LoadedNetwork Class Reference

#include <LoadedNetwork.hpp>

Public Types
using	WorkloadQueue = std::vector< std::unique_ptr< IWorkload > >

Public Member Functions
	~LoadedNetwork ()
std::unique_ptr< IWorkingMemHandle >	CreateWorkingMemHandle (NetworkId networkId)
	Create a new unique WorkingMemHandle object. More...
TensorInfo	GetInputTensorInfo (LayerBindingId layerId) const
TensorInfo	GetOutputTensorInfo (LayerBindingId layerId) const
std::vector< ImportedInputId >	ImportInputs (const InputTensors &inputTensors, MemorySource forceImportMemorySource=MemorySource::Undefined)
std::vector< ImportedOutputId >	ImportOutputs (const OutputTensors &outputTensors, MemorySource forceImportMemorySource=MemorySource::Undefined)
void	ClearImportedInputs (const std::vector< ImportedInputId > inputIds)
void	ClearImportedOutputs (const std::vector< ImportedOutputId > outputIds)
Status	EnqueueWorkload (const InputTensors &inputTensors, const OutputTensors &outputTensors, std::vector< ImportedInputId > preImportedInputIds={}, std::vector< ImportedOutputId > preImportedOutputIds={})
	Single thread execution of the loaded network. More...
Status	Execute (const InputTensors &inputTensors, const OutputTensors &outputTensors, IWorkingMemHandle &workingMemHandle, std::vector< ImportedInputId > preImportedInputs={}, std::vector< ImportedOutputId > preImportedOutputs={})
	Thread safe execution of the loaded network. More...
const std::shared_ptr< IProfiler > &	GetProfiler () const
void	FreeWorkingMemory ()
void	RegisterDebugCallback (const DebugCallbackFunction &func)
void	SendNetworkStructure (arm::pipe::IProfilingService &profilingService)
bool	IsAsyncEnabled ()
arm::pipe::ProfilingGuid	GetNetworkGuid ()

Static Public Member Functions
static std::unique_ptr< LoadedNetwork >	MakeLoadedNetwork (std::unique_ptr< IOptimizedNetwork > net, std::string &errorMessage, const INetworkProperties &networkProperties, arm::pipe::IProfilingService *profilingService)

Detailed Description

Definition at line 42 of file LoadedNetwork.hpp.

Member Typedef Documentation

WorkloadQueue

using WorkloadQueue = std::vector<std::unique_ptr<IWorkload> >

Definition at line 45 of file LoadedNetwork.hpp.

Constructor & Destructor Documentation

~LoadedNetwork()

~LoadedNetwork ( )

inline

Definition at line 47 of file LoadedNetwork.hpp.

    {
        FreeWorkingMemory();
    }

References LoadedNetwork::FreeWorkingMemory().

Member Function Documentation

ClearImportedInputs()

void ClearImportedInputs

(

const std::vector< ImportedInputId >

inputIds

)

Definition at line 1761 of file LoadedNetwork.cpp.

{
    for (auto id : inputIds)
    {
        if (id > m_PreImportedInputHandles.size())
        {
            throw InvalidArgumentException(fmt::format("ClearImportedInputs::Unknown ImportedInputId: {}", id));
        }
 
        auto& importedTensorHandle = m_PreImportedInputHandles[id].m_TensorHandle;
        if (!importedTensorHandle)
        {
            throw InvalidArgumentException(
                    fmt::format("ClearImportedInputs::ImportedInput with id: {} has already been deleted", id));
        }
        // Call Unimport then destroy the tensorHandle
        importedTensorHandle->Unimport();
        importedTensorHandle = {};
    }
}

Referenced by RuntimeImpl::ClearImportedInputs().

ClearImportedOutputs()

void ClearImportedOutputs

(

const std::vector< ImportedOutputId >

outputIds

)

Definition at line 1782 of file LoadedNetwork.cpp.

{
    for (auto id : outputIds)
    {
        if (id > m_PreImportedOutputHandles.size())
        {
            throw InvalidArgumentException(fmt::format("ClearImportedOutputs::Unknown ImportedOutputId: {}", id));
        }
 
        auto& importedTensorHandle = m_PreImportedOutputHandles[id].m_TensorHandle;
        if (!importedTensorHandle)
        {
            throw InvalidArgumentException(
                    fmt::format("ClearImportedOutputs::ImportedOutput with id: {} has already been deleted", id));
        }
        // Call Unimport then destroy the tensorHandle
        importedTensorHandle->Unimport();
        importedTensorHandle = {};
    }
}

Referenced by RuntimeImpl::ClearImportedOutputs().

CreateWorkingMemHandle()

std::unique_ptr< IWorkingMemHandle > CreateWorkingMemHandle

(

NetworkId

networkId

)

Create a new unique WorkingMemHandle object.

Create multiple handles if you wish to have overlapped Execution by calling this function from different threads.

Definition at line 2025 of file LoadedNetwork.cpp.

{
    Graph& order = m_OptimizedNetwork->pOptimizedNetworkImpl->GetGraph();
 
    // Tensors that will need to be allocated internally within armnn
    std::vector<std::unique_ptr<ITensorHandle>> managedTensorHandles;
    // Tensors that will be allocated externally by the user
    std::vector<std::unique_ptr<ITensorHandle>> unmanagedTensorHandles;
 
    std::vector<WorkingMemDescriptor> workingMemDescriptors;
    std::vector<std::pair<BackendId, ExecutionData>> executionDataVec;
 
    auto GetTensorHandle = [&](Layer* layer, const OutputSlot& outputSlot)
    {
        ITensorHandleFactory::FactoryId factoryId = outputSlot.GetTensorHandleFactoryId();
        const TensorInfo& tensorInfo = outputSlot.GetTensorInfo();
 
        if (factoryId == ITensorHandleFactory::LegacyFactoryId)
        {
            BackendId id = layer->GetBackendId();
            ARMNN_NO_DEPRECATE_WARN_BEGIN
            return m_WorkloadFactories.at(id)->CreateTensorHandle(tensorInfo, false);
            ARMNN_NO_DEPRECATE_WARN_END
        }
        else
        {
            ITensorHandleFactory* handleFactory = m_TensorHandleFactoryRegistry.GetFactory(factoryId);
            if (!handleFactory)
            {
                throw armnn::NullPointerException("handleFactory must not be null.");
            }
            return handleFactory->CreateTensorHandle(tensorInfo, false);
        }
    };
 
    struct HandleInfo
    {
        ITensorHandle* m_TensorHandle;
 
        bool m_IsInputLayerHandle = false;
        bool m_IsOutputLayerHandle = false;
 
        WorkingMemHandle::InputMemDescriptorCoords m_InputMemDescriptorCoords;
        WorkingMemHandle::OutputMemDescriptorCoords m_OutputMemDescriptorCoords;
    };
 
    std::unordered_map<const OutputSlot*, HandleInfo> outputToHandleInfoMap;
 
    unsigned int layerIndex = 0;
    for (auto&& layer : order)
    {
        // Constant layers execution and management is handled during loaded network construction
        if (layer->GetType() == LayerType::Constant)
        {
            continue;
        }
 
        WorkingMemDescriptor workingMemDescriptor;
 
        bool isMemoryManaged = true;
        bool isInputLayer = false;
        bool isOutputLayer = false;
        bool isConnectedToOutputLayer = false;
 
        if (layer->GetType() == LayerType::Input || layer->GetType() == LayerType::MemImport)
        {
            // Input layers/workloads will not be executed so the descriptor is not added to workingMemDescriptors
            // However we will still need to manage the tensorHandle
            isInputLayer = true;
            isMemoryManaged = m_NetworkProperties.m_InputSource == MemorySource::Undefined;
        }
        else if (layer->GetType() == LayerType::Output)
        {
            isOutputLayer = true;
        }
 
        unsigned int slotIndex = 0;
        // Create a tensor handle for each output slot of a layer
        // Once we create it, we start managing its lifetime
        for (auto& slot : layer->GetOutputSlots())
        {
            for (unsigned int i = 0; i < slot.GetNumConnections(); ++i)
            {
                if ((slot.GetConnection(i)->GetOwningLayer().GetType() == LayerType::Output))
                {
                    if (!isConnectedToOutputLayer)
                    {
                        isConnectedToOutputLayer = true;
                        // If Export is enabled disable memory management, so we can export, otherwise we do a copy
                        isMemoryManaged = m_NetworkProperties.m_OutputSource == MemorySource::Undefined;
                    }
                    else
                    {
                        // Importing in this case would likely cause unexpected behaviour, so we disallow it.
                        ARMNN_LOG(warning) <<
                           fmt::format("Layer name: '{0}' guid: '{1}' has two or more OutputLayers connected to it. "
                                       "This will prevent importing on the connected OutputLayers.",
                                        layer->GetName(), layer->GetGuid());
                        isMemoryManaged = true;
                    }
                }
            }
 
            ITensorHandle* tensorHandle;
            if (isMemoryManaged)
            {
                managedTensorHandles.emplace_back(GetTensorHandle(layer, slot));
                tensorHandle = managedTensorHandles.back().get();
            }
            else
            {
                unmanagedTensorHandles.emplace_back(GetTensorHandle(layer, slot));
                tensorHandle = unmanagedTensorHandles.back().get();
            }
 
            workingMemDescriptor.m_Outputs.push_back(tensorHandle);
 
            HandleInfo& handleInfo = outputToHandleInfoMap[&slot];
            handleInfo.m_TensorHandle = tensorHandle;
 
            // Store the coordinates of the current layer's OutputSlot that is connected to the OutputLayer
            if (isConnectedToOutputLayer)
            {
                handleInfo.m_IsOutputLayerHandle = true;
                handleInfo.m_OutputMemDescriptorCoords.m_OutputSlotCoords = {layerIndex, slotIndex};
            }
            // Store the LayerBindingId of the InputLayer
            if (isInputLayer)
            {
                handleInfo.m_IsInputLayerHandle = true;
                LayerBindingId bindingId = static_cast<BindableLayer*>(layer)->GetBindingId();
                handleInfo.m_InputMemDescriptorCoords.m_LayerBindingId = bindingId;
            }
            slotIndex++;
        }
        // Loop through the input slots in the same layer and decrement the reference counter associated
        // to each tensor handle we encounter.
        // Once it reaches zero, the lifetime of the tensor handle has ended, and we mark its memory as available
        // so that the next tensor handle with a non overlapping lifetime can share its memory.
        for (auto& slot : layer->GetInputSlots())
        {
            if (!slot.GetConnection())
            {
                throw armnn::GraphValidationException("slot must be a valid input slot.");
            }
 
            auto outputSlot = slot.GetConnectedOutputSlot();
            auto key = outputSlot->GetOwningLayer().GetGuid();
 
            // Constant layers execution and management is handled during loaded network construction
            auto found = m_ConstantTensorHandles.find(key);
            if (found != m_ConstantTensorHandles.end())
            {
                ITensorHandle* tensorHandle = found->second;
                if (slot.IsTensorInfoOverridden())
                {
                    ITensorHandle* decorated = tensorHandle->DecorateTensorHandle(slot.GetTensorInfo()).get();
                    if (decorated)
                    {
                        tensorHandle = decorated;
                    }
                }
                workingMemDescriptor.m_Inputs.push_back(tensorHandle);
 
                // Odd case where a constant layer is connected to an output layer
                // We will need to create a HandleInfo to track it
                if (isOutputLayer)
                {
                    LayerBindingId bindingId = static_cast<BindableLayer*>(layer)->GetBindingId();
 
                    HandleInfo& handleInfo = outputToHandleInfoMap[outputSlot];
                    handleInfo.m_TensorHandle = tensorHandle;
                    handleInfo.m_IsOutputLayerHandle = true;
                    handleInfo.m_OutputMemDescriptorCoords.m_LayerBindingIds.push_back(bindingId);
                    handleInfo.m_OutputMemDescriptorCoords.m_InputSlotCoords.push_back({layerIndex, 0});
                }
                continue;
            }
 
            HandleInfo& handleInfo = outputToHandleInfoMap.at(outputSlot);
 
            ITensorHandle* inputTensorHandle = handleInfo.m_TensorHandle;
            if (slot.IsTensorInfoOverridden())
            {
                ITensorHandle* decorated = inputTensorHandle->DecorateTensorHandle(slot.GetTensorInfo()).get();
                if (decorated)
                {
                    inputTensorHandle = decorated;
                }
            }
            workingMemDescriptor.m_Inputs.push_back(inputTensorHandle);
 
            // Store the LayerBindingId of the OutputLayer
            if (isOutputLayer)
            {
                LayerBindingId bindingId = static_cast<BindableLayer*>(layer)->GetBindingId();
                handleInfo.m_OutputMemDescriptorCoords.m_LayerBindingIds.push_back(bindingId);
                handleInfo.m_OutputMemDescriptorCoords.m_InputSlotCoords.push_back({layerIndex, 0});
            }
            // In this case the layer is not an Output Layer but shares its input tensorhandle with an OutputLayer
            // It will need to be updated as well, if we swap out the tensorhandle
            else if (handleInfo.m_IsOutputLayerHandle)
            {
                handleInfo.m_OutputMemDescriptorCoords.m_InputSlotCoords.push_back({layerIndex, slot.GetSlotIndex()});
            }
 
            // Store the coordinates of the InputSlots connected to the InputLayer
            // There can be more than one InputSlot connected to an InputLayer, so we use a vector
            if (handleInfo.m_IsInputLayerHandle)
            {
                std::pair<LayerGuid, unsigned int> connectionLocation{layerIndex, slot.GetSlotIndex()};
                handleInfo.m_InputMemDescriptorCoords.m_InputSlotCoords.emplace_back(connectionLocation);
            }
        }
 
        // Input/Output layers/workloads will not be executed, so the descriptor is not added to workingMemDescriptors
        // However we will still need to manage the tensorHandle
        if (!isInputLayer)
        {
            // Simply auto initialise ExecutionData here, so it's added only for the layer that require execution.
            // The memory and data will be allocated/assigned for the void* in WorkingMemHandle::Allocate.
            std::pair<BackendId, ExecutionData> dataPair;
            dataPair.first = layer->GetBackendId();
 
            executionDataVec.push_back(dataPair);
            workingMemDescriptors.push_back(workingMemDescriptor);
 
            layerIndex++;
        }
    }
 
    std::vector<std::pair<std::shared_ptr<TensorMemory>, MemorySource>> tensorMemory;
 
    auto externalMemoryManager = CreateExternalMemoryManger(tensorMemory);
 
    // Sort m_TensorMemory, so it's order matches the outputSlot order
    std::sort(tensorMemory.begin(), tensorMemory.end(),
              [](const std::pair<std::shared_ptr<TensorMemory>, MemorySource>& lhs,
                 const std::pair<std::shared_ptr<TensorMemory>, MemorySource>& rhs)
              {
                  return lhs.first->m_OutputSlotId < rhs.first->m_OutputSlotId;
              });
 
    std::vector<WorkingMemHandle::InputMemDescriptorCoords> inputConnectionsInfo;
    std::vector<WorkingMemHandle::OutputMemDescriptorCoords> outputConnectionsInfo;
 
    for (const auto& handleInfo: outputToHandleInfoMap)
    {
        if (handleInfo.second.m_IsOutputLayerHandle)
        {
            outputConnectionsInfo.emplace_back(handleInfo.second.m_OutputMemDescriptorCoords);
        }
 
        if (handleInfo.second.m_IsInputLayerHandle)
        {
            inputConnectionsInfo.emplace_back(handleInfo.second.m_InputMemDescriptorCoords);
        }
    }
 
    return std::make_unique<WorkingMemHandle>(networkId,
                                              inputConnectionsInfo,
                                              outputConnectionsInfo,
                                              workingMemDescriptors,
                                              std::move(externalMemoryManager),
                                              std::move(tensorMemory),
                                              std::move(managedTensorHandles),
                                              std::move(unmanagedTensorHandles),
                                              executionDataVec,
                                              &m_Backends);
}

References ARMNN_NO_DEPRECATE_WARN_BEGIN, ARMNN_NO_DEPRECATE_WARN_END, ITensorHandleFactory::CreateTensorHandle(), Layer::GetBackendId(), TensorHandleFactoryRegistry::GetFactory(), and ITensorHandleFactory::LegacyFactoryId.

Referenced by RuntimeImpl::CreateWorkingMemHandle().

EnqueueWorkload()

Status EnqueueWorkload	(	const InputTensors &	inputTensors,
		const OutputTensors &	outputTensors,
		std::vector< ImportedInputId >	preImportedInputIds = {},
		std::vector< ImportedOutputId >	preImportedOutputIds = {}
	)

Single thread execution of the loaded network.

Definition at line 872 of file LoadedNetwork.cpp.

{
    const Graph& graph = m_OptimizedNetwork->pOptimizedNetworkImpl->GetGraph();
 
    // Walk graph to determine the order of execution.
    if (graph.GetNumLayers() < 2)
    {
        ARMNN_LOG(warning) << "IRuntime::EnqueueWorkload()::Less than two nodes in graph";
        return Status::Failure;
    }
 
    // Data that must be kept alive for the entire execution of the workload.
    WorkloadData workloadData(inputTensors, outputTensors);
 
    // Input tensors can be provided as parameters or pre imported. Either way the number of
    // tensors should match the number of inputs.
    if (graph.GetNumInputs() != (inputTensors.size() + preImportedInputIds.size()))
    {
        throw InvalidArgumentException("Number of inputs provided does not match network.");
    }
 
    // For each input to the network, call EnqueueInput with the data passed by the user.
    {
        ARMNN_SCOPED_PROFILING_EVENT(Compute::Undefined, "PrepareInputs");
        m_InputQueue.clear();
        m_InputQueue.reserve(graph.GetNumInputs());
 
        unsigned int inputIndex = 0;
        unsigned int importedInputIdIndex = 0;
        std::sort(preImportedInputIds.begin(), preImportedInputIds.end());
        for (const BindableLayer* inputLayer : graph.GetInputLayers())
        {
            if (importedInputIdIndex < preImportedInputIds.size() &&
                inputIndex == preImportedInputIds[importedInputIdIndex])
            {
                // Only replace tensorhandles if they have not already been replaced
                if (!m_IsInputImported[inputIndex])
                {
                    auto outputTensorHandle = m_PreImportedInputHandles[inputIndex].m_TensorHandle.get();
 
                    for (const auto& workloadInfo: m_InputWorkloadSlotPairs[inputLayer->GetBindingId()])
                    {
                        auto workload = m_WorkloadQueue[workloadInfo.m_WorkloadIndex].get();
                        workload->ReplaceInputTensorHandle(outputTensorHandle, workloadInfo.m_SlotIndex);
                    }
                    m_IsInputImported[inputIndex] = true;
                }
                importedInputIdIndex++;
            }
            else
            {
                if (m_IsInputImported[inputIndex])
                {
                    OutputHandler& handler = const_cast<OutputHandler&>(inputLayer->GetOutputHandler(0));
 
                    for (const auto& workloadInfo: m_InputWorkloadSlotPairs[inputLayer->GetBindingId()])
                    {
                        auto workload = m_WorkloadQueue[workloadInfo.m_WorkloadIndex].get();
                        workload->ReplaceInputTensorHandle(handler.GetData(), workloadInfo.m_SlotIndex);
                    }
 
                    m_IsInputImported[inputIndex] = false;
                }
 
                // InputTensorHandle is not imported yet, process to enqueue input
                const TensorPin& pin = workloadData.GetInputTensorPin(inputLayer->GetBindingId());
                EnqueueInput(*inputLayer, pin.GetTensorHandle(), pin.GetTensorInfo());
            }
            inputIndex++;
        }
    }
    // For each output to the network, call EnqueueOutput with the data passed by the user.
    {
        ARMNN_SCOPED_PROFILING_EVENT(Compute::Undefined, "PrepareOutputs");
        m_OutputQueue.clear();
        m_OutputQueue.reserve(graph.GetNumOutputs());
 
        if (preImportedOutputIds.size() > graph.GetNumOutputs())
        {
            throw InvalidArgumentException("Invalid number of preImportedOutputIds");
        }
 
        unsigned int outputIndex = 0;
        unsigned int importedOutputIdIndex = 0;
        std::sort(preImportedOutputIds.begin(), preImportedOutputIds.end());
        for (const BindableLayer* outputLayer : graph.GetOutputLayers())
        {
            if (importedOutputIdIndex < preImportedOutputIds.size() &&
                outputIndex == preImportedOutputIds[importedOutputIdIndex])
            {
                // Only replace tensorhandles if they have not already been replaced
                ITensorHandle* inputTensorHandle = m_PreImportedOutputHandles[outputIndex].m_TensorHandle.get();
 
                if (!m_IsOutputImported[outputIndex])
                {
                    const auto bindingId = outputLayer->GetBindingId();
                    const auto& indices = m_OutputWorkloadSlotPairs[bindingId];
 
                    auto outputWorkload = m_WorkloadQueue[indices.m_OutputSlotIndices.m_WorkloadIndex].get();
 
                    outputWorkload->ReplaceOutputTensorHandle(inputTensorHandle,
                                                              indices.m_OutputSlotIndices.m_SlotIndex);
 
                    for (const auto& workloadInfo: indices.m_InputSlotIndices)
                    {
                        auto inputWorkload = m_WorkloadQueue[workloadInfo.m_WorkloadIndex].get();
                        inputWorkload->ReplaceInputTensorHandle(inputTensorHandle, workloadInfo.m_SlotIndex);
                    }
                    m_IsOutputImported[outputIndex] = true;
                }
 
                if (!inputTensorHandle)
                {
                    throw armnn::NullPointerException("Data should have been allocated.");
                }
 
                MemSyncQueueDescriptor syncDesc;
                syncDesc.m_Inputs.push_back(inputTensorHandle);
                WorkloadInfo info;
                info.m_InputTensorInfos.push_back(outputLayer->GetInputSlot(0).GetTensorInfo());
 
                auto syncWorkload = std::make_unique<SyncMemGenericWorkload>(syncDesc, info);
                if (!syncWorkload)
                {
                    throw armnn::NullPointerException("No sync workload created");
                }
 
                m_OutputQueue.push_back(std::move(syncWorkload));
                importedOutputIdIndex++;
            }
            else
            {
                if (m_IsOutputImported[outputIndex])
                {
                    const auto bindingId = outputLayer->GetBindingId();
                    const auto& indices = m_OutputWorkloadSlotPairs[bindingId];
 
                    auto outputWorkload = m_WorkloadQueue[indices.m_OutputSlotIndices.m_WorkloadIndex].get();
                    const OutputHandler& outputHandler =
                            outputLayer->GetInputSlot(0).GetConnectedOutputSlot()->GetOutputHandler();
 
                    outputWorkload->ReplaceOutputTensorHandle(
                            outputHandler.GetData(), indices.m_OutputSlotIndices.m_SlotIndex);
 
                    for (const auto& workloadInfo: indices.m_InputSlotIndices)
                    {
                        auto inputWorkload = m_WorkloadQueue[workloadInfo.m_WorkloadIndex].get();
                        inputWorkload->ReplaceInputTensorHandle(outputHandler.GetData(), workloadInfo.m_SlotIndex);
                    }
                    m_IsOutputImported[outputIndex] = false;
                }
 
                const TensorPin& pin = workloadData.GetOutputTensorPin(outputLayer->GetBindingId());
                // OutputTensorHandle is not imported yet, process to enqueue Output
                EnqueueOutput(*outputLayer, pin.GetTensorHandle(), pin.GetTensorInfo());
            }
            outputIndex++;
        }
    }
 
    std::unique_ptr<TimelineUtilityMethods> timelineUtils =
                        TimelineUtilityMethods::GetTimelineUtils(*m_ProfilingService);
    ProfilingGuid inferenceGuid = m_ProfilingService->GetNextGuid();
    if (timelineUtils)
    {
        // Add inference timeline trace if profiling is enabled.
        ProfilingGuid networkGuid = m_OptimizedNetwork->GetGuid();
        timelineUtils->CreateTypedEntity(inferenceGuid, LabelsAndEventClasses::INFERENCE_GUID);
        timelineUtils->CreateRelationship(ProfilingRelationshipType::RetentionLink,
                                          networkGuid,
                                          inferenceGuid,
                                          LabelsAndEventClasses::EXECUTION_OF_GUID);
        timelineUtils->RecordEvent(inferenceGuid, LabelsAndEventClasses::ARMNN_PROFILING_SOL_EVENT_CLASS);
    }
 
    bool executionSucceeded = true;
 
    {
        if (m_ProfilingService->IsProfilingEnabled())
        {
            m_ProfilingService->IncrementCounterValue(INFERENCES_RUN);
        }
        ARMNN_SCOPED_PROFILING_EVENT(Compute::Undefined, "Execute");
        ARMNN_SCOPED_HEAP_PROFILING("Executing");
        executionSucceeded = Execute(timelineUtils, inferenceGuid);
    }
 
    if (timelineUtils)
    {
        // Add end of life of the inference timeline if profiling is enabled.
        timelineUtils->RecordEvent(inferenceGuid, LabelsAndEventClasses::ARMNN_PROFILING_EOL_EVENT_CLASS);
        timelineUtils->Commit();
    }
 
    return executionSucceeded ? Status::Success : Status::Failure;
}

References ARMNN_LOG, ARMNN_SCOPED_PROFILING_EVENT, armnn::Failure, OutputHandler::GetData(), Graph::GetInputLayers(), Graph::GetNumInputs(), Graph::GetNumLayers(), Graph::GetNumOutputs(), Graph::GetOutputLayers(), armnn::info, QueueDescriptor::m_Inputs, armnn::Undefined, and armnn::warning.

Referenced by RuntimeImpl::EnqueueWorkload().

Execute()

Status Execute	(	const InputTensors &	inputTensors,
		const OutputTensors &	outputTensors,
		IWorkingMemHandle &	workingMemHandle,
		std::vector< ImportedInputId >	preImportedInputs = {},
		std::vector< ImportedOutputId >	preImportedOutputs = {}
	)

Thread safe execution of the loaded network.

Definition at line 1803 of file LoadedNetwork.cpp.

{
    const Graph& graph = m_OptimizedNetwork->pOptimizedNetworkImpl->GetGraph();
 
    if (inputTensors.size() + preImportedInputs.size() != graph.GetNumInputs())
    {
        if (preImportedInputs.empty())
        {
            throw InvalidArgumentException("LoadedNetwork::Execute: Number of inputs provided does not match network.");
        }
        else
        {
            throw InvalidArgumentException("LoadedNetwork::Execute: "
                                           "Number of inputs + preImportedInputs provided does not match network.");
        }
    }
 
    if (outputTensors.size() + preImportedOutputs.size() != graph.GetNumOutputs())
    {
        if (preImportedOutputs.empty())
        {
            throw InvalidArgumentException("LoadedNetwork::Execute: "
                                           "Number of outputs provided does not match network.");
        }
        else
        {
            throw InvalidArgumentException("LoadedNetwork::Execute: "
                                           "Number of outputs + preImportedOutputs provided does not match network.");
        }
    }
 
    WorkingMemHandle& workingMemHandle = dynamic_cast<WorkingMemHandle&>(iWorkingMemHandle);
    // Collect all the given LayerBindingIds and check them for duplicates and unknowns.
    std::vector<LayerBindingId>& bindingIds = workingMemHandle.GetBindingIdVector();
    unsigned int index = 0;
    for (auto pair : inputTensors)
    {
        bindingIds[index++] = pair.first;
    }
    for (ImportedInputId id : preImportedInputs)
    {
        bindingIds[index++] = ValidateImportedInputID(id);
    }
    for (auto pair : outputTensors)
    {
        bindingIds[index++] = pair.first;
    }
    for (ImportedOutputId id : preImportedOutputs)
    {
        bindingIds[index++] = ValidateImportedOutputID(id);
    }
 
    workingMemHandle.ValidateBindingIds();
 
    auto resetMemHandle = [&]()
    {
        for (ImportedInputId id: preImportedInputs)
        {
            const LayerBindingId layerBindingId = m_PreImportedInputHandles[id].m_LayerBindingId;
 
            auto inputHandle = workingMemHandle.GetInputHandle(layerBindingId);
            auto inputConnections = workingMemHandle.GetInputConnections(layerBindingId);
            for (auto it : inputConnections)
            {
                *it = inputHandle;
            }
        }
 
        for (ImportedOutputId id: preImportedOutputs)
        {
            const LayerBindingId layerBindingId = m_PreImportedOutputHandles[id].m_LayerBindingId;
 
            auto outputHandle = workingMemHandle.GetOutputHandle(layerBindingId);
            auto outputConnections = workingMemHandle.GetOutputConnection(layerBindingId);
 
            for (auto it : outputConnections)
            {
                *it = outputHandle;
            }
        }
    };
 
    std::unique_ptr<TimelineUtilityMethods> timelineUtils =
           TimelineUtilityMethods::GetTimelineUtils(*m_ProfilingService);
    ProfilingGuid inferenceGuid = m_ProfilingService->GetNextGuid();
    if (timelineUtils)
    {
        // Add inference timeline trace if profiling is enabled.
       ProfilingGuid networkGuid = m_OptimizedNetwork->GetGuid();
        timelineUtils->CreateTypedEntity(inferenceGuid,LabelsAndEventClasses::INFERENCE_GUID);
        timelineUtils->CreateRelationship(ProfilingRelationshipType::RetentionLink,
                                          networkGuid,
                                          inferenceGuid,
                                         LabelsAndEventClasses::EXECUTION_OF_GUID);
        timelineUtils->RecordEvent(inferenceGuid,LabelsAndEventClasses::ARMNN_PROFILING_SOL_EVENT_CLASS);
    }
 
    bool executionSucceeded = true;
 
    if (timelineUtils)
    {
        // Add end of life of the inference timeline if profiling is enabled.
        timelineUtils->RecordEvent(inferenceGuid,LabelsAndEventClasses::ARMNN_PROFILING_EOL_EVENT_CLASS);
        timelineUtils->Commit();
    }
 
    if (!workingMemHandle.IsAllocated())
    {
        workingMemHandle.Allocate();
    }
 
    {
        ARMNN_SCOPED_PROFILING_EVENT(Compute::Undefined, "PrepareInputs");
        for (auto pair : inputTensors)
        {
            EnqueueInput(pair.second, workingMemHandle.GetInputHandle(pair.first));
        }
 
        // Swap in the pre-imported inputs if any
        for (ImportedInputId id : preImportedInputs)
        {
            const ImportedTensorHandlePin& importedInputPin = m_PreImportedInputHandles[id];
            const LayerBindingId layerBindingId = m_PreImportedInputHandles[id].m_LayerBindingId;
            const auto& preimportedHandle = importedInputPin.m_TensorHandle;
 
            auto inputConnections = workingMemHandle.GetInputConnections(layerBindingId);
            for (auto it : inputConnections)
            {
                *it = preimportedHandle.get();
            }
        }
    }
    {
        ARMNN_SCOPED_PROFILING_EVENT(Compute::Undefined, "PrepareOutputs");
        if (m_NetworkProperties.m_OutputSource != MemorySource::Undefined)
        {
            for (auto pair: outputTensors)
            {
                ImportOutputTensor(pair.second, workingMemHandle.GetOutputHandle(pair.first));
            }
        }
 
        for (ImportedOutputId id : preImportedOutputs)
        {
            const ImportedTensorHandlePin& importedOutputPin = m_PreImportedOutputHandles[id];
            const LayerBindingId layerBindingId = m_PreImportedOutputHandles[id].m_LayerBindingId;
            const auto& preimportedHandle = importedOutputPin.m_TensorHandle;
 
            auto outputConnections = workingMemHandle.GetOutputConnection(layerBindingId);
            for (auto it : outputConnections)
            {
                *it = preimportedHandle.get();
            }
        }
    }
 
    auto Fail = [&](const std::exception& error)
    {
        ARMNN_LOG(error) << "An error occurred attempting to execute a workload: " << error.what();
        executionSucceeded = false;
    };
    ProfilingDynamicGuid workloadInferenceID(0);
 
    try
    {
        for (unsigned int i = 0; i < m_WorkloadQueue.size(); ++i)
        {
            auto& workload = m_WorkloadQueue[i];
            if (timelineUtils)
            {
                workloadInferenceID = timelineUtils->RecordWorkloadInferenceAndStartOfLifeEvent(workload->GetGuid(),
                                                                                                inferenceGuid);
            }
 
            workload->ExecuteAsync(workingMemHandle.GetExecutionDataAt(i).second);
 
            if (timelineUtils)
            {
                timelineUtils->RecordEndOfLifeEvent(workloadInferenceID);
            }
        }
    }
    catch (const RuntimeException& error)
    {
        resetMemHandle();
        Fail(error);
    }
    catch (const std::runtime_error& error)
    {
        resetMemHandle();
        Fail(error);
    }
    catch (...)
    {
        resetMemHandle();
        throw;
    }
 
    if (m_NetworkProperties.m_OutputSource == MemorySource::Undefined)
    {
        for (auto pair: outputTensors)
        {
            CopyToOutputTensor(pair.second, workingMemHandle.GetOutputHandle(pair.first));
        }
    }
    else
    {
       ARMNN_SCOPED_PROFILING_EVENT(Compute::Undefined, "SyncMemGeneric_Execute");
       workingMemHandle.MemSyncOutputs();
    }
 
    resetMemHandle();
 
    return executionSucceeded ? Status::Success : Status::Failure;
}

References WorkingMemHandle::Allocate(), ARMNN_LOG, ARMNN_SCOPED_PROFILING_EVENT, armnn::CopyToOutputTensor(), armnn::error, armnn::Failure, WorkingMemHandle::GetBindingIdVector(), WorkingMemHandle::GetExecutionDataAt(), WorkingMemHandle::GetInputConnections(), WorkingMemHandle::GetInputHandle(), Graph::GetNumInputs(), Graph::GetNumOutputs(), WorkingMemHandle::GetOutputConnection(), WorkingMemHandle::GetOutputHandle(), WorkingMemHandle::IsAllocated(), INetworkProperties::m_OutputSource, WorkingMemHandle::MemSyncOutputs(), armnn::Success, armnn::Undefined, and WorkingMemHandle::ValidateBindingIds().

Referenced by RuntimeImpl::Execute().

FreeWorkingMemory()

void FreeWorkingMemory

(

)

Definition at line 1286 of file LoadedNetwork.cpp.

{
#if !defined(ARMNN_DISABLE_THREADS)
    std::lock_guard<std::mutex> lockGuard(m_WorkingMemMutex);
#endif
 
    if (!m_IsWorkingMemAllocated)
    {
        return;
    }
 
    if (m_ExternalMemoryManager)
    {
        m_ExternalMemoryManager->Deallocate();
    }
 
    // Informs the memory managers to release memory in its respective memory group
    for (auto&& memoryManager : m_BackendMemoryMangers)
    {
        if (memoryManager)
        {
            memoryManager->Release();
        }
    }
    m_TensorHandleFactoryRegistry.ReleaseMemory();
    m_IsWorkingMemAllocated = false;
}

References TensorHandleFactoryRegistry::ReleaseMemory().

Referenced by RuntimeImpl::CreateWorkingMemHandle(), RuntimeImpl::EnqueueWorkload(), and LoadedNetwork::~LoadedNetwork().

GetInputTensorInfo()

TensorInfo GetInputTensorInfo

(

LayerBindingId

layerId

)

const

Definition at line 715 of file LoadedNetwork.cpp.

{
    for (auto&& inputLayer : m_OptimizedNetwork->pOptimizedNetworkImpl->GetGraph().GetInputLayers())
    {
        if (inputLayer->GetNumOutputSlots() != 1)
        {
            throw armnn::GraphValidationException("Input layer should have exactly 1 output slot");
        }
 
        if (inputLayer->GetBindingId() == layerId)
        {
            return inputLayer->GetOutputSlot(0).GetTensorInfo();
        }
    }
 
    throw InvalidArgumentException(fmt::format("No input layer is associated with id {}", layerId));
}

Referenced by RuntimeImpl::GetInputTensorInfo().

GetNetworkGuid()

ProfilingGuid GetNetworkGuid

(

)

Definition at line 710 of file LoadedNetwork.cpp.

{
    return m_OptimizedNetwork->GetGuid();
}

GetOutputTensorInfo()

TensorInfo GetOutputTensorInfo

(

LayerBindingId

layerId

)

const

Definition at line 733 of file LoadedNetwork.cpp.

{
    for (auto&& outputLayer : m_OptimizedNetwork->pOptimizedNetworkImpl->GetGraph().GetOutputLayers())
    {
        if (outputLayer->GetNumInputSlots() != 1)
        {
            throw armnn::GraphValidationException("Output layer should have exactly 1 input slot");
        }
 
        if (!outputLayer->GetInputSlot(0).GetConnection())
        {
            throw armnn::GraphValidationException("Input slot on Output layer must be connected");
        }
 
        if (outputLayer->GetBindingId() == layerId)
        {
            return outputLayer->GetInputSlot(0).GetTensorInfo();
        }
    }
 
    throw InvalidArgumentException(fmt::format("No output layer is associated with id {}", layerId));
}

Referenced by RuntimeImpl::GetOutputTensorInfo().

GetProfiler()

const std::shared_ptr<IProfiler>& GetProfiler ( ) const

inline

Definition at line 87 of file LoadedNetwork.hpp.

{ return m_OptimizedNetwork->GetProfiler(); }

Referenced by RuntimeImpl::CreateWorkingMemHandle(), RuntimeImpl::EnqueueWorkload(), and RuntimeImpl::Execute().

ImportInputs()

std::vector< ImportedInputId > ImportInputs	(	const InputTensors &	inputTensors,
		MemorySource	forceImportMemorySource = MemorySource::Undefined
	)

Definition at line 1486 of file LoadedNetwork.cpp.

{
    if (!m_NetworkProperties.m_AsyncEnabled)
    {
        // Cannot import if import is not enabled and forceImportMemorySource is undefined
        if (forceImportMemorySource == MemorySource::Undefined)
        {
            throw MemoryImportException("ImportInputs: Memory Import failed, NetworkProperties.m_ImportEnabled");
        }
        // The number of pre imported tensors should not exceed the number of inputs.
        if (inputTensors.size() > m_OptimizedNetwork->pOptimizedNetworkImpl->GetGraph().GetNumInputs())
        {
            throw MemoryImportException("ImportInputs: The number of tensors provided exceeds the number of inputs.");
        }
 
        std::vector<ImportedInputId> importedInputs;
        Graph& graph = m_OptimizedNetwork->pOptimizedNetworkImpl->GetGraph().TopologicalSort();
        unsigned int inputIndex = 0;
        for (const BindableLayer* inputLayer : graph.GetInputLayers())
        {
            auto outputTensorHandle = m_PreImportedInputHandles[inputIndex].m_TensorHandle.get();
 
            if (!outputTensorHandle)
            {
                inputIndex++;
                continue;
            }
 
            auto layerBindingId = inputLayer->GetBindingId();
            auto it = std::find_if(inputTensors.begin(), inputTensors.end(), [=](const auto& inputTensor)
            {
                return inputTensor.first == layerBindingId;
            });
 
            if (it == inputTensors.end())
            {
                inputIndex++;
                continue;
            }
 
            const auto& inputTensor = *it;
            std::unique_ptr<ITensorHandle> passThroughTensorHandle =
                    std::make_unique<ConstPassthroughTensorHandle>(inputTensor.second.GetInfo(),
                                                                   inputTensor.second.GetMemoryArea());
 
            try
            {
                if (outputTensorHandle->CanBeImported(passThroughTensorHandle->Map(), forceImportMemorySource)
                    && (outputTensorHandle->Import(passThroughTensorHandle->Map(), forceImportMemorySource)))
                {
                    importedInputs.push_back(inputIndex);
                }
                passThroughTensorHandle->Unmap();
            }
            catch(const MemoryImportException& exception)
            {
                ARMNN_LOG(error) << "An error occurred attempting to import input_"
                                           << inputIndex << " : " << exception.what();
                passThroughTensorHandle->Unmap();
            }
            inputIndex++;
        }
 
        return importedInputs;
    }
    else
    {
        // Import when the import of network properties is enabled
        std::vector<ImportedInputId> importedInputs;
        Graph& graph = m_OptimizedNetwork->pOptimizedNetworkImpl->GetGraph().TopologicalSort();
 
        for (auto inputTensor : inputTensors)
        {
            auto layerBindingId = inputTensor.first;
            auto it = std::find_if(graph.GetInputLayers().begin(), graph.GetInputLayers().end(), [=](auto* layer)
            {
                return layer->GetBindingId() == layerBindingId;
            });
 
            if (it == graph.GetInputLayers().end())
            {
                throw MemoryImportException(fmt::format(
                    "ImportInputs: Memory Import failed, unknown LayerBindingId: {}", layerBindingId));
            }
 
            const Layer* layer = *it;
            if (layer->GetType() != LayerType::Input)
            {
                throw InvalidArgumentException("ImportInputs: given layer not an InputLayer");
            }
 
            auto& backend = m_Backends.at(layer->GetBackendId());
            if (!HasMatchingCapability(BackendOptions::BackendOption{"PreImportIOTensors", true},
                                                                     backend->GetCapabilities()))
            {
                std::string er = backend->GetId();
                er += " does not have PreImportIOTensors capability";
                throw BackendCapabilityException(er);
            }
 
            const OutputSlot& outputSlot = layer->GetOutputSlots()[0];
 
            ITensorHandleFactory::FactoryId factoryId = outputSlot.GetTensorHandleFactoryId();
            const TensorInfo& tensorInfo = outputSlot.GetTensorInfo();
 
            ITensorHandleFactory* handleFactory = m_TensorHandleFactoryRegistry.GetFactory(factoryId);
            if (!handleFactory)
            {
                throw armnn::NullPointerException("handleFactory must not be null.");
            }
 
            ImportedTensorHandlePin importedTensorHandlePin{layerBindingId,
                                                            handleFactory->CreateTensorHandle(tensorInfo, false)};
 
            ITensorHandle* tensorHandle = importedTensorHandlePin.m_TensorHandle.get();
 
            if (!CheckFlag(tensorHandle->GetImportFlags(), forceImportMemorySource))
            {
                throw MemoryImportException(
                    fmt::format("ImportInputs: Memory Import failed, backend: "
                                "{} does not support importing from source {}"
                                , factoryId, m_NetworkProperties.m_InputSource));
            }
 
            std::unique_ptr<ITensorHandle> passThroughTensorHandle =
                    std::make_unique<ConstPassthroughTensorHandle>(inputTensor.second.GetInfo(),
                                                                   inputTensor.second.GetMemoryArea());
 
            if (tensorHandle->Import(passThroughTensorHandle->Map(), forceImportMemorySource))
            {
                importedInputs.push_back(m_CurImportedInputId++);
                passThroughTensorHandle->Unmap();
            }
            else
            {
                passThroughTensorHandle->Unmap();
                throw MemoryImportException("ImportInputs: Memory Import failed");
            }
 
            m_PreImportedInputHandles.push_back(std::move(importedTensorHandlePin));
        }
        return importedInputs;
    }
}

References ARMNN_LOG, Graph::InputLayersAccessor::begin(), armnn::CheckFlag(), ITensorHandleFactory::CreateTensorHandle(), Graph::InputLayersAccessor::end(), armnn::error, Layer::GetBackendId(), TensorHandleFactoryRegistry::GetFactory(), ITensorHandle::GetImportFlags(), Graph::GetInputLayers(), Layer::GetOutputSlots(), OutputSlot::GetTensorHandleFactoryId(), OutputSlot::GetTensorInfo(), Layer::GetType(), armnn::HasMatchingCapability(), ITensorHandle::Import(), armnn::Input, INetworkProperties::m_AsyncEnabled, INetworkProperties::m_InputSource, armnn::Undefined, and Exception::what().

Referenced by RuntimeImpl::ImportInputs().

ImportOutputs()

std::vector< ImportedOutputId > ImportOutputs	(	const OutputTensors &	outputTensors,
		MemorySource	forceImportMemorySource = MemorySource::Undefined
	)

Definition at line 1632 of file LoadedNetwork.cpp.

{
    if (!m_NetworkProperties.m_AsyncEnabled)
    {
        // Cannot import if import is not enabled and forceImportMemorySource is undefined
        if (forceImportMemorySource == MemorySource::Undefined)
        {
            throw MemoryImportException("ImportOutputs: Memory Import failed, NetworkProperties.m_ImportEnabled");
        }
        // If forceImportMemorySource is defined, try import if memory is aligned
        if (outputTensors.size() != m_OptimizedNetwork->pOptimizedNetworkImpl->GetGraph().GetNumOutputs())
        {
            throw MemoryImportException("ImportOutputs: Force Import failed, incorrect number of tensors");
        }
        std::vector<ImportedOutputId> importedOutputs;
        Graph& graph = m_OptimizedNetwork->pOptimizedNetworkImpl->GetGraph().TopologicalSort();
 
        unsigned int outputIndex = 0;
        for (const BindableLayer* const outputLayer : graph.GetOutputLayers())
        {
            auto inputTensorHandle = m_PreImportedOutputHandles[outputIndex].m_TensorHandle.get();
            if (!inputTensorHandle)
            {
                outputIndex++;
                continue;
            }
 
            auto layerBindingId = outputLayer->GetBindingId();
            auto it = std::find_if(outputTensors.begin(), outputTensors.end(), [=] (const auto& outputTensor)
            {
                return outputTensor.first == layerBindingId;
            });
 
            if (it == outputTensors.end())
            {
                outputIndex++;
                continue;
            }
 
            const auto outputTensor = *it;
            try
            {
                // Check if the output memory can be imported
                if (inputTensorHandle->CanBeImported(outputTensor.second.GetMemoryArea(), forceImportMemorySource)
                    && inputTensorHandle->Import(outputTensor.second.GetMemoryArea(), forceImportMemorySource))
                {
                    importedOutputs.push_back(outputIndex);
                }
            }
            catch(const MemoryImportException& exception)
            {
                ARMNN_LOG(error) << "An error occurred attempting to import output_"
                                 << outputIndex << " : " << exception.what();
            }
            outputIndex++;
        }
        return importedOutputs;
    }
 
    std::vector<ImportedOutputId> importedOutputs;
    Graph& graph = m_OptimizedNetwork->pOptimizedNetworkImpl->GetGraph().TopologicalSort();
 
    for (const auto& outputTensor : outputTensors)
    {
        auto layerBindingId = outputTensor.first;
        auto it = std::find_if(graph.GetOutputLayers().begin(), graph.GetOutputLayers().end(), [=](auto* layer)
        {
            return layer->GetBindingId() == layerBindingId;
        });
 
        if (it == graph.GetOutputLayers().end())
        {
            throw MemoryImportException(fmt::format("ImportOutputs: Memory Import failed, unknown LayerBindingId: {}",
                                                     layerBindingId));
        }
 
        const Layer* layer = *it;
        if (layer->GetType() != LayerType::Output)
        {
            throw InvalidArgumentException("ImportOutputs: given layer not an OutputLayer");
        }
 
        auto& backend = m_Backends.at(layer->GetBackendId());
        if (!HasMatchingCapability(BackendOptions::BackendOption{"PreImportIOTensors", true},
                                                                 backend->GetCapabilities()))
        {
            std::string er = backend->GetId();
            er += " does not have PreImportIOTensors capability";
            throw BackendCapabilityException(er);
        }
 
        const InputSlot& inputSlot = layer->GetInputSlots()[0];
        ITensorHandleFactory::FactoryId factoryId = inputSlot.GetConnectedOutputSlot()->GetTensorHandleFactoryId();
        const TensorInfo& tensorInfo = inputSlot.GetTensorInfo();
 
        ITensorHandleFactory* handleFactory = m_TensorHandleFactoryRegistry.GetFactory(factoryId);
        if (!handleFactory)
        {
            throw armnn::NullPointerException("handleFactory must not be null.");
        }
 
        ImportedTensorHandlePin importedTensorHandlePin{layerBindingId,
                                                        handleFactory->CreateTensorHandle(tensorInfo, false)};
 
        ITensorHandle* tensorHandle = importedTensorHandlePin.m_TensorHandle.get();
 
        if (!CheckFlag(tensorHandle->GetImportFlags(), forceImportMemorySource))
        {
            throw MemoryImportException(fmt::format("ImportInputs: Memory Import failed, backend: "
                                                    "{} does not support importing from source {}"
                                                    , factoryId, forceImportMemorySource));
        }
 
        if (tensorHandle->Import(outputTensor.second.GetMemoryArea(), forceImportMemorySource))
        {
            importedOutputs.push_back(m_CurImportedOutputId++);
        }
        else
        {
            throw MemoryImportException("ImportInputs: Memory Import failed");
        }
 
        m_PreImportedOutputHandles.push_back(std::move(importedTensorHandlePin));
    }
 
    return importedOutputs;
}

References ARMNN_LOG, Graph::OutputLayersAccessor::begin(), armnn::CheckFlag(), ITensorHandleFactory::CreateTensorHandle(), Graph::OutputLayersAccessor::end(), armnn::error, Layer::GetBackendId(), InputSlot::GetConnectedOutputSlot(), TensorHandleFactoryRegistry::GetFactory(), ITensorHandle::GetImportFlags(), Layer::GetInputSlots(), Graph::GetOutputLayers(), OutputSlot::GetTensorHandleFactoryId(), InputSlot::GetTensorInfo(), Layer::GetType(), armnn::HasMatchingCapability(), ITensorHandle::Import(), INetworkProperties::m_AsyncEnabled, armnn::Output, armnn::Undefined, and Exception::what().

Referenced by RuntimeImpl::ImportOutputs().

IsAsyncEnabled()

bool IsAsyncEnabled ( )

inline

Definition at line 95 of file LoadedNetwork.hpp.

    {
        return m_NetworkProperties.m_AsyncEnabled;
    }

References INetworkProperties::m_AsyncEnabled.

Referenced by RuntimeImpl::CreateWorkingMemHandle(), RuntimeImpl::EnqueueWorkload(), and RuntimeImpl::Execute().

MakeLoadedNetwork()

std::unique_ptr< LoadedNetwork > MakeLoadedNetwork ( std::unique_ptr< IOptimizedNetwork >  net, std::string &  errorMessage, const INetworkProperties &  networkProperties, arm::pipe::IProfilingService *  profilingService  )

static

Definition at line 173 of file LoadedNetwork.cpp.

{
    std::unique_ptr<LoadedNetwork> loadedNetwork;
 
    auto Fail = [&](const std::exception& error) -> std::unique_ptr<LoadedNetwork>
    {
        errorMessage = ToErrorMessage("An error occurred when preparing the network workloads: ", error);
        ARMNN_LOG(error) << errorMessage;
 
        return std::unique_ptr<LoadedNetwork>();
    };
 
    try
    {
        loadedNetwork.reset(new LoadedNetwork(std::move(net), networkProperties, profilingService));
    }
    catch (const armnn::RuntimeException& error)
    {
        return Fail(error);
    }
    catch (const armnn::Exception& error)
    {
        return Fail(error);
    }
    catch (const std::runtime_error& error)
    {
        return Fail(error);
    }
 
    return loadedNetwork;
}

References ARMNN_LOG, and armnn::error.

Referenced by RuntimeImpl::LoadNetwork().

RegisterDebugCallback()

void RegisterDebugCallback

(

const DebugCallbackFunction &

func

)

Definition at line 2296 of file LoadedNetwork.cpp.

{
    for (auto&& workloadPtr: m_WorkloadQueue)
    {
        workloadPtr.get()->RegisterDebugCallback(func);
    }
}

Referenced by RuntimeImpl::RegisterDebugCallback().

SendNetworkStructure()

void SendNetworkStructure

(

arm::pipe::IProfilingService &

profilingService

)

Definition at line 672 of file LoadedNetwork.cpp.

{
    ARMNN_SCOPED_PROFILING_EVENT(Compute::Undefined, "LoadNetwork_SendNetworkStructure");
    Graph& order = m_OptimizedNetwork->pOptimizedNetworkImpl->GetGraph().TopologicalSort();
    ProfilingGuid networkGuid = m_OptimizedNetwork->GetGuid();
 
    std::unique_ptr<TimelineUtilityMethods> timelineUtils =
        TimelineUtilityMethods::GetTimelineUtils(profilingService);
 
    timelineUtils->CreateTypedEntity(networkGuid, LabelsAndEventClasses::NETWORK_GUID);
 
    for (auto&& layer : order)
    {
        // Add layer to the post-optimisation network structure
        AddLayerStructure(timelineUtils, *layer, networkGuid);
        switch (layer->GetType())
        {
            case LayerType::Input:
            case LayerType::Output:
            {
                // Inputs and outputs are treated in a special way - see EnqueueInput() and EnqueueOutput().
                break;
            }
            default:
            {
                for (auto& workload : m_WorkloadQueue)
                {
                    // Add workload to the post-optimisation network structure
                    AddWorkloadStructure(timelineUtils, workload, *layer);
                }
            break;
            }
        }
    }
    // Commit to send the post-optimisation network structure
    timelineUtils->Commit();
}

References ARMNN_SCOPED_PROFILING_EVENT, armnn::Input, armnn::Output, and armnn::Undefined.

---

The documentation for this class was generated from the following files:

• src/armnn/LoadedNetwork.hpp
• src/armnn/LoadedNetwork.cpp