ATLAS Offline Software
T2GeometryTool.h
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1 /*
2  Copyright (C) 2002-2024 CERN for the benefit of the ATLAS collaboration
3 */
4 
5 /********************************************************************
6 
7  NAME: T2GeometryTool.h
8  PACKAGE: Trigger/TrigAlgorithms/TrigT2CaloCommon
9 
10  AUTHOR: Denis Oliveira Damazio
11  Carlos Osuna Escamilla
12 
13  PURPOSE: This Tools provides the information about whether
14  a cell is part of a cluster for different cluster sizes.
15 *******************************************************************/
16 
17 #ifndef TRIGT2CALO_T2GEOMETRY
18 #define TRIGT2CALO_T2GEOMETRY
19 #include "AthenaBaseComps/AthAlgTool.h"
20 #include "TrigT2CaloCommon/IT2GeometryTool.h"
21 #include <iostream>
22 #include <math.h>
23 
24 
25 class T2GeometryTool : virtual public IT2GeometryTool , public AthAlgTool{
26 public :
28  T2GeometryTool (const std::string & type, const std::string &name,
29  const IInterface* parent);
30 
32  virtual StatusCode initialize() override;
33 
42  virtual
43  int EtaPhiRange(const int nCaloType, const int nCaloSamp,
44  const double& energyEta, const double& energyPhi) override;
45 
52  virtual
53  bool CellInNorCluster( const int nCaloType,const int nCaloSamp,
54  const double& etaCell, const double& phiCell) override;
61  virtual
62  bool CellInNarCluster( const int nCaloType,const int nCaloSamp,
63  const double& etaCell, const double& phiCell) override;
70  virtual
71  bool CellInWidCluster( const int nCaloType,const int nCaloSamp,
72  const double& etaCell, const double& phiCell) override;
73 
74  // Not sure these methods will ever be used
75 
80  virtual
81  int nStripetaEMnar(const int layer) const override;
82 
86  virtual
87  int nStripphiEMnar(const int layer) const override;
88 
92  virtual
93  int nStripetaEMwid(const int layer) const override;
94 
98  virtual
99  int nStripphiEMwid(const int layer) const override;
100 
104  virtual
105  int nStripetaEMnor(const int layer) const override;
106 
110  virtual
111  int nStripphiEMnor(const int layer) const override;
112 
116  virtual
117  int nStripetaHADnar(const int layer) const override;
118 
122  virtual
123  int nStripphiHADnar(const int layer) const override;
124 
128  virtual
129  int nStripetaHADwid(const int layer) const override;
130 
134  virtual
135  int nStripphiHADwid(const int layer) const override;
136 
140  virtual
141  int nStripetaHADnor(const int layer) const override;
142 
146  virtual
147  int nStripphiHADnor(const int layer) const override;
148 
149 private :
150 
151  // This is the internal version that is repeated three
152  // times to prepare the cluster cuts
153  virtual
154  int EtaPhiRangeInt(const int layer, const int& nStripEta,
155  const int& nStripPhi,const double& energyEta,
156  const double& energyPhi,const int index_size) override;
158  double m_CellEtaNorMin[7]{}, m_CellEtaNorMax[7]{};
159  double m_CellPhiNorMin[7]{}, m_CellPhiNorMax[7]{};
161  double m_CellEtaNarMin[7]{}, m_CellEtaNarMax[7]{};
162  double m_CellPhiNarMin[7]{}, m_CellPhiNarMax[7]{};
164  double m_CellEtaWidMin[7]{}, m_CellEtaWidMax[7]{};
165  double m_CellPhiWidMin[7]{}, m_CellPhiWidMax[7]{};
166 
168  //int m_nStripetaEM[4]{};// 0.075, 0.075, 0.075, 0.1
169  //int m_nStripphiEM[4]{};// 0.2, 0.2, 0.175, 0.175
170 
171  //int m_nStripetaHAD[3]{}; // 0.2, 0.2, 0.2
172  //int m_nStripphiHAD[3]{}; // 0.2, 0.2, 0.2
173 
174  int m_nStripetaEMnar[4]{};// 0.075,0.075,0.075,0.1
175  int m_nStripphiEMnar[4]{}; // 0.2, 0.2, 0.125, 0.2
176 
177  int m_nStripetaEMwid[4]{};// 0.2, 0.2, 0.175, 0.2
178  int m_nStripphiEMwid[4]{}; // 0.2, 0.2, 0.175, 0.2
179 
180  int m_nStripetaEMnor[4]{}; // 0.2, 0.2, 0.2, 0.2
181  int m_nStripphiEMnor[4]{}; // 0.2, 0.2, 0.2, 0.2
182 
183  int m_nStripetaHADnar[3]{}; // 0.2, 0.2, 0.2
184  int m_nStripphiHADnar[3]{}; // 0.2, 0.2, 0.2
185 
186  int m_nStripetaHADwid[3]{}; // 0.4, 0.4, 0.4
187  int m_nStripphiHADwid[3]{}; // 0.4, 0.4, 0.4
188 
189  int m_nStripetaHADnor[3]{}; //0.4, 0.4, 0.4
190  int m_nStripphiHADnor[3]{}; //0.4, 0.4, 0.4
191 
193  static const int m_netareg[7];
194  static const double m_etareg[7][8];
195  static const double m_etaGran[7][7];
196  static const int m_nphireg[7];
197  static const double m_phireg[7][4];
198  static const double m_phiGran[7][3];
199 
200 };
201 
202 inline int T2GeometryTool::EtaPhiRangeInt(const int layer,
203  const int& nStripEta, const int& nStripPhi,
204  const double& energyEta, const double& energyPhi,const int index_size){
205 
206  double aeta = fabs(energyEta);
207  double dgra = m_etaGran[layer][0]; // eta granularity at eta=0
208  int netaregions=m_netareg[layer]; // number of different eta regions
209  double CellEtaMin=0.;
210  double CellEtaMax=0.;
211  double CellPhiMin=0.;
212  double CellPhiMax=0.;
213 
214  CellEtaMin = aeta - dgra*nStripEta*0.5;
215  int EtaMinSign = 1;
216  if ( CellEtaMin < 0. ) {
217  EtaMinSign = -1;
218  CellEtaMin = fabs(CellEtaMin ); // need a non-negative value
219  }
220  ATH_MSG_DEBUG( "At start of EtaPhiRange. layer " << layer <<
221  " aeta " << aeta << " dgra " << dgra << " netaregions " << netaregions
222  << " First CellEtaMin " << CellEtaMin );
223 
224  // Go by cell edges not centres since boundaries are at edges.
225  // Determine correct cell edges below, if seed is exactly at a cell
226  // edge rounding uncertainties could theoretically result in wrong
227  // number of cells being used, this is not checked.
228 
229  // When dealing with a non-integer number of cells (due to including cells
230  // with a different granularity then the central region) round up to the next
231  // integer number of cells if at least 30% of the cell would be in the
232  // desired range (i.e. error on the side of including too much rather
233  // then too little). This is an arbitrary choice and not proven to be ideal.
234 
235  int irmin;
236  int irmax;
237  double dgra1;
238 
239 if( CellEtaMin < m_etareg[layer][netaregions]){
240  for (irmin=0;irmin<netaregions;irmin++) {
241 
242  if (CellEtaMin >= m_etareg[layer][irmin] &&
243  CellEtaMin < m_etareg[layer][irmin+1]) {
244 
245  dgra1 = m_etaGran[layer][irmin];
246  CellEtaMin = (CellEtaMin-m_etareg[layer][irmin])/dgra1; //number of cells
247  if(CellEtaMin - trunc(CellEtaMin) > 0.7 ) CellEtaMin++; //round down
248  CellEtaMin = dgra1*trunc(CellEtaMin) + m_etareg[layer][irmin];
249 
250  CellEtaMin = CellEtaMin*EtaMinSign; // correct for edge that spans 0
251  CellEtaMax = aeta + dgra*nStripEta * 0.5;
252 
253 
254  for (irmax=irmin;irmax<netaregions;irmax++) {
255  if (CellEtaMax > m_etareg[layer][irmax] &&
256  CellEtaMax <= m_etareg[layer][irmax+1]) {
257  dgra1 = m_etaGran[layer][irmax];
258  CellEtaMax = (CellEtaMax-m_etareg[layer][irmax])/dgra1; //number of cells
259  if (CellEtaMax-trunc(CellEtaMax) >= 0.3) CellEtaMax++; // round up
260  CellEtaMax = dgra1*trunc(CellEtaMax)+m_etareg[layer][irmax];
261  }
262  } // for (irmax=irmin+1;irmax<netaregions;irmax++)
263  } // if (*CellEtaMin >= m_etareg[layer][irmin]...
264  } // for (irmin=0;irmin<=netaregions;irmin++)
265 } // if (CellEtaMin < m_etareg[layer][netaregions])
266 
267  // set to correct sign
268  double tempeta;
269  if (energyEta < 0) {
270  tempeta=-CellEtaMin;
271  CellEtaMin=-CellEtaMax;
272  CellEtaMax=tempeta;
273 
274  }
275 
276  // set phi range based only on phi granularity in the eta region
277  // of CellEtaMin, this may not be the optimum method when the eta
278  // range spans a change in phi granularity but the only place that
279  // might be a concern is the crack region of EM samp 1 since the
280  // other phi gran. changes occur at eta > 2.5
281 
282  double dgrap= m_phiGran[layer][0]; // phi granularity at eta=0
283  int nphiregions=m_nphireg[layer]; // number of different phi regions
284  CellPhiMin = energyPhi - dgrap*nStripPhi*0.5;
285 
286 if (fabs(CellEtaMin) < m_phireg[layer][nphiregions]){
287  for (irmin=0;irmin<nphiregions;irmin++) {
288 
289  if (fabs(CellEtaMin) >= m_phireg[layer][irmin] &&
290  fabs(CellEtaMin) < m_phireg[layer][irmin+1]) {
291 
292  dgra1 = m_phiGran[layer][irmin];
293  CellPhiMin = dgra1*rint(CellPhiMin/dgra1);
294  CellPhiMax = CellPhiMin + dgrap*nStripPhi;
295  } // if *(CellEtaMin >= m_phireg[layer][irmin]...
296  } // for (irmin=0;irmin<=nphiregions;irmin++)
297 } // if (fabs(CellEtaMin) < m_phireg[layer][nphiregions]){
298 
299  if (CellPhiMax > M_PI) CellPhiMax -= 2*M_PI;
300  if (CellPhiMin <= -M_PI) CellPhiMin += 2*M_PI;
301  if (CellPhiMin > M_PI) CellPhiMin -= 2*M_PI;
302  if (CellPhiMax <= -M_PI) CellPhiMax += 2*M_PI;
303 
304  if( index_size == 0)
305  {
306  m_CellEtaNarMax[layer] = CellEtaMax;
307  m_CellEtaNarMin[layer] = CellEtaMin;
308  m_CellPhiNarMax[layer] = CellPhiMax;
309  m_CellPhiNarMin[layer] = CellPhiMin;
310  }
311  else if (index_size == 1)
312  {
313  m_CellEtaWidMax[layer] = CellEtaMax;
314  m_CellEtaWidMin[layer] = CellEtaMin;
315  m_CellPhiWidMax[layer] = CellPhiMax;
316  m_CellPhiWidMin[layer] = CellPhiMin;
317  }
318  else if (index_size == 2)
319  {
320  m_CellEtaNorMax[layer] = CellEtaMax;
321  m_CellEtaNorMin[layer] = CellEtaMin;
322  m_CellPhiNorMax[layer] = CellPhiMax;
323  m_CellPhiNorMin[layer] = CellPhiMin;
324  }
325 
326 
327  return 0;
328 } // End of EtaPhiRangeInt method
329 
330 inline int T2GeometryTool::EtaPhiRange(const int nCaloType,const int nCaloSamp,
331  const double& energyEta,const double& energyPhi){
332 
333  // test for invalid calorimeter type
334  if (nCaloType < 0 || nCaloType > 1) {
335  ATH_MSG_ERROR("Invalid CaloType");
336  return 0;
337  }
338  if (nCaloSamp < 0 || nCaloSamp > 3 || (nCaloSamp == 3 && nCaloType == 1)) {
339  ATH_MSG_ERROR("Invalid CaloSamp");
340  return 0;
341  }
342  int layer = nCaloType*4+nCaloSamp;
343 
344  if( nCaloType == 0)
345  {
346 
347  EtaPhiRangeInt(layer,m_nStripetaEMnar[nCaloSamp],
348  m_nStripphiEMnar[nCaloSamp],energyEta,energyPhi,0);
349  EtaPhiRangeInt(layer,m_nStripetaEMwid[nCaloSamp],
350  m_nStripphiEMwid[nCaloSamp],energyEta,energyPhi,1);
351  EtaPhiRangeInt(layer,m_nStripetaEMnor[nCaloSamp],
352  m_nStripphiEMnor[nCaloSamp],energyEta,energyPhi,2);
353  }
354  else
355  {
356  EtaPhiRangeInt(layer,m_nStripetaHADnar[nCaloSamp],
357  m_nStripphiHADnar[nCaloSamp],energyEta,energyPhi,0);
358  EtaPhiRangeInt(layer,m_nStripetaHADwid[nCaloSamp],
359  m_nStripphiHADwid[nCaloSamp],energyEta,energyPhi,1);
360  EtaPhiRangeInt(layer,m_nStripetaHADnor[nCaloSamp],
361  m_nStripphiHADnor[nCaloSamp],energyEta,energyPhi,2);
362 
363  }
364 
365  // log removed, this is not an AlgTool
366  ATH_MSG_DEBUG( "At end of EtaPhiRange. layer " << layer
367  << " CellEtaNorMin : " << m_CellEtaNorMin[layer] << " CellEtaNorMax : "
368  << m_CellEtaNorMax[layer] << " CellPhiNorMin : " << m_CellPhiNorMin[layer]
369  << " CellPhiNorMax : " << m_CellPhiNorMax[layer] << " deta : "
370  << m_CellEtaNorMin[layer] - energyEta << " dphi : "
371  << m_CellPhiNorMin[layer] - energyPhi );
372 
373  ATH_MSG_DEBUG( " Nar variables ----> CellEtaNarMin : "
374  << m_CellEtaNarMin[layer]
375  << " CellEtaNarMax : " << m_CellEtaNarMax[layer] << " CellPhiNarMin : "
376  << m_CellPhiNarMin[layer] << " CellPhiNarMax : " << m_CellPhiNarMax[layer]
377  << " detaNar : " << m_CellEtaNarMin[layer] - energyEta << " dphiNar : "
378  << m_CellPhiNarMin[layer] - energyPhi );
379 
380  ATH_MSG_DEBUG( " Wid variables ----> CellEtaWidMin : "
381  << m_CellEtaWidMin[layer] << " CellEtaWidMax : " << m_CellEtaWidMax[layer]
382  << " CellPhiWidMin : " << m_CellPhiWidMin[layer] << " CellPhiWidMax : "
383  << m_CellPhiWidMax[layer] << " detaWid : "
384  << m_CellEtaWidMin[layer] - energyEta << " dphiWid : "
385  << m_CellPhiWidMin[layer] - energyPhi );
386 
387 
388 
389 
390  return 0;
391 } // End of EtaPhiRange
392 
393 inline bool T2GeometryTool::CellInNorCluster( const int nCaloType,
394  const int nCaloSamp, const double& etaCell, const double& phiCell){
395 
396  // test for invalid calorimeter type
397  if (nCaloType < 0 || nCaloType > 1) {
398  ATH_MSG_ERROR("Invalid CaloType");
399  return false;
400  }
401  if (nCaloSamp < 0 || nCaloSamp > 3 || (nCaloSamp == 3 && nCaloType == 1)) {
402  ATH_MSG_ERROR("Invalid CaloSamp");
403  return false;
404  }
405 
406  int layer = nCaloType*4+nCaloSamp;
407 
408  int IetaPass=0;
409  int IphiPass=0;
410  if ( (etaCell > m_CellEtaNorMin[layer]) &&
411  (etaCell < m_CellEtaNorMax[layer] ) ) IetaPass=1;
412  if ( ((m_CellPhiNorMax[layer] > m_CellPhiNorMin[layer]) &&
413  (phiCell > m_CellPhiNorMin[layer]) &&
414  (phiCell < m_CellPhiNorMax[layer]) ) ||
415  ( (m_CellPhiNorMax[layer] < m_CellPhiNorMin[layer] &&
416  phiCell > 0 && phiCell > m_CellPhiNorMin[layer] &&
417  phiCell -2*M_PI < m_CellPhiNorMax[layer] ) ||
418  ( phiCell < 0 && phiCell < m_CellPhiNorMax[layer] &&
419  phiCell +2*M_PI > m_CellPhiNorMin[layer] ) )
420  ) IphiPass=1;
421 
422  if ( IetaPass == 1 && IphiPass == 1 ) return true;
423  else return false;
424 } // end of CellInCluster
425 
426 inline bool T2GeometryTool::CellInNarCluster( const int nCaloType,
427  const int nCaloSamp, const double& etaCell, const double& phiCell){
428  // test for invalid calorimeter type
429  if (nCaloType < 0 || nCaloType > 1) {
430  ATH_MSG_ERROR("Invalid CaloType");
431  return false;
432  }
433  if (nCaloSamp < 0 || nCaloSamp > 3 || (nCaloSamp == 3 && nCaloType == 1)) {
434  ATH_MSG_ERROR("Invalid CaloSamp");
435  return false;
436  }
437  int layer = nCaloType*4+nCaloSamp;
438 
439  int IetaPass=0;
440  int IphiPass=0;
441  if ( (etaCell > m_CellEtaNarMin[layer]) &&
442  (etaCell < m_CellEtaNarMax[layer]) ) IetaPass=1;
443  if ( ( m_CellPhiNarMax[layer] > m_CellPhiNarMin[layer] &&
444  phiCell > m_CellPhiNarMin[layer] &&
445  phiCell < m_CellPhiNarMax[layer] ) ||
446  ( ( m_CellPhiNarMax[layer] < m_CellPhiNarMin[layer] &&
447  phiCell > 0 && phiCell > m_CellPhiNarMin[layer] &&
448  phiCell -2*M_PI < m_CellPhiNarMax[layer] ) ||
449  ( phiCell < 0 && phiCell < m_CellPhiNarMax[layer] &&
450  phiCell +2*M_PI > m_CellPhiNarMin[layer] ) )
451  ) IphiPass=1;
452 
453  if ( IetaPass == 1 && IphiPass == 1 ) return true;
454  else return false;
455 } // end of CellInCluster
456 
457 inline bool T2GeometryTool::CellInWidCluster( const int nCaloType,
458  const int nCaloSamp, const double& etaCell, const double& phiCell){
459  // test for invalid calorimeter type
460  if (nCaloType < 0 || nCaloType > 1) {
461  ATH_MSG_ERROR("Invalid CaloType");
462  return false;
463  }
464  if (nCaloSamp < 0 || nCaloSamp > 3 || (nCaloSamp == 3 && nCaloType == 1)) {
465  ATH_MSG_ERROR("Invalid CaloSamp");
466  return false;
467  }
468  int layer = nCaloType*4+nCaloSamp;
469 
470 
471  int IetaPass=0;
472  int IphiPass=0;
473  if ( (etaCell > m_CellEtaWidMin[layer] ) &&
474  (etaCell < m_CellEtaWidMax[layer] ) ) IetaPass=1;
475  if ( ( m_CellPhiWidMax[layer] > m_CellPhiWidMin[layer] &&
476  phiCell > m_CellPhiWidMin[layer] &&
477  phiCell < m_CellPhiWidMax[layer] ) ||
478  ( ( m_CellPhiWidMax[layer] < m_CellPhiWidMin[layer] &&
479  phiCell > 0 && phiCell > m_CellPhiWidMin[layer] &&
480  phiCell -2*M_PI < m_CellPhiWidMax[layer] ) ||
481  ( phiCell < 0 && phiCell < m_CellPhiWidMax[layer] &&
482  phiCell +2*M_PI > m_CellPhiWidMin[layer] ) )
483  ) IphiPass=1;
484 
485  if ( IetaPass == 1 && IphiPass == 1 ) return true;
486  else return false;
487 } // end of CellInWidCluster
488 
489 
490 inline int T2GeometryTool::nStripetaEMnar(const int layer) const
491  { return m_nStripetaEMnar[layer]; }
492 inline int T2GeometryTool::nStripphiEMnar(const int layer) const
493  { return m_nStripphiEMnar[layer]; }
494 
495 inline int T2GeometryTool::nStripetaEMwid(const int layer) const
496  { return m_nStripetaEMwid[layer]; }
497 inline int T2GeometryTool::nStripphiEMwid(const int layer) const
498  { return m_nStripphiEMwid[layer]; }
499 
500 inline int T2GeometryTool::nStripetaEMnor(const int layer) const
501  { return m_nStripetaEMnor[layer]; }
502 inline int T2GeometryTool::nStripphiEMnor(const int layer) const
503  { return m_nStripphiEMnor[layer]; }
504 
505 inline int T2GeometryTool::nStripetaHADnar(const int layer) const
506  { return m_nStripetaHADnar[layer]; }
507 inline int T2GeometryTool::nStripphiHADnar(const int layer) const
508  { return m_nStripphiHADnar[layer]; }
509 
510 inline int T2GeometryTool::nStripetaHADwid(const int layer) const
511  { return m_nStripetaHADwid[layer]; }
512 inline int T2GeometryTool::nStripphiHADwid(const int layer) const
513  { return m_nStripphiHADwid[layer]; }
514 
515 inline int T2GeometryTool::nStripetaHADnor(const int layer) const
516  { return m_nStripetaHADnor[layer]; }
517 inline int T2GeometryTool::nStripphiHADnor(const int layer) const
518  { return m_nStripphiHADnor[layer]; }
519 
520 #endif
T2GeometryTool::m_CellEtaNarMin
double m_CellEtaNarMin[7]
Narrow cluster variables.
Definition: T2GeometryTool.h:171
IT2GeometryTool.h
T2GeometryTool::nStripetaEMnar
virtual int nStripetaEMnar(const int layer) const override
Get number of cells in eta for Narrow Sized Cluster in EM calorimeter.
Definition: T2GeometryTool.h:490
T2GeometryTool::nStripetaHADnor
virtual int nStripetaHADnor(const int layer) const override
Get number of cells in eta for Normal Sized Cluster in HAD calorimeter.
Definition: T2GeometryTool.h:515
T2GeometryTool::EtaPhiRangeInt
virtual int EtaPhiRangeInt(const int layer, const int &nStripEta, const int &nStripPhi, const double &energyEta, const double &energyPhi, const int index_size) override
Definition: T2GeometryTool.h:202
M_PI
#define M_PI
Definition: ActiveFraction.h:11
T2GeometryTool::nStripetaHADnar
virtual int nStripetaHADnar(const int layer) const override
Get number of cells in eta for Narrow Sized Cluster in HAD calorimeter.
Definition: T2GeometryTool.h:505
T2GeometryTool::m_nStripphiEMwid
int m_nStripphiEMwid[4]
Definition: T2GeometryTool.h:188
T2GeometryTool::m_nStripetaHADnor
int m_nStripetaHADnor[3]
Definition: T2GeometryTool.h:199
T2GeometryTool::m_nphireg
static const int m_nphireg[7]
Definition: T2GeometryTool.h:206
T2GeometryTool::m_phiGran
static const double m_phiGran[7][3]
Definition: T2GeometryTool.h:208
T2GeometryTool::nStripphiHADnor
virtual int nStripphiHADnor(const int layer) const override
Get number of cells in phi for Normal Sized Cluster in HAD calorimeter.
Definition: T2GeometryTool.h:517
T2GeometryTool
Definition: T2GeometryTool.h:25
T2GeometryTool::nStripphiEMnor
virtual int nStripphiEMnor(const int layer) const override
Get number of cells in phi for Normal Sized Cluster in EM calorimeter.
Definition: T2GeometryTool.h:502
T2GeometryTool::nStripetaHADwid
virtual int nStripetaHADwid(const int layer) const override
Get number of cells in eta for Wide Sized Cluster in HADcalorimeter.
Definition: T2GeometryTool.h:510
T2GeometryTool::nStripphiEMwid
virtual int nStripphiEMwid(const int layer) const override
Get number of cells in phi for Wide Sized Cluster in EM calorimeter.
Definition: T2GeometryTool.h:497
T2GeometryTool::m_nStripetaEMnor
int m_nStripetaEMnor[4]
Definition: T2GeometryTool.h:190
T2GeometryTool::m_CellPhiNorMax
double m_CellPhiNorMax[7]
Definition: T2GeometryTool.h:169
T2GeometryTool::m_CellEtaWidMin
double m_CellEtaWidMin[7]
Wider cluster variables.
Definition: T2GeometryTool.h:174
T2GeometryTool::m_etaGran
static const double m_etaGran[7][7]
Definition: T2GeometryTool.h:205
ATH_MSG_ERROR
#define ATH_MSG_ERROR(x)
Definition: AthMsgStreamMacros.h:33
T2GeometryTool::m_CellEtaWidMax
double m_CellEtaWidMax[7]
Definition: T2GeometryTool.h:174
T2GeometryTool::m_phireg
static const double m_phireg[7][4]
Definition: T2GeometryTool.h:207
T2GeometryTool::nStripetaEMnor
virtual int nStripetaEMnor(const int layer) const override
Get number of cells in eta for Normal Sized Cluster in EM calorimeter.
Definition: T2GeometryTool.h:500
EL::StatusCode
::StatusCode StatusCode
StatusCode definition for legacy code.
Definition: PhysicsAnalysis/D3PDTools/EventLoop/EventLoop/StatusCode.h:22
ATH_MSG_DEBUG
#define ATH_MSG_DEBUG(x)
Definition: AthMsgStreamMacros.h:29
TRT::Hit::layer
@ layer
Definition: HitInfo.h:79
T2GeometryTool::m_CellPhiWidMax
double m_CellPhiWidMax[7]
Definition: T2GeometryTool.h:175
T2GeometryTool::m_nStripphiHADnar
int m_nStripphiHADnar[3]
Definition: T2GeometryTool.h:194
AthAlgTool.h
T2GeometryTool::nStripphiEMnar
virtual int nStripphiEMnar(const int layer) const override
Get number of cells in phi for Narrow Sized Cluster in EM calorimeter.
Definition: T2GeometryTool.h:492
test_pyathena.parent
parent
Definition: test_pyathena.py:15
T2GeometryTool::nStripphiHADwid
virtual int nStripphiHADwid(const int layer) const override
Get number of cells in phi for Wide Sized Cluster in HAD calorimeter.
Definition: T2GeometryTool.h:512
IT2GeometryTool
Definition: IT2GeometryTool.h:24
T2GeometryTool::m_netareg
static const int m_netareg[7]
Granularity and eta ranges relevant for above energy sums.
Definition: T2GeometryTool.h:203
T2GeometryTool::CellInWidCluster
virtual bool CellInWidCluster(const int nCaloType, const int nCaloSamp, const double &etaCell, const double &phiCell) override
Finds whether a cell is in a Wide Sized Cluster.
Definition: T2GeometryTool.h:457
T2GeometryTool::m_CellPhiNarMin
double m_CellPhiNarMin[7]
Definition: T2GeometryTool.h:172
T2GeometryTool::m_nStripetaHADwid
int m_nStripetaHADwid[3]
Definition: T2GeometryTool.h:196
private
#define private
Definition: DetDescrConditionsDict_dict_fixes.cxx:13
name
std::string name
Definition: Control/AthContainers/Root/debug.cxx:228
T2GeometryTool::CellInNarCluster
virtual bool CellInNarCluster(const int nCaloType, const int nCaloSamp, const double &etaCell, const double &phiCell) override
Finds whether a cell is in a Narrow Sized Cluster.
Definition: T2GeometryTool.h:426
T2GeometryTool::m_nStripphiHADwid
int m_nStripphiHADwid[3]
Definition: T2GeometryTool.h:197
T2GeometryTool::m_nStripphiHADnor
int m_nStripphiHADnor[3]
Definition: T2GeometryTool.h:200
T2GeometryTool::m_CellEtaNarMax
double m_CellEtaNarMax[7]
Definition: T2GeometryTool.h:171
T2GeometryTool::m_nStripetaEMwid
int m_nStripetaEMwid[4]
Definition: T2GeometryTool.h:187
T2GeometryTool::m_CellEtaNorMin
double m_CellEtaNorMin[7]
Normal cluster variables.
Definition: T2GeometryTool.h:168
T2GeometryTool::m_CellPhiNorMin
double m_CellPhiNorMin[7]
Definition: T2GeometryTool.h:169
T2GeometryTool::m_etareg
static const double m_etareg[7][8]
Definition: T2GeometryTool.h:204
T2GeometryTool::m_CellPhiWidMin
double m_CellPhiWidMin[7]
Definition: T2GeometryTool.h:175
T2GeometryTool::initialize
virtual StatusCode initialize() override
Initialize method.
Definition: T2GeometryTool.cxx:67
python.CaloScaleNoiseConfig.type
type
Definition: CaloScaleNoiseConfig.py:78
T2GeometryTool::m_nStripphiEMnar
int m_nStripphiEMnar[4]
Definition: T2GeometryTool.h:185
T2GeometryTool::m_CellEtaNorMax
double m_CellEtaNorMax[7]
Definition: T2GeometryTool.h:168
T2GeometryTool::nStripphiHADnar
virtual int nStripphiHADnar(const int layer) const override
Get number of cells in phi for Narrow Sized Cluster in HAD calorimeter.
Definition: T2GeometryTool.h:507
T2GeometryTool::m_nStripetaHADnar
int m_nStripetaHADnar[3]
Definition: T2GeometryTool.h:193
T2GeometryTool::nStripetaEMwid
virtual int nStripetaEMwid(const int layer) const override
Get number of cells in eta for Wide Sized Cluster in EM calorimeter.
Definition: T2GeometryTool.h:495
T2GeometryTool::m_nStripetaEMnar
int m_nStripetaEMnar[4]
Reference changed to vectors.
Definition: T2GeometryTool.h:184
T2GeometryTool::EtaPhiRange
virtual int EtaPhiRange(const int nCaloType, const int nCaloSamp, const double &energyEta, const double &energyPhi) override
This prepares internal tables based on the cluster position.
Definition: T2GeometryTool.h:330
AthAlgTool
Definition: AthAlgTool.h:26
T2GeometryTool::m_nStripphiEMnor
int m_nStripphiEMnor[4]
Definition: T2GeometryTool.h:191
T2GeometryTool::T2GeometryTool
T2GeometryTool(const std::string &type, const std::string &name, const IInterface *parent)
Constructor.
Definition: T2GeometryTool.cxx:9
T2GeometryTool::m_CellPhiNarMax
double m_CellPhiNarMax[7]
Definition: T2GeometryTool.h:172
T2GeometryTool::CellInNorCluster
virtual bool CellInNorCluster(const int nCaloType, const int nCaloSamp, const double &etaCell, const double &phiCell) override
Finds whether a cell is in a Normal Sized Cluster.
Definition: T2GeometryTool.h:393
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