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llvm-mirror/lib/Support/TargetParser.cpp

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TargetParser: FPU/ARCH/EXT parsing refactory - NFC This new class in a global context contain arch-specific knowledge in order to provide LLVM libraries, tools and projects with the ability to understand the architectures. For now, only FPU, ARCH and ARCH extensions on ARM are supported. Current behaviour it to parse from free-text to enum values and back, so that all users can share the same parser and codes. This simplifies a lot both the ASM/Obj streamers in the back-end (where this came from), and the front-end parsers for command line arguments (where this is going to be used next). The previous implementation, using .def/.h includes is deprecated due to its inflexibility to be built without the backend support and for being too cumbersome. As more architectures join this scheme, and as more features of such architectures are added (such as hardware features, type sizes, etc) into a full blown TargetDescription class, having a set of classes is the most sane implementation. The ultimate goal of this refactor both LLVM's and Clang's target description classes into one unique interface, so that we can de-duplicate and standardise the descriptions, as well as make it available for other front-ends, tools, etc. The FPU parsing for command line options in Clang has been converted to use this new library and a number of aliases were added for compatibility: * A bogus neon-vfpv3 alias (neon defaults to vfp3) * armv5/v6 * {fp4/fp5}-{sp/dp}-d16 Next steps: * Port Clang's ARCH/EXT parsing to use this library. * Create a TableGen back-end to generate this information. * Run this TableGen process regardless of which back-ends are built. * Expose more information and rename it to TargetDescription. * Continue re-factoring Clang to use as much of it as possible. llvm-svn: 236900
2015-05-08 23:04:27 +02:00
//===-- TargetParser - Parser for target features ---------------*- C++ -*-===//
//
// 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
TargetParser: FPU/ARCH/EXT parsing refactory - NFC This new class in a global context contain arch-specific knowledge in order to provide LLVM libraries, tools and projects with the ability to understand the architectures. For now, only FPU, ARCH and ARCH extensions on ARM are supported. Current behaviour it to parse from free-text to enum values and back, so that all users can share the same parser and codes. This simplifies a lot both the ASM/Obj streamers in the back-end (where this came from), and the front-end parsers for command line arguments (where this is going to be used next). The previous implementation, using .def/.h includes is deprecated due to its inflexibility to be built without the backend support and for being too cumbersome. As more architectures join this scheme, and as more features of such architectures are added (such as hardware features, type sizes, etc) into a full blown TargetDescription class, having a set of classes is the most sane implementation. The ultimate goal of this refactor both LLVM's and Clang's target description classes into one unique interface, so that we can de-duplicate and standardise the descriptions, as well as make it available for other front-ends, tools, etc. The FPU parsing for command line options in Clang has been converted to use this new library and a number of aliases were added for compatibility: * A bogus neon-vfpv3 alias (neon defaults to vfp3) * armv5/v6 * {fp4/fp5}-{sp/dp}-d16 Next steps: * Port Clang's ARCH/EXT parsing to use this library. * Create a TableGen back-end to generate this information. * Run this TableGen process regardless of which back-ends are built. * Expose more information and rename it to TargetDescription. * Continue re-factoring Clang to use as much of it as possible. llvm-svn: 236900
2015-05-08 23:04:27 +02:00
//
//===----------------------------------------------------------------------===//
//
// This file implements a target parser to recognise hardware features such as
// FPU/CPU/ARCH names as well as specific support such as HDIV, etc.
//
//===----------------------------------------------------------------------===//
#include "llvm/Support/TargetParser.h"
#include "llvm/ADT/ArrayRef.h"
#include "llvm/ADT/SmallString.h"
TargetParser: FPU/ARCH/EXT parsing refactory - NFC This new class in a global context contain arch-specific knowledge in order to provide LLVM libraries, tools and projects with the ability to understand the architectures. For now, only FPU, ARCH and ARCH extensions on ARM are supported. Current behaviour it to parse from free-text to enum values and back, so that all users can share the same parser and codes. This simplifies a lot both the ASM/Obj streamers in the back-end (where this came from), and the front-end parsers for command line arguments (where this is going to be used next). The previous implementation, using .def/.h includes is deprecated due to its inflexibility to be built without the backend support and for being too cumbersome. As more architectures join this scheme, and as more features of such architectures are added (such as hardware features, type sizes, etc) into a full blown TargetDescription class, having a set of classes is the most sane implementation. The ultimate goal of this refactor both LLVM's and Clang's target description classes into one unique interface, so that we can de-duplicate and standardise the descriptions, as well as make it available for other front-ends, tools, etc. The FPU parsing for command line options in Clang has been converted to use this new library and a number of aliases were added for compatibility: * A bogus neon-vfpv3 alias (neon defaults to vfp3) * armv5/v6 * {fp4/fp5}-{sp/dp}-d16 Next steps: * Port Clang's ARCH/EXT parsing to use this library. * Create a TableGen back-end to generate this information. * Run this TableGen process regardless of which back-ends are built. * Expose more information and rename it to TargetDescription. * Continue re-factoring Clang to use as much of it as possible. llvm-svn: 236900
2015-05-08 23:04:27 +02:00
#include "llvm/ADT/StringSwitch.h"
#include "llvm/ADT/Twine.h"
#include "llvm/Support/ARMBuildAttributes.h"
TargetParser: FPU/ARCH/EXT parsing refactory - NFC This new class in a global context contain arch-specific knowledge in order to provide LLVM libraries, tools and projects with the ability to understand the architectures. For now, only FPU, ARCH and ARCH extensions on ARM are supported. Current behaviour it to parse from free-text to enum values and back, so that all users can share the same parser and codes. This simplifies a lot both the ASM/Obj streamers in the back-end (where this came from), and the front-end parsers for command line arguments (where this is going to be used next). The previous implementation, using .def/.h includes is deprecated due to its inflexibility to be built without the backend support and for being too cumbersome. As more architectures join this scheme, and as more features of such architectures are added (such as hardware features, type sizes, etc) into a full blown TargetDescription class, having a set of classes is the most sane implementation. The ultimate goal of this refactor both LLVM's and Clang's target description classes into one unique interface, so that we can de-duplicate and standardise the descriptions, as well as make it available for other front-ends, tools, etc. The FPU parsing for command line options in Clang has been converted to use this new library and a number of aliases were added for compatibility: * A bogus neon-vfpv3 alias (neon defaults to vfp3) * armv5/v6 * {fp4/fp5}-{sp/dp}-d16 Next steps: * Port Clang's ARCH/EXT parsing to use this library. * Create a TableGen back-end to generate this information. * Run this TableGen process regardless of which back-ends are built. * Expose more information and rename it to TargetDescription. * Continue re-factoring Clang to use as much of it as possible. llvm-svn: 236900
2015-05-08 23:04:27 +02:00
using namespace llvm;
using namespace AMDGPU;
TargetParser: FPU/ARCH/EXT parsing refactory - NFC This new class in a global context contain arch-specific knowledge in order to provide LLVM libraries, tools and projects with the ability to understand the architectures. For now, only FPU, ARCH and ARCH extensions on ARM are supported. Current behaviour it to parse from free-text to enum values and back, so that all users can share the same parser and codes. This simplifies a lot both the ASM/Obj streamers in the back-end (where this came from), and the front-end parsers for command line arguments (where this is going to be used next). The previous implementation, using .def/.h includes is deprecated due to its inflexibility to be built without the backend support and for being too cumbersome. As more architectures join this scheme, and as more features of such architectures are added (such as hardware features, type sizes, etc) into a full blown TargetDescription class, having a set of classes is the most sane implementation. The ultimate goal of this refactor both LLVM's and Clang's target description classes into one unique interface, so that we can de-duplicate and standardise the descriptions, as well as make it available for other front-ends, tools, etc. The FPU parsing for command line options in Clang has been converted to use this new library and a number of aliases were added for compatibility: * A bogus neon-vfpv3 alias (neon defaults to vfp3) * armv5/v6 * {fp4/fp5}-{sp/dp}-d16 Next steps: * Port Clang's ARCH/EXT parsing to use this library. * Create a TableGen back-end to generate this information. * Run this TableGen process regardless of which back-ends are built. * Expose more information and rename it to TargetDescription. * Continue re-factoring Clang to use as much of it as possible. llvm-svn: 236900
2015-05-08 23:04:27 +02:00
namespace {
struct GPUInfo {
StringLiteral Name;
StringLiteral CanonicalName;
AMDGPU::GPUKind Kind;
unsigned Features;
};
constexpr GPUInfo R600GPUs[] = {
// Name Canonical Kind Features
// Name
{{"r600"}, {"r600"}, GK_R600, FEATURE_NONE },
{{"rv630"}, {"r600"}, GK_R600, FEATURE_NONE },
{{"rv635"}, {"r600"}, GK_R600, FEATURE_NONE },
{{"r630"}, {"r630"}, GK_R630, FEATURE_NONE },
{{"rs780"}, {"rs880"}, GK_RS880, FEATURE_NONE },
{{"rs880"}, {"rs880"}, GK_RS880, FEATURE_NONE },
{{"rv610"}, {"rs880"}, GK_RS880, FEATURE_NONE },
{{"rv620"}, {"rs880"}, GK_RS880, FEATURE_NONE },
{{"rv670"}, {"rv670"}, GK_RV670, FEATURE_NONE },
{{"rv710"}, {"rv710"}, GK_RV710, FEATURE_NONE },
{{"rv730"}, {"rv730"}, GK_RV730, FEATURE_NONE },
{{"rv740"}, {"rv770"}, GK_RV770, FEATURE_NONE },
{{"rv770"}, {"rv770"}, GK_RV770, FEATURE_NONE },
{{"cedar"}, {"cedar"}, GK_CEDAR, FEATURE_NONE },
{{"palm"}, {"cedar"}, GK_CEDAR, FEATURE_NONE },
{{"cypress"}, {"cypress"}, GK_CYPRESS, FEATURE_FMA },
{{"hemlock"}, {"cypress"}, GK_CYPRESS, FEATURE_FMA },
{{"juniper"}, {"juniper"}, GK_JUNIPER, FEATURE_NONE },
{{"redwood"}, {"redwood"}, GK_REDWOOD, FEATURE_NONE },
{{"sumo"}, {"sumo"}, GK_SUMO, FEATURE_NONE },
{{"sumo2"}, {"sumo"}, GK_SUMO, FEATURE_NONE },
{{"barts"}, {"barts"}, GK_BARTS, FEATURE_NONE },
{{"caicos"}, {"caicos"}, GK_CAICOS, FEATURE_NONE },
{{"aruba"}, {"cayman"}, GK_CAYMAN, FEATURE_FMA },
{{"cayman"}, {"cayman"}, GK_CAYMAN, FEATURE_FMA },
{{"turks"}, {"turks"}, GK_TURKS, FEATURE_NONE }
};
// This table should be sorted by the value of GPUKind
// Don't bother listing the implicitly true features
constexpr GPUInfo AMDGCNGPUs[] = {
// Name Canonical Kind Features
// Name
{{"gfx600"}, {"gfx600"}, GK_GFX600, FEATURE_FAST_FMA_F32},
{{"tahiti"}, {"gfx600"}, GK_GFX600, FEATURE_FAST_FMA_F32},
{{"gfx601"}, {"gfx601"}, GK_GFX601, FEATURE_NONE},
{{"pitcairn"}, {"gfx601"}, GK_GFX601, FEATURE_NONE},
{{"verde"}, {"gfx601"}, GK_GFX601, FEATURE_NONE},
{{"gfx602"}, {"gfx602"}, GK_GFX602, FEATURE_NONE},
{{"hainan"}, {"gfx602"}, GK_GFX602, FEATURE_NONE},
{{"oland"}, {"gfx602"}, GK_GFX602, FEATURE_NONE},
{{"gfx700"}, {"gfx700"}, GK_GFX700, FEATURE_NONE},
{{"kaveri"}, {"gfx700"}, GK_GFX700, FEATURE_NONE},
{{"gfx701"}, {"gfx701"}, GK_GFX701, FEATURE_FAST_FMA_F32},
{{"hawaii"}, {"gfx701"}, GK_GFX701, FEATURE_FAST_FMA_F32},
{{"gfx702"}, {"gfx702"}, GK_GFX702, FEATURE_FAST_FMA_F32},
{{"gfx703"}, {"gfx703"}, GK_GFX703, FEATURE_NONE},
{{"kabini"}, {"gfx703"}, GK_GFX703, FEATURE_NONE},
{{"mullins"}, {"gfx703"}, GK_GFX703, FEATURE_NONE},
{{"gfx704"}, {"gfx704"}, GK_GFX704, FEATURE_NONE},
{{"bonaire"}, {"gfx704"}, GK_GFX704, FEATURE_NONE},
{{"gfx705"}, {"gfx705"}, GK_GFX705, FEATURE_NONE},
{{"gfx801"}, {"gfx801"}, GK_GFX801, FEATURE_FAST_FMA_F32|FEATURE_FAST_DENORMAL_F32|FEATURE_XNACK},
{{"carrizo"}, {"gfx801"}, GK_GFX801, FEATURE_FAST_FMA_F32|FEATURE_FAST_DENORMAL_F32|FEATURE_XNACK},
{{"gfx802"}, {"gfx802"}, GK_GFX802, FEATURE_FAST_DENORMAL_F32},
{{"iceland"}, {"gfx802"}, GK_GFX802, FEATURE_FAST_DENORMAL_F32},
{{"tonga"}, {"gfx802"}, GK_GFX802, FEATURE_FAST_DENORMAL_F32},
{{"gfx803"}, {"gfx803"}, GK_GFX803, FEATURE_FAST_DENORMAL_F32},
{{"fiji"}, {"gfx803"}, GK_GFX803, FEATURE_FAST_DENORMAL_F32},
{{"polaris10"}, {"gfx803"}, GK_GFX803, FEATURE_FAST_DENORMAL_F32},
{{"polaris11"}, {"gfx803"}, GK_GFX803, FEATURE_FAST_DENORMAL_F32},
{{"gfx805"}, {"gfx805"}, GK_GFX805, FEATURE_FAST_DENORMAL_F32},
{{"tongapro"}, {"gfx805"}, GK_GFX805, FEATURE_FAST_DENORMAL_F32},
{{"gfx810"}, {"gfx810"}, GK_GFX810, FEATURE_FAST_DENORMAL_F32|FEATURE_XNACK},
{{"stoney"}, {"gfx810"}, GK_GFX810, FEATURE_FAST_DENORMAL_F32|FEATURE_XNACK},
{{"gfx900"}, {"gfx900"}, GK_GFX900, FEATURE_FAST_FMA_F32|FEATURE_FAST_DENORMAL_F32|FEATURE_XNACK},
{{"gfx902"}, {"gfx902"}, GK_GFX902, FEATURE_FAST_FMA_F32|FEATURE_FAST_DENORMAL_F32|FEATURE_XNACK},
{{"gfx904"}, {"gfx904"}, GK_GFX904, FEATURE_FAST_FMA_F32|FEATURE_FAST_DENORMAL_F32|FEATURE_XNACK},
{{"gfx906"}, {"gfx906"}, GK_GFX906, FEATURE_FAST_FMA_F32|FEATURE_FAST_DENORMAL_F32|FEATURE_XNACK|FEATURE_SRAMECC},
{{"gfx908"}, {"gfx908"}, GK_GFX908, FEATURE_FAST_FMA_F32|FEATURE_FAST_DENORMAL_F32|FEATURE_XNACK|FEATURE_SRAMECC},
{{"gfx909"}, {"gfx909"}, GK_GFX909, FEATURE_FAST_FMA_F32|FEATURE_FAST_DENORMAL_F32|FEATURE_XNACK},
{{"gfx90a"}, {"gfx90a"}, GK_GFX90A, FEATURE_FAST_FMA_F32|FEATURE_FAST_DENORMAL_F32|FEATURE_XNACK|FEATURE_SRAMECC},
{{"gfx90c"}, {"gfx90c"}, GK_GFX90C, FEATURE_FAST_FMA_F32|FEATURE_FAST_DENORMAL_F32|FEATURE_XNACK},
{{"gfx1010"}, {"gfx1010"}, GK_GFX1010, FEATURE_FAST_FMA_F32|FEATURE_FAST_DENORMAL_F32|FEATURE_WAVE32|FEATURE_XNACK},
{{"gfx1011"}, {"gfx1011"}, GK_GFX1011, FEATURE_FAST_FMA_F32|FEATURE_FAST_DENORMAL_F32|FEATURE_WAVE32|FEATURE_XNACK},
{{"gfx1012"}, {"gfx1012"}, GK_GFX1012, FEATURE_FAST_FMA_F32|FEATURE_FAST_DENORMAL_F32|FEATURE_WAVE32|FEATURE_XNACK},
{{"gfx1013"}, {"gfx1013"}, GK_GFX1013, FEATURE_FAST_FMA_F32|FEATURE_FAST_DENORMAL_F32|FEATURE_WAVE32|FEATURE_XNACK},
{{"gfx1030"}, {"gfx1030"}, GK_GFX1030, FEATURE_FAST_FMA_F32|FEATURE_FAST_DENORMAL_F32|FEATURE_WAVE32},
{{"gfx1031"}, {"gfx1031"}, GK_GFX1031, FEATURE_FAST_FMA_F32|FEATURE_FAST_DENORMAL_F32|FEATURE_WAVE32},
{{"gfx1032"}, {"gfx1032"}, GK_GFX1032, FEATURE_FAST_FMA_F32|FEATURE_FAST_DENORMAL_F32|FEATURE_WAVE32},
{{"gfx1033"}, {"gfx1033"}, GK_GFX1033, FEATURE_FAST_FMA_F32|FEATURE_FAST_DENORMAL_F32|FEATURE_WAVE32},
{{"gfx1034"}, {"gfx1034"}, GK_GFX1034, FEATURE_FAST_FMA_F32|FEATURE_FAST_DENORMAL_F32|FEATURE_WAVE32},
};
const GPUInfo *getArchEntry(AMDGPU::GPUKind AK, ArrayRef<GPUInfo> Table) {
GPUInfo Search = { {""}, {""}, AK, AMDGPU::FEATURE_NONE };
auto I =
llvm::lower_bound(Table, Search, [](const GPUInfo &A, const GPUInfo &B) {
return A.Kind < B.Kind;
});
if (I == Table.end())
return nullptr;
return I;
}
} // namespace
StringRef llvm::AMDGPU::getArchNameAMDGCN(GPUKind AK) {
if (const auto *Entry = getArchEntry(AK, AMDGCNGPUs))
return Entry->CanonicalName;
return "";
}
StringRef llvm::AMDGPU::getArchNameR600(GPUKind AK) {
if (const auto *Entry = getArchEntry(AK, R600GPUs))
return Entry->CanonicalName;
return "";
}
AMDGPU::GPUKind llvm::AMDGPU::parseArchAMDGCN(StringRef CPU) {
for (const auto &C : AMDGCNGPUs) {
if (CPU == C.Name)
return C.Kind;
}
return AMDGPU::GPUKind::GK_NONE;
}
AMDGPU::GPUKind llvm::AMDGPU::parseArchR600(StringRef CPU) {
for (const auto &C : R600GPUs) {
if (CPU == C.Name)
return C.Kind;
}
return AMDGPU::GPUKind::GK_NONE;
}
unsigned AMDGPU::getArchAttrAMDGCN(GPUKind AK) {
if (const auto *Entry = getArchEntry(AK, AMDGCNGPUs))
return Entry->Features;
return FEATURE_NONE;
}
unsigned AMDGPU::getArchAttrR600(GPUKind AK) {
if (const auto *Entry = getArchEntry(AK, R600GPUs))
return Entry->Features;
return FEATURE_NONE;
}
void AMDGPU::fillValidArchListAMDGCN(SmallVectorImpl<StringRef> &Values) {
// XXX: Should this only report unique canonical names?
for (const auto &C : AMDGCNGPUs)
Values.push_back(C.Name);
}
void AMDGPU::fillValidArchListR600(SmallVectorImpl<StringRef> &Values) {
for (const auto &C : R600GPUs)
Values.push_back(C.Name);
}
AMDGPU::IsaVersion AMDGPU::getIsaVersion(StringRef GPU) {
AMDGPU::GPUKind AK = parseArchAMDGCN(GPU);
if (AK == AMDGPU::GPUKind::GK_NONE) {
if (GPU == "generic-hsa")
return {7, 0, 0};
if (GPU == "generic")
return {6, 0, 0};
return {0, 0, 0};
}
switch (AK) {
case GK_GFX600: return {6, 0, 0};
case GK_GFX601: return {6, 0, 1};
case GK_GFX602: return {6, 0, 2};
case GK_GFX700: return {7, 0, 0};
case GK_GFX701: return {7, 0, 1};
case GK_GFX702: return {7, 0, 2};
case GK_GFX703: return {7, 0, 3};
case GK_GFX704: return {7, 0, 4};
case GK_GFX705: return {7, 0, 5};
case GK_GFX801: return {8, 0, 1};
case GK_GFX802: return {8, 0, 2};
case GK_GFX803: return {8, 0, 3};
case GK_GFX805: return {8, 0, 5};
case GK_GFX810: return {8, 1, 0};
case GK_GFX900: return {9, 0, 0};
case GK_GFX902: return {9, 0, 2};
case GK_GFX904: return {9, 0, 4};
case GK_GFX906: return {9, 0, 6};
case GK_GFX908: return {9, 0, 8};
case GK_GFX909: return {9, 0, 9};
case GK_GFX90A: return {9, 0, 10};
case GK_GFX90C: return {9, 0, 12};
case GK_GFX1010: return {10, 1, 0};
case GK_GFX1011: return {10, 1, 1};
case GK_GFX1012: return {10, 1, 2};
case GK_GFX1013: return {10, 1, 3};
case GK_GFX1030: return {10, 3, 0};
case GK_GFX1031: return {10, 3, 1};
case GK_GFX1032: return {10, 3, 2};
case GK_GFX1033: return {10, 3, 3};
case GK_GFX1034: return {10, 3, 4};
default: return {0, 0, 0};
}
}
StringRef AMDGPU::getCanonicalArchName(const Triple &T, StringRef Arch) {
assert(T.isAMDGPU());
auto ProcKind = T.isAMDGCN() ? parseArchAMDGCN(Arch) : parseArchR600(Arch);
if (ProcKind == GK_NONE)
return StringRef();
return T.isAMDGCN() ? getArchNameAMDGCN(ProcKind) : getArchNameR600(ProcKind);
}
namespace llvm {
namespace RISCV {
struct CPUInfo {
StringLiteral Name;
CPUKind Kind;
unsigned Features;
StringLiteral DefaultMarch;
bool is64Bit() const { return (Features & FK_64BIT); }
};
constexpr CPUInfo RISCVCPUInfo[] = {
#define PROC(ENUM, NAME, FEATURES, DEFAULT_MARCH) \
{NAME, CK_##ENUM, FEATURES, DEFAULT_MARCH},
#include "llvm/Support/RISCVTargetParser.def"
};
bool checkCPUKind(CPUKind Kind, bool IsRV64) {
if (Kind == CK_INVALID)
return false;
return RISCVCPUInfo[static_cast<unsigned>(Kind)].is64Bit() == IsRV64;
}
bool checkTuneCPUKind(CPUKind Kind, bool IsRV64) {
if (Kind == CK_INVALID)
return false;
return RISCVCPUInfo[static_cast<unsigned>(Kind)].is64Bit() == IsRV64;
}
CPUKind parseCPUKind(StringRef CPU) {
return llvm::StringSwitch<CPUKind>(CPU)
#define PROC(ENUM, NAME, FEATURES, DEFAULT_MARCH) .Case(NAME, CK_##ENUM)
#include "llvm/Support/RISCVTargetParser.def"
.Default(CK_INVALID);
}
StringRef resolveTuneCPUAlias(StringRef TuneCPU, bool IsRV64) {
return llvm::StringSwitch<StringRef>(TuneCPU)
#define PROC_ALIAS(NAME, RV32, RV64) .Case(NAME, IsRV64 ? StringRef(RV64) : StringRef(RV32))
#include "llvm/Support/RISCVTargetParser.def"
.Default(TuneCPU);
}
CPUKind parseTuneCPUKind(StringRef TuneCPU, bool IsRV64) {
TuneCPU = resolveTuneCPUAlias(TuneCPU, IsRV64);
return llvm::StringSwitch<CPUKind>(TuneCPU)
#define PROC(ENUM, NAME, FEATURES, DEFAULT_MARCH) .Case(NAME, CK_##ENUM)
#include "llvm/Support/RISCVTargetParser.def"
.Default(CK_INVALID);
}
StringRef getMArchFromMcpu(StringRef CPU) {
CPUKind Kind = parseCPUKind(CPU);
return RISCVCPUInfo[static_cast<unsigned>(Kind)].DefaultMarch;
}
void fillValidCPUArchList(SmallVectorImpl<StringRef> &Values, bool IsRV64) {
for (const auto &C : RISCVCPUInfo) {
if (C.Kind != CK_INVALID && IsRV64 == C.is64Bit())
Values.emplace_back(C.Name);
}
}
void fillValidTuneCPUArchList(SmallVectorImpl<StringRef> &Values, bool IsRV64) {
for (const auto &C : RISCVCPUInfo) {
if (C.Kind != CK_INVALID && IsRV64 == C.is64Bit())
Values.emplace_back(C.Name);
}
#define PROC_ALIAS(NAME, RV32, RV64) Values.emplace_back(StringRef(NAME));
#include "llvm/Support/RISCVTargetParser.def"
}
// Get all features except standard extension feature
bool getCPUFeaturesExceptStdExt(CPUKind Kind,
std::vector<StringRef> &Features) {
unsigned CPUFeatures = RISCVCPUInfo[static_cast<unsigned>(Kind)].Features;
if (CPUFeatures == FK_INVALID)
return false;
if (CPUFeatures & FK_64BIT)
Features.push_back("+64bit");
else
Features.push_back("-64bit");
return true;
}
} // namespace RISCV
} // namespace llvm