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RedBear-OS/local/recipes/dev/libclc/source/llvm/lib/ObjectYAML/DXContainerYAML.cpp
T
vasilito cb424d7448 build: static patch-sanity linter (shift-left the malformed-patch class) 
verify-patch-sanity.py validates every active recipe .patch has internally-
consistent hunk line counts — catching the 'malformed patch at line N' failure
at commit/CI/preflight time instead of hours into a cook. This cycle hit that
class three times (qtwaylandscanner, sddm, xwayland), each only discovered when
cookbook tried to apply the patch.

Running it across the repo found 29 latent malformed patches (validated against
GNU patch: e.g. relibc/P3-sysv-ipc reproduces 'malformed patch at line 22').
They were harmless only because they sit in vendored recipes (baked, not re-
applied) — but would fail on any version-bump re-derivation. --fix recounts the
hunk headers (body untouched) and repaired all 29.

Wired into build-preflight.sh (Phase 1.0D) and redbear-ci.yml, with a unit test
(test-patch-sanity.sh). Skips archived/legacy trees and unvalidatable formats
(empty placeholders, bare-@@ git hunks).
2026-08-01 05:13:02 +03:00

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//===- DXContainerYAML.cpp - DXContainer YAMLIO implementation ------------===//
//
// Part of the LLVM Project, under the Apache License v2.0 with LLVM Exceptions.
// See https://llvm.org/LICENSE.txt for license information.
// SPDX-License-Identifier: Apache-2.0 WITH LLVM-exception
//
//===----------------------------------------------------------------------===//
//
// This file defines classes for handling the YAML representation of
// DXContainerYAML.
//
//===----------------------------------------------------------------------===//
#include "llvm/ObjectYAML/DXContainerYAML.h"
#include "llvm/ADT/STLForwardCompat.h"
#include "llvm/ADT/ScopeExit.h"
#include "llvm/BinaryFormat/DXContainer.h"
#include "llvm/Support/Error.h"
#include "llvm/Support/ScopedPrinter.h"
#include <cstdint>
#include <system_error>
namespace llvm {
// This assert is duplicated here to leave a breadcrumb of the places that need
// to be updated if flags grow past 64-bits.
static_assert((uint64_t)dxbc::FeatureFlags::NextUnusedBit <= 1ull << 63,
"Shader flag bits exceed enum size.");
DXContainerYAML::ShaderFeatureFlags::ShaderFeatureFlags(uint64_t FlagData) {
#define SHADER_FEATURE_FLAG(Num, DxilModuleNum, Val, Str) \
Val = (FlagData & (uint64_t)dxbc::FeatureFlags::Val) > 0;
#include "llvm/BinaryFormat/DXContainerConstants.def"
}
template <typename T>
static llvm::Error
readDescriptorRanges(DXContainerYAML::RootParameterHeaderYaml &Header,
DXContainerYAML::RootSignatureYamlDesc &RootSigDesc,
object::DirectX::DescriptorTableView *DTV) {
llvm::Expected<object::DirectX::DescriptorTable<T>> TableOrErr =
DTV->read<T>();
if (Error E = TableOrErr.takeError())
return E;
auto Table = *TableOrErr;
DXContainerYAML::RootParameterLocationYaml Location(Header);
DXContainerYAML::DescriptorTableYaml &TableYaml =
RootSigDesc.Parameters.getOrInsertTable(Location);
RootSigDesc.Parameters.insertLocation(Location);
TableYaml.NumRanges = Table.NumRanges;
TableYaml.RangesOffset = Table.RangesOffset;
for (const auto &R : Table.Ranges) {
DXContainerYAML::DescriptorRangeYaml NewR;
NewR.OffsetInDescriptorsFromTableStart =
R.OffsetInDescriptorsFromTableStart;
NewR.NumDescriptors = R.NumDescriptors;
NewR.BaseShaderRegister = R.BaseShaderRegister;
NewR.RegisterSpace = R.RegisterSpace;
NewR.RangeType = R.RangeType;
if constexpr (std::is_same_v<T, dxbc::RTS0::v2::DescriptorRange>) {
// Set all flag fields for v2
#define DESCRIPTOR_RANGE_FLAG(Num, Enum, Flag) \
NewR.Enum = \
(R.Flags & llvm::to_underlying(dxbc::DescriptorRangeFlags::Enum)) != 0;
#include "llvm/BinaryFormat/DXContainerConstants.def"
}
TableYaml.Ranges.push_back(NewR);
}
return Error::success();
}
llvm::Expected<DXContainerYAML::RootSignatureYamlDesc>
DXContainerYAML::RootSignatureYamlDesc::create(
const object::DirectX::RootSignature &Data) {
RootSignatureYamlDesc RootSigDesc;
uint32_t Version = Data.getVersion();
RootSigDesc.Version = Version;
RootSigDesc.NumStaticSamplers = Data.getNumStaticSamplers();
RootSigDesc.StaticSamplersOffset = Data.getStaticSamplersOffset();
RootSigDesc.NumRootParameters = Data.getNumRootParameters();
RootSigDesc.RootParametersOffset = Data.getRootParametersOffset();
uint32_t Flags = Data.getFlags();
for (const dxbc::RTS0::v1::RootParameterHeader &PH : Data.param_headers()) {
if (!dxbc::isValidParameterType(PH.ParameterType))
return createStringError(std::errc::invalid_argument,
"Invalid value for parameter type");
RootParameterHeaderYaml Header(PH.ParameterType);
Header.Offset = PH.ParameterOffset;
Header.Type = PH.ParameterType;
if (!dxbc::isValidShaderVisibility(PH.ShaderVisibility))
return createStringError(std::errc::invalid_argument,
"Invalid value for shader visibility");
Header.Visibility = PH.ShaderVisibility;
llvm::Expected<object::DirectX::RootParameterView> ParamViewOrErr =
Data.getParameter(PH);
if (Error E = ParamViewOrErr.takeError())
return std::move(E);
object::DirectX::RootParameterView ParamView = ParamViewOrErr.get();
if (auto *RCV = dyn_cast<object::DirectX::RootConstantView>(&ParamView)) {
llvm::Expected<dxbc::RTS0::v1::RootConstants> ConstantsOrErr =
RCV->read();
if (Error E = ConstantsOrErr.takeError())
return std::move(E);
auto Constants = *ConstantsOrErr;
RootParameterLocationYaml Location(Header);
RootConstantsYaml &ConstantYaml =
RootSigDesc.Parameters.getOrInsertConstants(Location);
RootSigDesc.Parameters.insertLocation(Location);
ConstantYaml.Num32BitValues = Constants.Num32BitValues;
ConstantYaml.ShaderRegister = Constants.ShaderRegister;
ConstantYaml.RegisterSpace = Constants.RegisterSpace;
} else if (auto *RDV =
dyn_cast<object::DirectX::RootDescriptorView>(&ParamView)) {
llvm::Expected<dxbc::RTS0::v2::RootDescriptor> DescriptorOrErr =
RDV->read(Version);
if (Error E = DescriptorOrErr.takeError())
return std::move(E);
auto Descriptor = *DescriptorOrErr;
RootParameterLocationYaml Location(Header);
RootDescriptorYaml &YamlDescriptor =
RootSigDesc.Parameters.getOrInsertDescriptor(Location);
RootSigDesc.Parameters.insertLocation(Location);
YamlDescriptor.ShaderRegister = Descriptor.ShaderRegister;
YamlDescriptor.RegisterSpace = Descriptor.RegisterSpace;
if (Version > 1) {
#define ROOT_DESCRIPTOR_FLAG(Num, Enum, Flag) \
YamlDescriptor.Enum = \
(Descriptor.Flags & \
llvm::to_underlying(dxbc::RootDescriptorFlags::Enum)) > 0;
#include "llvm/BinaryFormat/DXContainerConstants.def"
}
} else if (auto *DTV =
dyn_cast<object::DirectX::DescriptorTableView>(&ParamView)) {
if (Version == 1) {
if (Error E = readDescriptorRanges<dxbc::RTS0::v1::DescriptorRange>(
Header, RootSigDesc, DTV))
return std::move(E);
} else if (Version == 2) {
if (Error E = readDescriptorRanges<dxbc::RTS0::v2::DescriptorRange>(
Header, RootSigDesc, DTV))
return std::move(E);
} else
llvm_unreachable("Unknown version for DescriptorRanges");
}
}
for (const auto &S : Data.samplers()) {
StaticSamplerYamlDesc NewS;
NewS.Filter = S.Filter;
NewS.AddressU = S.AddressU;
NewS.AddressV = S.AddressV;
NewS.AddressW = S.AddressW;
NewS.MipLODBias = S.MipLODBias;
NewS.MaxAnisotropy = S.MaxAnisotropy;
NewS.ComparisonFunc = S.ComparisonFunc;
NewS.BorderColor = S.BorderColor;
NewS.MinLOD = S.MinLOD;
NewS.MaxLOD = S.MaxLOD;
NewS.ShaderRegister = S.ShaderRegister;
NewS.RegisterSpace = S.RegisterSpace;
NewS.ShaderVisibility = S.ShaderVisibility;
RootSigDesc.StaticSamplers.push_back(NewS);
}
#define ROOT_SIGNATURE_FLAG(Num, Val) \
RootSigDesc.Val = (Flags & llvm::to_underlying(dxbc::RootFlags::Val)) > 0;
#include "llvm/BinaryFormat/DXContainerConstants.def"
return RootSigDesc;
}
uint32_t DXContainerYAML::RootDescriptorYaml::getEncodedFlags() const {
uint64_t Flags = 0;
#define ROOT_DESCRIPTOR_FLAG(Num, Enum, Flag) \
if (Enum) \
Flags |= (uint32_t)dxbc::RootDescriptorFlags::Enum;
#include "llvm/BinaryFormat/DXContainerConstants.def"
return Flags;
}
uint32_t DXContainerYAML::RootSignatureYamlDesc::getEncodedFlags() {
uint64_t Flag = 0;
#define ROOT_SIGNATURE_FLAG(Num, Val) \
if (Val) \
Flag |= (uint32_t)dxbc::RootFlags::Val;
#include "llvm/BinaryFormat/DXContainerConstants.def"
return Flag;
}
uint32_t DXContainerYAML::DescriptorRangeYaml::getEncodedFlags() const {
uint64_t Flags = 0;
#define DESCRIPTOR_RANGE_FLAG(Num, Enum, Flag) \
if (Enum) \
Flags |= (uint32_t)dxbc::DescriptorRangeFlags::Enum;
#include "llvm/BinaryFormat/DXContainerConstants.def"
return Flags;
}
uint64_t DXContainerYAML::ShaderFeatureFlags::getEncodedFlags() {
uint64_t Flag = 0;
#define SHADER_FEATURE_FLAG(Num, DxilModuleNum, Val, Str) \
if (Val) \
Flag |= (uint64_t)dxbc::FeatureFlags::Val;
#include "llvm/BinaryFormat/DXContainerConstants.def"
return Flag;
}
DXContainerYAML::ShaderHash::ShaderHash(const dxbc::ShaderHash &Data)
: IncludesSource((Data.Flags & static_cast<uint32_t>(
dxbc::HashFlags::IncludesSource)) != 0),
Digest(16, 0) {
memcpy(Digest.data(), &Data.Digest[0], 16);
}
DXContainerYAML::PSVInfo::PSVInfo() : Version(0) {
memset(&Info, 0, sizeof(Info));
}
DXContainerYAML::PSVInfo::PSVInfo(const dxbc::PSV::v0::RuntimeInfo *P,
uint16_t Stage)
: Version(0) {
memset(&Info, 0, sizeof(Info));
memcpy(&Info, P, sizeof(dxbc::PSV::v0::RuntimeInfo));
assert(Stage < std::numeric_limits<uint8_t>::max() &&
"Stage should be a very small number");
// We need to bring the stage in separately since it isn't part of the v1 data
// structure.
Info.ShaderStage = static_cast<uint8_t>(Stage);
}
DXContainerYAML::PSVInfo::PSVInfo(const dxbc::PSV::v1::RuntimeInfo *P)
: Version(1) {
memset(&Info, 0, sizeof(Info));
memcpy(&Info, P, sizeof(dxbc::PSV::v1::RuntimeInfo));
}
DXContainerYAML::PSVInfo::PSVInfo(const dxbc::PSV::v2::RuntimeInfo *P)
: Version(2) {
memset(&Info, 0, sizeof(Info));
memcpy(&Info, P, sizeof(dxbc::PSV::v2::RuntimeInfo));
}
DXContainerYAML::PSVInfo::PSVInfo(const dxbc::PSV::v3::RuntimeInfo *P,
StringRef StringTable)
: Version(3),
EntryName(StringTable.substr(P->EntryNameOffset,
StringTable.find('\0', P->EntryNameOffset) -
P->EntryNameOffset)) {
memset(&Info, 0, sizeof(Info));
memcpy(&Info, P, sizeof(dxbc::PSV::v3::RuntimeInfo));
}
namespace yaml {
void MappingTraits<DXContainerYAML::VersionTuple>::mapping(
IO &IO, DXContainerYAML::VersionTuple &Version) {
IO.mapRequired("Major", Version.Major);
IO.mapRequired("Minor", Version.Minor);
}
void MappingTraits<DXContainerYAML::FileHeader>::mapping(
IO &IO, DXContainerYAML::FileHeader &Header) {
IO.mapRequired("Hash", Header.Hash);
IO.mapRequired("Version", Header.Version);
IO.mapOptional("FileSize", Header.FileSize);
IO.mapRequired("PartCount", Header.PartCount);
IO.mapOptional("PartOffsets", Header.PartOffsets);
}
void MappingTraits<DXContainerYAML::DXILProgram>::mapping(
IO &IO, DXContainerYAML::DXILProgram &Program) {
IO.mapRequired("MajorVersion", Program.MajorVersion);
IO.mapRequired("MinorVersion", Program.MinorVersion);
IO.mapRequired("ShaderKind", Program.ShaderKind);
IO.mapOptional("Size", Program.Size);
IO.mapRequired("DXILMajorVersion", Program.DXILMajorVersion);
IO.mapRequired("DXILMinorVersion", Program.DXILMinorVersion);
IO.mapOptional("DXILSize", Program.DXILSize);
IO.mapOptional("DXIL", Program.DXIL);
}
void MappingTraits<DXContainerYAML::ShaderFeatureFlags>::mapping(
IO &IO, DXContainerYAML::ShaderFeatureFlags &Flags) {
#define SHADER_FEATURE_FLAG(Num, DxilModuleNum, Val, Str) \
IO.mapRequired(#Val, Flags.Val);
#include "llvm/BinaryFormat/DXContainerConstants.def"
}
void MappingTraits<DXContainerYAML::ShaderHash>::mapping(
IO &IO, DXContainerYAML::ShaderHash &Hash) {
IO.mapRequired("IncludesSource", Hash.IncludesSource);
IO.mapRequired("Digest", Hash.Digest);
}
void MappingTraits<DXContainerYAML::PSVInfo>::mapping(
IO &IO, DXContainerYAML::PSVInfo &PSV) {
IO.mapRequired("Version", PSV.Version);
// Store the PSV version in the YAML context.
void *OldContext = IO.getContext();
uint32_t Version = PSV.Version;
IO.setContext(&Version);
// Restore the YAML context on function exit.
auto RestoreContext = make_scope_exit([&]() { IO.setContext(OldContext); });
// Shader stage is only included in binaries for v1 and later, but we always
// include it since it simplifies parsing and file construction.
IO.mapRequired("ShaderStage", PSV.Info.ShaderStage);
PSV.mapInfoForVersion(IO);
IO.mapRequired("ResourceStride", PSV.ResourceStride);
IO.mapRequired("Resources", PSV.Resources);
if (PSV.Version == 0)
return;
IO.mapRequired("SigInputElements", PSV.SigInputElements);
IO.mapRequired("SigOutputElements", PSV.SigOutputElements);
IO.mapRequired("SigPatchOrPrimElements", PSV.SigPatchOrPrimElements);
Triple::EnvironmentType Stage = dxbc::getShaderStage(PSV.Info.ShaderStage);
if (PSV.Info.UsesViewID) {
MutableArrayRef<SmallVector<llvm::yaml::Hex32>> MutableOutMasks(
PSV.OutputVectorMasks);
IO.mapRequired("OutputVectorMasks", MutableOutMasks);
if (Stage == Triple::EnvironmentType::Hull)
IO.mapRequired("PatchOrPrimMasks", PSV.PatchOrPrimMasks);
}
MutableArrayRef<SmallVector<llvm::yaml::Hex32>> MutableIOMap(
PSV.InputOutputMap);
IO.mapRequired("InputOutputMap", MutableIOMap);
if (Stage == Triple::EnvironmentType::Hull)
IO.mapRequired("InputPatchMap", PSV.InputPatchMap);
if (Stage == Triple::EnvironmentType::Domain)
IO.mapRequired("PatchOutputMap", PSV.PatchOutputMap);
}
void MappingTraits<DXContainerYAML::SignatureParameter>::mapping(
IO &IO, DXContainerYAML::SignatureParameter &S) {
IO.mapRequired("Stream", S.Stream);
IO.mapRequired("Name", S.Name);
IO.mapRequired("Index", S.Index);
IO.mapRequired("SystemValue", S.SystemValue);
IO.mapRequired("CompType", S.CompType);
IO.mapRequired("Register", S.Register);
IO.mapRequired("Mask", S.Mask);
IO.mapRequired("ExclusiveMask", S.ExclusiveMask);
IO.mapRequired("MinPrecision", S.MinPrecision);
}
void MappingTraits<DXContainerYAML::Signature>::mapping(
IO &IO, DXContainerYAML::Signature &S) {
IO.mapRequired("Parameters", S.Parameters);
}
void MappingTraits<DXContainerYAML::RootSignatureYamlDesc>::mapping(
IO &IO, DXContainerYAML::RootSignatureYamlDesc &S) {
IO.mapRequired("Version", S.Version);
IO.mapRequired("NumRootParameters", S.NumRootParameters);
IO.mapRequired("RootParametersOffset", S.RootParametersOffset);
IO.mapRequired("NumStaticSamplers", S.NumStaticSamplers);
IO.mapRequired("StaticSamplersOffset", S.StaticSamplersOffset);
IO.mapRequired("Parameters", S.Parameters.Locations, S);
IO.mapOptional("Samplers", S.StaticSamplers);
#define ROOT_SIGNATURE_FLAG(Num, Val) IO.mapOptional(#Val, S.Val, false);
#include "llvm/BinaryFormat/DXContainerConstants.def"
}
void MappingTraits<llvm::DXContainerYAML::DescriptorRangeYaml>::mapping(
IO &IO, llvm::DXContainerYAML::DescriptorRangeYaml &R) {
IO.mapRequired("RangeType", R.RangeType);
// handling the edge case where NumDescriptors might be -1
if (IO.outputting()) {
if (R.NumDescriptors == UINT_MAX) {
int32_t NegOne = -1;
IO.mapRequired("NumDescriptors", NegOne);
} else
IO.mapRequired("NumDescriptors", R.NumDescriptors);
} else {
int32_t TmpNumDesc = 0;
IO.mapRequired("NumDescriptors", TmpNumDesc);
R.NumDescriptors = static_cast<uint32_t>(TmpNumDesc);
}
IO.mapRequired("BaseShaderRegister", R.BaseShaderRegister);
IO.mapRequired("RegisterSpace", R.RegisterSpace);
IO.mapRequired("OffsetInDescriptorsFromTableStart",
R.OffsetInDescriptorsFromTableStart);
#define DESCRIPTOR_RANGE_FLAG(Num, Enum, Flag) \
IO.mapOptional(#Flag, R.Enum, false);
#include "llvm/BinaryFormat/DXContainerConstants.def"
}
void MappingTraits<llvm::DXContainerYAML::DescriptorTableYaml>::mapping(
IO &IO, llvm::DXContainerYAML::DescriptorTableYaml &T) {
IO.mapRequired("NumRanges", T.NumRanges);
IO.mapOptional("RangesOffset", T.RangesOffset);
IO.mapRequired("Ranges", T.Ranges);
}
void MappingContextTraits<DXContainerYAML::RootParameterLocationYaml,
DXContainerYAML::RootSignatureYamlDesc>::
mapping(IO &IO, DXContainerYAML::RootParameterLocationYaml &L,
DXContainerYAML::RootSignatureYamlDesc &S) {
IO.mapRequired("ParameterType", L.Header.Type);
IO.mapRequired("ShaderVisibility", L.Header.Visibility);
switch (L.Header.Type) {
case llvm::to_underlying(dxbc::RootParameterType::Constants32Bit): {
DXContainerYAML::RootConstantsYaml &Constants =
S.Parameters.getOrInsertConstants(L);
IO.mapRequired("Constants", Constants);
break;
}
case llvm::to_underlying(dxbc::RootParameterType::CBV):
case llvm::to_underlying(dxbc::RootParameterType::SRV):
case llvm::to_underlying(dxbc::RootParameterType::UAV): {
DXContainerYAML::RootDescriptorYaml &Descriptor =
S.Parameters.getOrInsertDescriptor(L);
IO.mapRequired("Descriptor", Descriptor);
break;
}
case llvm::to_underlying(dxbc::RootParameterType::DescriptorTable): {
DXContainerYAML::DescriptorTableYaml &Table =
S.Parameters.getOrInsertTable(L);
IO.mapRequired("Table", Table);
break;
}
}
}
void MappingTraits<llvm::DXContainerYAML::RootConstantsYaml>::mapping(
IO &IO, llvm::DXContainerYAML::RootConstantsYaml &C) {
IO.mapRequired("Num32BitValues", C.Num32BitValues);
IO.mapRequired("RegisterSpace", C.RegisterSpace);
IO.mapRequired("ShaderRegister", C.ShaderRegister);
}
void MappingTraits<llvm::DXContainerYAML::RootDescriptorYaml>::mapping(
IO &IO, llvm::DXContainerYAML::RootDescriptorYaml &D) {
IO.mapRequired("RegisterSpace", D.RegisterSpace);
IO.mapRequired("ShaderRegister", D.ShaderRegister);
#define ROOT_DESCRIPTOR_FLAG(Num, Enum, Flag) \
IO.mapOptional(#Flag, D.Enum, false);
#include "llvm/BinaryFormat/DXContainerConstants.def"
}
void MappingTraits<llvm::DXContainerYAML::StaticSamplerYamlDesc>::mapping(
IO &IO, llvm::DXContainerYAML::StaticSamplerYamlDesc &S) {
IO.mapOptional("Filter", S.Filter);
IO.mapOptional("AddressU", S.AddressU);
IO.mapOptional("AddressV", S.AddressV);
IO.mapOptional("AddressW", S.AddressW);
IO.mapOptional("MipLODBias", S.MipLODBias);
IO.mapOptional("MaxAnisotropy", S.MaxAnisotropy);
IO.mapOptional("ComparisonFunc", S.ComparisonFunc);
IO.mapOptional("BorderColor", S.BorderColor);
IO.mapOptional("MinLOD", S.MinLOD);
IO.mapOptional("MaxLOD", S.MaxLOD);
IO.mapRequired("ShaderRegister", S.ShaderRegister);
IO.mapRequired("RegisterSpace", S.RegisterSpace);
IO.mapRequired("ShaderVisibility", S.ShaderVisibility);
}
void MappingTraits<DXContainerYAML::Part>::mapping(IO &IO,
DXContainerYAML::Part &P) {
IO.mapRequired("Name", P.Name);
IO.mapRequired("Size", P.Size);
IO.mapOptional("Program", P.Program);
IO.mapOptional("Flags", P.Flags);
IO.mapOptional("Hash", P.Hash);
IO.mapOptional("PSVInfo", P.Info);
IO.mapOptional("Signature", P.Signature);
IO.mapOptional("RootSignature", P.RootSignature);
}
void MappingTraits<DXContainerYAML::Object>::mapping(
IO &IO, DXContainerYAML::Object &Obj) {
IO.mapTag("!dxcontainer", true);
IO.mapRequired("Header", Obj.Header);
IO.mapRequired("Parts", Obj.Parts);
}
void MappingTraits<DXContainerYAML::ResourceFlags>::mapping(
IO &IO, DXContainerYAML::ResourceFlags &Flags) {
#define RESOURCE_FLAG(FlagIndex, Enum) IO.mapRequired(#Enum, Flags.Bits.Enum);
#include "llvm/BinaryFormat/DXContainerConstants.def"
}
void MappingTraits<DXContainerYAML::ResourceBindInfo>::mapping(
IO &IO, DXContainerYAML::ResourceBindInfo &Res) {
IO.mapRequired("Type", Res.Type);
IO.mapRequired("Space", Res.Space);
IO.mapRequired("LowerBound", Res.LowerBound);
IO.mapRequired("UpperBound", Res.UpperBound);
const uint32_t *PSVVersion = static_cast<uint32_t *>(IO.getContext());
if (*PSVVersion < 2)
return;
IO.mapRequired("Kind", Res.Kind);
IO.mapRequired("Flags", Res.Flags);
}
void MappingTraits<DXContainerYAML::SignatureElement>::mapping(
IO &IO, DXContainerYAML::SignatureElement &El) {
IO.mapRequired("Name", El.Name);
IO.mapRequired("Indices", El.Indices);
IO.mapRequired("StartRow", El.StartRow);
IO.mapRequired("Cols", El.Cols);
IO.mapRequired("StartCol", El.StartCol);
IO.mapRequired("Allocated", El.Allocated);
IO.mapRequired("Kind", El.Kind);
IO.mapRequired("ComponentType", El.Type);
IO.mapRequired("Interpolation", El.Mode);
IO.mapRequired("DynamicMask", El.DynamicMask);
IO.mapRequired("Stream", El.Stream);
}
void ScalarEnumerationTraits<dxbc::PSV::SemanticKind>::enumeration(
IO &IO, dxbc::PSV::SemanticKind &Value) {
for (const auto &E : dxbc::PSV::getSemanticKinds())
IO.enumCase(Value, E.Name.str().c_str(), E.Value);
}
void ScalarEnumerationTraits<dxbc::PSV::ComponentType>::enumeration(
IO &IO, dxbc::PSV::ComponentType &Value) {
for (const auto &E : dxbc::PSV::getComponentTypes())
IO.enumCase(Value, E.Name.str().c_str(), E.Value);
}
void ScalarEnumerationTraits<dxbc::PSV::InterpolationMode>::enumeration(
IO &IO, dxbc::PSV::InterpolationMode &Value) {
for (const auto &E : dxbc::PSV::getInterpolationModes())
IO.enumCase(Value, E.Name.str().c_str(), E.Value);
}
void ScalarEnumerationTraits<dxbc::PSV::ResourceType>::enumeration(
IO &IO, dxbc::PSV::ResourceType &Value) {
for (const auto &E : dxbc::PSV::getResourceTypes())
IO.enumCase(Value, E.Name.str().c_str(), E.Value);
}
void ScalarEnumerationTraits<dxbc::PSV::ResourceKind>::enumeration(
IO &IO, dxbc::PSV::ResourceKind &Value) {
for (const auto &E : dxbc::PSV::getResourceKinds())
IO.enumCase(Value, E.Name.str().c_str(), E.Value);
}
void ScalarEnumerationTraits<dxbc::D3DSystemValue>::enumeration(
IO &IO, dxbc::D3DSystemValue &Value) {
for (const auto &E : dxbc::getD3DSystemValues())
IO.enumCase(Value, E.Name.str().c_str(), E.Value);
}
void ScalarEnumerationTraits<dxbc::SigMinPrecision>::enumeration(
IO &IO, dxbc::SigMinPrecision &Value) {
for (const auto &E : dxbc::getSigMinPrecisions())
IO.enumCase(Value, E.Name.str().c_str(), E.Value);
}
void ScalarEnumerationTraits<dxbc::SigComponentType>::enumeration(
IO &IO, dxbc::SigComponentType &Value) {
for (const auto &E : dxbc::getSigComponentTypes())
IO.enumCase(Value, E.Name.str().c_str(), E.Value);
}
} // namespace yaml
void DXContainerYAML::PSVInfo::mapInfoForVersion(yaml::IO &IO) {
dxbc::PipelinePSVInfo &StageInfo = Info.StageInfo;
Triple::EnvironmentType Stage = dxbc::getShaderStage(Info.ShaderStage);
switch (Stage) {
case Triple::EnvironmentType::Pixel:
IO.mapRequired("DepthOutput", StageInfo.PS.DepthOutput);
IO.mapRequired("SampleFrequency", StageInfo.PS.SampleFrequency);
break;
case Triple::EnvironmentType::Vertex:
IO.mapRequired("OutputPositionPresent", StageInfo.VS.OutputPositionPresent);
break;
case Triple::EnvironmentType::Geometry:
IO.mapRequired("InputPrimitive", StageInfo.GS.InputPrimitive);
IO.mapRequired("OutputTopology", StageInfo.GS.OutputTopology);
IO.mapRequired("OutputStreamMask", StageInfo.GS.OutputStreamMask);
IO.mapRequired("OutputPositionPresent", StageInfo.GS.OutputPositionPresent);
break;
case Triple::EnvironmentType::Hull:
IO.mapRequired("InputControlPointCount",
StageInfo.HS.InputControlPointCount);
IO.mapRequired("OutputControlPointCount",
StageInfo.HS.OutputControlPointCount);
IO.mapRequired("TessellatorDomain", StageInfo.HS.TessellatorDomain);
IO.mapRequired("TessellatorOutputPrimitive",
StageInfo.HS.TessellatorOutputPrimitive);
break;
case Triple::EnvironmentType::Domain:
IO.mapRequired("InputControlPointCount",
StageInfo.DS.InputControlPointCount);
IO.mapRequired("OutputPositionPresent", StageInfo.DS.OutputPositionPresent);
IO.mapRequired("TessellatorDomain", StageInfo.DS.TessellatorDomain);
break;
case Triple::EnvironmentType::Mesh:
IO.mapRequired("GroupSharedBytesUsed", StageInfo.MS.GroupSharedBytesUsed);
IO.mapRequired("GroupSharedBytesDependentOnViewID",
StageInfo.MS.GroupSharedBytesDependentOnViewID);
IO.mapRequired("PayloadSizeInBytes", StageInfo.MS.PayloadSizeInBytes);
IO.mapRequired("MaxOutputVertices", StageInfo.MS.MaxOutputVertices);
IO.mapRequired("MaxOutputPrimitives", StageInfo.MS.MaxOutputPrimitives);
break;
case Triple::EnvironmentType::Amplification:
IO.mapRequired("PayloadSizeInBytes", StageInfo.AS.PayloadSizeInBytes);
break;
default:
break;
}
IO.mapRequired("MinimumWaveLaneCount", Info.MinimumWaveLaneCount);
IO.mapRequired("MaximumWaveLaneCount", Info.MaximumWaveLaneCount);
if (Version == 0)
return;
IO.mapRequired("UsesViewID", Info.UsesViewID);
switch (Stage) {
case Triple::EnvironmentType::Geometry:
IO.mapRequired("MaxVertexCount", Info.GeomData.MaxVertexCount);
break;
case Triple::EnvironmentType::Hull:
case Triple::EnvironmentType::Domain:
IO.mapRequired("SigPatchConstOrPrimVectors",
Info.GeomData.SigPatchConstOrPrimVectors);
break;
case Triple::EnvironmentType::Mesh:
IO.mapRequired("SigPrimVectors", Info.GeomData.MeshInfo.SigPrimVectors);
IO.mapRequired("MeshOutputTopology",
Info.GeomData.MeshInfo.MeshOutputTopology);
break;
default:
break;
}
IO.mapRequired("SigInputVectors", Info.SigInputVectors);
MutableArrayRef<uint8_t> Vec(Info.SigOutputVectors);
IO.mapRequired("SigOutputVectors", Vec);
if (Version == 1)
return;
IO.mapRequired("NumThreadsX", Info.NumThreadsX);
IO.mapRequired("NumThreadsY", Info.NumThreadsY);
IO.mapRequired("NumThreadsZ", Info.NumThreadsZ);
if (Version == 2)
return;
IO.mapRequired("EntryName", EntryName);
}
} // namespace llvm
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