static bool makeParserAST(CompilerInstance &CI, StringRef Text) {
CompilerInvocation Invocation;
Invocation.setModuleName("main");
Invocation.setInputKind(InputFileKind::IFK_Swift);
std::unique_ptr<llvm::MemoryBuffer> Buf;
Buf = llvm::MemoryBuffer::getMemBuffer(Text, "<module-interface>");
Invocation.addInputBuffer(Buf.get());
if (CI.setup(Invocation))
return true;
CI.performParseOnly();
return false;
}
static bool reportSourceDocInfo(CompilerInvocation Invocation,
llvm::MemoryBuffer *InputBuf,
DocInfoConsumer &Consumer) {
CompilerInstance CI;
// Display diagnostics to stderr.
PrintingDiagnosticConsumer PrintDiags;
CI.addDiagnosticConsumer(&PrintDiags);
EditorDiagConsumer DiagConsumer;
CI.addDiagnosticConsumer(&DiagConsumer);
Invocation.addInputBuffer(InputBuf);
if (CI.setup(Invocation))
return true;
DiagConsumer.setInputBufferIDs(CI.getInputBufferIDs());
ASTContext &Ctx = CI.getASTContext();
CloseClangModuleFiles scopedCloseFiles(*Ctx.getClangModuleLoader());
CI.performSema();
// Setup a typechecker for protocol conformance resolving.
OwnedResolver TypeResolver = createLazyResolver(Ctx);
SourceTextInfo SourceInfo;
if (getSourceTextInfo(CI, SourceInfo))
return true;
addParameterEntities(CI, SourceInfo);
reportDocEntities(Ctx, SourceInfo.TopEntities, Consumer);
reportSourceAnnotations(SourceInfo, CI, Consumer);
for (auto &Diag : DiagConsumer.getDiagnosticsForBuffer(
CI.getInputBufferIDs().back()))
Consumer.handleDiagnostic(Diag);
return false;
}
int main(int argc, char **argv) {
INITIALIZE_LLVM(argc, argv);
llvm::cl::ParseCommandLineOptions(argc, argv, "Swift SIL optimizer\n");
if (PrintStats)
llvm::EnableStatistics();
CompilerInvocation Invocation;
Invocation.setMainExecutablePath(
llvm::sys::fs::getMainExecutable(argv[0],
reinterpret_cast<void *>(&anchorForGetMainExecutable)));
// Give the context the list of search paths to use for modules.
Invocation.setImportSearchPaths(ImportPaths);
std::vector<SearchPathOptions::FrameworkSearchPath> FramePaths;
for (const auto &path : FrameworkPaths) {
FramePaths.push_back({path, /*isSystem=*/false});
}
Invocation.setFrameworkSearchPaths(FramePaths);
// Set the SDK path and target if given.
if (SDKPath.getNumOccurrences() == 0) {
const char *SDKROOT = getenv("SDKROOT");
if (SDKROOT)
SDKPath = SDKROOT;
}
if (!SDKPath.empty())
Invocation.setSDKPath(SDKPath);
if (!Target.empty())
Invocation.setTargetTriple(Target);
if (!ResourceDir.empty())
Invocation.setRuntimeResourcePath(ResourceDir);
Invocation.getFrontendOptions().EnableResilience = EnableResilience;
// Set the module cache path. If not passed in we use the default swift module
// cache.
Invocation.getClangImporterOptions().ModuleCachePath = ModuleCachePath;
Invocation.setParseStdlib();
Invocation.getLangOptions().DisableAvailabilityChecking = true;
Invocation.getLangOptions().EnableAccessControl = false;
Invocation.getLangOptions().EnableObjCAttrRequiresFoundation = false;
Invocation.getLangOptions().EnableObjCInterop =
llvm::Triple(Target).isOSDarwin();
Invocation.getLangOptions().ASTVerifierProcessCount =
ASTVerifierProcessCount;
Invocation.getLangOptions().ASTVerifierProcessId =
ASTVerifierProcessId;
Invocation.getLangOptions().EnableSILOpaqueValues = EnableSILOpaqueValues;
// Setup the SIL Options.
SILOptions &SILOpts = Invocation.getSILOptions();
SILOpts.InlineThreshold = SILInlineThreshold;
SILOpts.VerifyAll = EnableSILVerifyAll;
SILOpts.RemoveRuntimeAsserts = RemoveRuntimeAsserts;
SILOpts.AssertConfig = AssertConfId;
if (OptimizationGroup != OptGroup::Diagnostics)
SILOpts.Optimization = SILOptions::SILOptMode::Optimize;
SILOpts.EnableSILOwnership = EnableSILOwnershipOpt;
SILOpts.AssumeUnqualifiedOwnershipWhenParsing =
AssumeUnqualifiedOwnershipWhenParsing;
switch (EnforceExclusivity) {
case EnforceExclusivityMode::Unchecked:
// This option is analogous to the -Ounchecked optimization setting.
// It will disable dynamic checking but still diagnose statically.
SILOpts.EnforceExclusivityStatic = true;
SILOpts.EnforceExclusivityDynamic = false;
break;
case EnforceExclusivityMode::Checked:
SILOpts.EnforceExclusivityStatic = true;
SILOpts.EnforceExclusivityDynamic = true;
break;
case EnforceExclusivityMode::DynamicOnly:
// This option is intended for staging purposes. The intent is that
// it will eventually be removed.
SILOpts.EnforceExclusivityStatic = false;
SILOpts.EnforceExclusivityDynamic = true;
break;
case EnforceExclusivityMode::None:
// This option is for staging purposes.
SILOpts.EnforceExclusivityStatic = false;
SILOpts.EnforceExclusivityDynamic = false;
break;
}
// Load the input file.
llvm::ErrorOr<std::unique_ptr<llvm::MemoryBuffer>> FileBufOrErr =
llvm::MemoryBuffer::getFileOrSTDIN(InputFilename);
if (!FileBufOrErr) {
fprintf(stderr, "Error! Failed to open file: %s\n", InputFilename.c_str());
exit(-1);
}
// If it looks like we have an AST, set the source file kind to SIL and the
// name of the module to the file's name.
Invocation.addInputBuffer(FileBufOrErr.get().get());
serialization::ExtendedValidationInfo extendedInfo;
auto result = serialization::validateSerializedAST(
FileBufOrErr.get()->getBuffer(), &extendedInfo);
bool HasSerializedAST = result.status == serialization::Status::Valid;
if (HasSerializedAST) {
const StringRef Stem = ModuleName.size() ?
StringRef(ModuleName) :
llvm::sys::path::stem(InputFilename);
Invocation.setModuleName(Stem);
Invocation.setInputKind(InputFileKind::IFK_Swift_Library);
} else {
const StringRef Name = ModuleName.size() ? StringRef(ModuleName) : "main";
Invocation.setModuleName(Name);
Invocation.setInputKind(InputFileKind::IFK_SIL);
}
CompilerInstance CI;
PrintingDiagnosticConsumer PrintDiags;
CI.addDiagnosticConsumer(&PrintDiags);
if (!PerformWMO) {
auto &FrontendOpts = Invocation.getFrontendOptions();
if (!InputFilename.empty() && InputFilename != "-") {
FrontendOpts.PrimaryInput = SelectedInput(
FrontendOpts.InputFilenames.size());
} else {
FrontendOpts.PrimaryInput = SelectedInput(
FrontendOpts.InputBuffers.size(), SelectedInput::InputKind::Buffer);
}
}
if (CI.setup(Invocation))
return 1;
CI.performSema();
// If parsing produced an error, don't run any passes.
if (CI.getASTContext().hadError())
return 1;
// Load the SIL if we have a module. We have to do this after SILParse
// creating the unfortunate double if statement.
if (HasSerializedAST) {
assert(!CI.hasSILModule() &&
"performSema() should not create a SILModule.");
CI.setSILModule(SILModule::createEmptyModule(
CI.getMainModule(), CI.getSILOptions(), PerformWMO));
std::unique_ptr<SerializedSILLoader> SL = SerializedSILLoader::create(
CI.getASTContext(), CI.getSILModule(), nullptr);
if (extendedInfo.isSIB() || DisableSILLinking)
SL->getAllForModule(CI.getMainModule()->getName(), nullptr);
else
SL->getAll();
}
// If we're in verify mode, install a custom diagnostic handling for
// SourceMgr.
if (VerifyMode)
enableDiagnosticVerifier(CI.getSourceMgr());
if (OptimizationGroup == OptGroup::Diagnostics) {
runSILDiagnosticPasses(*CI.getSILModule());
} else if (OptimizationGroup == OptGroup::Performance) {
runSILOptimizationPasses(*CI.getSILModule());
} else if (OptimizationGroup == OptGroup::Lowering) {
runSILLoweringPasses(*CI.getSILModule());
} else {
auto *SILMod = CI.getSILModule();
{
auto T = irgen::createIRGenModule(SILMod, getGlobalLLVMContext());
runCommandLineSelectedPasses(SILMod, T.second);
irgen::deleteIRGenModule(T);
}
}
if (EmitSIB) {
llvm::SmallString<128> OutputFile;
if (OutputFilename.size()) {
OutputFile = OutputFilename;
} else if (ModuleName.size()) {
OutputFile = ModuleName;
llvm::sys::path::replace_extension(OutputFile, SIB_EXTENSION);
} else {
OutputFile = CI.getMainModule()->getName().str();
llvm::sys::path::replace_extension(OutputFile, SIB_EXTENSION);
}
SerializationOptions serializationOpts;
serializationOpts.OutputPath = OutputFile.c_str();
serializationOpts.SerializeAllSIL = true;
serializationOpts.IsSIB = true;
serialize(CI.getMainModule(), serializationOpts, CI.getSILModule());
} else {
const StringRef OutputFile = OutputFilename.size() ?
StringRef(OutputFilename) : "-";
if (OutputFile == "-") {
CI.getSILModule()->print(llvm::outs(), EmitVerboseSIL, CI.getMainModule(),
EnableSILSortOutput, !DisableASTDump);
} else {
std::error_code EC;
llvm::raw_fd_ostream OS(OutputFile, EC, llvm::sys::fs::F_None);
if (EC) {
llvm::errs() << "while opening '" << OutputFile << "': "
<< EC.message() << '\n';
return 1;
}
CI.getSILModule()->print(OS, EmitVerboseSIL, CI.getMainModule(),
EnableSILSortOutput, !DisableASTDump);
}
}
bool HadError = CI.getASTContext().hadError();
// If we're in -verify mode, we've buffered up all of the generated
// diagnostics. Check now to ensure that they meet our expectations.
if (VerifyMode) {
HadError = verifyDiagnostics(CI.getSourceMgr(), CI.getInputBufferIDs(),
/*autoApplyFixes*/false,
/*ignoreUnknown*/false);
DiagnosticEngine &diags = CI.getDiags();
if (diags.hasFatalErrorOccurred() &&
!Invocation.getDiagnosticOptions().ShowDiagnosticsAfterFatalError) {
diags.resetHadAnyError();
diags.diagnose(SourceLoc(), diag::verify_encountered_fatal);
HadError = true;
}
}
return HadError;
}
int main(int argc, char **argv) {
INITIALIZE_LLVM(argc, argv);
llvm::cl::ParseCommandLineOptions(argc, argv, "Swift LLVM IR Generator\n");
if (PrintStats)
llvm::EnableStatistics();
CompilerInvocation Invocation;
Invocation.setMainExecutablePath(llvm::sys::fs::getMainExecutable(
argv[0], reinterpret_cast<void *>(&anchorForGetMainExecutable)));
// Give the context the list of search paths to use for modules.
Invocation.setImportSearchPaths(ImportPaths);
Invocation.setFrameworkSearchPaths(FrameworkPaths);
// Set the SDK path and target if given.
if (SDKPath.getNumOccurrences() == 0) {
const char *SDKROOT = getenv("SDKROOT");
if (SDKROOT)
SDKPath = SDKROOT;
}
if (!SDKPath.empty())
Invocation.setSDKPath(SDKPath);
if (!Target.empty())
Invocation.setTargetTriple(Target);
if (!ResourceDir.empty())
Invocation.setRuntimeResourcePath(ResourceDir);
// Set the module cache path. If not passed in we use the default swift module
// cache.
Invocation.getClangImporterOptions().ModuleCachePath = ModuleCachePath;
Invocation.setParseStdlib();
// Setup the language options
auto &LangOpts = Invocation.getLangOptions();
LangOpts.DisableAvailabilityChecking = true;
LangOpts.EnableAccessControl = false;
LangOpts.EnableObjCAttrRequiresFoundation = false;
LangOpts.EnableObjCInterop = LangOpts.Target.isOSDarwin();
// Setup the SIL Options.
SILOptions &SILOpts = Invocation.getSILOptions();
SILOpts.AssumeUnqualifiedOwnershipWhenParsing =
AssumeUnqualifiedOwnershipWhenParsing;
// Setup the IRGen Options.
IRGenOptions &Opts = Invocation.getIRGenOptions();
Opts.MainInputFilename = InputFilename;
Opts.OutputFilenames.push_back(OutputFilename);
Opts.OutputKind = OutputKind;
// Load the input file.
llvm::ErrorOr<std::unique_ptr<llvm::MemoryBuffer>> FileBufOrErr =
llvm::MemoryBuffer::getFileOrSTDIN(InputFilename);
if (!FileBufOrErr) {
fprintf(stderr, "Error! Failed to open file: %s\n", InputFilename.c_str());
exit(-1);
}
// If it looks like we have an AST, set the source file kind to SIL and the
// name of the module to the file's name.
Invocation.addInputBuffer(FileBufOrErr.get().get());
serialization::ExtendedValidationInfo extendedInfo;
auto result = serialization::validateSerializedAST(
FileBufOrErr.get()->getBuffer(), &extendedInfo);
bool HasSerializedAST = result.status == serialization::Status::Valid;
if (HasSerializedAST) {
const StringRef Stem = ModuleName.size()
? StringRef(ModuleName)
: llvm::sys::path::stem(InputFilename);
Invocation.setModuleName(Stem);
Invocation.setInputKind(InputFileKind::IFK_Swift_Library);
} else {
const StringRef Name = ModuleName.size() ? StringRef(ModuleName) : "main";
Invocation.setModuleName(Name);
Invocation.setInputKind(InputFileKind::IFK_SIL);
}
CompilerInstance CI;
PrintingDiagnosticConsumer PrintDiags;
CI.addDiagnosticConsumer(&PrintDiags);
if (!PerformWMO) {
auto &FrontendOpts = Invocation.getFrontendOptions();
if (!InputFilename.empty() && InputFilename != "-") {
FrontendOpts.PrimaryInput =
SelectedInput(FrontendOpts.InputFilenames.size());
} else {
FrontendOpts.PrimaryInput = SelectedInput(
FrontendOpts.InputBuffers.size(), SelectedInput::InputKind::Buffer);
}
}
if (CI.setup(Invocation))
return 1;
CI.performSema();
// If parsing produced an error, don't run any passes.
if (CI.getASTContext().hadError())
return 1;
// Load the SIL if we have a module. We have to do this after SILParse
// creating the unfortunate double if statement.
if (HasSerializedAST) {
assert(!CI.hasSILModule() &&
"performSema() should not create a SILModule.");
CI.setSILModule(SILModule::createEmptyModule(
CI.getMainModule(), CI.getSILOptions(), PerformWMO));
std::unique_ptr<SerializedSILLoader> SL = SerializedSILLoader::create(
CI.getASTContext(), CI.getSILModule(), nullptr);
if (extendedInfo.isSIB())
SL->getAllForModule(CI.getMainModule()->getName(), nullptr);
else
SL->getAll();
}
std::unique_ptr<llvm::Module> Mod = performIRGeneration(
Opts, CI.getMainModule(), CI.takeSILModule(),
CI.getMainModule()->getName().str(), getGlobalLLVMContext());
return CI.getASTContext().hadError();
}
int main(int argc, char **argv) {
INITIALIZE_LLVM(argc, argv);
llvm::cl::ParseCommandLineOptions(argc, argv, "Swift SIL Extractor\n");
CompilerInvocation Invocation;
Invocation.setMainExecutablePath(llvm::sys::fs::getMainExecutable(
argv[0], reinterpret_cast<void *>(&anchorForGetMainExecutable)));
// Give the context the list of search paths to use for modules.
Invocation.setImportSearchPaths(ImportPaths);
// Set the SDK path and target if given.
if (SDKPath.getNumOccurrences() == 0) {
const char *SDKROOT = getenv("SDKROOT");
if (SDKROOT)
SDKPath = SDKROOT;
}
if (!SDKPath.empty())
Invocation.setSDKPath(SDKPath);
if (!Triple.empty())
Invocation.setTargetTriple(Triple);
if (!ResourceDir.empty())
Invocation.setRuntimeResourcePath(ResourceDir);
Invocation.getClangImporterOptions().ModuleCachePath = ModuleCachePath;
Invocation.setParseStdlib();
Invocation.getLangOptions().DisableAvailabilityChecking = true;
Invocation.getLangOptions().EnableAccessControl = false;
Invocation.getLangOptions().EnableObjCAttrRequiresFoundation = false;
// Load the input file.
llvm::ErrorOr<std::unique_ptr<llvm::MemoryBuffer>> FileBufOrErr =
llvm::MemoryBuffer::getFileOrSTDIN(InputFilename);
if (!FileBufOrErr) {
fprintf(stderr, "Error! Failed to open file: %s\n", InputFilename.c_str());
exit(-1);
}
// If it looks like we have an AST, set the source file kind to SIL and the
// name of the module to the file's name.
Invocation.addInputBuffer(FileBufOrErr.get().get());
serialization::ExtendedValidationInfo extendedInfo;
auto result = serialization::validateSerializedAST(
FileBufOrErr.get()->getBuffer(), &extendedInfo);
bool HasSerializedAST = result.status == serialization::Status::Valid;
if (HasSerializedAST) {
const StringRef Stem = ModuleName.size()
? StringRef(ModuleName)
: llvm::sys::path::stem(InputFilename);
Invocation.setModuleName(Stem);
Invocation.setInputKind(InputFileKind::IFK_Swift_Library);
} else {
Invocation.setModuleName("main");
Invocation.setInputKind(InputFileKind::IFK_SIL);
}
SILOptions &SILOpts = Invocation.getSILOptions();
SILOpts.AssumeUnqualifiedOwnershipWhenParsing =
AssumeUnqualifiedOwnershipWhenParsing;
CompilerInstance CI;
PrintingDiagnosticConsumer PrintDiags;
CI.addDiagnosticConsumer(&PrintDiags);
if (CI.setup(Invocation))
return 1;
CI.performSema();
// If parsing produced an error, don't run any passes.
if (CI.getASTContext().hadError())
return 1;
// Load the SIL if we have a module. We have to do this after SILParse
// creating the unfortunate double if statement.
if (HasSerializedAST) {
assert(!CI.hasSILModule() &&
"performSema() should not create a SILModule.");
CI.setSILModule(
SILModule::createEmptyModule(CI.getMainModule(), CI.getSILOptions()));
std::unique_ptr<SerializedSILLoader> SL = SerializedSILLoader::create(
CI.getASTContext(), CI.getSILModule(), nullptr);
if (extendedInfo.isSIB())
SL->getAllForModule(CI.getMainModule()->getName(), nullptr);
else
SL->getAll();
}
if (CommandLineFunctionNames.empty() && FunctionNameFile.empty())
return CI.getASTContext().hadError();
// For efficient usage, we separate our names into two separate sorted
// lists, one of managled names, and one of unmangled names.
std::vector<std::string> Names;
getFunctionNames(Names);
// First partition our function names into mangled/demangled arrays.
auto FirstDemangledName = std::partition(
Names.begin(), Names.end(), [](const std::string &Name) -> bool {
StringRef NameRef(Name);
return NameRef.startswith("_T") ||
NameRef.startswith(MANGLING_PREFIX_STR);
});
// Then grab offsets to avoid any issues with iterator invalidation when we
// sort.
unsigned NumMangled = std::distance(Names.begin(), FirstDemangledName);
unsigned NumNames = Names.size();
// Then sort the two partitioned arrays.
std::sort(Names.begin(), FirstDemangledName);
std::sort(FirstDemangledName, Names.end());
// Finally construct our ArrayRefs into the sorted std::vector for our
// mangled and demangled names.
ArrayRef<std::string> MangledNames(&*Names.begin(), NumMangled);
ArrayRef<std::string> DemangledNames(&*std::next(Names.begin(), NumMangled),
NumNames - NumMangled);
DEBUG(llvm::errs() << "MangledNames to keep:\n";
std::for_each(MangledNames.begin(), MangledNames.end(),
[](const std::string &str) {
llvm::errs() << " " << str << '\n';
}));
DEBUG(llvm::errs() << "DemangledNames to keep:\n";
std::for_each(DemangledNames.begin(), DemangledNames.end(),
[](const std::string &str) {
llvm::errs() << " " << str << '\n';
}));
removeUnwantedFunctions(CI.getSILModule(), MangledNames, DemangledNames);
if (EmitSIB) {
llvm::SmallString<128> OutputFile;
if (OutputFilename.size()) {
OutputFile = OutputFilename;
} else if (ModuleName.size()) {
OutputFile = ModuleName;
llvm::sys::path::replace_extension(OutputFile, SIB_EXTENSION);
} else {
OutputFile = CI.getMainModule()->getName().str();
llvm::sys::path::replace_extension(OutputFile, SIB_EXTENSION);
}
SerializationOptions serializationOpts;
serializationOpts.OutputPath = OutputFile.c_str();
serializationOpts.SerializeAllSIL = true;
serializationOpts.IsSIB = true;
serialize(CI.getMainModule(), serializationOpts, CI.getSILModule());
} else {
const StringRef OutputFile =
OutputFilename.size() ? StringRef(OutputFilename) : "-";
if (OutputFile == "-") {
CI.getSILModule()->print(llvm::outs(), EmitVerboseSIL, CI.getMainModule(),
EnableSILSortOutput, !DisableASTDump);
} else {
std::error_code EC;
llvm::raw_fd_ostream OS(OutputFile, EC, llvm::sys::fs::F_None);
if (EC) {
llvm::errs() << "while opening '" << OutputFile << "': " << EC.message()
<< '\n';
return 1;
}
CI.getSILModule()->print(OS, EmitVerboseSIL, CI.getMainModule(),
EnableSILSortOutput, !DisableASTDump);
}
}
}
std::unique_ptr<swift::CompilerInstance>
Migrator::performAFixItMigration(version::Version SwiftLanguageVersion) {
auto InputState = States.back();
auto InputText = InputState->getOutputText();
auto InputBuffer =
llvm::MemoryBuffer::getMemBufferCopy(InputText, getInputFilename());
CompilerInvocation Invocation { StartInvocation };
Invocation.clearInputs();
Invocation.getLangOptions().EffectiveLanguageVersion = SwiftLanguageVersion;
auto &LLVMArgs = Invocation.getFrontendOptions().LLVMArgs;
auto aarch64_use_tbi = std::find(LLVMArgs.begin(), LLVMArgs.end(),
"-aarch64-use-tbi");
if (aarch64_use_tbi != LLVMArgs.end()) {
LLVMArgs.erase(aarch64_use_tbi);
}
// SE-0160: When migrating, always use the Swift 3 @objc inference rules,
// which drives warnings with the "@objc" Fix-Its.
Invocation.getLangOptions().EnableSwift3ObjCInference = true;
// The default behavior of the migrator, referred to as "minimal" migration
// in SE-0160, only adds @objc Fix-Its to those cases where the Objective-C
// entry point is explicitly used somewhere in the source code. The user
// may also select a workflow that adds @objc for every declaration that
// would infer @objc under the Swift 3 rules but would no longer infer
// @objc in Swift 4.
Invocation.getLangOptions().WarnSwift3ObjCInference =
getMigratorOptions().KeepObjcVisibility
? Swift3ObjCInferenceWarnings::Complete
: Swift3ObjCInferenceWarnings::Minimal;
const auto &OrigFrontendOpts = StartInvocation.getFrontendOptions();
auto InputBuffers = OrigFrontendOpts.InputBuffers;
auto InputFilenames = OrigFrontendOpts.InputFilenames;
for (const auto &Buffer : InputBuffers) {
Invocation.addInputBuffer(Buffer);
}
for (const auto &Filename : InputFilenames) {
Invocation.addInputFilename(Filename);
}
const unsigned PrimaryIndex =
Invocation.getFrontendOptions().InputBuffers.size();
Invocation.addInputBuffer(InputBuffer.get());
Invocation.getFrontendOptions().PrimaryInput = {
PrimaryIndex, SelectedInput::InputKind::Buffer
};
auto Instance = llvm::make_unique<swift::CompilerInstance>();
if (Instance->setup(Invocation)) {
return nullptr;
}
FixitApplyDiagnosticConsumer FixitApplyConsumer {
InputText,
getInputFilename(),
};
Instance->addDiagnosticConsumer(&FixitApplyConsumer);
Instance->performSema();
StringRef ResultText = InputText;
unsigned ResultBufferID = InputState->getOutputBufferID();
if (FixitApplyConsumer.getNumFixitsApplied() > 0) {
SmallString<4096> Scratch;
llvm::raw_svector_ostream OS(Scratch);
FixitApplyConsumer.printResult(OS);
auto ResultBuffer = llvm::MemoryBuffer::getMemBufferCopy(OS.str());
ResultText = ResultBuffer->getBuffer();
ResultBufferID = SrcMgr.addNewSourceBuffer(std::move(ResultBuffer));
}
States.push_back(MigrationState::make(MigrationKind::CompilerFixits,
SrcMgr, InputState->getOutputBufferID(),
ResultBufferID));
return Instance;
}
