compute-runtime/runtime/command_queue/hardware_interface.inl

224 lines
11 KiB
C++

/*
* Copyright (C) 2018-2019 Intel Corporation
*
* SPDX-License-Identifier: MIT
*
*/
#pragma once
#include "runtime/command_queue/hardware_interface.h"
#include "runtime/helpers/kernel_commands.h"
#include "runtime/helpers/task_information.h"
namespace OCLRT {
template <typename GfxFamily>
inline WALKER_TYPE<GfxFamily> *HardwareInterface<GfxFamily>::allocateWalkerSpace(LinearStream &commandStream,
const Kernel &kernel) {
auto walkerCmd = static_cast<WALKER_TYPE<GfxFamily> *>(commandStream.getSpace(sizeof(WALKER_TYPE<GfxFamily>)));
*walkerCmd = GfxFamily::cmdInitGpgpuWalker;
return walkerCmd;
}
template <typename GfxFamily>
void HardwareInterface<GfxFamily>::dispatchWalker(
CommandQueue &commandQueue,
const MultiDispatchInfo &multiDispatchInfo,
cl_uint numEventsInWaitList,
const cl_event *eventWaitList,
KernelOperation **blockedCommandsData,
TagNode<HwTimeStamps> *hwTimeStamps,
HwPerfCounter *hwPerfCounter,
TimestampPacketContainer *previousTimestampPacketNodes,
TimestampPacketContainer *currentTimestampPacketNodes,
PreemptionMode preemptionMode,
bool blockQueue,
uint32_t commandType) {
LinearStream *commandStream = nullptr;
IndirectHeap *dsh = nullptr, *ioh = nullptr, *ssh = nullptr;
auto parentKernel = multiDispatchInfo.peekParentKernel();
auto mainKernel = multiDispatchInfo.peekMainKernel();
for (auto &dispatchInfo : multiDispatchInfo) {
// Compute local workgroup sizes
if (dispatchInfo.getLocalWorkgroupSize().x == 0) {
const auto lws = generateWorkgroupSize(dispatchInfo);
const_cast<DispatchInfo &>(dispatchInfo).setLWS(lws);
}
}
// Allocate command stream and indirect heaps
if (blockQueue) {
using KCH = KernelCommandsHelper<GfxFamily>;
commandStream = new LinearStream(alignedMalloc(MemoryConstants::pageSize, MemoryConstants::pageSize),
MemoryConstants::pageSize);
if (parentKernel) {
uint32_t colorCalcSize = commandQueue.getContext().getDefaultDeviceQueue()->colorCalcStateSize;
commandQueue.allocateHeapMemory(
IndirectHeap::DYNAMIC_STATE,
commandQueue.getContext().getDefaultDeviceQueue()->getDshBuffer()->getUnderlyingBufferSize(),
dsh);
dsh->getSpace(colorCalcSize);
ioh = dsh;
commandQueue.allocateHeapMemory(IndirectHeap::SURFACE_STATE,
KernelCommandsHelper<GfxFamily>::template getSizeRequiredForExecutionModel<
IndirectHeap::SURFACE_STATE>(*parentKernel) +
KCH::getTotalSizeRequiredSSH(multiDispatchInfo),
ssh);
} else {
commandQueue.allocateHeapMemory(IndirectHeap::DYNAMIC_STATE, KCH::getTotalSizeRequiredDSH(multiDispatchInfo), dsh);
commandQueue.allocateHeapMemory(IndirectHeap::INDIRECT_OBJECT, KCH::getTotalSizeRequiredIOH(multiDispatchInfo), ioh);
commandQueue.allocateHeapMemory(IndirectHeap::SURFACE_STATE, KCH::getTotalSizeRequiredSSH(multiDispatchInfo), ssh);
}
using UniqueIH = std::unique_ptr<IndirectHeap>;
*blockedCommandsData = new KernelOperation(std::unique_ptr<LinearStream>(commandStream), UniqueIH(dsh), UniqueIH(ioh),
UniqueIH(ssh), *commandQueue.getCommandStreamReceiver().getInternalAllocationStorage());
if (parentKernel) {
(*blockedCommandsData)->doNotFreeISH = true;
}
} else {
commandStream = &commandQueue.getCS(0);
if (parentKernel && (commandQueue.getIndirectHeap(IndirectHeap::SURFACE_STATE, 0).getUsed() > 0)) {
commandQueue.releaseIndirectHeap(IndirectHeap::SURFACE_STATE);
}
dsh = &getIndirectHeap<GfxFamily, IndirectHeap::DYNAMIC_STATE>(commandQueue, multiDispatchInfo);
ioh = &getIndirectHeap<GfxFamily, IndirectHeap::INDIRECT_OBJECT>(commandQueue, multiDispatchInfo);
ssh = &getIndirectHeap<GfxFamily, IndirectHeap::SURFACE_STATE>(commandQueue, multiDispatchInfo);
}
if (commandQueue.getCommandStreamReceiver().peekTimestampPacketWriteEnabled()) {
GpgpuWalkerHelper<GfxFamily>::dispatchOnDeviceWaitlistSemaphores(commandStream, commandQueue.getDevice(),
numEventsInWaitList, eventWaitList);
if (previousTimestampPacketNodes) {
for (auto &node : previousTimestampPacketNodes->peekNodes()) {
TimestampPacketHelper::programSemaphoreWithImplicitDependency<GfxFamily>(*commandStream, *node->tag);
}
}
}
dsh->align(KernelCommandsHelper<GfxFamily>::alignInterfaceDescriptorData);
uint32_t interfaceDescriptorIndex = 0;
const size_t offsetInterfaceDescriptorTable = dsh->getUsed();
size_t totalInterfaceDescriptorTableSize = sizeof(INTERFACE_DESCRIPTOR_DATA);
getDefaultDshSpace(offsetInterfaceDescriptorTable, commandQueue, multiDispatchInfo, totalInterfaceDescriptorTableSize,
parentKernel, dsh, commandStream);
// Program media interface descriptor load
KernelCommandsHelper<GfxFamily>::sendMediaInterfaceDescriptorLoad(
*commandStream,
offsetInterfaceDescriptorTable,
totalInterfaceDescriptorTableSize);
DEBUG_BREAK_IF(offsetInterfaceDescriptorTable % 64 != 0);
if (mainKernel->isAuxTranslationRequired()) {
using PIPE_CONTROL = typename GfxFamily::PIPE_CONTROL;
auto pPipeControlCmd = static_cast<PIPE_CONTROL *>(commandStream->getSpace(sizeof(PIPE_CONTROL)));
*pPipeControlCmd = GfxFamily::cmdInitPipeControl;
pPipeControlCmd->setCommandStreamerStallEnable(true);
}
size_t currentDispatchIndex = 0;
for (auto &dispatchInfo : multiDispatchInfo) {
auto &kernel = *dispatchInfo.getKernel();
DEBUG_BREAK_IF(!(dispatchInfo.getDim() >= 1 && dispatchInfo.getDim() <= 3));
DEBUG_BREAK_IF(!(dispatchInfo.getGWS().z == 1 || dispatchInfo.getDim() == 3));
DEBUG_BREAK_IF(!(dispatchInfo.getGWS().y == 1 || dispatchInfo.getDim() >= 2));
DEBUG_BREAK_IF(!(dispatchInfo.getOffset().z == 0 || dispatchInfo.getDim() == 3));
DEBUG_BREAK_IF(!(dispatchInfo.getOffset().y == 0 || dispatchInfo.getDim() >= 2));
// If we don't have a required WGS, compute one opportunistically
auto maxWorkGroupSize = static_cast<uint32_t>(commandQueue.getDevice().getDeviceInfo().maxWorkGroupSize);
if (commandType == CL_COMMAND_NDRANGE_KERNEL) {
provideLocalWorkGroupSizeHints(commandQueue.getContextPtr(), maxWorkGroupSize, dispatchInfo);
}
//Get dispatch geometry
uint32_t dim = dispatchInfo.getDim();
Vec3<size_t> gws = dispatchInfo.getGWS();
Vec3<size_t> offset = dispatchInfo.getOffset();
Vec3<size_t> startOfWorkgroups = dispatchInfo.getStartOfWorkgroups();
// Compute local workgroup sizes
Vec3<size_t> lws = dispatchInfo.getLocalWorkgroupSize();
Vec3<size_t> elws = (dispatchInfo.getEnqueuedWorkgroupSize().x > 0) ? dispatchInfo.getEnqueuedWorkgroupSize() : lws;
// Compute number of work groups
Vec3<size_t> totalNumberOfWorkgroups = (dispatchInfo.getTotalNumberOfWorkgroups().x > 0) ? dispatchInfo.getTotalNumberOfWorkgroups()
: generateWorkgroupsNumber(gws, lws);
Vec3<size_t> numberOfWorkgroups = (dispatchInfo.getNumberOfWorkgroups().x > 0) ? dispatchInfo.getNumberOfWorkgroups() : totalNumberOfWorkgroups;
size_t globalWorkSizes[3] = {gws.x, gws.y, gws.z};
// Patch our kernel constants
*kernel.globalWorkOffsetX = static_cast<uint32_t>(offset.x);
*kernel.globalWorkOffsetY = static_cast<uint32_t>(offset.y);
*kernel.globalWorkOffsetZ = static_cast<uint32_t>(offset.z);
*kernel.globalWorkSizeX = static_cast<uint32_t>(gws.x);
*kernel.globalWorkSizeY = static_cast<uint32_t>(gws.y);
*kernel.globalWorkSizeZ = static_cast<uint32_t>(gws.z);
if ((&kernel == mainKernel) || (kernel.localWorkSizeX2 == &Kernel::dummyPatchLocation)) {
*kernel.localWorkSizeX = static_cast<uint32_t>(lws.x);
*kernel.localWorkSizeY = static_cast<uint32_t>(lws.y);
*kernel.localWorkSizeZ = static_cast<uint32_t>(lws.z);
}
*kernel.localWorkSizeX2 = static_cast<uint32_t>(lws.x);
*kernel.localWorkSizeY2 = static_cast<uint32_t>(lws.y);
*kernel.localWorkSizeZ2 = static_cast<uint32_t>(lws.z);
*kernel.enqueuedLocalWorkSizeX = static_cast<uint32_t>(elws.x);
*kernel.enqueuedLocalWorkSizeY = static_cast<uint32_t>(elws.y);
*kernel.enqueuedLocalWorkSizeZ = static_cast<uint32_t>(elws.z);
if (&kernel == mainKernel) {
*kernel.numWorkGroupsX = static_cast<uint32_t>(totalNumberOfWorkgroups.x);
*kernel.numWorkGroupsY = static_cast<uint32_t>(totalNumberOfWorkgroups.y);
*kernel.numWorkGroupsZ = static_cast<uint32_t>(totalNumberOfWorkgroups.z);
}
*kernel.workDim = dim;
// Send our indirect object data
size_t localWorkSizes[3] = {lws.x, lws.y, lws.z};
dispatchProfilingPerfStartCommands(dispatchInfo, multiDispatchInfo, hwTimeStamps,
hwPerfCounter, commandStream, commandQueue);
dispatchWorkarounds(commandStream, commandQueue, kernel, true);
if (currentTimestampPacketNodes && commandQueue.getCommandStreamReceiver().peekTimestampPacketWriteEnabled()) {
auto timestampPacket = currentTimestampPacketNodes->peekNodes().at(currentDispatchIndex)->tag;
GpgpuWalkerHelper<GfxFamily>::setupTimestampPacket(commandStream, nullptr, timestampPacket, TimestampPacket::WriteOperationType::BeforeWalker);
}
programWalker(*commandStream, kernel, commandQueue, currentTimestampPacketNodes, *dsh, *ioh, *ssh, globalWorkSizes,
localWorkSizes, preemptionMode, currentDispatchIndex, interfaceDescriptorIndex, dispatchInfo,
offsetInterfaceDescriptorTable, numberOfWorkgroups, startOfWorkgroups);
dispatchWorkarounds(commandStream, commandQueue, kernel, false);
if (dispatchInfo.isPipeControlRequired()) {
using PIPE_CONTROL = typename GfxFamily::PIPE_CONTROL;
auto pPipeControlCmd = static_cast<PIPE_CONTROL *>(commandStream->getSpace(sizeof(PIPE_CONTROL)));
*pPipeControlCmd = GfxFamily::cmdInitPipeControl;
pPipeControlCmd->setCommandStreamerStallEnable(true);
}
KernelCommandsHelper<GfxFamily>::programCacheFlushAfterWalkerCommand(commandStream, &kernel);
currentDispatchIndex++;
}
dispatchProfilingPerfEndCommands(hwTimeStamps, hwPerfCounter, commandStream, commandQueue);
}
} // namespace OCLRT