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runtime_stub.cc 18 kB

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  1. /**
  2. * Copyright 2019-2020 Huawei Technologies Co., Ltd
  3. *
  4. * Licensed under the Apache License, Version 2.0 (the "License");
  5. * you may not use this file except in compliance with the License.
  6. * You may obtain a copy of the License at
  7. *
  8. * http://www.apache.org/licenses/LICENSE-2.0
  9. *
  10. * Unless required by applicable law or agreed to in writing, software
  11. * distributed under the License is distributed on an "AS IS" BASIS,
  12. * WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied.
  13. * See the License for the specific language governing permissions and
  14. * limitations under the License.
  15. */
  16. #include <cce/dnn.h>
  17. #include <securec.h>
  18. #include "runtime_stub.h"
  19. #include "runtime/rt.h"
  20. #define ADD_STUB_RETURN_VALUE(FUNC, TYPE) std::vector<TYPE> g_Stub_##FUNC##_RETURN
  21. #define GET_STUB_RETURN_VALUE(FUNC, TYPE, DEFAULT) ({ \
  22. TYPE result = DEFAULT; \
  23. if (!g_Stub_##FUNC##_RETURN.empty()) { \
  24. result = g_Stub_##FUNC##_RETURN.back(); \
  25. g_Stub_##FUNC##_RETURN.pop_back(); \
  26. } \
  27. result; \
  28. })
  29. #define DEL_STUB_RETURN_VALUE(FUNC, TYPE) \
  30. do { \
  31. extern std::vector<TYPE> g_Stub_##FUNC##_RETURN; \
  32. g_Stub_##FUNC##_RETURN.clear(); \
  33. } while (0)
  34. #define ADD_STUB_OUTBOUND_VALUE(FUNC, TYPE, NAME) std::vector<TYPE> g_Stub_##FUNC##_OUT_##NAME
  35. #define GET_STUB_OUTBOUND_VALUE(FUNC, TYPE, NAME, DEFAULT) ({ \
  36. TYPE value; \
  37. if (!g_Stub_##FUNC##_OUT_##NAME.empty()) { \
  38. value = g_Stub_##FUNC##_OUT_##NAME.back(); \
  39. g_Stub_##FUNC##_OUT_##NAME.pop_back(); \
  40. } else { \
  41. value = DEFAULT; \
  42. } \
  43. value; \
  44. })
  45. #define DEL_STUB_OUTBOUND_VALUE(FUNC, TYPE, NAME) \
  46. do { \
  47. extern std::vector<TYPE> g_Stub_##FUNC##_OUT_##NAME; \
  48. g_Stub_##FUNC##_OUT_##NAME.clear(); \
  49. } while (0)
  50. #ifdef __cplusplus
  51. extern "C" {
  52. #endif
  53. #define EVENT_LENTH 10
  54. void rtStubTearDown() {
  55. DEL_STUB_RETURN_VALUE(rtGetDevice, rtError_t);
  56. DEL_STUB_RETURN_VALUE(rtGetDeviceCapability, rtError_t);
  57. DEL_STUB_RETURN_VALUE(rtStreamWaitEvent, rtError_t);
  58. DEL_STUB_RETURN_VALUE(rtEventReset, rtError_t);
  59. DEL_STUB_RETURN_VALUE(rtEventCreate, rtError_t);
  60. DEL_STUB_RETURN_VALUE(rtGetEventID, rtError_t);
  61. }
  62. ADD_STUB_RETURN_VALUE(rtGetDevice, rtError_t);
  63. rtError_t rtGetDevice(int32_t *device) {
  64. return GET_STUB_RETURN_VALUE(rtGetDevice, rtError_t, RT_ERROR_NONE);
  65. }
  66. ADD_STUB_RETURN_VALUE(rtGetDeviceCapability, rtError_t);
  67. ADD_STUB_OUTBOUND_VALUE(rtGetDeviceCapability, int32_t, value);
  68. rtError_t rtGetDeviceCapability(int32_t device, int32_t moduleType, int32_t featureType, int32_t *value) {
  69. *value = GET_STUB_OUTBOUND_VALUE(rtGetDeviceCapability, int32_t, value, RT_AICPU_BLOCKING_OP_SUPPORT);
  70. return GET_STUB_RETURN_VALUE(rtGetDeviceCapability, rtError_t, RT_ERROR_NONE);
  71. }
  72. ADD_STUB_RETURN_VALUE(rtStreamWaitEvent, rtError_t);
  73. rtError_t rtStreamWaitEvent(rtStream_t stream, rtEvent_t event) {
  74. return GET_STUB_RETURN_VALUE(rtStreamWaitEvent, rtError_t, RT_ERROR_NONE);
  75. }
  76. ADD_STUB_RETURN_VALUE(rtEventReset, rtError_t);
  77. rtError_t rtEventReset(rtEvent_t event, rtStream_t stream) {
  78. return GET_STUB_RETURN_VALUE(rtEventReset, rtError_t, RT_ERROR_NONE);
  79. }
  80. ADD_STUB_RETURN_VALUE(rtEventCreate, rtError_t);
  81. rtError_t rtEventCreate(rtEvent_t *event) {
  82. *event = new int[EVENT_LENTH];
  83. return GET_STUB_RETURN_VALUE(rtEventCreate, rtError_t, RT_ERROR_NONE);
  84. }
  85. ADD_STUB_RETURN_VALUE(rtGetEventID, rtError_t);
  86. rtError_t rtGetEventID(rtEvent_t event, uint32_t *event_id) {
  87. *event_id = 0;
  88. return GET_STUB_RETURN_VALUE(rtEventCreate, rtError_t, RT_ERROR_NONE);
  89. }
  90. rtError_t rtCtxSetCurrent(rtContext_t ctx) { return RT_ERROR_NONE; }
  91. rtError_t rtGetStreamId(rtStream_t stream, int32_t *stream_id) {
  92. *stream_id = 0;
  93. return RT_ERROR_NONE;
  94. }
  95. rtError_t rtCtxGetCurrent(rtContext_t *ctx) {
  96. uintptr_t x = 1;
  97. *ctx = (rtContext_t *)x;
  98. return RT_ERROR_NONE;
  99. }
  100. rtError_t rtCtxSetDryRun(rtContext_t ctx, rtDryRunFlag_t enable, uint32_t flag) { return RT_ERROR_NONE; }
  101. rtError_t rtEventGetTimeStamp(uint64_t *time, rtEvent_t event) {
  102. *time = 12345;
  103. return RT_ERROR_NONE;
  104. }
  105. rtError_t rtEventCreateWithFlag(rtEvent_t *event, uint32_t flag) {
  106. return rtEventCreate(event);
  107. }
  108. rtError_t rtEventRecord(rtEvent_t event, rtStream_t stream) { return RT_ERROR_NONE; }
  109. rtError_t rtEventSynchronize(rtEvent_t event) { return RT_ERROR_NONE; }
  110. rtError_t rtEventDestroy(rtEvent_t event) {
  111. delete[](int *) event;
  112. return RT_ERROR_NONE;
  113. }
  114. rtError_t rtMalloc(void **dev_ptr, uint64_t size, rtMemType_t type) {
  115. *dev_ptr = new uint8_t[size];
  116. return RT_ERROR_NONE;
  117. }
  118. rtError_t rtMemset(void *dev_ptr, uint64_t dest_max, uint32_t value, uint64_t count) { return RT_ERROR_NONE; }
  119. rtError_t rtFree(void *dev_ptr) {
  120. delete[](uint8_t *) dev_ptr;
  121. return RT_ERROR_NONE;
  122. }
  123. rtError_t rtMallocHost(void **host_ptr, uint64_t size) {
  124. *host_ptr = new uint8_t[size];
  125. return RT_ERROR_NONE;
  126. }
  127. rtError_t rtFreeHost(void *host_ptr) {
  128. delete[](uint8_t *) host_ptr;
  129. return RT_ERROR_NONE;
  130. }
  131. rtError_t rtStreamCreate(rtStream_t *stream, int32_t priority) {
  132. *stream = new uint32_t;
  133. return RT_ERROR_NONE;
  134. }
  135. rtError_t rtStreamDestroy(rtStream_t stream) {
  136. if (stream != nullptr) {
  137. delete (uint32_t *)stream;
  138. }
  139. return RT_ERROR_NONE;
  140. }
  141. rtError_t rtSetDevice(int32_t device) { return RT_ERROR_NONE; }
  142. rtError_t rtStreamSynchronize(rtStream_t stream) { return RT_ERROR_NONE; }
  143. rtError_t rtMemcpy(void *dst, uint64_t dest_max, const void *src, uint64_t count, rtMemcpyKind_t kind) {
  144. if (dst != nullptr && src != nullptr) {
  145. memcpy_s(dst, dest_max, src, count);
  146. }
  147. return RT_ERROR_NONE;
  148. }
  149. rtError_t rtMemcpyAsync(void *dst, uint64_t dest_max, const void *src, uint64_t count, rtMemcpyKind_t kind,
  150. rtStream_t stream) {
  151. if (dst != nullptr && src != nullptr) {
  152. memcpy_s(dst, dest_max, src, count);
  153. }
  154. return RT_ERROR_NONE;
  155. }
  156. rtError_t rtSetTSDevice(uint32_t tsId) {
  157. return RT_ERROR_NONE;
  158. }
  159. rtError_t rtGetDeviceCount(int32_t *count) {
  160. *count = 1;
  161. return RT_ERROR_NONE;
  162. }
  163. rtError_t rtDeviceReset(int32_t device) { return RT_ERROR_NONE; }
  164. rtError_t rtEventElapsedTime(float *time, rtEvent_t start, rtEvent_t end) {
  165. *time = 10.0f;
  166. return RT_ERROR_NONE;
  167. }
  168. rtError_t rtFunctionRegister(void *bin_handle, const void *stub_func, const char *stub_name, const void *dev_func,
  169. uint32_t func_mode) {
  170. return RT_ERROR_NONE;
  171. }
  172. rtError_t rtDevBinaryRegister(const rtDevBinary_t *bin, void **handle) { return RT_ERROR_NONE; }
  173. rtError_t rtRegisterAllKernel(const rtDevBinary_t *bin, void **handle) { return RT_ERROR_NONE; }
  174. rtError_t rtKernelConfigTransArg(const void *ptr, uint64_t size, uint32_t flag, void **arg) { return RT_ERROR_NONE; }
  175. rtError_t rtKernelLaunchWithHandle(void *handle, const void *devFunc, uint32_t blockDim, void *args, uint32_t argsSize,
  176. rtSmDesc_t *smDesc, rtStream_t stream, const void *kernelInfo) {
  177. return RT_ERROR_NONE;
  178. }
  179. rtError_t rtKernelLaunch(const void *stub_func, uint32_t block_dim, void *args, uint32_t args_size, rtSmDesc_t *sm_desc,
  180. rtStream_t stream) {
  181. return RT_ERROR_NONE;
  182. }
  183. rtError_t rtSetupArgument(const void *arg, uint32_t size, uint32_t offset) { return RT_ERROR_NONE; }
  184. rtError_t rtLaunch(const void *stub_func) { return RT_ERROR_NONE; }
  185. rtError_t rtDevBinaryUnRegister(void *handle) { return RT_ERROR_NONE; }
  186. rtError_t rtConfigureCall(uint32_t num_blocks, rtSmDesc_t *sm_desc, rtStream_t stream) { return RT_ERROR_NONE; }
  187. rtError_t rtSetProfDir(char *prof_dir) { return RT_ERROR_NONE; }
  188. rtError_t rtSetProfDirEx(const char *profDir, const char *address, const char *jobCtx) { return RT_ERROR_NONE; }
  189. rtError_t rtAiCoreMemorySizes(rtAiCoreMemorySize_t *aicore_memory_size) { return RT_ERROR_NONE; }
  190. rtError_t rtSetKernelReportCallback(rtKernelReportCallback callback) {
  191. rtKernelInfo rt_kernel_info = {0};
  192. rt_kernel_info.arg_size = 12;
  193. rt_kernel_info.task_offset = 100;
  194. rt_kernel_info.arg = (void *)100;
  195. rt_kernel_info.module_addr = (void *)100;
  196. rt_kernel_info.module_size = 100;
  197. rtStream_t stream = nullptr;
  198. callback(stream, &rt_kernel_info);
  199. return RT_ERROR_NONE;
  200. }
  201. rtError_t rtMemAdvise(void *ptr, uint64_t size, uint32_t advise) { return RT_ERROR_NONE; }
  202. /// @ingroup rt_kernel
  203. /// @brief start fusion kernels.
  204. /// @param [in] stream stream for fusion kernels
  205. /// @return RT_ERROR_NONE for ok, errno for failed
  206. rtError_t rtKernelFusionStart(rtStream_t stream) { return RT_ERROR_NONE; }
  207. /// @ingroup rt_kernel
  208. /// @brief end fusion kernels.
  209. /// @param [in] stream stream for fusion kernels
  210. /// @return RT_ERROR_NONE for ok, errno for failed
  211. rtError_t rtKernelFusionEnd(rtStream_t stream) { return RT_ERROR_NONE; }
  212. rtError_t rtMemGetInfo(size_t *free, size_t *total) {
  213. *free = 512UL * 1024UL * 1024UL;
  214. *total = 1024UL * 1024UL * 1024UL;
  215. return RT_ERROR_NONE;
  216. }
  217. rtError_t rtMemGetInfoEx(rtMemInfoType_t memInfoType, size_t *free, size_t *total) {
  218. *free = 512UL * 1024UL * 1024UL;
  219. *total = 1024UL * 1024UL * 1024UL;
  220. return RT_ERROR_NONE;
  221. }
  222. rtError_t rtMemAllocManaged(void **ptr, uint64_t size, uint32_t flag) { return RT_ERROR_NONE; }
  223. rtError_t rtMemFreeManaged(void *ptr) { return RT_ERROR_NONE; }
  224. rtError_t rtMetadataRegister(void *handle, const char *meta_data) { return RT_ERROR_NONE; }
  225. rtError_t rtSetTaskGenCallback(rtTaskGenCallback callback) { return RT_ERROR_NONE; }
  226. rtError_t rtModelCreate(rtModel_t *model, uint32_t flag) {
  227. *model = new uint32_t;
  228. return RT_ERROR_NONE;
  229. }
  230. rtError_t rtModelDestroy(rtModel_t model) {
  231. uint32_t *stub = static_cast<uint32_t *>(model);
  232. delete stub;
  233. return RT_ERROR_NONE;
  234. }
  235. rtError_t rtModelBindStream(rtModel_t model, rtStream_t stream, uint32_t flag) { return RT_ERROR_NONE; }
  236. rtError_t rtModelUnbindStream(rtModel_t model, rtStream_t stream) { return RT_ERROR_NONE; }
  237. rtError_t rtModelExecute(rtModel_t model, rtStream_t stream, uint32_t flag) { return RT_ERROR_NONE; }
  238. rtError_t rtGetFunctionByName(const char *stub_name, void **stub_func) {
  239. *(char **)stub_func = "func";
  240. return RT_ERROR_NONE;
  241. }
  242. rtError_t rtGetAddrByFun(const void *stubFunc, void **addr) {
  243. *(char **)addr = "dev_func";
  244. return RT_ERROR_NONE;
  245. }
  246. rtError_t rtQueryFunctionRegistered(const char *stub_name) { return RT_ERROR_NONE; }
  247. rtError_t rtCtxCreate(rtContext_t *ctx, uint32_t flags, int32_t device) { return RT_ERROR_NONE; }
  248. rtError_t rtKernelLaunchEx(void *args, uint32_t args_size, uint32_t flags, rtStream_t stream_) { return RT_ERROR_NONE; }
  249. rtError_t rtCpuKernelLaunch(const void *so_name, const void *kernel_name, uint32_t block_dim, const void *args,
  250. uint32_t args_size, rtSmDesc_t *sm_desc, rtStream_t stream) {
  251. return RT_ERROR_NONE;
  252. }
  253. rtError_t rtModelGetTaskId(void *handle, uint32_t *task_id, uint32_t *stream_id) {
  254. *task_id = 0;
  255. *stream_id = 0;
  256. return RT_ERROR_NONE;
  257. }
  258. rtError_t rtEndGraph(rtModel_t model, rtStream_t stream) { return RT_ERROR_NONE; }
  259. rtError_t rtEndGraphEx(rtModel_t model, rtStream_t stream, uint32_t flags)
  260. {
  261. return RT_ERROR_NONE;
  262. }
  263. rtError_t rtProfilerStop(uint64_t profConfig, int32_t numsDev, uint32_t *deviceList) {
  264. return RT_ERROR_NONE;
  265. }
  266. rtError_t rtSetDvfsProfile(DvfsProfileMode mode) { return RT_ERROR_NONE; }
  267. rtError_t rtUnsetDvfsProfile() { return RT_ERROR_NONE; }
  268. rtError_t rtGetDvfsProfile(DvfsProfileMode *pmode) { return RT_ERROR_NONE; }
  269. rtError_t rtCtxDestroy(rtContext_t ctx) { return RT_ERROR_NONE; }
  270. rtError_t rtProfilerInit(const char *prof_dir, const char *address, const char *job_ctx) { return RT_ERROR_NONE; }
  271. rtError_t rtProfilerStart(uint64_t profConfig, int32_t numsDev, uint32_t *deviceList) {
  272. return RT_ERROR_NONE;
  273. }
  274. rtError_t rtLabelCreate(rtLabel_t *label) {
  275. *label = new uint64_t;
  276. return RT_ERROR_NONE;
  277. }
  278. rtError_t rtLabelCreateEx(rtLabel_t *label, rtStream_t stream) {
  279. *label = new uint64_t;
  280. return RT_ERROR_NONE;
  281. }
  282. rtError_t rtLabelCreateV2(rtLabel_t *label, rtModel_t model) {
  283. *label = new uint64_t;
  284. return RT_ERROR_NONE;
  285. }
  286. rtError_t rtLabelCreateExV2(rtLabel_t *label, rtModel_t model, rtStream_t stream) {
  287. *label = new uint64_t;
  288. return RT_ERROR_NONE;
  289. }
  290. rtError_t rtLabelListCpy(rtLabel_t *label, uint32_t labelNumber, void *dst, uint32_t dstMax) {
  291. return RT_ERROR_NONE;
  292. }
  293. rtError_t rtLabelDestroy(rtLabel_t label) {
  294. uint64_t *stub = static_cast<uint64_t *>(label);
  295. delete stub;
  296. return RT_ERROR_NONE;
  297. }
  298. rtError_t rtLabelSet(rtLabel_t label, rtStream_t stream) { return RT_ERROR_NONE; }
  299. rtError_t rtLabelSwitch(void *ptr, rtCondition_t condition, uint32_t value, rtLabel_t true_label, rtStream_t stream) {
  300. return RT_ERROR_NONE;
  301. }
  302. rtError_t rtLabelSwitchByIndex(void *ptr, uint32_t max, void *labelInfoPtr, rtStream_t stream) {
  303. return RT_ERROR_NONE;
  304. }
  305. rtError_t rtLabelGoto(rtLabel_t label, rtStream_t stream) { return RT_ERROR_NONE; }
  306. rtError_t rtLabelGotoEx(rtLabel_t label, rtStream_t stream) {
  307. return RT_ERROR_NONE;
  308. }
  309. rtError_t rtInvalidCache(void *base, size_t len) {
  310. return RT_ERROR_NONE;
  311. }
  312. rtError_t rtModelLoadComplete(rtModel_t model) { return RT_ERROR_NONE; }
  313. rtError_t rtStreamCreateWithFlags(rtStream_t *stream, int32_t priority, uint32_t flags) {
  314. *stream = new uint32_t;
  315. return RT_ERROR_NONE;
  316. }
  317. rtError_t rtFlushCache(void *base, size_t len) {
  318. return RT_ERROR_NONE;
  319. }
  320. rtError_t rtProfilerTrace(uint64_t id, bool notify, uint32_t flags, rtStream_t stream_) { return RT_ERROR_NONE; }
  321. rtError_t rtProfilerTraceEx(uint64_t id, uint64_t modelId, uint16_t tagId, rtStream_t stream) { return RT_ERROR_NONE; }
  322. rtError_t rtMemSetRC(const void *dev_ptr, uint64_t size, uint32_t read_count) { return RT_ERROR_NONE; }
  323. rtError_t rtStreamSwitch(void *ptr, rtCondition_t condition, int64_t value, rtStream_t true_stream, rtStream_t stream) {
  324. return RT_ERROR_NONE;
  325. }
  326. rtError_t rtStreamSwitchEx(void *ptr, rtCondition_t condition, void *value_ptr, rtStream_t true_stream,
  327. rtStream_t stream, rtSwitchDataType_t data_type) {
  328. return RT_ERROR_NONE;
  329. }
  330. rtError_t rtStreamActive(rtStream_t active_stream, rtStream_t stream) { return RT_ERROR_NONE; }
  331. rtError_t rtDatadumpInfoLoad(const void *dump_info, uint32_t length) { return RT_ERROR_NONE; }
  332. rtError_t rtKernelLaunchWithFlag(const void *stub_func, uint32_t block_dim, void *args, uint32_t args_size,
  333. rtSmDesc_t *sm_desc, rtStream_t stream_, uint32_t flags) {
  334. return RT_ERROR_NONE;
  335. }
  336. rtError_t rtCpuKernelLaunchWithFlag(const void *so_name, const void *kernel_name, uint32_t core_dim, const void *args,
  337. uint32_t args_size, rtL2Ctrl_t *l2ctrl, rtStream_t stream_, uint32_t flags) {
  338. return RT_ERROR_NONE;
  339. }
  340. rtError_t rtModelGetId(rtModel_t model, uint32_t *modelId)
  341. {
  342. return RT_ERROR_NONE;
  343. }
  344. rtError_t rtModelBindQueue(rtModel_t model, uint32_t queueId, rtModelQueueFlag_t flag)
  345. {
  346. return RT_ERROR_NONE;
  347. }
  348. rtError_t rtSetSocVersion(const char *version)
  349. {
  350. return RT_ERROR_NONE;
  351. }
  352. rtError_t rtGetSocVersion(char *version, const uint32_t maxLen)
  353. {
  354. return RT_ERROR_NONE;
  355. }
  356. rtError_t rtGetAiCoreCount(uint32_t *aiCoreCnt)
  357. {
  358. return RT_ERROR_NONE;
  359. }
  360. rtError_t rtSetTaskFailCallback(rtTaskFailCallback callback)
  361. {
  362. return RT_ERROR_NONE;
  363. }
  364. rtError_t rtMallocHostSharedMemory(rtMallocHostSharedMemoryIn *in,
  365. rtMallocHostSharedMemoryOut *out)
  366. {
  367. out->ptr = new uint8_t[in->size];
  368. out->devPtr = new uint8_t[in->size];
  369. return RT_ERROR_NONE;
  370. }
  371. rtError_t rtFreeHostSharedMemory(rtFreeHostSharedMemoryIn *in)
  372. {
  373. delete[] (uint8_t*)in->ptr;
  374. delete[] (uint8_t*)in->devPtr;
  375. return RT_ERROR_NONE;
  376. }
  377. rtError_t rtGetAicpuDeploy(rtAicpuDeployType_t *deplyType)
  378. {
  379. return RT_ERROR_NONE;
  380. }
  381. rtError_t rtDebugRegister(rtModel_t model, uint32_t flag, const void *addr, uint32_t *streamId, uint32_t *taskId)
  382. {
  383. return RT_ERROR_NONE;
  384. }
  385. rtError_t rtDebugUnRegister(rtModel_t model)
  386. {
  387. return RT_ERROR_NONE;
  388. }
  389. rtError_t rtDumpAddrSet(rtModel_t model, void *addr, uint32_t dumpSize, uint32_t flag)
  390. {
  391. return RT_ERROR_NONE;
  392. }
  393. rtError_t rtSetCtxINFMode(bool mode)
  394. {
  395. return RT_ERROR_NONE;
  396. }
  397. rtError_t rtGetRtCapability(rtFeatureType_t featureType, int32_t featureInfo, int64_t *value)
  398. {
  399. return RT_ERROR_NONE;
  400. }
  401. rtError_t rtGetMaxStreamAndTask(uint32_t streamType, uint32_t *maxStrCount, uint32_t *maxTaskCount)
  402. {
  403. *maxStrCount = 1024;
  404. *maxTaskCount = 1024;
  405. return RT_ERROR_NONE;
  406. }
  407. rtError_t rtModelExit(rtModel_t model, rtStream_t stream)
  408. {
  409. return RT_ERROR_NONE;
  410. }
  411. rtError_t rtGetTaskIdAndStreamID(uint32_t *taskId, uint32_t *streamId)
  412. {
  413. return RT_ERROR_NONE;
  414. }
  415. rtError_t rtDebugRegisterForStream(rtStream_t stream, uint32_t flag, const void *addr, uint32_t *streamId, uint32_t *taskId) {
  416. return RT_ERROR_NONE;
  417. }
  418. rtError_t rtDebugUnRegisterForStream(rtStream_t stream) {
  419. return RT_ERROR_NONE;
  420. }
  421. rtError_t rtFftsTaskLaunch(rtFftsTaskInfo_t *fftsTaskInfo, rtStream_t stream) {
  422. return RT_ERROR_NONE;
  423. }
  424. rtError_t rtKernelLaunchFwk(const char *opName, void *args, uint32_t argSize, uint32_t flags, rtStream_t rtStream) {
  425. return RT_ERROR_NONE;
  426. }
  427. rtError_t rtAicpuKernelLaunchWithFlag(const rtKernelLaunchNames_t *launchNames, uint32_t blockDim, const void *args,
  428. uint32_t argSize, rtSmDesc_t *smDesc, rtStream_t stream, uint32_t flags) {
  429. return RT_ERROR_NONE;
  430. }
  431. rtError_t rtAicpuKernelLaunch(const rtKernelLaunchNames_t *launchNames, uint32_t blockDim, const void *args,
  432. uint32_t argSize, rtSmDesc_t *smDesc, rtStream_t stream) {
  433. return RT_ERROR_NONE;
  434. }
  435. #ifdef __cplusplus
  436. }
  437. #endif

图引擎模块(GE)是MindSpore的一个子模块,其代码由C++实现,位于前端模块ME和底层硬件之间,起到承接作用。图引擎模块以ME下发的图作为输入,然后进行一系列的深度图优化操作,最后输出一张可以在底层硬件上高效运行的图。GE针对昇腾AI处理器的硬件结构特点,做了特定的优化工作,以此来充分发挥出昇腾AI处理器的强大算力。在进行模型训练/推理时,GE会被自动调用而用户并不感知。GE主要由GE API和GE Core两部分组成,详细的架构图如下所示