onnxruntime/onnxruntime/wasm/api.cc
Caroline Zhu 64de71c5e2
[js/web/training] Add CreateTrainingSession (#17891)
### Description
* Adds TrainingSession.create() functionality following the web bindings
for training design doc
* Added 2 new training APIs to wasm/api.h:
   * OrtTrainingGetInputOutputName
   * OrtTrainingGetInputOutputCount
* Moved isOrtEnvInitialized boolean to the wasm-core-impl and added a
method that references it

### Motivation and Context
* Adding web bindings for training

#### Related work
* #16521 allowed for training artifacts to be built
* #17333 added interfaces for training
* #17474 allows for training package to be built + adds training backend
to web package **[MUST BE MERGED IN BEFORE THIS ONE]**

---------

Co-authored-by: Yulong Wang <7679871+fs-eire@users.noreply.github.com>
Co-authored-by: Ashwini Khade <askhade@microsoft.com>
2023-10-26 09:22:10 -07:00

637 lines
27 KiB
C++

// Copyright (c) Microsoft Corporation. All rights reserved.
// Licensed under the MIT License.
#ifdef ENABLE_TRAINING_APIS
#include "onnxruntime_training_cxx_api.h"
#endif
#include "core/session/onnxruntime_cxx_api.h"
#include "api.h"
#include <iostream>
#include <sstream>
#include <vector>
namespace {
OrtEnv* g_env;
OrtErrorCode g_last_error_code;
std::string g_last_error_message;
} // namespace
enum DataLocation {
DATA_LOCATION_NONE = 0,
DATA_LOCATION_CPU = 1,
DATA_LOCATION_CPU_PINNED = 2,
DATA_LOCATION_TEXTURE = 3,
DATA_LOCATION_GPU_BUFFER = 4
};
static_assert(sizeof(const char*) == sizeof(size_t), "size of a pointer and a size_t value should be the same.");
static_assert(sizeof(size_t) == 4, "size of size_t should be 4 in this build (wasm32).");
OrtErrorCode CheckStatus(OrtStatusPtr status) {
if (status) {
std::string error_message = Ort::GetApi().GetErrorMessage(status);
g_last_error_code = Ort::GetApi().GetErrorCode(status);
g_last_error_message = Ort::Exception(std::move(error_message), g_last_error_code).what();
Ort::GetApi().ReleaseStatus(status);
} else {
g_last_error_code = ORT_OK;
g_last_error_message.clear();
}
return g_last_error_code;
}
#define CHECK_STATUS(ORT_API_NAME, ...) \
CheckStatus(Ort::GetApi().ORT_API_NAME(__VA_ARGS__))
#define RETURN_ERROR_CODE_IF_ERROR(ORT_API_NAME, ...) \
do { \
int error_code = CHECK_STATUS(ORT_API_NAME, __VA_ARGS__); \
if (error_code != ORT_OK) { \
return error_code; \
} \
} while (false)
#define RETURN_NULLPTR_IF_ERROR(ORT_API_NAME, ...) \
do { \
if (CHECK_STATUS(ORT_API_NAME, __VA_ARGS__) != ORT_OK) { \
return nullptr; \
} \
} while (false)
// use auto release macros to make sure resources get released on function return.
// create a unique_ptr wrapper for auto release
#define REGISTER_AUTO_RELEASE(T, var, release_t, release_func) \
std::unique_ptr<T, release_t> auto_release_##var { var, release_func }
// register auto release for handle of Ort API resources
#define REGISTER_AUTO_RELEASE_HANDLE(T, var) \
REGISTER_AUTO_RELEASE(Ort##T, var, void (*)(Ort##T*), [](Ort##T* p) { Ort::GetApi().Release##T(p); })
// register auto release for Ort allocated buffers
#define REGISTER_AUTO_RELEASE_BUFFER(T, var, allocator) \
auto auto_release_##var##_deleter = [allocator](T* p) { allocator->Free(allocator, p); }; \
REGISTER_AUTO_RELEASE(T, var, decltype(auto_release_##var##_deleter), auto_release_##var##_deleter)
// unregister the auto release wrapper
#define UNREGISTER_AUTO_RELEASE(var) auto_release_##var.release()
int OrtInit(int num_threads, int logging_level) {
// Assume that a logging level is check and properly set at JavaScript
#if defined(__EMSCRIPTEN_PTHREADS__)
OrtThreadingOptions* tp_options = nullptr;
RETURN_ERROR_CODE_IF_ERROR(CreateThreadingOptions, &tp_options);
RETURN_ERROR_CODE_IF_ERROR(SetGlobalIntraOpNumThreads, tp_options, num_threads);
RETURN_ERROR_CODE_IF_ERROR(SetGlobalInterOpNumThreads, tp_options, 1);
return CHECK_STATUS(CreateEnvWithGlobalThreadPools,
static_cast<OrtLoggingLevel>(logging_level),
"Default",
tp_options,
&g_env);
#else
return CHECK_STATUS(CreateEnv, static_cast<OrtLoggingLevel>(logging_level), "Default", &g_env);
#endif
}
void OrtGetLastError(int* error_code, const char** error_message) {
*error_code = g_last_error_code;
*error_message = g_last_error_message.empty() ? nullptr : g_last_error_message.c_str();
}
OrtSessionOptions* OrtCreateSessionOptions(size_t graph_optimization_level,
bool enable_cpu_mem_arena,
bool enable_mem_pattern,
size_t execution_mode,
bool enable_profiling,
const char* /*profile_file_prefix*/,
const char* log_id,
size_t log_severity_level,
size_t log_verbosity_level,
const char* optimized_model_filepath) {
OrtSessionOptions* session_options = nullptr;
RETURN_NULLPTR_IF_ERROR(CreateSessionOptions, &session_options);
REGISTER_AUTO_RELEASE_HANDLE(SessionOptions, session_options);
if (optimized_model_filepath) {
RETURN_NULLPTR_IF_ERROR(SetOptimizedModelFilePath, session_options, optimized_model_filepath);
}
// assume that a graph optimization level is checked and properly set at JavaScript
RETURN_NULLPTR_IF_ERROR(SetSessionGraphOptimizationLevel,
session_options,
static_cast<GraphOptimizationLevel>(graph_optimization_level));
if (enable_cpu_mem_arena) {
RETURN_NULLPTR_IF_ERROR(EnableCpuMemArena, session_options);
} else {
RETURN_NULLPTR_IF_ERROR(DisableCpuMemArena, session_options);
}
if (enable_mem_pattern) {
RETURN_NULLPTR_IF_ERROR(EnableMemPattern, session_options);
} else {
RETURN_NULLPTR_IF_ERROR(DisableMemPattern, session_options);
}
// assume that an execution mode is checked and properly set at JavaScript
RETURN_NULLPTR_IF_ERROR(SetSessionExecutionMode, session_options, static_cast<ExecutionMode>(execution_mode));
// TODO: support profling
if (enable_profiling) {
RETURN_NULLPTR_IF_ERROR(EnableProfiling, session_options, "");
} else {
RETURN_NULLPTR_IF_ERROR(DisableProfiling, session_options);
}
if (log_id != nullptr) {
RETURN_NULLPTR_IF_ERROR(SetSessionLogId, session_options, log_id);
}
// assume that a log severity level is checked and properly set at JavaScript
RETURN_NULLPTR_IF_ERROR(SetSessionLogSeverityLevel, session_options, log_severity_level);
RETURN_NULLPTR_IF_ERROR(SetSessionLogVerbosityLevel, session_options, log_verbosity_level);
#ifdef ENABLE_EXTENSION_CUSTOM_OPS
// Enable ORT CustomOps in onnxruntime-extensions
RETURN_NULLPTR_IF_ERROR(EnableOrtCustomOps, session_options);
#endif
return UNREGISTER_AUTO_RELEASE(session_options);
}
int OrtAppendExecutionProvider(ort_session_options_handle_t session_options, const char* name) {
return CHECK_STATUS(SessionOptionsAppendExecutionProvider, session_options, name, nullptr, nullptr, 0);
}
int OrtAddFreeDimensionOverride(ort_session_options_handle_t session_options,
const char* dim_param_name,
int dim_value) {
return CHECK_STATUS(AddFreeDimensionOverrideByName, session_options, dim_param_name, dim_value);
}
int OrtAddSessionConfigEntry(OrtSessionOptions* session_options,
const char* config_key,
const char* config_value) {
return CHECK_STATUS(AddSessionConfigEntry, session_options, config_key, config_value);
}
void OrtReleaseSessionOptions(OrtSessionOptions* session_options) {
Ort::GetApi().ReleaseSessionOptions(session_options);
}
OrtSession* OrtCreateSession(void* data, size_t data_length, OrtSessionOptions* session_options) {
#if defined(__EMSCRIPTEN_PTHREADS__)
RETURN_NULLPTR_IF_ERROR(DisablePerSessionThreads, session_options);
#else
// must disable thread pool when WebAssembly multi-threads support is disabled.
RETURN_NULLPTR_IF_ERROR(SetIntraOpNumThreads, session_options, 1);
RETURN_NULLPTR_IF_ERROR(SetSessionExecutionMode, session_options, ORT_SEQUENTIAL);
#endif
OrtSession* session = nullptr;
return (CHECK_STATUS(CreateSessionFromArray, g_env, data, data_length, session_options, &session) == ORT_OK)
? session
: nullptr;
}
void OrtReleaseSession(OrtSession* session) {
Ort::GetApi().ReleaseSession(session);
}
int OrtGetInputOutputCount(OrtSession* session, size_t* input_count, size_t* output_count) {
RETURN_ERROR_CODE_IF_ERROR(SessionGetInputCount, session, input_count);
RETURN_ERROR_CODE_IF_ERROR(SessionGetOutputCount, session, output_count);
return ORT_OK;
}
char* OrtGetInputName(OrtSession* session, size_t index) {
OrtAllocator* allocator = nullptr;
RETURN_NULLPTR_IF_ERROR(GetAllocatorWithDefaultOptions, &allocator);
char* input_name = nullptr;
return (CHECK_STATUS(SessionGetInputName, session, index, allocator, &input_name) == ORT_OK)
? input_name
: nullptr;
}
char* OrtGetOutputName(OrtSession* session, size_t index) {
OrtAllocator* allocator = nullptr;
RETURN_NULLPTR_IF_ERROR(GetAllocatorWithDefaultOptions, &allocator);
char* output_name = nullptr;
return (CHECK_STATUS(SessionGetOutputName, session, index, allocator, &output_name) == ORT_OK)
? output_name
: nullptr;
}
void OrtFree(void* ptr) {
OrtAllocator* allocator = nullptr;
if (CHECK_STATUS(GetAllocatorWithDefaultOptions, &allocator) == ORT_OK) {
allocator->Free(allocator, ptr);
}
}
OrtValue* OrtCreateTensor(int data_type, void* data, size_t data_length, size_t* dims, size_t dims_length, int data_location) {
if (data_location != DATA_LOCATION_CPU &&
data_location != DATA_LOCATION_CPU_PINNED &&
data_location != DATA_LOCATION_GPU_BUFFER) {
std::ostringstream ostr;
ostr << "Invalid data location: " << data_location;
CheckStatus(Ort::GetApi().CreateStatus(ORT_INVALID_ARGUMENT, ostr.str().c_str()));
return nullptr;
}
std::vector<int64_t> shapes(dims_length);
for (size_t i = 0; i < dims_length; i++) {
shapes[i] = dims[i];
}
if (data_type == ONNX_TENSOR_ELEMENT_DATA_TYPE_STRING) {
// data_location is ignored for string tensor. It is always CPU.
OrtAllocator* allocator = nullptr;
RETURN_NULLPTR_IF_ERROR(GetAllocatorWithDefaultOptions, &allocator);
OrtValue* value = nullptr;
RETURN_NULLPTR_IF_ERROR(CreateTensorAsOrtValue, allocator,
dims_length > 0 ? shapes.data() : nullptr, dims_length,
ONNX_TENSOR_ELEMENT_DATA_TYPE_STRING, &value);
REGISTER_AUTO_RELEASE_HANDLE(Value, value);
const char* const* strings = reinterpret_cast<const char* const*>(data);
RETURN_NULLPTR_IF_ERROR(FillStringTensor, value, strings, data_length / sizeof(const char*));
return UNREGISTER_AUTO_RELEASE(value);
} else {
OrtMemoryInfo* memory_info = nullptr;
if (data_location != DATA_LOCATION_GPU_BUFFER) {
RETURN_NULLPTR_IF_ERROR(CreateCpuMemoryInfo, OrtDeviceAllocator, OrtMemTypeDefault, &memory_info);
} else {
RETURN_NULLPTR_IF_ERROR(CreateMemoryInfo, "WebGPU_Buffer", OrtDeviceAllocator, 0, OrtMemTypeDefault, &memory_info);
}
REGISTER_AUTO_RELEASE_HANDLE(MemoryInfo, memory_info);
OrtValue* value = nullptr;
int error_code = CHECK_STATUS(CreateTensorWithDataAsOrtValue, memory_info, data, data_length,
dims_length > 0 ? shapes.data() : nullptr, dims_length,
static_cast<ONNXTensorElementDataType>(data_type), &value);
return (error_code == ORT_OK) ? value : nullptr;
}
}
int OrtGetTensorData(OrtValue* tensor, int* data_type, void** data, size_t** dims, size_t* dims_length) {
ONNXType tensor_type;
RETURN_ERROR_CODE_IF_ERROR(GetValueType, tensor, &tensor_type);
if (tensor_type != ONNX_TYPE_TENSOR) {
return CheckStatus(
Ort::GetApi().CreateStatus(ORT_NOT_IMPLEMENTED, "Reading data from non-tensor typed value is not supported."));
}
OrtTensorTypeAndShapeInfo* info = nullptr;
RETURN_ERROR_CODE_IF_ERROR(GetTensorTypeAndShape, tensor, &info);
REGISTER_AUTO_RELEASE_HANDLE(TensorTypeAndShapeInfo, info);
size_t dims_len = 0;
RETURN_ERROR_CODE_IF_ERROR(GetDimensionsCount, info, &dims_len);
OrtAllocator* allocator = nullptr;
RETURN_ERROR_CODE_IF_ERROR(GetAllocatorWithDefaultOptions, &allocator);
size_t* p_dims = reinterpret_cast<size_t*>(allocator->Alloc(allocator, sizeof(size_t) * dims_len));
REGISTER_AUTO_RELEASE_BUFFER(size_t, p_dims, allocator);
ONNXTensorElementDataType type;
RETURN_ERROR_CODE_IF_ERROR(GetTensorElementType, info, &type);
std::vector<int64_t> shape(dims_len, 0);
RETURN_ERROR_CODE_IF_ERROR(GetDimensions, info, shape.data(), shape.size());
for (size_t i = 0; i < dims_len; i++) {
p_dims[i] = static_cast<size_t>(shape[i]);
}
if (type == ONNX_TENSOR_ELEMENT_DATA_TYPE_STRING) {
size_t num_elements;
RETURN_ERROR_CODE_IF_ERROR(GetTensorShapeElementCount, info, &num_elements);
// NOTE: ORT C-API does not expose an interface for users to get string raw data directly. There is always a copy.
// we can use the tensor raw data because it is type of "std::string *", which is very straightforward to
// implement and can also save memory usage. However, this approach depends on the Tensor's implementation
// details. So we have to copy the string content here.
size_t string_data_length;
RETURN_ERROR_CODE_IF_ERROR(GetStringTensorDataLength, tensor, &string_data_length);
// The buffer contains following data:
// - a sequence of pointers to (const char*), size = num_elements * sizeof(const char*).
// - followed by a raw buffer to store string content, size = string_data_length + 1.
size_t string_data_offset = num_elements * sizeof(const char*);
size_t buf_size = string_data_offset + string_data_length;
void* p_string_data = allocator->Alloc(allocator, buf_size + 1);
void* p_string_content = reinterpret_cast<char*>(p_string_data) + string_data_offset;
REGISTER_AUTO_RELEASE_BUFFER(void, p_string_data, allocator);
size_t* p_offsets = reinterpret_cast<size_t*>(p_string_data);
RETURN_ERROR_CODE_IF_ERROR(GetStringTensorContent, tensor, p_string_content, string_data_length, p_offsets, num_elements);
// replace offsets by pointers
const char** p_c_strs = reinterpret_cast<const char**>(p_offsets);
for (size_t i = 0; i < num_elements; i++) {
p_c_strs[i] = reinterpret_cast<const char*>(p_string_content) + p_offsets[i];
}
// put null at the last char
reinterpret_cast<char*>(p_string_data)[buf_size] = '\0';
*data = UNREGISTER_AUTO_RELEASE(p_string_data);
} else {
void* p_tensor_raw_data = nullptr;
RETURN_ERROR_CODE_IF_ERROR(GetTensorMutableData, tensor, &p_tensor_raw_data);
*data = p_tensor_raw_data;
}
*data_type = static_cast<int>(type);
*dims_length = dims_len;
*dims = UNREGISTER_AUTO_RELEASE(p_dims);
return ORT_OK;
}
void OrtReleaseTensor(OrtValue* tensor) {
Ort::GetApi().ReleaseValue(tensor);
}
OrtRunOptions* OrtCreateRunOptions(size_t log_severity_level,
size_t log_verbosity_level,
bool terminate,
const char* tag) {
OrtRunOptions* run_options = nullptr;
RETURN_NULLPTR_IF_ERROR(CreateRunOptions, &run_options);
REGISTER_AUTO_RELEASE_HANDLE(RunOptions, run_options);
// Assume that a logging level is check and properly set at JavaScript
RETURN_NULLPTR_IF_ERROR(RunOptionsSetRunLogSeverityLevel, run_options, log_severity_level);
RETURN_NULLPTR_IF_ERROR(RunOptionsSetRunLogVerbosityLevel, run_options, log_verbosity_level);
if (terminate) {
RETURN_NULLPTR_IF_ERROR(RunOptionsSetTerminate, run_options);
} else {
RETURN_NULLPTR_IF_ERROR(RunOptionsUnsetTerminate, run_options);
}
if (tag != nullptr) {
RETURN_NULLPTR_IF_ERROR(RunOptionsSetRunTag, run_options, tag);
}
return UNREGISTER_AUTO_RELEASE(run_options);
}
int OrtAddRunConfigEntry(OrtRunOptions* run_options,
const char* config_key,
const char* config_value) {
return CHECK_STATUS(AddRunConfigEntry, run_options, config_key, config_value);
}
void OrtReleaseRunOptions(OrtRunOptions* run_options) {
Ort::GetApi().ReleaseRunOptions(run_options);
}
OrtIoBinding* OrtCreateBinding(OrtSession* session) {
OrtIoBinding* binding = nullptr;
int error_code = CHECK_STATUS(CreateIoBinding, session, &binding);
return (error_code == ORT_OK) ? binding : nullptr;
}
int EMSCRIPTEN_KEEPALIVE OrtBindInput(OrtIoBinding* io_binding,
const char* name,
OrtValue* input) {
return CHECK_STATUS(BindInput, io_binding, name, input);
}
int EMSCRIPTEN_KEEPALIVE OrtBindOutput(OrtIoBinding* io_binding,
const char* name,
OrtValue* output,
int output_location) {
if (output) {
return CHECK_STATUS(BindOutput, io_binding, name, output);
} else {
if (output_location != DATA_LOCATION_NONE &&
output_location != DATA_LOCATION_CPU &&
output_location != DATA_LOCATION_CPU_PINNED &&
output_location != DATA_LOCATION_GPU_BUFFER) {
std::ostringstream ostr;
ostr << "Invalid data location (" << output_location << ") for output: \"" << name << "\".";
return CheckStatus(Ort::GetApi().CreateStatus(ORT_INVALID_ARGUMENT, ostr.str().c_str()));
}
OrtMemoryInfo* memory_info = nullptr;
if (output_location != DATA_LOCATION_GPU_BUFFER) {
RETURN_ERROR_CODE_IF_ERROR(CreateCpuMemoryInfo, OrtDeviceAllocator, OrtMemTypeDefault, &memory_info);
} else {
RETURN_ERROR_CODE_IF_ERROR(CreateMemoryInfo, "WebGPU_Buffer", OrtDeviceAllocator, 0, OrtMemTypeDefault, &memory_info);
}
REGISTER_AUTO_RELEASE_HANDLE(MemoryInfo, memory_info);
return CHECK_STATUS(BindOutputToDevice, io_binding, name, memory_info);
}
}
void OrtClearBoundOutputs(OrtIoBinding* io_binding) {
Ort::GetApi().ClearBoundOutputs(io_binding);
}
void OrtReleaseBinding(OrtIoBinding* io_binding) {
Ort::GetApi().ReleaseIoBinding(io_binding);
}
int OrtRunWithBinding(OrtSession* session,
OrtIoBinding* io_binding,
size_t output_count,
OrtValue** outputs,
OrtRunOptions* run_options) {
RETURN_ERROR_CODE_IF_ERROR(RunWithBinding, session, run_options, io_binding);
OrtAllocator* allocator = nullptr;
RETURN_ERROR_CODE_IF_ERROR(GetAllocatorWithDefaultOptions, &allocator);
size_t binding_output_count = 0;
OrtValue** binding_outputs = nullptr;
RETURN_ERROR_CODE_IF_ERROR(GetBoundOutputValues, io_binding, allocator, &binding_outputs, &binding_output_count);
REGISTER_AUTO_RELEASE_BUFFER(OrtValue*, binding_outputs, allocator);
if (binding_output_count != output_count) {
return CheckStatus(
Ort::GetApi().CreateStatus(ORT_INVALID_ARGUMENT, "Output count is inconsistent with IO Binding output data."));
}
for (size_t i = 0; i < output_count; i++) {
outputs[i] = binding_outputs[i];
}
return ORT_OK;
}
int OrtRun(OrtSession* session,
const char** input_names, const ort_tensor_handle_t* inputs, size_t input_count,
const char** output_names, size_t output_count, ort_tensor_handle_t* outputs,
OrtRunOptions* run_options) {
return CHECK_STATUS(Run, session, run_options, input_names, inputs, input_count, output_names, output_count, outputs);
}
char* OrtEndProfiling(ort_session_handle_t session) {
OrtAllocator* allocator = nullptr;
RETURN_NULLPTR_IF_ERROR(GetAllocatorWithDefaultOptions, &allocator);
char* file_name = nullptr;
return (CHECK_STATUS(SessionEndProfiling, session, allocator, &file_name) == ORT_OK)
? file_name
: nullptr;
}
// Training API Section
#ifdef ENABLE_TRAINING_APIS
#define CHECK_TRAINING_STATUS(ORT_API_NAME, ...) \
CheckStatus(Ort::GetTrainingApi().ORT_API_NAME(__VA_ARGS__))
#define RETURN_TRAINING_ERROR_CODE_IF_ERROR(ORT_API_NAME, ...) \
do { \
int error_code = CHECK_TRAINING_STATUS(ORT_API_NAME, __VA_ARGS__); \
if (error_code != ORT_OK) { \
return error_code; \
} \
} while (false)
ort_training_checkpoint_handle_t EMSCRIPTEN_KEEPALIVE OrtTrainingLoadCheckpoint(void* checkpoint_data_buffer,
size_t checkpoint_size) {
OrtCheckpointState* checkpoint_state = nullptr;
return (CHECK_TRAINING_STATUS(LoadCheckpointFromBuffer, checkpoint_data_buffer,
checkpoint_size, &checkpoint_state) == ORT_OK)
? checkpoint_state
: nullptr;
}
void EMSCRIPTEN_KEEPALIVE OrtTrainingReleaseCheckpoint(ort_training_checkpoint_handle_t training_checkpoint_state_handle) {
Ort::GetTrainingApi().ReleaseCheckpointState(training_checkpoint_state_handle);
}
ort_training_session_handle_t EMSCRIPTEN_KEEPALIVE OrtTrainingCreateSession(const ort_session_options_handle_t options,
ort_training_checkpoint_handle_t training_checkpoint_state_handle,
void* train_model,
size_t train_size,
void* eval_model,
size_t eval_size,
void* optimizer_model,
size_t optimizer_size) {
OrtTrainingSession* training_session = nullptr;
return (CHECK_TRAINING_STATUS(CreateTrainingSessionFromBuffer, g_env, options,
training_checkpoint_state_handle, train_model, train_size,
eval_model, eval_size, optimizer_model, optimizer_size,
&training_session) == ORT_OK)
? training_session
: nullptr;
}
int EMSCRIPTEN_KEEPALIVE OrtTrainingLazyResetGrad(ort_training_session_handle_t training_handle) {
return CHECK_TRAINING_STATUS(LazyResetGrad, training_handle);
}
int EMSCRIPTEN_KEEPALIVE OrtTrainingRunTrainStep(ort_training_session_handle_t training_handle,
ort_tensor_handle_t* inputs,
size_t input_count,
ort_tensor_handle_t* outputs,
size_t output_count,
ort_run_options_handle_t options) {
return CHECK_TRAINING_STATUS(TrainStep, training_handle, options, input_count, inputs, output_count, outputs);
}
int EMSCRIPTEN_KEEPALIVE OrtTrainingOptimizerStep(ort_training_session_handle_t training_handle,
const ort_run_options_handle_t run_options) {
return CHECK_TRAINING_STATUS(OptimizerStep, training_handle, run_options);
}
int EMSCRIPTEN_KEEPALIVE OrtTrainingEvalStep(ort_training_session_handle_t training_handle,
ort_tensor_handle_t* inputs,
size_t input_count,
ort_tensor_handle_t* outputs,
size_t output_count,
ort_run_options_handle_t options) {
return CHECK_TRAINING_STATUS(EvalStep, training_handle,
options, input_count, inputs, output_count, outputs);
}
int EMSCRIPTEN_KEEPALIVE OrtTrainingGetParametersSize(ort_training_session_handle_t training_handle,
size_t* param_size,
bool trainable_only) {
return CHECK_TRAINING_STATUS(GetParametersSize, training_handle, param_size, trainable_only);
}
int EMSCRIPTEN_KEEPALIVE OrtTrainingCopyParametersToBuffer(ort_training_session_handle_t training_handle,
ort_tensor_handle_t parameters_buffer,
size_t parameter_count,
bool trainable_only) {
return CHECK_TRAINING_STATUS(CopyParametersToBuffer, training_handle, parameters_buffer, trainable_only);
}
int EMSCRIPTEN_KEEPALIVE OrtTrainingCopyParametersFromBuffer(ort_training_session_handle_t training_handle,
ort_tensor_handle_t parameters_buffer,
size_t parameter_count,
bool trainable_only) {
return CHECK_TRAINING_STATUS(CopyBufferToParameters, training_handle, parameters_buffer, trainable_only);
}
int EMSCRIPTEN_KEEPALIVE OrtTrainingGetModelInputOutputCount(ort_training_session_handle_t training_handle,
size_t* input_count,
size_t* output_count,
bool isEvalModel) {
if (isEvalModel) {
RETURN_TRAINING_ERROR_CODE_IF_ERROR(TrainingSessionGetEvalModelInputCount, training_handle, input_count);
RETURN_TRAINING_ERROR_CODE_IF_ERROR(TrainingSessionGetEvalModelOutputCount, training_handle, output_count);
return ORT_OK;
} else {
RETURN_TRAINING_ERROR_CODE_IF_ERROR(TrainingSessionGetTrainingModelInputCount, training_handle, input_count);
RETURN_TRAINING_ERROR_CODE_IF_ERROR(TrainingSessionGetTrainingModelOutputCount, training_handle, output_count);
return ORT_OK;
}
}
char* EMSCRIPTEN_KEEPALIVE OrtTrainingGetModelInputOutputName(ort_training_session_handle_t training_handle,
size_t index,
bool isInput,
bool isEvalModel) {
OrtAllocator* allocator = nullptr;
RETURN_NULLPTR_IF_ERROR(GetAllocatorWithDefaultOptions, &allocator);
char* name = nullptr;
if (isEvalModel) {
if (isInput) {
return (CHECK_TRAINING_STATUS(TrainingSessionGetEvalModelInputName, training_handle, index,
allocator, &name) == ORT_OK)
? name
: nullptr;
} else {
return (CHECK_TRAINING_STATUS(TrainingSessionGetEvalModelOutputName, training_handle, index,
allocator, &name) == ORT_OK)
? name
: nullptr;
}
} else {
if (isInput) {
return (CHECK_TRAINING_STATUS(TrainingSessionGetTrainingModelInputName, training_handle, index,
allocator, &name) == ORT_OK)
? name
: nullptr;
} else {
return (CHECK_TRAINING_STATUS(TrainingSessionGetTrainingModelOutputName, training_handle, index,
allocator, &name) == ORT_OK)
? name
: nullptr;
}
}
}
void EMSCRIPTEN_KEEPALIVE OrtTrainingReleaseSession(ort_training_session_handle_t training_handle) {
Ort::GetTrainingApi().ReleaseTrainingSession(training_handle);
}
#endif