Line data Source code
1 : #ifndef ALIEMCALGEOMETRY_H
2 : #define ALIEMCALGEOMETRY_H
3 : /* Copyright(c) 1998-1999, ALICE Experiment at CERN, All rights reserved. *
4 : * See cxx source for full Copyright notice */
5 :
6 : //_________________________________________________________________________
7 : /// \class AliEMCALGeometry
8 : /// \brief EMCal geometry, singleton
9 : ///
10 : /// Geometry class for EMCAL : singleton
11 : /// EMCAL consists of layers of scintillator and lead
12 : /// with scintillator fiber arranged as "shish-kebab" skewers
13 : /// Places the the Barrel Geometry of The EMCAL at Midrapidity
14 : /// between 80 and 180(or 190) degrees of Phi and
15 : /// -0.7 to 0.7 in eta
16 : ///
17 : /// * EMCAL geometry tree:
18 : /// * EMCAL -> superModule -> module -> tower(cell)
19 : /// * Indexes
20 : /// * absId -> nSupMod -> nModule -> (nIphi,nIeta)
21 : ///
22 : /// Name choices:
23 : /// * EMCAL_PDC06 (geometry used for PDC06 simulations, kept for backward compatibility)
24 : /// * = equivalent to SHISH_77_TRD1_2X2_FINAL_110DEG in old notation
25 : /// * EMCAL_COMPLETE (geometry for expected complete detector)
26 : /// * = equivalent to SHISH_77_TRD1_2X2_FINAL_110DEG scTh=0.176 pbTh=0.144
27 : /// in old notation
28 : /// * EMCAL_FIRSTYEARV1 - geometry for December 2009 to December 2010 run period;
29 : /// * fixed bug for positions of modules inside SM
30 : /// (first module has tilt 0.75 degree);
31 : /// the sizes updated with last information from production
32 : /// drawing (end of October 2010).
33 : ///
34 : /// * EMCAL_COMPLETEV1: Same fixes as FIRSTYEAR and 10 SM instead of 10 + 2 one_third SM, for 2011 runs
35 : ///
36 : /// * EMCAL_COMPLETE12SMV1: contains 12 SM for runs from year 2012 and on
37 : ///
38 : /// * EMCAL_COMPLETE12SMV1_DCAL: contains 12 SM and 6 DCAL SM
39 : ///
40 : /// * EMCAL_COMPLETE12SMV1_DCAL_8SM: contains 12 SM and 8 DCAL SM including the DCAL extention (2 SM)
41 : ///
42 : /// * EMCAL_COMPLETE12SMV1_DCAL_DEV: contains 12 SM shifted and 10 DCAL SM
43 : ///
44 : /// * EMCAL_WSUC (Wayne State test stand)
45 : /// * = no definite equivalent in old notation, was only used by
46 : /// Aleksei, but kept for testing purposes
47 : ///
48 : ///
49 : /// Usage:
50 : /// You can create the AliEMCALGeometry object independently from anything.
51 : /// You have to use just the correct name of geometry. If name is empty string the
52 : /// default name of geometry will be used.
53 : ///
54 : /// AliEMCALGeometry* g = AliEMCALGeometry::GetInstance(name,title); // first time
55 : /// ..
56 : /// g = AliEMCALGeometry::GetInstance(); // after first time
57 : ///
58 : /// MC: If you work with MC data you have to get geometry the next way:
59 : /// == =============================
60 : /// AliRunLoader *rl = AliRunLoader::Instance();
61 : /// AliEMCALGeometry *geom = dynamic_cast<AliEMCAL*>(rl->GetAliRun()->GetDetector("EMCAL"))->GetGeometry();
62 : /// TGeoManager::Import("geometry.root");
63 : ///
64 : /// \author Sahal Yacoob (LBL / UCT)
65 : /// \author Yves Schutz (SUBATECH)
66 : /// \author Jennifer Klay (LBL)
67 : /// \author Alexei Pavlinov (WSU)
68 : ///
69 : /// Implementation for analysis usage, before AliEMCALGeometry now (06/2011) merged again
70 : /// in AliEMCALGeometry
71 : ///
72 : /// \author Magali Estienne (magali.estienne@subatech.in2p3.fr)
73 : /// \author M.L. Wang CCNU & Subatech Adapted for DCAL Oct-18-2012
74 : ///
75 : ///
76 : /// Usage:
77 : /// You can create the AliEMCALGeometry object independently from anything.
78 : /// You have to use just the correct name of geometry. If name is empty string the
79 : /// default name of geometry will be used.
80 : ///
81 : /// AliEMCALGeometry* geom = new AliEMCALGeometry("EMCAL_COMPLETE12SMV1","EMCAL");
82 : /// TGeoManager::Import("geometry.root");
83 : ///
84 : /// MC: If you work with MC data you have to get geometry the next way:
85 : /// == =============================
86 : /// !!!!!!!!! This part has to be modified
87 : /// AliRunLoader *rl = AliRunLoader::GetRunLoader();
88 : /// AliEMCALEMCGeometry *geom = dynamic_cast<AliEMCAL*>(rl->GetAliRun()->GetDetector("EMCAL"))->GetGeometry();
89 : /// TGeoManager::Import("geometry.root");
90 : //_________________________________________________________________________
91 :
92 : // --- ROOT system ---
93 : #include <TNamed.h>
94 : #include <TMath.h>
95 : #include <TArrayD.h>
96 : #include <TVector3.h>
97 : #include <TGeoMatrix.h>
98 : class TBrowser ;
99 : class TParticle ;
100 :
101 : // --- AliRoot header files ---
102 : #include "AliEMCALEMCGeometry.h"
103 : #include "AliEMCALGeoParams.h"
104 : #include "AliEMCALTriggerMapping.h"
105 : class AliEMCALShishKebabTrd1Module;
106 : class AliLog;
107 :
108 : class AliEMCALGeometry : public TNamed {
109 :
110 : public:
111 : enum fEMCSMType { kEMCAL_Standard = 0, kEMCAL_Half = 1, kEMCAL_3rd = 2, kDCAL_Standard = 3, kDCAL_Ext= 4 }; // possible SM Type
112 :
113 : AliEMCALGeometry();
114 : AliEMCALGeometry(const Text_t* name, const Text_t* title="",
115 : const Text_t* mcname="", const Text_t* mctitle="");
116 : AliEMCALGeometry(const AliEMCALGeometry & geom);
117 :
118 : virtual ~AliEMCALGeometry(void);
119 : AliEMCALGeometry & operator = (const AliEMCALGeometry & rvalue);
120 :
121 : static AliEMCALGeometry * GetInstance();
122 :
123 : static AliEMCALGeometry * GetInstance(const Text_t* name, const Text_t* title = "",
124 : const Text_t* mcname = "TGeant3", const Text_t* mctitle = "" ) ;
125 :
126 : static AliEMCALGeometry * GetInstanceFromRunNumber(Int_t runNumber,
127 : TString geoName = "",
128 : const Text_t* mcname = "TGeant3",
129 : const Text_t* mctitle = "" ) ;
130 :
131 : //////////
132 : // General
133 : //
134 2 : static Bool_t IsInitialized(void) {return AliEMCALEMCGeometry::fgInit; }
135 6 : static const Char_t* GetDefaultGeometryName() {return AliEMCALEMCGeometry::fgkDefaultGeometryName;}
136 :
137 : /////////////
138 : // TRD1 stuff
139 : void CreateListOfTrd1Modules();
140 2 : TList *GetShishKebabTrd1Modules() const {return fShishKebabTrd1Modules;}
141 : AliEMCALShishKebabTrd1Module *GetShishKebabModule(Int_t neta) const;
142 :
143 : void PrintGeometryGeoUtils(); // *MENU*
144 : void PrintCellIndexes(Int_t absId=0, int pri=0, const char *tit="") const ; //*MENU*
145 : void PrintLocalTrd1(Int_t pri=0) const; // *MENU*
146 : virtual void Browse(TBrowser* b);
147 : virtual Bool_t IsFolder() const;
148 :
149 : virtual Bool_t Impact(const TParticle *particle) const;
150 : void ImpactOnEmcal(TVector3 vtx, Double_t theta, Double_t phi, Int_t & absId, TVector3 & vimpact) const;
151 : Bool_t IsInEMCAL(Double_t x, Double_t y, Double_t z) const;
152 : Bool_t IsInDCAL(Double_t x, Double_t y, Double_t z) const;
153 : Int_t IsInEMCALOrDCAL(Double_t x, Double_t y, Double_t z) const;
154 :
155 : //////////////////////////////////////
156 : // Return EMCAL geometrical parameters
157 : //
158 :
159 2432 : AliEMCALEMCGeometry* GetEMCGeometry() const { return fEMCGeometry ; }
160 :
161 0 : AliEMCALTriggerMapping* GetTriggerMapping() const { return fTriggerMapping; }
162 :
163 : //
164 4 : const Char_t* GetNameOfEMCALEnvelope(void) const { return fEMCGeometry->GetNameOfEMCALEnvelope() ; }
165 4 : Float_t GetArm1PhiMin(void) const { return fEMCGeometry->GetArm1PhiMin() ; }
166 2 : Float_t GetArm1PhiMax(void) const { return fEMCGeometry->GetArm1PhiMax() ; }
167 0 : Float_t GetArm1EtaMin(void) const { return fEMCGeometry->GetArm1EtaMin() ; }
168 0 : Float_t GetArm1EtaMax(void) const { return fEMCGeometry->GetArm1EtaMax() ; }
169 0 : Float_t GetIPDistance(void) const { return fEMCGeometry->GetIPDistance() ; }
170 16 : Float_t GetEnvelop(Int_t index) const { return fEMCGeometry->GetEnvelop(index) ; }
171 2 : Float_t GetShellThickness(void) const { return fEMCGeometry->GetShellThickness() ; }
172 0 : Float_t GetZLength(void) const { return fEMCGeometry->GetZLength() ; }
173 444 : Float_t GetDCALInnerEdge(void) const { return fEMCGeometry->GetDCALInnerEdge() ; }
174 0 : Float_t GetDCALPhiMin(void) const { return fEMCGeometry->GetDCALPhiMin() ; }
175 0 : Float_t GetDCALPhiMax(void) const { return fEMCGeometry->GetDCALPhiMax() ; }
176 0 : Float_t GetEMCALPhiMax(void) const { return fEMCGeometry->GetEMCALPhiMax() ; }
177 154 : Int_t GetNECLayers(void) const { return fEMCGeometry->GetNECLayers() ; }
178 0 : Float_t GetDCALInnerExtandedEta(void) const { return fEMCGeometry->GetDCALInnerExtandedEta() ; }
179 200 : Int_t GetNZ(void) const { return fEMCGeometry->GetNZ() ; }
180 2 : Int_t GetNEta(void) const { return fEMCGeometry->GetNEta() ; }
181 194 : Int_t GetNPhi(void) const { return fEMCGeometry->GetNPhi() ; }
182 306 : Float_t GetECPbRadThick(void) const { return fEMCGeometry->GetECPbRadThick() ; }
183 154 : Float_t GetECScintThick(void) const { return fEMCGeometry->GetECScintThick() ; }
184 24 : Float_t GetSampling(void) const { return fEMCGeometry->GetSampling() ; }
185 130650 : Int_t GetNumberOfSuperModules(void) const { return fEMCGeometry->GetNumberOfSuperModules() ; }
186 0 : Float_t GetPhiGapForSuperModules(void) const { return fEMCGeometry->GetPhiGapForSuperModules(); }
187 1350 : Float_t GetPhiModuleSize(void) const { return fEMCGeometry->GetPhiModuleSize() ; }
188 6 : Float_t GetEtaModuleSize(void) const { return fEMCGeometry->GetEtaModuleSize() ; }
189 0 : Float_t GetFrontSteelStrip(void) const { return fEMCGeometry->GetFrontSteelStrip() ; }
190 6 : Float_t GetLateralSteelStrip(void) const { return fEMCGeometry->GetLateralSteelStrip() ; }
191 0 : Float_t GetPassiveScintThick(void) const { return fEMCGeometry->GetPassiveScintThick() ; }
192 0 : Float_t GetPhiTileSize(void) const { return fEMCGeometry->GetPhiTileSize() ; }
193 0 : Float_t GetEtaTileSize(void) const { return fEMCGeometry->GetEtaTileSize() ; }
194 0 : Float_t GetPhiSuperModule(void) const { return fEMCGeometry->GetPhiSuperModule() ; }
195 0 : Int_t GetNPhiSuperModule(void) const { return fEMCGeometry->GetNPhiSuperModule() ; }
196 2 : Int_t GetNPHIdiv(void) const { return fEMCGeometry->GetNPHIdiv() ; }
197 4 : Int_t GetNETAdiv(void) const { return fEMCGeometry->GetNETAdiv() ; }
198 2 : Int_t GetNCells(void) const { return fEMCGeometry->GetNCells() ; }
199 2 : Float_t GetLongModuleSize(void) const { return fEMCGeometry->GetLongModuleSize() ; }
200 4 : Float_t GetTrd1Angle(void) const { return fEMCGeometry->GetTrd1Angle() ; }
201 2 : Float_t Get2Trd1Dx2(void) const { return fEMCGeometry->Get2Trd1Dx2() ; }
202 12 : Float_t GetTrd1AlFrontThick() const { return fEMCGeometry->GetTrd1AlFrontThick() ; }
203 310 : Float_t GetTrd1BondPaperThick() const { return fEMCGeometry->GetTrd1BondPaperThick() ; }
204 : // --
205 0 : Int_t GetNCellsInSupMod(void) const { return fEMCGeometry->GetNCellsInSupMod() ; }
206 0 : Int_t GetNCellsInModule(void) const { return fEMCGeometry->GetNCellsInModule() ; }
207 0 : Int_t GetKey110DEG(void) const { return fEMCGeometry->GetKey110DEG() ; }
208 0 : Int_t GetnSupModInDCAL(void) const { return fEMCGeometry->GetnSupModInDCAL() ; }
209 0 : Int_t GetILOSS(void) const { return fEMCGeometry->GetILOSS() ; }
210 0 : Int_t GetIHADR(void) const { return fEMCGeometry->GetIHADR() ; }
211 : // --
212 0 : Float_t GetDeltaEta(void) const { return fEMCGeometry->GetDeltaEta() ; }
213 0 : Float_t GetDeltaPhi(void) const { return fEMCGeometry->GetDeltaPhi() ; }
214 0 : Int_t GetNTowers(void) const { return fEMCGeometry->GetNTowers() ; }
215 : //
216 40 : Double_t GetPhiCenterOfSM(Int_t nsupmod) const { return fEMCGeometry->GetPhiCenterOfSM(nsupmod) ; }
217 40 : Double_t GetPhiCenterOfSMSec(Int_t nsupmod) const { return fEMCGeometry->GetPhiCenterOfSMSec(nsupmod) ; }
218 12 : Float_t GetSuperModulesPar(Int_t ipar) const { return fEMCGeometry->GetSuperModulesPar(ipar) ; }
219 : //
220 4132558 : Int_t GetSMType(Int_t nSupMod) const { if( nSupMod > fEMCGeometry->GetNumberOfSuperModules() ) return -1;
221 4132558 : return fEMCGeometry->GetEMCSystem()[nSupMod] ; }
222 : Bool_t IsDCALSM(Int_t nSupMod) const;
223 : Bool_t IsDCALExtSM(Int_t nSupMod) const;
224 : Bool_t GetPhiBoundariesOfSM(Int_t nSupMod, Double_t &phiMin, Double_t &phiMax) const
225 0 : { return fEMCGeometry->GetPhiBoundariesOfSM(nSupMod, phiMin, phiMax) ; }
226 : Bool_t GetPhiBoundariesOfSMGap(Int_t nPhiSec, Double_t &phiMin, Double_t &phiMax) const
227 0 : { return fEMCGeometry->GetPhiBoundariesOfSMGap(nPhiSec, phiMin, phiMax); }
228 : //
229 : // especially for SM in extension, where center of SM != center of the SM-section.
230 : // Used in AliEMCALv0 to calculate position.
231 :
232 : //////////////////////////////////////////////////
233 : // Obsolete methods to be thrown out when feasible
234 0 : Float_t GetGap2Active(void) const { return fEMCGeometry->GetGap2Active() ; }
235 194 : Float_t GetSteelFrontThickness(void) const { return fEMCGeometry->GetSteelFrontThickness() ; }
236 0 : Float_t GetTrd2AngleY(void) const { return fEMCGeometry->GetTrd2AngleY() ; }
237 0 : Float_t Get2Trd2Dy2(void) const { return fEMCGeometry->Get2Trd2Dy2() ; }
238 0 : Float_t GetTubsR(void) const { return fEMCGeometry->GetTubsR() ; }
239 0 : Float_t GetTubsTurnAngle(void) const { return fEMCGeometry->GetTubsTurnAngle() ; }
240 : //Float_t GetAlFrontThickness(void) const { return fEMCGeometry->GetAlFrontThickness() ; }
241 : //Float_t GetIP2ECASection(void) const { return fEMCGeometry->GetIP2ECASection() ; }
242 : //////////////////////////////////////////////////
243 :
244 : ///////////////////////////////
245 : //Geometry data member setters
246 : //
247 0 : void SetNZ(Int_t nz) { fEMCGeometry->SetNZ(nz) ; }
248 0 : void SetNPhi(Int_t nphi) { fEMCGeometry->SetNPhi(nphi) ; }
249 : //
250 0 : void SetSampling(Float_t samp) { fEMCGeometry->SetSampling(samp) ; }
251 : //
252 8 : void PrintGeometry() { fEMCGeometry->PrintGeometry() ; } //*MENU*
253 :
254 : //////////////////////////
255 : // Global geometry methods
256 : //
257 : void GetGlobal(const Double_t *loc, Double_t *glob, int ind) const;
258 : void GetGlobal(const TVector3 &vloc, TVector3 &vglob, int ind) const;
259 : void GetGlobal(Int_t absId, Double_t glob[3]) const;
260 : void GetGlobal(Int_t absId, TVector3 &vglob) const;
261 :
262 : ////////////////////////////////////////
263 : // May 31, 2006; ALICE numbering scheme:
264 : // see ALICE-INT-2003-038: ALICE Coordinate System and Software Numbering Convention
265 : // All indexes are stared from zero now.
266 : //
267 : // abs id <-> indexes; Shish-kebab case, only TRD1 now.
268 : // EMCAL -> Super Module -> module -> tower(or cell) - logic tree of EMCAL
269 : //
270 : //** Usual name of variable - Dec 18,2006 **
271 : // nSupMod - index of super module (SM)
272 : // nModule - index of module in SM
273 : // nIphi - phi index of tower(cell) in module
274 : // nIeta - eta index of tower(cell) in module
275 : //
276 : // Inside SM
277 : // iphim - phi index of module in SM
278 : // ietam - eta index of module in SM
279 : //
280 : // iphi - phi index of tower(cell) in SM
281 : // ieta - eta index of tower(cell) in SM
282 : //
283 : // for a given tower index absId returns eta and phi of gravity center of tower.
284 : void EtaPhiFromIndex(Int_t absId, Double_t &eta, Double_t &phi) const;
285 : void EtaPhiFromIndex(Int_t absId, Float_t &eta, Float_t &phi) const;
286 :
287 : Bool_t GetAbsCellIdFromEtaPhi(Double_t eta,Double_t phi, Int_t &absId) const;
288 : Bool_t SuperModuleNumberFromEtaPhi(Double_t eta, Double_t phi, Int_t &nSupMod) const;
289 : Int_t GetAbsCellId(Int_t nSupMod, Int_t nModule, Int_t nIphi, Int_t nIeta) const;
290 : Bool_t CheckAbsCellId(Int_t absId) const;
291 : Bool_t GetCellIndex(Int_t absId, Int_t &nSupMod, Int_t &nModule, Int_t &nIphi,
292 : Int_t &nIeta) const;
293 : // Local coordinate of Super Module
294 : void GetModulePhiEtaIndexInSModule(Int_t nSupMod, Int_t nModule, Int_t &iphim,
295 : Int_t &ietam) const;
296 : void GetCellPhiEtaIndexInSModule(Int_t nSupMod, Int_t nModule, Int_t nIphi, Int_t nIeta,
297 : Int_t &iphi, Int_t &ieta) const ;
298 : Int_t GetSuperModuleNumber(Int_t absId) const;
299 : Int_t GetNumberOfModuleInPhiDirection(Int_t nSupMod) const
300 : {
301 129796 : if( GetSMType(nSupMod) == kEMCAL_Half) return fNPhi/2;
302 65635 : else if(GetSMType(nSupMod) == kEMCAL_3rd) return fNPhi/3;
303 64161 : else if(GetSMType(nSupMod) == kDCAL_Ext) return fNPhi/3;
304 64161 : else return fNPhi;
305 64898 : }
306 : // From cell indexes to abs cell id
307 : void GetModuleIndexesFromCellIndexesInSModule(Int_t nSupMod, Int_t iphi, Int_t ieta,
308 : Int_t &iphim, Int_t &ietam, Int_t &nModule) const;
309 : Int_t GetAbsCellIdFromCellIndexes(Int_t nSupMod, Int_t iphi, Int_t ieta) const;
310 :
311 : void ShiftOnlineToOfflineCellIndexes(Int_t sm, Int_t & iphi, Int_t & ieta) const ;
312 : void ShiftOfflineToOnlineCellIndexes(Int_t sm, Int_t & iphi, Int_t & ieta) const ;
313 :
314 : // Methods for AliEMCALRecPoint - Feb 19, 2006
315 : Bool_t RelPosCellInSModule(Int_t absId,
316 : Double_t &xr, Double_t &yr, Double_t &zr) const;
317 : Bool_t RelPosCellInSModule(Int_t absId, Double_t distEff,
318 : Double_t &xr, Double_t &yr, Double_t &zr) const;
319 : Bool_t RelPosCellInSModule(Int_t absId, Double_t loc[3]) const;
320 : Bool_t RelPosCellInSModule(Int_t absId, TVector3 &vloc) const;
321 :
322 2 : Int_t * GetEMCSystem() const { return fEMCGeometry->GetEMCSystem() ; } //EMC System, SM type list
323 : // Local Coordinates of SM
324 5822 : TArrayD GetCentersOfCellsEtaDir() const { return fCentersOfCellsEtaDir ; } // size fNEta*fNETAdiv (for TRD1 only) (eta or z in SM, in cm)
325 0 : TArrayD GetCentersOfCellsXDir() const { return fCentersOfCellsXDir ; } // size fNEta*fNETAdiv (for TRD1 only) ( x in SM, in cm)
326 123864 : TArrayD GetCentersOfCellsPhiDir() const { return fCentersOfCellsPhiDir ; } // size fNPhi*fNPHIdiv (for TRD1 only) (phi or y in SM, in cm)
327 : //
328 0 : TArrayD GetEtaCentersOfCells() const { return fEtaCentersOfCells ; } // [fNEta*fNETAdiv*fNPhi*fNPHIdiv], positive direction (eta>0); eta depend from phi position;
329 0 : TArrayD GetPhiCentersOfCells() const { return fPhiCentersOfCells ; } // [fNPhi*fNPHIdiv] from center of SM (-10. < phi < +10.)
330 :
331 : ///////////////////
332 : // useful utilities
333 : //
334 : Float_t AngleFromEta(Float_t eta) const { // returns theta in radians for a given pseudorapidity
335 0 : return 2.0*TMath::ATan(TMath::Exp(-eta));
336 : }
337 : Float_t ZFromEtaR(Float_t r,Float_t eta) const { // returns z in for a given
338 : // pseudorapidity and r=sqrt(x*x+y*y).
339 0 : return r/TMath::Tan(AngleFromEta(eta));
340 : }
341 :
342 : //Method to set shift-rotational matrixes from ESDHeader
343 : void SetMisalMatrix(const TGeoHMatrix * m, Int_t smod);
344 :
345 : //Alternate geometry that allows to calculate tower position for different particles and different alignments
346 : void RecalculateTowerPosition(Float_t drow, Float_t dcol, const Int_t sm, const Float_t depth,
347 : const Float_t misaligTransShifts[15], const Float_t misaligRotShifts[15],Float_t global[3]) const;
348 :
349 : //Returns shift-rotational matrixes for different volumes
350 : const TGeoHMatrix * GetMatrixForSuperModule(Int_t smod) const ;
351 : const TGeoHMatrix * GetMatrixForSuperModuleFromGeoManager(Int_t smod) const ;
352 : const TGeoHMatrix * GetMatrixForSuperModuleFromArray(Int_t smod) const ;
353 :
354 : Bool_t GetAbsFastORIndexFromTRU(const Int_t iTRU, const Int_t iADC, Int_t& id) const {
355 0 : return fTriggerMapping->GetAbsFastORIndexFromTRU(iTRU, iADC, id);
356 : }
357 : Bool_t GetAbsFastORIndexFromPositionInTRU(const Int_t iTRU, const Int_t iEta, const Int_t iPhi, Int_t& id) const {
358 188 : return fTriggerMapping->GetAbsFastORIndexFromPositionInTRU(iTRU, iEta, iPhi, id);
359 : }
360 : Bool_t GetAbsFastORIndexFromPositionInSM(const Int_t iSM, const Int_t iEta, const Int_t iPhi, Int_t& id) const {
361 0 : return fTriggerMapping->GetAbsFastORIndexFromPositionInSM( iSM, iEta, iPhi, id);
362 : }
363 : Bool_t GetAbsFastORIndexFromPositionInEMCAL(const Int_t iEta, const Int_t iPhi, Int_t& id) const {
364 336 : return fTriggerMapping->GetAbsFastORIndexFromPositionInEMCAL(iEta, iPhi, id);
365 : }
366 : Bool_t GetAbsFastORIndexFromPHOSSubregion(const Int_t iPHOS, Int_t& id) const {
367 0 : return fTriggerMapping->GetAbsFastORIndexFromPHOSSubregion(iPHOS, id);
368 : }
369 : Bool_t GetTRUFromAbsFastORIndex(const Int_t id, Int_t& iTRU, Int_t& iADC) const {
370 68 : return fTriggerMapping->GetTRUFromAbsFastORIndex(id, iTRU, iADC);
371 : }
372 : Bool_t GetPositionInTRUFromAbsFastORIndex(const Int_t id, Int_t& iTRU, Int_t& iEta, Int_t& iPhi) const {
373 0 : return fTriggerMapping->GetPositionInTRUFromAbsFastORIndex(id, iTRU, iEta, iPhi);
374 : }
375 : Bool_t GetPositionInSMFromAbsFastORIndex(const Int_t id, Int_t& iSM, Int_t& iEta, Int_t& iPhi) const {
376 0 : return fTriggerMapping->GetPositionInSMFromAbsFastORIndex(id, iSM, iEta, iPhi);
377 : }
378 : Bool_t GetPositionInEMCALFromAbsFastORIndex(const Int_t id, Int_t& iEta, Int_t& iPhi) const {
379 452 : return fTriggerMapping->GetPositionInEMCALFromAbsFastORIndex(id, iEta, iPhi);
380 : }
381 : Bool_t GetFastORIndexFromCellIndex(const Int_t id, Int_t& idx) const {
382 536 : return fTriggerMapping->GetFastORIndexFromCellIndex(id, idx);
383 : }
384 : Bool_t GetCellIndexFromFastORIndex(const Int_t id, Int_t idx[4]) const {
385 0 : return fTriggerMapping->GetCellIndexFromFastORIndex(id, idx);
386 : }
387 : Bool_t GetTRUIndexFromSTUIndex(const Int_t id, Int_t& idx, Int_t detector) const {
388 0 : return fTriggerMapping->GetTRUIndexFromSTUIndex(id, idx, detector);
389 : }
390 : Bool_t GetTRUIndexFromOnlineIndex(const Int_t id, Int_t& idx) const {
391 0 : return fTriggerMapping->GetTRUIndexFromOnlineIndex(id, idx);
392 : }
393 : Bool_t GetOnlineIndexFromTRUIndex(const Int_t id, Int_t& idx) const {
394 0 : return fTriggerMapping->GetOnlineIndexFromTRUIndex(id, idx);
395 : }
396 : Bool_t GetFastORIndexFromL0Index(const Int_t iTRU, const Int_t id, Int_t idx[], const Int_t size) const {
397 0 : return fTriggerMapping->GetFastORIndexFromL0Index(iTRU, id, idx, size);
398 : }
399 : Int_t GetTRUIndexFromSTUIndex(const Int_t id, Int_t detector) const {
400 0 : return fTriggerMapping->GetTRUIndexFromSTUIndex(id, detector);
401 : }
402 : Int_t GetTRUIndexFromOnlineIndex(const Int_t id) const {
403 0 : return fTriggerMapping->GetTRUIndexFromOnlineIndex(id);
404 : }
405 : Int_t GetOnlineIndexFromTRUIndex(const Int_t id) const {
406 120 : return fTriggerMapping->GetOnlineIndexFromTRUIndex(id);
407 : }
408 : Int_t GetNTotalTRU() const {
409 140 : return fTriggerMapping->GetNTRU();
410 : }
411 : Int_t GetTRUIndexFromOnlineHwAdd(Int_t hwAdd, Int_t ddl, Int_t sm)const{
412 0 : return fTriggerMapping->GetTRUIndexFromOnlineHwAdd(hwAdd, ddl, sm);
413 : }
414 : Bool_t GetSTUIndexFromTRUIndex( const Int_t id, Int_t& idx ) const {
415 0 : return fTriggerMapping->GetSTUIndexFromTRUIndex(id, idx );
416 : }
417 : Int_t GetSTUIndexFromTRUIndex( const Int_t id ) const {
418 0 : return fTriggerMapping->GetSTUIndexFromTRUIndex(id );
419 : }
420 : Bool_t GetTRUFromSTU(const Int_t iTRU, const Int_t iADC, Int_t& oTRU, Int_t& oADC, Int_t detector) const {
421 0 : return fTriggerMapping->GetTRUFromSTU(iTRU, iADC, oTRU, oADC, detector);
422 : }
423 : Bool_t GetSTUFromTRU(const Int_t iTRU, const Int_t iADC, Int_t& oTRU, Int_t& oADC ) const {
424 0 : return fTriggerMapping->GetSTUFromTRU(iTRU, iADC, oTRU, oADC );
425 : }
426 : Bool_t GetTRUFromSTU(const Int_t iTRU, const Int_t ieta, const Int_t iphi, Int_t& oTRU, Int_t& oeta, Int_t& ophi, Int_t detector) const {
427 0 : return fTriggerMapping->GetTRUFromSTU(iTRU, ieta, iphi, oTRU, oeta, ophi, detector) ;
428 : }
429 : Bool_t GetSTUFromTRU(const Int_t iTRU, const Int_t ieta, const Int_t iphi, Int_t& oTRU, Int_t& oeta, Int_t& ophi ) const {
430 0 : return fTriggerMapping->GetSTUFromTRU(iTRU, ieta, iphi, oTRU, oeta, ophi ) ;
431 : }
432 : Int_t GetTriggerMappingVersion() const {
433 4 : return fTriggerMapping->GetUniqueID();
434 : }
435 :
436 : protected:
437 :
438 : void Init(void); // initializes the parameters of EMCAL
439 :
440 : AliEMCALEMCGeometry * fEMCGeometry;// Geometry object for Electromagnetic calorimeter
441 :
442 : AliEMCALTriggerMapping* fTriggerMapping; // Trigger mapping
443 :
444 : TString fGeoName; // geometry name
445 : //Int_t *fEMCSMSystem; // [fEMCGeometry.fNumberOfSuperModules] geometry structure
446 : Int_t fKey110DEG; // for calculation abs cell id; 19-oct-05
447 : Int_t fnSupModInDCAL; // for calculation abs cell id; 06-nov-12
448 : Int_t fNCellsInSupMod; // number cell in super module
449 : Int_t fNETAdiv; // number eta divizion of module
450 : Int_t fNPHIdiv; // number phi divizion of module
451 : Int_t fNCellsInModule; // number cell in module
452 : TArrayD fPhiBoundariesOfSM; // phi boundaries of SM in rad; size is fNumberOfSuperModules;
453 : TArrayD fPhiCentersOfSM; // phi of centers of SM; size is fNumberOfSuperModules/2
454 : TArrayD fPhiCentersOfSMSec; // phi of centers of section where SM lies; size is fNumberOfSuperModules/2
455 : // Local Coordinates of SM
456 : TArrayD fPhiCentersOfCells; // [fNPhi*fNPHIdiv] from center of SM (-10. < phi < +10.)
457 : TArrayD fCentersOfCellsEtaDir; // size fNEta*fNETAdiv (for TRD1 only) (eta or z in SM, in cm)
458 : TArrayD fCentersOfCellsPhiDir; // size fNPhi*fNPHIdiv (for TRD1 only) (phi or y in SM, in cm)
459 : TArrayD fEtaCentersOfCells; // [fNEta*fNETAdiv*fNPhi*fNPHIdiv], positive direction (eta>0); eta depend from phi position;
460 : Int_t fNCells; // number of cells in calo
461 : Int_t fNPhi; // Number of Towers in the PHI direction
462 : TArrayD fCentersOfCellsXDir; // size fNEta*fNETAdiv (for TRD1 only) ( x in SM, in cm)
463 : Float_t fEnvelop[3]; // the GEANT TUB for the detector
464 : Float_t fArm1EtaMin; // Minimum pseudorapidity position of EMCAL in Eta
465 : Float_t fArm1EtaMax; // Maximum pseudorapidity position of EMCAL in Eta
466 : Float_t fArm1PhiMin; // Minimum angular position of EMCAL in Phi (degrees)
467 : Float_t fArm1PhiMax; // Maximum angular position of EMCAL in Phi (degrees)
468 : Float_t fEtaMaxOfTRD1; // Max eta in case of TRD1 geometry (see AliEMCALShishKebabTrd1Module)
469 : Float_t fDCALPhiMin; // Minimum angular position of DCAL in Phi (degrees)
470 : Float_t fDCALPhiMax; // Maximum angular position of DCAL in Phi (degrees)
471 : Float_t fEMCALPhiMax; // Maximum angular position of EMCAL in Phi (degrees)
472 : Float_t fDCALStandardPhiMax; // special edge for the case that DCAL contian extension
473 : Float_t fDCALInnerExtandedEta; // DCAL inner edge in Eta (with some extension)
474 : TList *fShishKebabTrd1Modules; // list of modules
475 : Float_t fParSM[3]; // SM sizes as in GEANT (TRD1)
476 : Float_t fPhiModuleSize; // Phi -> X
477 : Float_t fEtaModuleSize; // Eta -> Y
478 : Float_t fPhiTileSize; // Size of phi tile
479 : Float_t fEtaTileSize; // Size of eta tile
480 : Int_t fNZ; // Number of Towers in the Z direction
481 : Float_t fIPDistance; // Radial Distance of the inner surface of the EMCAL
482 : Float_t fLongModuleSize; // Size of long module
483 : // Geometry Parameters
484 : Float_t fShellThickness; // Total thickness in (x,y) direction
485 : Float_t fZLength; // Total length in z direction
486 : Float_t fSampling; // Sampling factor
487 :
488 : TGeoHMatrix* fkSModuleMatrix[AliEMCALGeoParams::fgkEMCALModules] ; //Orientations of EMCAL super modules
489 : Bool_t fUseExternalMatrices; // Use the matrices set in fkSModuleMatrix and not those in the geoManager
490 :
491 : private:
492 :
493 : static AliEMCALGeometry *fgGeom; // Pointer to the unique instance of the singleton
494 : static Bool_t fgInit; // Tells if geometry has been succesfully set up.
495 : static const Char_t *fgkDefaultGeometryName; // Default name of geometry
496 :
497 :
498 1236 : ClassDef(AliEMCALGeometry,17) // EMCAL geometry class
499 :
500 : } ;
501 :
502 : #endif // AliEMCALGEOUTILS_H
503 :
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