Files
swift-mirror/lib/Serialization/SerializeSIL.cpp
Manman Ren af7fc037b7 SIL Serialization: handle SpecializeInst.
Also handle forward references of local SILValues.
Add testing case for SpecializeInst.


Swift SVN r8510
2013-09-20 20:22:42 +00:00

1109 lines
44 KiB
C++

//===--- SerializeSIL.cpp - Read and write SIL ----------------------------===//
//
// This source file is part of the Swift.org open source project
//
// Copyright (c) 2014 - 2015 Apple Inc. and the Swift project authors
// Licensed under Apache License v2.0 with Runtime Library Exception
//
// See http://swift.org/LICENSE.txt for license information
// See http://swift.org/CONTRIBUTORS.txt for the list of Swift project authors
//
//===----------------------------------------------------------------------===//
#include "SILFormat.h"
#include "Serialization.h"
#include "swift/AST/Module.h"
#include "swift/SIL/SILArgument.h"
#include "swift/SIL/SILModule.h"
// This is a template-only header; eventually it should move to llvm/Support.
#include "clang/Basic/OnDiskHashTable.h"
#include "llvm/ADT/StringExtras.h"
#include "llvm/Support/CommandLine.h"
#include "llvm/Support/Debug.h"
// To help testing serialization, deserialization, we turn on sil-serialize-all.
static llvm::cl::opt<bool>
EnableSerializeAll("sil-serialize-all", llvm::cl::Hidden,
llvm::cl::init(false));
static llvm::cl::opt<bool>
EnableSerialize("enable-sil-serialization", llvm::cl::Hidden,
llvm::cl::init(true));
using namespace swift;
using namespace swift::serialization;
using namespace swift::serialization::sil_block;
namespace {
/// Used to serialize the on-disk func hash table.
class FuncTableInfo {
public:
using key_type = Identifier;
using key_type_ref = key_type;
using data_type = DeclID;
using data_type_ref = const data_type &;
uint32_t ComputeHash(key_type_ref key) {
assert(!key.empty());
return llvm::HashString(key.str());
}
std::pair<unsigned, unsigned> EmitKeyDataLength(raw_ostream &out,
key_type_ref key,
data_type_ref data) {
using namespace clang::io;
uint32_t keyLength = key.str().size();
uint32_t dataLength = sizeof(DeclID);
Emit16(out, keyLength);
Emit16(out, dataLength);
return { keyLength, dataLength };
}
void EmitKey(raw_ostream &out, key_type_ref key, unsigned len) {
out << key.str();
}
void EmitData(raw_ostream &out, key_type_ref key, data_type_ref data,
unsigned len) {
static_assert(sizeof(DeclID) <= 32, "DeclID too large");
using namespace clang::io;
Emit32(out, data);
}
};
class SILSerializer {
Serializer &S;
ASTContext &Ctx;
llvm::BitstreamWriter &Out;
/// A reusable buffer for emitting records.
SmallVector<uint64_t, 64> ScratchRecord;
/// In case we want to encode the relative of InstID vs ValueID.
ValueID InstID = 0;
llvm::DenseMap<const ValueBase*, ValueID> ValueIDs;
ValueID LastValueID = 0;
ValueID addValueRef(SILValue SV) {
return addValueRef(SV.getDef());
}
ValueID addValueRef(const ValueBase *Val);
/// FuncTable maps function name to an ID.
using TableData = FuncTableInfo::data_type;
using Table = llvm::DenseMap<FuncTableInfo::key_type, TableData>;
Table FuncTable;
std::vector<BitOffset> Funcs;
/// The current function ID.
DeclID FuncID;
/// Give each SILBasicBlock a unique ID.
llvm::DenseMap<const SILBasicBlock*, unsigned> BasicBlockMap;
std::array<unsigned, 256> SILAbbrCodes;
template <typename Layout>
void registerSILAbbr() {
using AbbrArrayTy = decltype(SILAbbrCodes);
static_assert(Layout::Code <= std::tuple_size<AbbrArrayTy>::value,
"layout has invalid record code");
SILAbbrCodes[Layout::Code] = Layout::emitAbbrev(Out);
DEBUG(llvm::dbgs() << "SIL abbre code " << SILAbbrCodes[Layout::Code]
<< "\n");
}
/// Helper function to update ListOfValues for MethodInst. Format:
/// Attr, SILDeclRef (DeclID, Kind, uncurryLevel, IsObjC), and an operand.
void handleMethodInst(const MethodInst *MI, SILValue operand,
SmallVectorImpl<ValueID> &ListOfValues);
void writeSILFunction(const SILFunction &F);
void writeSILBasicBlock(const SILBasicBlock &BB);
void writeSILInstruction(const SILInstruction &SI);
void writeFuncTable();
public:
SILSerializer(Serializer &S, ASTContext &Ctx,
llvm::BitstreamWriter &Out);
void writeAllSILFunctions(const SILModule *M);
};
} // end anonymous namespace
SILSerializer::SILSerializer(Serializer &S, ASTContext &Ctx,
llvm::BitstreamWriter &Out) :
S(S), Ctx(Ctx), Out(Out), FuncID(1) {
}
/// We enumerate all values to update ValueIDs in a separate pass
/// to correctly handle forward reference of a value.
ValueID SILSerializer::addValueRef(const ValueBase *Val) {
if (!Val)
return 0;
ValueID &id = ValueIDs[Val];
if (id != 0)
return id;
id = ++LastValueID;
return id;
}
void SILSerializer::writeSILFunction(const SILFunction &F) {
DEBUG(llvm::dbgs() << "Serialize SIL:\n";
F.dump());
LastValueID = 0;
ValueIDs.clear();
InstID = 0;
FuncTable[Ctx.getIdentifier(F.getName())] = FuncID++;
Funcs.push_back(Out.GetCurrentBitNo());
unsigned abbrCode = SILAbbrCodes[SILFunctionLayout::Code];
TypeID FnID = S.addTypeRef(F.getLoweredType().getSwiftType());
DEBUG(llvm::dbgs() << "SILFunction @" << Out.GetCurrentBitNo() <<
" abbrCode " << abbrCode << " FnID " << FnID << "\n");
SILFunctionLayout::emitRecord(Out, ScratchRecord, abbrCode,
(unsigned)F.getLinkage(), FnID);
// Assign a unique ID to each basic block of the SILFunction.
unsigned BasicID = 0;
BasicBlockMap.clear();
for (const SILBasicBlock &BB : F)
BasicBlockMap.insert(std::make_pair(&BB, BasicID++));
for (const SILBasicBlock &BB : F)
writeSILBasicBlock(BB);
}
void SILSerializer::writeSILBasicBlock(const SILBasicBlock &BB) {
SmallVector<DeclID, 4> Args;
for (auto I = BB.bbarg_begin(), E = BB.bbarg_end(); I != E; ++I) {
SILArgument *SA = *I;
DeclID tId = S.addTypeRef(SA->getType().getSwiftRValueType());
DeclID vId = addValueRef(static_cast<const ValueBase*>(SA));
Args.push_back(tId);
Args.push_back((unsigned)SA->getType().getCategory());
Args.push_back(vId);
}
unsigned abbrCode = SILAbbrCodes[SILBasicBlockLayout::Code];
SILBasicBlockLayout::emitRecord(Out, ScratchRecord, abbrCode, Args);
for (const SILInstruction &SI : BB)
writeSILInstruction(SI);
}
/// Helper function to update ListOfValues for MethodInst. Format:
/// Attr, SILDeclRef (DeclID, Kind, uncurryLevel, IsObjC), and an operand.
void SILSerializer::handleMethodInst(const MethodInst *MI,
SILValue operand,
SmallVectorImpl<ValueID> &ListOfValues) {
ListOfValues.push_back(MI->isVolatile());
ListOfValues.push_back(S.addDeclRef(MI->getMember().getDecl()));
ListOfValues.push_back((unsigned)MI->getMember().kind);
ListOfValues.push_back(MI->getMember().uncurryLevel);
ListOfValues.push_back(MI->getMember().isObjC);
ListOfValues.push_back(
S.addTypeRef(operand.getType().getSwiftRValueType()));
ListOfValues.push_back((unsigned)operand.getType().getCategory());
ListOfValues.push_back(addValueRef(operand));
ListOfValues.push_back(operand.getResultNumber());
}
void SILSerializer::writeSILInstruction(const SILInstruction &SI) {
switch (SI.getKind()) {
default: {
unsigned abbrCode = SILAbbrCodes[SILInstTodoLayout::Code];
SILInstTodoLayout::emitRecord(Out, ScratchRecord, abbrCode,
(unsigned)SI.getKind());
break;
}
case ValueKind::DeallocBoxInst:
case ValueKind::InitExistentialInst:
case ValueKind::InitExistentialRefInst:
case ValueKind::ArchetypeMetatypeInst:
case ValueKind::ClassMetatypeInst:
case ValueKind::ProtocolMetatypeInst:
case ValueKind::AllocArrayInst: {
SILValue operand;
SILType Ty;
switch (SI.getKind()) {
default: assert(0 && "Out of sync with parent switch");
case ValueKind::ArchetypeMetatypeInst:
operand = cast<ArchetypeMetatypeInst>(&SI)->getOperand();
Ty = cast<ArchetypeMetatypeInst>(&SI)->getType();
break;
case ValueKind::ClassMetatypeInst:
operand = cast<ClassMetatypeInst>(&SI)->getOperand();
Ty = cast<ClassMetatypeInst>(&SI)->getType();
break;
case ValueKind::InitExistentialInst:
operand = cast<InitExistentialInst>(&SI)->getOperand();
Ty = cast<InitExistentialInst>(&SI)->getConcreteType();
break;
case ValueKind::InitExistentialRefInst:
operand = cast<InitExistentialRefInst>(&SI)->getOperand();
Ty = cast<InitExistentialRefInst>(&SI)->getType();
break;
case ValueKind::ProtocolMetatypeInst:
operand = cast<ProtocolMetatypeInst>(&SI)->getOperand();
Ty = cast<ProtocolMetatypeInst>(&SI)->getType();
break;
case ValueKind::DeallocBoxInst:
operand = cast<DeallocBoxInst>(&SI)->getOperand();
Ty = cast<DeallocBoxInst>(&SI)->getElementType();
break;
case ValueKind::AllocArrayInst:
operand = cast<AllocArrayInst>(&SI)->getNumElements();
Ty = cast<AllocArrayInst>(&SI)->getElementType();
break;
}
unsigned abbrCode = SILAbbrCodes[SILOneTypeOneOperandLayout::Code];
SILOneTypeOneOperandLayout::emitRecord(Out, ScratchRecord, abbrCode,
(unsigned)SI.getKind(), 0,
S.addTypeRef(Ty.getSwiftRValueType()),
(unsigned)Ty.getCategory(),
S.addTypeRef(operand.getType().getSwiftRValueType()),
(unsigned)operand.getType().getCategory(),
addValueRef(operand),
operand.getResultNumber());
break;
}
case ValueKind::AllocBoxInst: {
const AllocBoxInst *ABI = cast<AllocBoxInst>(&SI);
unsigned abbrCode = SILAbbrCodes[SILOneTypeLayout::Code];
SILOneTypeLayout::emitRecord(Out, ScratchRecord, abbrCode,
(unsigned)SI.getKind(),
S.addTypeRef(ABI->getElementType().getSwiftRValueType()),
(unsigned)ABI->getElementType().getCategory());
break;
}
case ValueKind::AllocRefInst: {
const AllocRefInst *ARI = cast<AllocRefInst>(&SI);
unsigned abbrCode = SILAbbrCodes[SILOneTypeLayout::Code];
SILOneTypeLayout::emitRecord(Out, ScratchRecord, abbrCode,
(unsigned)SI.getKind(),
S.addTypeRef(ARI->getType().getSwiftRValueType()),
(unsigned)ARI->getType().getCategory());
break;
}
case ValueKind::AllocStackInst: {
const AllocStackInst *ASI = cast<AllocStackInst>(&SI);
unsigned abbrCode = SILAbbrCodes[SILOneTypeLayout::Code];
SILOneTypeLayout::emitRecord(Out, ScratchRecord, abbrCode,
(unsigned)SI.getKind(),
S.addTypeRef(ASI->getElementType().getSwiftRValueType()),
(unsigned)ASI->getElementType().getCategory());
break;
}
case ValueKind::BuiltinZeroInst: {
const BuiltinZeroInst *BZI = cast<BuiltinZeroInst>(&SI);
unsigned abbrCode = SILAbbrCodes[SILOneTypeLayout::Code];
SILOneTypeLayout::emitRecord(Out, ScratchRecord, abbrCode,
(unsigned)SI.getKind(),
S.addTypeRef(BZI->getType().getSwiftRValueType()),
(unsigned)BZI->getType().getCategory());
break;
}
case ValueKind::ApplyInst: {
// Format: attributes such as transparent, the callee's type, a value for
// the callee and a list of values for the arguments. Each value in the list
// is represented with 2 IDs: ValueID and ValueResultNumber.
const ApplyInst *AI = cast<ApplyInst>(&SI);
SmallVector<ValueID, 4> Args;
for (auto Arg: AI->getArguments()) {
Args.push_back(addValueRef(Arg));
Args.push_back(Arg.getResultNumber());
}
SILInstApplyLayout::emitRecord(Out, ScratchRecord,
SILAbbrCodes[SILInstApplyLayout::Code], 0/*Transparent*/,
(unsigned)AI->isTransparent(),
S.addTypeRef(AI->getCallee().getType().getSwiftRValueType()),
(unsigned)AI->getCallee().getType().getCategory(),
addValueRef(AI->getCallee()), AI->getCallee().getResultNumber(),
Args);
break;
}
case ValueKind::PartialApplyInst: {
const PartialApplyInst *PAI = cast<PartialApplyInst>(&SI);
SmallVector<ValueID, 4> Args;
for (auto Arg: PAI->getArguments()) {
Args.push_back(addValueRef(Arg));
Args.push_back(Arg.getResultNumber());
}
SILInstApplyLayout::emitRecord(Out, ScratchRecord,
SILAbbrCodes[SILInstApplyLayout::Code], 1/*PartialApply*/,
0/*Transparent*/,
S.addTypeRef(PAI->getCallee().getType().getSwiftRValueType()),
(unsigned)PAI->getCallee().getType().getCategory(),
addValueRef(PAI->getCallee()), PAI->getCallee().getResultNumber(),
Args);
break;
}
case ValueKind::BuiltinFunctionRefInst: {
// Format: FuncDecl and type. Use SILOneOperandLayout.
const BuiltinFunctionRefInst *BFR = cast<BuiltinFunctionRefInst>(&SI);
SILOneOperandLayout::emitRecord(Out, ScratchRecord,
SILAbbrCodes[SILOneOperandLayout::Code],
(unsigned)SI.getKind(), 0,
S.addTypeRef(BFR->getType().getSwiftRValueType()),
(unsigned)BFR->getType().getCategory(),
S.addDeclRef(BFR->getFunction()), 0);
break;
}
case ValueKind::GlobalAddrInst: {
// Format: VarDecl and type. Use SILOneOperandLayout.
const GlobalAddrInst *GAI = cast<GlobalAddrInst>(&SI);
SILOneOperandLayout::emitRecord(Out, ScratchRecord,
SILAbbrCodes[SILOneOperandLayout::Code],
(unsigned)SI.getKind(), 0,
S.addTypeRef(GAI->getType().getSwiftRValueType()),
(unsigned)GAI->getType().getCategory(),
S.addDeclRef(GAI->getGlobal()), 0);
break;
}
case ValueKind::BranchInst: {
// Format: destination basic block ID, a list of arguments. Use
// SILOneTypeValuesLayout.
const BranchInst *BrI = cast<BranchInst>(&SI);
SmallVector<ValueID, 4> ListOfValues;
for (auto Elt : BrI->getArgs()) {
ListOfValues.push_back(S.addTypeRef(Elt.getType().getSwiftRValueType()));
ListOfValues.push_back((unsigned)Elt.getType().getCategory());
ListOfValues.push_back(addValueRef(Elt));
ListOfValues.push_back(Elt.getResultNumber());
}
SILOneTypeValuesLayout::emitRecord(Out, ScratchRecord,
SILAbbrCodes[SILOneTypeValuesLayout::Code],
(unsigned)SI.getKind(),
BasicBlockMap[BrI->getDestBB()], 0, ListOfValues);
break;
}
case ValueKind::CondBranchInst: {
// Format: condition, true basic block ID, a list of arguments, false basic
// block ID, a list of arguments. Use SILOneTypeValuesLayout: the type is
// for condition, the list has value for condition, true basic block ID,
// false basic block ID, number of true arguments, and a list of true|false
// arguments.
const CondBranchInst *CBI = cast<CondBranchInst>(&SI);
SmallVector<ValueID, 4> ListOfValues;
ListOfValues.push_back(addValueRef(CBI->getCondition()));
ListOfValues.push_back(CBI->getCondition().getResultNumber());
ListOfValues.push_back(BasicBlockMap[CBI->getTrueBB()]);
ListOfValues.push_back(BasicBlockMap[CBI->getFalseBB()]);
ListOfValues.push_back(CBI->getTrueArgs().size());
for (auto Elt : CBI->getTrueArgs()) {
ListOfValues.push_back(S.addTypeRef(Elt.getType().getSwiftRValueType()));
ListOfValues.push_back((unsigned)Elt.getType().getCategory());
ListOfValues.push_back(addValueRef(Elt));
ListOfValues.push_back(Elt.getResultNumber());
}
for (auto Elt : CBI->getFalseArgs()) {
ListOfValues.push_back(S.addTypeRef(Elt.getType().getSwiftRValueType()));
ListOfValues.push_back((unsigned)Elt.getType().getCategory());
ListOfValues.push_back(addValueRef(Elt));
ListOfValues.push_back(Elt.getResultNumber());
}
SILOneTypeValuesLayout::emitRecord(Out, ScratchRecord,
SILAbbrCodes[SILOneTypeValuesLayout::Code],
(unsigned)SI.getKind(),
S.addTypeRef(CBI->getCondition().getType().getSwiftRValueType()),
(unsigned)CBI->getCondition().getType().getCategory(),
ListOfValues);
break;
}
case ValueKind::SwitchEnumInst:
case ValueKind::DestructiveSwitchEnumAddrInst: {
// Format: condition, a list of cases (EnumElementDecl + Basic Block ID),
// default basic block ID. Use SILOneTypeValuesLayout: the type is
// for condition, the list has value for condition, hasDefault, default
// basic block ID, a list of (DeclID, BasicBlock ID).
const SwitchEnumInstBase *SOI = cast<SwitchEnumInstBase>(&SI);
SmallVector<ValueID, 4> ListOfValues;
ListOfValues.push_back(addValueRef(SOI->getOperand()));
ListOfValues.push_back(SOI->getOperand().getResultNumber());
ListOfValues.push_back((unsigned)SOI->hasDefault());
if (SOI->hasDefault())
ListOfValues.push_back(BasicBlockMap[SOI->getDefaultBB()]);
else
ListOfValues.push_back(0);
for (unsigned i = 0, e = SOI->getNumCases(); i < e; ++i) {
EnumElementDecl *elt;
SILBasicBlock *dest;
std::tie(elt, dest) = SOI->getCase(i);
ListOfValues.push_back(S.addDeclRef(elt));
ListOfValues.push_back(BasicBlockMap[dest]);
}
SILOneTypeValuesLayout::emitRecord(Out, ScratchRecord,
SILAbbrCodes[SILOneTypeValuesLayout::Code],
(unsigned)SI.getKind(),
S.addTypeRef(SOI->getOperand().getType().getSwiftRValueType()),
(unsigned)SOI->getOperand().getType().getCategory(),
ListOfValues);
break;
}
case ValueKind::DeallocStackInst:
case ValueKind::DeallocRefInst:
case ValueKind::DeinitExistentialInst:
case ValueKind::DestroyAddrInst:
case ValueKind::InitializeVarInst:
case ValueKind::IsNonnullInst:
case ValueKind::LoadInst:
case ValueKind::LoadWeakInst:
case ValueKind::MarkUninitializedInst:
case ValueKind::StrongReleaseInst:
case ValueKind::StrongRetainInst:
case ValueKind::StrongRetainAutoreleasedInst:
case ValueKind::AutoreleaseReturnInst:
case ValueKind::StrongRetainUnownedInst:
case ValueKind::UnownedRetainInst:
case ValueKind::UnownedReleaseInst:
case ValueKind::ReturnInst: {
unsigned Attr = 0;
if (SI.getKind() == ValueKind::LoadWeakInst)
Attr = cast<LoadWeakInst>(&SI)->isTake();
else if (SI.getKind() == ValueKind::InitializeVarInst)
Attr = cast<InitializeVarInst>(&SI)->canDefaultConstruct();
unsigned abbrCode = SILAbbrCodes[SILOneOperandLayout::Code];
SILOneOperandLayout::emitRecord(Out, ScratchRecord, abbrCode,
(unsigned)SI.getKind(), Attr,
S.addTypeRef(SI.getOperand(0).getType().getSwiftRValueType()),
(unsigned)SI.getOperand(0).getType().getCategory(),
addValueRef(SI.getOperand(0)),
SI.getOperand(0).getResultNumber());
break;
}
case ValueKind::FunctionRefInst: {
// Use SILOneOperandLayout to specify the function type and the function
// name (IdentifierID).
const FunctionRefInst *FRI = cast<FunctionRefInst>(&SI);
unsigned abbrCode = SILAbbrCodes[SILOneOperandLayout::Code];
SILOneOperandLayout::emitRecord(Out, ScratchRecord, abbrCode,
(unsigned)SI.getKind(), 0,
S.addTypeRef(FRI->getType().getSwiftRValueType()),
(unsigned)FRI->getType().getCategory(),
S.addIdentifierRef(Ctx.getIdentifier(FRI->getFunction()->getName())),
0);
break;
}
case ValueKind::IndexAddrInst:
case ValueKind::IndexRawPointerInst:
case ValueKind::UpcastExistentialInst: {
SILValue operand, operand2;
unsigned Attr = 0;
if (SI.getKind() == ValueKind::IndexRawPointerInst) {
const IndexRawPointerInst *IRP = cast<IndexRawPointerInst>(&SI);
operand = IRP->getBase();
operand2 = IRP->getIndex();
} else if (SI.getKind() == ValueKind::UpcastExistentialInst) {
Attr = cast<UpcastExistentialInst>(&SI)->isTakeOfSrc();
operand = cast<UpcastExistentialInst>(&SI)->getSrcExistential();
operand2 = cast<UpcastExistentialInst>(&SI)->getDestExistential();
} else {
const IndexAddrInst *IAI = cast<IndexAddrInst>(&SI);
operand = IAI->getBase();
operand2 = IAI->getIndex();
}
SILTwoOperandsLayout::emitRecord(Out, ScratchRecord,
SILAbbrCodes[SILTwoOperandsLayout::Code],
(unsigned)SI.getKind(), Attr,
S.addTypeRef(operand.getType().getSwiftRValueType()),
(unsigned)operand.getType().getCategory(),
addValueRef(operand), operand.getResultNumber(),
S.addTypeRef(operand2.getType().getSwiftRValueType()),
(unsigned)operand2.getType().getCategory(),
addValueRef(operand2), operand2.getResultNumber());
break;
}
case ValueKind::FloatLiteralInst:
case ValueKind::IntegerLiteralInst:
case ValueKind::StringLiteralInst: {
// Use SILOneOperandLayout to specify the type and the literal.
StringRef Str;
SILType Ty;
switch (SI.getKind()) {
default: assert(0 && "Out of sync with parent switch");
case ValueKind::IntegerLiteralInst:
Str = cast<IntegerLiteralInst>(&SI)->getValue().toString(10, true);
Ty = cast<IntegerLiteralInst>(&SI)->getType();
break;
case ValueKind::FloatLiteralInst:
Str = cast<FloatLiteralInst>(&SI)->getBits().toString(16,
/*Signed*/false);
Ty = cast<FloatLiteralInst>(&SI)->getType();
break;
case ValueKind::StringLiteralInst:
Str = cast<StringLiteralInst>(&SI)->getValue();
Ty = cast<StringLiteralInst>(&SI)->getType();
break;
}
unsigned abbrCode = SILAbbrCodes[SILOneOperandLayout::Code];
SILOneOperandLayout::emitRecord(Out, ScratchRecord, abbrCode,
(unsigned)SI.getKind(), 0,
S.addTypeRef(Ty.getSwiftRValueType()),
(unsigned)Ty.getCategory(),
S.addIdentifierRef(Ctx.getIdentifier(Str)),
0);
break;
}
case ValueKind::MarkFunctionEscapeInst: {
// Format: a list of typed values. A typed value is expressed by 4 IDs:
// TypeID, TypeCategory, ValueID, ValueResultNumber.
const MarkFunctionEscapeInst *MFE = cast<MarkFunctionEscapeInst>(&SI);
SmallVector<ValueID, 4> ListOfValues;
for (auto Elt : MFE->getElements()) {
ListOfValues.push_back(S.addTypeRef(Elt.getType().getSwiftRValueType()));
ListOfValues.push_back((unsigned)Elt.getType().getCategory());
ListOfValues.push_back(addValueRef(Elt));
ListOfValues.push_back(Elt.getResultNumber());
}
SILOneTypeValuesLayout::emitRecord(Out, ScratchRecord,
SILAbbrCodes[SILOneTypeValuesLayout::Code],
(unsigned)SI.getKind(), 0, 0, ListOfValues);
break;
}
case ValueKind::MetatypeInst: {
const MetatypeInst *MI = cast<MetatypeInst>(&SI);
unsigned abbrCode = SILAbbrCodes[SILOneTypeLayout::Code];
SILOneTypeLayout::emitRecord(Out, ScratchRecord, abbrCode,
(unsigned)SI.getKind(),
S.addTypeRef(MI->getType().getSwiftRValueType()),
(unsigned)MI->getType().getCategory());
break;
}
case ValueKind::ModuleInst: {
// Has IdentifierID for the module reference. Use SILOneTypeLayout.
const ModuleInst *MI = cast<ModuleInst>(&SI);
ModuleType *MT = MI->getType().castTo<ModuleType>();
SILOneTypeLayout::emitRecord(Out, ScratchRecord,
SILAbbrCodes[SILOneTypeLayout::Code],
(unsigned)SI.getKind(),
S.addModuleRef(MT->getModule()), 0);
break;
}
case ValueKind::ProjectExistentialInst: {
const ProjectExistentialInst *PEI = cast<ProjectExistentialInst>(&SI);
SILOneTypeOneOperandLayout::emitRecord(Out, ScratchRecord,
SILAbbrCodes[SILOneTypeOneOperandLayout::Code],
(unsigned)SI.getKind(), 0,
S.addTypeRef(PEI->getType().getSwiftRValueType()),
(unsigned)PEI->getType().getCategory(),
S.addTypeRef(PEI->getOperand().getType().getSwiftRValueType()),
(unsigned)PEI->getOperand().getType().getCategory(),
addValueRef(PEI->getOperand()),
PEI->getOperand().getResultNumber());
break;
}
case ValueKind::ProjectExistentialRefInst: {
const ProjectExistentialRefInst *PEI = cast<ProjectExistentialRefInst>(&SI);
SILOneOperandLayout::emitRecord(Out, ScratchRecord,
SILAbbrCodes[SILOneOperandLayout::Code],
(unsigned)SI.getKind(), 0,
S.addTypeRef(PEI->getOperand().getType().getSwiftRValueType()),
(unsigned)PEI->getOperand().getType().getCategory(),
addValueRef(PEI->getOperand()),
PEI->getOperand().getResultNumber());
break;
}
// Conversion instructions.
case ValueKind::RefToObjectPointerInst:
case ValueKind::UpcastInst:
case ValueKind::CoerceInst:
case ValueKind::AddressToPointerInst:
case ValueKind::PointerToAddressInst:
case ValueKind::ObjectPointerToRefInst:
case ValueKind::RefToRawPointerInst:
case ValueKind::RawPointerToRefInst:
case ValueKind::RefToUnownedInst:
case ValueKind::UnownedToRefInst:
case ValueKind::ConvertCCInst:
case ValueKind::ThinToThickFunctionInst:
case ValueKind::BridgeToBlockInst:
case ValueKind::ArchetypeRefToSuperInst:
case ValueKind::ConvertFunctionInst:
case ValueKind::UpcastExistentialRefInst: {
SILValue operand;
SILType Ty;
switch (SI.getKind()) {
default: assert(0 && "Out of sync with parent switch");
case ValueKind::RefToObjectPointerInst:
operand = cast<RefToObjectPointerInst>(&SI)->getOperand();
Ty = cast<RefToObjectPointerInst>(&SI)->getType();
break;
case ValueKind::UpcastInst:
operand = cast<UpcastInst>(&SI)->getOperand();
Ty = cast<UpcastInst>(&SI)->getType();
break;
case ValueKind::CoerceInst:
operand = cast<CoerceInst>(&SI)->getOperand();
Ty = cast<CoerceInst>(&SI)->getType();
break;
case ValueKind::AddressToPointerInst:
operand = cast<AddressToPointerInst>(&SI)->getOperand();
Ty = cast<AddressToPointerInst>(&SI)->getType();
break;
case ValueKind::PointerToAddressInst:
operand = cast<PointerToAddressInst>(&SI)->getOperand();
Ty = cast<PointerToAddressInst>(&SI)->getType();
break;
case ValueKind::ObjectPointerToRefInst:
operand = cast<ObjectPointerToRefInst>(&SI)->getOperand();
Ty = cast<ObjectPointerToRefInst>(&SI)->getType();
break;
case ValueKind::RefToRawPointerInst:
operand = cast<RefToRawPointerInst>(&SI)->getOperand();
Ty = cast<RefToRawPointerInst>(&SI)->getType();
break;
case ValueKind::RawPointerToRefInst:
operand = cast<RawPointerToRefInst>(&SI)->getOperand();
Ty = cast<RawPointerToRefInst>(&SI)->getType();
break;
case ValueKind::RefToUnownedInst:
operand = cast<RefToUnownedInst>(&SI)->getOperand();
Ty = cast<RefToUnownedInst>(&SI)->getType();
break;
case ValueKind::UnownedToRefInst:
operand = cast<UnownedToRefInst>(&SI)->getOperand();
Ty = cast<UnownedToRefInst>(&SI)->getType();
break;
case ValueKind::ConvertCCInst:
operand = cast<ConvertCCInst>(&SI)->getOperand();
Ty = cast<ConvertCCInst>(&SI)->getType();
break;
case ValueKind::ThinToThickFunctionInst:
operand = cast<ThinToThickFunctionInst>(&SI)->getOperand();
Ty = cast<ThinToThickFunctionInst>(&SI)->getType();
break;
case ValueKind::BridgeToBlockInst:
operand = cast<BridgeToBlockInst>(&SI)->getOperand();
Ty = cast<BridgeToBlockInst>(&SI)->getType();
break;
case ValueKind::ArchetypeRefToSuperInst:
operand = cast<ArchetypeRefToSuperInst>(&SI)->getOperand();
Ty = cast<ArchetypeRefToSuperInst>(&SI)->getType();
break;
case ValueKind::ConvertFunctionInst:
operand = cast<ConvertFunctionInst>(&SI)->getOperand();
Ty = cast<ConvertFunctionInst>(&SI)->getType();
break;
case ValueKind::UpcastExistentialRefInst:
operand = cast<UpcastExistentialRefInst>(&SI)->getOperand();
Ty = cast<UpcastExistentialRefInst>(&SI)->getType();
break;
}
SILOneTypeOneOperandLayout::emitRecord(Out, ScratchRecord,
SILAbbrCodes[SILOneTypeOneOperandLayout::Code],
(unsigned)SI.getKind(), 0,
S.addTypeRef(Ty.getSwiftRValueType()),
(unsigned)Ty.getCategory(),
S.addTypeRef(operand.getType().getSwiftRValueType()),
(unsigned)operand.getType().getCategory(),
addValueRef(operand), operand.getResultNumber());
break;
}
// Checked Conversion instructions.
case ValueKind::DowncastInst:
case ValueKind::SuperToArchetypeRefInst:
case ValueKind::DowncastArchetypeAddrInst:
case ValueKind::DowncastArchetypeRefInst:
case ValueKind::ProjectDowncastExistentialAddrInst:
case ValueKind::DowncastExistentialRefInst: {
SILValue operand;
const CheckedConversionInst *CI;
switch (SI.getKind()) {
default: assert(0 && "Out of sync with parent switch");
case ValueKind::DowncastInst:
operand = cast<DowncastInst>(&SI)->getOperand();
CI = cast<DowncastInst>(&SI);
break;
case ValueKind::SuperToArchetypeRefInst:
operand = cast<SuperToArchetypeRefInst>(&SI)->getOperand();
CI = cast<SuperToArchetypeRefInst>(&SI);
break;
case ValueKind::DowncastArchetypeAddrInst:
operand = cast<DowncastArchetypeAddrInst>(&SI)->getOperand();
CI = cast<DowncastArchetypeAddrInst>(&SI);
break;
case ValueKind::DowncastArchetypeRefInst:
operand = cast<DowncastArchetypeRefInst>(&SI)->getOperand();
CI = cast<DowncastArchetypeRefInst>(&SI);
break;
case ValueKind::ProjectDowncastExistentialAddrInst:
operand = cast<ProjectDowncastExistentialAddrInst>(&SI)->getOperand();
CI = cast<ProjectDowncastExistentialAddrInst>(&SI);
break;
case ValueKind::DowncastExistentialRefInst:
operand = cast<DowncastExistentialRefInst>(&SI)->getOperand();
CI = cast<DowncastExistentialRefInst>(&SI);
break;
}
SILOneTypeOneOperandLayout::emitRecord(Out, ScratchRecord,
SILAbbrCodes[SILOneTypeOneOperandLayout::Code],
(unsigned)SI.getKind(), (unsigned)CI->getMode(),
S.addTypeRef(CI->getType().getSwiftRValueType()),
(unsigned)CI->getType().getCategory(),
S.addTypeRef(operand.getType().getSwiftRValueType()),
(unsigned)operand.getType().getCategory(),
addValueRef(operand), operand.getResultNumber());
break;
}
case ValueKind::AssignInst:
case ValueKind::CopyAddrInst:
case ValueKind::StoreInst:
case ValueKind::StoreWeakInst: {
SILValue operand, value;
unsigned Attr = 0;
if (SI.getKind() == ValueKind::StoreWeakInst) {
Attr = cast<StoreWeakInst>(&SI)->isInitializationOfDest();
operand = cast<StoreWeakInst>(&SI)->getDest();
value = cast<StoreWeakInst>(&SI)->getSrc();
} else if (SI.getKind() == ValueKind::StoreInst) {
operand = cast<StoreInst>(&SI)->getDest();
value = cast<StoreInst>(&SI)->getSrc();
} else if (SI.getKind() == ValueKind::AssignInst) {
operand = cast<AssignInst>(&SI)->getDest();
value = cast<AssignInst>(&SI)->getSrc();
} else if (SI.getKind() == ValueKind::CopyAddrInst) {
const CopyAddrInst *CAI = cast<CopyAddrInst>(&SI);
Attr = (CAI->isInitializationOfDest() << 1) || CAI->isTakeOfSrc();
operand = cast<CopyAddrInst>(&SI)->getDest();
value = cast<CopyAddrInst>(&SI)->getSrc();
} else
llvm_unreachable("switch out of sync");
unsigned abbrCode = SILAbbrCodes[SILOneValueOneOperandLayout::Code];
SILOneValueOneOperandLayout::emitRecord(Out, ScratchRecord, abbrCode,
(unsigned)SI.getKind(), Attr, addValueRef(value),
value.getResultNumber(),
S.addTypeRef(operand.getType().getSwiftRValueType()),
(unsigned)operand.getType().getCategory(),
addValueRef(operand),
operand.getResultNumber());
break;
}
case ValueKind::RefElementAddrInst:
case ValueKind::StructElementAddrInst:
case ValueKind::StructExtractInst:
case ValueKind::EnumDataAddrInst:
case ValueKind::InjectEnumAddrInst: {
// Has a typed valueref and a field decl. We use SILOneValueOneOperandLayout
// where the field decl is streamed as a ValueID.
SILValue operand;
Decl *tDecl;
switch (SI.getKind()) {
default: assert(0 && "Out of sync with parent switch");
case ValueKind::RefElementAddrInst:
operand = cast<RefElementAddrInst>(&SI)->getOperand();
tDecl = cast<RefElementAddrInst>(&SI)->getField();
break;
case ValueKind::StructElementAddrInst:
operand = cast<StructElementAddrInst>(&SI)->getOperand();
tDecl = cast<StructElementAddrInst>(&SI)->getField();
break;
case ValueKind::StructExtractInst:
operand = cast<StructExtractInst>(&SI)->getOperand();
tDecl = cast<StructExtractInst>(&SI)->getField();
break;
case ValueKind::EnumDataAddrInst:
operand = cast<EnumDataAddrInst>(&SI)->getOperand();
tDecl = cast<EnumDataAddrInst>(&SI)->getElement();
break;
case ValueKind::InjectEnumAddrInst:
operand = cast<InjectEnumAddrInst>(&SI)->getOperand();
tDecl = cast<InjectEnumAddrInst>(&SI)->getElement();
break;
}
SILOneValueOneOperandLayout::emitRecord(Out, ScratchRecord,
SILAbbrCodes[SILOneValueOneOperandLayout::Code],
(unsigned)SI.getKind(), 0, S.addDeclRef(tDecl), 0,
S.addTypeRef(operand.getType().getSwiftRValueType()),
(unsigned)operand.getType().getCategory(),
addValueRef(operand), operand.getResultNumber());
break;
}
case ValueKind::StructInst: {
// Format: a type followed by a list of typed values. A typed value is
// expressed by 4 IDs: TypeID, TypeCategory, ValueID, ValueResultNumber.
const StructInst *StrI = cast<StructInst>(&SI);
SmallVector<ValueID, 4> ListOfValues;
for (auto Elt : StrI->getElements()) {
ListOfValues.push_back(S.addTypeRef(Elt.getType().getSwiftRValueType()));
ListOfValues.push_back((unsigned)Elt.getType().getCategory());
ListOfValues.push_back(addValueRef(Elt));
ListOfValues.push_back(Elt.getResultNumber());
}
SILOneTypeValuesLayout::emitRecord(Out, ScratchRecord,
SILAbbrCodes[SILOneTypeValuesLayout::Code],
(unsigned)SI.getKind(),
S.addTypeRef(StrI->getType().getSwiftRValueType()),
(unsigned)StrI->getType().getCategory(), ListOfValues);
break;
}
case ValueKind::TupleElementAddrInst:
case ValueKind::TupleExtractInst: {
SILValue operand;
unsigned FieldNo;
switch (SI.getKind()) {
default: assert(0 && "Out of sync with parent switch");
case ValueKind::TupleElementAddrInst:
operand = cast<TupleElementAddrInst>(&SI)->getOperand();
FieldNo = cast<TupleElementAddrInst>(&SI)->getFieldNo();
break;
case ValueKind::TupleExtractInst:
operand = cast<TupleExtractInst>(&SI)->getOperand();
FieldNo = cast<TupleExtractInst>(&SI)->getFieldNo();
break;
}
// Use OneTypeOneOperand layout where the field number is stored in TypeID.
SILOneTypeOneOperandLayout::emitRecord(Out, ScratchRecord,
SILAbbrCodes[SILOneTypeOneOperandLayout::Code],
(unsigned)SI.getKind(), 0,
FieldNo, 0,
S.addTypeRef(operand.getType().getSwiftRValueType()),
(unsigned)operand.getType().getCategory(),
addValueRef(operand), operand.getResultNumber());
break;
}
case ValueKind::TupleInst: {
// Format: a type followed by a list of values. A value is expressed by
// 2 IDs: ValueID, ValueResultNumber.
const TupleInst *TI = cast<TupleInst>(&SI);
SmallVector<ValueID, 4> ListOfValues;
for (auto Elt : TI->getElements()) {
ListOfValues.push_back(addValueRef(Elt));
ListOfValues.push_back(Elt.getResultNumber());
}
unsigned abbrCode = SILAbbrCodes[SILOneTypeValuesLayout::Code];
SILOneTypeValuesLayout::emitRecord(Out, ScratchRecord, abbrCode,
(unsigned)SI.getKind(),
S.addTypeRef(TI->getType().getSwiftRValueType()),
(unsigned)TI->getType().getCategory(),
ListOfValues);
break;
}
case ValueKind::EnumInst: {
// Format: a type, an operand and a decl ID. Use SILTwoOperandsLayout: type,
// (DeclID + hasOperand), and an operand.
const EnumInst *UI = cast<EnumInst>(&SI);
TypeID OperandTy = UI->hasOperand() ?
S.addTypeRef(UI->getOperand().getType().getSwiftRValueType()) : (TypeID)0;
unsigned OperandTyCategory = UI->hasOperand() ?
(unsigned)UI->getOperand().getType().getCategory() : 0;
SILTwoOperandsLayout::emitRecord(Out, ScratchRecord,
SILAbbrCodes[SILTwoOperandsLayout::Code], (unsigned)SI.getKind(), 0,
S.addTypeRef(UI->getType().getSwiftRValueType()),
(unsigned)UI->getType().getCategory(),
S.addDeclRef(UI->getElement()), UI->hasOperand(),
OperandTy, OperandTyCategory,
UI->hasOperand() ? addValueRef(UI->getOperand()) : (ValueID)0,
UI->hasOperand() ? UI->getOperand().getResultNumber() : 0);
break;
}
case ValueKind::ArchetypeMethodInst: {
// Format: a type, an operand and a SILDeclRef. Use SILOneTypeValuesLayout:
// type, Attr, SILDeclRef (DeclID, Kind, uncurryLevel, IsObjC), and a type.
const ArchetypeMethodInst *AMI = cast<ArchetypeMethodInst>(&SI);
SILType Ty = AMI->getLookupArchetype();
SILType Ty2 = AMI->getType(0);
SmallVector<ValueID, 7> ListOfValues;
ListOfValues.push_back(AMI->isVolatile());
ListOfValues.push_back(S.addDeclRef(AMI->getMember().getDecl()));
ListOfValues.push_back((unsigned)AMI->getMember().kind);
ListOfValues.push_back(AMI->getMember().uncurryLevel);
ListOfValues.push_back(AMI->getMember().isObjC);
ListOfValues.push_back(S.addTypeRef(Ty2.getSwiftRValueType()));
ListOfValues.push_back((unsigned)Ty2.getCategory());
SILOneTypeValuesLayout::emitRecord(Out, ScratchRecord,
SILAbbrCodes[SILOneTypeValuesLayout::Code], (unsigned)SI.getKind(),
S.addTypeRef(Ty.getSwiftRValueType()),
(unsigned)Ty.getCategory(), ListOfValues);
break;
}
case ValueKind::ProtocolMethodInst: {
// Format: a type, an operand and a SILDeclRef. Use SILOneTypeValuesLayout:
// type, Attr, SILDeclRef (DeclID, Kind, uncurryLevel, IsObjC),
// and an operand.
const ProtocolMethodInst *PMI = cast<ProtocolMethodInst>(&SI);
SILType Ty = PMI->getType();
SmallVector<ValueID, 9> ListOfValues;
handleMethodInst(PMI, PMI->getOperand(), ListOfValues);
SILOneTypeValuesLayout::emitRecord(Out, ScratchRecord,
SILAbbrCodes[SILOneTypeValuesLayout::Code], (unsigned)SI.getKind(),
S.addTypeRef(Ty.getSwiftRValueType()),
(unsigned)Ty.getCategory(), ListOfValues);
break;
}
case ValueKind::ClassMethodInst: {
// Format: a type, an operand and a SILDeclRef. Use SILOneTypeValuesLayout:
// type, Attr, SILDeclRef (DeclID, Kind, uncurryLevel, IsObjC),
// and an operand.
const ClassMethodInst *CMI = cast<ClassMethodInst>(&SI);
SILType Ty = CMI->getType();
SmallVector<ValueID, 9> ListOfValues;
handleMethodInst(CMI, CMI->getOperand(), ListOfValues);
SILOneTypeValuesLayout::emitRecord(Out, ScratchRecord,
SILAbbrCodes[SILOneTypeValuesLayout::Code], (unsigned)SI.getKind(),
S.addTypeRef(Ty.getSwiftRValueType()),
(unsigned)Ty.getCategory(), ListOfValues);
break;
}
case ValueKind::SuperMethodInst: {
// Format: a type, an operand and a SILDeclRef. Use SILOneTypeValuesLayout:
// type, Attr, SILDeclRef (DeclID, Kind, uncurryLevel, IsObjC),
// and an operand.
const SuperMethodInst *SMI = cast<SuperMethodInst>(&SI);
SILType Ty = SMI->getType();
SmallVector<ValueID, 9> ListOfValues;
handleMethodInst(SMI, SMI->getOperand(), ListOfValues);
SILOneTypeValuesLayout::emitRecord(Out, ScratchRecord,
SILAbbrCodes[SILOneTypeValuesLayout::Code], (unsigned)SI.getKind(),
S.addTypeRef(Ty.getSwiftRValueType()),
(unsigned)Ty.getCategory(), ListOfValues);
break;
}
case ValueKind::DynamicMethodInst: {
// Format: a type, an operand and a SILDeclRef. Use SILOneTypeValuesLayout:
// type, Attr, SILDeclRef (DeclID, Kind, uncurryLevel, IsObjC),
// and an operand.
const DynamicMethodInst *DMI = cast<DynamicMethodInst>(&SI);
SILType Ty = DMI->getType();
SmallVector<ValueID, 9> ListOfValues;
handleMethodInst(DMI, DMI->getOperand(), ListOfValues);
SILOneTypeValuesLayout::emitRecord(Out, ScratchRecord,
SILAbbrCodes[SILOneTypeValuesLayout::Code], (unsigned)SI.getKind(),
S.addTypeRef(Ty.getSwiftRValueType()),
(unsigned)Ty.getCategory(), ListOfValues);
break;
}
case ValueKind::DynamicMethodBranchInst: {
// Format: a typed value, a SILDeclRef, a BasicBlock ID for method,
// a BasicBlock ID for no method. Use SILOneTypeValuesLayout.
const DynamicMethodBranchInst *DMB = cast<DynamicMethodBranchInst>(&SI);
SmallVector<ValueID, 8> ListOfValues;
ListOfValues.push_back(addValueRef(DMB->getOperand()));
ListOfValues.push_back(DMB->getOperand().getResultNumber());
ListOfValues.push_back(S.addDeclRef(DMB->getMember().getDecl()));
ListOfValues.push_back((unsigned)DMB->getMember().kind);
ListOfValues.push_back(DMB->getMember().uncurryLevel);
ListOfValues.push_back(DMB->getMember().isObjC);
ListOfValues.push_back(BasicBlockMap[DMB->getHasMethodBB()]);
ListOfValues.push_back(BasicBlockMap[DMB->getNoMethodBB()]);
SILOneTypeValuesLayout::emitRecord(Out, ScratchRecord,
SILAbbrCodes[SILOneTypeValuesLayout::Code], (unsigned)SI.getKind(),
S.addTypeRef(DMB->getOperand().getType().getSwiftRValueType()),
(unsigned)DMB->getOperand().getType().getCategory(), ListOfValues);
break;
}
case ValueKind::SpecializeInst: {
// Format: a typed value, a type, a list of substitutions (Archetype name,
// Replacement type). Use SILOneTypeValuesLayout.
const SpecializeInst *SpI = cast<SpecializeInst>(&SI);
SmallVector<ValueID, 8> ListOfValues;
ListOfValues.push_back(S.addTypeRef(
SpI->getOperand().getType().getSwiftRValueType()));
ListOfValues.push_back((unsigned)SpI->getOperand().getType().getCategory());
ListOfValues.push_back(addValueRef(SpI->getOperand()));
ListOfValues.push_back(SpI->getOperand().getResultNumber());
for (auto Sub : SpI->getSubstitutions()) {
ListOfValues.push_back(S.addTypeRef(Sub.Archetype));
ListOfValues.push_back(S.addTypeRef(Sub.Replacement));
}
SILOneTypeValuesLayout::emitRecord(Out, ScratchRecord,
SILAbbrCodes[SILOneTypeValuesLayout::Code], (unsigned)SI.getKind(),
S.addTypeRef(SpI->getType().getSwiftRValueType()),
(unsigned)SpI->getType().getCategory(), ListOfValues);
break;
}
}
// Non-void values get registered in the value table.
if (SI.hasValue()) {
addValueRef(&SI);
++InstID;
}
}
void SILSerializer::writeFuncTable() {
using clang::OnDiskChainedHashTableGenerator;
if (FuncTable.empty())
return;
SmallVector<uint64_t, 8> scratch;
llvm::SmallString<4096> hashTableBlob;
uint32_t tableOffset;
{
OnDiskChainedHashTableGenerator<FuncTableInfo> generator;
for (auto &entry : FuncTable)
generator.insert(entry.first, entry.second);
llvm::raw_svector_ostream blobStream(hashTableBlob);
// Make sure that no bucket is at offset 0
clang::io::Emit32(blobStream, 0);
tableOffset = generator.Emit(blobStream);
}
unsigned abbrCode = SILAbbrCodes[FuncListLayout::Code];
FuncListLayout::emitRecord(Out, ScratchRecord, abbrCode, tableOffset,
hashTableBlob);
abbrCode = SILAbbrCodes[FuncOffsetLayout::Code];
FuncOffsetLayout::emitRecord(Out, ScratchRecord, abbrCode, Funcs);
}
void SILSerializer::writeAllSILFunctions(const SILModule *M) {
{
BCBlockRAII subBlock(Out, SIL_BLOCK_ID, 4);
registerSILAbbr<SILFunctionLayout>();
registerSILAbbr<SILBasicBlockLayout>();
registerSILAbbr<SILOneValueOneOperandLayout>();
registerSILAbbr<SILOneTypeLayout>();
registerSILAbbr<SILOneOperandLayout>();
registerSILAbbr<SILOneTypeOneOperandLayout>();
registerSILAbbr<SILOneTypeValuesLayout>();
registerSILAbbr<SILTwoOperandsLayout>();
registerSILAbbr<SILInstApplyLayout>();
registerSILAbbr<SILInstTodoLayout>();
// Go through all SILFunctions in M, and if it is transparent,
// write out the SILFunction.
for (const SILFunction &F : *M) {
if ((EnableSerialize || EnableSerializeAll) &&
(EnableSerializeAll || F.isTransparent())
&& !F.empty())
writeSILFunction(F);
}
}
{
BCBlockRAII restoreBlock(Out, SIL_INDEX_BLOCK_ID, 4);
registerSILAbbr<FuncListLayout>();
registerSILAbbr<FuncOffsetLayout>();
writeFuncTable();
}
}
void Serializer::writeSILFunctions(const SILModule *M) {
if (!M)
return;
SILSerializer SILSer(*this, TU->Ctx, Out);
SILSer.writeAllSILFunctions(M);
}