| Geant4 Cross Reference |
1 // 1
2 // *******************************************
3 // * License and Disclaimer
4 // *
5 // * The Geant4 software is copyright of th
6 // * the Geant4 Collaboration. It is provided
7 // * conditions of the Geant4 Software License
8 // * LICENSE and available at http://cern.ch/
9 // * include a list of copyright holders.
10 // *
11 // * Neither the authors of this software syst
12 // * institutes,nor the agencies providing fin
13 // * work make any representation or warran
14 // * regarding this software system or assum
15 // * use. Please see the license in the file
16 // * for the full disclaimer and the limitatio
17 // *
18 // * This code implementation is the result
19 // * technical work of the GEANT4 collaboratio
20 // * By using, copying, modifying or distri
21 // * any work based on the software) you ag
22 // * use in resulting scientific publicati
23 // * acceptance of all terms of the Geant4 Sof
24 // *******************************************
25 //
26 // 081120 Add Update by T. Koi
27 //
28 // 230307 Skyrme-QMD parameters added by Y-H.
29 // 230307 "CalDensityProfile" and "CalChargeDe
30 // 230307 "GetSingleEnergy" and "GetTotalEnerg
31
32 #include <map>
33 #include <algorithm>
34 #include <numeric>
35
36 #include <cmath>
37 #include <CLHEP/Random/Stat.h>
38
39 #include "G4LightIonQMDMeanField.hh"
40 #include "G4LightIonQMDParameters.hh"
41 #include "G4Exp.hh"
42 #include "G4Pow.hh"
43 #include "G4PhysicalConstants.hh"
44 #include "Randomize.hh"
45
46 G4LightIonQMDMeanField::G4LightIonQMDMeanField
47 {
48 G4LightIonQMDParameters* parameters = G4Lig
49 wl = parameters->Get_wl();
50 cl = parameters->Get_cl();
51 rho0 = parameters->Get_rho0();
52 hbc = parameters->Get_hbc();
53 gamm = parameters->Get_gamm();
54 eta = parameters->Get_eta(); // Skyrme-QMD
55 kappas = parameters->Get_kappas(); // Skyrm
56
57 cpw = parameters->Get_cpw();
58 cph = parameters->Get_cph();
59 cpc = parameters->Get_cpc();
60
61 c0 = parameters->Get_c0();
62 c3 = parameters->Get_c3();
63 cs = parameters->Get_cs();
64 g0 = parameters->Get_g0(); // Skyrme-QMD
65 g0iso = parameters->Get_g0iso(); // Skyrme-
66 gtau0 = parameters->Get_gtau0(); // Skyrme-
67
68 // distance
69 c0w = 1.0/4.0/wl;
70 c0sw = std::sqrt( c0w );
71 clw = 2.0 / std::sqrt ( 4.0 * pi * wl );
72
73 // graduate
74 c0g = - c0 / ( 2.0 * wl );
75 c3g = - c3 / ( 4.0 * wl ) * gamm;
76 csg = - cs / ( 2.0 * wl );
77 pag = gamm - 1;
78 pag_tau = eta - 1; // Skyrme-QMD
79 cg0 = - g0 / ( 2.0 * wl ); // Skyrme-QMD
80 cgtau0 = - gtau0 / ( 4.0 * wl ) * eta; //
81
82 system = nullptr; // will be set through Se
83 }
84
85 void G4LightIonQMDMeanField::SetSystem ( G4QMD
86 {
87 system = aSystem;
88
89 G4int n = system->GetTotalNumberOfParticipa
90
91 pp2.clear();
92 rr2.clear();
93 rbij.clear();
94 rha.clear();
95 rhe.clear();
96 rhc.clear();
97
98 rr2.resize( n );
99 pp2.resize( n );
100 rbij.resize( n );
101 rha.resize( n );
102 rhe.resize( n );
103 rhc.resize( n );
104
105 for ( G4int i = 0 ; i < n ; ++i )
106 {
107 rr2[i].resize( n );
108 pp2[i].resize( n );
109 rbij[i].resize( n );
110 rha[i].resize( n );
111 rhe[i].resize( n );
112 rhc[i].resize( n );
113 }
114
115 ffr.clear();
116 ffp.clear();
117 rh3d.clear();
118 rh3d_tau.clear(); // Skyrme-QMD
119
120 ffr.resize( n );
121 ffp.resize( n );
122 rh3d.resize( n );
123 rh3d_tau.resize( n ); // Skyrme-QMD
124
125 Cal2BodyQuantities();
126 }
127
128 void G4LightIonQMDMeanField::SetNucleus ( G4Li
129 {
130 SetSystem( aNucleus );
131
132 G4double totalPotential = GetTotalPotential
133 aNucleus->SetTotalPotential( totalPotential
134 aNucleus->CalEnergyAndAngularMomentumInCM()
135 }
136
137 void G4LightIonQMDMeanField::Cal2BodyQuantitie
138 {
139 if ( system->GetTotalNumberOfParticipant()
140
141 for ( G4int j = 1 ; j < system->GetTotalNum
142 {
143 G4ThreeVector rj = system->GetParticipan
144 G4LorentzVector p4j = system->GetPartici
145
146 for ( G4int i = 0 ; i < j ; ++i )
147 {
148 G4ThreeVector ri = system->GetPartici
149 G4LorentzVector p4i = system->GetPart
150
151 G4ThreeVector rij = ri - rj;
152 G4ThreeVector pij = (p4i - p4j).v();
153 G4LorentzVector p4ij = p4i - p4j;
154 G4ThreeVector bij = ( p4i + p4j ).boo
155 G4double gammaij = ( p4i + p4j ).gamm
156
157 G4double eij = ( p4i + p4j ).e();
158
159 G4double rbrb = rij*bij;
160 G4double rij2 = rij*rij;
161 G4double pij2 = pij*pij;
162
163 rbrb = irelcr * rbrb;
164 G4double gamma2_ij = gammaij*gammaij
165
166 rr2[i][j] = rij2 + gamma2_ij * rbrb*r
167 rr2[j][i] = rr2[i][j];
168
169 rbij[i][j] = gamma2_ij * rbrb;
170 rbij[j][i] = - rbij[i][j];
171
172 pp2[i][j] = pij2
173 + irelcr * ( - G4Pow::GetIn
174 + gamma2_ij * G4Pow::GetIns
175
176
177 pp2[j][i] = pp2[i][j];
178
179 // Gauss term
180
181 G4double expa1 = - rr2[i][j] * c0w;
182
183 G4double rh1;
184 if ( expa1 > epsx )
185 {
186 rh1 = G4Exp( expa1 );
187 }
188 else
189 {
190 rh1 = 0.0;
191 }
192
193 G4int ibry = system->GetParticipant(i
194 G4int jbry = system->GetParticipant(j
195
196 rha[i][j] = ibry*jbry*rh1;
197 rha[j][i] = rha[i][j];
198
199 // Coulomb terms
200
201 G4double rrs2 = rr2[i][j] + epscl;
202 G4double rrs = std::sqrt ( rrs2 );
203
204 G4int icharge = system->GetParticipan
205 G4int jcharge = system->GetParticipan
206
207 G4double xerf = 0.0;
208 // T. K. add this protection. 5.8 is
209 if ( rrs*c0sw < 5.8 )
210 {
211 #if defined WIN32-VC
212 xerf = CLHEP::HepStat::erf ( rrs*c
213 #else
214 xerf = std::erf ( rrs*c0sw );
215 #endif
216 }
217 else
218 {
219 xerf = 1.0;
220 }
221
222 G4double erfij = xerf/rrs;
223
224 rhe[i][j] = icharge*jcharge * erfij;
225 rhe[j][i] = rhe[i][j];
226 rhc[i][j] = icharge*jcharge * ( - erf
227 rhc[j][i] = rhc[i][j];
228 } // i
229 } // j
230 }
231
232 void G4LightIonQMDMeanField::Cal2BodyQuantitie
233 {
234 G4ThreeVector ri = system->GetParticipant(
235 G4LorentzVector p4i = system->GetParticipan
236
237 for ( G4int j = 0 ; j < system->GetTotalNum
238 {
239 if ( j == i ) { continue; }
240
241 G4ThreeVector rj = system->GetParticipan
242 G4LorentzVector p4j = system->GetPartici
243
244 G4ThreeVector rij = ri - rj;
245 G4ThreeVector pij = (p4i - p4j).v();
246 G4LorentzVector p4ij = p4i - p4j;
247 G4ThreeVector bij = ( p4i + p4j ).boostV
248 G4double gammaij = ( p4i + p4j ).gamma()
249
250 G4double eij = ( p4i + p4j ).e();
251
252 G4double rbrb = rij*bij;
253 G4double rij2 = rij*rij;
254 G4double pij2 = pij*pij;
255
256 rbrb = irelcr * rbrb;
257 G4double gamma2_ij = gammaij*gammaij;
258
259 rr2[i][j] = rij2 + gamma2_ij * rbrb*rbrb
260 rr2[j][i] = rr2[i][j];
261
262 rbij[i][j] = gamma2_ij * rbrb;
263 rbij[j][i] = - rbij[i][j];
264
265 pp2[i][j] = pij2
266 + irelcr * ( - G4Pow::GetInsta
267 + gamma2_ij * G4Pow::GetInstan
268
269 pp2[j][i] = pp2[i][j];
270
271 // Gauss term
272
273 G4double expa1 = - rr2[i][j] * c0w;
274
275 G4double rh1;
276 if ( expa1 > epsx )
277 {
278 rh1 = G4Exp( expa1 );
279 }
280 else
281 {
282 rh1 = 0.0;
283 }
284
285 G4int ibry = system->GetParticipant(i)->
286 G4int jbry = system->GetParticipant(j)->
287
288 rha[i][j] = ibry*jbry*rh1;
289 rha[j][i] = rha[i][j];
290
291 // Coulomb terms
292
293 G4double rrs2 = rr2[i][j] + epscl;
294 G4double rrs = std::sqrt ( rrs2 );
295
296 G4int icharge = system->GetParticipant(i
297 G4int jcharge = system->GetParticipant(j
298
299 G4double xerf = 0.0;
300 // T. K. add this protection. 5.8 is goo
301 if ( rrs*c0sw < 5.8 )
302 {
303 #if defined WIN32-VC
304 xerf = CLHEP::HepStat::erf ( rrs*c0sw
305 #else
306 xerf = std::erf ( rrs*c0sw );
307 #endif
308 }
309 else
310 {
311 xerf = 1.0;
312 }
313
314 G4double erfij = xerf/rrs;
315
316 rhe[i][j] = icharge*jcharge * erfij;
317 rhe[j][i] = rhe[i][j];
318 rhc[i][j] = icharge*jcharge * ( - erfij
319 rhc[j][i] = rhc[i][j];
320 }
321 }
322
323 void G4LightIonQMDMeanField::CalGraduate()
324 {
325 ffr.resize( system->GetTotalNumberOfPartici
326 ffp.resize( system->GetTotalNumberOfPartici
327 rh3d.resize( system->GetTotalNumberOfPartic
328 rh3d_tau.resize( system->GetTotalNumberOfPa
329
330 for ( G4int i = 0 ; i < system->GetTotalNum
331 {
332 G4double rho3 = 0.0;
333 for ( G4int j = 0 ; j < system->GetTotal
334 {
335 rho3 += rha[j][i];
336 }
337 rh3d[i] = G4Pow::GetInstance()->powA ( r
338 rh3d_tau[i] = G4Pow::GetInstance()->powA
339 }
340
341 for ( G4int i = 0 ; i < system->GetTotalNum
342 {
343 G4ThreeVector ri = system->GetParticipan
344 G4LorentzVector p4i = system->GetPartici
345
346 G4ThreeVector betai = p4i.v()/p4i.e();
347
348 // R-JQMD
349 G4double Vi = GetPotential( i );
350 G4double p_zero = std::sqrt( p4i.e()*p4i
351 G4ThreeVector betai_R = p4i.v()/p_zero;
352 G4double mi_R = p4i.m()/p_zero;
353
354 ffr[i] = betai_R;
355 ffp[i] = G4ThreeVector( 0.0 );
356
357 for ( G4int j = 0 ; j < system->GetTotal
358 {
359 G4ThreeVector rj = system->GetPartici
360 G4LorentzVector p4j = system->GetPart
361
362 G4double eij = p4i.e() + p4j.e();
363
364 G4int icharge = system->GetParticipan
365 G4int jcharge = system->GetParticipan
366
367 G4int inuc = system->GetParticipant(i
368 G4int jnuc = system->GetParticipant(j
369
370 G4double fsij = 3.0/(2*wl) - rr2[j][i
371
372 G4double ccpp = c0g * rha[j][i]
373 + c3g * rha[j][i] * ( r
374 + cg0 * rha[j][i]/wl
375 + cg0 * rha[j][i] * fsi
376 + cgtau0 * rha[j][i] *
377 + csg * rha[j][i] * jnu
378 * ( 1. - 2. * std
379 * (1. - kappas *
380 + cl * rhc[j][i];
381
382 ccpp *= mi_R;
383
384 G4double grbb = - rbij[j][i];
385 G4double ccrr = grbb * ccpp / eij;
386
387 G4ThreeVector rij = ri - rj;
388 G4ThreeVector betaij = ( p4i + p4j )
389 G4ThreeVector cij = betaij - betai;
390
391 ffr[i] = ffr[i] + 2*ccrr* ( rij + grb
392 ffp[i] = ffp[i] - 2*ccpp* ( rij + grb
393 }
394 }
395 }
396
397 G4double G4LightIonQMDMeanField::GetPotential(
398 {
399 G4int n = system->GetTotalNumberOfParticipa
400
401 G4double rhoa = 0.0;
402 G4double rho3 = 0.0;
403 G4double fsij_rhoa = 0.0; // Skyrme-QMD
404 //G4double fsij_rhos = 0.0; // Skyrme-QMD
405 G4double rho3_tau = 0.0; // Skyrme-QMD
406 G4double rhos = 0.0;
407 G4double rhoc = 0.0;
408
409 G4int icharge = system->GetParticipant(i)->
410 G4int inuc = system->GetParticipant(i)->Get
411
412 for ( G4int j = 0 ; j < n ; ++j )
413 {
414 G4int jcharge = system->GetParticipant(j
415 G4int jnuc = system->GetParticipant(j)->
416 G4double fsij = 3.0/(2*wl) - rr2[j][i]/(
417
418 rhoa += rha[j][i];
419 fsij_rhoa += fsij * rha[j][i]; // Skyrme
420 rhoc += rhe[j][i];
421 rhos += rha[j][i] * jnuc * inuc
422 * ( 1. - 2. * std::abs
423 * (1. - kappas * fsij)
424 }
425
426 rho3 = G4Pow::GetInstance()->powA ( rhoa ,
427 rho3_tau = G4Pow::GetInstance()->powA ( rho
428
429 G4double potential = c0 * rhoa
430 + c3 * rho3
431 + g0 * fsij_rhoa // Sky
432 //+ g0iso * fsij_rhos /
433 + gtau0 * rho3_tau // S
434 + cs * rhos
435 + cl * rhoc;
436 return potential;
437 }
438
439 G4double G4LightIonQMDMeanField::GetTotalPoten
440 {
441 G4int n = system->GetTotalNumberOfParticipa
442
443 std::vector < G4double > rhoa ( n , 0.0 );
444 std::vector < G4double > rho3 ( n , 0.0 );
445 std::vector < G4double > rho3_tau ( n , 0.0
446 //std::vector < G4double > fsij_rhos ( n ,
447 std::vector < G4double > fsij_rhoa ( n , 0.
448 std::vector < G4double > rhos ( n , 0.0 );
449 std::vector < G4double > rhoc ( n , 0.0 );
450
451 for ( G4int i = 0 ; i < n ; ++i )
452 {
453 G4int icharge = system->GetParticipant(i
454 G4int inuc = system->GetParticipant(i)->
455
456 for ( G4int j = 0 ; j < n ; ++j )
457 {
458 G4int jcharge = system->GetParticipan
459 G4int jnuc = system->GetParticipant(j
460 G4double fsij = 3.0/(2*wl) - rr2[j][i
461
462 rhoa[i] += rha[j][i];
463 fsij_rhoa[i] += fsij * rha[j][i]; //
464 rhoc[i] += rhe[j][i];
465 rhos[i] += rha[j][i] * jnuc * inuc
466 //* ( 1 - 2 * st
467 * ( 1. - 2. * st
468 * (1. - kappas *
469 //fsij_rhos[i] += fsij * rha[j][i] *
470 //* ( 1. - 2.
471 //* (1. - kapp
472 }
473
474 rho3[i] = G4Pow::GetInstance()->powA ( r
475 rho3_tau[i] = G4Pow::GetInstance()->powA
476 }
477
478 G4double potential = c0 * std::accumulate(
479 + c3 * std::accumulate(
480 + g0 * std::accumulate(
481 //+ g0iso * std::accumu
482 + gtau0 * std::accumula
483 + cs * std::accumulate(
484 + cl * std::accumulate(
485
486 return potential;
487 }
488
489 G4double G4LightIonQMDMeanField::GetSingleEner
490 {
491 G4LorentzVector p4j = system->GetParticipa
492 G4double emass = p4j.m();
493 G4double ekinal2 = p4j.e()*p4j.e();
494 G4double esingle = std::sqrt(ekinal2 + 2*e
495 return esingle;
496 }
497
498 G4double G4LightIonQMDMeanField::GetTotalEnerg
499 {
500
501 G4int n = system->GetTotalNumberOfParticip
502 G4double etotal = 0.0;
503 for ( int j = 0 ; j < n ; j++ )
504 {
505 G4LorentzVector p4j = system->GetParti
506 G4double emass = p4j.m();
507 G4double ekinal2 = p4j.e()*p4j.e();
508 etotal += std::sqrt(ekinal2 + 2*emass*
509 }
510 return etotal;
511
512 }
513
514 G4double G4LightIonQMDMeanField::calPauliBlock
515 {
516 // i is supposed beyond total number of Par
517
518 G4double pf = 0.0;
519 G4int icharge = system->GetParticipant(i)->
520
521 for ( G4int j = 0 ; j < system->GetTotalNum
522 {
523 G4int jcharge = system->GetParticipant(j
524 G4int jnuc = system->GetParticipant(j)->
525
526 if ( jcharge == icharge && jnuc == 1 )
527 {
528 G4double expa = -rr2[i][j]*cpw;
529 if ( expa > epsx )
530 {
531 expa = expa - pp2[i][j]*cph;
532 if ( expa > epsx )
533 {
534 pf = pf + G4Exp ( expa );
535 }
536 }
537 }
538 }
539
540 return ( pf - 1.0 ) * cpc;
541 }
542
543 G4bool G4LightIonQMDMeanField::IsPauliBlocked(
544 {
545 G4bool result = false;
546
547 if ( system->GetParticipant( i )->GetNuc()
548 {
549 G4double pf = calPauliBlockingFactor( i
550 G4double rand = G4UniformRand();
551 if ( pf > rand ) { result = true; }
552 }
553
554 return result;
555 }
556
557 void G4LightIonQMDMeanField::DoPropagation( G4
558 {
559 G4double cc2 = 1.0;
560 G4double cc1 = 1.0 - cc2;
561 G4double cc3 = 1.0 / 2.0 / cc2;
562
563 G4double dt3 = dt * cc3;
564 G4double dt1 = dt * ( cc1 - cc3 );
565 G4double dt2 = dt * cc2;
566
567 CalGraduate();
568
569 G4int n = system->GetTotalNumberOfParticipa
570
571 // 1st Step
572
573 std::vector< G4ThreeVector > f0r, f0p;
574 f0r.resize( n );
575 f0p.resize( n );
576
577 for ( G4int i = 0 ; i < n ; ++i )
578 {
579 G4ThreeVector ri = system->GetParticipan
580 G4ThreeVector p3i = system->GetParticipa
581
582 ri += dt3* ffr[i];
583 p3i += dt3* ffp[i];
584
585 f0r[i] = ffr[i];
586 f0p[i] = ffp[i];
587
588 system->GetParticipant( i )->SetPosition
589 system->GetParticipant( i )->SetMomentum
590
591 // we do not need set total momentum by
592 }
593
594 // 2nd Step
595
596 Cal2BodyQuantities();
597 CalGraduate();
598
599 for ( G4int i = 0 ; i < n ; ++i )
600 {
601 G4ThreeVector ri = system->GetParticipan
602 G4ThreeVector p3i = system->GetParticipa
603
604 ri += dt1* f0r[i] + dt2* ffr[i];
605 p3i += dt1* f0p[i] + dt2* ffp[i];
606
607 system->GetParticipant( i )->SetPosition
608 system->GetParticipant( i )->SetMomentum
609
610 // we do not need set total momentum by
611 }
612
613 Cal2BodyQuantities();
614 }
615
616 std::vector< G4LightIonQMDNucleus* > G4LightIo
617 {
618 Cal2BodyQuantities();
619
620 G4double cpf2 = G4Pow::GetInstance()->A23 (
621 G4double rcc2 = rclds*rclds;
622
623 G4int n = system->GetTotalNumberOfParticipa
624 std::vector < G4double > rhoa;
625 rhoa.resize ( n );
626
627 for ( G4int i = 0 ; i < n ; ++i )
628 {
629 rhoa[i] = 0.0;
630
631 if ( system->GetParticipant( i )->GetBary
632 {
633 for ( G4int j = 0 ; j < n ; ++j )
634 {
635 if ( system->GetParticipant( j )->Get
636 rhoa[i] += rha[i][j];
637 }
638 }
639
640 rhoa[i] = G4Pow::GetInstance()->A13 ( rho
641 }
642
643 // identification of the cluster
644 std::vector < G4bool > is_already_belong_so
645
646 // cluster_id participant_id
647 std::multimap < G4int , G4int > comb_map;
648 std::multimap < G4int , G4int > assign_map;
649 assign_map.clear();
650
651 std::vector < G4int > mascl;
652 std::vector < G4int > num;
653 mascl.resize ( n );
654 num.resize ( n );
655 is_already_belong_some_cluster.resize ( n )
656
657 std::vector < G4int > is_assigned_to ( n ,
658 std::multimap < G4int , G4int > clusters;
659
660 for ( G4int i = 0 ; i < n ; ++i )
661 {
662 mascl[i] = 1;
663 num[i] = 1;
664 is_already_belong_some_cluster[i] = false
665 }
666
667 G4int ichek = 1;
668 G4int id = 0;
669 G4int cluster_id = -1;
670 for ( G4int i = 0 ; i < n-1 ; ++i )
671 {
672 G4bool hasThisCompany = false;
673
674 if ( system->GetParticipant( i )->GetBary
675 {
676 G4int j1 = i + 1;
677 for ( G4int j = j1 ; j < n ; ++j )
678 {
679 std::vector < G4int > cluster_partici
680 if ( system->GetParticipant( j )->Get
681 {
682 G4double rdist2 = rr2[ i ][ j ];
683 G4double pdist2 = pp2[ i ][ j ];
684 G4double pcc2 = cpf2
685 * ( rhoa[ i ] + rhoa[
686 * ( rhoa[ i ] + rhoa[
687
688 // Check phase space: close enough?
689 if ( rdist2 < rcc2 && pdist2 < pcc2
690 {
691 if ( is_assigned_to [ j ] == -1 )
692 {
693 if ( is_assigned_to [ i ] == -1
694 {
695 if ( clusters.size() != 0 )
696 {
697 id = clusters.rbegin()->fir
698 }
699 else
700 {
701 id = 0;
702 }
703 clusters.insert ( std::multim
704 is_assigned_to [ i ] = id;
705 clusters.insert ( std::multim
706 is_assigned_to [ j ] = id;
707 }
708 else
709 {
710 clusters.insert ( std::multim
711 is_assigned_to [ j ] = is_ass
712 }
713 }
714 else
715 {
716 // j is already belong to some
717 if ( is_assigned_to [ i ] == -1
718 {
719 clusters.insert ( std::multim
720 is_assigned_to [ i ] = is_ass
721 }
722 else
723 {
724 // i has companion
725 if ( is_assigned_to [ i ] !=
726 {
727 // move companions to the c
728 std::multimap< G4int , G4in
729 G4int target_cluster_id;
730 if ( is_assigned_to [ i ] >
731 {
732 target_cluster_id = is_as
733 }
734 else
735 {
736 target_cluster_id = is_as
737 }
738 for ( auto it = clusters.cb
739 {
740 if ( it->first == target_
741 {
742 is_assigned_to [ it->se
743 clusters_tmp.insert ( s
744 }
745 else
746 {
747 clusters_tmp.insert ( s
748 }
749 }
750 clusters = std::move(cluste
751 }
752 }
753 }
754
755 comb_map.insert( std::multimap<G4
756 cluster_participants.push_back (
757
758 if ( assign_map.find( cluster_id
759 {
760 is_already_belong_some_cluster[
761 assign_map.insert ( std::multim
762 hasThisCompany = true;
763 }
764 assign_map.insert ( std::multimap
765 is_already_belong_some_cluster[j]
766 }
767
768 if ( ichek == i )
769 {
770 ++ichek;
771 }
772 }
773 }
774 }
775 if ( hasThisCompany == true ) { ++cluster
776 }
777
778 // sort
779 // Heavy cluster comes first
780 // size cluster_id
781 std::multimap< G4int , G4int > sorted_clust
782 for ( G4int i = 0 ; i <= id ; ++i ) // <<
783 {
784 sorted_cluster_map.insert ( std::multimap
785 }
786
787 // create nucleus from divided clusters
788 std::vector < G4LightIonQMDNucleus* > resul
789 for ( auto it = sorted_cluster_map.crbegin(
790 {
791 if ( it->first != 0 )
792 {
793 G4LightIonQMDNucleus* nucleus = new G4L
794 for ( auto itt = clusters.cbegin(); itt
795 {
796 if ( it->second == itt->first )
797 {
798 nucleus->SetParticipant( system->Ge
799 }
800 }
801 result.push_back( nucleus );
802 }
803 }
804
805 // delete participants from current system
806 for ( auto it = result.cbegin(); it != resu
807 {
808 system->SubtractSystem ( *it );
809 }
810
811 return result;
812 }
813
814 void G4LightIonQMDMeanField::Update()
815 {
816 SetSystem( system );
817 }
818