ATLAS Offline Software
MuFastStationFitter.cxx
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1 /*
2  Copyright (C) 2002-2025 CERN for the benefit of the ATLAS collaboration
3 */
4 
5 #include "MuFastStationFitter.h"
6 #include "xAODTrigMuon/L2StandAloneMuonAuxContainer.h"
7 #include <math.h>
8 
9 #include "TMath.h"
10 
11 #include "xAODTrigMuon/TrigMuonDefs.h"
12 
13 #include "AthenaBaseComps/AthMsgStreamMacros.h"
14 
15 namespace{
16  constexpr double ZERO_LIMIT = 1.e-6;
17 }
18 
19 
20 // --------------------------------------------------------------------------------
21 // --------------------------------------------------------------------------------
22 
23 TrigL2MuonSA::MuFastStationFitter::MuFastStationFitter(const std::string& type,
24  const std::string& name,
25  const IInterface* parent):
26  AthAlgTool(type,name,parent)
27 {
28 }
29 
30 // --------------------------------------------------------------------------------
31 // --------------------------------------------------------------------------------
32 
33 StatusCode TrigL2MuonSA::MuFastStationFitter::initialize()
34 {
35  // BackExtrapolator services
36  ATH_CHECK( m_backExtrapolator.retrieve() );
37 
38  ATH_CHECK( m_alphaBetaEstimate.retrieve() );
39  ATH_MSG_DEBUG("Retrieved service " << m_alphaBetaEstimate);
40 
41  ATH_CHECK( m_ptFromAlphaBeta.retrieve() );
42  ATH_MSG_DEBUG("Retrieved service " << m_ptFromAlphaBeta);
43 
44  ATH_CHECK( m_nswStationFitter.retrieve(DisableTool{m_nswStationFitter.empty()}) );
45 
46  return StatusCode::SUCCESS;
47 }
48 
49 // --------------------------------------------------------------------------------
50 // --------------------------------------------------------------------------------
51 StatusCode TrigL2MuonSA::MuFastStationFitter::setMCFlag(bool use_mcLUT)
52 {
53  m_use_mcLUT = use_mcLUT;
54 
55  if (m_use_mcLUT) {
56  const ServiceHandle<TrigL2MuonSA::PtEndcapLUTSvc> ptEndcapLUTSvc("PtEndcapLUTSvc_MC", name());
57  if ( ptEndcapLUTSvc.retrieve().isFailure() ) {
58  ATH_MSG_ERROR("Could not find PtEndcaplLUTSvc");
59  return StatusCode::FAILURE;
60  }
61  // Calculation of alpha and beta
62  m_alphaBetaEstimate->setMCFlag(m_use_mcLUT, &*ptEndcapLUTSvc);
63  // conversion: alpha, beta -> pT
64  m_ptFromAlphaBeta->setMCFlag(m_use_mcLUT, &*ptEndcapLUTSvc);
65  } else {
66  const ServiceHandle<TrigL2MuonSA::PtEndcapLUTSvc> ptEndcapLUTSvc("PtEndcapLUTSvc", name());
67  if ( ptEndcapLUTSvc.retrieve().isFailure() ) {
68  ATH_MSG_ERROR("Could not find PtEndcaplLUTSvc");
69  return StatusCode::FAILURE;
70  }
71  // Calculation of alpha and beta
72  m_alphaBetaEstimate->setMCFlag(m_use_mcLUT, &*ptEndcapLUTSvc);
73  // conversion: alpha, beta -> pT
74  m_ptFromAlphaBeta->setMCFlag(m_use_mcLUT, &*ptEndcapLUTSvc);
75  }
76 
77  ATH_MSG_DEBUG( "Completed tp set " << (m_use_mcLUT?"MC":"not MC") << " flag" );
78 
79  return StatusCode::SUCCESS;
80 }
81 
82 //--------------------------------------------------------------------------------
83 // --------------------------------------------------------------------------------
84 
85 StatusCode TrigL2MuonSA::MuFastStationFitter::findSuperPoints(const TrigL2MuonSA::MuonRoad& muonRoad,
86  TrigL2MuonSA::RpcFitResult& rpcFitResult,
87  std::vector<TrigL2MuonSA::TrackPattern>& v_trackPatterns) const
88 {
89 
90  //
91  for (TrigL2MuonSA::TrackPattern& itTrack : v_trackPatterns) { // loop for track candidates
92 
93  if (!rpcFitResult.isSuccess and std::abs(muonRoad.extFtfMiddlePhi) > ZERO_LIMIT) { //inside-out
94  itTrack.phiMSDir = (std::abs(std::cos(muonRoad.extFtfMiddlePhi)) > ZERO_LIMIT)? std::tan(muonRoad.extFtfMiddlePhi): 0;
95  }
96  else{
97  itTrack.phiMSDir = (std::abs(std::cos(rpcFitResult.phi)) > ZERO_LIMIT)? std::tan(rpcFitResult.phi): 0;
98  }
99  itTrack.isRpcFailure = !rpcFitResult.isSuccess;
100 
101  ATH_CHECK( superPointFitter(itTrack) );
102  }
103  //
104 
105  return StatusCode::SUCCESS;
106 }
107 
108 // --------------------------------------------------------------------------------
109 // --------------------------------------------------------------------------------
110 
111 StatusCode TrigL2MuonSA::MuFastStationFitter::findSuperPointsSimple(const TrigRoiDescriptor* p_roids,
112  const TrigL2MuonSA::MuonRoad& muonRoad,
113  TrigL2MuonSA::TgcFitResult& tgcFitResult,
114  std::vector<TrigL2MuonSA::TrackPattern>& v_trackPatterns,
115  TrigL2MuonSA::StgcHits& stgcHits,
116  TrigL2MuonSA::MmHits& mmHits) const
117 {
118 
119  for (TrigL2MuonSA::TrackPattern& itTrack : v_trackPatterns) { // loop for track candidates
120 
121  if (tgcFitResult.isSuccess) {
122  itTrack.phiMSDir = tgcFitResult.phiDir;
123  } else {
124  if ( std::abs(muonRoad.extFtfMiddlePhi) > ZERO_LIMIT ) { //insideout
125  itTrack.phiMSDir = (std::abs(std::cos(muonRoad.extFtfMiddlePhi)) > ZERO_LIMIT)? std::tan(muonRoad.extFtfMiddlePhi): 0;
126  } else {
127  itTrack.phiMSDir = (std::abs(std::cos(p_roids->phi())) > ZERO_LIMIT)? std::tan(p_roids->phi()): 0;
128  }
129  itTrack.isTgcFailure = true;
130  }
131 
132  ATH_CHECK( superPointFitter(itTrack) );
133 
134  if(!m_nswStationFitter.empty())
135  ATH_CHECK( m_nswStationFitter->superPointFitter(p_roids, itTrack, stgcHits, mmHits) );
136  }
137  //
138  return StatusCode::SUCCESS;
139 }
140 
141 // --------------------------------------------------------------------------------
142 // --------------------------------------------------------------------------------
143 
144 StatusCode TrigL2MuonSA::MuFastStationFitter::findSuperPoints(const TrigRoiDescriptor* p_roids,
145  const TrigL2MuonSA::MuonRoad& muonRoad,
146  TrigL2MuonSA::TgcFitResult& tgcFitResult,
147  std::vector<TrigL2MuonSA::TrackPattern>& v_trackPatterns,
148  TrigL2MuonSA::StgcHits& stgcHits,
149  TrigL2MuonSA::MmHits& mmHits) const
150 {
151 
152  for (TrigL2MuonSA::TrackPattern& itTrack : v_trackPatterns) { // loop for track candidates
153 
154  if (tgcFitResult.isSuccess) {
155  itTrack.phiMSDir = tgcFitResult.phiDir;
156  } else {
157  itTrack.phiMSDir = (std::abs(std::cos(p_roids->phi())) > ZERO_LIMIT)? std::tan(p_roids->phi()): 0;
158  itTrack.isTgcFailure = true;
159  }
160 
161  ATH_CHECK( superPointFitter(itTrack, muonRoad) );
162 
163  makeReferenceLine(itTrack, muonRoad);
164  ATH_CHECK( m_alphaBetaEstimate->setAlphaBeta(p_roids, tgcFitResult, itTrack, muonRoad) );
165 
166  if ( itTrack.etaBin < -1 ) {
167  itTrack.etaBin = (int)((std::abs(muonRoad.extFtfMiddleEta)-1.)/0.05); // eta binning is the same as AlphaBetaEstimate
168  if(itTrack.etaBin <= -1) itTrack.etaBin = 0;
169  }
170 
171  ATH_CHECK( m_ptFromAlphaBeta->setPt(itTrack,tgcFitResult) );
172 
173  double exInnerA = fromAlphaPtToInn(tgcFitResult,itTrack);
174  double bw = muonRoad.bw[3][0];
175  double aw = muonRoad.aw[3][0];
176  if(std::abs(exInnerA) > ZERO_LIMIT) updateInnSP(itTrack, exInnerA, aw,bw);
177 
178  if(!m_nswStationFitter.empty())
179  ATH_CHECK( m_nswStationFitter->superPointFitter(p_roids, itTrack, stgcHits, mmHits) );
180 
181  }
182  //
183  return StatusCode::SUCCESS;
184 }
185 
186 // --------------------------------------------------------------------------------
187 
188 // --------------------------------------------------------------------------------
189 
190 StatusCode TrigL2MuonSA::MuFastStationFitter::superPointFitter(TrigL2MuonSA::TrackPattern& trackPattern) const
191 {
192  const unsigned int MAX_STATION = 10; // no BMG(Backup=10)
193  const float SIGMA = 0.0080;
194  const float DRIFTSPACE_LIMIT = 16.;
195  const int MIN_MDT_FOR_FIT = 3;
196 
197  for (unsigned int chamber=0; chamber<MAX_STATION; chamber++) { // loop for station
198  if (chamber==9) continue;//skip BME chamber
199 
200  const TrigL2MuonSA::MdtHits& mdtSegment {trackPattern.mdtSegments[chamber]};
201  if (mdtSegment.size()==0) continue;
202 
203  int count {0};
204  float sigma {0.}, phim {0.}, Xor {0.}, Yor {0.}, Ymid {0.};
205  TrigL2MuonSA::PBFitResult pbFitResult;
206 
207  for (const TrigL2MuonSA::MdtHitData& itMdtHit : mdtSegment) { // loop for MDT hit
208 
209  if (count >= NMEAMX) continue;
210  if (itMdtHit.isOutlier) continue;
211 
212  if (!count) {
213  Ymid = itMdtHit.cYmid;
214  }
215  if (!Xor) {
216  Xor = itMdtHit.R;
217  Yor = itMdtHit.Z;
218  }
219 
220  phim = itMdtHit.cPhip;
221  sigma = (std::abs(itMdtHit.DriftSigma) > ZERO_LIMIT)? itMdtHit.DriftSigma: SIGMA;
222 
223  if ( std::abs(itMdtHit.DriftSpace) > ZERO_LIMIT &&
224  std::abs(itMdtHit.DriftSpace) < DRIFTSPACE_LIMIT &&
225  std::abs(itMdtHit.DriftTime) > ZERO_LIMIT ) {
226 
227  pbFitResult.XILIN[count] = itMdtHit.R - Xor;
228  pbFitResult.YILIN[count] = itMdtHit.Z - Yor;
229  pbFitResult.RILIN[count] = itMdtHit.DriftSpace;
230  pbFitResult.WILIN[count] = 1/(sigma*sigma);
231  pbFitResult.RESI[count] = 0.;
232 
233  count++;
234  }
235  } // end loop for MDT hits
236  pbFitResult.NPOI = count;
237 
238  ATH_MSG_DEBUG("... MDT hit used in fit #=" << pbFitResult.NPOI);
239  if(msgLevel(MSG::DEBUG)){
240  for(int i=0;i<pbFitResult.NPOI;i++) {
241  ATH_MSG_DEBUG("i/XILIN[i]/YILIN[i]/RILIN[i]/WILIN[i] = "
242  << i << "/" << pbFitResult.XILIN[i] << "/" << pbFitResult.YILIN[i]
243  << "/" << pbFitResult.RILIN[i] << "/" << pbFitResult.WILIN[i]);
244  }
245  }
246 
247  TrigL2MuonSA::SuperPoint& superPoint {trackPattern.superPoints[chamber]};
248  superPoint.Ndigi = pbFitResult.NPOI;
249  if (count >= MIN_MDT_FOR_FIT) {
250 
251  Evlfit(pbFitResult);
252 
253  superPoint.Npoint = pbFitResult.NPOI;
254 
255  if ((trackPattern.s_address == -1 and chamber != 0) or // Endcap
256  (trackPattern.s_address != -1 and chamber == 3)){
257 
258  if (std::abs(pbFitResult.ALIN) > ZERO_LIMIT) {
259  superPoint.Z = Ymid;
260  superPoint.R = (Ymid - Yor - pbFitResult.BLIN)/pbFitResult.ALIN + Xor;
261  superPoint.Alin = 1./pbFitResult.ALIN;
262  superPoint.Blin = -pbFitResult.BLIN/pbFitResult.ALIN;
263  }
264  }
265  else{ // Barrel
266  superPoint.R = Ymid;
267  superPoint.Z = pbFitResult.ALIN*(Ymid - Xor) + pbFitResult.BLIN + Yor;
268  superPoint.Alin = pbFitResult.ALIN;
269  superPoint.Blin = pbFitResult.BLIN;
270  }
271 
272  superPoint.Phim = phim;
273  superPoint.Xor = Xor;
274  superPoint.Yor = Yor;
275  superPoint.Chi2 = pbFitResult.CHI2;
276  superPoint.PChi2 = pbFitResult.PCHI2;
277  for(int i=0;i<pbFitResult.NPOI;i++) superPoint.Residual[i] = pbFitResult.RESI[i];
278  }
279 
280  ATH_MSG_DEBUG("... Superpoint chamber/s_address/count/R/Z/Alin/Blin/Phim/Xor/Yor/Chi2/PChi2="
281  << chamber << "/" << trackPattern.s_address << "/" << count << "/"
282  << superPoint.R << "/" << superPoint.Z << "/" << superPoint.Alin << "/"
283  << superPoint.Blin << "/" << superPoint.Phim << "/" << superPoint.Xor << "/"
284  << superPoint.Yor << "/" << superPoint.Chi2 << "/" << superPoint.PChi2);
285  } // end loop for stations
286 
287  return StatusCode::SUCCESS;
288 }
289 
290 // --------------------------------------------------------------------------------
291 //---------------------------------------------------------------------------------
292 StatusCode TrigL2MuonSA::MuFastStationFitter::superPointFitter(TrigL2MuonSA::TrackPattern& trackPattern,
293  const TrigL2MuonSA::MuonRoad& muonRoad) const
294 {
295  const unsigned int MAX_STATION = 10;
296  const float SIGMA = 0.0080;
297  const float DRIFTSPACE_LIMIT = 16.;
298  const int MIN_MDT_FOR_FIT = 3;
299 
300  for (unsigned int chamber=0; chamber<MAX_STATION; chamber++) { // loop for station
301  ATH_MSG_DEBUG(" superpoint fit station "<<chamber);
302 
303  if(chamber== 1 || chamber == 2 || chamber ==7 || chamber == 9) continue; // only loop for endcap Inner/Middle/Outer/EE/barrel inn
304 
305  TrigL2MuonSA::MdtHits& mdtSegment {trackPattern.mdtSegments[chamber]};
306  if (mdtSegment.size()==0) continue;
307 
308  TrigL2MuonSA::SuperPoint& superPoint {trackPattern.superPoints[chamber]};
309  TrigL2MuonSA::PBFitResult pbFitResult{};
310 
311  if (chamber==0 || chamber == 6 || chamber==8){
312  int count=0;
313  float sigma {0.}, phim {0.}, Xor {0.}, Yor {0.}, Ymid {0.};
314 
315  for (const TrigL2MuonSA::MdtHitData& itMdtHit : mdtSegment) { // loop for MDT hit
316 
317  if (count >= NMEAMX) continue;
318  if (itMdtHit.isOutlier) continue;
319 
320  superPoint.Ndigi++;
321  if (!count) {
322  Ymid = itMdtHit.cYmid;
323  }
324  if (!Xor) {
325  Xor = itMdtHit.R;
326  Yor = itMdtHit.Z;
327  }
328 
329  phim = itMdtHit.cPhip;
330  sigma = (std::abs(itMdtHit.DriftSigma) > ZERO_LIMIT)? itMdtHit.DriftSigma: SIGMA;
331 
332  if ( std::abs(itMdtHit.DriftSpace) > ZERO_LIMIT &&
333  std::abs(itMdtHit.DriftSpace) < DRIFTSPACE_LIMIT &&
334  std::abs(itMdtHit.DriftTime) > ZERO_LIMIT ) {
335 
336  pbFitResult.XILIN[count] = itMdtHit.R - Xor;
337  pbFitResult.YILIN[count] = itMdtHit.Z - Yor;
338  pbFitResult.RILIN[count] = itMdtHit.DriftSpace;
339  pbFitResult.WILIN[count] = 1/(sigma*sigma);
340  pbFitResult.RESI[count] = 0.;
341  count++;
342  pbFitResult.NPOI = count;
343  } else {
344  superPoint.Ndigi--;
345  }
346  } // end loop for MDT hits
347 
348  ATH_MSG_DEBUG("... MDT hit used in fit #=" << pbFitResult.NPOI);
349  for(int i=0;i<pbFitResult.NPOI;i++) {
350  ATH_MSG_DEBUG("i/XILIN[i]/YILIN[i]/RILIN[i]/WILIN[i] = "
351  << i << "/" << pbFitResult.XILIN[i] << "/" << pbFitResult.YILIN[i]
352  << "/" << pbFitResult.RILIN[i] << "/" << pbFitResult.WILIN[i]);
353  }
354  if (count >= MIN_MDT_FOR_FIT) {
355  Evlfit( pbFitResult);
356 
357  float bc = (Ymid - Xor);
358  float X = (pbFitResult.ALIN*bc)+pbFitResult.BLIN ;
359 
360  superPoint.Npoint = pbFitResult.NPOI;
361  if (trackPattern.s_address == -1) { // Endcap
362  if (std::abs(pbFitResult.ALIN) > ZERO_LIMIT) {
363  superPoint.Z = Ymid;
364  superPoint.R = (Ymid-Yor)/pbFitResult.ALIN - pbFitResult.BLIN/pbFitResult.ALIN + Xor;
365  superPoint.Alin = 1./pbFitResult.ALIN;
366  superPoint.Blin = -pbFitResult.BLIN/pbFitResult.ALIN;
367  if (chamber==0 || chamber==8){//endcap barrel inner or BEE
368  superPoint.R = bc + Xor;
369  superPoint.Z = X + Yor;
370  superPoint.Alin = pbFitResult.ALIN;
371  superPoint.Blin = pbFitResult.BLIN;
372  }
373  }
374  }
375  superPoint.Phim = phim;
376  superPoint.Xor = Xor;
377  superPoint.Yor = Yor;
378  superPoint.Chi2 = pbFitResult.CHI2;
379  superPoint.PChi2 = pbFitResult.PCHI2;
380  for(int i=0;i<pbFitResult.NPOI;i++) superPoint.Residual[i] = pbFitResult.RESI[i];
381 
382  }
383  ATH_MSG_DEBUG("...Special Superpoint chamber/s_address/count/R/Z/Alin/Blin/Phim/Xor/Yor/Chi2/PChi2="
384  << chamber << "/" << trackPattern.s_address << "/" << count << "/"
385  << superPoint.R << "/" << superPoint.Z << "/" << superPoint.Alin << "/"
386  << superPoint.Blin << "/" << superPoint.Phim << "/" << superPoint.Xor << "/"
387  << superPoint.Yor << "/" << superPoint.Chi2 << "/" << superPoint.PChi2);
388  continue;
389  }
390 
391  double aw = muonRoad.aw[chamber][0];
392  double bw = muonRoad.bw[chamber][0];
393  double nrWidth = 0.;
394  unsigned int sumN = 0;
395  //chamber=3/4/5 => Endcap Inner/Middle/Outer
396  if(chamber==3) {nrWidth = m_rwidth_Endcapinn_first;}
397  if(chamber==4) {nrWidth = m_rwidth_Endcapmid_first;}
398  if(chamber==5) {nrWidth = m_rwidth_Endcapout_first;}
399 
400  for (TrigL2MuonSA::MdtHitData& itMdtHit : mdtSegment) { // loop for MDT hit
401  if (std::abs(itMdtHit.DriftSpace) < m_mdt_driftspace_downlimit ||
402  std::abs(itMdtHit.DriftSpace) > m_mdt_driftspace_uplimit){
403  itMdtHit.isOutlier = 2;
404  continue;
405  }
406 
407  if(itMdtHit.isOutlier > 1)continue;
408  double Z = itMdtHit.Z;
409  double R = itMdtHit.R;
410  double nbw = aw*Z + bw;
411  if (R>(nbw-nrWidth) && R<(nbw+nrWidth)){
412  itMdtHit.isOutlier = 0;
413  sumN++;
414  }
415  else {
416  itMdtHit.isOutlier = 2;
417  continue;
418  }
419  }
420  if(sumN==0) continue;
421 
422  stationSPFit(mdtSegment, superPoint,pbFitResult, trackPattern.s_address,chamber,aw);
423 
424  } // end loop for stations
425 
426  return StatusCode::SUCCESS;
427 }
428 // --------------------------------------------------------------------------------
429 // --------------------------------------------------------------------------------
430 void TrigL2MuonSA::MuFastStationFitter::stationSPFit(TrigL2MuonSA::MdtHits& mdtSegment,
431  TrigL2MuonSA::SuperPoint& superPoint,
432  TrigL2MuonSA::PBFitResult& pbFitResult,int s_address, int i_station,double aw) const{
433 
434  TrigL2MuonSA::MdtHits::iterator itMdtHit;
435 
436  unsigned int i_layer_max = 0;
437  int count;
438  float Xor, Yor, sigma, phim=0;
439 
440  const unsigned int MAX_STATION = 8;
441  const float SIGMA = 0.0080;
442  const float DRIFTSPACE_LIMIT = 16.;
443  const int MIN_MDT_FOR_FIT = 3;
444 
445  const unsigned int MAX_LAYER = 12;
446 
447  unsigned int MdtLayerHits[MAX_STATION][MAX_LAYER];
448  std:: vector<unsigned int> MdtLayerHits_index[MAX_STATION][MAX_LAYER];
449 
450  for (unsigned int i_st=0; i_st<MAX_STATION; i_st++) {
451  for (unsigned int i_ly=0; i_ly<MAX_LAYER; i_ly++) {
452  MdtLayerHits[i_st][i_ly] = 0;
453  MdtLayerHits_index[i_st][i_ly].clear();
454  }
455  }
456 
457  float Chbest = 1.e25;
458  double avZ[8];
459  double avR[8];
460  double sumZ[8];
461  double sumR[8];
462  unsigned int sumN[8];
463  double nsWidth=0.;
464 
465  for (unsigned int i_st=0; i_st<8; i_st++) {
466  avZ[i_st] = 0.;
467  avR[i_st] = 0.;
468  sumZ[i_st] = 0.;
469  sumR[i_st] = 0.;
470  sumN[i_st] = 0.;
471  }
472 
473  for (unsigned int i_hit=0; i_hit<mdtSegment.size(); i_hit++){
474 
475  if (mdtSegment.at(i_hit).isOutlier>1) continue;
476 
477  double Z = mdtSegment.at(i_hit).Z;
478  double R = mdtSegment.at(i_hit).R;
479 
480  sumZ[i_station] = sumZ[i_station] + Z;
481  sumR[i_station] = sumR[i_station] + R;
482  sumN[i_station]++;
483 
484  if (sumN[i_station]!=0) {
485  avZ[i_station] = sumZ[i_station]/sumN[i_station];
486  avR[i_station] = sumR[i_station]/sumN[i_station];
487  }
488  }
489 
490  if (sumN[i_station]==0) return;
491 
492  for (unsigned int i_hit=0; i_hit<mdtSegment.size(); i_hit++) {
493 
494  if (mdtSegment.at(i_hit).isOutlier>1) continue;
495 
496  double Z = mdtSegment.at(i_hit).Z;
497  double R = mdtSegment.at(i_hit).R;
498 
499  if (i_station==3) nsWidth = m_rwidth_Endcapinn_second;
500  if (i_station==4) nsWidth = m_rwidth_Endcapmid_second;
501  if (i_station==5) nsWidth = m_rwidth_Endcapout_second;
502 
503  double nbw = aw*Z+(avR[i_station]-aw*avZ[i_station]);
504 
505  if ( R>(nbw-nsWidth) && R<(nbw+nsWidth) ) {
506  mdtSegment.at(i_hit).isOutlier = 0;
507  } else {
508  mdtSegment.at(i_hit).isOutlier = 2;
509  continue;
510  }
511  }
512 
513  for (unsigned int i_hit=0; i_hit<mdtSegment.size(); i_hit++) {
514 
515  unsigned int i_layer =mdtSegment.at(i_hit).Layer;
516  if (mdtSegment.at(i_hit).isOutlier>1) continue;
517  if (i_layer > i_layer_max) i_layer_max = i_layer;
518 
519  MdtLayerHits[i_station][i_layer]++;
520  MdtLayerHits_index[i_station][i_layer].push_back(i_hit);
521  }
522 
523  std::vector<unsigned int> Ly_1st{};
524  std::vector<float> Line_A{};
525  std::vector<float> Line_B{};
526  std::vector<float> Line_Chi2{};
527  std::vector<unsigned int> Line_count{};
528  std::vector<float> Line_Xor{};
529  std::vector<float>Line_Yor{};
530  std::vector<float> Line_sum_Z{};
531  std::vector<float> Line_phim{};
532  std::vector<float> Maxlayers_A{};
533  std::vector<float> Maxlayers_B{};
534  std::vector<float> Maxlayers_Chi2{};
535  std::vector<float> Maxlayers_RESI{};
536  float Maxlayers_Phim = 0;
537  float Maxlayers_R = 0;
538  float Maxlayers_Z = 0;
539  float Maxlayers_Xor = 0;
540  float Maxlayers_Yor = 0;
541  float Maxlayers_PChi2 = 0;
542  int Maxlayers_N = 0;
543 
544  for (unsigned int i_layer=0; i_layer<=i_layer_max; i_layer++) {
545 
546  if (MdtLayerHits[i_station][i_layer]==0) continue;
547 
548  Ly_1st.push_back(i_layer);
549  }
550 
551  const int real_layer= Ly_1st.size();
552  std::vector<std::vector<unsigned int> > Ly_flg{};
553 
554  for (int pr=real_layer; pr>=3; pr--) {
555 
556  Ly_flg.clear();
557  Line_A.clear();
558  Line_B.clear();
559  Line_Chi2.clear();
560  Line_count.clear();
561  Line_Xor.clear();
562  Line_Yor .clear();
563  Line_sum_Z.clear();
564  Line_phim.clear();
565 
566  int total_cp = 0;
567  findLayerCombination(Ly_1st, real_layer, pr,Ly_flg, total_cp);
568 
569  for (unsigned int i=0;i<Ly_flg.size(); i++) {
570 
571  std::vector<std::vector<int> >tID{};
572  std::vector<std::vector<int> >tIndex{};
573 
574  int tube_ID[NMEAMX][2];
575  int tubeindex[NMEAMX][2];
576 
577  for (int ti=0; ti<8; ti++) {
578  for (int tj=0; tj<2; tj++) {
579  tube_ID[ti][tj] = 0;
580  tubeindex[ti][tj] = 0;
581  }
582  }
583 
584  for (unsigned int j=0; j<Ly_flg[i].size(); j++) {
585 
586  int i_layer = Ly_flg[i][j];
587  std::vector<int> tid{};
588  std::vector<int> tindex{};
589 
590  if (MdtLayerHits[i_station][i_layer]==0) continue;
591 
592  float tube_1st = 999999.;
593  float tube_2nd = 999999.;
594  int layer_1st= 9999;
595  int layer_2nd = 9999;
596 
597  for (unsigned int i_hit=0; i_hit< MdtLayerHits[i_station][i_layer]; i_hit++) {
598 
599  unsigned int i_index = MdtLayerHits_index[i_station][i_layer].at(i_hit);
600 
601  if (mdtSegment.at(i_index).isOutlier>1) continue;
602 
603  float nbw3 = (mdtSegment.at(i_index).Z)*(aw) + (avR[i_station]-(aw)*avZ[i_station]) ;
604  float dis_tube = std::abs(std::abs(nbw3-mdtSegment.at(i_index).R)- mdtSegment.at(i_index).DriftSpace);
605 
606  if (dis_tube<tube_1st) {
607  tube_2nd = tube_1st;
608  layer_2nd = layer_1st;
609  tube_1st = dis_tube;
610  layer_1st = i_index;
611  } else if (dis_tube<tube_2nd) {
612  tube_2nd = dis_tube;
613  layer_2nd = i_index;
614  }
615  }
616 
617  if ( layer_1st != 9999 ) {
618  mdtSegment.at(layer_1st).isOutlier = 0;
619  tid.push_back(1);
620  tindex.push_back(layer_1st);
621  }
622 
623  if ( layer_2nd != 9999 ) {
624  mdtSegment.at(layer_2nd).isOutlier = 1;
625  tid.push_back(1);
626  tindex.push_back(layer_2nd);
627  }
628 
629  tID.push_back(tid);
630  tIndex.push_back(tindex);
631  }
632 
633  for (unsigned int ti=0; ti<tID.size();ti++) {
634  for (unsigned int tj=0; tj<tID[ti].size();tj++) {
635  tube_ID[ti][tj] = tID[ti][tj];
636  tubeindex[ti][tj] = tIndex[ti][tj];
637  }
638  }
639 
640  std::vector<int> isg;
641  std::vector<int> hitarray;
642  int sumid;
643  int ntry = (int)floor(pow(2.,pr))-1;
644 
645  for (int ntryi=0; ntryi<=ntry; ntryi++) {
646 
647  isg.clear();
648  hitarray.clear();
649  sumid = 1;
650 
651  for (int ntryj=1; ntryj<=pr; ntryj++) {
652  int yhit = 0;
653  int Isg = (ntryi&(int)pow(2.,ntryj-1))? 1 : 0;
654  isg.push_back(Isg);
655  if (tube_ID[ntryj-1][Isg] != 0) yhit = 1;
656  sumid = sumid * yhit;
657  }
658 
659  if (sumid==1) {
660  for (unsigned int tt=0;tt<isg.size(); tt++) {
661  int tindex = tubeindex[tt][isg[tt]];
662  hitarray.push_back(tindex);
663  }
664  }
665 
666  count = 0;
667  Xor = 0.;
668  Yor = 0.;
669 
670  float sum_Z_used = 0.;
671  float sum_R_used = 0.;
672 
673  if (hitarray.size()==0) continue;
674 
675  for (itMdtHit=mdtSegment.begin(); itMdtHit!=mdtSegment.end(); ++itMdtHit) { // loop for MDT hit
676 
677  int hit_index = std::distance(mdtSegment.begin(),itMdtHit);
678 
679  if(mdtSegment.at(hit_index).isOutlier>1) continue;
680 
681  if (count >= NMEAMX) continue;
682 
683  int fd=0;
684 
685  for (unsigned int j=0; j<hitarray.size(); j++) {
686 
687  if (hitarray[j]==hit_index) {
688  fd=1;
689  break;
690  }
691  }
692 
693  if (fd==0) continue;
694 
695  superPoint.Ndigi++;
696 
697  if (!Xor) {
698  Xor = itMdtHit->R;
699  Yor = itMdtHit->Z;
700  }
701 
702  phim = itMdtHit->cPhip;
703  sigma = (std::abs(itMdtHit->DriftSigma) > ZERO_LIMIT)? itMdtHit->DriftSigma: SIGMA;
704 
705  if ( std::abs(itMdtHit->DriftSpace) > ZERO_LIMIT &&
706  std::abs(itMdtHit->DriftSpace) < DRIFTSPACE_LIMIT &&
707  std::abs(itMdtHit->DriftTime) > ZERO_LIMIT ) {
708 
709  pbFitResult.XILIN[count] = itMdtHit->R - Xor;
710  pbFitResult.YILIN[count] = itMdtHit->Z - Yor;
711  pbFitResult.RILIN[count] = itMdtHit->DriftSpace;
712  pbFitResult.WILIN[count] = 1/(sigma*sigma);
713  pbFitResult.RESI[count] = 0.;
714 
715  count++;
716  pbFitResult.NPOI = count;
717 
718  sum_Z_used = sum_Z_used + itMdtHit->Z;
719  sum_R_used = sum_R_used + itMdtHit->R;
720  } else {
721  superPoint.Ndigi--;
722  }
723  } // end loop for MDT hits
724 
725  ATH_MSG_DEBUG("... MDT hit used in fit #=" << pbFitResult.NPOI);
726  for (int i=0;i<pbFitResult.NPOI;i++) {
727  ATH_MSG_DEBUG("i/XILIN[i]/YILIN[i]/RILIN[i]/WILIN[i] = "
728  << i << "/" << pbFitResult.XILIN[i] << "/" << pbFitResult.YILIN[i]
729  << "/" << pbFitResult.RILIN[i] << "/" << pbFitResult.WILIN[i]);
730  }
731 
732  if (count >= MIN_MDT_FOR_FIT) {
733  Circles(pbFitResult.NPOI,pbFitResult.XILIN,pbFitResult.YILIN,pbFitResult.RILIN,pbFitResult.WILIN,
734  pbFitResult.ALIN,pbFitResult.BLIN,pbFitResult.CHI2,
735  pbFitResult.PCHI2, pbFitResult.SlopeCand, pbFitResult.InterceptCand, pbFitResult.Chi2Cand);
736 
737 
738  for (int cand=0; cand<6; cand++) {
739 
740  if (std::abs(pbFitResult.SlopeCand[cand]) > ZERO_LIMIT) {
741  Line_A.push_back(1/pbFitResult.SlopeCand[cand]);
742  Line_B.push_back(-pbFitResult.InterceptCand[cand]/pbFitResult.SlopeCand[cand]-Yor/pbFitResult.SlopeCand[cand]+Xor);
743  Line_Chi2.push_back(pbFitResult.Chi2Cand[cand]);
744  Line_count.push_back(pbFitResult.NPOI);
745  Line_Xor.push_back(Xor);
746  Line_Yor .push_back(Yor);
747  Line_sum_Z.push_back(sum_Z_used/count);
748  Line_phim.push_back(phim);
749  }
750  }
751  }
752  }
753  }//end one of cp
754 
755  if (Line_Chi2.size()==0) continue;
756 
757  std::multimap<float, int>chi_map{};
758  std::vector<float> t_A;
759  std::vector<float> t_B;
760  std::vector<float> t_Chi2;
761  std::vector<float> t_count;
762  std::vector<float> t_Xor;
763  std::vector<float> t_Yor;
764  std::vector<float> t_sum_Z;
765  std::vector<float> t_phim;
766 
767  t_A.clear();
768  t_B.clear();
769  t_Chi2.clear();
770  t_count.clear();
771  t_Xor.clear();
772  t_Yor.clear();
773  t_sum_Z.clear();
774  t_phim.clear();
775 
776  for (unsigned int ir=0; ir<Line_Chi2.size(); ir++) chi_map.insert(std::make_pair(Line_Chi2.at(ir), ir));
777 
778  for (std::multimap<float, int>::iterator jt = chi_map.begin(); jt != chi_map.end(); ++jt) {
779  t_A.push_back(Line_A.at(jt->second));
780  t_B.push_back(Line_B.at(jt->second));
781  t_Chi2.push_back(Line_Chi2.at(jt->second));
782  t_count.push_back(Line_count.at(jt->second));
783  t_Xor.push_back(Line_Xor.at(jt->second));
784  t_Yor.push_back(Line_Yor.at(jt->second));
785  t_sum_Z.push_back(Line_sum_Z.at(jt->second));
786  t_phim.push_back(Line_phim.at(jt->second));
787  if(pr==real_layer){//save max layers information
788  Maxlayers_A.push_back(Line_A.at(jt->second));
789  Maxlayers_B.push_back(Line_B.at(jt->second));
790  Maxlayers_Chi2.push_back(Line_Chi2.at(jt->second));
791  }
792  }
793 
794  superPoint.Npoint = t_count[0];//pbFitResult.NPOI;
795  if(i_station==4 && pr==real_layer){
796  Maxlayers_Z = t_sum_Z[0];
797  Maxlayers_R = t_A[0]*t_sum_Z[0]+t_B[0];
798  Maxlayers_Phim = t_phim[0];
799  Maxlayers_Xor = t_Xor[0];
800  Maxlayers_Yor = t_Yor[0];
801  Maxlayers_PChi2 = pbFitResult.PCHI2;
802  Maxlayers_N = t_count[0];
803  }
804 
805  if (s_address == -1) { // Endcap
806 
807  if (std::abs(t_A[0]) > ZERO_LIMIT ) {
808  superPoint.Z = t_sum_Z[0];
809  superPoint.R = t_A[0]*t_sum_Z[0]+t_B[0];
810  superPoint.Alin =t_A[0];
811  superPoint.Blin =t_B[0];
812  }
813 
814  superPoint.Phim = t_phim[0];
815  superPoint.Xor = t_Xor[0];
816  superPoint.Yor = t_Yor[0];
817  superPoint.Chi2 = t_Chi2[0];
818  superPoint.PChi2 = pbFitResult.PCHI2;
819 
820  for (int i=0;i<pbFitResult.NPOI;i++) superPoint.Residual[i] = pbFitResult.RESI[i];
821 
822  for (int cand=0; cand<6; cand++) {
823  if (std::abs(t_A[cand]) > ZERO_LIMIT ) {
824  superPoint.SlopeCand[cand] = t_A[cand];
825  superPoint.InterceptCand[cand] = t_B[cand];
826  superPoint.Chi2Cand[cand] = t_Chi2[cand];
827  }
828  }
829  }
830 
831  Chbest=t_Chi2[0];
832 
833  if (real_layer>3) {
834  if ((i_station == 3 || i_station == 5) && pr==4 && Chbest > m_endcapmid_mdt_chi2_limit) {
835 
836  superPoint.Z =0.;
837  superPoint.R =0.;
838  superPoint.Alin=0.;
839  superPoint.Blin=0.;
840 
841  for (int cand=0; cand<6; cand++) {
842  superPoint.SlopeCand[cand] = 0.;
843  superPoint.InterceptCand[cand] = 0.;
844  superPoint.Chi2Cand[cand] = 0.;
845  }
846  return;
847  }
848  }
849 
850  if (Chbest<m_endcapmid_mdt_chi2_limit){
851 
852  ATH_MSG_DEBUG("... Superpoint chamber/s_address/count/R/Z/Alin/Blin/Phim/Xor/Yor/Chi2/PChi2="
853  << i_station << "/" << s_address << "/" << count << "/"
854  << superPoint.R << "/" << superPoint.Z << "/" << superPoint.Alin << "/"
855  << superPoint.Blin << "/" << superPoint.Phim << "/" << superPoint.Xor << "/"
856  << superPoint.Yor << "/" << superPoint.Chi2 << "/" << superPoint.PChi2);
857 
858  break;//jump out all cp
859  }else{
860  if(i_station==4 && Maxlayers_A.size()>0){
861  superPoint.Npoint = Maxlayers_N;
862  superPoint.Z = Maxlayers_Z;
863  superPoint.R = Maxlayers_R;
864  superPoint.Alin =Maxlayers_A[0];
865  superPoint.Blin =Maxlayers_B[0];
866  superPoint.Phim = Maxlayers_Phim;
867  superPoint.Xor = Maxlayers_Xor;
868  superPoint.Yor = Maxlayers_Yor;
869  superPoint.Chi2 = Maxlayers_Chi2[0];
870  superPoint.PChi2 = Maxlayers_PChi2;
871  for (int cand=0; cand<6; cand++) {
872  if (std::abs(Maxlayers_A[cand]) > ZERO_LIMIT ) {
873  superPoint.SlopeCand[cand] = Maxlayers_A[cand];
874  superPoint.InterceptCand[cand] = Maxlayers_B[cand];
875  superPoint.Chi2Cand[cand] = Maxlayers_Chi2[cand];
876  }
877  }
878  }
879  }
880  }//end all cp
881 
882  return;
883 }
884 
885 // --------------------------------------------------------------------------------
886 //-----------------------------------------------------------------------------------
887 void TrigL2MuonSA::MuFastStationFitter::makeReferenceLine(TrigL2MuonSA::TrackPattern& trackPattern,
888  const TrigL2MuonSA::MuonRoad& muonRoad) const{
889 
890  const unsigned int MAX_STATION = 8;
891  float aw[8];
892  float spZ[8];
893  float spR[8];
894  float A_cand[8][6];
895  float B_cand[8][6];
896  float Chi2_cand[8][6];
897  float spA[8];
898  float spB[8];
899  float spChi2[8];
900  const int middle = 4;
901  const int outer = 5;
902 
903  for (unsigned int i_station=4; i_station<MAX_STATION; i_station++) {
904 
905  aw[i_station]=0.;
906  spZ[i_station]=0.;
907  spR[i_station]=0.;
908  spA[i_station]=0.;
909  spB[i_station]=0.;
910  spChi2[i_station]=0.;
911 
912  for (unsigned int ci=0; ci<NCAND; ci++) {
913  A_cand[i_station][ci] =0.;
914  B_cand[i_station][ci] =0.;
915  Chi2_cand[i_station][ci] =0.;
916  }
917 
918  if (i_station<4 || i_station>5) continue; // only loop for endcap Inner/Middle/Outer
919 
920  TrigL2MuonSA::SuperPoint& superPoint {trackPattern.superPoints[i_station]};
921  aw[i_station] = muonRoad.aw[i_station][0];
922  spZ[i_station] = superPoint.Z;
923  spR[i_station] = superPoint.R;
924  spA[i_station] = superPoint.Alin;
925  spB[i_station] = superPoint.Blin;
926 
927  for (unsigned int cand=0; cand<NCAND; cand++) {
928  A_cand[i_station][cand] = superPoint.SlopeCand[cand];
929  B_cand[i_station][cand] = superPoint.InterceptCand[cand];
930  Chi2_cand[i_station][cand] = superPoint.Chi2Cand[cand];
931  }
932  }
933 
934  float test_diff = 1.e25;
935  float best_diff = 1.e25;
936  float rmatched = 0.;
937  float match_midA = 0.;
938  float match_outA = 0.;
939 
940  if (std::abs(A_cand[middle][0]) < ZERO_LIMIT && std::abs(A_cand[middle][1]) < ZERO_LIMIT) {
941  spZ[middle] = 0.;
942  spR[middle] = 0.;
943  spChi2[middle] = 0.;
944  }
945 
946  if (std::abs(A_cand[outer][0]) < ZERO_LIMIT && std::abs(A_cand[outer][1]) < ZERO_LIMIT) {
947  spZ[outer] = 0.;
948  spR[outer] = 0.;
949  spChi2[outer] = 0.;
950  }
951 
952  if (std::abs(A_cand[middle][0]) > ZERO_LIMIT && std::abs(A_cand[outer][0]) < ZERO_LIMIT) {
953 
954  best_diff = 1.e25;
955  test_diff = 1.e25;
956 
957  for (int m=0; m<6; m++) {
958 
959  test_diff = std::abs(A_cand[middle][m] - aw[middle]);
960 
961  if (test_diff<best_diff) {
962  best_diff = test_diff;
963  rmatched = A_cand[middle][m];
964  spB[middle] = B_cand[middle][m];
965  spChi2[middle] = Chi2_cand[middle][m];
966  spR[middle] = rmatched * spZ[middle] + spB[middle];
967 
968  }
969  }
970  }
971 
972  if(std::abs(A_cand[outer][1]) > ZERO_LIMIT && std::abs(A_cand[outer][0]) > ZERO_LIMIT && std::abs(spA[outer]) > ZERO_LIMIT && std::abs(spZ[outer]) > ZERO_LIMIT && std::abs(spR[outer]) > ZERO_LIMIT &&
973  std::abs(A_cand[middle][1]) > ZERO_LIMIT && std::abs(A_cand[middle][0]) > ZERO_LIMIT && std::abs(spA[middle]) > ZERO_LIMIT && std::abs(spZ[middle]) > ZERO_LIMIT && std::abs(spR[middle]) > ZERO_LIMIT){
974 
975  float sp_line = 0.;
976  if(std::abs(spZ[outer]-spZ[middle]) > ZERO_LIMIT) sp_line = (spR[outer]-spR[middle])/(spZ[outer]-spZ[middle]);
977 
978  for (int t=0; t<2; ++t) {
979  best_diff = 1.e25;
980  test_diff = 1.e25;
981  if (std::abs(sp_line)> ZERO_LIMIT) {
982  for (int i=0; i<6; ++i) {
983  if (t==0) test_diff = std::abs(A_cand[middle][i] - sp_line);
984  else if (t==1) test_diff = std::abs(A_cand[outer][i] - sp_line);
985  if (test_diff<best_diff) {
986  best_diff = test_diff;
987  if (t==0) {
988  match_midA = A_cand[middle][i];
989  spB[middle] = B_cand[middle][i];
990  spChi2[middle] = Chi2_cand[middle][i];
991  spR[middle] = match_midA * spZ[middle] + spB[middle];
992  } else if(t==1) {
993  match_outA = A_cand[outer][i];
994  spB[outer] = B_cand[outer][i];
995  spChi2[outer] = Chi2_cand[outer][i];
996  spR[outer] = match_outA * spZ[outer] + spB[outer];
997  }
998  }
999  }
1000  }
1001  }
1002  }
1003 
1004  if (std::abs(spA[middle]) > ZERO_LIMIT) {
1005  if (std::abs(match_midA) > ZERO_LIMIT) {
1006  spA[middle] = match_midA;
1007  } else if (std::abs(rmatched) > ZERO_LIMIT) {
1008  spA[middle] = rmatched;
1009  }
1010 
1011  if (std::abs(match_outA) > ZERO_LIMIT) spA[outer] = match_outA;
1012  }
1013 
1014  for (unsigned int i_station=4; i_station<MAX_STATION; i_station++) {
1015  if (i_station<4 || i_station>5) continue; // only loop for endcap Inner/Middle/Outer
1016  TrigL2MuonSA::SuperPoint& superPoint {trackPattern.superPoints[i_station]};
1017  if(std::abs(spA[i_station]) > ZERO_LIMIT){
1018  superPoint.Alin =spA[i_station];
1019  superPoint.Blin =spB[i_station];
1020  superPoint.Chi2 =spChi2[i_station];
1021  }
1022  }
1023  return;
1024 }
1025 
1026 //--------------------------------------------------------------------------------------
1027 
1028 double TrigL2MuonSA::MuFastStationFitter::fromAlphaPtToInn(const TrigL2MuonSA::TgcFitResult& tgcFitResult,
1029  const TrigL2MuonSA::TrackPattern& trackPattern) const
1030 {
1031  float MiddleSlope = 0;
1032  float OuterSlope = 0;
1033 
1034  for (int i_station=4; i_station<6; i_station++) {
1035 
1036  int chamberID = -1;
1037 
1038  if ( i_station == 4 ) chamberID = xAOD::L2MuonParameters::Chamber::EndcapMiddle;
1039  if ( i_station == 5 ) chamberID = xAOD::L2MuonParameters::Chamber::EndcapOuter;
1040 
1041  const TrigL2MuonSA::SuperPoint& superPoint {trackPattern.superPoints[chamberID]};
1042 
1043  if ( superPoint.Npoint > 2 && superPoint.R > 0.) {
1044  if ( i_station==4 ) {
1045  MiddleSlope = superPoint.Alin;
1046  }
1047  if ( i_station==5 ) {
1048  OuterSlope = superPoint.Alin;
1049  }
1050  }
1051  }
1052 
1053  double mdtpT = std::abs(tgcFitResult.tgcPT);
1054  double alpha_pt = std::abs(trackPattern.ptEndcapAlpha);
1055 
1056  if (std::abs(MiddleSlope) > ZERO_LIMIT && std::abs(OuterSlope) > ZERO_LIMIT) {
1057  mdtpT = alpha_pt;
1058  } else if (std::abs(tgcFitResult.tgcPT)>=8.0 && std::abs(MiddleSlope) > ZERO_LIMIT) {
1059  mdtpT = alpha_pt;
1060  }
1061 
1062  mdtpT = (std::abs(tgcFitResult.tgcPT)>1e-5)? mdtpT*(tgcFitResult.tgcPT/std::abs(tgcFitResult.tgcPT)) : 0;
1063  double etaMiddle = (tgcFitResult.tgcMid1[3])? tgcFitResult.tgcMid1[0] : tgcFitResult.tgcMid2[0];
1064  double phiMiddle = (tgcFitResult.tgcMid1[3])? tgcFitResult.tgcMid1[1] : tgcFitResult.tgcMid2[1];
1065  double eta;
1066  double sigma_eta;
1067  double extrInnerEta = 0;
1068  double naw = 0;
1069  xAOD::L2StandAloneMuon* muonSA = new xAOD::L2StandAloneMuon();
1070  muonSA->makePrivateStore();
1071  muonSA->setSAddress(-1);
1072  muonSA->setPt(mdtpT);
1073  muonSA->setEtaMS(etaMiddle);
1074  muonSA->setPhiMS(phiMiddle);
1075  muonSA->setRMS(0.);
1076  muonSA->setZMS(0.);
1077  double phi;
1078  double sigma_phi;
1079  double theta = 0.;
1080  StatusCode sc = m_backExtrapolator->give_eta_phi_at_vertex(muonSA, eta,sigma_eta,phi,sigma_phi,0.);
1081 
1082  if (sc.isSuccess() ){
1083  extrInnerEta = eta;
1084  } else {
1085  extrInnerEta = etaMiddle;
1086  }
1087 
1088  delete muonSA;
1089 
1090  if (std::abs(extrInnerEta) > ZERO_LIMIT) {
1091  theta = std::atan(std::exp(-std::abs(extrInnerEta)))*2.;
1092  naw = std::tan(theta)*(std::abs(extrInnerEta)/extrInnerEta);
1093  }
1094 
1095  return naw;
1096 
1097 }
1098 // --------------------------------------------------------------------------------
1099 //--------------------------------------------------------------------------------
1100 void TrigL2MuonSA::MuFastStationFitter::updateInnSP(TrigL2MuonSA::TrackPattern& trackPattern,
1101  double &aw,
1102  double &tgc_aw,
1103  double &bw) const
1104 {
1105  double nrWidth = m_rwidth_Endcapinn_first;
1106  unsigned int sumN[8];
1107 
1108  for (unsigned int i_st=0; i_st<8;i_st++) {
1109  sumN[i_st] = 0;
1110  }
1111 
1112  TrigL2MuonSA::PBFitResult pbFitResult;
1113  const int i_station = 3;//endcap inner
1114  int chamberID = i_station;
1115 
1116  TrigL2MuonSA::MdtHits& mdtSegment {trackPattern.mdtSegments[chamberID]};
1117  TrigL2MuonSA::SuperPoint& superPoint {trackPattern.superPoints[chamberID]};
1118 
1119  if (mdtSegment.size()==0) return;
1120 
1121  for (TrigL2MuonSA::MdtHitData& itMdtHit : mdtSegment) { // loop for MDT hit
1122  if (std::abs(itMdtHit.DriftSpace) < m_mdt_driftspace_downlimit ||
1123  std::abs(itMdtHit.DriftSpace) > m_mdt_driftspace_uplimit){
1124  itMdtHit.isOutlier = 2;
1125  continue;
1126  }
1127 
1128  if (itMdtHit.isOutlier > 1) continue;
1129 
1130  double Z = itMdtHit.Z;
1131  double R = itMdtHit.R;
1132  double nbw = tgc_aw*Z + bw;
1133 
1134  if (R>(nbw-nrWidth) && R<(nbw+nrWidth)) {
1135  itMdtHit.isOutlier = 0;
1136  sumN[i_station]++;
1137  } else {
1138  itMdtHit.isOutlier = 2;
1139  continue;
1140  }
1141  }
1142 
1143  if (sumN[i_station]==0) return;
1144 
1145  stationSPFit(mdtSegment, superPoint,pbFitResult, trackPattern.s_address,i_station, aw);
1146 
1147  float df=1.e25;
1148 
1149  for (int cand=0; cand<NCAND; cand++) {
1150  float ds=std::abs(superPoint.SlopeCand[cand]-aw);
1151  if (ds<df) {
1152  df=ds;
1153  superPoint.Alin = superPoint.SlopeCand[cand];
1154  superPoint.Blin = superPoint.InterceptCand[cand];
1155  superPoint.Chi2 = superPoint.Chi2Cand[cand];
1156  }
1157  }
1158 }
1159 
1160 // --------------------------------------------------------------------------------
1161 // --------------------------------------------------------------------------------
1162 
1163 void TrigL2MuonSA::MuFastStationFitter::findLayerCombination(std::vector<unsigned int> &a,
1164  int n,
1165  int r,
1166  std::vector<std::vector<unsigned int> > &c,
1167  int &nr) const
1168 {
1169  std::vector<unsigned int> b(r,0);
1170 
1171  findSubLayerCombination(a,n,r,b,0,r,c,nr);
1172 
1173  return;
1174 }
1175 
1176 // --------------------------------------------------------------------------------
1177 // --------------------------------------------------------------------------------
1178 
1179 void TrigL2MuonSA::MuFastStationFitter::findSubLayerCombination(std::vector<unsigned int> &a,
1180  int n,
1181  int r,
1182  std::vector<unsigned int> &b,
1183  int index,
1184  int num,
1185  std::vector<std::vector<unsigned int> > &c,
1186  int &nr) const
1187 {
1188  for (int i=index; i<n-num+1; i++) {
1189 
1190  b[r-num] = a[i];
1191  std::vector<unsigned int> t;
1192  t.clear();
1193 
1194  if (num==1) {
1195 
1196  for (int j = 0;j<r; j++) t.push_back(b[j]);
1197 
1198  c.push_back(t);
1199  nr++;
1200 
1201  } else {
1202 
1203  findSubLayerCombination(a,n,r,b,i+1,num-1,c,nr);
1204  }
1205  }
1206 
1207  return;
1208 }
1209 
1210 // --------------------------------------------------------------------------------
1211 // --------------------------------------------------------------------------------
1212 
1213 /*==============================================================================
1214 
1215  Call CIRCLES to fit a line, then rejects the worst point(s)
1216 
1217  IFIT = 0 ok, = 1 failure
1218  IFLA = 0 normal, = 1 do not try to exclude points
1219 
1220 ==============================================================================*/
1221 
1222 void TrigL2MuonSA::MuFastStationFitter::Evlfit(TrigL2MuonSA::PBFitResult& pbFitResult) const
1223 {
1224  Circles(pbFitResult.NPOI,pbFitResult.XILIN,pbFitResult.YILIN,pbFitResult.RILIN,pbFitResult.WILIN,
1225  pbFitResult.ALIN,pbFitResult.BLIN,pbFitResult.CHI2,pbFitResult.PCHI2);
1226 
1227  if(pbFitResult.CHI2<=ZERO_LIMIT) return;
1228 
1229  float Xnor = 1. / std::sqrt(1. + pbFitResult.ALIN * pbFitResult.ALIN);
1230 
1231  for(int j=0;j<pbFitResult.NPOI;j++) {
1232 
1233  float distj = (pbFitResult.ALIN * pbFitResult.XILIN[j] + pbFitResult.BLIN - pbFitResult.YILIN[j]) * Xnor;
1234  float rlin = (distj>=0.) ? pbFitResult.RILIN[j] : -pbFitResult.RILIN[j];
1235  pbFitResult.RESI[j] = distj - rlin;
1236 
1237  }
1238 }
1239 
1240 // --------------------------------------------------------------------------------
1241 // --------------------------------------------------------------------------------
1242 
1243 /*==============================================================================
1244 
1245  Computes the best line tangent to many circles or points
1246 
1247  Version 1 - P.B. 960715 - First attempt
1248  Version 2 - P.B. 960910 - New algorithm for choice of the signs
1249 
1250  y = A x + b
1251 
1252  Input :
1253  =======
1254 
1255  NMEAS : number of meas
1256  Xi, Yi : x, y of the centers (i=1...NMEAS) (i.e. wire of a mdt)
1257  RRi : distance line-center (i.e. measured drift distance)
1258  Wi : weight for the i-th meas (= 1/sigma**2)
1259 
1260  Output :
1261  ========
1262 
1263  A,B : line coefficients (y = Ax + b)
1264  CHI2 : Chi square = Sum Wi * (RRi - dist) ** 2 (error if .lt.0)
1265  PCHI2 : P(chisquare,d.o.f.)
1266 ==============================================================================*/
1267 
1268 void TrigL2MuonSA::MuFastStationFitter::Circles (const int Nmeas,
1269  const std::array<float, NMEAMX>& XI,
1270  const std::array<float, NMEAMX>& YI,
1271  const std::array<float, NMEAMX>& RI,
1272  const std::array<float, NMEAMX>& WI,
1273  float& A,float& B, float& Chi2,float& Pchi2) const
1274 {
1275  if (Nmeas<=2||Nmeas>=NMEAMX+1) return;
1276 
1277  //------ First attempt, try with a line through the centers --------
1278  float SAA,SBB,SAB; //SAA,SBB,SAB, not used here
1279  Xline(XI,YI,WI,Nmeas,A,B,SAA,SBB,SAB,Chi2);
1280 
1281  //------ Then choose 4 best hits and try all possible combinations (+Ri/-Ri) to identify the best segment candidate
1282  const float WIlim = 0.1 * (*std::max_element(WI.begin(), WI.begin() + Nmeas));
1283  const int Ngood = std::count_if(WI.begin(), WI.begin() + Nmeas, [WIlim](const float& w) {
1284  return w >= WIlim;
1285  }); //we count the good hits
1286 
1287  std::vector<int> bestIdx{};
1288  for (int j=0;j<Nmeas;j++) { //we save the index of the 3/4 best hits
1289  if (WI[j]>=WIlim || Ngood<=3) { //if we have at least 4 good hits we use them, otherwise we use all
1290  if (bestIdx.size() < 4){
1291  bestIdx.push_back(j);
1292  }
1293  else{
1294  bestIdx.at(bestIdx.size()-2) = bestIdx.back();
1295  bestIdx.back() = j;
1296  }
1297  }
1298  }
1299  const int Nbest = bestIdx.size(); // is 3 or 4
1300 
1301  const int Ntry = (1 << Nbest) - 1; // all possible combinations (+Ri/-Ri) of the best hits, i.e. Nbest=4 -> Ntry=15.
1302  std::array<float,NMEAMX> RRi{};
1303  float Abest{0.}, Bbest {0.}, CHbest{1.e25};
1304  for (int j=0;j<=Ntry;j++) { //loop over all combinations E.g. 0010 meas 2-th has -R and the other +R
1305  for (int k=0;k<Nbest;k++) { //loop over best hits
1306  const int Isig = (j & (1<<k)) ? 1 : 0; //is 1 if the k-th hit contributes as -R, otherwise +R
1307  RRi[bestIdx[k]] = (Isig==1) ? -RI[bestIdx[k]] : RI[bestIdx[k]];
1308  }
1309  float Aj = A;
1310  float Bj = B;
1311  float chi2j = -1;
1312  Circfit(Nmeas,XI,YI,RRi,WI,Aj,Bj,chi2j,&bestIdx);
1313 
1314  if (chi2j>=0.0&&chi2j<=CHbest) {
1315  Abest = Aj;
1316  Bbest = Bj;
1317  CHbest = chi2j;
1318  }
1319  }
1320 
1321  // ... and finally with all the points
1322  Chi2 = -1.;
1323  A=Abest;
1324  B=Bbest;
1325  Circfit(Nmeas,XI,YI,RI,WI,A,B,Chi2);
1326 
1327  if (Chi2>=0.0) {
1328  Pchi2 = TMath::Prob(Chi2, Nmeas - 2);
1329  }
1330 }
1331 
1332 // --------------------------------------------------------------------------------
1333 // --------------------------------------------------------------------------------
1334 
1335 /*==============================================================================
1336 
1337  Auxiliary to circles (see) - It makes the actual computations
1338 
1339  NB - A and B MUST contain on input a first approximation of
1340  their values
1341 
1342 ==============================================================================*/
1343 
1344 void TrigL2MuonSA::MuFastStationFitter::Circfit (const int Nmeas,
1345  const std::array<float, NMEAMX>& XI,
1346  const std::array<float, NMEAMX>& YI,
1347  const std::array<float, NMEAMX>& RI,
1348  const std::array<float, NMEAMX>& WI,
1349  float& A,float& B,float& Chi2, std::vector<int>* idx_vec) const
1350 {
1351  const bool use_all {!idx_vec}; //if idx_vec=nullptr we use all hits
1352  std::vector<int> temp{};
1353  if(use_all){
1354  temp.resize(Nmeas);
1355  std::iota(temp.begin(), temp.end(), 0);
1356  idx_vec = &temp; //if we use all hits, idx_vec = 0,1,2,..Nmeas-1
1357  }
1358 
1359  std::array<float,NMEAMX> XX{},YY{};
1360  int Niter{0};
1361  float Test, Toll {.1};
1362 
1363  // Many iterations ...
1364  do {
1365  Niter++;
1366  float Xnor = 1. / std::sqrt(1. + A * A);
1367  float Aold = A;
1368  float Bold = B;
1369 
1370  if(use_all){
1371  for(const int& j : *idx_vec) {
1372  const int Epsi {(A * XI[j] + B - YI[j]>=0.) ? 1 : -1};
1373  XX[j] = XI[j] - Epsi * Xnor * std::abs(RI[j]) * A;
1374  YY[j] = YI[j] + Epsi * Xnor * std::abs(RI[j]);
1375  }
1376  }
1377  else {
1378  for(const int& j : *idx_vec){
1379  XX[j] = XI[j] - Xnor * RI[j] * A;
1380  YY[j] = YI[j] + Xnor * RI[j];
1381  }
1382  }
1383  float SAA,SAB,SBB;
1384  Xline(XX,YY,WI,Nmeas,A,B,SAA,SBB,SAB,Chi2, idx_vec);
1385  if(Chi2<=0.) break;
1386  Test = ((Aold-A)*(Aold-A))/ SAA + ((Bold-B)*(Bold-B))/ SBB;
1387 
1388  } while(Test>=Toll&&Niter<=20);
1389 }
1390 
1391 // --------------------------------------------------------------------------------
1392 // --------------------------------------------------------------------------------
1393 
1394 /*==============================================================================
1395  A simple linear fit : y = A x + B (see PDG 94, 17.20-25)
1396 
1397  W = weights ( = 1./err**2)
1398 ==============================================================================*/
1399 
1400 void TrigL2MuonSA::MuFastStationFitter::Xline (const std::array<float, NMEAMX>& X,
1401  const std::array<float, NMEAMX>& Y,
1402  const std::array<float, NMEAMX>& W,
1403  const int NP,
1404  float& A,float& B,float& SAA,float& SBB,float& SAB,float& Square, std::vector<int>* idx_vec) const
1405 {
1406  std::vector<int> temp{};
1407  if(!idx_vec){
1408  temp.resize(NP);
1409  std::iota(temp.begin(), temp.end(), 0);
1410  idx_vec = &temp; //if we use all hits, idx_vec = 0,1,2,..Nmeas-1
1411  }
1412 
1413  float S1{0.},SX{0.},SY{0.},SXX{0.},SXY{0.},SYY{0.};
1414 
1415  for(const int& j : *idx_vec) {
1416  S1 = S1 + W[j];
1417  SX = SX + W[j] * X[j];
1418  SY = SY + W[j] * Y[j];
1419  SXX = SXX + W[j] * X[j] * X[j];
1420  SXY = SXY + W[j] * X[j] * Y[j];
1421  SYY = SYY + W[j] * Y[j] * Y[j];
1422  }
1423 
1424  float Deter = S1 * SXX - SX * SX;
1425 
1426  if (std::abs(Deter) > ZERO_LIMIT) {
1427  A = (S1 * SXY - SX * SY) / Deter;
1428  B = (SY * SXX - SX * SXY) / Deter;
1429  SAA = S1 / Deter;
1430  SBB = SXX / Deter;
1431  SAB = - SX / Deter;
1432  }
1433  else {
1434  A= (S1 * SXY - SX * SY > 0.) ? 9.e+5 : -9.e+5;
1435  B = SY/S1 - SX/S1 * A;
1436  SAA = A;
1437  SBB = A;
1438  SAB = - A;
1439  }
1440  Square = 0.;
1441  for(const int& j : *idx_vec) {
1442  float DY =(Y[j] - A * X[j] - B)/std::sqrt(1 + A * A);
1443  Square = Square + W[j] * DY * DY;
1444  }
1445 
1446 }
1447 
1448 // --------------------------------------------------------------------------------
1449 // --------------------------------------------------------------------------------
1450  void TrigL2MuonSA::MuFastStationFitter::Circles (const int Nmeas,
1451  const std::array<float, NMEAMX>& XI,
1452  const std::array<float, NMEAMX>& YI,
1453  const std::array<float, NMEAMX>& RI,
1454  const std::array<float, NMEAMX>& WI,
1455  float& A,float& B,float& Chi2,float& Pchi2,
1456  std::array<float, NCAND>& SlopeCand,
1457  std::array<float, NCAND>& InterceptCand,
1458  std::array<float, NCAND>& Chi2Cand) const
1459 {
1460  if (Nmeas<=2||Nmeas>=NMEAMX+1) return;
1461 
1462  //------ First attempt, try with a line through the centers --------
1463  float A0,B0, SAA,SBB,SAB,Square; //SAA,SBB,SAB,Square not used here
1464  Xline(XI,YI,WI,Nmeas,A0,B0,SAA,SBB,SAB,Square);
1465 
1466  //------ Then choose 4 best hits and try all possible combinations (+Ri/-Ri) to identify the best segment candidate
1467  const float WIlim = 0.1 * (*std::max_element(WI.begin(), WI.begin() + Nmeas));
1468  const int Ngood = std::count_if(WI.begin(), WI.begin() + Nmeas, [WIlim](const float& w) {
1469  return w >= WIlim;
1470  }); //we count the good hits
1471 
1472  std::vector<int> bestIdx{};
1473  for (int j=0;j<Nmeas;j++) { //we save the index of the 3/4 best hits
1474  if (WI[j]>=WIlim || Ngood<=3) { //if we have at least 4 good hits we use them, otherwise we use all
1475  if (bestIdx.size() < 4){
1476  bestIdx.push_back(j);
1477  }
1478  else{
1479  bestIdx.at(bestIdx.size()-2) = bestIdx.back();
1480  bestIdx.back() = j;
1481  }
1482  }
1483  }
1484  const int Nbest = bestIdx.size(); // is 3 or 4
1485 
1486  std::vector<float> st_chi2{};
1487  std::vector<float> st_A{};
1488  std::vector<float> st_B{};
1489 
1490  for (int i=0; i<NCAND; i++) {
1491  SlopeCand[i] = 0.;
1492  InterceptCand[i] = 0.;
1493  Chi2Cand[i] = 0.;
1494  }
1495 
1496  const int Ntry = (1 << Nbest) - 1; // all possible combinations (+Ri/-Ri) of the best hits, i.e. Nbest=4 -> Ntry=15.
1497  std::array<float,NMEAMX> RRi{};
1498  float CHbest{1.e25}, Abest{0.}, Bbest{0.};
1499  Chi2 = -1.;
1500  for (int j=0;j<=Ntry;j++) { //loop over all combinations E.g. 0010 meas 2-th has -R and the other +R
1501  for (int k=0;k<Nbest;k++) { //loop over best hits
1502  int Isig = (j & (1<<k)) ? 1 : 0;
1503  RRi[bestIdx[k]] = (Isig==1) ? -RI[bestIdx[k]] : RI[bestIdx[k]];
1504  }
1505 
1506  float Aj = A0;
1507  float Bj = B0;
1508  Circfit(Nmeas,XI,YI,RRi,WI,Aj,Bj,Chi2,&bestIdx);
1509  Circfit(Nmeas,XI,YI,RI,WI,Aj,Bj,Chi2);
1510  st_A.push_back(Aj); st_B.push_back(Bj); st_chi2.push_back(Chi2);
1511 
1512  if (Chi2>=0.0&&Chi2<=CHbest) {
1513  Abest = Aj;
1514  Bbest = Bj;
1515  CHbest = Chi2;
1516  }
1517  }
1518 
1519  std::multimap<float, int>chi_map {};
1520  std::vector<float> t_A {};
1521  std::vector<float> t_B {};
1522  std::vector<float> t_chi2 {};
1523 
1524  for (size_t ir=0; ir<st_chi2.size(); ir++) chi_map.insert(std::make_pair(st_chi2.at(ir), ir));
1525 
1526  for (std::multimap<float, int>::iterator jt = chi_map.begin(); jt != chi_map.end(); ++jt) {
1527  t_A.push_back(st_A.at(jt->second));
1528  t_B.push_back(st_B.at(jt->second));
1529  t_chi2.push_back(st_chi2.at(jt->second));
1530  }
1531 
1532  for (int nv=0; nv<6; nv++) {
1533  SlopeCand[nv] = t_A[nv];
1534  InterceptCand[nv] = t_B[nv];
1535  Chi2Cand[nv] = t_chi2[nv];
1536  }
1537 
1538  // ... and finally with all the points
1539  A = Abest;
1540  B = Bbest;
1541  Circfit(Nmeas,XI,YI,RI,WI,A,B,Chi2);
1542 
1543  if (Chi2>=0.0) {
1544  Pchi2 = TMath::Prob(Chi2, Nmeas - 2);
1545  }
1546 
1547  return;
1548 }
1549 
1550 // --------------------------------------------------------------------------------
1551 // --------------------------------------------------------------------------------
1552 
xAOD::iterator
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Definition: JetConstituentVector.cxx:68
AllowedVariables::e
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def r
Definition: beamspotman.py:674
TrigL2MuonSA::PBFitResult::NPOI
int NPOI
Definition: SuperPointData.h:27
S1
struct TBPatternUnitContext S1
checkxAOD.ds
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Definition: Tools/PyUtils/bin/checkxAOD.py:260
TrigL2MuonSA::PBFitResult::ALIN
float ALIN
Definition: SuperPointData.h:28
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Definition: pdg_comparison.py:324
TrigL2MuonSA::TrackPattern::superPoints
TrigL2MuonSA::SuperPoint superPoints[s_NCHAMBER]
Definition: TrackData.h:60
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Definition: dumpNPs.cxx:34
AthMsgStreamMacros.h
TrigL2MuonSA::RpcFitResult::phi
double phi
Definition: RpcFitResult.h:44
TrigL2MuonSA::RpcFitResult
Definition: RpcFitResult.h:14
xAOD::L2StandAloneMuon_v2
Class describing standalone muons reconstructed in the LVL2 trigger.
Definition: L2StandAloneMuon_v2.h:36
calibdata.chamber
chamber
Definition: calibdata.py:31
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Definition: index.py:1
JetTiledMap::W
@ W
Definition: TiledEtaPhiMap.h:44
TrigL2MuonSA::PBFitResult::XILIN
std::array< float, NMEAMX > XILIN
Definition: SuperPointData.h:19
TrigL2MuonSA::TgcFitResult
Definition: TgcFitResult.h:11
TrigL2MuonSA::MuFastStationFitter::fromAlphaPtToInn
double fromAlphaPtToInn(const TrigL2MuonSA::TgcFitResult &tgcFitResult, const TrigL2MuonSA::TrackPattern &trackPattern) const
Definition: MuFastStationFitter.cxx:1028
TrigL2MuonSA::MdtHits
std::vector< MdtHitData > MdtHits
Definition: MdtData.h:56
TrigL2MuonSA::MdtHitData
Definition: MdtData.h:18
TrigL2MuonSA::MuonRoad::bw
double bw[N_STATION][N_SECTOR]
Definition: MuonRoad.h:84
TrigL2MuonSA::TrackPattern::s_address
int s_address
Definition: TrackData.h:72
xAOD::L2StandAloneMuon_v2::setPt
void setPt(float pt)
Set the transverse momentum ( ) of the muon.
xAOD::L2StandAloneMuon_v2::setPhiMS
void setPhiMS(float value)
Set the phi at muon spectrometer.
TrigL2MuonSA::PBFitResult::InterceptCand
std::array< float, NCAND > InterceptCand
Definition: SuperPointData.h:31
xAOD::L2StandAloneMuon_v2::setEtaMS
void setEtaMS(float value)
Set the eta at muon spectrometer.
TrigRoiDescriptor
nope - should be used for standalone also, perhaps need to protect the class def bits #ifndef XAOD_AN...
Definition: TrigRoiDescriptor.h:56
TrigL2MuonSA::MuFastStationFitter::Circles
void Circles(const int, const std::array< float, NMEAMX > &, const std::array< float, NMEAMX > &, const std::array< float, NMEAMX > &, const std::array< float, NMEAMX > &, float &, float &, float &, float &) const
Definition: MuFastStationFitter.cxx:1268
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Definition: TgcFitResult.h:68
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Definition: MuFastStationFitter.cxx:1163
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Definition: read_hist_ntuple.py:5
drawFromPickle.cos
cos
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Set the Z at muon spectrometer.
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virtual double phi() const override final
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Define the latest version of the muon SA class.
Definition: L2StandAloneMuon.h:17
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Definition: IoTestsLib.py:198
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constexpr int pow(int base, int exp) noexcept
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Definition: compressB64.py:93
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Definition: SuperPointData.h:58
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Outer station in the endcap spectrometer.
Definition: TrigMuonDefs.h:21
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