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TheRock/rocm-libraries/projects/hipblaslt/tensilelite/include/Tensile/Serialization/ContractionSolution.hpp
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Flatten subprojects into a single base monorepo
2026-09-02 16:34:47 -07:00

265 lines
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C++

/*******************************************************************************
*
* MIT License
*
* Copyright (C) 2022-2026 Advanced Micro Devices, Inc. All rights reserved.
*
* Permission is hereby granted, free of charge, to any person obtaining a copy
* of this software and associated documentation files (the "Software"), to deal
* in the Software without restriction, including without limitation the rights
* to use, copy, modify, merge, publish, distribute, sublicense, and/or sell
* Copies of the Software, and to permit persons to whom the Software is
* furnished to do so, subject to the following conditions:
*
* The above copyright notice and this permission notice shall be included in
* all copies or substantial portions of the Software.
*
* THE SOFTWARE IS PROVIDED "AS IS", WITHOUT WARRANTY OF ANY KIND, EXPRESS OR
* IMPLIED, INCLUDING BUT NOT LIMITED TO THE WARRANTIES OF MERCHANTABILITY,
* FITNESS FOR A PARTICULAR PURPOSE AND NONINFRINGEMENT. IN NO EVENT SHALL THE
* AUTHORS OR COPYRIGHT HOLDERS BE LIABLE FOR ANY CLAIM, DAMAGES OR OTHER
* LIABILITY, WHETHER IN AN ACTION OF CONTRACT, TORT OR OTHERWISE, ARISING FROM,
* OUT OF OR IN CONNECTION WITH THE SOFTWARE OR THE USE OR OTHER DEALINGS IN THE
* SOFTWARE.
*
*******************************************************************************/
#pragma once
#include <functional>
#include <Tensile/ContractionSolution.hpp>
#include <Tensile/Serialization/Base.hpp>
#include <tensilelitehost/export.h>
namespace TensileLite
{
namespace Serialization
{
template <typename IO>
struct MappingTraits<std::shared_ptr<ContractionSolution>, IO>
{
static void mapping(IO& io, std::shared_ptr<ContractionSolution>& p)
{
PointerMappingTraits<ContractionSolution, IO>::mapping(io, p);
}
const static bool flow = false;
};
template <typename IO>
struct MappingTraits<ContractionSolution, IO>
{
using iot = IOTraits<IO>;
static void mapping(IO& io, ContractionSolution& s)
{
iot::mapRequired(io, "name", s.solutionName);
iot::mapRequired(io, "kernelName", s.kernelName);
iot::mapRequired(io, "index", s.index);
iot::mapRequired(io, "hardwarePredicate", s.hardwarePredicate);
iot::mapRequired(io, "problemPredicate", s.problemPredicate);
iot::mapRequired(io, "taskPredicate", s.taskPredicate);
iot::mapRequired(io, "debugKernel", s.debugKernel);
iot::mapOptional(io, "libraryLogicIndex", s.libraryLogicIndex);
iot::mapOptional(io, "ideals", s.ideals);
iot::mapOptional(io, "linearModel", s.linearModel);
iot::mapRequired(io, "sizeMapping", s.sizeMapping);
iot::mapRequired(io, "internalArgsSupport", s.internalArgsSupport);
iot::mapRequired(io, "problemType", s.problemType);
}
const static bool flow = false;
};
template <typename IO>
struct MappingTraits<SizeMapping, IO>
{
using iot = IOTraits<IO>;
static void mapping(IO& io, SizeMapping& s)
{
iot::mapRequired(io, "waveNum", s.waveNum);
iot::mapRequired(io, "workGroup", s.workGroupSize);
iot::mapRequired(io, "threadTile", s.threadTile);
iot::mapRequired(io, "macroTile", s.macroTile);
iot::mapRequired(io, "matrixInstruction", s.matrixInstruction);
iot::mapRequired(io, "grvwA", s.grvwA);
iot::mapRequired(io, "grvwB", s.grvwB);
iot::mapRequired(io, "gwvwC", s.gwvwC);
iot::mapRequired(io, "gwvwD", s.gwvwD);
iot::mapRequired(io, "staggerU", s.staggerU);
iot::mapRequired(io, "staggerUMapping", s.staggerUMapping);
iot::mapRequired(io, "depthU", s.depthU);
iot::mapRequired(io, "globalSplitUPGR", s.globalSplitUPGR);
iot::mapRequired(io, "globalSplitU", s.globalSplitU);
iot::mapRequired(io, "staggerStrideShift", s.staggerStrideShift);
iot::mapRequired(io, "workGroupMapping", s.workGroupMapping);
iot::mapOptional(io, "packBatchDims", s.packBatchDims);
iot::mapOptional(io, "packSummationDims", s.packSummationDims);
iot::mapOptional(io, "magicDivAlg", s.magicDivAlg);
iot::mapOptional(io, "streamK", s.streamK);
iot::mapOptional(io, "streamKForceDPOnly", s.streamKForceDPOnly);
iot::mapOptional(io, "streamKAtomic", s.streamKAtomic);
iot::mapOptional(io, "prefetchAcrossPersistent", s.prefetchAcrossPersistent);
iot::mapOptional(io, "persistentKernel", s.persistentKernel);
iot::mapOptional(io, "persistentKernelAlongBatch", s.persistentKernelAlongBatch);
iot::mapRequired(io, "sourceKernel", s.sourceKernel);
iot::mapRequired(io, "globalAccumulation", s.globalAccumulation);
iot::mapOptional(io, "adaptiveGemmGSUA", s.adaptiveGemmGSUA);
iot::mapRequired(io, "workspaceSizePerElemC", s.workspaceSizePerElemC);
iot::mapRequired(io, "workspaceSizePerElemBias", s.workspaceSizePerElemBias);
iot::mapOptional(io, "activationFused", s.activationFused);
iot::mapOptional(io, "CustomKernelName", s.customKernelName);
iot::mapRequired(io, "workGroupMappingXCC", s.workGroupMappingXCC);
iot::mapRequired(io, "workGroupMappingXCCGroup", s.workGroupMappingXCCGroup);
iot::mapRequired(io, "globalSplitUCoalesced", s.globalSplitUCoalesced);
iot::mapRequired(io,
"globalSplitUWorkGroupMappingRoundRobin",
s.globalSplitUWorkGroupMappingRoundRobin);
iot::mapRequired(io, "CUOccupancy", s.CUOccupancy);
iot::mapRequired(io, "PrefetchGlobalRead", s.PrefetchGlobalRead);
iot::mapRequired(io, "MathClocksUnrolledLoop", s.MathClocksUnrolledLoop);
iot::mapRequired(io, "synchronizerSizePerWG", s.synchronizerSizePerWG);
iot::mapRequired(io, "nonTemporalA", s.nonTemporalA);
iot::mapRequired(io, "nonTemporalB", s.nonTemporalB);
iot::mapOptional(io, "adaptiveGemmNTAB", s.adaptiveGemmNTAB);
iot::mapRequired(io, "customMainLoopScheduling", s.customMainLoopScheduling);
iot::mapOptional(io, "useSubtileImpl", s.useSubtileImpl);
iot::mapRequired(io, "NonTemporalD", s.NonTemporalD);
iot::mapRequired(io, "WaveSeparateGlobalReadA", s.WaveSeparateGlobalReadA);
iot::mapRequired(io, "WaveSeparateGlobalReadB", s.WaveSeparateGlobalReadB);
iot::mapRequired(io, "UnrollLoopSwapGlobalReadOrder", s.UnrollLoopSwapGlobalReadOrder);
iot::mapRequired(io, "DirectToVgprA", s.DirectToVgprA);
iot::mapRequired(io, "DirectToVgprB", s.DirectToVgprB);
iot::mapRequired(io, "NumLoadsCoalescedA", s.NumLoadsCoalescedA);
iot::mapRequired(io, "NumLoadsCoalescedB", s.NumLoadsCoalescedB);
iot::mapRequired(io, "WaveGroup", s.waveGroup);
iot::mapRequired(io, "VectorWidthA", s.VectorWidthA);
iot::mapRequired(io, "VectorWidthB", s.VectorWidthB);
iot::mapRequired(io, "LocalSplitU", s.LocalSplitU);
iot::mapRequired(io, "DirectToLdsA", s.DirectToLdsA);
iot::mapRequired(io, "DirectToLdsB", s.DirectToLdsB);
iot::mapOptional(io, "ExpertSchedulingMode", s.expertSchedulingMode);
iot::mapOptional(io, "clusterDim", s.clusterDim);
}
const static bool flow = false;
};
template <typename IO>
struct MappingTraits<ContractionSolution::InternalArgsSupport, IO>
{
using iot = IOTraits<IO>;
static void mapping(IO& io, ContractionSolution::InternalArgsSupport& s)
{
iot::mapRequired(io, "version", s.version);
iot::mapRequired(io, "gsu", s.gsu);
iot::mapRequired(io, "wgm", s.wgm);
iot::mapRequired(io, "staggerU", s.staggerU);
iot::mapRequired(io, "useUniversalArgs", s.useUniversalArgs);
iot::mapRequired(io, "useSFC", s.useSFC);
}
const static bool flow = false;
};
template <typename IO>
struct MappingTraits<ContractionSolution::ProblemType, IO>
{
using iot = IOTraits<IO>;
static void mapping(IO& io, ContractionSolution::ProblemType& s)
{
iot::mapRequired(io, "operationIdentifier", s.operationIdentifier);
iot::mapRequired(io, "transA", s.transA);
iot::mapRequired(io, "transB", s.transB);
iot::mapRequired(io, "aType", s.aType);
iot::mapRequired(io, "bType", s.bType);
iot::mapRequired(io, "cType", s.cType);
iot::mapRequired(io, "dType", s.dType);
iot::mapOptional(io, "eType", s.eType);
iot::mapRequired(io, "computeInputTypeA", s.computeInputTypeA);
iot::mapRequired(io, "computeInputTypeB", s.computeInputTypeB);
iot::mapRequired(io, "computeType", s.computeType);
iot::mapOptional(io, "useGradient", s.useGradient);
iot::mapRequired(io, "useBeta", s.useBeta);
iot::mapOptional(io, "useBias", s.useBias);
iot::mapOptional(io, "useE", s.useE);
iot::mapOptional(io, "useGateResidual", s.useGateResidual);
iot::mapOptional(io, "useScaleAB", s.useScaleAB);
iot::mapOptional(io, "useScaleCD", s.useScaleCD);
iot::mapOptional(io, "useScaleAlphaVec", s.useScaleAlphaVec);
iot::mapOptional(io, "outputAmaxD", s.outputAmaxD);
iot::mapRequired(io, "highPrecisionAccumulate", s.highPrecisionAccumulate);
iot::mapOptional(io, "useInitialStridesAB", s.useInitialStridesAB);
iot::mapOptional(io, "useInitialStridesCD", s.useInitialStridesCD);
iot::mapOptional(io, "stridedBatched", s.stridedBatched);
iot::mapOptional(io, "groupedGemm", s.groupedGemm);
iot::mapOptional(io, "activationType", s.activationType);
iot::mapOptional(io, "activationArgLength", s.activationArgLength);
iot::mapOptional(io, "activationComputeDataType", s.activationComputeDataType);
iot::mapOptional(io, "activationNoGuard", s.activationNoGuard);
iot::mapOptional(io, "biasSrcWhiteList", s.biasSrcWhiteList);
iot::mapOptional(io, "biasDataTypeWhiteList", s.biasDataTypeWhiteList);
iot::mapOptional(io, "gateResidualDataTypeWhiteList", s.gateResidualDataTypeWhiteList);
iot::mapOptional(io, "sparse", s.sparse);
iot::mapOptional(io, "f32XdlMathOp", s.f32XdlMathOp);
iot::mapOptional(io, "supportDeviceUserArguments", s.supportDeviceUserArguments);
iot::mapOptional(io, "mxBlockA", s.mxBlockA);
iot::mapOptional(io, "mxTypeA", s.mxTypeA);
iot::mapOptional(io, "mxBlockB", s.mxBlockB);
iot::mapOptional(io, "mxTypeB", s.mxTypeB);
iot::mapOptional(io, "swizzleTensorA", s.swizzleTensorA);
iot::mapOptional(io, "swizzleTensorB", s.swizzleTensorB);
iot::mapOptional(io, "metadataLayout", s.metadataLayout);
// mxScaleFormat is mapped as optional so logic files that omit it
// (e.g. non-MX problems) deserialize cleanly with the default 0 = NoSwizzle.
iot::mapOptional(io, "mxScaleFormat", s.mxScaleFormat);
}
const static bool flow = false;
};
template <typename IO>
struct MappingTraits<ContractionSolution::LinearModel, IO>
{
using iot = IOTraits<IO>;
static void mapping(IO& io, ContractionSolution::LinearModel& s)
{
iot::mapOptional(io, "slope", s.slope);
iot::mapOptional(io, "intercept", s.intercept);
iot::mapOptional(io, "max", s.max);
}
const static bool flow = false;
};
template <typename IO>
struct MappingTraits<BufferLoadCheckPacket, IO>
{
using iot = IOTraits<IO>;
static void mapping(IO& io, BufferLoadCheckPacket& s)
{
iot::mapRequired(io, "ShiftPtrElemA", s.shiftPtrElemA);
iot::mapRequired(io, "ShiftPtrElemB", s.shiftPtrElemB);
iot::mapRequired(io, "DUorMT0", s.depthUorMT0);
iot::mapRequired(io, "DUorMT1", s.depthUorMT1);
}
const static bool flow = false;
};
} // namespace Serialization
} // namespace TensileLite