ATLAS Offline Software
SiTrajectoryElement_xk.cxx
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1 /*
2  Copyright (C) 2002-2023 CERN for the benefit of the ATLAS collaboration
3 */
4 
5 #include "SiSPSeededTrackFinderData/SiTrajectoryElement_xk.h"
6 
7 #include "TrkSurfaces/PerigeeSurface.h"
8 #include "TrkSurfaces/AnnulusBounds.h"
9 #include "TrkExUtils/JacobianHelper.h"
10 #include "TrkExUtils/RungeKuttaUtils.h"
11 #include "TrkMaterialOnTrack/ScatteringAngles.h"
12 #include "TrkMaterialOnTrack/MaterialEffectsOnTrack.h"
13 #include "TrkEventPrimitives/FitQualityOnSurface.h"
14 #include "TrkRIO_OnTrack/RIO_OnTrack.h"
15 
16 #include "InDetRIO_OnTrack/PixelClusterOnTrack.h"
17 #include "InDetRIO_OnTrack/SCT_ClusterOnTrack.h"
18 
19 #include "StoreGate/ReadCondHandle.h"
20 
21 #include <cmath>
22 #include <memory>
23 #include <stdexcept>
24 
26 // Set work dead trajectory element
28 
29 bool InDet::SiTrajectoryElement_xk::setDead(const Trk::Surface* SU)
30 {
31  m_fieldMode = false;
32  if(m_tools->fieldTool().magneticFieldMode()!=0) m_fieldMode = true;
33  m_status = 0 ;
34  m_detstatus = 0 ;
35  m_nMissing = 0 ;
36  m_nlinksForward = 0 ;
37  m_nlinksBackward = 0 ;
38  m_nholesForward = 0 ;
39  m_nholesBackward = 0 ;
40  m_dholesForward = 0 ;
41  m_dholesBackward = 0 ;
42  m_nclustersForward = 0 ;
43  m_nclustersBackward = 0 ;
44  m_npixelsBackward = 0 ;
45  m_ndfForward = 0 ;
46  m_ndfBackward = 0 ;
47  m_ntsos = 0 ;
48  m_detelement = nullptr ;
49  m_detlink = nullptr ;
50  m_surface = SU ;
51  m_cluster = nullptr ;
52  m_clusterOld = nullptr ;
53  m_clusterNoAdd = nullptr ;
54  noiseInitiate() ;
55  m_radlength = -1. ;
56  m_inside = -1 ;
57  m_localDir[0] = 1.;
58  m_localDir[1] = 0.;
59  m_localDir[2] = 0.;
60  return true;
61 }
62 
64 // Set passive material contribution in radiation lengths
65 // Contribution increases as a function of z to mimic the
66 // routing of additional services along z
68 void InDet::SiTrajectoryElement_xk::setDeadRadLength(Trk::PatternTrackParameters& Tp)
69 {
70  if(m_radlength >= 0.) return;
71  double z = std::abs(Tp.parameters()[1]);
72  if (z < 50.) m_radlength = .0075;
73  else if(z < 205.) m_radlength = .02;
74  else if(z < 360.) m_radlength = .03+(z-205.)*0.000129032;
75  else if(z < 570.) m_radlength = .035+(z-360.)*9.04762e-05;
76  else if(z < 1500.) m_radlength = .054+(z-570.)*1.82796e-05;
77  else if(z < 2400.) m_radlength = .071+(z-1500.)*7.14286e-06;
78  else m_radlength = .078;
79 
80 }
81 
82 
84 // Set work information to trajectory
86 
87 void InDet::SiTrajectoryElement_xk::setTools(const InDet::SiTools_xk* t)
88 {
89  m_tools = t ;
90  m_prdToTrackMap= m_tools->PRDtoTrackMap();
91  m_useassoTool = m_tools->usePRDtoTrackAssociation() ;
92  m_updatorTool = m_tools->updatorTool ();
93  m_proptool = m_tools->propTool ();
94  m_riotool = m_tools->rioTool ();
95  m_tools->fieldCondObj()->getInitializedCache (m_fieldCache);
96 }
97 
98 void InDet::SiTrajectoryElement_xk::setParameters()
99 {
100  m_maxholes = m_tools->maxholes () ;
101  m_maxdholes = m_tools->maxdholes () ;
102  m_xi2max = m_tools->xi2max () ;
103  m_xi2maxNoAdd = m_tools->xi2maxNoAdd() ;
104  m_xi2maxlink = m_tools->xi2maxlink () ;
105  m_xi2multi = m_tools->xi2multi () ;
106 }
107 
109 // Initiate first element of trajectory using external
110 // track parameters
112 
113 bool InDet::SiTrajectoryElement_xk::firstTrajectorElement
114 (const Trk::TrackParameters& startingParameters, const EventContext& ctx)
115 {
117  if(!m_cluster) return false;
118 
120  Trk::PatternTrackParameters startingPatternPars;
121  if(!startingPatternPars.production(&startingParameters)) return false;
122 
124  const Trk::Surface* pl = &startingPatternPars.associatedSurface();
125 
128  if(m_surface==pl) m_parametersPredForward = startingPatternPars;
130  else if(!propagate(startingPatternPars,m_parametersPredForward,m_step,ctx)) return false;
131 
132  // Initiate track parameters without initial covariance
133  //
134  double cv[15]={
135  1. ,
136  0. , 1.,
137  0. , 0.,.001,
138  0. , 0., 0.,.001,
139  0. , 0., 0., 0.,.00001};
140 
141  if (m_tools->isITkGeometry()) {
142  cv[5] = m_ndf==2 ? .1 : .01;
143  cv[9] = cv[5];
144  }
145 
147  m_parametersPredForward.setCovariance(cv);
152  initiateState(m_parametersPredForward,m_parametersUpdatedForward);
153 
155  if(!m_tools->isITkGeometry()) noiseProduction(1,m_parametersUpdatedForward);
156  else noiseProduction(1,m_parametersUpdatedForward,1.);
157 
159  m_dist = -10. ;
160  m_step = 0. ;
161  m_xi2Forward = 0. ;
162  m_xi2totalForward = 0. ;
163  m_status = 1 ;
164  m_inside = -1 ;
165  m_nMissing = 0 ;
166  m_nlinksForward = 0 ;
167  m_nholesForward = 0 ;
168  m_dholesForward = 0 ;
169  m_clusterNoAdd = nullptr ;
170  m_nclustersForward = 1 ;
171  m_ndfForward = m_ndf;
172  return true;
173 }
174 
176 // Initiate first element of trajectory using smoother result
178 
179 bool InDet::SiTrajectoryElement_xk::firstTrajectorElement(bool correction)
180 {
181 
182  if(!m_cluster || !m_status) return false;
183  if(m_status > 1 ) m_parametersPredForward = m_parametersUpdatedBackward;
184 
185  if(correction){
186  m_parametersPredForward.diagonalization(10.);
187  if(!initiateStateWithCorrection(m_parametersPredBackward,m_parametersPredForward,m_parametersUpdatedForward)) return false;
188  }
189  else{
191  m_parametersPredForward.diagonalization(100.);
192  if(!initiateState(m_parametersPredForward,m_parametersUpdatedForward)) return false;
193  }
194 
195  m_invMoment = std::abs(m_parametersUpdatedBackward.parameters()[4]);
196  noiseProduction(1,m_parametersUpdatedForward);
197 
198  m_dist = -10. ;
199  m_xi2Forward = 0. ;
200  m_xi2totalForward = 0. ;
201  m_status = 1 ;
202  m_inside = -1 ;
203  m_nMissing = 0 ;
204  m_nlinksForward = 0 ;
205  m_nholesForward = 0 ;
206  m_dholesForward = 0 ;
207  m_clusterNoAdd = nullptr ;
208  m_nclustersForward = 1 ;
209  m_ndfForward = m_ndf;
210  return true;
211 }
212 
214 // Initiate last element of trajectory
216 
217 bool InDet::SiTrajectoryElement_xk::lastTrajectorElement()
218 {
219  if(m_status==0 || !m_cluster) return false;
220  noiseProduction(1,m_parametersUpdatedForward);
221 
222  m_parametersSM = m_parametersPredForward;
223  m_parametersPredBackward = m_parametersUpdatedForward;
224  m_parametersPredBackward.diagonalization(100.);
225  if(!initiateState(m_parametersPredBackward,m_parametersUpdatedBackward)) return false;
226 
227  m_status = 3 ;
228  m_inside = -1 ;
229  m_nMissing = 0 ;
230  m_nlinksBackward = 0 ;
231  m_nholesBackward = 0 ;
232  m_dholesBackward = 0 ;
233  m_clusterNoAdd = nullptr ;
234  m_nclustersBackward = 1 ;
235  m_ndf == 2 ? m_npixelsBackward = 1 : m_npixelsBackward = 0;
236  m_ndfBackward = m_ndf ;
237  m_xi2Backward = m_xi2Forward;
238  m_xi2totalBackward = m_xi2Forward;
239  m_dist = -10.;
240  return true;
241 }
242 
244 // Initiate last element of trajectory
246 
247 bool InDet::SiTrajectoryElement_xk::lastTrajectorElementPrecise()
248 {
249  if(m_status==0 || !m_cluster) return false;
250  m_radlength = .04;
251  noiseProduction(1,m_parametersUpdatedForward);
252 
253  m_parametersSM = m_parametersPredForward;
254  m_parametersPredBackward = m_parametersUpdatedForward;
255  m_parametersPredBackward.diagonalization(10.);
256  if(!initiateStatePrecise(m_parametersPredBackward,m_parametersUpdatedBackward)) return false;
257  m_status = 3;
258  m_inside = -1;
259  m_nMissing = 0;
260  m_nlinksBackward = 0;
261  m_nholesBackward = 0;
262  m_dholesBackward = 0;
263  m_clusterNoAdd = nullptr;
264  m_nclustersBackward = 1;
265  m_clusterNoAdd = nullptr;
266  m_npixelsBackward = m_ndf==2 ? 1 : 0;
267  m_ndfBackward = m_ndf ;
268  m_xi2Backward = m_xi2Forward;
269  m_xi2totalBackward = m_xi2Forward; // As in 21.9, should this be m_xi2totalForward instead?
270  m_dist = -10.;
271  return true;
272 }
273 
275 // Propagate information in forward direction without closest
276 // clusters search
278 
279 bool InDet::SiTrajectoryElement_xk::ForwardPropagationWithoutSearch
280 (InDet::SiTrajectoryElement_xk& TE, const EventContext& ctx)
281 {
284  if(TE.m_cluster) {
286  TE.m_parametersUpdatedForward.addNoise (TE.m_noise,Trk::alongMomentum);
288  if(!propagate(TE.m_parametersUpdatedForward,m_parametersPredForward,m_step, ctx)) return false;
290  TE.m_parametersUpdatedForward.removeNoise(TE.m_noise,Trk::alongMomentum);
292  m_dholesForward = 0;
293  }
294  else {
296  TE.m_parametersPredForward.addNoise (TE.m_noise,Trk::alongMomentum);
298  if(!propagate(TE.m_parametersPredForward,m_parametersPredForward,m_step, ctx)) return false;
300  TE.m_parametersPredForward.removeNoise(TE.m_noise,Trk::alongMomentum);
302  m_dholesForward = TE.m_dholesForward;
303  }
304 
306  m_nclustersForward = TE.m_nclustersForward;
307  m_nholesForward = TE.m_nholesForward ;
308  m_nMissing = TE.m_nMissing ;
309  m_ndfForward = TE.m_ndfForward ;
310  m_xi2totalForward = TE.m_xi2totalForward ;
311  m_step += TE.m_step ;
312 
315  if(!m_tools->isITkGeometry() || m_detelement){
316  if( m_cluster) {
318  if(!addCluster(m_parametersPredForward,m_parametersUpdatedForward,m_xi2Forward)) return false;
320  m_inside = -1;
322  ++m_nclustersForward;
324  m_xi2totalForward+=m_xi2Forward;
325  m_ndfForward+=m_ndf;
326  }
328  else {
330  checkBoundaries(m_parametersPredForward);
332  if( m_detstatus >=0) {
334  if(m_inside < 0 ) {
336  ++m_nholesForward;
337  ++m_dholesForward;
338  }
340  if(m_dist < -2.) ++m_nMissing;
341  }
342  }
343  } else setDeadRadLength(m_parametersPredForward);
344 
345 
348  if(m_inside<=0) {
350  if(m_cluster) noiseProduction(1,m_parametersUpdatedForward);
352  else noiseProduction(1,m_parametersPredForward);
353  }
355  else {
356  noiseInitiate();
357  }
358  m_status = 1;
359  m_nlinksForward = 0;
360  m_clusterNoAdd = nullptr;
361  return true;
362 }
363 
365 // Propagate information in forward direction without closest
366 // clusters search
368 
369 bool InDet::SiTrajectoryElement_xk::ForwardPropagationWithoutSearchPreciseWithCorrection
370 (InDet::SiTrajectoryElement_xk& TE, const EventContext& ctx)
371 {
372  Trk::PatternTrackParameters P;
373 
374  if(TE.m_cluster) {
375  P = TE.m_parametersUpdatedForward;
376  m_dholesForward = 0;
377  }
378  else {
379  P = TE.m_parametersPredForward;
380  m_dholesForward = TE.m_dholesForward;
381  }
382  m_invMoment = TE.m_invMoment;
383 
384  // Track propagation
385  //
386  P.addNoise(TE.m_noise,Trk::alongMomentum);
387  if(!propagate(P,m_parametersPredForward,m_step,ctx)) return false;
388 
389  m_nclustersForward = TE.m_nclustersForward;
390  m_nholesForward = TE.m_nholesForward ;
391  m_nMissing = TE.m_nMissing ;
392  m_ndfForward = TE.m_ndfForward ;
393  m_xi2totalForward = TE.m_xi2totalForward ;
394  m_step += TE.m_step ;
395  m_inside = -1 ;
396 
397  // Track update
398  //
399  if(!m_tools->isITkGeometry() || m_detelement){
400  if( m_cluster) {
401  if(!addClusterPreciseWithCorrection(m_parametersPredForward,m_parametersPredForward,m_parametersUpdatedForward,m_xi2Forward)) return false;
402  ++m_nclustersForward; m_xi2totalForward+=m_xi2Forward; m_ndfForward+=m_ndf;
403  }
404  else {
405  if( m_detstatus >=0) {
406  ++m_nholesForward; ++m_dholesForward; ++m_nMissing;
407  }
408  }
409  }
410  else setDeadRadLength(m_parametersPredForward);
411 
412  // Noise production
413  //
414  m_radlength = .04;
415  noiseProduction(1,m_parametersUpdatedBackward,-1, true);
416  m_status = 1;
417  m_nlinksForward = 0;
418  m_clusterNoAdd = nullptr;
419  return true;
420 }
421 
423 // Propagate information in forward direction with closest
424 // clusters search
426 
427 bool InDet::SiTrajectoryElement_xk::ForwardPropagationWithSearch
428 (InDet::SiTrajectoryElement_xk& TE, const EventContext& ctx)
429 {
433  if(TE.m_cluster) {
434 
435  TE.m_parametersUpdatedForward.addNoise (TE.m_noise,Trk::alongMomentum);
436  if(!propagate(TE.m_parametersUpdatedForward,m_parametersPredForward,m_step,ctx)) return false;
437  TE.m_parametersUpdatedForward.removeNoise(TE.m_noise,Trk::alongMomentum);
439  m_dholesForward = 0;
440  }
441  else {
442 
443  TE.m_parametersPredForward.addNoise (TE.m_noise,Trk::alongMomentum);
444  if(!propagate(TE.m_parametersPredForward,m_parametersPredForward,m_step,ctx)) return false;
445  TE.m_parametersPredForward.removeNoise(TE.m_noise,Trk::alongMomentum);
446  m_dholesForward = TE.m_dholesForward;
447  }
448 
450  m_status = 1 ;
451  m_nlinksForward = 0 ;
453  m_clusterOld = m_cluster ;
454  m_cluster = nullptr ;
455  m_clusterNoAdd = nullptr ;
456  m_xi2Forward = 10000. ;
457 
459  m_nholesForward = TE.m_nholesForward ;
460  m_nMissing = TE.m_nMissing ;
461  m_nclustersForward = TE.m_nclustersForward ;
462  m_ndfForward = TE.m_ndfForward ;
463  m_xi2totalForward = TE.m_xi2totalForward ;
464  m_step += TE.m_step ;
465 
466  if(m_tools->isITkGeometry() && !m_detelement) {
467  setDeadRadLength(m_parametersPredForward);
468  noiseProduction(1,m_parametersPredForward);
469  return true;
470  }
471 
473  checkBoundaries(m_parametersPredForward);
474 
476  if(m_inside > 0) {
477  noiseInitiate(); return true;
478  }
479 
481  m_nlinksForward=searchClusters(m_parametersPredForward,m_linkForward);
483  if(m_nlinksForward!=0) {
485  m_xi2Forward = m_linkForward[0].xi2();
486 
488  if (m_xi2Forward <= m_xi2max ) {
490  m_cluster = m_linkForward[0].cluster();
492  if(!addCluster(m_parametersPredForward,m_parametersUpdatedForward)) return false;
494  noiseProduction(1,m_parametersUpdatedForward);
496  ++m_nclustersForward;
498  m_xi2totalForward+=m_xi2Forward;
500  m_ndfForward+=m_ndf;
501  }
503  else if(m_xi2Forward <= m_xi2maxNoAdd) {
505  m_clusterNoAdd = m_linkForward[0].cluster();
507  noiseProduction(1,m_parametersPredForward);
508  }
509  }
510  else {
512  noiseProduction(1,m_parametersPredForward);
513  }
515  if(m_detstatus >=0 && !m_cluster) {
517  if(m_inside < 0 && !m_clusterNoAdd) {
518  ++m_nholesForward;
519  ++m_dholesForward;
520  }
522  if(m_dist < -2. ) ++m_nMissing;
523  }
524  return true;
525 }
526 
528 // Backward propagation for filter
530 
531 bool InDet::SiTrajectoryElement_xk::BackwardPropagationFilter
532 (InDet::SiTrajectoryElement_xk& TE, const EventContext& ctx)
533 {
534  // Track propagation
535  //
536  if(TE.m_noise.correctionIMom() < 1.) {
537 
538  if(TE.m_cluster) {
539 
540  TE.m_parametersUpdatedBackward.addNoise (TE.m_noise,Trk::oppositeMomentum);
541  if(!propagate(TE.m_parametersUpdatedBackward,m_parametersPredBackward,m_step,ctx)) return false;
542  TE.m_parametersUpdatedBackward.removeNoise(TE.m_noise,Trk::oppositeMomentum);
543  m_dholesBackward = 0;
544  }
545  else {
546 
547  TE.m_parametersPredBackward.addNoise (TE.m_noise,Trk::oppositeMomentum);
548  if(!propagate(TE.m_parametersPredBackward,m_parametersPredBackward,m_step,ctx)) return false;
549  TE.m_parametersPredBackward.removeNoise(TE.m_noise,Trk::oppositeMomentum);
550  m_dholesBackward = TE.m_dholesBackward;
551  }
552  }
553  else {
554 
555  if(TE.m_cluster) {
556 
557  if(!propagate(TE.m_parametersUpdatedBackward,m_parametersPredBackward,m_step,ctx)) return false;
558  m_dholesBackward = 0;
559  }
560  else {
561 
562  if(!propagate(TE.m_parametersPredBackward,m_parametersPredBackward,m_step,ctx)) return false;
563  m_dholesBackward = TE.m_dholesBackward;
564  }
565  }
566  m_status = 2;
567  m_nlinksBackward = 0;
568  m_clusterOld = m_cluster;
569  m_cluster = nullptr;
570  m_clusterNoAdd = nullptr;
571  m_xi2Backward = 10000.;
572  m_nholesBackward = TE.m_nholesBackward;
573  m_nMissing = TE.m_nMissing;
574  m_nclustersBackward = TE.m_nclustersBackward;
575  m_npixelsBackward = TE.m_npixelsBackward;
576  m_ndfBackward = TE.m_ndfBackward;
577  m_xi2totalBackward = TE.m_xi2totalBackward;
578  m_step += TE.m_step;
579 
580  if(m_tools->isITkGeometry() && !m_detelement) {
581  setDeadRadLength(m_parametersPredBackward);
582  noiseProduction(-1,m_parametersPredBackward);
583  return true;
584  }
585  checkBoundaries(m_parametersPredBackward);
586 
587  if(m_inside >0 ) {noiseInitiate(); return true;}
588 
589  if((m_nlinksBackward = searchClusters(m_parametersPredBackward,m_linkBackward))) {
590 
591  m_xi2Backward = m_linkBackward[0].xi2();
592 
593  if (m_xi2Backward <= m_xi2max ) {
594 
595  m_cluster = m_linkBackward[0].cluster();
596  if(!addCluster(m_parametersPredBackward,m_parametersUpdatedBackward)) return false;
597  noiseProduction(-1,m_parametersUpdatedBackward);
598  ++m_nclustersBackward; m_xi2totalBackward+=m_xi2Backward; m_ndfBackward+=m_ndf; if(m_ndf==2) ++m_npixelsBackward;
599  }
600  else if(m_xi2Backward <= m_xi2maxNoAdd) {
601 
602  m_clusterNoAdd = m_linkBackward[0].cluster();
603  noiseProduction(-1,m_parametersPredBackward);
604  }
605  }
606  else {
607  noiseProduction(-1,m_parametersPredBackward);
608  }
609 
610  if(m_detstatus >=0 && !m_cluster){
611  if(m_inside < 0 && !m_clusterNoAdd) {++m_nholesBackward; ++m_dholesBackward;}
612  if(m_dist < -2.) ++m_nMissing;
613  }
614  return true;
615 }
616 
618 // Backward propagation for smoother
620 
621 bool InDet::SiTrajectoryElement_xk::BackwardPropagationSmoother
622 (InDet::SiTrajectoryElement_xk& TE,bool isTwoSpacePointsSeed, const EventContext& ctx)
623 {
624 
625  // Track propagation
626  //
627  double step;
628  if(TE.m_cluster) {
629  if(!propagate(TE.m_parametersUpdatedBackward,m_parametersPredBackward,step,ctx)) return false;
630  m_dholesBackward = 0;
631  }
632  else {
633  if(!propagate(TE.m_parametersPredBackward,m_parametersPredBackward,step,ctx)) return false;
634  m_dholesBackward = TE.m_dholesBackward;
635  }
636 
637  m_parametersPredBackward.addNoise(m_noise,Trk::oppositeMomentum);
638  m_nholesBackward = TE.m_nholesBackward;
639  m_nMissing = TE.m_nMissing;
640  m_nclustersBackward = TE.m_nclustersBackward;
641  m_npixelsBackward = TE.m_npixelsBackward;
642  m_ndfBackward = TE.m_ndfBackward;
643  m_xi2totalBackward = TE.m_xi2totalBackward;
644 
645  // remove case if you have trajectory element without actual detector element
646  // this happens if you have added a dead cylinder
647  if(!m_detelement) {
648  m_status = 2;
649  return true;
650  }
651 
652  // Forward-backward predict parameters
653  //
654  if(!combineStates(m_parametersPredBackward,m_parametersPredForward,m_parametersSM)) return false;
655 
656  m_cluster ? m_status = 3 : m_status = 2;
657 
658  double Xi2max = m_xi2max; if( isTwoSpacePointsSeed) Xi2max*=2.;
659  checkBoundaries(m_parametersSM);
660  m_nlinksBackward = 0;
661  m_clusterOld = m_cluster;
662  m_cluster = nullptr;
663  m_clusterNoAdd = nullptr;
664  m_xi2Backward = 10000.;
665 
666  //m_step += TE.m_step ;
667  if(m_inside> 0 ) return true;
668 
669 
670  // For not first cluster on trajectory
671  //
672  if(!m_clusterOld || m_ndfForward != m_ndf || m_ndfForward+m_ndfBackward >6) {
673 
674  if((m_nlinksBackward = searchClusters(m_parametersSM,m_linkBackward))) {
675 
676  m_xi2Backward = m_linkBackward[0].xi2();
677 
678 
679  if (m_xi2Backward <= Xi2max) {
680 
681  m_cluster = m_linkBackward[0].cluster();
682 
683  if(!addCluster(m_parametersPredBackward,m_parametersUpdatedBackward)) return false;
684  ++m_nclustersBackward; m_xi2totalBackward+=m_xi2Backward; m_ndfBackward+=m_ndf; if(m_ndf==2) ++m_npixelsBackward;
685  }
686  else if(m_xi2Backward <= m_xi2maxNoAdd) {
687 
688  m_clusterNoAdd = m_linkBackward[0].cluster();
689  }
690  }
691  if(m_detstatus >=0 && !m_cluster) {
692  if(m_inside < 0 && !m_clusterNoAdd) {++m_nholesBackward; ++m_dholesBackward;}
693  if(m_dist < -2.) ++m_nMissing;
694  }
695  return true;
696  }
697 
698  // For first cluster of short trajectory
699  //
700  m_cluster = m_clusterOld;
701  if(!addCluster(m_parametersPredBackward,m_parametersUpdatedBackward,m_xi2Backward)) return false;
702 
703  if (m_xi2Backward <= Xi2max ) {++m_nclustersBackward; m_xi2totalBackward+=m_xi2Backward; m_ndfBackward+=m_ndf; if(m_ndf==2) ++m_npixelsBackward;}
704  else if(m_xi2Backward <= m_xi2maxNoAdd) {m_cluster = nullptr; m_clusterNoAdd = m_clusterOld; }
705  else {m_cluster = nullptr; }
706 
707  if(!m_cluster) {
708  if(m_inside < 0 && !m_clusterNoAdd) {++m_nholesBackward; ++m_dholesBackward;}
709  if(m_dist < -2.) ++m_nMissing;
710 
711  }
712  return true;
713 }
714 
716 // Backward propagation with precise information
718 
719 bool InDet::SiTrajectoryElement_xk::BackwardPropagationPrecise
720 (InDet::SiTrajectoryElement_xk& TE, const EventContext& ctx)
721 {
722 
723  // Track propagation
724  //
725  double step;
726  if(TE.m_cluster) {
727 
728  if(!propagate(TE.m_parametersUpdatedBackward,m_parametersPredBackward,step,ctx)) return false;
729  }
730  else {
731 
732  if(!propagate(TE.m_parametersPredBackward,m_parametersPredBackward,step,ctx)) return false;
733  }
734 
735  m_parametersPredBackward.addNoise(m_noise,Trk::oppositeMomentum);
736 
737  // Forward-backward predict parameters
738  //
739  if(m_cluster) {
740  m_status = 3 ;
741  if(!addClusterPrecise(m_parametersPredBackward,m_parametersUpdatedBackward,m_xi2Backward)) return false;
742  }
743  else {
744  m_status = 2 ;
745  }
746  return true;
747 }
748 
750 // Add next cluster for backward propagation
752 
753 bool InDet::SiTrajectoryElement_xk::addNextClusterB()
754 {
755  if(m_nlinksBackward <= 0) return false;
756 
757  if(m_cluster) m_xi2totalBackward-=m_xi2Backward;
758 
759  if(m_nlinksBackward > 1 && m_linkBackward[1].xi2() <= m_xi2max) {
760 
761  int n = 0;
762  for(; n!=m_nlinksBackward-1; ++n) m_linkBackward[n]=m_linkBackward[n+1];
763  m_nlinksBackward=n;
764 
765  m_cluster = m_linkBackward[0].cluster();
766  m_xi2Backward = m_linkBackward[0].xi2() ;
767  m_xi2totalBackward+= m_xi2Backward ;
768  if(!addCluster(m_parametersPredBackward,m_parametersUpdatedBackward)) return false;
769  }
770  else {
771  m_nlinksBackward = 0;
772  m_cluster = nullptr; --m_nclustersBackward; m_ndfBackward-=m_ndf; if(m_ndf==2) --m_npixelsBackward;
773  if(m_inside < 0 ) {++m_nholesBackward; ++m_dholesBackward;} m_xi2Backward = 0.;
774  if(m_dist < -2.) ++m_nMissing;
775  }
776  return true;
777 }
778 
780 // Add next cluster for forward propagation
782 
783 bool InDet::SiTrajectoryElement_xk::addNextClusterF()
784 {
785  if(m_nlinksForward <= 0) return false;
786 
787  if(m_cluster) m_xi2totalForward-=m_xi2Forward;
788 
789  if(m_nlinksForward > 1 && m_linkForward[1].xi2() <= m_xi2max) {
790 
791  int n = 0;
792  for(; n!=m_nlinksForward-1; ++n) m_linkForward[n]=m_linkForward[n+1];
793  m_nlinksForward=n;
794 
795  m_cluster = m_linkForward[0].cluster();
796  m_xi2Forward = m_linkForward[0].xi2() ;
797  m_xi2totalForward+= m_xi2Forward ;
798  if(!addCluster(m_parametersPredForward,m_parametersUpdatedForward)) return false;
799  }
800  else {
801  m_nlinksForward = 0;
802  m_cluster = nullptr; --m_nclustersForward; m_ndfForward-=m_ndf;
803  if(m_inside < 0) {++m_nholesForward; ++m_dholesForward;} m_xi2Forward = 0.;
804  if(m_dist < -2.) ++m_nMissing;
805  }
806  return true;
807 }
808 
810 // Add next cluster for backward propagation
812 
813 bool InDet::SiTrajectoryElement_xk::addNextClusterB
814 (InDet::SiTrajectoryElement_xk& TE,const InDet::SiCluster* Cl)
815 {
816 
817  m_clusterOld = m_cluster ;
818  m_cluster = Cl ;
819  m_nclustersBackward = TE.m_nclustersBackward;
820  m_npixelsBackward = TE.m_npixelsBackward ;
821  m_ndfBackward = TE.m_ndfBackward ;
822  m_nholesBackward = TE.m_nholesBackward ;
823  m_nMissing = TE.m_nMissing ;
824  m_xi2totalBackward = TE.m_xi2totalBackward ;
825 
826  TE.m_cluster ? m_dholesBackward = 0 : m_dholesBackward = TE.m_dholesBackward;
827 
828  if(Cl) {
829 
830  if(!addCluster(m_parametersPredBackward,m_parametersUpdatedBackward,m_xi2Backward)) return false;
831  m_inside = -1;
832  noiseProduction(-1,m_parametersUpdatedBackward);
833  ++m_nclustersBackward; m_xi2totalBackward+=m_xi2Backward; m_ndfBackward+=m_ndf; if(m_ndf==2) ++m_npixelsBackward;
834  }
835  else {
836 
837  if(m_inside < 0) {++m_nholesBackward; ++m_dholesBackward;} m_xi2Backward = 0.;
838  if(m_dist < -2.) ++m_nMissing;
839  }
840  return true;
841 }
842 
844 // Add next cluster for forward propagation
846 
847 bool InDet::SiTrajectoryElement_xk::addNextClusterF
848 (InDet::SiTrajectoryElement_xk& TE,const InDet::SiCluster* Cl)
849 {
851  m_clusterOld = m_cluster ;
853  m_cluster = Cl ;
854  m_nclustersForward = TE.m_nclustersForward;
856  m_ndfForward = TE.m_ndfForward ;
857  m_nholesForward = TE.m_nholesForward ;
858  m_nMissing = TE.m_nMissing ;
859  m_xi2totalForward = TE.m_xi2totalForward ;
862  if (TE.m_cluster){
863  m_dholesForward = 0;
864  }
866  else{
867  m_dholesForward = TE.m_dholesForward;
868  }
870  if(Cl) {
872  if(!addCluster(m_parametersPredForward,m_parametersUpdatedForward,m_xi2Forward)) return false;
874  m_inside = -1;
876  noiseProduction(1,m_parametersUpdatedForward);
878  ++m_nclustersForward;
879  m_xi2totalForward+=m_xi2Forward;
880  m_ndfForward+=m_ndf;
881  }
883  else {
885  if(m_inside < 0) {
886  ++m_nholesForward;
887  ++m_dholesForward;
888  }
890  m_xi2Forward = 0.;
892  if(m_dist < -2.) ++m_nMissing;
893  }
894  return true;
895 }
896 
898 // TrackStateOnSurface production
900 
901 Trk::TrackStateOnSurface*
902 InDet::SiTrajectoryElement_xk::trackStateOnSurface (bool change,bool cov,bool multi,int Q)
903 {
904  std::unique_ptr<Trk::TrackParameters> tp = nullptr;
905  if (!change) {
906  tp = trackParameters(cov, Q);
907  } else {
908  tp = trackParametersWithNewDirection(cov, Q);
909  }
910  if (!tp) {
911  return nullptr;
912  }
913  if (&tp->associatedSurface() != m_surface) {
914  return nullptr;
915  }
916 
917  Trk::FitQualityOnSurface fq{};
918  std::unique_ptr<Trk::MeasurementBase> ro{};
919 
920  if (m_status == 1) {
921  fq = Trk::FitQualityOnSurface(m_xi2Forward, m_ndf);
922  } else {
923  fq = Trk::FitQualityOnSurface(m_xi2Backward, m_ndf);
924  }
925 
926  std::bitset<Trk::TrackStateOnSurface::NumberOfTrackStateOnSurfaceTypes> pat(
927  0);
928 
929  if (m_cluster) {
930  ro.reset(m_riotool->correct(*m_cluster, *tp, Gaudi::Hive::currentContext()));
931  pat.set(Trk::TrackStateOnSurface::Measurement);
932  } else {
933  ro.reset(m_riotool->correct(*m_clusterNoAdd, *tp, Gaudi::Hive::currentContext()));
934  pat.set(Trk::TrackStateOnSurface::Outlier);
935  }
936  auto sa = Trk::ScatteringAngles(
937  0., 0., std::sqrt(m_noise.covarianceAzim()), std::sqrt(m_noise.covariancePola()));
938 
939  auto meTemplate = std::make_unique<Trk::MaterialEffectsOnTrack>(
940  m_radlengthN, sa, tp->associatedSurface());
941 
942  pat.set(Trk::TrackStateOnSurface::Scatterer);
943  Trk::TrackStateOnSurface* sos =
944  new Trk::TrackStateOnSurface(fq, std::move(ro), std::move(tp), meTemplate->uniqueClone(), pat);
945 
946  m_tsos[0] = sos;
947  m_utsos[0] = true;
948  m_ntsos = 1;
949 
950  if (multi && m_cluster && m_ndf == 2 && m_nlinksBackward > 1) {
951  for(int i=1; i!= m_nlinksBackward; ++i) {
952  if(m_linkBackward[i].xi2() > m_xi2multi) break;
953  std::unique_ptr<Trk::TrackParameters> tpn{};
954  if (!change) {
955  tpn = trackParameters(cov, Q);
956  } else {
957  tpn = trackParametersWithNewDirection(cov, Q);
958  }
959  if (!tpn){
960  break;
961  }
962  auto fqn = Trk::FitQualityOnSurface(m_linkBackward[i].xi2(),m_ndf);
963  std::unique_ptr<Trk::MeasurementBase> ron(m_riotool->correct(
964  *m_linkBackward[i].cluster(), *(sos->trackParameters()), Gaudi::Hive::currentContext()) );
965  m_tsos[m_ntsos] = new Trk::TrackStateOnSurface(
966  fqn, std::move(ron), std::move(tpn), meTemplate->uniqueClone(), pat);
967  m_utsos[m_ntsos] = false;
968  if(++m_ntsos == 3) break;
969  }
970  }
971  return sos;
972 }
973 
975 // TrackStateOnSurface production for simple track
977 
978 Trk::TrackStateOnSurface*
979 InDet::SiTrajectoryElement_xk::trackSimpleStateOnSurface
980 (bool change,bool cov,int Q)
981 {
982  if(!m_detelement) {
983  return nullptr;
984  }
985 
986  std::unique_ptr<Trk::TrackParameters> tp = nullptr;
987 
988  if (Q) {
989  if (!change) {
990  tp = trackParameters(cov, Q);
991  } else {
992  tp = trackParametersWithNewDirection(cov, Q);
993  }
994  if (!tp) {
995  return nullptr;
996  }
997  if (&tp->associatedSurface() != m_surface) {
998  return nullptr;
999  }
1000  }
1001 
1002  IdentifierHash iH = m_detelement->identifyHash();
1003  std::unique_ptr<Trk::MeasurementBase> ro{};
1004  std::bitset<Trk::TrackStateOnSurface::NumberOfTrackStateOnSurfaceTypes> pat(
1005  0);
1006 
1007  const InDet::SiCluster* cl = nullptr;
1008  if (m_cluster) {
1009  cl = m_cluster;
1010  pat.set(Trk::TrackStateOnSurface::Measurement);
1011  } else {
1012  cl = m_clusterNoAdd;
1013  pat.set(Trk::TrackStateOnSurface::Outlier);
1014  }
1015  pat.set(Trk::TrackStateOnSurface::Scatterer);
1016 
1017  Trk::LocalParameters locp = Trk::LocalParameters(cl->localPosition());
1018  Amg::MatrixX cv = cl->localCovariance();
1019 
1020  Trk::FitQualityOnSurface fq{};
1021  if (m_status == 1) fq = Trk::FitQualityOnSurface(m_xi2Forward,m_ndf);
1022  else fq = Trk::FitQualityOnSurface(m_xi2Backward,m_ndf);
1023 
1024  if (m_ndf == 1) {
1025  const InDet::SCT_Cluster* sc = static_cast<const InDet::SCT_Cluster*>(cl);
1026  if (sc)
1027  ro = std::make_unique<InDet::SCT_ClusterOnTrack>(sc, std::move(locp), std::move(cv), iH, sc->globalPosition());
1028  } else {
1029  const InDet::PixelCluster* pc = static_cast<const InDet::PixelCluster*>(cl);
1030  if (pc)
1031  ro = std::make_unique<InDet::PixelClusterOnTrack>(
1032  pc, std::move(locp), std::move(cv), iH, pc->globalPosition(), pc->gangedPixel());
1033  }
1034  return new Trk::TrackStateOnSurface(fq, std::move(ro), std::move(tp), nullptr, pat);
1035 }
1036 
1038 // TrackStateOnSurface production for perigee
1040 
1041 Trk::TrackStateOnSurface*
1042 InDet::SiTrajectoryElement_xk::trackPerigeeStateOnSurface (const EventContext& ctx)
1043 {
1044  if(&m_parametersUpdatedBackward.associatedSurface()!=m_surface) return nullptr;
1045 
1046  double step ;
1047  Trk::PatternTrackParameters Tp;
1048 
1049  Trk::PerigeeSurface per;
1050 
1051  bool Q = m_proptool->propagate
1052  (ctx,
1053  m_parametersUpdatedBackward, per,Tp,Trk::anyDirection,m_tools->fieldTool(),step,Trk::pion);
1054 
1055  if(Q) {
1056  std::bitset<Trk::TrackStateOnSurface::NumberOfTrackStateOnSurfaceTypes> typePattern;
1057  typePattern.set(Trk::TrackStateOnSurface::Perigee);
1058  return new Trk::TrackStateOnSurface(nullptr,Tp.convert(true),nullptr,typePattern);
1059  }
1060  return nullptr;
1061 }
1062 
1064 // TrackParameters production
1065 // Q = 0 no first or last element of the trajectory
1066 // Q = 1 first element of the trajectory
1067 // Q = 2 last element of the trajectory
1069 
1070 std::unique_ptr<Trk::TrackParameters>
1071 InDet::SiTrajectoryElement_xk::trackParameters(bool cov, int Q)
1072 {
1073  if (m_status == 1) {
1074  if (m_cluster) {
1075  return m_parametersUpdatedForward.convert(cov);
1076  } else {
1077  return m_parametersPredForward.convert(cov);
1078  }
1079  } else if (m_status == 2) {
1080  if (m_cluster) {
1081  return m_parametersUpdatedBackward.convert(cov);
1082  } else {
1083  return m_parametersPredBackward.convert(cov);
1084  }
1085  } else if (m_status == 3) {
1086  if (Q == 0) {
1087  if (m_cluster) {
1088  if (addCluster(m_parametersSM, m_parametersSM)) {
1089  return m_parametersSM.convert(cov);
1090  } else if ((*m_parametersUpdatedBackward.covariance())(4, 4) <
1091  (*m_parametersPredForward.covariance())(4, 4)) {
1092  return m_parametersUpdatedBackward.convert(cov);
1093  } else {
1094  return m_parametersPredForward.convert(cov);
1095  }
1096  } else
1097  return m_parametersSM.convert(cov);
1098  }
1099  if (Q == 1) {
1100  if (m_cluster) {
1101  return m_parametersUpdatedBackward.convert(cov);
1102  }
1103  }
1104  if (Q == 2) {
1105  if (m_cluster) {
1106  return m_parametersUpdatedForward.convert(cov);
1107  }
1108  }
1109  }
1110  return nullptr;
1111 }
1112 
1114 // Noise production
1115 // Dir = +1 along momentum , -1 opposite momentum
1116 // Model = 1 - muon, 2 - electron
1117 // useMomentum = true - use m_invMoment instead of Tp.par()[4]
1119 
1120 void InDet::SiTrajectoryElement_xk::noiseProduction
1121 (int Dir,const Trk::PatternTrackParameters& Tp,double rad_length, bool useMomentum)
1122 {
1123 
1124  int Model = m_noisemodel;
1125  if(Model < 1 || Model > 2) return;
1126  if (rad_length<0.) rad_length=m_radlength;
1127 
1128  double q = useMomentum ? m_invMoment : std::abs(Tp.parameters()[4]);
1129 
1131  double s = std::abs(m_localDir[0]*m_localTransform[6]+
1132  m_localDir[1]*m_localTransform[7]+
1133  m_localDir[2]*m_localTransform[8]);
1134  if(m_tools->isITkGeometry() && !m_detelement) s = sqrt(m_localDir[0]*m_localDir[0]+m_localDir[1]*m_localDir[1]);
1135 
1136  if(m_tools->isITkGeometry()){
1137  if (s < .01) s = 100.;
1138  else s = 1./s;
1139  }
1140  else{
1141  if (s < .05) s = 20.;
1142  else s = 1./s;
1143  }
1144 
1146  m_radlengthN = s*m_radlength;
1150  double covariancePola = (134.*m_radlengthN)*(q*q);
1151  if(m_tools->isITkGeometry()){
1152  double qc = (1.+.038*log(m_radlengthN))*q;
1153  covariancePola = (185.*m_radlengthN)*qc*qc;
1154  }
1155 
1157  double d = (1.-m_localDir[2])*(1.+m_localDir[2]);
1159  if(d < 1.e-5) d = 1.e-5;
1161  double covarianceAzim = covariancePola/d;
1162 
1163  double covarianceIMom;
1164  double correctionIMom;
1165 
1167  if(Model==1) {
1169  double dp = m_energylose*q*s;
1171  covarianceIMom = (.2*dp*dp)*(q*q);
1173  correctionIMom = 1.-dp;
1174  }
1176  else {
1177  correctionIMom = .70;
1178  covarianceIMom = (correctionIMom-1.)*(correctionIMom-1.)*(q*q);
1179  }
1181  if(Dir>0) correctionIMom = 1./correctionIMom;
1183  m_noise.set(covarianceAzim,covariancePola,covarianceIMom,correctionIMom);
1184 }
1185 
1186 
1188 // TrackParameters production with new direction
1189 // Q = 0 no first or last element of the trajectory
1190 // Q = 1 first element of the trajectory
1191 // Q = 2 last element of the trajectory
1193 
1194 std::unique_ptr<Trk::TrackParameters>
1195 InDet::SiTrajectoryElement_xk::trackParametersWithNewDirection(bool cov, int Q)
1196 {
1197  if (m_status == 1) {
1198  if (m_cluster) {
1199  return trackParameters(m_parametersUpdatedForward, cov);
1200  } else {
1201  return trackParameters(m_parametersPredForward, cov);
1202  }
1203 
1204  } else if (m_status == 2) {
1205  if (m_cluster) {
1206  return trackParameters(m_parametersUpdatedBackward, cov);
1207  } else {
1208  return trackParameters(m_parametersPredBackward, cov);
1209  }
1210  } else if (m_status == 3) {
1211 
1212  if (Q == 0) {
1213  if (m_cluster) {
1214  if (addCluster(m_parametersSM, m_parametersSM))
1215  return trackParameters(m_parametersSM, cov);
1216  else if ((*m_parametersUpdatedBackward.covariance())(4, 4) <
1217  (*m_parametersPredForward.covariance())(4, 4)) {
1218  return trackParameters(m_parametersUpdatedBackward, cov);
1219  } else {
1220  return trackParameters(m_parametersPredForward, cov);
1221  }
1222  } else {
1223  return trackParameters(m_parametersSM, cov);
1224  }
1225  }
1226  if (Q == 1) {
1227  if (m_cluster){
1228  return trackParameters(m_parametersUpdatedBackward, cov);
1229  }
1230  }
1231  if (Q == 2) {
1232  if (m_cluster){
1233  return trackParameters(m_parametersUpdatedForward, cov);
1234  }
1235  }
1236  }
1237  return nullptr;
1238 }
1239 
1241 // TrackParameters production with new direction
1243 std::unique_ptr<Trk::TrackParameters>
1244 InDet::SiTrajectoryElement_xk::trackParameters
1245 (Trk::PatternTrackParameters& Tp,bool cov)
1246 {
1247  Tp.changeDirection();
1248  return Tp.convert(cov);
1249 }
1250 
1251 
1253 // Step calculation
1255 
1256 double InDet::SiTrajectoryElement_xk::step
1257 (InDet::SiTrajectoryElement_xk& TE)
1258 {
1259  Trk::PatternTrackParameters Ta,Tb;
1260 
1261  if (TE.m_status == 1) {
1262  if(TE.m_cluster) Ta = TE.m_parametersUpdatedForward;
1263  else Ta = TE.m_parametersPredForward;
1264  }
1265  else if(TE.m_status == 2) {
1266  if(TE.m_cluster) Ta = TE.m_parametersUpdatedBackward;
1267  else Ta = TE.m_parametersPredBackward;
1268  }
1269  else if(TE.m_status == 3) {
1270  Ta = TE.m_parametersSM;
1271  }
1272  double step = 0.;
1273  bool Q = propagateParameters(Ta,Tb,step);
1274  if(Q) return step;
1275  return 0.;
1276 }
1277 
1279 // Global position of track parameters
1281 
1282 Amg::Vector3D InDet::SiTrajectoryElement_xk::globalPosition()
1283 {
1284  if (m_status == 1) {
1285  if(m_cluster) return m_parametersUpdatedForward.position();
1286  else return m_parametersPredForward.position();
1287  }
1288  else if(m_status == 2) {
1289  if(m_cluster) return m_parametersUpdatedBackward.position();
1290  else return m_parametersPredBackward.position();
1291  }
1292  else if(m_status == 3) {
1293 
1294  Amg::Vector3D gp(0.,0.,0.);
1295  bool QA; Trk::PatternTrackParameters S1,SM,S2(parametersPF());
1296 
1297  if(m_cluster) S1 = parametersUB();
1298  else S1 = parametersPB();
1299 
1300  QA = m_updatorTool->combineStates(S1,S2,SM);
1301 
1302  if(QA) {
1303  gp = SM.position();
1304  }
1305  return gp;
1306  }
1307  Amg::Vector3D gp(0.,0.,0.);
1308  return gp;
1309 }
1310 
1312 // Step estimation to 0,0,0
1314 
1315 double InDet::SiTrajectoryElement_xk::stepToPerigee()
1316 {
1317  Amg::Vector3D M;
1318  Amg::Vector3D P;
1319 
1320  if(m_cluster) {
1321  M = m_parametersUpdatedBackward.momentum();
1322  P = m_parametersUpdatedBackward.position();
1323  }
1324  else {
1325  M = m_parametersPredBackward.momentum();
1326  P = m_parametersPredBackward.position();
1327  }
1328 
1329  return -(P[0]*M[0]+P[1]*M[1]);
1330 }
1331 
1333 // Errase cluster fo forward propagation
1335 
1336 void InDet::SiTrajectoryElement_xk::eraseClusterForwardPropagation()
1337 {
1338  m_cluster=nullptr;
1339  --m_nclustersForward;
1340  m_xi2totalForward-=m_xi2Forward;
1341  m_ndfForward-=m_ndf;
1342 }
1343 
1345 // Quality of the trajectory element
1347 
1348 double InDet::SiTrajectoryElement_xk::quality(int& holes) const
1349 {
1350 
1351  if(!m_cluster && !m_clusterNoAdd) {
1352 
1353  if(m_detstatus < 0) return 0.;
1354 
1355  if (m_inside < 0) {
1356  double w = 2.-m_xi2max; if(++holes > 1) w*=2.; return w;
1357  }
1358  else if(m_inside == 0) return -1.;
1359  else return 0.;
1360  }
1361 
1362  double w,X,Xc = m_xi2max+2.;
1363  m_status == 1 ? X = m_xi2Forward : X = m_xi2Backward;
1364  m_ndf == 2 ? w = 1.2*(Xc-X*.5) : w = Xc-X ; if(w < -1.) w = -1.;
1365  holes = 0;
1366 
1367  return w;
1368 }
1369 
1371 // Main function for pattern track parameters and covariance matrix propagation
1372 // to PlaneSurface.
1377 bool
1378 InDet::SiTrajectoryElement_xk::propagate(Trk::PatternTrackParameters & startingParameters,
1379  Trk::PatternTrackParameters & outputParameters,
1380  double & StepLength,
1381  const EventContext& ctx ) {
1382  if (Trk::SurfaceType::Plane == m_surface->type() and
1383  Trk::SurfaceType::Plane == startingParameters.associatedSurface().type()) {
1384  bool useJac = (startingParameters.iscovariance());
1385  double globalParameters[64];
1386 
1395  if(!transformPlaneToGlobal(useJac,startingParameters,globalParameters)) return false;
1397  if( m_fieldMode) {
1398  if(!rungeKuttaToPlane (useJac,globalParameters)) return false;
1399  }
1401  else {
1402  if(!straightLineStepToPlane(useJac,globalParameters)) return false;
1403  }
1405  StepLength = globalParameters[45];
1407  return transformGlobalToPlane(useJac,globalParameters,startingParameters,outputParameters);
1408  } else {
1409  if (!m_proptool->propagate (ctx,
1410  startingParameters, *m_surface, outputParameters,
1411  Trk::anyDirection, m_tools->fieldTool(), StepLength, Trk::pion))
1412  return false;
1413 
1414  double sinPhi,cosPhi,sinTheta,cosTheta;
1415  sincos(outputParameters.parameters()[2],&sinPhi,&cosPhi);
1416  sincos(outputParameters.parameters()[3],&sinTheta,&cosTheta);
1417  m_localDir[0] = cosPhi*sinTheta;
1418  m_localDir[1] = sinPhi*sinTheta;
1419  m_localDir[2] = cosTheta;
1420  return true;
1421  }
1422 }
1423 
1425 // Main function for pattern track parameters propagation without covariance.
1430 
1431 bool
1432 InDet::SiTrajectoryElement_xk::propagateParameters(Trk::PatternTrackParameters & startingParameters,
1433  Trk::PatternTrackParameters & outputParameters,
1434  double & StepLength ) {
1435  bool useJac = false;
1436  double globalParameters[64];
1437  if(!transformPlaneToGlobal(useJac,startingParameters,globalParameters)) return false;
1447  if( m_fieldMode) {
1448  if(!rungeKuttaToPlane (useJac,globalParameters)) return false;
1449  }
1451  else {
1452  if(!straightLineStepToPlane(useJac,globalParameters)) return false;
1453  }
1455  StepLength = globalParameters[45];
1457  return transformGlobalToPlane(useJac,globalParameters,startingParameters,outputParameters);
1458 }
1459 
1474 // /////////////////////////////////////////////////////////////////////////////////
1475 
1476 bool InDet::SiTrajectoryElement_xk::transformPlaneToGlobal(bool useJac,
1477  Trk::PatternTrackParameters& localParameters,
1478  double* globalPars) {
1480  double sinPhi,cosPhi,cosTheta,sintheta;
1481  sincos(localParameters.parameters()[2],&sinPhi,&cosPhi);
1482  sincos(localParameters.parameters()[3],&sintheta,&cosTheta);
1483  if (m_tools->isITkGeometry()) {
1484  if(std::abs(sintheta) < std::abs(localParameters.parameters()[4])*50.) return false;
1485  }
1487  const Trk::Surface* pSurface=&localParameters.associatedSurface();
1488  if (!pSurface){
1489  throw(std::runtime_error("TrackParameters associated surface is null pointer in InDet::SiTrajectoryElement_xk::transformPlaneToGlobal"));
1490  }
1492  const Amg::Transform3D& T = pSurface->transform();
1493 
1495  double Ax[3] = {T(0,0),T(1,0),T(2,0)};
1496  double Ay[3] = {T(0,1),T(1,1),T(2,1)};
1497 
1499  globalPars[ 0] = localParameters.parameters()[0]*Ax[0]+localParameters.parameters()[1]*Ay[0]+T(0,3); // X
1500  globalPars[ 1] = localParameters.parameters()[0]*Ax[1]+localParameters.parameters()[1]*Ay[1]+T(1,3); // Y
1501  globalPars[ 2] = localParameters.parameters()[0]*Ax[2]+localParameters.parameters()[1]*Ay[2]+T(2,3); // Z
1503  globalPars[ 3] = cosPhi*sintheta; // Ax
1504  globalPars[ 4] = sinPhi*sintheta; // Ay
1505  globalPars[ 5] = cosTheta;
1507  globalPars[ 6] = localParameters.parameters()[4]; // CM
1509  if(std::abs(globalPars[6])<1.e-20) {
1510  if (globalPars[6] < 0){
1511  globalPars[6]=-1.e-20;
1512  }
1513  else globalPars[6]= 1.e-20;
1514  }
1515 
1517  if(useJac) {
1518 
1519  // /dL1 | /dL2 | /dPhi | /dThe | /dCM |
1520  globalPars[ 7] = Ax[0]; globalPars[14] = Ay[0]; globalPars[21] = 0.; globalPars[28] = 0.; globalPars[35] = 0.; // dX /
1521  globalPars[ 8] = Ax[1]; globalPars[15] = Ay[1]; globalPars[22] = 0.; globalPars[29] = 0.; globalPars[36] = 0.; // dY /
1522  globalPars[ 9] = Ax[2]; globalPars[16] = Ay[2]; globalPars[23] = 0.; globalPars[30] = 0.; globalPars[37] = 0.; // dZ /
1523  globalPars[10] = 0.; globalPars[17] = 0.; globalPars[24] =-globalPars[4]; globalPars[31] = cosPhi*cosTheta; globalPars[38] = 0.; // dAx/
1524  globalPars[11] = 0.; globalPars[18] = 0.; globalPars[25] = globalPars[3]; globalPars[32] = sinPhi*cosTheta; globalPars[39] = 0.; // dAy/
1525  globalPars[12] = 0.; globalPars[19] = 0.; globalPars[26] = 0.; globalPars[33] = -sintheta; globalPars[40] = 0.; // dAz/
1526 
1528  globalPars[42] = 0.;
1529  globalPars[43] = 0.;
1530  globalPars[44] = 0.;
1531  }
1533  globalPars[45] = 0.;
1534  return true;
1535 }
1536 
1550 // /////////////////////////////////////////////////////////////////////////////////
1551 bool InDet::SiTrajectoryElement_xk::transformGlobalToPlane
1552 (bool useJac,double* globalPars,Trk::PatternTrackParameters& startingParameters,Trk::PatternTrackParameters& outputParameters)
1553 {
1555  double Ax[3] = {m_localTransform[0],m_localTransform[1],m_localTransform[2]};
1556  double Ay[3] = {m_localTransform[3],m_localTransform[4],m_localTransform[5]};
1557  double Az[3] = {m_localTransform[6],m_localTransform[7],m_localTransform[8]};
1559  double d [3] = {globalPars[0]-m_localTransform[ 9],
1560  globalPars[1]-m_localTransform[10],
1561  globalPars[2]-m_localTransform[11]};
1562 
1564  double p[5] = {
1565  d[0]*Ax[0]+d[1]*Ax[1]+d[2]*Ax[2],
1566  d[0]*Ay[0]+d[1]*Ay[1]+d[2]*Ay[2],
1567  atan2(globalPars[4],globalPars[3]),
1568  acos(globalPars[5]),
1569  globalPars[6]
1570  };
1571 
1573  m_localDir[0] = globalPars[3];
1574  m_localDir[1] = globalPars[4];
1575  m_localDir[2] = globalPars[5];
1576 
1577  if (useJac) {
1579  double A = Az[0]*globalPars[3]+Az[1]*globalPars[4]+Az[2]*globalPars[5];
1580  if(A!=0.) A=1./A;
1581  double s0 = Az[0]*globalPars[ 7]+Az[1]*globalPars[ 8]+Az[2]*globalPars[ 9];
1582  double s1 = Az[0]*globalPars[14]+Az[1]*globalPars[15]+Az[2]*globalPars[16];
1583  double s2 = Az[0]*globalPars[21]+Az[1]*globalPars[22]+Az[2]*globalPars[23];
1584  double s3 = Az[0]*globalPars[28]+Az[1]*globalPars[29]+Az[2]*globalPars[30];
1585  double s4 = Az[0]*globalPars[35]+Az[1]*globalPars[36]+Az[2]*globalPars[37];
1586  double T0 =(Ax[0]*globalPars[ 3]+Ax[1]*globalPars[ 4]+Ax[2]*globalPars[ 5])*A;
1587  double T1 =(Ay[0]*globalPars[ 3]+Ay[1]*globalPars[ 4]+Ay[2]*globalPars[ 5])*A;
1588  double n = 1./globalPars[6];
1589 
1590  double Jac[21];
1591 
1592  // Jacobian production
1593  //
1594  Jac[ 0] = (Ax[0]*globalPars[ 7]+Ax[1]*globalPars[ 8])+(Ax[2]*globalPars[ 9]-s0*T0); // dL0/dL0
1595  Jac[ 1] = (Ax[0]*globalPars[14]+Ax[1]*globalPars[15])+(Ax[2]*globalPars[16]-s1*T0); // dL0/dL1
1596  Jac[ 2] = (Ax[0]*globalPars[21]+Ax[1]*globalPars[22])+(Ax[2]*globalPars[23]-s2*T0); // dL0/dPhi
1597  Jac[ 3] = (Ax[0]*globalPars[28]+Ax[1]*globalPars[29])+(Ax[2]*globalPars[30]-s3*T0); // dL0/dThe
1598  Jac[ 4] =((Ax[0]*globalPars[35]+Ax[1]*globalPars[36])+(Ax[2]*globalPars[37]-s4*T0))*n; // dL0/dCM
1599 
1600  Jac[ 5] = (Ay[0]*globalPars[ 7]+Ay[1]*globalPars[ 8])+(Ay[2]*globalPars[ 9]-s0*T1); // dL1/dL0
1601  Jac[ 6] = (Ay[0]*globalPars[14]+Ay[1]*globalPars[15])+(Ay[2]*globalPars[16]-s1*T1); // dL1/dL1
1602  Jac[ 7] = (Ay[0]*globalPars[21]+Ay[1]*globalPars[22])+(Ay[2]*globalPars[23]-s2*T1); // dL1/dPhi
1603  Jac[ 8] = (Ay[0]*globalPars[28]+Ay[1]*globalPars[29])+(Ay[2]*globalPars[30]-s3*T1); // dL1/dThe
1604  Jac[ 9] =((Ay[0]*globalPars[35]+Ay[1]*globalPars[36])+(Ay[2]*globalPars[37]-s4*T1))*n; // dL1/dCM
1605 
1606  double P3=0;
1607  double P4=0;
1609  double C = globalPars[3]*globalPars[3]+globalPars[4]*globalPars[4];
1610  if(C > 1.e-20) {
1611  C= 1./C ;
1613  P3 = globalPars[3]*C;
1614  P4 =globalPars[4]*C;
1615  C =-sqrt(C);
1616  }
1617  else{
1618  C=-1.e10;
1619  P3 = 1.;
1620  P4 =0.;
1621  }
1622 
1623  double T2 =(P3*globalPars[43]-P4*globalPars[42])*A;
1624  double C44 = C*globalPars[44] *A;
1625 
1626  Jac[10] = P3*globalPars[11]-P4*globalPars[10]-s0*T2; // dPhi/dL0
1627  Jac[11] = P3*globalPars[18]-P4*globalPars[17]-s1*T2; // dPhi/dL1
1628  Jac[12] = P3*globalPars[25]-P4*globalPars[24]-s2*T2; // dPhi/dPhi
1629  Jac[13] = P3*globalPars[32]-P4*globalPars[31]-s3*T2; // dPhi/dThe
1630  Jac[14] =(P3*globalPars[39]-P4*globalPars[38]-s4*T2)*n; // dPhi/dCM
1631 
1632  Jac[15] = C*globalPars[12]-s0*C44; // dThe/dL0
1633  Jac[16] = C*globalPars[19]-s1*C44; // dThe/dL1
1634  Jac[17] = C*globalPars[26]-s2*C44; // dThe/dPhi
1635  Jac[18] = C*globalPars[33]-s3*C44; // dThe/dThe
1636  Jac[19] =(C*globalPars[40]-s4*C44)*n; // dThe/dCM
1637  Jac[20] = 1.; // dCM /dCM
1638 
1640  AmgSymMatrix(5) newCov = Trk::RungeKuttaUtils::newCovarianceMatrix(Jac, *startingParameters.covariance());
1641  outputParameters.setParametersWithCovariance(m_surface, p, newCov);
1642 
1644  const AmgSymMatrix(5) & t = *outputParameters.covariance();
1645  if(t(0, 0)<=0. || t(1, 1)<=0. || t(2, 2)<=0. || t(3, 3)<=0. || t(4, 4)<=0.) return false;
1646  } else {
1648  outputParameters.setParameters(m_surface,p);
1649  }
1650 
1651  return true;
1652 }
1653 
1659 
1660 bool InDet::SiTrajectoryElement_xk::rungeKuttaToPlane
1661 (bool Jac,double* globalPars)
1662 {
1664  const double Smin = .1 ;
1667  const double Shel = 5. ;
1669  const double dlt = .001 ;
1670 
1672  if(std::abs(globalPars[6]) > .05) return false;
1673 
1674 
1675  int it = 0;
1676  double* R = &globalPars[ 0]; // Coordinates
1677 
1678  double* A = &globalPars[ 3]; // Directions
1679 
1680  double* sA = &globalPars[42];
1681  double Pi = 149.89626*globalPars[6];
1682  double Pa = std::abs (globalPars[6]);
1684 
1686  double a = A[0]*m_localTransform[6]+A[1]*m_localTransform[7]+A[2]*m_localTransform[8];
1687  if(a==0.) return false;
1689  double S = ((m_localTransform[12]-R[0]*m_localTransform[6])-(R[1]*m_localTransform[7]+R[2]*m_localTransform[8]))/a;
1690  double S0 = std::abs(S) ;
1691 
1695  if(S0 <= Smin) {
1696  R[0]+=(A[0]*S);
1697  R[1]+=(A[1]*S);
1698  R[2]+=(A[2]*S);
1699  globalPars[45]+=S;
1700  return true;
1701  }
1704  else if( (Pa*S0) > .3) {
1705  if (S >0) S = 0.3 / Pa;
1706  else S = -0.3/Pa;
1707  }
1708 
1709  bool ste = false;
1710 
1712  double f0[3];
1713  double f[3];
1714 
1716  m_fieldCache.getFieldZR(R,f0);
1717 
1718 
1719  while(true) {
1720 
1721  bool Helix = false;
1723  if(std::abs(S) < Shel) Helix = true;
1724  double S3=(1./3.)*S;
1725  double S4=.25*S;
1726  double PS2=Pi*S;
1727 
1730  double H0[3] = {f0[0]*PS2,
1731  f0[1]*PS2,
1732  f0[2]*PS2};
1733 
1734  double A0 = A[1]*H0[2]-A[2]*H0[1] ;
1735  double B0 = A[2]*H0[0]-A[0]*H0[2] ;
1736  double C0 = A[0]*H0[1]-A[1]*H0[0] ;
1737 
1738  double A2 = A0+A[0] ;
1739  double B2 = B0+A[1] ;
1740  double C2 = C0+A[2] ;
1741 
1742  double A1 = A2+A[0] ;
1743  double B1 = B2+A[1] ;
1744  double C1 = C2+A[2] ;
1745 
1746  // Second point
1747  //
1748  if(!Helix) {
1749  double gP[3]={R[0]+A1*S4,
1750  R[1]+B1*S4,
1751  R[2]+C1*S4};
1752 
1753  m_fieldCache.getFieldZR(gP,f);
1754 
1755  }
1757  else {
1758  f[0]=f0[0];
1759  f[1]=f0[1];
1760  f[2]=f0[2];
1761  }
1762 
1763  double H1[3] = {f[0]*PS2,
1764  f[1]*PS2,
1765  f[2]*PS2};
1766  double A3 = (A[0]+B2*H1[2])-C2*H1[1] ;
1767  double B3 = (A[1]+C2*H1[0])-A2*H1[2] ;
1768  double C3 = (A[2]+A2*H1[1])-B2*H1[0] ;
1769 
1770  double A4 = (A[0]+B3*H1[2])-C3*H1[1] ;
1771  double B4 = (A[1]+C3*H1[0])-A3*H1[2] ;
1772  double C4 = (A[2]+A3*H1[1])-B3*H1[0] ;
1773 
1774  double A5 = 2.*A4-A[0] ;
1775  double B5 = 2.*B4-A[1] ;
1776  double C5 = 2.*C4-A[2] ;
1777 
1778  // Last point
1779  //
1780  if(!Helix) {
1781  double gP[3]={R[0]+S*A4,
1782  R[1]+S*B4,
1783  R[2]+S*C4};
1784 
1785  m_fieldCache.getFieldZR(gP,f);
1786 
1787  }
1788  else{
1789  f[0]=f0[0];
1790  f[1]=f0[1];
1791  f[2]=f0[2];
1792  }
1793 
1794  double H2[3] = {f[0]*PS2,
1795  f[1]*PS2,
1796  f[2]*PS2};
1797 
1798  double A6 = B5*H2[2]-C5*H2[1] ;
1799  double B6 = C5*H2[0]-A5*H2[2] ;
1800  double C6 = A5*H2[1]-B5*H2[0] ;
1801 
1802  // Test approximation quality on give step and possible step reduction
1803  //
1804  if(!ste) {
1805  double EST = std::abs((A1+A6)-(A3+A4))+std::abs((B1+B6)-(B3+B4))+std::abs((C1+C6)-(C3+C4));
1806  if(EST>dlt) {
1807  S*=.6;
1808  continue;
1809  }
1810  }
1811 
1814  if((!ste && S0 > std::abs(S)*100.) || std::abs(globalPars[45]+=S) > 2000.) return false;
1815  ste = true;
1816 
1817  double A0arr[3]{A0,B0,C0};
1818  double A3arr[3]{A3,B3,C3};
1819  double A4arr[3]{A4,B4,C4};
1820  double A6arr[3]{A6,B6,C6};
1821 
1822  if(Jac) {
1823  Trk::propJacobian(globalPars,H0,H1,H2,A,A0arr,A3arr,A4arr,A6arr,S3);
1824  }
1825 
1826  R[0]+=(A2+A3+A4)*S3;
1827  A[0] = ((A0+2.*A3)+(A5+A6));
1828  R[1]+=(B2+B3+B4)*S3;
1829  A[1] = ((B0+2.*B3)+(B5+B6));
1830  R[2]+=(C2+C3+C4)*S3;
1831  A[2] = ((C0+2.*C3)+(C5+C6));
1832  if(!m_tools->isITkGeometry()){
1833  A[0] *= 1./3.;
1834  A[1] *= 1./3.;
1835  A[2] *= 1./3.;
1836  }
1837 
1838  double D = 1./sqrt(A[0]*A[0]+A[1]*A[1]+A[2]*A[2]);
1839  A[0]*=D; A[1]*=D; A[2]*=D;
1840 
1843  double a = A[0]*m_localTransform[6]+A[1]*m_localTransform[7]+A[2]*m_localTransform[8];
1844  if(a==0.) return false;
1845  double Sn = ((m_localTransform[12]-R[0]*m_localTransform[6])-(R[1]*m_localTransform[7]+R[2]*m_localTransform[8]))/a;
1846  double aSn = std::abs(Sn);
1847 
1850  if(aSn <= Smin) {
1851  double Sl = 2./S;
1852  sA[0] = A6*Sl;
1853  sA[1] = B6*Sl;
1854  sA[2] = C6*Sl;
1855 
1856  R[0]+=(A[0]*Sn);
1857  R[1]+=(A[1]*Sn);
1858  R[2]+=(A[2]*Sn);
1859  globalPars[45]+=Sn;
1860 
1861  return true;
1862  }
1863 
1864  double aS = std::abs(S);
1865 
1867  if ( S*Sn < 0. ) {
1868  if(++it > 2) return false;
1870  if (aSn < aS) S = Sn;
1872  else S =-S;
1873  }
1875  else if( aSn < aS ) S = Sn;
1876 
1878  f0[0]=f[0];
1879  f0[1]=f[1];
1880  f0[2]=f[2];
1881  }
1882  return false;
1883 }
1884 
1886 // Straight line step to plane
1888 
1889 bool InDet::SiTrajectoryElement_xk::straightLineStepToPlane
1890 (bool Jac,double* globalPars)
1891 {
1892  double* R = &globalPars[ 0]; // Start coordinates
1893  double* A = &globalPars[ 3]; // Start directions
1895  double a = A[0]*m_localTransform[6]+A[1]*m_localTransform[7]+A[2]*m_localTransform[8];
1896  if(a==0.) return false;
1897  double S = ((m_localTransform[12]-R[0]*m_localTransform[6])-(R[1]*m_localTransform[7]+R[2]*m_localTransform[8]))/a;
1898  globalPars[45] = S;
1899 
1900  // Track parameters in last point
1901  //
1902  R[0]+=(A[0]*S); R[1]+=(A[1]*S); R[2]+=(A[2]*S); if(!Jac) return true;
1903 
1904  // Derivatives of track parameters in last point
1905  //
1906  for(int i=7; i<42; i+=7) {
1907 
1908  double* dR = &globalPars[i ];
1909  double* dA = &globalPars[i+3];
1910  dR[0]+=(dA[0]*S); dR[1]+=(dA[1]*S); dR[2]+=(dA[2]*S);
1911  }
1912  return true;
1913 }
1914 
1915 InDet::SiTrajectoryElement_xk::SiTrajectoryElement_xk()
1916 {
1917  m_detstatus =-1 ;
1918  m_status = 0 ;
1919  m_nlinksForward = 0 ;
1920  m_nlinksBackward = 0 ;
1921  m_nMissing = 0 ;
1922  m_radlength = .03;
1923  m_radlengthN = .03;
1924  m_energylose = .4 ;
1925  m_tools = nullptr ;
1926  m_noisemodel = 0 ;
1927  m_covariance.resize(2,2);
1928  m_covariance<<0.,0.,0.,0.;
1929  m_ndf = 0 ;
1930  m_ndfBackward = 0 ;
1931  m_ndfForward = 0 ;
1932  m_ntsos = 0 ;
1933  m_maxholes = 0 ;
1934  m_maxdholes = 0 ;
1935  m_xi2Forward = 0.;
1936  m_xi2Backward = 0.;
1937  m_xi2totalForward = 0.;
1938  m_xi2totalBackward = 0.;
1939  m_halflength = 0.;
1940  m_step = 0.;
1941  m_xi2max = 0.;
1942  m_dist = 0.;
1943  m_xi2maxNoAdd = 0.;
1944  m_xi2maxlink = 0.;
1945  m_xi2multi = 0.;
1946  m_invMoment = 0.;
1947  m_detelement = nullptr ;
1948  m_detlink = nullptr ;
1949  m_surface = nullptr ;
1950  m_cluster = nullptr ;
1951  m_clusterOld = nullptr ;
1952  m_clusterNoAdd = nullptr ;
1953  m_updatorTool = nullptr ;
1954  m_proptool = nullptr ;
1955  m_riotool = nullptr ;
1956  m_inside = 0 ;
1957  m_nholesForward = 0 ;
1958  m_nholesBackward = 0 ;
1959  m_dholesForward = 0 ;
1960  m_dholesBackward = 0 ;
1961  m_nclustersForward = 0 ;
1962  m_nclustersBackward = 0 ;
1963  m_npixelsBackward = 0 ;
1964  m_stereo = false ;
1965  m_fieldMode = false ;
1966 
1967  m_tsos[0]=m_tsos[1]=m_tsos[2]=nullptr;
1968 }
1969 
1970 InDet::SiTrajectoryElement_xk::SiTrajectoryElement_xk(const SiTrajectoryElement_xk& E)
1971 {
1972  *this = E;
1973 }
1974 
1975 // deliberately not assigning all variables?
1976 // cppcheck-suppress operatorEqVarError
1977 InDet::SiTrajectoryElement_xk& InDet::SiTrajectoryElement_xk::operator =
1978 (const InDet::SiTrajectoryElement_xk& E)
1979 {
1980  if(&E==this) return(*this);
1981 
1982  m_fieldMode = E.m_fieldMode ;
1983  m_status = E.m_status ;
1984  m_detstatus = E.m_detstatus ;
1985  m_inside = E.m_inside ;
1986  m_nMissing = E.m_nMissing ;
1987  m_stereo = E.m_stereo ;
1988  m_detelement = E.m_detelement ;
1989  m_detlink = E.m_detlink ;
1990  m_surface = E.m_surface ;
1991  m_sibegin = E.m_sibegin ;
1992  m_siend = E.m_siend ;
1993  m_cluster = E.m_cluster ;
1994  m_clusterOld = E.m_clusterOld ;
1995  m_clusterNoAdd = E.m_clusterNoAdd;
1996  m_parametersPredForward = E.m_parametersPredForward;
1997  m_parametersUpdatedForward = E.m_parametersUpdatedForward;
1998  m_parametersPredBackward = E.m_parametersPredBackward;
1999  m_parametersUpdatedBackward = E.m_parametersUpdatedBackward;
2000  m_parametersSM = E.m_parametersSM;
2001  m_dist = E.m_dist ;
2002  m_xi2Forward = E.m_xi2Forward ;
2003  m_xi2Backward = E.m_xi2Backward ;
2004  m_xi2totalForward = E.m_xi2totalForward ;
2005  m_xi2totalBackward = E.m_xi2totalBackward;
2006  m_radlength = E.m_radlength ;
2007  m_radlengthN = E.m_radlengthN ;
2008  m_energylose = E.m_energylose ;
2009  m_halflength = E.m_halflength ;
2010  m_step = E.m_step ;
2011  m_nlinksForward = E.m_nlinksForward ;
2012  m_nlinksBackward = E.m_nlinksBackward ;
2013  m_nholesForward = E.m_nholesForward ;
2014  m_nholesBackward = E.m_nholesBackward ;
2015  m_dholesForward = E.m_dholesForward ;
2016  m_dholesBackward = E.m_dholesBackward ;
2017  m_noisemodel = E.m_noisemodel ;
2018  m_ndf = E.m_ndf ;
2019  m_ndfForward = E.m_ndfForward ;
2020  m_ndfBackward = E.m_ndfBackward ;
2021  m_ntsos = E.m_ntsos ;
2022  m_nclustersForward = E.m_nclustersForward ;
2023  m_nclustersBackward = E.m_nclustersBackward ;
2024  m_npixelsBackward = E.m_npixelsBackward ;
2025  m_noise = E.m_noise ;
2026  m_tools = E.m_tools ;
2027  m_covariance = E.m_covariance ;
2028  m_position = E.m_position ;
2029  m_invMoment = E.m_invMoment ;
2030  for(int i=0; i!=m_nlinksForward; ++i) {m_linkForward[i]=E.m_linkForward[i];}
2031  for(int i=0; i!=m_nlinksBackward; ++i) {m_linkBackward[i]=E.m_linkBackward[i];}
2032  for(int i=0; i!=m_ntsos ; ++i) {m_tsos [i]=E.m_tsos [i];}
2033  for(int i=0; i!=m_ntsos ; ++i) {m_utsos[i]=E.m_utsos [i];}
2034  return(*this);
2035 }
2036 
2037 int InDet::SiTrajectoryElement_xk::numberClusters() const
2038 {
2039  int n = 0;
2040  if (m_detstatus<=0) return n;
2041 
2042  if (m_itType==PixelClusterColl) {
2043  const InDet::PixelClusterCollection::const_iterator* sibegin
2044  = std::any_cast<const InDet::PixelClusterCollection::const_iterator>(&m_sibegin);
2045  const InDet::PixelClusterCollection::const_iterator* siend
2046  = std::any_cast<const InDet::PixelClusterCollection::const_iterator>(&m_siend);
2047  if (sibegin==nullptr or siend==nullptr) return 0;
2048  for (InDet::PixelClusterCollection::const_iterator p = *sibegin; p!=*siend; ++p) {
2049  ++n;
2050  }
2051  } else if (m_itType==SCT_ClusterColl) {
2052  const InDet::SCT_ClusterCollection::const_iterator* sibegin
2053  = std::any_cast<const InDet::SCT_ClusterCollection::const_iterator>(&m_sibegin);
2054  const InDet::SCT_ClusterCollection::const_iterator* siend
2055  = std::any_cast<const InDet::SCT_ClusterCollection::const_iterator>(&m_siend);
2056  if (sibegin==nullptr or siend==nullptr) return 0;
2057  for (InDet::SCT_ClusterCollection::const_iterator p = *sibegin; p!=*siend; ++p) {
2058  ++n;
2059  }
2060  } else {
2061  const InDet::SiClusterCollection::const_iterator* sibegin
2062  = std::any_cast<const InDet::SiClusterCollection::const_iterator>(&m_sibegin);
2063  const InDet::SiClusterCollection::const_iterator* siend
2064  = std::any_cast<const InDet::SiClusterCollection::const_iterator>(&m_siend);
2065  if (sibegin==nullptr or siend==nullptr) return 0;
2066  for (InDet::SiClusterCollection::const_iterator p = *sibegin; p!=*siend; ++p) {
2067  ++n;
2068  }
2069  }
2070  return n;
2071 }
2072 
2073 bool InDet::SiTrajectoryElement_xk::difference() const
2074 {
2075  return m_cluster != m_clusterOld || m_status != 3;
2076 }
2077 
2079 // Test for next compatible cluster
2081 
2082 bool InDet::SiTrajectoryElement_xk::isNextClusterHoleB(bool& cl,double& X)
2083 {
2084  cl = false ;
2085  X = m_xi2totalBackward-m_xi2Backward;
2086 
2087  if(m_nlinksBackward > 1 && m_linkBackward[1].xi2() <= m_xi2max) {
2088  X+=m_linkBackward[1].xi2();
2089  cl = true; return true;
2090  }
2091 
2092  if(m_inside < 0) {
2093  return m_nholesBackward < m_maxholes && m_dholesBackward < m_maxdholes;
2094  }
2095  return true;
2096 }
2097 
2103 bool InDet::SiTrajectoryElement_xk::isNextClusterHoleF(bool& cl,double& X)
2104 {
2105  cl = false ;
2107  X = m_xi2totalForward-m_xi2Forward;
2109  if(m_detstatus == 2) return false;
2112  if(m_nlinksForward > 1 && m_linkForward[1].xi2() <= m_xi2max) {
2114  X+=m_linkForward[1].xi2();
2116  cl = true;
2117  return true;
2118  }
2120  if(m_inside < 0) {
2122  if(m_nholesForward < m_maxholes && m_dholesForward < m_maxdholes) return true;
2124  return false;
2125  }
2127  return true;
2128 }
2129 
2130 void InDet::SiTrajectoryElement_xk::setCluster(const InDet::SiCluster* Cl)
2131 {
2132  m_cluster = Cl;
2133 }
2134 
2135 void InDet::SiTrajectoryElement_xk::setClusterB(const InDet::SiCluster* Cl,double Xi2)
2136 {
2137  m_cluster = Cl ;
2138  m_status = 2 ;
2139  m_xi2Backward = Xi2;
2140 }
2141 
2142 
2143 void InDet::SiTrajectoryElement_xk::setParametersB(Trk::PatternTrackParameters& P)
2144 {
2145  m_parametersUpdatedBackward = P;
2146 }
2147 
2148 void InDet::SiTrajectoryElement_xk::setParametersF(Trk::PatternTrackParameters& P)
2149 {
2150  m_parametersUpdatedForward = P;
2151 }
2152 
2153 void InDet::SiTrajectoryElement_xk::setNdist(int n)
2154 {
2155  m_nMissing = n;
2156 }
2157 
2159 // Add pixel or SCT cluster to pattern track parameters with Xi2 calculation
2161 
2162 bool InDet::SiTrajectoryElement_xk::addCluster
2163 (Trk::PatternTrackParameters& Ta,Trk::PatternTrackParameters& Tb,double& Xi2)
2164 {
2165  int N;
2167  if(!m_stereo) {
2169  patternCovariances
2170  (m_cluster,m_covariance(0,0),m_covariance(1,0),m_covariance(1,1));
2172  if(m_detelement->isSCT()) {
2173  return m_updatorTool->addToStateOneDimension
2174  (Ta,m_cluster->localPosition(),m_covariance,Tb,Xi2,N);
2175  }
2176  return m_updatorTool->addToState
2177  (Ta,m_cluster->localPosition(),m_covariance,Tb,Xi2,N);
2178  }
2180  return m_updatorTool->addToStateOneDimension
2181  (Ta,m_cluster->localPosition(),m_cluster->localCovariance(),Tb,Xi2,N);
2182 }
2183 
2185 // Add pixel or SCT cluster to pattern track parameters without Xi2 calculation
2187 
2188 bool InDet::SiTrajectoryElement_xk::addCluster
2189 (Trk::PatternTrackParameters& Ta,Trk::PatternTrackParameters& Tb)
2190 {
2191  if(!m_stereo) {
2192 
2193  patternCovariances
2194  (m_cluster,m_covariance(0,0),m_covariance(1,0),m_covariance(1,1));
2195  if(m_detelement->isSCT()) {
2196  return m_updatorTool->addToStateOneDimension
2197  (Ta,m_cluster->localPosition(),m_covariance,Tb);
2198  }
2199  return m_updatorTool->addToState
2200  (Ta,m_cluster->localPosition(),m_covariance,Tb);
2201  }
2202  return m_updatorTool->addToStateOneDimension
2203  (Ta,m_cluster->localPosition(),m_cluster->localCovariance(),Tb);
2204 }
2205 
2207 // Add pixel or SCT cluster to pattern track parameters with Xi2 calculation
2208 // using precise error
2210 
2211 bool InDet::SiTrajectoryElement_xk::addClusterPrecise(Trk::PatternTrackParameters& Ta,
2212  Trk::PatternTrackParameters& Tb,
2213  double& Xi2) {
2214  int N;
2215  if(m_ndf==1) {
2216  return m_updatorTool->addToStateOneDimension(Ta,m_position,m_covariance,Tb,Xi2,N);
2217  }
2218  else {
2219  return m_updatorTool->addToState (Ta,m_position,m_covariance,Tb,Xi2,N);
2220  }
2221 }
2222 
2224 // Add two pattern track parameters without Xi2 calculation
2226 
2227 bool InDet::SiTrajectoryElement_xk::combineStates
2228 (Trk::PatternTrackParameters& Ta,
2229  Trk::PatternTrackParameters& Tb,
2230  Trk::PatternTrackParameters& Tc)
2231 {
2232  return m_updatorTool->combineStates(Ta,Tb,Tc);
2233 }
2234 
2236 // Propagate pattern track parameters to surface
2238 
2239 void InDet::SiTrajectoryElement_xk::noiseInitiate()
2240 {
2241  m_noisemodel = 1; m_noise.initiate();
2242 }
2243 
2245 // Initiate state
2247 
2248 bool InDet::SiTrajectoryElement_xk::initiateState
2249 (Trk::PatternTrackParameters& inputPars,Trk::PatternTrackParameters& outputPars)
2250 {
2253  if (m_tools->isITkGeometry()) {
2254  // using pattern covariance for all clusters for ITk
2255  Amg::MatrixX cov(2,2);
2256  patternCovariances(m_cluster,cov(0,0),cov(1,0),cov(1,1));
2257  return outputPars.initiate(inputPars,m_cluster->localPosition(),cov);
2258  }
2259  return outputPars.initiate(inputPars,m_cluster->localPosition(),m_cluster->localCovariance());
2260 }
2261 
2263 // Initiate state with cluster correction
2265 
2266 bool InDet::SiTrajectoryElement_xk::initiateStatePrecise
2267 (Trk::PatternTrackParameters& inputPars,Trk::PatternTrackParameters& outputPars)
2268 {
2269  return outputPars.initiate(inputPars,m_position,m_covariance);
2270 }
2271 
2273 // Pattern covariances
2275 
2276 void InDet::SiTrajectoryElement_xk::patternCovariances
2277 (const InDet::SiCluster* c,double& covX,double& covXY,double& covY) const
2278 {
2279  const Amg::MatrixX& v = c->localCovariance();
2280  if (m_tools->useFastTracking() and m_stereo) {
2281  // in fast tracking mode, endcap strip clusters use cluster covariance terms
2282  covX=v(0,0);
2283  covY=v(1,1);
2284  covXY=v(1,0);
2285  return;
2286  }
2287  covX = c->width().phiR();
2288  covX*=(covX*s_oneOverTwelve);
2289  covXY = c->localCovariance()(1,0);
2290 
2291  if(!m_tools->useFastTracking()){
2292  if(covX < v(0,0)) covX=v(0,0);
2293  covXY = 0.;
2294  }
2295 
2296  if(m_ndf==1) {
2297  covY=v(1,1);
2298  }
2299  else {
2301  covY=c->width().z();
2302  covY*=(covY*s_oneOverTwelve);
2303  if(!m_tools->useFastTracking()){
2304  if(covY < v(1,1)) covY=v(1,1);
2305  }
2306  }
2307 }
2308 
2310 // Last detector elements with clusters
2312 
2313 void InDet::SiTrajectoryElement_xk::lastActive()
2314 {
2315  m_detstatus = 2;
2316 }
2317 
2318 Trk::TrackStateOnSurface* InDet::SiTrajectoryElement_xk::tsos (int i)
2319 {
2320  if(i<0 || i>2) return nullptr;
2321 
2322  bool us = m_utsos[i];
2323  m_utsos[i] = true;
2324 
2325  if(us) return new Trk::TrackStateOnSurface(*m_tsos[i]);
2326 
2327  return m_tsos[i];
2328 }
2329 
2331 // Set electron noise model
2333 
2334 void InDet::SiTrajectoryElement_xk::bremNoiseModel()
2335 {
2336  m_noisemodel = 2;
2337 }
2338 
2340 // Initiate state with cluster correction
2342 
2343 bool InDet::SiTrajectoryElement_xk::initiateStateWithCorrection(Trk::PatternTrackParameters& Tc,
2344  Trk::PatternTrackParameters& Ta,
2345  Trk::PatternTrackParameters& Tb)
2346 {
2347  precisePosCov(Tc);
2348  return Tb.initiate(Ta,m_position,m_covariance);
2349 }
2350 
2352 // Add pixel or SCT cluster to pattern track parameters with Xi2 calculation
2353 // using precise error
2355 
2356 bool InDet::SiTrajectoryElement_xk::addClusterPreciseWithCorrection(Trk::PatternTrackParameters& Tc,
2357  Trk::PatternTrackParameters& Ta,
2358  Trk::PatternTrackParameters& Tb,
2359  double& Xi2)
2360 {
2361  int N;
2362  precisePosCov(Tc);
2363 
2364  if(m_ndf==1) {
2365  return m_updatorTool->addToStateOneDimension(Ta,m_position,m_covariance,Tb,Xi2,N);
2366  }
2367  else {
2368  return m_updatorTool->addToState(Ta,m_position,m_covariance,Tb,Xi2,N);
2369  }
2370 }
2371 
2373 // Precise cluster position and covariance calculation
2375 
2376 void InDet::SiTrajectoryElement_xk::precisePosCov(Trk::PatternTrackParameters& Tc)
2377 {
2378 
2379  m_position = m_cluster->localPosition ();
2380  m_covariance = m_cluster->localCovariance();
2381 
2382  if(m_ndf==1) return;
2383 
2384  const Amg::Vector2D& colRow = m_cluster->width().colRow();
2385  if(colRow.x()==1. && colRow.y()==1.) return;
2386 
2387  std::unique_ptr<Trk::TrackParameters> tr = Tc.convert(true);
2388  std::unique_ptr<const Trk::RIO_OnTrack> ri(m_riotool->correct(*m_cluster, *tr, Gaudi::Hive::currentContext()));
2389 
2390  m_position = ri->localParameters();
2391  m_covariance = ri->localCovariance();
2392 
2393 }
2394 
2396 // Search clusters compatible with track
2398 
2399 int InDet::SiTrajectoryElement_xk::searchClusters(Trk::PatternTrackParameters& Tp, SiClusterLink_xk* L) {
2401  if (m_itType==PixelClusterColl) return searchClustersSub<InDet::PixelClusterCollection::const_iterator>(Tp, L);
2402  if (m_itType==SCT_ClusterColl) return searchClustersSub<InDet::SCT_ClusterCollection::const_iterator>(Tp, L);
2403  return searchClustersSub<InDet::SiClusterCollection::const_iterator>(Tp, L);
2404 }
2405 void InDet::SiTrajectoryElement_xk::checkBoundaries(const Trk::PatternTrackParameters & pars){
2406 
2407  m_inside = m_detlink->intersect(pars, m_dist);
2408 
2409 }
InDet::SiTrajectoryElement_xk::addClusterPrecise
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Definition: SiTrajectoryElement_xk.cxx:2211
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Definition: NoiseOnSurface.h:40
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Definition: SiTrajectoryElement_xk.h:463
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Definition: make_hlt_rep.py:90
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Definition: LocalParameters.h:98
Trk::TrackStateOnSurface::trackParameters
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Definition: SiTrajectoryElement_xk.cxx:2103
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Definition: SiTrajectoryElement_xk.h:68
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Definition: SiTrajectoryElement_xk.cxx:1915
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bool rungeKuttaToPlane(bool updateJacobian, double *globalPars)
Runge Kutta step to plane Updates the "globalPars" array, which is also used to pass the input.
Definition: SiTrajectoryElement_xk.cxx:1661
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Definition: NoiseOnSurface.h:42
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@ Perigee
This represents a perigee, and so will contain a Perigee object only.
Definition: TrackStateOnSurface.h:117
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abstract base method for the creation of RIO_OnTrack it takes a RIO (PrepRawData) and the given Track...
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Definition: SiTrajectoryElement_xk.h:473
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Interfaces WITH EventContext (new)
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Definition: SiTrajectoryElement_xk.h:36
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Definition: SiTrajectoryElement_xk.cxx:532
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Definition: SiTrajectoryElement_xk.h:477
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Definition: SiTrajectoryElement_xk.h:469
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virtual const Surface & associatedSurface() const override final
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bool transformGlobalToPlane(bool updateJacobian, double *globalPars, Trk::PatternTrackParameters &startingParameters, Trk::PatternTrackParameters &outputParameters)
Tramsform from global to plane surface Will take the global parameters in globalPars,...
Definition: SiTrajectoryElement_xk.cxx:1552
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bool propagateParameters(Trk::PatternTrackParameters &startingParameters, Trk::PatternTrackParameters &outParameters, double &step)
Start from 'startingParameters', propagate to current surface.
Definition: SiTrajectoryElement_xk.cxx:1432
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bool combineStates(Trk::PatternTrackParameters &, Trk::PatternTrackParameters &, Trk::PatternTrackParameters &)
Definition: SiTrajectoryElement_xk.cxx:2228
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Definition: SiTrajectoryElement_xk.cxx:2239
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Definition: AtlasFieldCache.cxx:86
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Definition: SiTrajectoryElement_xk.h:446
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Definition: PerigeeSurface.h:43
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Definition: SiTrajectoryElement_xk.h:447
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@ oppositeMomentum
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Definition: SiTrajectoryElement_xk.h:481
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Definition: SiTrajectoryElement_xk.h:442
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virtual bool addToState(PatternTrackParameters &, const Amg::Vector2D &, const Amg::MatrixX &, PatternTrackParameters &) const =0
add a PRD-level local position to a track state given by pattern track pars (no chi2 calculated).
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Definition: P.h:23
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Definition: SiTrajectoryElement_xk.cxx:2153
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Definition: SiTrajectoryElement_xk.h:519
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Definition: SiTrajectoryElement_xk.h:495
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Definition: SiTrajectoryElement_xk.cxx:2082
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Definition: plotBeamSpotVxVal.py:201
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Definition: SiTrajectoryElement_xk.h:457
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Definition: ParticleTest.py:25
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represents a deflection of the track caused through multiple scattering in material.
Definition: ScatteringAngles.h:26
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std::unique_ptr< TrackParameters > convert(bool) const
Definition: PatternTrackParameters.cxx:26
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Definition: SiTrajectoryElement_xk.cxx:29
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@ alongMomentum
Definition: PropDirection.h:20
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Definition: SiTrajectoryElement_xk.h:462
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Definition: SiTrajectoryElement_xk.cxx:2313
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Definition: TiledEtaPhiMap.h:44
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Definition: ReadCellNoiseFromCoolCompare.py:381
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Definition: JacobianHelper.h:41
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Definition: read_hist_ntuple.py:5
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Private Methods.
Definition: SiTrajectoryElement_xk.cxx:2277
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Definition: PlotCalibFromCool.py:99
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Definition: TiledEtaPhiMap.h:44
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Definition: SiTrajectoryElement_xk.h:466
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Definition: SiTrajectoryElement_xk.h:135
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Definition: SiTools_xk.h:60
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Definition: AthenaPoolTestRead.py:27
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Definition: SiTrajectoryElement_xk.h:443
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Definition: HistogramFillerUtils.h:24
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Definition: SiTrajectoryElement_xk.cxx:2143
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Definition: SiTrajectoryElement_xk.h:493
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This TSoS contains an outlier, that is, it contains a MeasurementBase/RIO_OnTrack which was not used ...
Definition: TrackStateOnSurface.h:122
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Definition: dqt_zlumi_alleff_HIST.py:110
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Definition: SiTrajectoryElement_xk.h:465
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For backward filtering / smoothing Predicted state, backward.
Definition: SiTrajectoryElement_xk.h:508
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Definition: SiTrajectoryElement_xk.cxx:1121
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Definition: SiTools_xk.h:73
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Definition: FitQualityOnSurface.h:19
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Definition: zlumi_mc_cf.py:4
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Will propagate the startingParameters from their reference to the surface associated with this elemen...
Definition: SiTrajectoryElement_xk.cxx:1378
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Definition: SiTrajectoryElement_xk.h:133
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Definition: SiTools_xk.h:59
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Definition: SiTrajectoryElement_xk.cxx:87
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Definition: SiTrajectoryElement_xk.cxx:1348
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Definition: SiTools_xk.h:47
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get B field cache for evaluation as a function of 2-d or 3-d position.
Definition: AtlasFieldCacheCondObj.h:32
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Definition: AtlRunQueryDQUtils.py:210
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Definition: SiTrajectoryElement_xk.h:505
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Definition: SiTrajectoryElement_xk.h:435
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Definition: SiTrajectoryElement_xk.h:476
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Definition: SiTrajectoryElement_xk.h:510
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Definition: SiTrajectoryElement_xk.h:512
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Definition: SiTools_xk.h:72
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Definition: lumiFormat.py:85
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Definition: SiTrajectoryElement_xk.cxx:2334
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Definition: beamspotman.py:731
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Definition: SiTrajectoryElement_xk.cxx:1315
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Definition: PatternTrackParameters.cxx:368
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Definition: SiTrajectoryElement_xk.cxx:902
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Definition: SiTrajectoryElement_xk.h:459
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Definition: SiTrajectoryElement_xk.cxx:1282
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Definition: SiTrajectoryElement_xk.h:480
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Definition: SiTrajectoryElement_xk.cxx:2267
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Definition: SiDetElementBoundaryLink_xk.cxx:178
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@ pion
Definition: ParticleHypothesis.h:29
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Definition: Epos_Base_Fragment.py:10
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Definition: SiTrajectoryElement_xk.cxx:2249
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Straight line step to plane Updates the "globalPars" array, which is also used to pass the input.
Definition: SiTrajectoryElement_xk.cxx:1890
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Definition: SiTrajectoryElement_xk.cxx:2405
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Definition: SiTools_xk.h:31
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Definition: SiTrajectoryElement_xk.h:514
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Pattern track parameters.
Definition: SiTrajectoryElement_xk.h:503
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Definition: SiTrajectoryElement_xk.cxx:720
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Definition: SiTrajectoryElement_xk.h:436
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Definition: hist_file_dump.py:135
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track parameters for forward filter / smoother predicted
Definition: SiTrajectoryElement_xk.h:129
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Definition: SiTrajectoryElement_xk.h:453
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Definition: AnalysisMisc.h:49
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Definition: ParametersBase.h:55
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Definition: SiTools_xk.h:51
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Definition: InnerDetector/InDetRecEvent/InDetPrepRawData/InDetPrepRawData/SCT_Cluster.h:34
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Definition: SiTools_xk.h:61
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Definition: NoiseOnSurface.h:116
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const InDet::SiCluster * cluster() const
Definition: SiClusterLink_xk.h:40
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Definition: SiTrajectoryElement_xk.h:452
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Definition: SiTrajectoryElement_xk.h:434
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Interface method to get the localError.
Definition: MeasurementBase.h:138
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Definition: SiTrajectoryElement_xk.cxx:622
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Definition: PatternTrackParameters.h:42
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Definition: dso-stats.py:39
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Definition: SiTrajectoryElement_xk.cxx:2376
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Definition: SiTrajectoryElement_xk.cxx:2318
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Definition: SiTrajectoryElement_xk.h:454
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Definition: SiTrajectoryElement_xk.h:520
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Definition: ReadCellNoiseFromCoolCompare.py:380
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Definition: TrackStateOnSurface.h:71
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Definition: SiTrajectoryElement_xk.h:518
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Definition: SiTrajectoryElement_xk.h:429
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Definition: VP1PartSpectFlags.h:21
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combine two track states into a resulting state.
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Definition: SiTrajectoryElement_xk.cxx:1042
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Definition: SiTrajectoryElement_xk.h:472
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Definition: SiTrajectoryElement_xk.h:455
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Definition: SiTrajectoryElement_xk.h:492
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Definition: PatternTrackParameters.cxx:321
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Definition: SiTrajectoryElement_xk.h:471
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Definition: GeoPrimitives.h:47
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MagneticFieldMode magneticFieldMode() const
Returns the MagneticFieldMode as specified.
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check for a difference between forward and back propagation
Definition: SiTrajectoryElement_xk.cxx:2073
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Definition: SiTrajectoryElement_xk.h:461
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Definition: SiTrajectoryElement_xk.h:470
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Definition: SiTrajectoryElement_xk.h:458
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Definition: SiTrajectoryElement_xk.cxx:370
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InDet::SiClusterLink_xk m_linkBackward[10]
Definition: SiTrajectoryElement_xk.h:513
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const LocalParameters & localParameters() const
Interface method to get the LocalParameters.
Definition: MeasurementBase.h:132
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Definition: InnerDetector/InDetRecEvent/InDetPrepRawData/InDetPrepRawData/PixelCluster.h:49
InDet::SiTrajectoryElement_xk::m_parametersSM
Trk::PatternTrackParameters m_parametersSM
Definition: SiTrajectoryElement_xk.h:511
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Definition: PyAthena.py:154
InDet::SiTrajectoryElement_xk::setParametersF
void setParametersF(Trk::PatternTrackParameters &)
Definition: SiTrajectoryElement_xk.cxx:2148
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Definition: SiTrajectoryElement_xk.h:526
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@ SCT_ClusterColl
Definition: SiTrajectoryElement_xk.h:430
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MagField::AtlasFieldCache m_fieldCache
Definition: SiTrajectoryElement_xk.h:516
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const InDet::SiWidth & width() const
return width class reference
InDet::SiTools_xk::propTool
const Trk::IPatternParametersPropagator * propTool() const
Definition: SiTools_xk.h:49
InDet::SiTrajectoryElement_xk::addNextClusterF
bool addNextClusterF()
Definition: SiTrajectoryElement_xk.cxx:783
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Definition: liststreamerinfos.cxx:10
InDet::SiTrajectoryElement_xk::searchClusters
int searchClusters(Trk::PatternTrackParameters &, SiClusterLink_xk *)
Definition: SiTrajectoryElement_xk.cxx:2399
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const Trk::IPatternParametersUpdator * updatorTool() const
Definition: SiTools_xk.h:50
InDet::SiTrajectoryElement_xk::transformPlaneToGlobal
bool transformPlaneToGlobal(bool, Trk::PatternTrackParameters &localParameters, double *globalPars)
Tramsform from plane to global Will take the surface and parameters from localParameters and populate...
Definition: SiTrajectoryElement_xk.cxx:1476
InDet::SiTools_xk::usePRDtoTrackAssociation
bool usePRDtoTrackAssociation() const
Definition: SiTools_xk.h:67
Trk::PatternTrackParameters
Definition: PatternTrackParameters.h:32
RungeKuttaUtils.h
InDet::SiTrajectoryElement_xk::m_clusterOld
const InDet::SiCluster * m_clusterOld
Definition: SiTrajectoryElement_xk.h:496
InDet::SiTrajectoryElement_xk::setDeadRadLength
void setDeadRadLength(Trk::PatternTrackParameters &)
Definition: SiTrajectoryElement_xk.cxx:68
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Definition: ReadCellNoiseFromCoolCompare.py:379
InDet::SiTrajectoryElement_xk::m_xi2multi
double m_xi2multi
Definition: SiTrajectoryElement_xk.h:475
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Definition: CaloCondTools.py:20
InDet::SiTrajectoryElement_xk::addCluster
bool addCluster(Trk::PatternTrackParameters &, Trk::PatternTrackParameters &, double &)
Definition: SiTrajectoryElement_xk.cxx:2163
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void initiate()
Definition: NoiseOnSurface.h:107
InDet::SiTrajectoryElement_xk::m_clusterNoAdd
const InDet::SiCluster * m_clusterNoAdd
Definition: SiTrajectoryElement_xk.h:497
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struct TBPatternUnitContext S2
InDet::SiTrajectoryElement_xk::m_radlengthN
double m_radlengthN
Definition: SiTrajectoryElement_xk.h:468
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@ Scatterer
This represents a scattering point on the track, and so will contain TrackParameters and MaterialEffe...
Definition: TrackStateOnSurface.h:113
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const Amg::Vector2D & colRow() const
Definition: SiWidth.h:115
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Definition: SiTrajectoryElement_xk.h:464
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Definition: SiTrajectoryElement_xk.h:450
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Definition: extractSporadic.py:98
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Definition: SiTrajectoryElement_xk.h:456
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Definition: SiTrajectoryElement_xk.h:474
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Definition: PatternTrackParameters.cxx:42
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@ Plane
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const Trk::IRIO_OnTrackCreator * rioTool() const
Definition: SiTools_xk.h:53
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bool isSCT() const
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const double & xi2max() const
Definition: SiTools_xk.h:57
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Definition: SiTrajectoryElement_xk.h:478
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const InDet::SiTools_xk * m_tools
Definition: SiTrajectoryElement_xk.h:515
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Amg::Vector3D position() const
Definition: PatternTrackParameters.cxx:79
InDet::Xi2max
@ Xi2max
Definition: IInDetEtaDependentCutsSvc.h:17
Trk::PatternTrackParameters::momentum
Amg::Vector3D momentum() const
IdentifierHash
This is a "hash" representation of an Identifier. This encodes a 32 bit index which can be used to lo...
Definition: IdentifierHash.h:25
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Definition: IoTestsLib.py:200
InDet::SiTrajectoryElement_xk::m_nMissing
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Definition: SiTrajectoryElement_xk.h:445
PixelClusterOnTrack.h
InDet::SiTrajectoryElement_xk::trackParameters
std::unique_ptr< Trk::TrackParameters > trackParameters(bool, int)
Definition: SiTrajectoryElement_xk.cxx:1071
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const double & xi2() const
Definition: SiClusterLink_xk.h:41
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@ StepLength
Definition: MaterialAssociationType.h:17
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void diagonalization(double)
Trk::Surface
Definition: Tracking/TrkDetDescr/TrkSurfaces/TrkSurfaces/Surface.h:75
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Definition: exampleDriverScript.py:20
Trk::Surface::transform
const Amg::Transform3D & transform() const
Returns HepGeom::Transform3D by reference.
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Definition: compressB64.py:93
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print [x.__class__ for x in toList(dqregion.getSubRegions()) ]
Definition: dq_make_web_display.py:26
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Definition: SiTrajectoryElement_xk.cxx:2135
SiTrajectoryElement_xk.h
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constexpr virtual SurfaceType type() const =0
Returns the Surface type to avoid dynamic casts.
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Definition: SiClusterLink_xk.h:23
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Definition: InnerDetector/InDetRecEvent/InDetPrepRawData/InDetPrepRawData/SiCluster.h:40
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Definition: SiTrajectoryElement_xk.h:467
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Definition: SystemOfUnits.py:99
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@ Measurement
This is a measurement, and will at least contain a Trk::MeasurementBase.
Definition: TrackStateOnSurface.h:101
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Definition: SiTrajectoryElement_xk.cxx:1195
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const int & maxdholes() const
Definition: SiTools_xk.h:64
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unsigned long long T
Definition: L1TopoDataTypes.h:35
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Definition: SiTrajectoryElement_xk.cxx:753
InDet::SiTrajectoryElement_xk::setParameters
void setParameters()
Definition: SiTrajectoryElement_xk.cxx:98
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const double & covarianceAzim() const
Definition: NoiseOnSurface.h:39
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Definition: SiTrajectoryElement_xk.cxx:280
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