Arcane  v3.16.2.0
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MeshMaterialSimdUnitTest.cc
1// -*- tab-width: 2; indent-tabs-mode: nil; coding: utf-8-with-signature -*-
2//-----------------------------------------------------------------------------
3// Copyright 2000-2023 CEA (www.cea.fr) IFPEN (www.ifpenergiesnouvelles.com)
4// See the top-level COPYRIGHT file for details.
5// SPDX-License-Identifier: Apache-2.0
6//-----------------------------------------------------------------------------
7/*---------------------------------------------------------------------------*/
8/* MeshMaterialSimdUnitTest.cc (C) 2000-2023 */
9/* */
10/* Service de test unitaire de la vectorisation des matériaux/milieux. */
11/*---------------------------------------------------------------------------*/
12/*---------------------------------------------------------------------------*/
13
14#include "arcane/utils/ScopedPtr.h"
15#include "arcane/utils/PlatformUtils.h"
16#include "arcane/utils/OStringStream.h"
17#include "arcane/utils/ArithmeticException.h"
18#include "arcane/utils/ValueChecker.h"
19
20#include "arcane/utils/Simd.h"
21#include "arcane/utils/SimdOperation.h"
22
23#include "arcane/core/BasicUnitTest.h"
24#include "arcane/core/ServiceBuilder.h"
25#include "arcane/core/FactoryService.h"
26#include "arcane/core/VariableView.h"
27#include "arcane/core/materials/internal/IMeshComponentInternal.h"
28
29#include "arcane/materials/ComponentSimd.h"
30#include "arcane/materials/IMeshMaterialMng.h"
31#include "arcane/materials/IMeshMaterial.h"
32#include "arcane/materials/IMeshEnvironment.h"
33#include "arcane/materials/MeshEnvironmentBuildInfo.h"
34#include "arcane/materials/MeshMaterialModifier.h"
35#include "arcane/materials/MatCellVector.h"
36#include "arcane/materials/EnvCellVector.h"
37#include "arcane/materials/MatItemEnumerator.h"
38#include "arcane/materials/MeshMaterialVariableRef.h"
39#include "arcane/materials/MeshEnvironmentVariableRef.h"
40#include "arcane/materials/EnvItemVector.h"
41
42#include "arcane/tests/ArcaneTestGlobal.h"
43
44// Pour les définitions, il faut finir par GCC car Clang et ICC définissent
45// la macro __GNU__
46// Pour CLANG, il n'y a pas encore d'équivalent au pragma ivdep.
47// Celui qui s'en approche le plus est:
48// #pragma clang loop vectorize(enable)
49// mais il ne force pas la vectorisation.
50#ifdef __clang__
51# define PRAGMA_IVDEP_VALUE "clang loop vectorize(enable)"
52#else
53# ifdef __INTEL_COMPILER
54# define PRAGMA_IVDEP_VALUE "ivdep"
55# else
56# ifdef __GNUC__
57// S'assure qu'on compile avec la vectorisation même en '-O2'
58// NOTE: à partir de GCC 12, le '-O2' implique aussi la vectorisation
59# pragma GCC optimize ("-ftree-vectorize")
60# define PRAGMA_IVDEP_VALUE "GCC ivdep"
61# endif
62# endif
63#endif
64
65//#undef PRAGMA_IVDEP_VALUE
66
67#ifdef PRAGMA_IVDEP_VALUE
68#define PRAGMA_IVDEP _Pragma(PRAGMA_IVDEP_VALUE)
69#else
70#define PRAGMA_IVDEP
71#define PRAGMA_IVDEP_VALUE ""
72#endif
73
74/*---------------------------------------------------------------------------*/
75/*---------------------------------------------------------------------------*/
76
77ARCANE_BEGIN_NAMESPACE
78MATERIALS_BEGIN_NAMESPACE
79
80/*---------------------------------------------------------------------------*/
81/*---------------------------------------------------------------------------*/
82
83namespace
84{
85String getCompilerInfo()
86{
87 OStringStream ostr;
88 String compiler_name = "Unknown";
89 Integer version_major = 0;
90 Integer version_minor = 0;
91#ifdef __clang__
92 compiler_name = "Clang";
93 version_major = __clang_major__;
94 version_minor = __clang_minor__;
95#else
96#ifdef __INTEL_COMPILER
97 compiler_name = "ICC";
98 version_major = __INTEL_COMPILER / 100;
99 version_minor = __INTEL_COMPILER % 100;
100#else
101#ifdef __GNUC__
102 compiler_name = "GCC";
103 version_major = __GNUC__;
104 version_minor = __GNUC_MINOR__;
105#endif // __GNUC__
106#endif // __INTEL_COMPILER
107#endif // __clang__
108 ostr() << compiler_name << " " << version_major << "." << version_minor;
109 return ostr.str();
110}
111}
112
113/*---------------------------------------------------------------------------*/
114/*---------------------------------------------------------------------------*/
115
116// Normalement pour l'EOS il faut utiliser la racine carrée mais GCC 6
117// ne tente pas de vectorisation (au contraire d'ICC 17) si cette opération est présente.
118// Pour vérifier qu'on vectorise bien, on supprime donc l'appel à la
119// racine carrée. On définit la macro USE_SQRT_IN_EOS à 1 pour utiliser la
120// racine carrée, à 0 sinon.
121#define USE_SQRT_IN_EOS 1
122
123#if USE_SQRT_IN_EOS == 1
124#define DO_SQRT(v) math::sqrt( v )
125#else
126#define DO_SQRT(v) (v)
127#endif
128
129/*---------------------------------------------------------------------------*/
130/*---------------------------------------------------------------------------*/
135class FullComponentPartCellEnumerator
136{
137 protected:
138 FullComponentPartCellEnumerator(IMeshComponent* component,
139 ComponentPartItemVectorView pure_view,
140 ComponentPartItemVectorView mixed_view)
141 : m_index(0), m_component(component)
142 {
143 m_items_view[0] = pure_view;
144 m_items_view[1] = mixed_view;
145 }
146 public:
147 static FullComponentPartCellEnumerator create(IMeshComponent* c)
148 {
149 return FullComponentPartCellEnumerator(c,c->pureItems(),c->impureItems());
150 }
151 public:
152 void operator++()
153 {
154 ++m_index;
155 }
156 bool hasNext() const { return m_index<2; }
157 ComponentPartItemVectorView operator*() const
158 {
159 return m_items_view[m_index];
160 }
161 protected:
162
163 Integer m_index;
164 ComponentPartItemVectorView m_items_view[2];
165 IMeshComponent* m_component;
166};
167
168/*---------------------------------------------------------------------------*/
169/*---------------------------------------------------------------------------*/
170
171#define ENUMERATE_ENVCELL2(iname,env) \
172 for( FullComponentPartCellEnumerator iname##_part(Arcane::Materials::FullComponentPartCellEnumerator::create(env)); iname##_part . hasNext(); ++ iname##_part ) \
173 PRAGMA_IVDEP \
174 A_ENUMERATE_COMPONENTCELL(ComponentPartCellEnumerator,iname,*(iname##_part))
175
176/*---------------------------------------------------------------------------*/
177/*---------------------------------------------------------------------------*/
178
179MATERIALS_END_NAMESPACE
180ARCANE_END_NAMESPACE
181
182/*---------------------------------------------------------------------------*/
183/*---------------------------------------------------------------------------*/
184
185ARCANETEST_BEGIN_NAMESPACE
186
187/*---------------------------------------------------------------------------*/
188/*---------------------------------------------------------------------------*/
189
190using namespace Arcane;
191using namespace Materials;
192
193/*---------------------------------------------------------------------------*/
194/*---------------------------------------------------------------------------*/
195
196namespace
197{
198class PerfTimer
199{
200 public:
201 PerfTimer(const char* msg)
202 : m_begin_time(0.0), m_msg(msg), m_has_error(false)
203 {
204 m_begin_time = platform::getRealTime();
205 }
206 ~PerfTimer()
207 {
208 Real end_time = platform::getRealTime();
209 Real true_time_v = end_time - m_begin_time;
210 double true_time = (double)(true_time_v);
211 std::cout << " -- -- Time: ";
212 std::cout.width(60);
213 std::cout << m_msg << " = ";
214 if (m_has_error)
215 std::cout << "ERROR";
216 else
217 std::cout << (true_time);
218 std::cout << '\n';
219 std::cout.flush();
220 }
221 void setError(bool v) { m_has_error = v; }
222 private:
223 Real m_begin_time;
224 const char* m_msg;
225 bool m_has_error;
226};
227}
228
229/*---------------------------------------------------------------------------*/
230/*---------------------------------------------------------------------------*/
234class MeshMaterialSimdUnitTest
235: public BasicUnitTest
236{
237 public:
238
239 MeshMaterialSimdUnitTest(const ServiceBuildInfo& cb);
240 ~MeshMaterialSimdUnitTest() override;
241
242 public:
243
244 void initializeTest() override;
245 void executeTest() override;
246
247 private:
248
249 IMeshEnvironment* m_env1 = nullptr;
250 MaterialVariableCellReal m_mat_a;
251 MaterialVariableCellReal m_mat_b;
252 MaterialVariableCellReal m_mat_c;
253 MaterialVariableCellReal m_mat_d;
254 MaterialVariableCellReal m_mat_e;
255
256 MaterialVariableCellReal m_mat_adiabatic_cst;
257 MaterialVariableCellReal m_mat_volume;
258 MaterialVariableCellReal m_mat_density;
259 MaterialVariableCellReal m_mat_old_volume;
260 MaterialVariableCellReal m_mat_internal_energy;
261 MaterialVariableCellReal m_mat_sound_speed;
262 MaterialVariableCellReal m_mat_pressure;
263
264 MaterialVariableCellReal m_mat_ref_internal_energy;
265 MaterialVariableCellReal m_mat_ref_sound_speed;
266 MaterialVariableCellReal m_mat_ref_pressure;
267
268 UniqueArray<Int32> m_env1_pure_value_index;
269 UniqueArray<Int32> m_env1_partial_value_index;
270 EnvCellVector* m_env1_as_vector = nullptr;
271 Int32 m_nb_z;
272
273 void _initializeVariables();
274 Real _executeDirect1(Integer nb_z);
275 void _executeTest1(Integer nb_z);
276 void _executeTest1_bis(Integer nb_z);
277 void _executeTest2(Integer nb_z);
278 void _executeTest2_bis(Integer nb_z);
279 void _executeTest3(Integer nb_z);
280 void _executeTest5(Integer nb_z);
281 void _executeTest6(Integer nb_z);
282 void _executeTest7(Integer nb_z);
283 void _executeTest8(Integer nb_z);
284 void _executeTest9(Integer nb_z);
285 void _executeTest10(Integer nb_z);
286 void _initForEquationOfState();
287 void _compareValues();
288 void _computeEquationOfStateReference();
289 void _computeEquationOfStateDirect1();
290 void _computeEquationOfStateIndirect1();
291 void _computeEquationOfStateV1();
292 void _computeEquationOfStateV1_bis();
293 void _computeEquationOfStateV2();
294 void _computeEquationOfStateV3();
295 void _computeEquationOfStateV4();
296 void _computeEquationOfStateV4_noview();
297
298 template<typename Lambda>
299 bool _apply(const char* message,Lambda&& lambda)
300 {
301 bool has_error = false;
302 {
303 PerfTimer pf(message);
304 try{
305 lambda();
306 }
307 catch(const ArithmeticException& ex){
308 pf.setError(true);
309 has_error = true;
310 info() << "ArithmeticException for '" << message << "'";
311 }
312 }
313 return has_error;
314 }
315
316 template<typename Lambda>
317 void _applyCompare(const char* message,Lambda&& lambda)
318 {
319 _initForEquationOfState();
320 bool has_error = _apply(message,lambda);
321 if (!has_error)
322 _compareValues();
323 }
324};
325
326/*---------------------------------------------------------------------------*/
327/*---------------------------------------------------------------------------*/
328
329ARCANE_REGISTER_CASE_OPTIONS_NOAXL_FACTORY(MeshMaterialSimdUnitTest,
330 IUnitTest,MeshMaterialSimdUnitTest);
331
332/*---------------------------------------------------------------------------*/
333/*---------------------------------------------------------------------------*/
334
335MeshMaterialSimdUnitTest::
336MeshMaterialSimdUnitTest(const ServiceBuildInfo& sb)
337: BasicUnitTest(sb)
338, m_env1(nullptr)
339, m_mat_a(VariableBuildInfo(mesh(),"MatA"))
340, m_mat_b(VariableBuildInfo(mesh(),"MatB"))
341, m_mat_c(VariableBuildInfo(mesh(),"MatC"))
342, m_mat_d(VariableBuildInfo(mesh(),"MatD"))
343, m_mat_e(VariableBuildInfo(mesh(),"MatE"))
344, m_mat_adiabatic_cst(VariableBuildInfo(mesh(),"MatAdiabaticCst"))
345, m_mat_volume(VariableBuildInfo(mesh(),"MatVolume"))
346, m_mat_density(VariableBuildInfo(mesh(),"MatDensity"))
347, m_mat_old_volume(VariableBuildInfo(mesh(),"MatOldVolume"))
348, m_mat_internal_energy(VariableBuildInfo(mesh(),"MatInternalEnergy"))
349, m_mat_sound_speed(VariableBuildInfo(mesh(),"MatSoundSpeed"))
350, m_mat_pressure(VariableBuildInfo(mesh(),"MatPressure"))
351, m_mat_ref_internal_energy(VariableBuildInfo(mesh(),"MatRefInternalEnergy"))
352, m_mat_ref_sound_speed(VariableBuildInfo(mesh(),"MatRefSoundSpeed"))
353, m_mat_ref_pressure(VariableBuildInfo(mesh(),"MatRefPressure"))
354, m_nb_z(0)
355{
356}
357
358/*---------------------------------------------------------------------------*/
359/*---------------------------------------------------------------------------*/
360
361MeshMaterialSimdUnitTest::
362~MeshMaterialSimdUnitTest()
363{
364 delete m_env1_as_vector;
365}
366
367/*---------------------------------------------------------------------------*/
368/*---------------------------------------------------------------------------*/
369
370void MeshMaterialSimdUnitTest::
371initializeTest()
372{
373 Materials::IMeshMaterialMng* mm = IMeshMaterialMng::getReference(mesh());
374
375 // Lit les infos des matériaux du JDD et les enregistre dans le gestionnaire
376 UniqueArray<String> mat_names = { "MAT1", "MAT2", "MAT3" };
377 for( String v : mat_names ){
378 mm->registerMaterialInfo(v);
379 }
380
381 {
382 Materials::MeshEnvironmentBuildInfo env_build("ENV1");
383 env_build.addMaterial("MAT1");
384 env_build.addMaterial("MAT2");
385 mm->createEnvironment(env_build);
386 }
387 {
388 Materials::MeshEnvironmentBuildInfo env_build("ENV2");
389 env_build.addMaterial("MAT2");
390 env_build.addMaterial("MAT3");
391 mm->createEnvironment(env_build);
392 }
393
394 mm->endCreate(false);
395
396 IMeshEnvironment* env1 = mm->environments()[0];
397 IMeshEnvironment* env2 = mm->environments()[1];
398
399 m_env1 = env1;
400
401 IMeshMaterial* mat1 = env1->materials()[0];
402 IMeshMaterial* mat2 = env2->materials()[1];
403
404 {
405 Int32UniqueArray env1_indexes;
406 Int32UniqueArray mat2_indexes;
407 Int32UniqueArray sub_group_indexes;
408 Integer nb_cell = ownCells().size();
409 Int64 total_nb_cell = nb_cell;
410 ENUMERATE_CELL(icell,allCells()){
411 Cell cell = *icell;
412 Int64 cell_index = cell.uniqueId();
413 if (cell_index<((2*total_nb_cell)/3)){
414 env1_indexes.add(icell.itemLocalId());
415 }
416 if (cell_index<(total_nb_cell/2) && cell_index>(total_nb_cell/3)){
417 mat2_indexes.add(icell.itemLocalId());
418 }
419 if ((cell_index%2)==0)
420 sub_group_indexes.add(icell.itemLocalId());
421 }
422
423 // Ajoute les mailles du milieu 1
424 {
425 Materials::MeshMaterialModifier modifier(mm);
426 Materials::IMeshEnvironment* env = mat1->environment();
427 // Ajoute les mailles du milieu
428 //modifier.addCells(env,env1_indexes);
429 Int32UniqueArray mat1_indexes;
430 Int32UniqueArray mat2_indexes;
431 Integer nb_cell = env1_indexes.size();
432 for( Integer z=0; z<nb_cell; ++z ){
433 bool add_to_mat1 = (z<(nb_cell/2) && z>(nb_cell/4));
434 bool add_to_mat2 = (z>=(nb_cell/2) || z<(nb_cell/3));
435 if (add_to_mat1){
436 mat1_indexes.add(env1_indexes[z]);
437 }
438 if (add_to_mat2)
439 mat2_indexes.add(env1_indexes[z]);
440 }
441 // Ajoute les mailles du matériau 1
442 modifier.addCells(mat1,mat1_indexes);
443 Integer nb_mat = env->nbMaterial();
444 if (nb_mat>1)
445 // Ajoute les mailles du matériau 2
446 modifier.addCells(mm->environments()[0]->materials()[1],mat2_indexes);
447 }
448 // Ajoute les mailles du milieu 2
449 if (mat2){
450 Materials::MeshMaterialModifier modifier(mm);
451 //modifier.addCells(m_mat2->environment(),mat2_indexes);
452 modifier.addCells(mat2,mat2_indexes);
453 }
454 }
455
456 for( IMeshEnvironment* env : mm->environments() ){
457 info() << "** ** ENV name=" << env->name() << " nb_item=" << env->view().nbItem();
458 Integer nb_pure_env = 0;
459 ENUMERATE_ENVCELL(ienvcell,env){
460 if ( (*ienvcell).allEnvCell().nbEnvironment()==1 )
461 ++nb_pure_env;
462 }
463 info() << "** ** NB_PURE=" << nb_pure_env;
464 }
465}
466
467/*---------------------------------------------------------------------------*/
468/*---------------------------------------------------------------------------*/
469
470void MeshMaterialSimdUnitTest::
471executeTest()
472{
473 m_env1_pure_value_index.clear();
474 m_env1_partial_value_index.clear();
475 Integer nb_unknown = 0;
476 {
477 ENUMERATE_ENVCELL(ienvcell,m_env1){
478 EnvCell env_cell = *ienvcell;
479 MatVarIndex mvi = env_cell._varIndex();
480 Integer nb_env = env_cell.allEnvCell().nbEnvironment();
481 if ( nb_env==1 )
482 m_env1_pure_value_index.add(mvi.valueIndex());
483 else if (nb_env>1)
484 m_env1_partial_value_index.add(mvi.valueIndex());
485 else
486 ++nb_unknown;
487 }
488 }
489 m_env1_as_vector = new EnvCellVector(m_env1->cells(),m_env1);
490
491 Integer nb_z = 10000;
492 if (arcaneIsDebug())
493 nb_z /= 100;
494 Integer nb_z2 = nb_z / 5;
495
496 Int32 env_idx = m_env1->_internalApi()->variableIndexerIndex() + 1;
497 info() << "Using vectorisation name=" << SimdInfo::name()
498 << " vector_size=" << SimdReal::Length << " index_size=" << SimdInfo::Int32IndexSize;
499 info() << "Compiler=\"" << getCompilerInfo() << "\""
500 << " machine=" << platform::getHostName();
501 info() << "use_sqrt_in_eos?=" << USE_SQRT_IN_EOS
502 << " PRAGMA_IVDEP=" << PRAGMA_IVDEP_VALUE;
503 info() << "ENV_IDX=" << env_idx
504 << " nb_pure=" << m_env1_pure_value_index.size()
505 << " nb_partial=" << m_env1_partial_value_index.size()
506 << " nb_unknown=" << nb_unknown
507 << " nb_z=" << nb_z << " nb_z2=" << nb_z2;
508
509 _initializeVariables();
510 {
511 PerfTimer pf("executeDirect1");
512 _executeDirect1(nb_z);
513 }
514 {
515 PerfTimer pf("executeTest1 (ENVCELL)");
516 _executeTest1(nb_z);
517 }
518 {
519 PerfTimer pf("executeTest1_bis (ENVCELL2)");
520 _executeTest1_bis(nb_z);
521 }
522 {
523 PerfTimer pf("executeTest2 (ENVCELL,IVDEP,view)");
524 _executeTest2(nb_z);
525 }
526 {
527 PerfTimer pf("executeTest2_bis (ENVCELL2,view)");
528 _executeTest2_bis(nb_z);
529 }
530 {
531 PerfTimer pf("executeTest3 (2 loops)");
532 _executeTest3(nb_z);
533 }
534 {
535 PerfTimer pf("executeTest4 (2 loops, ivdep)");
536 _executeTest3(nb_z);
537 }
538 {
539 PerfTimer pf("executeTest5 (2 loops, functor)");
540 _executeTest5(nb_z);
541 }
542 {
543 PerfTimer pf("executeTest6 (2 loops, functor)");
544 _executeTest6(nb_z);
545 }
546 {
547 PerfTimer pf("executeTest7 (2 loops, loop functor)");
548 _executeTest7(nb_z);
549 }
550 {
551 PerfTimer pf("executeTest8 (simple_env_loop)");
552 _executeTest8(nb_z);
553 }
554 {
555 PerfTimer pf("executeTest9 (SIMD_ENVCELL)");
556 _executeTest9(nb_z);
557 }
558 {
559 PerfTimer pf("executeTest10 (SIMD_ENVCELL, functor)");
560 _executeTest10(nb_z);
561 }
562 m_nb_z = nb_z2;
563 _initForEquationOfState();
564 _computeEquationOfStateReference();
565 _apply("_computeEquationOfStateDirect1",
566 [&](){_computeEquationOfStateDirect1();});
567 _apply("_computeEquationOfStateIndirect1",
568 [&](){_computeEquationOfStateIndirect1();});
569 _applyCompare("_computeEquationOfStateV1 (ENVCELL)",
570 [&](){_computeEquationOfStateV1();});
571 _applyCompare("_computeEquationOfStateV1_bis (ENVCELL2)",
572 [&](){_computeEquationOfStateV1_bis();});
573
574 _applyCompare("_computeEquationOfStateV2 (simple_simd_env_loop)",
575 [&](){_computeEquationOfStateV2();});
576 _applyCompare("_computeEquationOfStateV3 (simple_env_loop)",
577 [&](){_computeEquationOfStateV3();});
578
579 _applyCompare("_computeEquationOfStateV4 (lambda simple_env_loop2)",
580 [&](){_computeEquationOfStateV4();});
581 _applyCompare("_computeEquationOfStateV4_noview (lambda simple_env_loop2)",
582 [&](){_computeEquationOfStateV4_noview();});
583
584}
585
586/*---------------------------------------------------------------------------*/
587/*---------------------------------------------------------------------------*/
588
589void MeshMaterialSimdUnitTest::
590_initializeVariables()
591{
592 MaterialVariableCellReal& a(m_mat_a);
593 MaterialVariableCellReal& b(m_mat_b);
594 MaterialVariableCellReal& c(m_mat_c);
595 MaterialVariableCellReal& d(m_mat_d);
596 MaterialVariableCellReal& e(m_mat_e);
597
598 ENUMERATE_ENVCELL(i,m_env1){
599 Real z = (Real)i.index();
600 b[i] = z*2.3;
601 c[i] = z*3.1;
602 d[i] = z*2.5;
603 e[i] = z*4.2;
604 a[i] = 0;
605 }
606}
607
608/*---------------------------------------------------------------------------*/
609/*---------------------------------------------------------------------------*/
610
611Real MeshMaterialSimdUnitTest::
612_executeDirect1(Integer nb_z)
613{
614 Integer TRUE_SIZE = m_env1->cells().size();
615 Real ARCANE_RESTRICT *a = new Real[TRUE_SIZE];
616 Real *b = new Real[TRUE_SIZE];
617 Real *c = new Real[TRUE_SIZE];
618 Real *d = new Real[TRUE_SIZE];
619 Real *e = new Real[TRUE_SIZE];
620#pragma omp parallel for
621 for( Integer i=0, is=TRUE_SIZE; i<is; ++i ){
622 Real z = (Real)i;
623 a[i] = b[i] = c[i] = d[i] = e[i] = z;
624 }
625 Real s = 0.0;
626 for( Integer z=0, iz=nb_z; z<iz; ++z ){
627 for( Integer i=0, is=TRUE_SIZE; i<is; ++i ){
628 a[i] = b[i] + c[i] * d[i] + e[i];
629 }
630 s += a[z%5];
631 }
632 delete[] a;
633 delete[] b;
634 delete[] c;
635 delete[] d;
636 delete[] e;
637 return s;
638}
639
640/*---------------------------------------------------------------------------*/
641/*---------------------------------------------------------------------------*/
642
643void MeshMaterialSimdUnitTest::
644_executeTest1(Integer nb_z)
645{
646 MaterialVariableCellReal& a(m_mat_a);
647 MaterialVariableCellReal& b(m_mat_b);
648 MaterialVariableCellReal& c(m_mat_c);
649 MaterialVariableCellReal& d(m_mat_d);
650 MaterialVariableCellReal& e(m_mat_e);
651
652 for( Integer z=0, iz=nb_z; z<iz; ++z ){
653 ENUMERATE_ENVCELL(i,m_env1){
654 a[i] = b[i] + c[i] * d[i] + e[i];
655 }
656 }
657}
658
659/*---------------------------------------------------------------------------*/
660/*---------------------------------------------------------------------------*/
661
662void MeshMaterialSimdUnitTest::
663_executeTest1_bis(Integer nb_z)
664{
665 MaterialVariableCellReal& a(m_mat_a);
666 MaterialVariableCellReal& b(m_mat_b);
667 MaterialVariableCellReal& c(m_mat_c);
668 MaterialVariableCellReal& d(m_mat_d);
669 MaterialVariableCellReal& e(m_mat_e);
670
671 for( Integer z=0, iz=nb_z; z<iz; ++z ){
672 ENUMERATE_ENVCELL2(i,m_env1){
673 a[i] = b[i] + c[i] * d[i] + e[i];
674 }
675 }
676}
677
678/*---------------------------------------------------------------------------*/
679/*---------------------------------------------------------------------------*/
680
681void MeshMaterialSimdUnitTest::
682_executeTest2(Integer nb_z)
683{
684 auto a(viewOut(m_mat_a));
685 auto b(viewIn(m_mat_b));
686 auto c(viewIn(m_mat_c));
687 auto d(viewIn(m_mat_d));
688 auto e(viewIn(m_mat_e));
689
690 for( Integer z=0, iz=nb_z; z<iz; ++z ){
691 PRAGMA_IVDEP
692 // Certaines versions du compilateur intel (au moins la version 20.0)
693 // donnent une erreur sur le 'pragma omp simd' car le test de la boucle
694 // est une fonction. Pour éviter une erreur de compilation on supprime
695 // ce pragma avec le compilateur intel. A noter que cela semble fonctionner
696 // avec les versions 2021+ de Intel (icpc, icpx et DPC++).
697#ifndef __INTEL_COMPILER
698#pragma omp simd
699#endif
700 ENUMERATE_ENVCELL(i,m_env1){
701 a[i] = b[i] + c[i] * d[i] + e[i];
702 }
703 }
704}
705
706/*---------------------------------------------------------------------------*/
707/*---------------------------------------------------------------------------*/
708
709void MeshMaterialSimdUnitTest::
710_executeTest2_bis(Integer nb_z)
711{
712 auto a(viewOut(m_mat_a));
713 auto b(viewIn(m_mat_b));
714 auto c(viewIn(m_mat_c));
715 auto d(viewIn(m_mat_d));
716 auto e(viewIn(m_mat_e));
717
718 for( Integer z=0, iz=nb_z; z<iz; ++z ){
719 ENUMERATE_ENVCELL2(i,m_env1){
720 a[i] = b[i] + c[i] * d[i] + e[i];
721 }
722 }
723}
724
725/*---------------------------------------------------------------------------*/
726/*---------------------------------------------------------------------------*/
727
728void MeshMaterialSimdUnitTest::
729_executeTest3(Integer nb_z)
730{
731 auto a(viewOut(m_mat_a));
732 auto b(viewIn(m_mat_b));
733 auto c(viewIn(m_mat_c));
734 auto d(viewIn(m_mat_d));
735 auto e(viewIn(m_mat_e));
736
737 for( Integer z=0, iz=nb_z; z<iz; ++z ){
738 {
739 Int32ConstArrayView indexes = m_env1_pure_value_index;
740 PRAGMA_IVDEP
741 for( Integer i=0, n=indexes.size(); i<n; ++i ){
742 Int32 xi = indexes[i];
743 MatVarIndex mvi(0,xi);
744 a[mvi] = b[mvi] + c[mvi] * d[mvi] + e[mvi];
745 }
746 }
747 {
748 Int32ConstArrayView indexes = m_env1_partial_value_index;
749 Int32 env_idx = m_env1->_internalApi()->variableIndexerIndex() + 1;
750 PRAGMA_IVDEP
751 for( Integer i=0, n=indexes.size(); i<n; ++i ){
752 Int32 xi = indexes[i];
753 MatVarIndex mvi(env_idx,xi);
754 a[mvi] = b[mvi] + c[mvi] * d[mvi] + e[mvi];
755 }
756 }
757 }
758}
759
760/*---------------------------------------------------------------------------*/
761/*---------------------------------------------------------------------------*/
762
763void MeshMaterialSimdUnitTest::
764_executeTest5(Integer nb_z)
765{
766 auto a(viewOut(m_mat_a));
767 auto b(viewIn(m_mat_b));
768 auto c(viewIn(m_mat_c));
769 auto d(viewIn(m_mat_d));
770 auto e(viewIn(m_mat_e));
771
772 auto func = [=](Int32 env_idx,Int32ConstArrayView indexes)
773 {
774 for( Integer i=0, n=indexes.size(); i<n; ++i ){
775 Int32 xi = indexes[i];
776 MatVarIndex mvi(env_idx,xi);
777 a[mvi] = b[mvi] + c[mvi] * d[mvi] + e[mvi];
778 }
779 };
780
781 for( Integer z=0, iz=nb_z; z<iz; ++z ){
782 Int32 env_idx = m_env1->_internalApi()->variableIndexerIndex() + 1;
783 func(0,m_env1_pure_value_index);
784 func(env_idx,m_env1_partial_value_index);
785 }
786}
787
788/*---------------------------------------------------------------------------*/
789/*---------------------------------------------------------------------------*/
790
791void MeshMaterialSimdUnitTest::
792_executeTest6(Integer nb_z)
793{
794 auto a(viewOut(m_mat_a));
795 auto b(viewIn(m_mat_b));
796 auto c(viewIn(m_mat_c));
797 auto d(viewIn(m_mat_d));
798 auto e(viewIn(m_mat_e));
799
800 auto func = [=](Int32 env_idx,Int32ConstArrayView indexes)
801 {
802 for( Integer i=0, n=indexes.size(); i<n; ++i ){
803 Int32 xi = indexes[i];
804 MatVarIndex mvi(env_idx,xi);
805 a[mvi] = b[mvi] + c[mvi] * d[mvi] + e[mvi];
806 }
807 };
808
809 for( Integer z=0, iz=nb_z; z<iz; ++z ){
810 {
811 ComponentPartItemVectorView pv = m_env1_as_vector->pureItems();
812 func(pv.componentPartIndex(),pv.valueIndexes());
813 }
814 {
815 ComponentPartItemVectorView pv = m_env1_as_vector->impureItems();
816 func(pv.componentPartIndex(),pv.valueIndexes());
817 }
818 }
819}
820
821/*---------------------------------------------------------------------------*/
822/*---------------------------------------------------------------------------*/
823
824template<typename Lambda> void
825env_loop(const EnvCellVector& env,const Lambda& lambda)
826{
827 lambda(env.pureItems());
828 lambda(env.impureItems());
829}
830
831void MeshMaterialSimdUnitTest::
832_executeTest7(Integer nb_z)
833{
834 auto a(viewOut(m_mat_a));
835 auto b(viewIn(m_mat_b));
836 auto c(viewIn(m_mat_c));
837 auto d(viewIn(m_mat_d));
838 auto e(viewIn(m_mat_e));
839
840 for( Integer z=0, iz=nb_z; z<iz; ++z ){
841 env_loop(*m_env1_as_vector,[=](ComponentPartItemVectorView view){
842 ENUMERATE_COMPONENTITEM(ComponentPartCell,mvi,view){
843 a[mvi] = b[mvi] + c[mvi] * d[mvi] + e[mvi];
844 }});
845 }
846}
847
848/*---------------------------------------------------------------------------*/
849/*---------------------------------------------------------------------------*/
850
851template<typename Lambda> void
852simple_env_loop(ComponentPartItemVectorView pure_items,
853 ComponentPartItemVectorView impure_items,
854 const Lambda& lambda)
855{
856 ComponentPartItemVectorView views[2];
857 views[0] = pure_items;
858 views[1] = impure_items;
859
860 for( Integer iview=0; iview<2; ++iview ){
861 const auto& xiter = views[iview];
862 Int32 cpi = xiter.componentPartIndex();
863 Int32ConstArrayView item_indexes = xiter.valueIndexes();
864 Integer nb_item = xiter.nbItem();
865 //std::cout << " cpi=" << cpi << " nb_item=" << nb_item << " nb_item2=" << item_indexes.size() << '\n';
866 PRAGMA_IVDEP
867 for( Integer i=0; i<nb_item; ++i ){
868 MatVarIndex mvi(cpi,item_indexes[i]);
869 //std::cout << " cpi=" << cpi << " I=" << i << " IDX=" << item_indexes[i] << '\n';
870 lambda(mvi);
871 }
872 }
873}
874
875template<typename ContainerType,typename Lambda> void
876simple_env_loop(ContainerType& ct,const Lambda& lambda)
877{
878 simple_env_loop(ct.pureItems(),ct.impureItems(),lambda);
879}
880
881template<typename Lambda> void
882simple_env_loop2(ComponentPartItemVectorView pure_items,
883 ComponentPartItemVectorView impure_items,
884 const Lambda& lambda)
885{
886 ComponentPartItemVectorView views[2];
887 views[0] = pure_items;
888 views[1] = impure_items;
889
890 {
891 auto view = views[0];
892 Int32ConstArrayView item_indexes = view.valueIndexes();
893 Integer nb_item = view.nbItem();
894 PRAGMA_IVDEP
895 for( Integer i=0; i<nb_item; ++i ){
896 lambda(PureMatVarIndex(item_indexes[i]));
897 //lambda(PureMatVarIndex(i));
898 }
899 }
900
901 {
902 auto view = views[1];
903 Int32 cpi = view.componentPartIndex();
904 Integer nb_item = view.nbItem();
905 Int32ConstArrayView item_indexes = view.valueIndexes();
906 PRAGMA_IVDEP
907 for( Integer i=0; i<nb_item; ++i ){
908 // On sait pour ce test que les mailles partielles sont contigues
909 // et item_indexes[i] == i.
910 //MatVarIndex mvi(cpi,item_indexes[i]);
911 ComponentItemLocalId mvi(MatVarIndex(cpi,item_indexes[i]));
912 lambda(mvi);
913 }
914 }
915}
916
917template<typename ContainerType,typename Lambda> void
918simple_env_loop2(const ContainerType& ct,const Lambda& lambda)
919{
920 simple_env_loop2(ct.pureItems(),ct.impureItems(),lambda);
921}
922
923void MeshMaterialSimdUnitTest::
924_executeTest8(Integer nb_z)
925{
926 auto a(viewOut(m_mat_a));
927 auto b(viewIn(m_mat_b));
928 auto c(viewIn(m_mat_c));
929 auto d(viewIn(m_mat_d));
930 auto e(viewIn(m_mat_e));
931
932 for( Integer z=0, iz=nb_z; z<iz; ++z ){
933 simple_env_loop(*m_env1_as_vector,[=](MatVarIndex mvi){
934 a[mvi] = b[mvi] + c[mvi] * d[mvi] + e[mvi];
935 });
936 }
937}
938
939/*---------------------------------------------------------------------------*/
940/*---------------------------------------------------------------------------*/
941
942void MeshMaterialSimdUnitTest::
943_executeTest9(Integer nb_z)
944{
945 auto a(viewOut(m_mat_a));
946 auto b(viewIn(m_mat_b));
947 auto c(viewIn(m_mat_c));
948 auto d(viewIn(m_mat_d));
949 auto e(viewIn(m_mat_e));
950
951 for( Integer z=0, iz=nb_z; z<iz; ++z ){
952 env_loop(*m_env1_as_vector,[=](ComponentPartItemVectorView view){
953 ENUMERATE_SIMD_COMPONENTCELL(mvi,view){
954 a[mvi] = b[mvi] + c[mvi] * d[mvi] + e[mvi];
955 }});
956 }
957
958}
959
960/*---------------------------------------------------------------------------*/
961/*---------------------------------------------------------------------------*/
962
963#define A_ENUMERATE_LAMBDA(iter_type,iter,container,...) \
964 Arcane::Materials:: LoopFunctor ## iter_type ( (container) ) << __VA_ARGS__ ( Arcane::Materials:: LoopFunctor ## iter_type :: IterType iter)
965
966#define A_CAPTURE(a) a
967#define A_ENUMERATE_LAMBDA2(iter_type,iter,container,lambda_capture) \
968 Arcane::Materials:: LoopFunctor ## iter_type ( (container) ) << A_CAPTURE(lambda_capture) ( Arcane::Materials:: LoopFunctor ## iter_type :: IterType iter)
969
970#define A_ENUMERATE_LAMBDA3(iter_type,iter,container) \
971 Arcane::Materials:: LoopFunctor ## iter_type ( (container) ) <<
972
973/*---------------------------------------------------------------------------*/
974/*---------------------------------------------------------------------------*/
975// TODO: mettre dans .h
976template<typename Lambda> void
977simple_simd_env_loop(const EnvCellVector& env,const Lambda& lambda)
978{
979 simple_simd_env_loop(env.pureItems(),env.impureItems(),lambda);
980}
981
982/*---------------------------------------------------------------------------*/
983/*---------------------------------------------------------------------------*/
984
985void MeshMaterialSimdUnitTest::
986_executeTest10(Integer nb_z)
987{
988 auto a(viewOut(m_mat_a));
989 auto b(viewIn(m_mat_b));
990 auto c(viewIn(m_mat_c));
991 auto d(viewIn(m_mat_d));
992 auto e(viewIn(m_mat_e));
993
994 for( Integer z=0, iz=nb_z; z<iz; ++z ){
995 simple_simd_env_loop(*m_env1_as_vector,[=](const SimdMatVarIndex& mvi){
996 a[mvi] = b[mvi] + c[mvi] * d[mvi] + e[mvi];
997 });
998 }
999}
1000
1001/*---------------------------------------------------------------------------*/
1002/*---------------------------------------------------------------------------*/
1003
1004void MeshMaterialSimdUnitTest::
1005_initForEquationOfState()
1006{
1007 ENUMERATE_ENVCELL(icell,m_env1){
1008 EnvCellEnumerator vi = icell;
1009 m_mat_adiabatic_cst[vi] = 1.4;
1010 m_mat_volume[vi] = 1.2;
1011 m_mat_old_volume[vi] = 1.1;
1012
1013 m_mat_density[vi] = 2.0;
1014 m_mat_pressure[vi] = 1.1;
1015
1016 m_mat_internal_energy[vi] = m_mat_pressure[icell] / ((m_mat_adiabatic_cst[icell]-1.0) * m_mat_density[icell]);
1017 }
1018}
1019
1020/*---------------------------------------------------------------------------*/
1021/*---------------------------------------------------------------------------*/
1022
1023void MeshMaterialSimdUnitTest::
1024_computeEquationOfStateDirect1()
1025{
1026 Int32 nb_z = m_nb_z;
1027 Integer TRUE_SIZE = m_env1->cells().size();
1028
1029 auto in_adiabatic_cst = new Real[TRUE_SIZE];
1030 auto in_volume = new Real[TRUE_SIZE];
1031 auto in_density = new Real[TRUE_SIZE];
1032 auto in_old_volume = new Real[TRUE_SIZE];
1033 auto in_internal_energy = new Real[TRUE_SIZE];
1034
1035 auto out_internal_energy = in_internal_energy;
1036 auto out_sound_speed = new Real[TRUE_SIZE];
1037 auto out_pressure = new Real[TRUE_SIZE];
1038
1039 for( Integer i=0, is=TRUE_SIZE; i<is; ++i ){
1040 Integer vi = i;
1041 in_adiabatic_cst[vi] = 1.4;
1042 in_volume[vi] = 1.2;
1043 in_old_volume[vi] = 1.1;
1044
1045 in_density[vi] = 2.0;
1046 Real in_pressure = 1.1;
1047
1048 in_internal_energy[vi] = in_pressure / ((in_adiabatic_cst[vi]-1.0) * in_density[vi]);
1049 }
1050 for( Int32 iloop=0; iloop<nb_z; ++iloop){
1051
1052 PRAGMA_IVDEP
1053 for( Integer i=0, n=TRUE_SIZE; i<n; ++i ){
1054 Integer vi = i;
1055 Real adiabatic_cst = in_adiabatic_cst[vi];
1056 Real volume_ratio = in_volume[vi] / in_old_volume[vi];
1057 Real x = 0.5 * adiabatic_cst - 1.0;
1058 Real numer_accrois_nrj = 1.0 + x*(1.0-volume_ratio);
1059 Real denom_accrois_nrj = 1.0 + x*(1.0-(1.0/volume_ratio));
1060 Real internal_energy = in_internal_energy[vi];
1061 internal_energy = internal_energy * (numer_accrois_nrj/denom_accrois_nrj);
1062 out_internal_energy[vi] = internal_energy;
1063 Real density = in_density[vi];
1064 Real pressure = (adiabatic_cst - 1.0) * density * internal_energy;
1065 Real sound_speed = DO_SQRT((adiabatic_cst*pressure/density));
1066 out_pressure[vi] = pressure;
1067 out_sound_speed[vi] = sound_speed;
1068 }
1069 }
1070 delete[] in_adiabatic_cst;
1071 delete[] in_volume;
1072 delete[] in_density;
1073 delete[] in_old_volume;
1074 delete[] in_internal_energy;
1075 delete[] out_sound_speed;
1076 delete[] out_pressure;
1077}
1078
1079/*---------------------------------------------------------------------------*/
1080/*---------------------------------------------------------------------------*/
1081
1082void MeshMaterialSimdUnitTest::
1083_computeEquationOfStateIndirect1()
1084{
1085 Int32 nb_z = m_nb_z;
1086 Integer TRUE_SIZE = m_env1->cells().size();
1087
1088 auto in_adiabatic_cst = new Real[TRUE_SIZE];
1089 auto in_volume = new Real[TRUE_SIZE];
1090 auto in_density = new Real[TRUE_SIZE];
1091 auto in_old_volume = new Real[TRUE_SIZE];
1092 auto in_internal_energy = new Real[TRUE_SIZE];
1093
1094 auto out_internal_energy = in_internal_energy;
1095 auto out_sound_speed = new Real[TRUE_SIZE];
1096 auto out_pressure = new Real[TRUE_SIZE];
1097
1098 ARCANE_RESTRICT Int32* idx = new Int32[TRUE_SIZE];
1099
1100 for( Integer i=0, is=TRUE_SIZE; i<is; ++i ){
1101 idx[i] = i;
1102 Integer vi = idx[i];
1103
1104 in_adiabatic_cst[vi] = 1.4;
1105 in_volume[vi] = 1.2;
1106 in_old_volume[vi] = 1.1;
1107
1108 in_density[vi] = 2.0;
1109 Real in_pressure = 1.1;
1110
1111 in_internal_energy[vi] = in_pressure / ((in_adiabatic_cst[vi]-1.0) * in_density[vi]);
1112 }
1113 for( Int32 iloop=0; iloop<nb_z; ++iloop){
1114
1115 PRAGMA_IVDEP
1116 for( Integer i=0, n=TRUE_SIZE; i<n; ++i ){
1117 Integer vi = idx[i];
1118 Real adiabatic_cst = in_adiabatic_cst[vi];
1119 Real volume_ratio = in_volume[vi] / in_old_volume[vi];
1120 Real x = 0.5 * adiabatic_cst - 1.0;
1121 Real numer_accrois_nrj = 1.0 + x*(1.0-volume_ratio);
1122 Real denom_accrois_nrj = 1.0 + x*(1.0-(1.0/volume_ratio));
1123 Real internal_energy = in_internal_energy[vi];
1124 internal_energy = internal_energy * (numer_accrois_nrj/denom_accrois_nrj);
1125 out_internal_energy[vi] = internal_energy;
1126 Real density = in_density[vi];
1127 Real pressure = (adiabatic_cst - 1.0) * density * internal_energy;
1128 Real sound_speed = DO_SQRT((adiabatic_cst*pressure/density));
1129 out_pressure[vi] = pressure;
1130 out_sound_speed[vi] = sound_speed;
1131 }
1132 }
1133 delete[] idx;
1134 delete[] in_adiabatic_cst;
1135 delete[] in_volume;
1136 delete[] in_density;
1137 delete[] in_old_volume;
1138 delete[] in_internal_energy;
1139 delete[] out_sound_speed;
1140 delete[] out_pressure;
1141}
1142
1143/*---------------------------------------------------------------------------*/
1144/*---------------------------------------------------------------------------*/
1145
1146void MeshMaterialSimdUnitTest::
1147_computeEquationOfStateReference()
1148{
1149 Int32 nb_z = m_nb_z;
1150
1151 auto in_adiabatic_cst = viewIn(m_mat_adiabatic_cst);
1152 auto in_volume = viewIn(m_mat_volume);
1153 auto in_density = viewIn(m_mat_density);
1154 auto in_old_volume = viewIn(m_mat_old_volume);
1155 auto in_internal_energy = viewIn(m_mat_internal_energy);
1156
1157 for( Int32 iloop=0; iloop<nb_z; ++iloop){
1158 ENUMERATE_ENVCELL(icell,m_env1){
1159 auto vi = icell;
1160 Real adiabatic_cst = in_adiabatic_cst[vi];
1161 Real volume_ratio = in_volume[vi] / in_old_volume[vi];
1162 Real x = 0.5 * adiabatic_cst - 1.0;
1163 Real numer_accrois_nrj = 1.0 + x*(1.0-volume_ratio);
1164 Real denom_accrois_nrj = 1.0 + x*(1.0-(1.0/volume_ratio));
1165 Real internal_energy = in_internal_energy[vi];
1166 internal_energy = internal_energy * (numer_accrois_nrj/denom_accrois_nrj);
1167 m_mat_internal_energy[vi] = internal_energy;
1168 Real density = in_density[vi];
1169 Real pressure = (adiabatic_cst - 1.0) * density * internal_energy;
1170 Real sound_speed = DO_SQRT(adiabatic_cst*pressure/density);
1171 m_mat_pressure[vi] = pressure;
1172 m_mat_sound_speed[vi] = sound_speed;
1173 }
1174 }
1175 ENUMERATE_ENVCELL(vi,m_env1){
1176 m_mat_ref_internal_energy[vi] = m_mat_internal_energy[vi];
1177 m_mat_ref_pressure[vi] = m_mat_pressure[vi];
1178 m_mat_ref_sound_speed[vi] = m_mat_sound_speed[vi];
1179 }
1180}
1181
1182/*---------------------------------------------------------------------------*/
1183/*---------------------------------------------------------------------------*/
1184
1185void MeshMaterialSimdUnitTest::
1186_compareValues()
1187{
1188 ValueChecker vc(A_FUNCINFO);
1189 ENUMERATE_ENVCELL(icell,m_env1){
1190 vc.areEqual(m_mat_internal_energy[icell],m_mat_ref_internal_energy[icell],"Energy");
1191 vc.areEqual(m_mat_pressure[icell],m_mat_ref_pressure[icell],"Pressure");
1192 vc.areEqual(m_mat_sound_speed[icell],m_mat_ref_sound_speed[icell],"SoundSpeed");
1193 }
1194}
1195
1196/*----------------------a-----------------------------------------------------*/
1197/*---------------------------------------------------------------------------*/
1198
1199void MeshMaterialSimdUnitTest::
1200_computeEquationOfStateV1()
1201{
1202 Int32 nb_z = m_nb_z;
1203 auto in_adiabatic_cst = viewIn(m_mat_adiabatic_cst);
1204 auto in_volume = viewIn(m_mat_volume);
1205 auto in_density = viewIn(m_mat_density);
1206 auto in_old_volume = viewIn(m_mat_old_volume);
1207 auto in_internal_energy = viewIn(m_mat_internal_energy);
1208
1209 auto out_internal_energy = viewOut(m_mat_internal_energy);
1210 auto out_sound_speed = viewOut(m_mat_sound_speed);
1211 auto out_pressure = viewOut(m_mat_pressure);
1212
1213 for( Int32 iloop=0; iloop<nb_z; ++iloop){
1214
1215 PRAGMA_IVDEP
1216 ENUMERATE_ENVCELL(icell,m_env1){
1217 auto vi = icell;
1218 Real adiabatic_cst = in_adiabatic_cst[vi];
1219 Real volume_ratio = in_volume[vi] / in_old_volume[vi];
1220 Real x = 0.5 * adiabatic_cst - 1.0;
1221 Real numer_accrois_nrj = 1.0 + x*(1.0-volume_ratio);
1222 Real denom_accrois_nrj = 1.0 + x*(1.0-(1.0/volume_ratio));
1223 Real internal_energy = in_internal_energy[vi];
1224 internal_energy = internal_energy * (numer_accrois_nrj/denom_accrois_nrj);
1225 out_internal_energy[vi] = internal_energy;
1226 Real density = in_density[vi];
1227 Real pressure = (adiabatic_cst - 1.0) * density * internal_energy;
1228 Real sound_speed = DO_SQRT(adiabatic_cst*pressure/density);
1229 out_pressure[vi] = pressure;
1230 out_sound_speed[vi] = sound_speed;
1231 }
1232 }
1233}
1234
1235/*----------------------a-----------------------------------------------------*/
1236/*---------------------------------------------------------------------------*/
1237
1238void MeshMaterialSimdUnitTest::
1239_computeEquationOfStateV1_bis()
1240{
1241 Int32 nb_z = m_nb_z;
1242 auto in_adiabatic_cst = viewIn(m_mat_adiabatic_cst);
1243 auto in_volume = viewIn(m_mat_volume);
1244 auto in_density = viewIn(m_mat_density);
1245 auto in_old_volume = viewIn(m_mat_old_volume);
1246 auto in_internal_energy = viewIn(m_mat_internal_energy);
1247
1248 auto out_internal_energy = viewOut(m_mat_internal_energy);
1249 auto out_sound_speed = viewOut(m_mat_sound_speed);
1250 auto out_pressure = viewOut(m_mat_pressure);
1251
1252 for( Int32 iloop=0; iloop<nb_z; ++iloop){
1253
1254 ENUMERATE_ENVCELL2(icell,m_env1){
1255 auto vi = icell;
1256 Real adiabatic_cst = in_adiabatic_cst[vi];
1257 Real volume_ratio = in_volume[vi] / in_old_volume[vi];
1258 Real x = 0.5 * adiabatic_cst - 1.0;
1259 Real numer_accrois_nrj = 1.0 + x*(1.0-volume_ratio);
1260 Real denom_accrois_nrj = 1.0 + x*(1.0-(1.0/volume_ratio));
1261 Real internal_energy = in_internal_energy[vi];
1262 internal_energy = internal_energy * (numer_accrois_nrj/denom_accrois_nrj);
1263 out_internal_energy[vi] = internal_energy;
1264 Real density = in_density[vi];
1265 Real pressure = (adiabatic_cst - 1.0) * density * internal_energy;
1266 Real sound_speed = DO_SQRT((adiabatic_cst*pressure/density));
1267 out_pressure[vi] = pressure;
1268 out_sound_speed[vi] = sound_speed;
1269 }
1270 }
1271}
1272
1273/*---------------------------------------------------------------------------*/
1274/*---------------------------------------------------------------------------*/
1275
1276void MeshMaterialSimdUnitTest::
1277_computeEquationOfStateV3()
1278{
1279 Int32 nb_z = m_nb_z;
1280 auto in_adiabatic_cst = viewIn(m_mat_adiabatic_cst);
1281 auto in_volume = viewIn(m_mat_volume);
1282 auto in_density = viewIn(m_mat_density);
1283 auto in_old_volume = viewIn(m_mat_old_volume);
1284 auto in_internal_energy = viewIn(m_mat_internal_energy);
1285
1286 auto out_internal_energy = viewOut(m_mat_internal_energy);
1287 auto out_sound_speed = viewOut(m_mat_sound_speed);
1288 auto out_pressure = viewOut(m_mat_pressure);
1289
1290 for( Int32 iloop=0; iloop<nb_z; ++iloop){
1291
1292 auto func = [=](MatVarIndex vi){
1293 Real adiabatic_cst = in_adiabatic_cst[vi];
1294 Real volume_ratio = in_volume[vi] / in_old_volume[vi];
1295 Real x = 0.5 * adiabatic_cst - 1.0;
1296 Real numer_accrois_nrj = 1.0 + x*(1.0-volume_ratio);
1297 Real denom_accrois_nrj = 1.0 + x*(1.0-(1.0/volume_ratio));
1298 Real internal_energy = in_internal_energy[vi];
1299 internal_energy = internal_energy * (numer_accrois_nrj/denom_accrois_nrj);
1300 out_internal_energy[vi] = internal_energy;
1301 Real density = in_density[vi];
1302 Real pressure = (adiabatic_cst - 1.0) * density * internal_energy;
1303 Real sound_speed = DO_SQRT((adiabatic_cst*pressure/density));
1304 out_pressure[vi] = pressure;
1305 out_sound_speed[vi] = sound_speed;
1306 };
1307 simple_env_loop(*m_env1,func);
1308 }
1309}
1310
1311/*---------------------------------------------------------------------------*/
1312/*---------------------------------------------------------------------------*/
1313
1314void MeshMaterialSimdUnitTest::
1315_computeEquationOfStateV2()
1316{
1317 Int32 nb_z = m_nb_z;
1318 auto in_adiabatic_cst = viewIn(m_mat_adiabatic_cst);
1319 auto in_volume = viewIn(m_mat_volume);
1320 auto in_density = viewIn(m_mat_density);
1321 auto in_old_volume = viewIn(m_mat_old_volume);
1322 auto in_internal_energy = viewIn(m_mat_internal_energy);
1323
1324 auto out_internal_energy = viewOut(m_mat_internal_energy);
1325 auto out_sound_speed = viewOut(m_mat_sound_speed);
1326 auto out_pressure = viewOut(m_mat_pressure);
1327
1328 for( Int32 iloop=0; iloop<nb_z; ++iloop){
1329
1330 ENUMERATE_COMPONENTITEM_LAMBDA(EnvPartSimdCell,mvi,m_env1){
1331 auto vi = mvi;
1332 SimdReal adiabatic_cst = in_adiabatic_cst[vi];
1333 SimdReal volume_ratio = in_volume[vi] / in_old_volume[vi];
1334 SimdReal x = 0.5 * adiabatic_cst - 1.0;
1335 SimdReal numer_accrois_nrj = 1.0 + x*(1.0-volume_ratio);
1336 SimdReal denom_accrois_nrj = 1.0 + x*(1.0-(1.0/volume_ratio));
1337 SimdReal internal_energy = in_internal_energy[vi];
1338 internal_energy = internal_energy * (numer_accrois_nrj/denom_accrois_nrj);
1339 out_internal_energy[vi] = internal_energy;
1340 SimdReal density = in_density[vi];
1341 SimdReal pressure = (adiabatic_cst - 1.0) * density * internal_energy;
1342 SimdReal sound_speed = DO_SQRT((adiabatic_cst*pressure/density));
1343 out_pressure[vi] = pressure;
1344 out_sound_speed[vi] = sound_speed;
1345 };
1346 }
1347}
1348
1349/*---------------------------------------------------------------------------*/
1350/*---------------------------------------------------------------------------*/
1351
1352void MeshMaterialSimdUnitTest::
1353_computeEquationOfStateV4()
1354{
1355 Int32 nb_z = m_nb_z;
1356 auto in_adiabatic_cst = viewIn(m_mat_adiabatic_cst);
1357 auto in_volume = viewIn(m_mat_volume);
1358 auto in_density = viewIn(m_mat_density);
1359 auto in_old_volume = viewIn(m_mat_old_volume);
1360 auto in_internal_energy = viewIn(m_mat_internal_energy);
1361
1362 auto out_internal_energy = viewOut(m_mat_internal_energy);
1363 auto out_sound_speed = viewOut(m_mat_sound_speed);
1364 auto out_pressure = viewOut(m_mat_pressure);
1365
1366 for( Int32 iloop=0; iloop<nb_z; ++iloop){
1367
1368 auto func = [=](auto vi){
1369 Real adiabatic_cst = in_adiabatic_cst[vi];
1370 Real volume_ratio = in_volume[vi] / in_old_volume[vi];
1371 Real x = 0.5 * adiabatic_cst - 1.0;
1372 Real numer_accrois_nrj = 1.0 + x*(1.0-volume_ratio);
1373 Real denom_accrois_nrj = 1.0 + x*(1.0-(1.0/volume_ratio));
1374 Real internal_energy = in_internal_energy[vi];
1375 internal_energy = internal_energy * (numer_accrois_nrj/denom_accrois_nrj);
1376 out_internal_energy[vi] = internal_energy;
1377 Real density = in_density[vi];
1378 Real pressure = (adiabatic_cst - 1.0) * density * internal_energy;
1379 Real sound_speed = DO_SQRT((adiabatic_cst*pressure/density));
1380 out_pressure[vi] = pressure;
1381 out_sound_speed[vi] = sound_speed;
1382 };
1383 simple_env_loop2(*m_env1_as_vector,func);
1384 }
1385}
1386
1387/*---------------------------------------------------------------------------*/
1388/*---------------------------------------------------------------------------*/
1389
1390void MeshMaterialSimdUnitTest::
1391_computeEquationOfStateV4_noview()
1392{
1393 Int32 nb_z = m_nb_z;
1394
1395 for( Int32 iloop=0; iloop<nb_z; ++iloop){
1396
1397 auto func = [&](auto vi){
1398 Real adiabatic_cst = m_mat_adiabatic_cst[vi];
1399 Real volume_ratio = m_mat_volume[vi] / m_mat_old_volume[vi];
1400 Real x = 0.5 * adiabatic_cst - 1.0;
1401 Real numer_accrois_nrj = 1.0 + x*(1.0-volume_ratio);
1402 Real denom_accrois_nrj = 1.0 + x*(1.0-(1.0/volume_ratio));
1403 Real internal_energy = m_mat_internal_energy[vi];
1404 internal_energy = internal_energy * (numer_accrois_nrj/denom_accrois_nrj);
1405 m_mat_internal_energy[vi] = internal_energy;
1406 Real density = m_mat_density[vi];
1407 Real pressure = (adiabatic_cst - 1.0) * density * internal_energy;
1408 Real sound_speed = DO_SQRT((adiabatic_cst*pressure/density));
1409 m_mat_pressure[vi] = pressure;
1410 m_mat_sound_speed[vi] = sound_speed;
1411 };
1412 simple_env_loop2(*m_env1_as_vector,func);
1413 }
1414}
1415
1416/*---------------------------------------------------------------------------*/
1417/*---------------------------------------------------------------------------*/
1418
1419/*---------------------------------------------------------------------------*/
1420/*---------------------------------------------------------------------------*/
1421
1422ARCANETEST_END_NAMESPACE
1423
1424/*---------------------------------------------------------------------------*/
1425/*---------------------------------------------------------------------------*/
ENUMERATE_COMPONENTITEM_LAMBDA
#define ENUMERATE_COMPONENTITEM_LAMBDA(iter_type, iter, container)
Macro pour itérer sur les entités d'un composant via une fonction lambda du C++11.
Definition ComponentSimd.h:179
ENUMERATE_CELL
#define ENUMERATE_CELL(name, group)
Enumérateur générique d'un groupe de mailles.
Definition ItemEnumerator.h:427
ARCANE_REGISTER_CASE_OPTIONS_NOAXL_FACTORY
#define ARCANE_REGISTER_CASE_OPTIONS_NOAXL_FACTORY(aclass, ainterface, aname)
Enregistre un service de fabrique pour la classe aclass.
Definition ServiceFactory.h:614
Arcane::AbstractArray::size
Integer size() const
Nombre d'éléments du vecteur.
Definition arccore/src/collections/arccore/collections/Array.h:423
Arcane::ArithmeticException
Exception lorsqu'une erreur arithmétique survient.
Definition ArithmeticException.h:34
Arcane::Array::add
void add(ConstReferenceType val)
Ajoute l'élément val à la fin du tableau.
Definition arccore/src/collections/arccore/collections/Array.h:1170
Arcane::BasicUnitTest
Service basique de test unitaire.
Definition BasicUnitTest.h:38
Arcane::Cell
Maille d'un maillage.
Definition Item.h:1199
Arcane::ConstArrayView::size
constexpr Integer size() const noexcept
Nombre d'éléments du tableau.
Definition arccore/src/base/arccore/base/ArrayView.h:713
Arcane::IUnitTest
Interface d'un service de test unitaire.
Definition IUnitTest.h:34
Arcane::ItemGroup::size
Integer size() const
Nombre d'éléments du groupe.
Definition ItemGroup.h:88
Arcane::Item::uniqueId
ItemUniqueId uniqueId() const
Identifiant unique sur tous les domaines.
Definition Item.h:225
Arcane::Materials::AllEnvCell::nbEnvironment
__host__ __device__ Int32 nbEnvironment() const
Nombre de milieux présents dans la maille.
Definition core/materials/MatItem.h:187
Arcane::Materials::ComponentItemVector::pureItems
ComponentPurePartItemVectorView pureItems() const
Liste des entités pures (associées à la maille globale) du composant.
Definition ComponentItemVector.cc:68
Arcane::Materials::ComponentItemVector::impureItems
ComponentImpurePartItemVectorView impureItems() const
Liste des entités impures (partielles) du composant.
Definition ComponentItemVector.cc:77
Arcane::Materials::ComponentPartItemVectorView
Vue sur une partie pure ou partielles des entités d'un composant.
Definition core/materials/ComponentPartItemVectorView.h:35
Arcane::Materials::ComponentPartItemVectorView::valueIndexes
Int32ConstArrayView valueIndexes() const
Liste des valueIndex() de la partie.
Definition core/materials/ComponentPartItemVectorView.h:80
Arcane::Materials::ConstituentItem::_varIndex
__host__ __device__ MatVarIndex _varIndex() const
Definition ConstituentItem.h:85
Arcane::Materials::EnvCellVector
Vecteur sur les entités d'un milieu.
Definition core/materials/EnvItemVector.h:35
Arcane::Materials::EnvCell
Maille arcane d'un milieu.
Definition core/materials/MatItem.h:106
Arcane::Materials::EnvCell::allEnvCell
__host__ __device__ AllEnvCell allEnvCell() const
Maille contenant les infos sur tous les milieux.
Definition core/materials/MatItem.h:212
Arcane::Materials::IMeshComponent
Interface d'un composant (matériau ou milieu) d'un maillage.
Definition core/materials/IMeshComponent.h:34
Arcane::Materials::IMeshComponent::impureItems
virtual ComponentImpurePartItemVectorView impureItems() const =0
Vue sur la liste des entités impures (partielles) partielles du composant.
Arcane::Materials::IMeshComponent::pureItems
virtual ComponentPurePartItemVectorView pureItems() const =0
Vue sur la liste des entités pures (associées à la maille globale) du composant.
Arcane::Materials::IMeshEnvironment::materials
virtual ConstArrayView< IMeshMaterial * > materials()=0
Liste des matériaux de ce milieu.
Arcane::Materials::IMeshEnvironment::nbMaterial
virtual Integer nbMaterial() const =0
Nombre de matériaux dans le milieu.
Arcane::Materials::IMeshMaterialMng
Interface du gestionnaire des matériaux et des milieux d'un maillage.
Definition core/materials/IMeshMaterialMng.h:58
Arcane::Materials::IMeshMaterialMng::registerMaterialInfo
virtual MeshMaterialInfo * registerMaterialInfo(const String &name)=0
Enregistre les infos du matériau de nom name.
Arcane::Materials::IMeshMaterialMng::endCreate
virtual void endCreate(bool is_continue=false)=0
Indique qu'on a fini de créer les milieux.
Arcane::Materials::IMeshMaterialMng::createEnvironment
virtual IMeshEnvironment * createEnvironment(const MeshEnvironmentBuildInfo &infos)=0
Créé un milieu avec les infos infos.
Arcane::Materials::IMeshMaterialMng::environments
virtual ConstArrayView< IMeshEnvironment * > environments() const =0
Liste des milieux.
Arcane::Materials::IMeshMaterialMng::getReference
static IMeshMaterialMng * getReference(const MeshHandleOrMesh &mesh_handle, bool create=true)
Récupère ou créé la référence associée à mesh.
Definition IMeshMaterialMng.cc:65
Arcane::Materials::IMeshMaterial
Interface d'un matériau d'un maillage.
Definition core/materials/IMeshMaterial.h:53
Arcane::Materials::IMeshMaterial::environment
virtual IMeshEnvironment * environment() const =0
Milieu auquel appartient ce matériau.
Arcane::Materials::MatVarIndex
Représente un index sur les variables matériaux et milieux.
Definition core/materials/MatVarIndex.h:39
Arcane::Materials::MatVarIndex::valueIndex
constexpr __host__ __device__ Int32 valueIndex() const
Retourne l'indice dans le tableau de valeur.
Definition core/materials/MatVarIndex.h:55
Arcane::Materials::MeshEnvironmentBuildInfo
Informations pour la création d'un milieu.
Definition MeshEnvironmentBuildInfo.h:41
Arcane::Materials::MeshEnvironmentBuildInfo::addMaterial
void addMaterial(const String &name)
Ajoute le matériau de nom name au milieu.
Definition MeshEnvironmentBuildInfo.cc:46
Arcane::Materials::MeshMaterialModifier
Objet permettant de modifier les matériaux ou les milieux.
Definition MeshMaterialModifier.h:45
Arcane::Materials::MeshMaterialModifier::addCells
void addCells(IMeshMaterial *mat, SmallSpan< const Int32 > ids)
Ajoute les mailles d'indices locaux ids au matériau mat.
Definition MeshMaterialModifier.cc:71
Arcane::Materials::PureMatVarIndex
Index d'un Item matériaux pure dans une variable.
Definition core/materials/MatVarIndex.h:116
Arcane::MeshAccessor::allCells
CellGroup allCells() const
Retourne le groupe contenant toutes les mailles.
Definition MeshAccessor.cc:65
Arcane::MeshAccessor::ownCells
CellGroup ownCells() const
Retourne le groupe contenant toutes les mailles propres à ce domaine.
Definition MeshAccessor.cc:68
Arcane::OStringStream
Flot de sortie lié à une String.
Definition OStringStream.h:36
Arcane::ServiceBuildInfo
Structure contenant les informations pour créer un service.
Definition ServiceBuildInfo.h:198
Arcane::String
Chaîne de caractères unicode.
Definition arccore/src/base/arccore/base/String.h:70
Arcane::TraceAccessor::info
TraceMessage info() const
Flot pour un message d'information.
Definition TraceAccessor.cc:101
Arcane::UniqueArray
Vecteur 1D de données avec sémantique par valeur (style STL).
Definition arccore/src/collections/arccore/collections/Array.h:1844
Arcane::VariableBuildInfo
Paramètres nécessaires à la construction d'une variable.
Definition VariableBuildInfo.h:43
MeshMaterialSimdUnitTest
Service de test unitaire de la vectorisation des matériaux/milieux.
Definition MeshMaterialSimdUnitTest.cc:236
MeshMaterialSimdUnitTest::initializeTest
void initializeTest() override
Méthode appelée après lecture du jeu de données pour initialiser le test.
Definition MeshMaterialSimdUnitTest.cc:371
MeshMaterialSimdUnitTest::executeTest
void executeTest() override
Méthode appelée pour exécuter le test.
Definition MeshMaterialSimdUnitTest.cc:471
ENUMERATE_ENVCELL
#define ENUMERATE_ENVCELL(iname, env)
Macro pour itérer sur toutes les mailles d'un milieu.
Definition core/materials/MatItemEnumerator.h:588
ENUMERATE_COMPONENTITEM
#define ENUMERATE_COMPONENTITEM(enumerator_class_name, iname,...)
Macro générique pour itérer sur les entités d'un matériau ou d'un milieu.
Definition core/materials/MatItemEnumerator.h:554
Arcane::SimdReal
SimdInfo::SimdReal SimdReal
Vecteur SIMD de réel.
Definition Simd.h:134
Arcane::Accelerator::viewOut
auto viewOut(const ViewBuildInfo &vbi, CellMaterialVariableScalarRef< DataType > &var)
Vue en écriture pour les variables materiaux scalaire.
Definition MaterialVariableViews.h:179
Arcane::Accelerator::viewIn
auto viewIn(const ViewBuildInfo &vbi, const CellMaterialVariableScalarRef< DataType > &var)
Vue en lecture pour les variables materiaux scalaire.
Definition MaterialVariableViews.h:228
Arcane::Materials::MaterialVariableCellReal
CellMaterialVariableScalarRef< Real > MaterialVariableCellReal
Variable matériau de type Real
Definition core/materials/MeshMaterialVariableRef.h:488
Arcane::platform::getHostName
ARCCORE_BASE_EXPORT String getHostName()
Nom de la machine sur lequel tourne le processus.
Definition arccore/src/base/arccore/base/PlatformUtils.cc:141
Arcane::platform::getRealTime
ARCCORE_BASE_EXPORT Real getRealTime()
Temps Real utilisé en secondes.
Definition arccore/src/base/arccore/base/PlatformUtils.cc:573
Arcane
-*- tab-width: 2; indent-tabs-mode: nil; coding: utf-8-with-signature -*-
Definition AcceleratorGlobal.h:36
Arcane::Int64
std::int64_t Int64
Type entier signé sur 64 bits.
Definition ArccoreGlobal.h:186
Arcane::Integer
Int32 Integer
Type représentant un entier.
Definition ArccoreGlobal.h:240
Arcane::Int32ConstArrayView
ConstArrayView< Int32 > Int32ConstArrayView
Equivalent C d'un tableau à une dimension d'entiers 32 bits.
Definition UtilsTypes.h:569
Arcane::arcaneIsDebug
bool arcaneIsDebug()
Vrai si la macro ARCANE_DEBUG est définie.
Definition Misc.cc:80
Arcane::Int32UniqueArray
UniqueArray< Int32 > Int32UniqueArray
Tableau dynamique à une dimension d'entiers 32 bits.
Definition UtilsTypes.h:428
Arcane::Real
double Real
Type représentant un réel.
Definition ArccoreGlobal.h:223
Arcane::Int32
std::int32_t Int32
Type entier signé sur 32 bits.
Definition ArccoreGlobal.h:184
Materials
Ensemble des classes assurant la gestion des matériaux et des milieux.