ATLAS Offline Software
TgcSlbDataHelper.cxx
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1 /*
2  Copyright (C) 2002-2022 CERN for the benefit of the ATLAS collaboration
3 */
4 
5 /*
6  SLB data helper class : store bit map
7  reconstruct to Hits and Coincidences
8  convert to celladdr and data
9 
10  modified for new SL format H.Kurashige Aug.2008
11 
12  author Tadashi Maeno
13  author Hisaya Kurashige Jan. 2008
14  author Susumu Oda Jun. 2009
15 */
16 
17 #include "TgcSlbDataHelper.h"
18 #include "MuonRDO/TgcRawData.h"
19 #include "TgcSlbData.h"
20 
21 Muon::TgcSlbDataHelper::TgcSlbDataHelper(void)
22  : AthMessaging ("Muon::TgcSlbDataHelper")
23 {
24 }
25 
26 Muon::TgcSlbDataHelper::~TgcSlbDataHelper(void)
27 = default;
28 
29 // reconstruct to Hits. subDetectorID and ROD ID are dummy
30 void Muon::TgcSlbDataHelper::convertToHits(uint16_t subDetectorId,
31  uint16_t rodId,
32  const TgcSlbData * slb,
33  std::vector<TgcRawData *> &vChannel) const
34 {
35  TgcRawData::SlbType type = TgcRawData::SLB_TYPE_UNKNOWN;
36  if((slb->getType() == TgcSlbData::SLB_SL_F) ||
37  (slb->getType() == TgcSlbData::SLB_SL_E)) {
38  return;
39  } else {
40  if(slb->getType() == TgcSlbData::SLB_LPT_D_W) {
41  type = TgcRawData::SLB_TYPE_DOUBLET_WIRE;
42  } else if(slb->getType() == TgcSlbData::SLB_LPT_D_S) {
43  type = TgcRawData::SLB_TYPE_DOUBLET_STRIP;
44  } else if(slb->getType() == TgcSlbData::SLB_LPT_T_W) {
45  type = TgcRawData::SLB_TYPE_TRIPLET_WIRE;
46  } else if(slb->getType() == TgcSlbData::SLB_LPT_T_S) {
47  type = TgcRawData::SLB_TYPE_TRIPLET_STRIP;
48  } else if(slb->getType() == TgcSlbData::SLB_LPT_I_W ||
49  slb->getType() == TgcSlbData::SLB_LPT_I_S) {
50  type = TgcRawData::SLB_TYPE_INNER_WIRE;
51  // Readout formatted Data use TgcRawData::SLB_TYPE_INNER_WIRE for Inner Strip Hits.
52  // http://cern.ch/atlas-tgc/doc/ROBformat.pdf Table 7 : SB type, bits 15..13
53  // Since EI/FI Wire and Strip hold one SLB in common,
54  // we cannot use SLB type to distinguish Wire and Strip.
55  }
56  }
57 
58  bool isFirstHit = true;
59  for(unsigned int iBc=TgcSlbData::BC_PREVIOUS; iBc<TgcSlbData::N_BC; ++iBc) {
60  const bool * bitArray = slb->getBitArray(iBc);
61 
62  // bit 0..39 is assigned for Trigger Data, ignore
63  const int TRIGGER_DATA_OFFSET=40;
64  for(int ibit=TRIGGER_DATA_OFFSET; ibit<TgcSlbData::BITMAP_SIZE; ++ibit) {
65  if(*(bitArray+ibit)) {
66  // cretae TgcRaw
67  TgcRawData * rCh =
68  new TgcRawData(iBc,
69  subDetectorId, rodId,
70  slb->getSswId(), slb->getSbLoc(),
71  slb->getL1Id(), slb->getBcId(),
72  type,
73  isAdjacent(ibit),
74  0,
75  ibit);
76  vChannel.push_back(rCh);
77 
78  // DEBUG PRINT
79  if(isFirstHit) {
80  ATH_MSG_DEBUG( "Tgc TgcSlbDataHelper::convertToHits :"
81  << " slb type =" << slb->getType() );
82  isFirstHit =false;
83  }
84  ATH_MSG_DEBUG( "TgcRawData : HIT "
85  << " BC:" << iBc
86  << " subDetId:" << subDetectorId
87  << " rodId:" << rodId
88  << " sswId:" << slb->getSswId()
89  << " sbLoc:" << slb->getSbLoc()
90  << " slbId:" << slb->getSlbId()
91  << " bit#:" << ibit );
92  } //endif
93  } // loop ibit
94  } // loop iBC
95 }
96 
97 // reconstruct to Coincidences. subDetectorID and ROD ID are dummy
98 void Muon::TgcSlbDataHelper::convertToCoincidences(uint16_t subDetectorId,
99  uint16_t rodId,
100  const TgcSlbData * slb,
101  std::vector<TgcRawData *> &vChannel) const
102 {
103  bool hit[8];
104  int delta[8];
105  int pos[8];
106 
107  bool isFirstHit = true;
108 
109  for(unsigned int iBc=TgcSlbData::BC_PREVIOUS; iBc<TgcSlbData::N_BC; ++iBc) {
110  const bool * bitArray = slb->getBitArray(iBc);
111  bool forward;
112  uint16_t sector;
113 
114  TgcRawData * rCh;
115  switch(slb->getType()) {
116  case TgcSlbData::SLB_LPT_D_W: // Doublet Wire
117  getLPTforDoublet(bitArray, hit, delta, pos);
118 
119  for(int i=0; i<N_LPT_D; ++i) {
120  if(!hit[i]) continue;
121  //create TgcRawData object
122  rCh = new TgcRawData(iBc,
123  subDetectorId, rodId,
124  slb->getSswId(), slb->getSbLoc(),
125  slb->getL1Id(), slb->getBcId(),
126  TgcRawData::SLB_TYPE_DOUBLET_WIRE/*DOUBLET WIRE*/,
127  delta[i],
128  0, i, pos[i]);
129  vChannel.push_back(rCh);
130 
131  // DEBUG PRINT
132  if(isFirstHit) {
133  ATH_MSG_DEBUG( "Tgc TgcSlbDataHelper::convertCoincidence :"
134  << " slb type =" << slb->getType() );
135  isFirstHit = false;
136  }
137  ATH_MSG_DEBUG( ((slb->getType()==TgcSlbData::SLB_LPT_D_W) ?
138  "TgcRawData : LPT_D_W " : "TgcRawData : LPT_D_S ")
139  << " BC:" << iBc
140  << " subDetId:" << subDetectorId
141  << " rodId:" << rodId
142  << " sswId:" << slb->getSswId()
143  << " sbLoc:" << slb->getSbLoc()
144  << " slbId:" << slb->getSlbId()
145  << " sub: " << i
146  << " pos:" << pos[i]
147  << " delta:" << delta[i] );
148  } // loop block (i)
149  break;
150 
151  case TgcSlbData::SLB_LPT_D_S: // Doublet Strip
152  getLPTforDoublet(bitArray, hit, delta, pos);
153 
154  for(int i=0; i<N_LPT_D; ++i) {
155  if(!hit[i]) continue;
156  //create TgcRawData object
157  rCh = new TgcRawData(iBc,
158  subDetectorId, rodId,
159  slb->getSswId(), slb->getSbLoc(),
160  slb->getL1Id(), slb->getBcId(),
161  TgcRawData::SLB_TYPE_DOUBLET_STRIP/*DOUBLET STRIP*/,
162  delta[i],
163  0, i, pos[i]);
164  vChannel.push_back(rCh);
165 
166  if(isFirstHit) {
167  ATH_MSG_DEBUG( "Tgc TgcSlbDataHelper::convertCoincidence :"
168  << " slb type =" << slb->getType() );
169  isFirstHit = false;
170  }
171  ATH_MSG_DEBUG( ((slb->getType()==TgcSlbData::SLB_LPT_D_W) ?
172  "TgcRawData : LPT_D_W " : "TgcRawData : LPT_D_S ")
173  << " BC:" << iBc
174  << " subDetId:" << subDetectorId
175  << " rodId:" << rodId
176  << " sswId:" << slb->getSswId()
177  << " sbLoc:" << slb->getSbLoc()
178  << " slbId:" << slb->getSlbId()
179  << " sub: " << i
180  << " pos:" << pos[i]
181  << " delta:" << delta[i] );
182  } // loop block (i)
183  break;
184 
185  case TgcSlbData::SLB_LPT_T_W: // Triplet Wire
186  getLPTforTripletWire(bitArray, hit, pos);
187  for(int i=0; i<N_LPT_TW; ++i) {
188  if(!hit[i]) continue;
189  delta[i]=0;
190  //create TgcRawData object
191  rCh = new TgcRawData(iBc,
192  subDetectorId, rodId,
193  slb->getSswId(), slb->getSbLoc(),
194  slb->getL1Id(), slb->getBcId(),
195  TgcRawData::SLB_TYPE_TRIPLET_WIRE/*TRIPLET WIRE*/,
196  delta[i],
197  0, i, pos[i]);
198  vChannel.push_back(rCh);
199  if(isFirstHit) {
200  ATH_MSG_DEBUG( "Tgc TgcSlbDataHelper::convertCoincidence :"
201  << " slb type =" << slb->getType() );
202  isFirstHit = false;
203  }
204  ATH_MSG_DEBUG( "TgcRawData : LPT_T_W "
205  << " BC:" << iBc
206  << " subDetId:" << subDetectorId
207  << " rodId:" << rodId
208  << " sswId:" << slb->getSswId()
209  << " sbLoc:" << slb->getSbLoc()
210  << " slbId:" << slb->getSlbId()
211  << " sub: " << i
212  << " pos:" << pos[i] );
213  } // loop block
214  break;
215 
216  case TgcSlbData::SLB_LPT_T_S: // Triplet Strip
217  getLPTforTripletStrip(bitArray, hit, pos);
218  for(int i=0; i<N_LPT_TS; ++i) {
219  if(!hit[i]) continue;
220  delta[i]=0;
221  int seg = 0;
222  int subc =i;
223  if(i>3) {
224  seg = 1;
225  subc = i-4;
226  }
227  //create TgcRawData object
228  rCh = new TgcRawData(iBc,
229  subDetectorId, rodId,
230  slb->getSswId(), slb->getSbLoc(),
231  slb->getL1Id(), slb->getBcId(),
232  TgcRawData::SLB_TYPE_TRIPLET_STRIP/*TRIPLET STRIP*/,
233  delta[i],
234  seg, subc, pos[i]);
235  vChannel.push_back(rCh);
236  if(isFirstHit) {
237  ATH_MSG_DEBUG( "Tgc TgcSlbDataHelper::convertCoincidence :"
238  << " slb type =" << slb->getType() );
239  isFirstHit = false;
240  }
241  ATH_MSG_DEBUG( "TgcRawData : LPT_T_S "
242  << " BC:" << iBc
243  << " subDetId:" << subDetectorId
244  << " rodId:" << rodId
245  << " sswId:" << slb->getSswId()
246  << " sbLoc:" << slb->getSbLoc()
247  << " slbId:" << slb->getSlbId()
248  << " seg: " << seg
249  << " sub: " << subc
250  << " pos:" << pos[i] );
251  } // loop block (i)
252  break;
253 
255  // Since EI/FI Wire and Strip hold one SLB in common,
256  // we cannot use SLB type to distinguish Wire and Strip.
257  case TgcSlbData::SLB_LPT_I_W:
258  case TgcSlbData::SLB_LPT_I_S:
259  getLPTforInner(bitArray, hit);
260  for(int i=0; i<N_LPT_I; ++i) {
261  if(!hit[i]) continue;
262  rCh = new TgcRawData(iBc, // uint16_t bcTag
263  subDetectorId, // uint16_t subDetectorId
264  rodId, // uint16_t rodId
265  slb->getSswId(), // uint16_t sswId
266  slb->getSbLoc(), // uint16_t slbId
267  slb->getL1Id(), // uint16_t l1Id
268  slb->getBcId(), // uint16_t bcId
269  (i<(N_LPT_I/2) ? TgcRawData::SLB_TYPE_INNER_STRIP
270  : TgcRawData::SLB_TYPE_INNER_WIRE), // TgcRawData::SlbType slbType
271  // TRIGA HIT (bits 0..3) is for Strip and TRIGB HIT (bits 4..7) is for Wire
272  // https://twiki.cern.ch/twiki/pub/Main/TgcDocument/celladdress2_asic_rev2.pdf
273  0, // int16_t delta, always for Tracklet Inner
274  static_cast<uint16_t>(i>=(N_LPT_I/2)), // uint16_t seg, wire=1;strip=0
275  i%(N_LPT_I/2), // uint16_t sub, Inner 0..3, TRIG0=sub0, TRIG1=sub1, TRIG2=sub2, TRIG3=sub3
276  // https://twiki.cern.ch/twiki/pub/Main/TgcDocument/celladdress2_asic_rev2.pdf
277  0); // uint16_t rphi, always for Tracklet Inner
278  vChannel.push_back(rCh);
279  if(isFirstHit) {
280  ATH_MSG_DEBUG( "Tgc TgcSlbDataHelper::convertCoincidence :"
281  << " slb type =" << slb->getType() );
282  isFirstHit = false;
283  }
284  ATH_MSG_DEBUG( "TgcRawData : "
285  << (rCh->slbType()==TgcRawData::SLB_TYPE_INNER_STRIP ? "LPT_I_S" : "LPT_I_W")
286  << " BC:" << rCh->bcTag()
287  << " subDetId:" << rCh->subDetectorId()
288  << " rodId:" << rCh->rodId()
289  << " sswId:" << rCh->sswId()
290  << " sbLoc:" << rCh->slbId()
291  << " slbId:" << slb->getSlbId()
292  << " seg: " << rCh->segment()
293  << " sub: " << rCh->subMatrix()
294  << " pos:" << rCh->position() );
295  }
296 
297  break;
298 
299  case TgcSlbData::SLB_SL_F: // Forward Sector Logic
300  case TgcSlbData::SLB_SL_E: // Endcap Sector Logic
301 
302  forward = (slb->getType() == TgcSlbData::SLB_SL_F);
303  sector = getSector(forward, subDetectorId, rodId, slb);
304 
305  // SL Output
306  bool cand3plus;
307  bool hitSL[2];
308  bool muplus[2];
309  uint16_t threshold[2];
310  bool overlap[2];
311  uint16_t roi[2];
312  if(forward) {
313  TgcSlbDataHelper::getSL_F(bitArray, cand3plus,
314  hitSL,
315  muplus, threshold,
316  overlap, roi) ;
317  } else {
318  TgcSlbDataHelper::getSL_E(bitArray, cand3plus,
319  hitSL,
320  muplus, threshold,
321  overlap, roi) ;
322  }
323 
324  for(size_t i=0; i<2; ++i) {
325  if(!hitSL[i]) continue;
326  //create TgcRawData object
327  bool veto[2] = {false};
328  rCh = new TgcRawData(iBc,
329  subDetectorId, rodId,
330  slb->getL1Id(), slb->getBcId(),
331  cand3plus,
332  forward,
333  sector,
334  i,
335  muplus[i],
336  threshold[i],
337  overlap[i],
338  veto[i],
339  roi[i]);
340  vChannel.push_back(rCh);
341  if(isFirstHit) {
342  ATH_MSG_DEBUG( "Tgc TgcSlbDataHelper::convertCoincidence :"
343  << " slb type =" << slb->getType() );
344  isFirstHit = false;
345  }
346  ATH_MSG_DEBUG( "TgcRawData : SL "
347  << " BC:" << iBc
348  << " subDetId:" << subDetectorId
349  << " rodId:" << rodId
350  << " sswId:" << slb->getSswId()
351  << " sbLoc:" << slb->getSbLoc()
352  << " slbId:" << slb->getSlbId()
353  << " roi:" << roi[i]
354  << " pt:" << threshold[i] );
355  } // loop candidate (i)
356 
357  // SL Input = Hpt Output
358  bool hitP[N_HPT_E];
359  bool strip[N_HPT_E];
360  uint16_t chip[N_HPT_E];
361  uint16_t index[N_HPT_E];
362  bool hipt[N_HPT_E];
363  uint16_t hitId[N_HPT_E];
364  uint16_t sub[N_HPT_E];
365  int16_t deltaHPT[N_HPT_E];
366 
367  size_t numberOfHit;
368  if(forward) {
369  numberOfHit = N_HPT_F;
370  TgcSlbDataHelper::getHPT_F(bitArray,
371  hitP, strip,
372  chip, index,
373  hipt, hitId,
374  sub, deltaHPT);
375  } else {
376  numberOfHit = N_HPT_E;
377  TgcSlbDataHelper::getHPT_E(bitArray,
378  hitP, strip,
379  chip, index,
380  hipt, hitId,
381  sub, deltaHPT);
382  }
383 
384  for(size_t i=0; i<numberOfHit; ++i) {
385  if(!hitP[i]) continue;
386 
387  // check HighPT data
388  if(!isValid_HPT(hitP[i], strip[i],
389  chip[i], index[i],
390  hipt[i], hitId[i],
391  sub[i], deltaHPT[i])) {
392  std::string hpt_Type="E";
393  if(forward) hpt_Type ="F";
394  if(strip[i]) hpt_Type+="S";
395  else hpt_Type +="W";
396 
397  if(isFirstHit) {
398  ATH_MSG_DEBUG( "Tgc TgcSlbDataHelper::convertCoincidence :"
399  << " slb type =" << slb->getType() );
400  isFirstHit = false;
401  }
402  ATH_MSG_DEBUG( "invalid HPT data " << hpt_Type
403  << " BC:" << iBc
404  << " subDetId:" << subDetectorId
405  << " rodId:" << rodId
406  << " sswId:" << slb->getSswId()
407  << " sbLoc:" << slb->getSbLoc()
408  << " slbId:" << slb->getSlbId()
409  << std::dec
410  << " chip:" << chip[i]
411  << " index:" << index[i]
412  << " hitId:" << hitId[i]
413  << " delta:" << deltaHPT[i] );
414  continue; // skip making TgcRawData
415  }
416 
417  //create TgcRawData object
418  {
419  uint16_t inner[N_HPT_E] = {0};
420  rCh = new TgcRawData(iBc,
421  subDetectorId, rodId,
422  slb->getL1Id(), slb->getBcId(),
423  strip[i],
424  forward,
425  sector,
426  chip[i],
427  index[i],
428  hipt[i],
429  hitId[i],
430  sub[i],
431  deltaHPT[i],
432  inner[i]);
433  }
434  vChannel.push_back(rCh);
435  if(isFirstHit) {
436  ATH_MSG_DEBUG( "Tgc TgcSlbDataHelper::convertCoincidence :"
437  << " slb type =" << slb->getType() );
438  isFirstHit = false;
439  }
440  auto hptType = [&]() {
441  std::string hptType="E";
442  if(forward) hptType ="F";
443  if(strip[i]) hptType+="S";
444  else hptType +="W";
445  return hptType;
446  };
447  ATH_MSG_DEBUG( "TgcRawData : HPT " << hptType()
448  << " BC:" << iBc
449  << " subDetId:" << subDetectorId
450  << " rodId:" << rodId
451  << " sswId:" << slb->getSswId()
452  << " sbLoc:" << slb->getSbLoc()
453  << " slbId:" << slb->getSlbId()
454  << std::dec
455  << " chip:" << chip[i]
456  << " index:" << index[i]
457  << " hitId:" << hitId[i]
458  << " delta:" << deltaHPT[i] );
459  }
460 
461  break;
462 
463  default:
464  break;
465 
466  } // end switch
467  } // end BCtag loop
468 }
469 
470 // set SLB Type based on sswId, moduleType
471 bool Muon::TgcSlbDataHelper::setType(uint16_t , // subDetectorId
472  uint16_t , // rodId
473  TgcSlbData * slb,
474  int //moduleType
475  )
476 {
477  bool ret = true;
478  switch(slb->getSswId()) {
479  case 9: // SL
480  if((slb->getSbLoc() == 4) || (slb->getSbLoc() == 5)) {
481  slb->setType(TgcSlbData::SLB_SL_F);
482  } else {
483  slb->setType(TgcSlbData::SLB_SL_E);
484  }
485  break;
486 
487  case 8: // EI/FI
488  // October 24, 2008, Susumu Oda
489  // This is not correct.
490  // One SLB for EI/FI is shared by EI/FI wire and
491  // EI/FI strip. Wire and strip should be defined
492  // with not sbLoc but bit position. A,B-inputs
493  // are used by strip and C,D-inputs are used by wire.
494  // Since there is no immediate solution and no
495  // necessitiy, I leave the following several lines.
496  if((slb->getSbLoc() == 0) || (slb->getSbLoc() == 2)) {
497  slb->setType(TgcSlbData::SLB_LPT_I_W);
498  } else {
499  slb->setType(TgcSlbData::SLB_LPT_I_S);
500  }
501  break;
502 
503  case 0: // EWT/EST
504  case 1: // EWT/EST
505  case 2: // FWT/FST
506  if(slb->getSbLoc() >=16) {
507  slb->setType(TgcSlbData::SLB_LPT_T_S);
508  } else {
509  slb->setType(TgcSlbData::SLB_LPT_T_W);
510  }
511  break;
512 
513  case 3: // EWD/ESD
514  case 4: // EWD/ESD
515  case 5: // EWD/ESD
516  case 6: // EWD/ESD
517  case 7: // FWD/FSD
518  if(slb->getSbLoc() >=16) {
519  slb->setType(TgcSlbData::SLB_LPT_D_S);
520  } else {
521  slb->setType(TgcSlbData::SLB_LPT_D_W);
522  }
523  break;
524 
525  default:
526  slb->setType(TgcSlbData::SLB_NONE);
527  ret = false;
528  break;
529  }
530  return ret;
531 }
532 
533 // Adjacent or not
534 bool Muon::TgcSlbDataHelper::isAdjacent(int ibit)
535 {
536  bool value=false;
537  value = value || ((ibit<200) && (ibit>193));
538  value = value || ((ibit<162) && (ibit>149));
539  value = value || ((ibit<118) && (ibit>109));
540  value = value || ((ibit<78) && (ibit>73));
541  value = value || ((ibit<42) && (ibit>39));
542 
543  return value;
544 }
545 
546 // set sector for HpT/SL based on slbId
547 uint16_t Muon::TgcSlbDataHelper::getSector(bool forward,
548  uint16_t , // subDetectorId
549  uint16_t , // rodId
550  const TgcSlbData * slb)
551 {
552  uint16_t sector = 0;
553 
554  if(forward) {
555  sector = slb->getSbLoc()-4;
556  } else {
557  sector = slb->getSbLoc();
558  }
559  return sector;
560 }
561 
562 void Muon::TgcSlbDataHelper::getLPTforDoublet(const bool * bitArray,
563  bool hit[],
564  int delta[],
565  int pos[]) const
566 {
567  // 2 x (10 bits of TRIG data)
568  // 0 PT0 PT1 PT2 SGN PS0 PS1 PS2 PS3 PS4
569 
570  size_t ibit=0;
571  for(int blk=0; blk<N_LPT_D; blk++) {
572  uint32_t binary = getVal(bitArray, ibit, 9);
573  hit[blk] = false;
574  // Delta
575  delta[blk] = binary & 0x07;
576  if(delta[blk]==0) {
577  // check sign
578  if(binary &0x08) hit[blk] = true;
579  } else {
580  hit[blk] = true;
581  if((binary & 0x08)==0) delta[blk] *= -1;
582  }
583  // position
584  if(hit[blk]) {
585  pos[blk] = (binary & 0x1F0) >>4;
586  } else {
587  pos[blk] = 0;
588  }
589  ibit +=10;
590  }
591 }
592 
593 void Muon::TgcSlbDataHelper::getLPTforTripletWire(const bool * bitArray,
594  bool hit[],
595  int pos[]) const
596 {
597  // 3 x ( 6/7 bits of TRIG Data )
598  size_t ibit=0;
599  int blk;
600  uint32_t binary;
601 
602  // TRIG0
603  // PS0 PS1 PS2 PS3 PS4 HIT
604  blk=0;
605  binary = getVal(bitArray, ibit, 6);
606  pos[blk] = 0;
607  hit[blk] = ((binary & 0x20)!=0);
608  // position
609  if(hit[blk]) pos[blk] = (binary & 0x1F);
610  ibit += 6;
611 
612  // TRIG1
613  // PS0 PS1 PS2 0 PS3 PS4 HIT
614  blk=1;
615  binary = getVal(bitArray, ibit, 3);
616  pos[blk] = 0;
617  hit[blk] = ((binary & 0x04) !=0);
618  // position
619  if(hit[blk]) pos[blk] = (binary & 0x03)*8;
620  ibit += 4;
621  binary = getVal(bitArray, ibit, 3);
622  if(hit[blk]) pos[blk] += (binary & 0x07);
623  ibit += 3;
624 
625  // TRIG2
626  // PS0 PS1 PS2 PS3 PS4 HIT
627  blk=2;
628  binary = getVal(bitArray, ibit, 6);
629  pos[blk] = 0;
630  hit[blk] = ((binary & 0x20) !=0);
631  // position
632  if(hit[blk]) pos[blk] = (binary & 0x1F);
633 
634 }
635 
636 void Muon::TgcSlbDataHelper::getLPTforTripletStrip(const bool * bitArray,
637  bool hit[],
638  int pos[]) const
639 {
640  // 8 x (5bits of TRIG datat)
641  // PS0 PS1 PS2 PS3 HIT
642 
643  size_t ibit=0;
644  for(int blk=0; blk<N_LPT_TS; blk++) {
645  uint32_t binary= getVal(bitArray, ibit, 5);
646  pos[blk] = 0;
647  hit[blk] = ((binary & 0x10) !=0);
648  // position
649  if(hit[blk]) pos[blk] = (binary & 0x0F);
650  ibit += 5;
651  }
652 }
653 
654 void Muon::TgcSlbDataHelper::getLPTforInner(const bool * bitArray,
655  bool hit[]) const
656 {
657  // 2 x (4bits of TRIG data)
658  // TRIG3 TRIG2 TRIG1 TRIG0
659  // https://twiki.cern.ch/twiki/pub/Main/TgcDocument/celladdress2_asic_rev2.pdf
660 
661  size_t ibit=0;
662  for(int blk=0; blk<N_LPT_I; blk++) {
663  uint32_t binary= getVal(bitArray, ibit, 1);
664  hit[blk] = (binary & 0x1);
665  ibit += 1;
666  }
667 }
668 
669 void Muon::TgcSlbDataHelper::getSL_F(const bool * bitArray,
670  bool& cand3plus,
671  bool hit[],
672  bool muplus[],
673  uint16_t pt[],
674  bool overlap[],
675  uint16_t roi[]) const
676 {
677  // 32bits of TRIG data to MuCTPI
678 
679  size_t ibit;
680  uint32_t binary;
681 
682  // clear results
683  for(size_t icand=0;icand <2 ; icand ++) {
684  hit[icand] = false;
685  muplus[icand] = false;
686  pt[icand] = 7;
687  overlap[icand] = false;
688  roi[icand] = 0;
689  }
690  cand3plus = false;
691 
692 
693  // Morethan2: bit 199
694  cand3plus = (*(bitArray+199));
695 
696  //1st Candidate
697  // PT1<0:2> : bit 180 -178
698  ibit =178;
699  binary = getVal(bitArray, ibit, 3);
700  pt[0] = binary;
701 
702  // check hit or not
703  // NOHIT: pT ==7 or pT==0
704  hit[0] = (binary !=7) && (binary != 0);
705 
706  if(hit[0]) {
707  // Charge1 : bit 169
708  muplus[0] = (*(bitArray + 169));
709 
710  // ROI1<0:5> : bit 198 -193
711  ibit = 193;
712  binary = getVal(bitArray, ibit, 6);
713  roi[0] = binary;
714  }
715 
716  // 2nd candidate
717  // PT2<0:2> : bit 177 -175
718  ibit = 175;
719  binary = getVal(bitArray, ibit, 3);
720  pt[1] = binary;
721 
722  // check hit or not
723  // NOHIT: pT ==7 or pT==0
724  hit[1] = (binary !=7) && (binary != 0);
725  if(hit[1]) {
726  // Charge2 : bit 168
727  muplus[1] = (*(bitArray + 168));
728 
729  // ROI2<0:5> : bit 189 -184
730  ibit =184;
731  binary = getVal(bitArray, ibit, 6);
732  roi[1] = binary;
733  }
734 
735 }
736 
737 void Muon::TgcSlbDataHelper::getSL_E(const bool * bitArray,
738  bool& cand3plus,
739  bool hit[],
740  bool muplus[],
741  uint16_t pt[],
742  bool overlap[],
743  uint16_t roi[]) const
744 {
745  // 32bits of TRIG data to MuCTPI
746 
747  size_t ibit;
748  uint32_t binary;
749 
750  // clear results
751  for(size_t icand=0;icand <2 ; icand ++) {
752  hit[icand] = false;
753  muplus[icand] = false;
754  pt[icand] = 7;
755  overlap[icand] = false;
756  roi[icand] = 0;
757  }
758  cand3plus = false;
759 
760  // Morethan2: bit 199
761  cand3plus = (*(bitArray+199));
762 
763  //1st Candidate
764  // PT1<0:2> : bit 180 -178
765  ibit =178;
766  binary = getVal(bitArray, ibit, 3);
767  pt[0] = binary;
768 
769  // check hit or not
770  // NOHIT: pT ==7 or pT==0
771  hit[0] = (binary !=7) && (binary != 0);
772 
773  if(hit[0]) {
774  // Charge1 : bit 169
775  muplus[0] = (*(bitArray + 169));
776 
777  // ROI1<0:7> : bit 198 -191
778  ibit =191;
779  binary = getVal(bitArray, ibit, 8);
780  roi[0] = binary;
781  }
782 
783  // 2nd candidate
784  // PT2<0:2> : bit 177 -175
785  ibit =175;
786  binary = getVal(bitArray, ibit, 3);
787  pt[1] = binary;
788 
789  // check hit or not
790  // NOHIT: pT ==7 or pT==0
791  hit[1] = (binary !=7) && (binary != 0);
792 
793  if(hit[1]) {
794  // Charge2 : bit 168
795  muplus[1] = (*(bitArray + 168));
796 
797  // ROI2<0:7> : bit 189 -182
798  ibit =182;
799  binary = getVal(bitArray, ibit, 8);
800  roi[1] = binary;
801  }
802 
803 }
804 
805 void Muon::TgcSlbDataHelper::getHPT_F(const bool * bitArray,
806  bool hit[],
807  bool strip[],
808  uint16_t chip[],
809  uint16_t index[],
810  bool hipt[],
811  uint16_t hitId[],
812  uint16_t pos[],
813  int16_t delta[]) const
814 {
815  int16_t dR;
816  bool sign;
817  size_t ibit;
818  int width;
819  size_t ichip;
820 
821  size_t icand =0;
822 
823  // chip 0 for wire : bit 159 ..140
824  // 1st hit :159-150, 2nd hit :149-140
825  // dR<0:3>, Sign, H/L, Pos, ID<0:2>
826  ichip = 0;
827  ibit = 160; // start position
828  for(size_t idx = 0; idx <2; ++idx) {
829  chip[icand] = ichip;
830  strip[icand] = false;
831  index[icand] = 1 - idx;
832  // dR
833  width = 4;
834  ibit -= width;
835  dR = getVal(bitArray, ibit, width);
836  //sign
837  width = 1;
838  ibit -= width;
839  sign = *(bitArray+ibit);
840  // calculate delta with sign
841  if(sign) {
842  hit[icand] = true;
843  delta[icand] = dR;
844  } else {
845  if(dR==0) {
846  hit[icand] = false;
847  delta[icand] = 0;
848  } else {
849  hit[icand] = true;
850  delta[icand] = -dR;
851  }
852  }
853 
854  // H/L
855  width = 1;
856  ibit -= width;
857  hipt[icand] = *(bitArray + ibit);
858 
859  // pos
860  width = 1;
861  ibit -= width;
862  pos[icand] = getVal(bitArray, ibit, width);
863 
864  // Id
865  width = 3;
866  ibit -=width;
867  hitId[icand] = getVal(bitArray, ibit, width);
868 
869  icand +=1;
870  }
871 
872  // chip 1 for wire : bit 135 ..120
873  // 1st hit :135-128, 2nd hit :127-120
874  // dR<0:3>, Sign, H/L, Pos, ID<0>
875  ichip=1;
876  ibit = 136; //start position
877  for(size_t idx = 0; idx <2; ++idx) {
878  chip[icand] = ichip;
879  strip[icand] = false;
880  index[icand] = 1 - idx;
881  // dR
882  width = 4;
883  ibit -= width;
884  dR = getVal(bitArray, ibit, width);
885  //sign
886  width = 1;
887  ibit -= width;
888  sign = *(bitArray+ibit);
889  // calculate delta with sign
890  if(sign) {
891  hit[icand] = true;
892  delta[icand] = dR;
893  } else {
894  if(dR==0) {
895  hit[icand] = false;
896  delta[icand] = 0;
897  } else {
898  hit[icand] = true;
899  delta[icand] = -dR;
900  }
901  }
902 
903  // H/L
904  width = 1;
905  ibit -= width;
906  hipt[icand] = *(bitArray + ibit);
907 
908  // pos
909  width = 1;
910  ibit -= width;
911  pos[icand] = getVal(bitArray, ibit, width);
912 
913  // Id
914  width = 1;
915  ibit -=width;
916  hitId[icand] = getVal(bitArray, ibit, width);
917  if(hitId[icand] == 0 && hit[icand]) hitId[icand] = 2;
918 
919  icand +=1;
920  }
921 
922  // chip 0 for strip : bit 119 ..104
923  // 1st hit :119-113, 2nd hit :111-105
924  // dPhi<0:2>, Sign, H/L, Pos, ID<0>
925  int16_t dPhi;
926  ichip = 0; // chip#0 for strip
927  ibit = 120;
928  for(size_t idx = 0; idx <2; ++idx) {
929  chip[icand] = ichip;
930  strip[icand] = true;
931  index[icand] = 1 - idx;
932 
933  // dPhi
934  width = 3;
935  ibit -= width;
936  dPhi = getVal(bitArray, ibit, width);
937  //sign
938  width = 1;
939  ibit -= width;
940  sign = *(bitArray+ibit);
941  // calculate delta with sign
942  if(sign) {
943  hit[icand] = true;
944  delta[icand] = dPhi;
945  } else {
946  if(dPhi ==0) {
947  hit[icand] = false;
948  delta[icand] = 0;
949  } else {
950  hit[icand] = true;
951  delta[icand] = -dPhi;
952  }
953  }
954 
955  // H/L
956  width = 1;
957  ibit -= width;
958  hipt[icand] = *(bitArray + ibit);
959 
960  // pos
961  width = 1;
962  ibit -= width;
963  pos[icand] = getVal(bitArray, ibit, width);
964 
965  // Id
966  // Only HitId<0> is sent
967  width = 1;
968  ibit -=width;
969  hitId[icand] = getVal(bitArray, ibit, width);
970  if(hitId[icand] == 0 && hit[icand]) hitId[icand] = 2;
971 
972  // dummy bit
973  ibit -= 1;
974 
975  icand += 1;
976  }
977 
978 }
979 
980 void Muon::TgcSlbDataHelper::getHPT_E(const bool * bitArray,
981  bool hit[],
982  bool strip[],
983  uint16_t chip[],
984  uint16_t index[],
985  bool hipt[],
986  uint16_t hitId[],
987  uint16_t pos[],
988  int16_t delta[]) const
989 {
990  int16_t dR;
991  bool sign;
992  size_t ibit;
993  int width;
994  size_t ichip;
995 
996  size_t icand =0;
997 
998  // chip 0 for wire : bit 159 ..152
999  // 1st hit :159-153
1000  // dR<0:3>, Sign, H/L, Pos
1001  ichip = 0;
1002  ibit = 160; // start position
1003 
1004  chip[icand] = ichip;
1005  index[icand] = 0; // only 1 hit in chip 0
1006  strip[icand] = false;
1007 
1008  // dR : bit 159-156
1009  width = 4;
1010  ibit -= width;
1011  dR = getVal(bitArray, ibit, width);
1012  //sign : bit 155
1013  width = 1;
1014  ibit -= width;
1015  sign = *(bitArray+ibit);
1016  // calculate delta with sign
1017  if(sign) {
1018  hit[icand] = true;
1019  delta[icand] = dR;
1020  } else {
1021  if(dR==0) {
1022  hit[icand] = false;
1023  delta[icand] = 0;
1024  } else {
1025  hit[icand] = true;
1026  delta[icand] = -dR;
1027  }
1028  }
1029 
1030  // H/L : bit 154
1031  width = 1;
1032  ibit -= width;
1033  hipt[icand] = *(bitArray + ibit);
1034 
1035  // pos : bit 153
1036  width = 1;
1037  ibit -= width;
1038  pos[icand] = getVal(bitArray, ibit, width);
1039 
1040  // Id
1041  // Id is set to 1
1042  if(hit[icand]) hitId[icand] = 1;
1043 
1044  icand +=1;
1045 
1046  // chip 1, 2, 3 for Wire
1047  // chip 1 : 1st hit :151-142, 2nd hit :141-132
1048  // chip 2 : 1st hit :131-122, 2nd hit :121-112
1049  // chip 3 : 1st hit :111-102, 2nd hit :101- 92
1050  // dR<0:3>, Sign, H/L, Pos, ID<0:2>
1051  ibit = 152; // start position
1052 
1053  for(size_t ichip=1; ichip<=3; ++ichip) {
1054  for(size_t idx = 0; idx <2; ++idx) {
1055  chip[icand] = ichip;
1056  strip[icand] = false;
1057  index[icand] = 1 - idx;
1058  // dR
1059  width = 4;
1060  ibit -= width;
1061  dR = getVal(bitArray, ibit, width);
1062  //sign
1063  width = 1;
1064  ibit -= width;
1065  sign = *(bitArray+ibit);
1066  // calculate delta with sign
1067  if(sign) {
1068  hit[icand] = true;
1069  delta[icand] = dR;
1070  } else {
1071  if(dR==0) {
1072  hit[icand] = false;
1073  delta[icand] = 0;
1074  } else {
1075  hit[icand] = true;
1076  delta[icand] = -dR;
1077  }
1078  }
1079 
1080  // H/L
1081  width = 1;
1082  ibit -= width;
1083  hipt[icand] = *(bitArray + ibit);
1084 
1085  // pos
1086  width = 1;
1087  ibit -= width;
1088  pos[icand] = getVal(bitArray, ibit, width);
1089 
1090  // Id
1091  width = 3;
1092  ibit -=width;
1093  hitId[icand] = getVal(bitArray, ibit, width);
1094 
1095  icand +=1;
1096  }
1097  }
1098 
1099  // chip 0,1 for strip
1100  // chip 0 : 1st hit : 87-79, 2nd hit :78-70
1101  // dPhi<0:2>, Sign, H/L, Pos, ID<0:2>
1102  // chip 1 : 1st hit : 63-56, 2nd hit :55-48
1103  // dPhi<0:2>, Sign, H/L, Pos, ID<0>, ID<2>
1104 
1105  int16_t dPhi;
1106  ibit = 88; // chip0 start position
1107  for(size_t ichip=0; ichip<=1; ++ichip) {
1108  if(ichip==1) ibit = 64; // chip1 start position
1109 
1110  for(size_t idx = 0; idx < 2; ++idx) {
1111  chip[icand] = ichip;
1112  strip[icand] = true;
1113  index[icand] = 1 - idx;
1114 
1115  // dPhi
1116  width = 3;
1117  ibit -= width;
1118  dPhi = getVal(bitArray, ibit, width);
1119  //sign
1120  width = 1;
1121  ibit -= width;
1122  sign = *(bitArray+ibit);
1123  // calculate delta with sign
1124  if(sign) {
1125  hit[icand] = true;
1126  delta[icand] = dPhi;
1127  } else {
1128  if(dPhi==0) {
1129  hit[icand] = false;
1130  delta[icand] = 0;
1131  } else {
1132  hit[icand] = true;
1133  delta[icand] = -dPhi;
1134  }
1135  }
1136 
1137  // H/L
1138  width = 1;
1139  ibit -= width;
1140  hipt[icand] = *(bitArray + ibit);
1141 
1142  // pos
1143  width = 1;
1144  ibit -= width;
1145  pos[icand] = getVal(bitArray, ibit, width);
1146 
1147  // Id
1148  if(ichip==0) {
1149  // chip0
1150  width = 3;
1151  ibit -= width;
1152  hitId[icand] = getVal(bitArray, ibit, width);
1153 
1154  } else {
1155  // chip 1
1156  // 2bit : hitId<1>,hitId<0>
1157  width = 2;
1158  ibit -= width;
1159  hitId[icand] = 0;
1160  if(hit[icand]) {
1161  hitId[icand] = getVal(bitArray, ibit, width);
1162 
1163  // duplicate hit for T5 and T6
1164  // because of bug in strip endcap HPT
1165  chip[icand+1] = ichip;
1166  strip[icand+1] = true;
1167  index[icand+1] = 1 - idx;
1168  hit[icand+1] = true;
1169  delta[icand+1] = delta[icand];
1170  pos[icand+1] = pos[icand];
1171  hitId[icand+1] = hitId[icand] + 4;
1172  hipt[icand+1] = hipt[icand];
1173  } else {
1174  // fill no HIT
1175  chip[icand+1] = ichip;
1176  strip[icand+1] = true;
1177  index[icand+1] = 1 - idx;
1178  hit[icand+1] = false;
1179  delta[icand+1] = 0;
1180  pos[icand+1] = 0;
1181  hitId[icand+1] = 0;
1182  hipt[icand+1] = 0;
1183  }
1184  icand++;
1185  }
1186 
1187  icand += 1;
1188  }
1189  }
1190 
1191 }
1192 
1193 // check consistencies of HPT output
1194 bool Muon::TgcSlbDataHelper::isValid_HPT(bool hit,
1195  bool strip,
1196  uint16_t , //chip
1197  uint16_t , //index
1198  bool hipt,
1199  uint16_t hitId,
1200  uint16_t , //pos
1201  int16_t delta)
1202 {
1203  bool isOK = true;
1204 
1205  // check hitId
1206  if(hit) {
1207  // check hitId
1208  isOK = (hitId !=0) && (hitId !=7);
1209  // check delta
1210  if(!hipt || strip) {
1211  isOK = isOK && (abs(delta)<8);
1212  }
1213  } else {
1214  // check hitId
1215  isOK = (hitId==0);
1216  }
1217 
1218  return isOK;
1219 }
1220 
1221 uint16_t Muon::TgcSlbDataHelper::getVal(const bool* bitArray, size_t start, size_t width)
1222 {
1223  // utility function to get a value of
1224  // bitArray[ start , start + width -1]
1225  // start : MSB
1226  // start + width -1 : LSB
1227  uint16_t binary=0;
1228  size_t ibit = start+width-1;
1229  for(size_t i= 0; i<width; ++i) {
1230  if(bitArray[ibit]) {
1231  binary += (1<<i);
1232  }
1233  ibit -=1;
1234  }
1235  return binary;
1236 }
cscHashToHuman.getSector
def getSector(phi, tech)
Definition: cscHashToHuman.py:19
Muon::TgcSlbData::getSbLoc
uint16_t getSbLoc() const
Get sbLoc.
Definition: TgcSlbData.cxx:210
TgcRawData::SLB_TYPE_DOUBLET_STRIP
@ SLB_TYPE_DOUBLET_STRIP
Definition: TgcRawData.h:33
Muon::TgcSlbData::getSswId
uint16_t getSswId() const
Get sswId.
Definition: TgcSlbData.cxx:202
Muon::TgcSlbData::BC_PREVIOUS
@ BC_PREVIOUS
Definition: TgcSlbData.h:27
TgcRawData.h
xAOD::uint32_t
setEventNumber uint32_t
Definition: EventInfo_v1.cxx:127
index
Definition: index.py:1
Muon::TgcSlbDataHelper::getSL_E
void getSL_E(const bool *bitArray, bool &cand3plus, bool hit[], bool muplus[], uint16_t pt[], bool overlap[], uint16_t roi[]) const
Decode Sector Logic coincidence information for endcap region from bit array.
Definition: TgcSlbDataHelper.cxx:737
Muon::TgcSlbDataHelper::isAdjacent
static bool isAdjacent(int ibit)
Adjacent or not.
Definition: TgcSlbDataHelper.cxx:534
mergePhysValFiles.start
start
Definition: DataQuality/DataQualityUtils/scripts/mergePhysValFiles.py:14
TgcSlbData.h
Muon::TgcSlbDataHelper::getVal
static uint16_t getVal(const bool *bitArray, std::size_t start, std::size_t width)
Get a value in a range of a bitArray.
Definition: TgcSlbDataHelper.cxx:1221
Muon::TgcSlbData::BITMAP_SIZE
@ BITMAP_SIZE
Definition: TgcSlbData.h:31
Muon::TgcSlbDataHelper::convertToCoincidences
void convertToCoincidences(uint16_t subDetectorId, uint16_t rodId, const TgcSlbData *slb, std::vector< TgcRawData * > &vChannel) const
Convert to coincidences.
Definition: TgcSlbDataHelper.cxx:98
test_pyathena.pt
pt
Definition: test_pyathena.py:11
Muon::TgcSlbData::SLB_SL_F
@ SLB_SL_F
Definition: TgcSlbData.h:42
Muon::TgcSlbData::setType
void setType(int vType)
Set SLB type.
Definition: TgcSlbData.cxx:140
athena.value
value
Definition: athena.py:124
TgcRawData::subDetectorId
uint16_t subDetectorId() const
Definition: TgcRawData.h:264
Muon::TgcSlbData::SLB_NONE
@ SLB_NONE
Definition: TgcSlbData.h:44
Muon::TgcSlbData::getBcId
uint16_t getBcId() const
Get bcId.
Definition: TgcSlbData.cxx:194
xAOD::int16_t
setScaleOne setStatusOne setSaturated int16_t
Definition: gFexGlobalRoI_v1.cxx:55
TgcRawData::SLB_TYPE_TRIPLET_WIRE
@ SLB_TYPE_TRIPLET_WIRE
Definition: TgcRawData.h:34
Muon::TgcSlbData::SLB_LPT_D_W
@ SLB_LPT_D_W
Definition: TgcSlbData.h:36
Muon::TgcSlbDataHelper::isValid_HPT
static bool isValid_HPT(bool hit, bool strip, uint16_t chip, uint16_t index, bool hipt, uint16_t hitId, uint16_t pos, int16_t delta)
Check if it is valid high-pT coincidence or not.
Definition: TgcSlbDataHelper.cxx:1194
TgcRawData::rodId
uint16_t rodId() const
Definition: TgcRawData.h:268
TgcRawData::subMatrix
uint16_t subMatrix() const
Definition: TgcRawData.h:329
Muon::TgcSlbDataHelper::getHPT_E
void getHPT_E(const bool *bitArray, bool hit[], bool strip[], uint16_t chip[], uint16_t index[], bool hipt[], uint16_t hitId[], uint16_t sub[], int16_t delta[]) const
Decode high-pT coincidence information for endcap region from bit array.
Definition: TgcSlbDataHelper.cxx:980
Muon::TgcSlbData::SLB_LPT_I_S
@ SLB_LPT_I_S
Definition: TgcSlbData.h:41
Muon::TgcSlbData::SLB_LPT_T_S
@ SLB_LPT_T_S
Definition: TgcSlbData.h:39
xAOD::uint16_t
setWord1 uint16_t
Definition: eFexEMRoI_v1.cxx:88
TgcRawData::SLB_TYPE_UNKNOWN
@ SLB_TYPE_UNKNOWN
Definition: TgcRawData.h:38
lumiFormat.i
int i
Definition: lumiFormat.py:85
Muon::TgcSlbData::SLB_LPT_T_W
@ SLB_LPT_T_W
Definition: TgcSlbData.h:38
ret
T ret(T t)
Definition: rootspy.cxx:260
ATH_MSG_DEBUG
#define ATH_MSG_DEBUG(x)
Definition: AthMsgStreamMacros.h:29
TauGNNUtils::Variables::Track::dPhi
bool dPhi(const xAOD::TauJet &tau, const xAOD::TauTrack &track, double &out)
Definition: TauGNNUtils.cxx:538
Muon::TgcSlbData::SLB_SL_E
@ SLB_SL_E
Definition: TgcSlbData.h:43
Muon::TgcSlbData::getL1Id
uint32_t getL1Id() const
Get l1Id.
Definition: TgcSlbData.cxx:198
sign
int sign(int a)
Definition: TRT_StrawNeighbourSvc.h:127
AthMessaging
Class to provide easy MsgStream access and capabilities.
Definition: AthMessaging.h:55
TgcRawData::sswId
uint16_t sswId() const
Definition: TgcRawData.h:272
Muon::TgcSlbDataHelper::~TgcSlbDataHelper
virtual ~TgcSlbDataHelper(void)
Destructor.
Muon::TgcSlbData::SLB_LPT_I_W
@ SLB_LPT_I_W
Definition: TgcSlbData.h:40
Muon::TgcSlbData
Definition: TgcSlbData.h:22
TgcRawData::position
uint16_t position() const
Definition: TgcRawData.h:313
Muon::TgcSlbDataHelper::getSector
static uint16_t getSector(bool forward, uint16_t subDetectorId, uint16_t rodId, const TgcSlbData *slb)
Set sector for HpT/SL based on slbId.
Definition: TgcSlbDataHelper.cxx:547
Muon::TgcSlbData::getSlbId
uint16_t getSlbId() const
Get slbId.
Definition: TgcSlbData.cxx:206
TgcRawData::segment
uint16_t segment() const
Definition: TgcRawData.h:325
Muon::TgcSlbData::N_BC
@ N_BC
Definition: TgcSlbData.h:30
threshold
Definition: chainparser.cxx:74
TgcSlbDataHelper.h
python.LumiBlobConversion.pos
pos
Definition: LumiBlobConversion.py:18
Muon::TgcSlbDataHelper::convertToHits
void convertToHits(uint16_t subDetectorId, uint16_t rodId, const TgcSlbData *slb, std::vector< TgcRawData * > &vChannel) const
Convert to Hits.
Definition: TgcSlbDataHelper.cxx:30
TgcRawData::bcTag
uint16_t bcTag() const
Definition: TgcRawData.h:251
TgcRawData::slbId
uint16_t slbId() const
Definition: TgcRawData.h:276
Muon::TgcSlbData::SLB_LPT_D_S
@ SLB_LPT_D_S
Definition: TgcSlbData.h:37
Muon::TgcSlbDataHelper::getSL_F
void getSL_F(const bool *bitArray, bool &cand3plus, bool hit[], bool muplus[], uint16_t pt[], bool overlap[], uint16_t roi[]) const
Decode Sector Logic coincidence information for forward region from bit array.
Definition: TgcSlbDataHelper.cxx:669
Base_Fragment.width
width
Definition: Sherpa_i/share/common/Base_Fragment.py:59
Muon::TgcSlbData::getType
int getType() const
Get SLB type.
Definition: TgcSlbData.cxx:135
python.CaloScaleNoiseConfig.type
type
Definition: CaloScaleNoiseConfig.py:78
TgcRawData
An unit object of TGC ROD output.
Definition: TgcRawData.h:23
TgcRawData::slbType
SlbType slbType() const
Definition: TgcRawData.h:285
Muon::TgcSlbDataHelper::getLPTforDoublet
void getLPTforDoublet(const bool *bitArray, bool hit[], int delta[], int pos[]) const
Decode low-pT coincidence (tracklet) information for doublet from bit array.
Definition: TgcSlbDataHelper.cxx:562
TgcRawData::SLB_TYPE_INNER_STRIP
@ SLB_TYPE_INNER_STRIP
Definition: TgcRawData.h:37
LArNewCalib_DelayDump_OFC_Cali.idx
idx
Definition: LArNewCalib_DelayDump_OFC_Cali.py:69
Muon::TgcSlbDataHelper::getLPTforTripletWire
void getLPTforTripletWire(const bool *bitArray, bool hit[], int pos[]) const
Decode low-pT coincidence (tracklet) information for triplet wire from bit array.
Definition: TgcSlbDataHelper.cxx:593
Muon::TgcSlbDataHelper::getLPTforTripletStrip
void getLPTforTripletStrip(const bool *bitArray, bool hit[], int pos[]) const
Decode low-pT coincidence (tracklet) information for triplet strip from bit array.
Definition: TgcSlbDataHelper.cxx:636
Muon::TgcSlbDataHelper::TgcSlbDataHelper
TgcSlbDataHelper(void)
Constructor.
Definition: TgcSlbDataHelper.cxx:21
TgcRawData::SLB_TYPE_INNER_WIRE
@ SLB_TYPE_INNER_WIRE
Definition: TgcRawData.h:36
Muon::TgcSlbDataHelper::setType
static bool setType(uint16_t subDetectorId, uint16_t rodId, TgcSlbData *slb, int moduleType)
Set SLB Type based on sswId and moduleType.
Definition: TgcSlbDataHelper.cxx:471
veto
std::vector< std::string > veto
these patterns are anded
Definition: listroot.cxx:191
TgcRawData
Athena::TPCnvVers::Old Athena::TPCnvVers::Current Athena::TPCnvVers::Old Athena::TPCnvVers::Current Athena::TPCnvVers::Old Athena::TPCnvVers::Current Athena::TPCnvVers::Current Athena::TPCnvVers::Current Athena::TPCnvVers::Current Athena::TPCnvVers::Current TgcRawData
Definition: MuonEventAthenaPoolTPCnv.cxx:168
TgcRawData::SLB_TYPE_TRIPLET_STRIP
@ SLB_TYPE_TRIPLET_STRIP
Definition: TgcRawData.h:35
Muon::TgcSlbDataHelper::getHPT_F
void getHPT_F(const bool *bitArray, bool hit[], bool strip[], uint16_t chip[], uint16_t index[], bool hipt[], uint16_t hitId[], uint16_t sub[], int16_t delta[]) const
Decode high-pT coincidence information for forward region from bit array.
Definition: TgcSlbDataHelper.cxx:805
TgcRawData::SLB_TYPE_DOUBLET_WIRE
@ SLB_TYPE_DOUBLET_WIRE
Definition: TgcRawData.h:32
hipt
bool hipt
Definition: globals.cxx:29
Muon::TgcSlbData::getBitArray
const bool * getBitArray(const uint16_t bcTag) const
Get bitArray for a BC tag.
Definition: TgcSlbData.cxx:50
Muon::TgcSlbDataHelper::getLPTforInner
void getLPTforInner(const bool *bitArray, bool hit[]) const
Decode low-pT coincidence (tracklet) information for inner from bit array.
Definition: TgcSlbDataHelper.cxx:654
TgcRawData::SlbType
SlbType
Definition: TgcRawData.h:31
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