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llvm-mirror/unittests/IR/InstructionsTest.cpp
Mehdi Amini ea195a382e Remove every uses of getGlobalContext() in LLVM (but the C API) 
At the same time, fixes InstructionsTest::CastInst unittest: yes
you can leave the IR in an invalid state and exit when you don't
destroy the context (like the global one), no longer now.

This is the first part of http://reviews.llvm.org/D19094

From: Mehdi Amini <mehdi.amini@apple.com>
llvm-svn: 266379
2016-04-14 21:59:01 +00:00

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//===- llvm/unittest/IR/InstructionsTest.cpp - Instructions unit tests ----===//
//
// The LLVM Compiler Infrastructure
//
// This file is distributed under the University of Illinois Open Source
// License. See LICENSE.TXT for details.
//
//===----------------------------------------------------------------------===//
#include "llvm/IR/Instructions.h"
#include "llvm/ADT/STLExtras.h"
#include "llvm/Analysis/ValueTracking.h"
#include "llvm/IR/BasicBlock.h"
#include "llvm/IR/Constants.h"
#include "llvm/IR/DataLayout.h"
#include "llvm/IR/DerivedTypes.h"
#include "llvm/IR/Function.h"
#include "llvm/IR/IRBuilder.h"
#include "llvm/IR/LLVMContext.h"
#include "llvm/IR/MDBuilder.h"
#include "llvm/IR/Module.h"
#include "llvm/IR/Operator.h"
#include "gtest/gtest.h"
#include <memory>
namespace llvm {
namespace {
TEST(InstructionsTest, ReturnInst) {
LLVMContext C;
// test for PR6589
const ReturnInst* r0 = ReturnInst::Create(C);
EXPECT_EQ(r0->getNumOperands(), 0U);
EXPECT_EQ(r0->op_begin(), r0->op_end());
IntegerType* Int1 = IntegerType::get(C, 1);
Constant* One = ConstantInt::get(Int1, 1, true);
const ReturnInst* r1 = ReturnInst::Create(C, One);
EXPECT_EQ(1U, r1->getNumOperands());
User::const_op_iterator b(r1->op_begin());
EXPECT_NE(r1->op_end(), b);
EXPECT_EQ(One, *b);
EXPECT_EQ(One, r1->getOperand(0));
++b;
EXPECT_EQ(r1->op_end(), b);
// clean up
delete r0;
delete r1;
}
// Test fixture that provides a module and a single function within it. Useful
// for tests that need to refer to the function in some way.
class ModuleWithFunctionTest : public testing::Test {
protected:
ModuleWithFunctionTest() : M(new Module("MyModule", Ctx)) {
FArgTypes.push_back(Type::getInt8Ty(Ctx));
FArgTypes.push_back(Type::getInt32Ty(Ctx));
FArgTypes.push_back(Type::getInt64Ty(Ctx));
FunctionType *FTy =
FunctionType::get(Type::getVoidTy(Ctx), FArgTypes, false);
F = Function::Create(FTy, Function::ExternalLinkage, "", M.get());
}
LLVMContext Ctx;
std::unique_ptr<Module> M;
SmallVector<Type *, 3> FArgTypes;
Function *F;
};
TEST_F(ModuleWithFunctionTest, CallInst) {
Value *Args[] = {ConstantInt::get(Type::getInt8Ty(Ctx), 20),
ConstantInt::get(Type::getInt32Ty(Ctx), 9999),
ConstantInt::get(Type::getInt64Ty(Ctx), 42)};
std::unique_ptr<CallInst> Call(CallInst::Create(F, Args));
// Make sure iteration over a call's arguments works as expected.
unsigned Idx = 0;
for (Value *Arg : Call->arg_operands()) {
EXPECT_EQ(FArgTypes[Idx], Arg->getType());
EXPECT_EQ(Call->getArgOperand(Idx)->getType(), Arg->getType());
Idx++;
}
}
TEST_F(ModuleWithFunctionTest, InvokeInst) {
BasicBlock *BB1 = BasicBlock::Create(Ctx, "", F);
BasicBlock *BB2 = BasicBlock::Create(Ctx, "", F);
Value *Args[] = {ConstantInt::get(Type::getInt8Ty(Ctx), 20),
ConstantInt::get(Type::getInt32Ty(Ctx), 9999),
ConstantInt::get(Type::getInt64Ty(Ctx), 42)};
std::unique_ptr<InvokeInst> Invoke(InvokeInst::Create(F, BB1, BB2, Args));
// Make sure iteration over invoke's arguments works as expected.
unsigned Idx = 0;
for (Value *Arg : Invoke->arg_operands()) {
EXPECT_EQ(FArgTypes[Idx], Arg->getType());
EXPECT_EQ(Invoke->getArgOperand(Idx)->getType(), Arg->getType());
Idx++;
}
}
TEST(InstructionsTest, BranchInst) {
LLVMContext C;
// Make a BasicBlocks
BasicBlock* bb0 = BasicBlock::Create(C);
BasicBlock* bb1 = BasicBlock::Create(C);
// Mandatory BranchInst
const BranchInst* b0 = BranchInst::Create(bb0);
EXPECT_TRUE(b0->isUnconditional());
EXPECT_FALSE(b0->isConditional());
EXPECT_EQ(1U, b0->getNumSuccessors());
// check num operands
EXPECT_EQ(1U, b0->getNumOperands());
EXPECT_NE(b0->op_begin(), b0->op_end());
EXPECT_EQ(b0->op_end(), std::next(b0->op_begin()));
EXPECT_EQ(b0->op_end(), std::next(b0->op_begin()));
IntegerType* Int1 = IntegerType::get(C, 1);
Constant* One = ConstantInt::get(Int1, 1, true);
// Conditional BranchInst
BranchInst* b1 = BranchInst::Create(bb0, bb1, One);
EXPECT_FALSE(b1->isUnconditional());
EXPECT_TRUE(b1->isConditional());
EXPECT_EQ(2U, b1->getNumSuccessors());
// check num operands
EXPECT_EQ(3U, b1->getNumOperands());
User::const_op_iterator b(b1->op_begin());
// check COND
EXPECT_NE(b, b1->op_end());
EXPECT_EQ(One, *b);
EXPECT_EQ(One, b1->getOperand(0));
EXPECT_EQ(One, b1->getCondition());
++b;
// check ELSE
EXPECT_EQ(bb1, *b);
EXPECT_EQ(bb1, b1->getOperand(1));
EXPECT_EQ(bb1, b1->getSuccessor(1));
++b;
// check THEN
EXPECT_EQ(bb0, *b);
EXPECT_EQ(bb0, b1->getOperand(2));
EXPECT_EQ(bb0, b1->getSuccessor(0));
++b;
EXPECT_EQ(b1->op_end(), b);
// clean up
delete b0;
delete b1;
delete bb0;
delete bb1;
}
TEST(InstructionsTest, CastInst) {
LLVMContext C;
Type *Int8Ty = Type::getInt8Ty(C);
Type *Int16Ty = Type::getInt16Ty(C);
Type *Int32Ty = Type::getInt32Ty(C);
Type *Int64Ty = Type::getInt64Ty(C);
Type *V8x8Ty = VectorType::get(Int8Ty, 8);
Type *V8x64Ty = VectorType::get(Int64Ty, 8);
Type *X86MMXTy = Type::getX86_MMXTy(C);
Type *HalfTy = Type::getHalfTy(C);
Type *FloatTy = Type::getFloatTy(C);
Type *DoubleTy = Type::getDoubleTy(C);
Type *V2Int32Ty = VectorType::get(Int32Ty, 2);
Type *V2Int64Ty = VectorType::get(Int64Ty, 2);
Type *V4Int16Ty = VectorType::get(Int16Ty, 4);
Type *Int32PtrTy = PointerType::get(Int32Ty, 0);
Type *Int64PtrTy = PointerType::get(Int64Ty, 0);
Type *Int32PtrAS1Ty = PointerType::get(Int32Ty, 1);
Type *Int64PtrAS1Ty = PointerType::get(Int64Ty, 1);
Type *V2Int32PtrAS1Ty = VectorType::get(Int32PtrAS1Ty, 2);
Type *V2Int64PtrAS1Ty = VectorType::get(Int64PtrAS1Ty, 2);
Type *V4Int32PtrAS1Ty = VectorType::get(Int32PtrAS1Ty, 4);
Type *V4Int64PtrAS1Ty = VectorType::get(Int64PtrAS1Ty, 4);
Type *V2Int64PtrTy = VectorType::get(Int64PtrTy, 2);
Type *V2Int32PtrTy = VectorType::get(Int32PtrTy, 2);
Type *V4Int32PtrTy = VectorType::get(Int32PtrTy, 4);
const Constant* c8 = Constant::getNullValue(V8x8Ty);
const Constant* c64 = Constant::getNullValue(V8x64Ty);
const Constant *v2ptr32 = Constant::getNullValue(V2Int32PtrTy);
EXPECT_TRUE(CastInst::isCastable(V8x8Ty, X86MMXTy));
EXPECT_TRUE(CastInst::isCastable(X86MMXTy, V8x8Ty));
EXPECT_FALSE(CastInst::isCastable(Int64Ty, X86MMXTy));
EXPECT_TRUE(CastInst::isCastable(V8x64Ty, V8x8Ty));
EXPECT_TRUE(CastInst::isCastable(V8x8Ty, V8x64Ty));
EXPECT_EQ(CastInst::Trunc, CastInst::getCastOpcode(c64, true, V8x8Ty, true));
EXPECT_EQ(CastInst::SExt, CastInst::getCastOpcode(c8, true, V8x64Ty, true));
EXPECT_FALSE(CastInst::isBitCastable(V8x8Ty, X86MMXTy));
EXPECT_FALSE(CastInst::isBitCastable(X86MMXTy, V8x8Ty));
EXPECT_FALSE(CastInst::isBitCastable(Int64Ty, X86MMXTy));
EXPECT_FALSE(CastInst::isBitCastable(V8x64Ty, V8x8Ty));
EXPECT_FALSE(CastInst::isBitCastable(V8x8Ty, V8x64Ty));
// Check address space casts are rejected since we don't know the sizes here
EXPECT_FALSE(CastInst::isBitCastable(Int32PtrTy, Int32PtrAS1Ty));
EXPECT_FALSE(CastInst::isBitCastable(Int32PtrAS1Ty, Int32PtrTy));
EXPECT_FALSE(CastInst::isBitCastable(V2Int32PtrTy, V2Int32PtrAS1Ty));
EXPECT_FALSE(CastInst::isBitCastable(V2Int32PtrAS1Ty, V2Int32PtrTy));
EXPECT_TRUE(CastInst::isBitCastable(V2Int32PtrAS1Ty, V2Int64PtrAS1Ty));
EXPECT_TRUE(CastInst::isCastable(V2Int32PtrAS1Ty, V2Int32PtrTy));
EXPECT_EQ(CastInst::AddrSpaceCast, CastInst::getCastOpcode(v2ptr32, true,
V2Int32PtrAS1Ty,
true));
// Test mismatched number of elements for pointers
EXPECT_FALSE(CastInst::isBitCastable(V2Int32PtrAS1Ty, V4Int64PtrAS1Ty));
EXPECT_FALSE(CastInst::isBitCastable(V4Int64PtrAS1Ty, V2Int32PtrAS1Ty));
EXPECT_FALSE(CastInst::isBitCastable(V2Int32PtrAS1Ty, V4Int32PtrAS1Ty));
EXPECT_FALSE(CastInst::isBitCastable(Int32PtrTy, V2Int32PtrTy));
EXPECT_FALSE(CastInst::isBitCastable(V2Int32PtrTy, Int32PtrTy));
EXPECT_TRUE(CastInst::isBitCastable(Int32PtrTy, Int64PtrTy));
EXPECT_FALSE(CastInst::isBitCastable(DoubleTy, FloatTy));
EXPECT_FALSE(CastInst::isBitCastable(FloatTy, DoubleTy));
EXPECT_TRUE(CastInst::isBitCastable(FloatTy, FloatTy));
EXPECT_TRUE(CastInst::isBitCastable(FloatTy, FloatTy));
EXPECT_TRUE(CastInst::isBitCastable(FloatTy, Int32Ty));
EXPECT_TRUE(CastInst::isBitCastable(Int16Ty, HalfTy));
EXPECT_TRUE(CastInst::isBitCastable(Int32Ty, FloatTy));
EXPECT_TRUE(CastInst::isBitCastable(V2Int32Ty, Int64Ty));
EXPECT_TRUE(CastInst::isBitCastable(V2Int32Ty, V4Int16Ty));
EXPECT_FALSE(CastInst::isBitCastable(Int32Ty, Int64Ty));
EXPECT_FALSE(CastInst::isBitCastable(Int64Ty, Int32Ty));
EXPECT_FALSE(CastInst::isBitCastable(V2Int32PtrTy, Int64Ty));
EXPECT_FALSE(CastInst::isBitCastable(Int64Ty, V2Int32PtrTy));
EXPECT_TRUE(CastInst::isBitCastable(V2Int64PtrTy, V2Int32PtrTy));
EXPECT_TRUE(CastInst::isBitCastable(V2Int32PtrTy, V2Int64PtrTy));
EXPECT_FALSE(CastInst::isBitCastable(V2Int32Ty, V2Int64Ty));
EXPECT_FALSE(CastInst::isBitCastable(V2Int64Ty, V2Int32Ty));
EXPECT_FALSE(CastInst::castIsValid(Instruction::BitCast,
Constant::getNullValue(V4Int32PtrTy),
V2Int32PtrTy));
EXPECT_FALSE(CastInst::castIsValid(Instruction::BitCast,
Constant::getNullValue(V2Int32PtrTy),
V4Int32PtrTy));
EXPECT_FALSE(CastInst::castIsValid(Instruction::AddrSpaceCast,
Constant::getNullValue(V4Int32PtrAS1Ty),
V2Int32PtrTy));
EXPECT_FALSE(CastInst::castIsValid(Instruction::AddrSpaceCast,
Constant::getNullValue(V2Int32PtrTy),
V4Int32PtrAS1Ty));
// Check that assertion is not hit when creating a cast with a vector of
// pointers
// First form
BasicBlock *BB = BasicBlock::Create(C);
Constant *NullV2I32Ptr = Constant::getNullValue(V2Int32PtrTy);
auto Inst1 = CastInst::CreatePointerCast(NullV2I32Ptr, V2Int32Ty, "foo", BB);
// Second form
auto Inst2 = CastInst::CreatePointerCast(NullV2I32Ptr, V2Int32Ty);
delete Inst2;
Inst1->eraseFromParent();
delete BB;
}
TEST(InstructionsTest, VectorGep) {
LLVMContext C;
// Type Definitions
Type *I8Ty = IntegerType::get(C, 8);
Type *I32Ty = IntegerType::get(C, 32);
PointerType *Ptri8Ty = PointerType::get(I8Ty, 0);
PointerType *Ptri32Ty = PointerType::get(I32Ty, 0);
VectorType *V2xi8PTy = VectorType::get(Ptri8Ty, 2);
VectorType *V2xi32PTy = VectorType::get(Ptri32Ty, 2);
// Test different aspects of the vector-of-pointers type
// and GEPs which use this type.
ConstantInt *Ci32a = ConstantInt::get(C, APInt(32, 1492));
ConstantInt *Ci32b = ConstantInt::get(C, APInt(32, 1948));
std::vector<Constant*> ConstVa(2, Ci32a);
std::vector<Constant*> ConstVb(2, Ci32b);
Constant *C2xi32a = ConstantVector::get(ConstVa);
Constant *C2xi32b = ConstantVector::get(ConstVb);
CastInst *PtrVecA = new IntToPtrInst(C2xi32a, V2xi32PTy);
CastInst *PtrVecB = new IntToPtrInst(C2xi32b, V2xi32PTy);
ICmpInst *ICmp0 = new ICmpInst(ICmpInst::ICMP_SGT, PtrVecA, PtrVecB);
ICmpInst *ICmp1 = new ICmpInst(ICmpInst::ICMP_ULT, PtrVecA, PtrVecB);
EXPECT_NE(ICmp0, ICmp1); // suppress warning.
BasicBlock* BB0 = BasicBlock::Create(C);
// Test InsertAtEnd ICmpInst constructor.
ICmpInst *ICmp2 = new ICmpInst(*BB0, ICmpInst::ICMP_SGE, PtrVecA, PtrVecB);
EXPECT_NE(ICmp0, ICmp2); // suppress warning.
GetElementPtrInst *Gep0 = GetElementPtrInst::Create(I32Ty, PtrVecA, C2xi32a);
GetElementPtrInst *Gep1 = GetElementPtrInst::Create(I32Ty, PtrVecA, C2xi32b);
GetElementPtrInst *Gep2 = GetElementPtrInst::Create(I32Ty, PtrVecB, C2xi32a);
GetElementPtrInst *Gep3 = GetElementPtrInst::Create(I32Ty, PtrVecB, C2xi32b);
CastInst *BTC0 = new BitCastInst(Gep0, V2xi8PTy);
CastInst *BTC1 = new BitCastInst(Gep1, V2xi8PTy);
CastInst *BTC2 = new BitCastInst(Gep2, V2xi8PTy);
CastInst *BTC3 = new BitCastInst(Gep3, V2xi8PTy);
Value *S0 = BTC0->stripPointerCasts();
Value *S1 = BTC1->stripPointerCasts();
Value *S2 = BTC2->stripPointerCasts();
Value *S3 = BTC3->stripPointerCasts();
EXPECT_NE(S0, Gep0);
EXPECT_NE(S1, Gep1);
EXPECT_NE(S2, Gep2);
EXPECT_NE(S3, Gep3);
int64_t Offset;
DataLayout TD("e-p:64:64:64-i1:8:8-i8:8:8-i16:16:16-i32:32:32-i64:64:64-f3"
"2:32:32-f64:64:64-v64:64:64-v128:128:128-a:0:64-s:64:64-f80"
":128:128-n8:16:32:64-S128");
// Make sure we don't crash
GetPointerBaseWithConstantOffset(Gep0, Offset, TD);
GetPointerBaseWithConstantOffset(Gep1, Offset, TD);
GetPointerBaseWithConstantOffset(Gep2, Offset, TD);
GetPointerBaseWithConstantOffset(Gep3, Offset, TD);
// Gep of Geps
GetElementPtrInst *GepII0 = GetElementPtrInst::Create(I32Ty, Gep0, C2xi32b);
GetElementPtrInst *GepII1 = GetElementPtrInst::Create(I32Ty, Gep1, C2xi32a);
GetElementPtrInst *GepII2 = GetElementPtrInst::Create(I32Ty, Gep2, C2xi32b);
GetElementPtrInst *GepII3 = GetElementPtrInst::Create(I32Ty, Gep3, C2xi32a);
EXPECT_EQ(GepII0->getNumIndices(), 1u);
EXPECT_EQ(GepII1->getNumIndices(), 1u);
EXPECT_EQ(GepII2->getNumIndices(), 1u);
EXPECT_EQ(GepII3->getNumIndices(), 1u);
EXPECT_FALSE(GepII0->hasAllZeroIndices());
EXPECT_FALSE(GepII1->hasAllZeroIndices());
EXPECT_FALSE(GepII2->hasAllZeroIndices());
EXPECT_FALSE(GepII3->hasAllZeroIndices());
delete GepII0;
delete GepII1;
delete GepII2;
delete GepII3;
delete BTC0;
delete BTC1;
delete BTC2;
delete BTC3;
delete Gep0;
delete Gep1;
delete Gep2;
delete Gep3;
ICmp2->eraseFromParent();
delete BB0;
delete ICmp0;
delete ICmp1;
delete PtrVecA;
delete PtrVecB;
}
TEST(InstructionsTest, FPMathOperator) {
LLVMContext Context;
IRBuilder<> Builder(Context);
MDBuilder MDHelper(Context);
Instruction *I = Builder.CreatePHI(Builder.getDoubleTy(), 0);
MDNode *MD1 = MDHelper.createFPMath(1.0);
Value *V1 = Builder.CreateFAdd(I, I, "", MD1);
EXPECT_TRUE(isa<FPMathOperator>(V1));
FPMathOperator *O1 = cast<FPMathOperator>(V1);
EXPECT_EQ(O1->getFPAccuracy(), 1.0);
delete V1;
delete I;
}
TEST(InstructionsTest, isEliminableCastPair) {
LLVMContext C;
Type* Int16Ty = Type::getInt16Ty(C);
Type* Int32Ty = Type::getInt32Ty(C);
Type* Int64Ty = Type::getInt64Ty(C);
Type* Int64PtrTy = Type::getInt64PtrTy(C);
// Source and destination pointers have same size -> bitcast.
EXPECT_EQ(CastInst::isEliminableCastPair(CastInst::PtrToInt,
CastInst::IntToPtr,
Int64PtrTy, Int64Ty, Int64PtrTy,
Int32Ty, nullptr, Int32Ty),
CastInst::BitCast);
// Source and destination have unknown sizes, but the same address space and
// the intermediate int is the maximum pointer size -> bitcast
EXPECT_EQ(CastInst::isEliminableCastPair(CastInst::PtrToInt,
CastInst::IntToPtr,
Int64PtrTy, Int64Ty, Int64PtrTy,
nullptr, nullptr, nullptr),
CastInst::BitCast);
// Source and destination have unknown sizes, but the same address space and
// the intermediate int is not the maximum pointer size -> nothing
EXPECT_EQ(CastInst::isEliminableCastPair(CastInst::PtrToInt,
CastInst::IntToPtr,
Int64PtrTy, Int32Ty, Int64PtrTy,
nullptr, nullptr, nullptr),
0U);
// Middle pointer big enough -> bitcast.
EXPECT_EQ(CastInst::isEliminableCastPair(CastInst::IntToPtr,
CastInst::PtrToInt,
Int64Ty, Int64PtrTy, Int64Ty,
nullptr, Int64Ty, nullptr),
CastInst::BitCast);
// Middle pointer too small -> fail.
EXPECT_EQ(CastInst::isEliminableCastPair(CastInst::IntToPtr,
CastInst::PtrToInt,
Int64Ty, Int64PtrTy, Int64Ty,
nullptr, Int32Ty, nullptr),
0U);
// Test that we don't eliminate bitcasts between different address spaces,
// or if we don't have available pointer size information.
DataLayout DL("e-p:32:32:32-p1:16:16:16-p2:64:64:64-i1:8:8-i8:8:8-i16:16:16"
"-i32:32:32-i64:64:64-f32:32:32-f64:64:64-v64:64:64"
"-v128:128:128-a:0:64-s:64:64-f80:128:128-n8:16:32:64-S128");
Type* Int64PtrTyAS1 = Type::getInt64PtrTy(C, 1);
Type* Int64PtrTyAS2 = Type::getInt64PtrTy(C, 2);
IntegerType *Int16SizePtr = DL.getIntPtrType(C, 1);
IntegerType *Int64SizePtr = DL.getIntPtrType(C, 2);
// Cannot simplify inttoptr, addrspacecast
EXPECT_EQ(CastInst::isEliminableCastPair(CastInst::IntToPtr,
CastInst::AddrSpaceCast,
Int16Ty, Int64PtrTyAS1, Int64PtrTyAS2,
nullptr, Int16SizePtr, Int64SizePtr),
0U);
// Cannot simplify addrspacecast, ptrtoint
EXPECT_EQ(CastInst::isEliminableCastPair(CastInst::AddrSpaceCast,
CastInst::PtrToInt,
Int64PtrTyAS1, Int64PtrTyAS2, Int16Ty,
Int64SizePtr, Int16SizePtr, nullptr),
0U);
// Pass since the bitcast address spaces are the same
EXPECT_EQ(CastInst::isEliminableCastPair(CastInst::IntToPtr,
CastInst::BitCast,
Int16Ty, Int64PtrTyAS1, Int64PtrTyAS1,
nullptr, nullptr, nullptr),
CastInst::IntToPtr);
}
TEST(InstructionsTest, CloneCall) {
LLVMContext C;
Type *Int32Ty = Type::getInt32Ty(C);
Type *ArgTys[] = {Int32Ty, Int32Ty, Int32Ty};
Type *FnTy = FunctionType::get(Int32Ty, ArgTys, /*isVarArg=*/false);
Value *Callee = Constant::getNullValue(FnTy->getPointerTo());
Value *Args[] = {
ConstantInt::get(Int32Ty, 1),
ConstantInt::get(Int32Ty, 2),
ConstantInt::get(Int32Ty, 3)
};
std::unique_ptr<CallInst> Call(CallInst::Create(Callee, Args, "result"));
// Test cloning the tail call kind.
CallInst::TailCallKind Kinds[] = {CallInst::TCK_None, CallInst::TCK_Tail,
CallInst::TCK_MustTail};
for (CallInst::TailCallKind TCK : Kinds) {
Call->setTailCallKind(TCK);
std::unique_ptr<CallInst> Clone(cast<CallInst>(Call->clone()));
EXPECT_EQ(Call->getTailCallKind(), Clone->getTailCallKind());
}
Call->setTailCallKind(CallInst::TCK_None);
// Test cloning an attribute.
{
AttrBuilder AB;
AB.addAttribute(Attribute::ReadOnly);
Call->setAttributes(AttributeSet::get(C, AttributeSet::FunctionIndex, AB));
std::unique_ptr<CallInst> Clone(cast<CallInst>(Call->clone()));
EXPECT_TRUE(Clone->onlyReadsMemory());
}
}
TEST(InstructionsTest, AlterCallBundles) {
LLVMContext C;
Type *Int32Ty = Type::getInt32Ty(C);
Type *FnTy = FunctionType::get(Int32Ty, Int32Ty, /*isVarArg=*/false);
Value *Callee = Constant::getNullValue(FnTy->getPointerTo());
Value *Args[] = {ConstantInt::get(Int32Ty, 42)};
OperandBundleDef OldBundle("before", UndefValue::get(Int32Ty));
std::unique_ptr<CallInst> Call(
CallInst::Create(Callee, Args, OldBundle, "result"));
Call->setTailCallKind(CallInst::TailCallKind::TCK_NoTail);
AttrBuilder AB;
AB.addAttribute(Attribute::Cold);
Call->setAttributes(AttributeSet::get(C, AttributeSet::FunctionIndex, AB));
Call->setDebugLoc(DebugLoc(MDNode::get(C, None)));
OperandBundleDef NewBundle("after", ConstantInt::get(Int32Ty, 7));
std::unique_ptr<CallInst> Clone(CallInst::Create(Call.get(), NewBundle));
EXPECT_EQ(Call->getNumArgOperands(), Clone->getNumArgOperands());
EXPECT_EQ(Call->getArgOperand(0), Clone->getArgOperand(0));
EXPECT_EQ(Call->getCallingConv(), Clone->getCallingConv());
EXPECT_EQ(Call->getTailCallKind(), Clone->getTailCallKind());
EXPECT_TRUE(Clone->hasFnAttr(Attribute::AttrKind::Cold));
EXPECT_EQ(Call->getDebugLoc(), Clone->getDebugLoc());
EXPECT_EQ(Clone->getNumOperandBundles(), 1U);
EXPECT_TRUE(Clone->getOperandBundle("after").hasValue());
}
TEST(InstructionsTest, AlterInvokeBundles) {
LLVMContext C;
Type *Int32Ty = Type::getInt32Ty(C);
Type *FnTy = FunctionType::get(Int32Ty, Int32Ty, /*isVarArg=*/false);
Value *Callee = Constant::getNullValue(FnTy->getPointerTo());
Value *Args[] = {ConstantInt::get(Int32Ty, 42)};
std::unique_ptr<BasicBlock> NormalDest(BasicBlock::Create(C));
std::unique_ptr<BasicBlock> UnwindDest(BasicBlock::Create(C));
OperandBundleDef OldBundle("before", UndefValue::get(Int32Ty));
std::unique_ptr<InvokeInst> Invoke(InvokeInst::Create(
Callee, NormalDest.get(), UnwindDest.get(), Args, OldBundle, "result"));
AttrBuilder AB;
AB.addAttribute(Attribute::Cold);
Invoke->setAttributes(AttributeSet::get(C, AttributeSet::FunctionIndex, AB));
Invoke->setDebugLoc(DebugLoc(MDNode::get(C, None)));
OperandBundleDef NewBundle("after", ConstantInt::get(Int32Ty, 7));
std::unique_ptr<InvokeInst> Clone(
InvokeInst::Create(Invoke.get(), NewBundle));
EXPECT_EQ(Invoke->getNormalDest(), Clone->getNormalDest());
EXPECT_EQ(Invoke->getUnwindDest(), Clone->getUnwindDest());
EXPECT_EQ(Invoke->getNumArgOperands(), Clone->getNumArgOperands());
EXPECT_EQ(Invoke->getArgOperand(0), Clone->getArgOperand(0));
EXPECT_EQ(Invoke->getCallingConv(), Clone->getCallingConv());
EXPECT_TRUE(Clone->hasFnAttr(Attribute::AttrKind::Cold));
EXPECT_EQ(Invoke->getDebugLoc(), Clone->getDebugLoc());
EXPECT_EQ(Clone->getNumOperandBundles(), 1U);
EXPECT_TRUE(Clone->getOperandBundle("after").hasValue());
}
} // end anonymous namespace
} // end namespace llvm
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