blob: a7997c7207ee2ca1203130be8890af0ab6f4a72c [file] [log] [blame]
//
// Copyright © 2017 Arm Ltd. All rights reserved.
// SPDX-License-Identifier: MIT
//
#define LOG_TAG "ArmnnDriver"
#include "ArmnnPreparedModel_1_2.hpp"
#include "Utils.hpp"
#include <boost/format.hpp>
#include <log/log.h>
#include <OperationsUtils.h>
#include <ExecutionBurstServer.h>
#include <ValidateHal.h>
#include <cassert>
#include <cinttypes>
using namespace android;
using namespace android::hardware;
namespace {
static const Timing g_NoTiming = {.timeOnDevice = UINT64_MAX, .timeInDriver = UINT64_MAX};
using namespace armnn_driver;
using TimePoint = std::chrono::steady_clock::time_point;
TimePoint Now()
{
return std::chrono::steady_clock::now();
}
unsigned long MicrosecondsDuration(TimePoint endPoint, TimePoint startPoint)
{
return static_cast<unsigned long>(std::chrono::duration_cast<std::chrono::microseconds>(
endPoint - startPoint).count());
}
void NotifyCallbackAndCheck(const ::android::sp<V1_0::IExecutionCallback>& callback,
ErrorStatus errorStatus,
std::vector<OutputShape>,
const Timing,
std::string callingFunction)
{
Return<void> returned = callback->notify(errorStatus);
// This check is required, if the callback fails and it isn't checked it will bring down the service
if (!returned.isOk())
{
ALOGE("ArmnnDriver::%s: hidl callback failed to return properly: %s",
callingFunction.c_str(), returned.description().c_str());
}
}
void NotifyCallbackAndCheck(const ::android::sp<V1_2::IExecutionCallback>& callback,
ErrorStatus errorStatus,
std::vector<OutputShape> outputShapes,
const Timing timing,
std::string callingFunction)
{
Return<void> returned = callback->notify_1_2(errorStatus, outputShapes, timing);
// This check is required, if the callback fails and it isn't checked it will bring down the service
if (!returned.isOk())
{
ALOGE("ArmnnDriver::%s: hidl callback failed to return properly: %s",
callingFunction.c_str(), returned.description().c_str());
}
}
bool ValidateRequestArgument(const RequestArgument& requestArg, const armnn::TensorInfo& tensorInfo)
{
if (requestArg.dimensions.size() != 0)
{
if (requestArg.dimensions.size() != tensorInfo.GetNumDimensions())
{
ALOGE("Mismatched dimensions (request argument: %zu, expected: %u)",
requestArg.dimensions.size(), tensorInfo.GetNumDimensions());
return false;
}
for (unsigned int d = 0; d < tensorInfo.GetNumDimensions(); ++d)
{
if (requestArg.dimensions[d] != tensorInfo.GetShape()[d])
{
ALOGE("Mismatched size for dimension %d (request argument: %u, expected %u)",
d, requestArg.dimensions[d], tensorInfo.GetShape()[d]);
return false;
}
}
}
return true;
}
armnn::Tensor GetTensorForRequestArgument(const RequestArgument& requestArg,
const armnn::TensorInfo& tensorInfo,
const std::vector<::android::nn::RunTimePoolInfo>& requestPools)
{
if (!ValidateRequestArgument(requestArg, tensorInfo))
{
return armnn::Tensor();
}
return armnn::Tensor(tensorInfo, GetMemoryFromPool(requestArg.location, requestPools));
}
inline std::string BuildTensorName(const char* tensorNamePrefix, std::size_t index)
{
return tensorNamePrefix + std::to_string(index);
}
} // anonymous namespace
using namespace android::hardware;
namespace armnn_driver
{
template<typename HalVersion>
RequestThread<ArmnnPreparedModel_1_2, HalVersion, ArmnnCallback_1_2>
ArmnnPreparedModel_1_2<HalVersion>::m_RequestThread;
template<typename HalVersion>
template<typename TensorBindingCollection>
void ArmnnPreparedModel_1_2<HalVersion>::DumpTensorsIfRequired(char const* tensorNamePrefix,
const TensorBindingCollection& tensorBindings)
{
if (!m_RequestInputsAndOutputsDumpDir.empty())
{
const std::string requestName = boost::str(boost::format("%1%_%2%.dump") % m_NetworkId % m_RequestCount);
for (std::size_t i = 0u; i < tensorBindings.size(); ++i)
{
DumpTensor(m_RequestInputsAndOutputsDumpDir,
requestName,
BuildTensorName(tensorNamePrefix, i),
tensorBindings[i].second);
}
}
}
template<typename HalVersion>
ArmnnPreparedModel_1_2<HalVersion>::ArmnnPreparedModel_1_2(armnn::NetworkId networkId,
armnn::IRuntime* runtime,
const V1_2::Model& model,
const std::string& requestInputsAndOutputsDumpDir,
const bool gpuProfilingEnabled)
: m_NetworkId(networkId)
, m_Runtime(runtime)
, m_Model(model)
, m_RequestCount(0)
, m_RequestInputsAndOutputsDumpDir(requestInputsAndOutputsDumpDir)
, m_GpuProfilingEnabled(gpuProfilingEnabled)
{
// Enable profiling if required.
m_Runtime->GetProfiler(m_NetworkId)->EnableProfiling(m_GpuProfilingEnabled);
}
template<typename HalVersion>
ArmnnPreparedModel_1_2<HalVersion>::~ArmnnPreparedModel_1_2()
{
// Get a hold of the profiler used by this model.
std::shared_ptr<armnn::IProfiler> profiler = m_Runtime->GetProfiler(m_NetworkId);
// Unload the network associated with this model.
m_Runtime->UnloadNetwork(m_NetworkId);
// Dump the profiling info to a file if required.
DumpJsonProfilingIfRequired(m_GpuProfilingEnabled, m_RequestInputsAndOutputsDumpDir, m_NetworkId, profiler.get());
}
template<typename HalVersion>
Return <ErrorStatus> ArmnnPreparedModel_1_2<HalVersion>::execute(const Request& request,
const ::android::sp<V1_0::IExecutionCallback>& callback)
{
if (callback.get() == nullptr)
{
ALOGE("ArmnnPreparedModel_1_2::execute invalid callback passed");
return ErrorStatus::INVALID_ARGUMENT;
}
auto cb = [callback](ErrorStatus errorStatus,
std::vector<OutputShape> outputShapes,
const Timing& timing,
std::string callingFunction)
{
NotifyCallbackAndCheck(callback, errorStatus, outputShapes, timing, callingFunction);
};
return Execute(request, MeasureTiming::NO, cb);
}
template<typename HalVersion>
Return <ErrorStatus> ArmnnPreparedModel_1_2<HalVersion>::execute_1_2(const Request& request,
MeasureTiming measureTiming,
const sp<V1_2::IExecutionCallback>& callback)
{
if (callback.get() == nullptr)
{
ALOGE("ArmnnPreparedModel_1_2::execute_1_2 invalid callback passed");
return ErrorStatus::INVALID_ARGUMENT;
}
auto cb = [callback](ErrorStatus errorStatus,
std::vector<OutputShape> outputShapes,
const Timing& timing,
std::string callingFunction)
{
NotifyCallbackAndCheck(callback, errorStatus, outputShapes, timing, callingFunction);
};
return Execute(request, measureTiming, cb);
}
template<typename HalVersion>
Return<void> ArmnnPreparedModel_1_2<HalVersion>::executeSynchronously(const Request& request,
MeasureTiming measureTiming,
executeSynchronously_cb cb)
{
ALOGV("ArmnnPreparedModel_1_2::executeSynchronously(): %s", GetModelSummary(m_Model).c_str());
m_RequestCount++;
if (cb == nullptr)
{
ALOGE("ArmnnPreparedModel_1_2::executeSynchronously invalid callback passed");
return Void();
}
TimePoint driverStart, driverEnd, deviceStart, deviceEnd;
if (measureTiming == MeasureTiming::YES)
{
driverStart = Now();
}
if (!android::nn::validateRequest(request, m_Model))
{
ALOGE("ArmnnPreparedModel_1_2::executeSynchronously invalid request model");
cb(ErrorStatus::INVALID_ARGUMENT, {}, g_NoTiming);
return Void();
}
// allocate the tensors on the heap, as they are passed to the request thread
auto pInputTensors = std::make_shared<armnn::InputTensors>();
auto pOutputTensors = std::make_shared<armnn::OutputTensors>();
// map the memory pool into shared pointers
// use a shared memory pools vector on the heap, as it is passed to the request thread
auto pMemPools = std::make_shared<std::vector<android::nn::RunTimePoolInfo>>();
if (!setRunTimePoolInfosFromHidlMemories(pMemPools.get(), request.pools))
{
cb(ErrorStatus::GENERAL_FAILURE, {}, g_NoTiming);
return Void();
}
std::vector<OutputShape> outputShapes(request.outputs.size());
try
{
pInputTensors->reserve(request.inputs.size());
for (unsigned int i = 0; i < request.inputs.size(); i++)
{
const auto& inputArg = request.inputs[i];
const armnn::TensorInfo inputTensorInfo = m_Runtime->GetInputTensorInfo(m_NetworkId, i);
const armnn::Tensor inputTensor = GetTensorForRequestArgument(inputArg, inputTensorInfo, *pMemPools);
if (inputTensor.GetMemoryArea() == nullptr)
{
ALOGE("Cannot execute request. Error converting request input %u to tensor", i);
cb(ErrorStatus::GENERAL_FAILURE, {}, g_NoTiming);
return Void();
}
pInputTensors->emplace_back(i, inputTensor);
}
pOutputTensors->reserve(request.outputs.size());
for (unsigned int i = 0; i < request.outputs.size(); i++)
{
const auto& outputArg = request.outputs[i];
const armnn::TensorInfo outputTensorInfo = m_Runtime->GetOutputTensorInfo(m_NetworkId, i);
const armnn::Tensor outputTensor = GetTensorForRequestArgument(outputArg, outputTensorInfo, *pMemPools);
if (outputTensor.GetMemoryArea() == nullptr)
{
ALOGE("Cannot execute request. Error converting request output %u to tensor", i);
cb(ErrorStatus::GENERAL_FAILURE, {}, g_NoTiming);
return Void();
}
const size_t outputSize = outputTensorInfo.GetNumBytes();
const size_t bufferSize = pMemPools->at(outputArg.location.poolIndex).getHidlMemory().size();
hidl_vec<uint32_t> dimensions;
armnn::TensorShape tensorShape = outputTensorInfo.GetShape();
const unsigned int numDims = tensorShape.GetNumDimensions();
dimensions.resize(numDims);
for (unsigned int outputIdx = 0u; outputIdx < numDims; ++outputIdx)
{
dimensions[outputIdx] = tensorShape[outputIdx];
}
outputShapes[i].dimensions = dimensions;
outputShapes[i].isSufficient = bufferSize >= outputSize;
if (bufferSize < outputSize)
{
ALOGW("ArmnnPreparedModel_1_2::Execute failed");
cb(ErrorStatus::OUTPUT_INSUFFICIENT_SIZE, outputShapes, g_NoTiming);
return Void();
}
pOutputTensors->emplace_back(i, outputTensor);
}
}
catch (armnn::Exception& e)
{
ALOGW("armnn::Exception caught while preparing for EnqueueWorkload: %s", e.what());
cb(ErrorStatus::GENERAL_FAILURE, {}, g_NoTiming);
return Void();
}
ALOGV("ArmnnPreparedModel_1_2::executeSynchronously() before Execution");
DumpTensorsIfRequired("Input", *pInputTensors);
// run it
try
{
if (measureTiming == MeasureTiming::YES)
{
deviceStart = Now();
}
armnn::Status status = m_Runtime->EnqueueWorkload(m_NetworkId, *pInputTensors, *pOutputTensors);
if (measureTiming == MeasureTiming::YES)
{
deviceEnd = Now();
}
if (status != armnn::Status::Success)
{
ALOGW("EnqueueWorkload failed");
cb(ErrorStatus::GENERAL_FAILURE, {}, g_NoTiming);
return Void();
}
}
catch (armnn::Exception& e)
{
ALOGW("armnn::Exception caught from EnqueueWorkload: %s", e.what());
cb(ErrorStatus::GENERAL_FAILURE, {}, g_NoTiming);
return Void();
}
DumpTensorsIfRequired("Output", *pOutputTensors);
// Commit output buffers.
// Note that we update *all* pools, even if they aren't actually used as outputs -
// this is simpler and is what the CpuExecutor does.
for (android::nn::RunTimePoolInfo& pool : *pMemPools)
{
pool.update();
}
ALOGV("ArmnnPreparedModel_1_2::executeSynchronously() after Execution");
if (measureTiming == MeasureTiming::YES)
{
driverEnd = Now();
Timing timing;
timing.timeOnDevice = MicrosecondsDuration(deviceEnd, deviceStart);
timing.timeInDriver = MicrosecondsDuration(driverEnd, driverStart);
ALOGV("ArmnnPreparedModel_1_2::executeSynchronously timing Device = %lu Driver = %lu", timing.timeOnDevice,
timing.timeInDriver);
cb(ErrorStatus::NONE, outputShapes, timing);
}
else
{
cb(ErrorStatus::NONE, outputShapes, g_NoTiming);
}
return Void();
}
class ArmnnBurstExecutorWithCache : public ExecutionBurstServer::IBurstExecutorWithCache {
public:
ArmnnBurstExecutorWithCache(IPreparedModel* preparedModel)
: m_PreparedModel(preparedModel)
{}
bool isCacheEntryPresent(int32_t slot) const override
{
const auto it = m_MemoryCache.find(slot);
return (it != m_MemoryCache.end()) && it->second.valid();
}
void addCacheEntry(const hidl_memory& memory, int32_t slot) override
{
m_MemoryCache[slot] = memory;
}
void removeCacheEntry(int32_t slot) override
{
m_MemoryCache.erase(slot);
}
std::tuple<ErrorStatus, hidl_vec<OutputShape>, Timing> execute(
const Request& request, const std::vector<int32_t>& slots,
MeasureTiming measure) override
{
ALOGV("ArmnnPreparedModel_1_2::BurstExecutorWithCache::execute");
hidl_vec<hidl_memory> pools(slots.size());
std::transform(slots.begin(), slots.end(), pools.begin(), [this](int32_t slot)
{
return m_MemoryCache[slot];
});
Request fullRequest = request;
fullRequest.pools = std::move(pools);
// Setup Callback
ErrorStatus returnedStatus = ErrorStatus::GENERAL_FAILURE;
hidl_vec<OutputShape> returnedOutputShapes;
Timing returnedTiming;
auto cb = [&returnedStatus, &returnedOutputShapes, &returnedTiming](ErrorStatus status,
const hidl_vec<OutputShape>& outputShapes,
const Timing& timing)
{
returnedStatus = status;
returnedOutputShapes = outputShapes;
returnedTiming = timing;
};
// Execute
ALOGV("ArmnnPreparedModel_1_2::BurstExecutorWithCache executing");
const Return<void> ret = m_PreparedModel->executeSynchronously(fullRequest, measure, cb);
if (!ret.isOk() || returnedStatus != ErrorStatus::NONE)
{
ALOGE("ArmnnPreparedModel_1_2::BurstExecutorWithCache::error executing");
}
return std::make_tuple(returnedStatus, std::move(returnedOutputShapes), returnedTiming);
}
private:
IPreparedModel* const m_PreparedModel;
std::map<int, hidl_memory> m_MemoryCache;
};
template<typename HalVersion>
Return<void> ArmnnPreparedModel_1_2<HalVersion>::configureExecutionBurst(
const sp<V1_2::IBurstCallback>& callback,
const MQDescriptorSync<V1_2::FmqRequestDatum>& requestChannel,
const MQDescriptorSync<V1_2::FmqResultDatum>& resultChannel,
V1_2::IPreparedModel::configureExecutionBurst_cb cb)
{
ALOGV("ArmnnPreparedModel_1_2::configureExecutionBurst");
const std::shared_ptr<ArmnnBurstExecutorWithCache> executorWithCache =
std::make_shared<ArmnnBurstExecutorWithCache>(this);
const sp<V1_2::IBurstContext> burst = ExecutionBurstServer::create(callback,
requestChannel,
resultChannel,
executorWithCache);
if (burst == nullptr)
{
cb(ErrorStatus::GENERAL_FAILURE, {});
}
else
{
cb(ErrorStatus::NONE, burst);
}
return Void();
}
template<typename HalVersion>
void ArmnnPreparedModel_1_2<HalVersion>::ExecuteGraph(
std::shared_ptr<std::vector<::android::nn::RunTimePoolInfo>>& pMemPools,
std::shared_ptr<armnn::InputTensors>& pInputTensors,
std::shared_ptr<armnn::OutputTensors>& pOutputTensors,
ArmnnCallback_1_2 cb)
{
ALOGV("ArmnnPreparedModel_1_2::ExecuteGraph(...)");
TimePoint driverEnd, deviceStart, deviceEnd;
DumpTensorsIfRequired("Input", *pInputTensors);
std::vector<std::pair<int, armnn::Tensor> > outputTensors = *pOutputTensors.get();
std::vector<OutputShape> outputShapes(outputTensors.size());
for (unsigned int i = 0; i < outputTensors.size(); i++)
{
std::pair<int, armnn::Tensor> outputTensorPair = outputTensors[i];
const armnn::Tensor outputTensor = outputTensorPair.second;
const armnn::TensorInfo outputTensorInfo = outputTensor.GetInfo();
hidl_vec<uint32_t> dimensions;
armnn::TensorShape tensorShape = outputTensorInfo.GetShape();
const unsigned int numDims = tensorShape.GetNumDimensions();
dimensions.resize(numDims);
for (unsigned int outputIdx = 0u; outputIdx < numDims; ++outputIdx)
{
dimensions[outputIdx] = tensorShape[outputIdx];
}
outputShapes[i].dimensions = dimensions;
outputShapes[i].isSufficient = true;
}
// run it
try
{
if (cb.measureTiming == MeasureTiming::YES)
{
deviceStart = Now();
}
armnn::Status status = m_Runtime->EnqueueWorkload(m_NetworkId, *pInputTensors, *pOutputTensors);
if (cb.measureTiming == MeasureTiming::YES)
{
deviceEnd = Now();
}
if (status != armnn::Status::Success)
{
ALOGW("EnqueueWorkload failed");
cb.callback(ErrorStatus::GENERAL_FAILURE, {}, g_NoTiming,
"ArmnnPreparedModel_1_2::ExecuteGraph");
return;
}
}
catch (armnn::Exception& e)
{
ALOGW("armnn::Exception caught from EnqueueWorkload: %s", e.what());
cb.callback(ErrorStatus::GENERAL_FAILURE, {}, g_NoTiming,
"ArmnnPreparedModel_1_2::ExecuteGraph");
return;
}
DumpTensorsIfRequired("Output", *pOutputTensors);
// Commit output buffers.
// Note that we update *all* pools, even if they aren't actually used as outputs -
// this is simpler and is what the CpuExecutor does.
for (android::nn::RunTimePoolInfo& pool : *pMemPools)
{
pool.update();
}
if (cb.measureTiming == MeasureTiming::YES)
{
driverEnd = Now();
Timing timing;
timing.timeOnDevice = MicrosecondsDuration(deviceEnd, deviceStart);
timing.timeInDriver = MicrosecondsDuration(driverEnd, cb.driverStart);
cb.callback(ErrorStatus::NONE, outputShapes, timing, "ExecuteGraph");
} else {
cb.callback(ErrorStatus::NONE, outputShapes, g_NoTiming, "ExecuteGraph");
}
}
template<typename HalVersion>
bool ArmnnPreparedModel_1_2<HalVersion>::ExecuteWithDummyInputs()
{
std::vector<std::vector<char>> storage;
armnn::InputTensors inputTensors;
for (unsigned int i = 0; i < m_Model.inputIndexes.size(); i++)
{
const armnn::TensorInfo inputTensorInfo = m_Runtime->GetInputTensorInfo(m_NetworkId, i);
storage.emplace_back(inputTensorInfo.GetNumBytes());
const armnn::ConstTensor inputTensor(inputTensorInfo, storage.back().data());
inputTensors.emplace_back(i, inputTensor);
}
armnn::OutputTensors outputTensors;
for (unsigned int i = 0; i < m_Model.outputIndexes.size(); i++)
{
const armnn::TensorInfo outputTensorInfo = m_Runtime->GetOutputTensorInfo(m_NetworkId, i);
storage.emplace_back(outputTensorInfo.GetNumBytes());
const armnn::Tensor outputTensor(outputTensorInfo, storage.back().data());
outputTensors.emplace_back(i, outputTensor);
}
try
{
armnn::Status status = m_Runtime->EnqueueWorkload(m_NetworkId, inputTensors, outputTensors);
if (status != armnn::Status::Success)
{
ALOGW("ExecuteWithDummyInputs: EnqueueWorkload failed");
return false;
}
}
catch (armnn::Exception& e)
{
ALOGW("ExecuteWithDummyInputs: armnn::Exception caught from EnqueueWorkload: %s", e.what());
return false;
}
return true;
}
template<typename HalVersion>
Return <ErrorStatus> ArmnnPreparedModel_1_2<HalVersion>::Execute(const Request& request,
MeasureTiming measureTiming,
armnnExecuteCallback_1_2 callback)
{
TimePoint driverStart;
if (measureTiming == MeasureTiming::YES)
{
driverStart = Now();
}
ALOGV("ArmnnPreparedModel_1_2::execute(): %s", GetModelSummary(m_Model).c_str());
m_RequestCount++;
if (!android::nn::validateRequest(request, m_Model))
{
callback(ErrorStatus::INVALID_ARGUMENT, {}, g_NoTiming, "ArmnnPreparedModel_1_2::execute");
return ErrorStatus::INVALID_ARGUMENT;
}
if (!m_RequestInputsAndOutputsDumpDir.empty())
{
ALOGD("Dumping inputs and outputs for request %" PRIuPTR, reinterpret_cast<std::uintptr_t>(&callback));
}
// allocate the tensors on the heap, as they are passed to the request thread
auto pInputTensors = std::make_shared<armnn::InputTensors>();
auto pOutputTensors = std::make_shared<armnn::OutputTensors>();
// map the memory pool into shared pointers
// use a shared memory pools vector on the heap, as it is passed to the request thread
auto pMemPools = std::make_shared<std::vector<android::nn::RunTimePoolInfo>>();
if (!setRunTimePoolInfosFromHidlMemories(pMemPools.get(), request.pools))
{
callback(ErrorStatus::GENERAL_FAILURE, {}, g_NoTiming, "ArmnnPreparedModel_1_2::execute");
return ErrorStatus::GENERAL_FAILURE;
}
// add the inputs and outputs with their data
try
{
pInputTensors->reserve(request.inputs.size());
for (unsigned int i = 0; i < request.inputs.size(); i++)
{
const auto& inputArg = request.inputs[i];
const armnn::TensorInfo inputTensorInfo = m_Runtime->GetInputTensorInfo(m_NetworkId, i);
const armnn::Tensor inputTensor = GetTensorForRequestArgument(inputArg, inputTensorInfo, *pMemPools);
if (inputTensor.GetMemoryArea() == nullptr)
{
ALOGE("Cannot execute request. Error converting request input %u to tensor", i);
callback(ErrorStatus::GENERAL_FAILURE, {}, g_NoTiming, "ArmnnPreparedModel_1_2::execute");
return ErrorStatus::GENERAL_FAILURE;
}
pInputTensors->emplace_back(i, inputTensor);
}
pOutputTensors->reserve(request.outputs.size());
std::vector<OutputShape> outputShapes(request.outputs.size());
for (unsigned int i = 0; i < request.outputs.size(); i++)
{
const auto& outputArg = request.outputs[i];
const armnn::TensorInfo outputTensorInfo = m_Runtime->GetOutputTensorInfo(m_NetworkId, i);
const armnn::Tensor outputTensor = GetTensorForRequestArgument(outputArg, outputTensorInfo, *pMemPools);
if (outputTensor.GetMemoryArea() == nullptr)
{
ALOGE("Cannot execute request. Error converting request output %u to tensor", i);
callback(ErrorStatus::GENERAL_FAILURE, {}, g_NoTiming, "ArmnnPreparedModel_1_2::execute");
return ErrorStatus::GENERAL_FAILURE;
}
const size_t outputSize = outputTensorInfo.GetNumBytes();
const size_t bufferSize = pMemPools->at(outputArg.location.poolIndex).getHidlMemory().size();
pOutputTensors->emplace_back(i, outputTensor);
hidl_vec<uint32_t> dimensions;
armnn::TensorShape tensorShape = outputTensorInfo.GetShape();
const unsigned int numDims = tensorShape.GetNumDimensions();
dimensions.resize(numDims);
for (unsigned int outputIdx = 0u; outputIdx < numDims; ++outputIdx)
{
dimensions[outputIdx] = tensorShape[outputIdx];
}
outputShapes[i].dimensions = dimensions;
outputShapes[i].isSufficient = bufferSize >= outputSize;
if (bufferSize < outputSize)
{
ALOGW("ArmnnPreparedModel_1_2::Execute failed");
callback(ErrorStatus::OUTPUT_INSUFFICIENT_SIZE,
outputShapes,
g_NoTiming,
"ArmnnPreparedModel_1_2::Execute");
return ErrorStatus::NONE;
}
}
}
catch (armnn::Exception& e)
{
ALOGW("armnn::Exception caught while preparing for EnqueueWorkload: %s", e.what());
callback(ErrorStatus::GENERAL_FAILURE, {}, g_NoTiming, "ArmnnPreparedModel_1_2::execute");
return ErrorStatus::GENERAL_FAILURE;
}
ALOGV("ArmnnPreparedModel_1_2::execute(...) before PostMsg");
// post the request for asynchronous execution
ArmnnCallback_1_2 armnnCb;
armnnCb.callback = callback;
armnnCb.measureTiming = measureTiming;
armnnCb.driverStart = driverStart;
m_RequestThread.PostMsg(this, pMemPools, pInputTensors, pOutputTensors, armnnCb);
ALOGV("ArmnnPreparedModel_1_2::execute(...) after PostMsg");
return ErrorStatus::NONE;
}
#ifdef ARMNN_ANDROID_NN_V1_2
template class ArmnnPreparedModel_1_2<hal_1_2::HalPolicy>;
#endif
} // namespace armnn_driver