigh = th;};
84 :
85 : void SetTriggerSelected(UShort_t trigger, Int_t output);
86 :
87 : void SetEnableCharge(Bool_t val, Int_t board, Int_t channel);
88 : void SetEnableTiming(Bool_t val, Int_t board, Int_t channel);
89 : void SetDiscriThr(UShort_t val, Int_t board, Int_t channel);
90 : void SetDelayHit(UShort_t val, Int_t board, Int_t channel);
91 : void SetPedestal(UShort_t val, Int_t integrator, Int_t board, Int_t channel);
92 : void SetPedestalCut(UShort_t val, Int_t integrator, Int_t board, Int_t channel);
93 :
94 :
95 : // ----- Getters -----
96 :
97 0 : UShort_t * GetClk1Win1() const {return (UShort_t*)fClk1Win1;};
98 0 : UShort_t GetClk1Win1(Int_t board ) const {return ((board>=0 && board<kNCIUBoards)?fClk1Win1[board]:0);};
99 0 : UShort_t * GetClk2Win1() const {return (UShort_t*)fClk2Win1;};
100 0 : UShort_t GetClk2Win1(Int_t board ) const {return ((board>=0 && board<kNCIUBoards)?fClk2Win1[board]:0);};
101 :
102 0 : UShort_t * GetClk1Win2() const {return (UShort_t*)fClk1Win2;};
103 0 : UShort_t GetClk1Win2(Int_t board ) const {return ((board>=0 && board<kNCIUBoards)?fClk1Win2[board]:0);};
104 0 : UShort_t * GetClk2Win2() const {return (UShort_t*)fClk2Win2;};
105 0 : UShort_t GetClk2Win2(Int_t board ) const {return ((board>=0 && board<kNCIUBoards)?fClk2Win2[board]:0);};
106 :
107 0 : UShort_t * GetDelayClk1Win1() const {return (UShort_t*)fDelayClk1Win1;};
108 256 : UShort_t GetDelayClk1Win1(Int_t board ) const {return ((board>=0 && board<kNCIUBoards)?fDelayClk1Win1[board]:0);};
109 0 : UShort_t * GetDelayClk2Win1() const {return (UShort_t*)fDelayClk2Win1;};
110 256 : UShort_t GetDelayClk2Win1(Int_t board ) const {return ((board>=0 && board<kNCIUBoards)?fDelayClk2Win1[board]:0);};
111 :
112 0 : UShort_t * GetDelayClk1Win2() const {return (UShort_t*)fDelayClk1Win2;};
113 256 : UShort_t GetDelayClk1Win2(Int_t board ) const {return ((board>=0 && board<kNCIUBoards)?fDelayClk1Win2[board]:0);};
114 0 : UShort_t * GetDelayClk2Win2() const {return (UShort_t*)fDelayClk2Win2;};
115 256 : UShort_t GetDelayClk2Win2(Int_t board ) const {return ((board>=0 && board<kNCIUBoards)?fDelayClk2Win2[board]:0);};
116 :
117 0 : UShort_t * GetLatchWin1() const {return (UShort_t*)fLatchWin1;};
118 128 : UShort_t GetLatchWin1(Int_t board ) const {return ((board>=0 && board<kNCIUBoards)?fLatchWin1[board]:0);};
119 0 : UShort_t * GetLatchWin2() const {return (UShort_t*)fLatchWin2;};
120 128 : UShort_t GetLatchWin2(Int_t board ) const {return ((board>=0 && board<kNCIUBoards)?fLatchWin2[board]:0);};
121 :
122 0 : UShort_t * GetResetWin1() const {return (UShort_t*)fResetWin1;};
123 128 : UShort_t GetResetWin1(Int_t board ) const {return ((board>=0 && board<kNCIUBoards)?fResetWin1[board]:0);};
124 0 : UShort_t * GetResetWin2() const {return (UShort_t*)fResetWin2;};
125 128 : UShort_t GetResetWin2(Int_t board ) const {return ((board>=0 && board<kNCIUBoards)?fResetWin2[board]:0);};
126 :
127 0 : Bool_t * GetPedestalSubtraction() const {return (Bool_t*) fPedestalSubtraction;};
128 3072 : Bool_t GetPedestalSubtraction(Int_t board ) const {return ((board>=0 && board<kNCIUBoards)?fPedestalSubtraction[board]:0);};
129 :
130 24 : UShort_t GetBBAThreshold() const {return fBBAThreshold;};
131 32 : UShort_t GetBBCThreshold() const {return fBBCThreshold;};
132 :
133 32 : UShort_t GetBGAThreshold() const {return fBGAThreshold;};
134 32 : UShort_t GetBGCThreshold() const {return fBGCThreshold;};
135 :
136 16 : UShort_t GetBBAForBGThreshold() const {return fBBAForBGThreshold;};
137 24 : UShort_t GetBBCForBGThreshold() const {return fBBCForBGThreshold;};
138 :
139 24 : UShort_t GetCentralityV0AThrLow() const {return fCentralityVOAThrLow;};
140 24 : UShort_t GetCentralityV0AThrHigh() const {return fCentralityVOAThrHigh;};
141 :
142 24 : UShort_t GetCentralityV0CThrLow() const {return fCentralityVOCThrLow;};
143 24 : UShort_t GetCentralityV0CThrHigh() const {return fCentralityVOCThrHigh;};
144 :
145 24 : UShort_t GetMultV0AThrLow() const {return fMultV0AThrLow;};
146 24 : UShort_t GetMultV0AThrHigh() const {return fMultV0AThrHigh;};
147 :
148 24 : UShort_t GetMultV0CThrLow() const {return fMultV0CThrLow;};
149 24 : UShort_t GetMultV0CThrHigh() const {return fMultV0CThrHigh;};
150 :
151 0 : UShort_t GetTriggerSelected(Int_t output) const {return ((output>=0 && output<kNTriggerOutputs)?fTriggerSelected[output]:0);};
152 :
153 : Bool_t GetEnableCharge(Int_t board, Int_t channel);
154 : Bool_t GetEnableTiming(Int_t board, Int_t channel);
155 : UShort_t GetDiscriThr(Int_t board, Int_t channel);
156 : UShort_t GetDelayHit(Int_t board, Int_t channel);
157 : UShort_t GetPedestal(Int_t integrator, Int_t board, Int_t channel);
158 : UShort_t GetPedestalCut(Int_t integrator, Int_t board, Int_t channel);
159 :
160 : enum {
161 : kNCIUBoards = AliVZERODataFEE::kNCIUBoards,
162 : kNAliases = AliVZERODataFEE::kNAliases,
163 : kNTriggerOutputs = 5,
164 : kNChannels = 8
165 : };
166 :
167 : private:
168 : AliVZEROTriggerData(const AliVZEROTriggerData &/*triggerData*/);
169 : AliVZEROTriggerData& operator= (const AliVZEROTriggerData &/*triggerData*/);
170 :
171 : UShort_t fClk1Win1[kNCIUBoards]; //Profil of the Clock 1 of the Window 1 (BB window)
172 : UShort_t fClk2Win1[kNCIUBoards]; //Profil of the Clock 2 of the Window 1 (BB window)
173 : UShort_t fClk1Win2[kNCIUBoards]; //Profil of the Clock 1 of the Window 2 (BG window)
174 : UShort_t fClk2Win2[kNCIUBoards]; //Profil of the Clock 2 of the Window 2 (BG window)
175 : UShort_t fDelayClk1Win1[kNCIUBoards]; // Delays of the Clock 1 of the Window 1 (BB window)
176 : UShort_t fDelayClk2Win1[kNCIUBoards]; // Delays of the Clock 2 of the Window 1 (BB window)
177 : UShort_t fDelayClk1Win2[kNCIUBoards]; // Delays of the Clock 1 of the Window 2 (BG window)
178 : UShort_t fDelayClk2Win2[kNCIUBoards]; // Delays of the Clock 2 of the Window 2 (BG window)
179 : UShort_t fLatchWin1[kNCIUBoards]; //Profil of the Clock of the Latch signal of Window 1 (BB window)
180 : UShort_t fLatchWin2[kNCIUBoards]; //Profil of the Clock of the Latch signal of Window 2 (BG window)
181 : UShort_t fResetWin1[kNCIUBoards]; //Profil of the Clock of the Reset signal of Window 1 (BB window)
182 : UShort_t fResetWin2[kNCIUBoards]; //Profil of the Clock of the Reset signal of Window 2 (BG window)
183 : Bool_t fPedestalSubtraction[kNCIUBoards]; // Flag to en(dis)able pedestal subtraction before centrality trigger calculation
184 : UShort_t fBBAThreshold; // Minimum bias Threshold in number of channel hit for V0A
185 : UShort_t fBBCThreshold; // Minimum bias Threshold in number of channel hit for V0C
186 : UShort_t fBGAThreshold; // Beam Gas Threshold in number of channel hit for V0A
187 : UShort_t fBGCThreshold; // Beam Gas Threshold in number of channel hit for V0C
188 : UShort_t fBBAForBGThreshold; // BBA threshold for Beam Gas triggers (i.e. BBA and BGC)
189 : UShort_t fBBCForBGThreshold; // BBC threshold for Beam Gas triggers (i.e. BBC and BGA)
190 : UShort_t fCentralityVOAThrLow; // Threshold used for centrality triggers (i.e. CTA1 and CTC1)
191 : UShort_t fCentralityVOAThrHigh; // Threshold used for centrality triggers (i.e. CTA2 and CTC2)
192 : UShort_t fCentralityVOCThrLow; // Threshold used for centrality triggers (i.e. CTA1 and CTC1)
193 : UShort_t fCentralityVOCThrHigh; // Threshold used for centrality triggers (i.e. CTA2 and CTC2)
194 : UShort_t fMultV0AThrLow; // Threshold used for multiplicity triggers (i.e. MTA and MTC)
195 : UShort_t fMultV0AThrHigh; // Threshold used for multiplicity triggers (i.e. MTA and MTC)
196 : UShort_t fMultV0CThrLow; // Threshold used for multiplicity triggers (i.e. MTA and MTC)
197 : UShort_t fMultV0CThrHigh; // Threshold used for multiplicity triggers (i.e. MTA and MTC)
198 : UShort_t fTriggerSelected[kNTriggerOutputs]; // Triggers selected on the 5 outputs to CTP
199 : Bool_t fEnableCharge[kNCIUBoards][kNChannels]; // Flag to know is a channel is participating to the Charge triggers
200 : Bool_t fEnableTiming[kNCIUBoards][kNChannels]; // Flag to know is a channel is participating to the Timing triggers
201 : UShort_t fDiscriThr[kNCIUBoards][kNChannels]; // Threshold of each discriminator
202 : UShort_t fDelayHit[kNCIUBoards][kNChannels]; // Individual delays of each channel
203 : UShort_t fPedestalOdd[kNCIUBoards][kNChannels]; // Pedestals for the Odd integrators
204 : UShort_t fPedestalEven[kNCIUBoards][kNChannels]; // Pedestals for the Even integrators
205 : UShort_t fPedestalCutOdd[kNCIUBoards][kNChannels]; // Pedestals Cut for the Odd integrators
206 : UShort_t fPedestalCutEven[kNCIUBoards][kNChannels]; // Pedestals Cut for the Even integrators
207 :
208 : Int_t fRun; // Run number
209 : Int_t fStartTime; // Start time
210 : Int_t fEndTime; // End time
211 : TString fAliasNames[kNAliases]; // aliases for DCS data
212 : Bool_t fIsProcessed; // bool to know processing status
213 :
214 : Bool_t IsClkValid(UShort_t clock) const;
215 : void SetParameter(TString name, Int_t val);
216 :
217 :
218 68 : ClassDef( AliVZEROTriggerData, 2 )
219 :
220 : };
221 :
222 : #endif // ALIVZEROTRIGGERDATA_H
223 :
224 :
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