#include "llvm/Analysis/Loads.h"
#include "llvm/Analysis/PtrUseVisitor.h"
#include "llvm/Analysis/ValueTracking.h"
-#include "llvm/Constants.h"
#include "llvm/DIBuilder.h"
-#include "llvm/DataLayout.h"
#include "llvm/DebugInfo.h"
-#include "llvm/DerivedTypes.h"
-#include "llvm/Function.h"
-#include "llvm/IRBuilder.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/Instructions.h"
+#include "llvm/IR/IntrinsicInst.h"
+#include "llvm/IR/LLVMContext.h"
+#include "llvm/IR/Module.h"
+#include "llvm/IR/Operator.h"
#include "llvm/InstVisitor.h"
-#include "llvm/Instructions.h"
-#include "llvm/IntrinsicInst.h"
-#include "llvm/LLVMContext.h"
-#include "llvm/Module.h"
-#include "llvm/Operator.h"
#include "llvm/Pass.h"
#include "llvm/Support/CommandLine.h"
#include "llvm/Support/Debug.h"
};
}
-/// \brief Accumulate the constant offsets in a GEP into a single APInt offset.
-///
-/// If the provided GEP is all-constant, the total byte offset formed by the
-/// GEP is computed and Offset is set to it. If the GEP has any non-constant
-/// operands, the function returns false and the value of Offset is unmodified.
-static bool accumulateGEPOffsets(const DataLayout &TD, GEPOperator &GEP,
- APInt &Offset) {
- APInt GEPOffset(Offset.getBitWidth(), 0);
- for (gep_type_iterator GTI = gep_type_begin(GEP), GTE = gep_type_end(GEP);
- GTI != GTE; ++GTI) {
- ConstantInt *OpC = dyn_cast<ConstantInt>(GTI.getOperand());
- if (!OpC)
- return false;
- if (OpC->isZero()) continue;
-
- // Handle a struct index, which adds its field offset to the pointer.
- if (StructType *STy = dyn_cast<StructType>(*GTI)) {
- unsigned ElementIdx = OpC->getZExtValue();
- const StructLayout *SL = TD.getStructLayout(STy);
- GEPOffset += APInt(Offset.getBitWidth(),
- SL->getElementOffset(ElementIdx));
- continue;
- }
-
- APInt TypeSize(Offset.getBitWidth(),
- TD.getTypeAllocSize(GTI.getIndexedType()));
- if (VectorType *VTy = dyn_cast<VectorType>(*GTI)) {
- assert((VTy->getScalarSizeInBits() % 8) == 0 &&
- "vector element size is not a multiple of 8, cannot GEP over it");
- TypeSize = VTy->getScalarSizeInBits() / 8;
- }
-
- GEPOffset += OpC->getValue().sextOrTrunc(Offset.getBitWidth()) * TypeSize;
- }
- Offset = GEPOffset;
- return true;
-}
-
/// \brief Build a GEP out of a base pointer and indices.
///
/// This will return the BasePtr if that is valid, or build a new GEP
// extremely poorly defined currently. The long-term goal is to remove GEPing
// over a vector from the IR completely.
if (VectorType *VecTy = dyn_cast<VectorType>(Ty)) {
- unsigned ElementSizeInBits = VecTy->getScalarSizeInBits();
+ unsigned ElementSizeInBits = TD.getTypeSizeInBits(VecTy->getScalarType());
if (ElementSizeInBits % 8)
return 0; // GEPs over non-multiple of 8 size vector elements are invalid.
APInt ElementSize(Offset.getBitWidth(), ElementSizeInBits / 8);
// First fold any existing GEPs into the offset.
while (GEPOperator *GEP = dyn_cast<GEPOperator>(Ptr)) {
APInt GEPOffset(Offset.getBitWidth(), 0);
- if (!accumulateGEPOffsets(TD, *GEP, GEPOffset))
+ if (!GEP->accumulateConstantOffset(TD, GEPOffset))
break;
Offset += GEPOffset;
Ptr = GEP->getPointerOperand();
if (!Ty)
return false;
- uint64_t VecSize = TD.getTypeSizeInBits(Ty);
- uint64_t ElementSize = Ty->getScalarSizeInBits();
+ uint64_t ElementSize = TD.getTypeSizeInBits(Ty->getScalarType());
// While the definition of LLVM vectors is bitpacked, we don't support sizes
// that aren't byte sized.
if (ElementSize % 8)
return false;
- assert((VecSize % 8) == 0 && "vector size not a multiple of element size?");
- VecSize /= 8;
+ assert((TD.getTypeSizeInBits(Ty) % 8) == 0 &&
+ "vector size not a multiple of element size?");
ElementSize /= 8;
for (; I != E; ++I) {
!canConvertValue(TD, ValueTy, AllocaTy))
return false;
} else if (MemIntrinsic *MI = dyn_cast<MemIntrinsic>(I->U->getUser())) {
- if (MI->isVolatile())
+ if (MI->isVolatile() || !isa<Constant>(MI->getLength()))
return false;
if (MemTransferInst *MTI = dyn_cast<MemTransferInst>(I->U->getUser())) {
const AllocaPartitioning::MemTransferOffsets &MTO
return V;
}
+static Value *extractVector(IRBuilder<> &IRB, Value *V,
+ unsigned BeginIndex, unsigned EndIndex,
+ const Twine &Name) {
+ VectorType *VecTy = cast<VectorType>(V->getType());
+ unsigned NumElements = EndIndex - BeginIndex;
+ assert(NumElements <= VecTy->getNumElements() && "Too many elements!");
+
+ if (NumElements == VecTy->getNumElements())
+ return V;
+
+ if (NumElements == 1) {
+ V = IRB.CreateExtractElement(V, IRB.getInt32(BeginIndex),
+ Name + ".extract");
+ DEBUG(dbgs() << " extract: " << *V << "\n");
+ return V;
+ }
+
+ SmallVector<Constant*, 8> Mask;
+ Mask.reserve(NumElements);
+ for (unsigned i = BeginIndex; i != EndIndex; ++i)
+ Mask.push_back(IRB.getInt32(i));
+ V = IRB.CreateShuffleVector(V, UndefValue::get(V->getType()),
+ ConstantVector::get(Mask),
+ Name + ".extract");
+ DEBUG(dbgs() << " shuffle: " << *V << "\n");
+ return V;
+}
+
+static Value *insertVector(IRBuilder<> &IRB, Value *Old, Value *V,
+ unsigned BeginIndex, const Twine &Name) {
+ VectorType *VecTy = cast<VectorType>(Old->getType());
+ assert(VecTy && "Can only insert a vector into a vector");
+
+ VectorType *Ty = dyn_cast<VectorType>(V->getType());
+ if (!Ty) {
+ // Single element to insert.
+ V = IRB.CreateInsertElement(Old, V, IRB.getInt32(BeginIndex),
+ Name + ".insert");
+ DEBUG(dbgs() << " insert: " << *V << "\n");
+ return V;
+ }
+
+ assert(Ty->getNumElements() <= VecTy->getNumElements() &&
+ "Too many elements!");
+ if (Ty->getNumElements() == VecTy->getNumElements()) {
+ assert(V->getType() == VecTy && "Vector type mismatch");
+ return V;
+ }
+ unsigned EndIndex = BeginIndex + Ty->getNumElements();
+
+ // When inserting a smaller vector into the larger to store, we first
+ // use a shuffle vector to widen it with undef elements, and then
+ // a second shuffle vector to select between the loaded vector and the
+ // incoming vector.
+ SmallVector<Constant*, 8> Mask;
+ Mask.reserve(VecTy->getNumElements());
+ for (unsigned i = 0; i != VecTy->getNumElements(); ++i)
+ if (i >= BeginIndex && i < EndIndex)
+ Mask.push_back(IRB.getInt32(i - BeginIndex));
+ else
+ Mask.push_back(UndefValue::get(IRB.getInt32Ty()));
+ V = IRB.CreateShuffleVector(V, UndefValue::get(V->getType()),
+ ConstantVector::get(Mask),
+ Name + ".expand");
+ DEBUG(dbgs() << " shuffle1: " << *V << "\n");
+
+ Mask.clear();
+ for (unsigned i = 0; i != VecTy->getNumElements(); ++i)
+ if (i >= BeginIndex && i < EndIndex)
+ Mask.push_back(IRB.getInt32(i));
+ else
+ Mask.push_back(IRB.getInt32(i + VecTy->getNumElements()));
+ V = IRB.CreateShuffleVector(V, Old, ConstantVector::get(Mask),
+ Name + "insert");
+ DEBUG(dbgs() << " shuffle2: " << *V << "\n");
+ return V;
+}
+
namespace {
/// \brief Visitor to rewrite instructions using a partition of an alloca to
/// use a new alloca.
++NumVectorized;
VecTy = cast<VectorType>(NewAI.getAllocatedType());
ElementTy = VecTy->getElementType();
- assert((VecTy->getScalarSizeInBits() % 8) == 0 &&
+ assert((TD.getTypeSizeInBits(VecTy->getScalarType()) % 8) == 0 &&
"Only multiple-of-8 sized vector elements are viable");
- ElementSize = VecTy->getScalarSizeInBits() / 8;
+ ElementSize = TD.getTypeSizeInBits(VecTy->getScalarType()) / 8;
} else if (isIntegerWideningViable(TD, NewAI.getAllocatedType(),
NewAllocaBeginOffset, P, I, E)) {
IntTy = Type::getIntNTy(NewAI.getContext(),
Pass.DeadInsts.insert(I);
}
- Value *rewriteVectorizedLoadInst(IRBuilder<> &IRB, LoadInst &LI, Value *OldOp) {
- Value *V = IRB.CreateAlignedLoad(&NewAI, NewAI.getAlignment(),
- getName(".load"));
+ Value *rewriteVectorizedLoadInst(IRBuilder<> &IRB) {
unsigned BeginIndex = getIndex(BeginOffset);
unsigned EndIndex = getIndex(EndOffset);
assert(EndIndex > BeginIndex && "Empty vector!");
- unsigned NumElements = EndIndex - BeginIndex;
- assert(NumElements <= VecTy->getNumElements() && "Too many elements!");
- if (NumElements == 1) {
- V = IRB.CreateExtractElement(V, IRB.getInt32(BeginIndex),
- getName(".extract"));
- DEBUG(dbgs() << " extract: " << *V << "\n");
- } else if (NumElements < VecTy->getNumElements()) {
- SmallVector<Constant*, 8> Mask;
- Mask.reserve(NumElements);
- for (unsigned i = BeginIndex; i != EndIndex; ++i)
- Mask.push_back(IRB.getInt32(i));
- V = IRB.CreateShuffleVector(V, UndefValue::get(V->getType()),
- ConstantVector::get(Mask),
- getName(".extract"));
- DEBUG(dbgs() << " shuffle: " << *V << "\n");
- }
- return V;
+
+ Value *V = IRB.CreateAlignedLoad(&NewAI, NewAI.getAlignment(),
+ getName(".load"));
+ return extractVector(IRB, V, BeginIndex, EndIndex, getName(".vec"));
}
Value *rewriteIntegerLoad(IRBuilder<> &IRB, LoadInst &LI) {
bool IsPtrAdjusted = false;
Value *V;
if (VecTy) {
- V = rewriteVectorizedLoadInst(IRB, LI, OldOp);
+ V = rewriteVectorizedLoadInst(IRB);
} else if (IntTy && LI.getType()->isIntegerTy()) {
V = rewriteIntegerLoad(IRB, LI);
} else if (BeginOffset == NewAllocaBeginOffset &&
: VectorType::get(ElementTy, NumElements);
if (V->getType() != PartitionTy)
V = convertValue(TD, IRB, V, PartitionTy);
- if (NumElements < VecTy->getNumElements()) {
- // We need to mix in the existing elements.
- LoadInst *LI = IRB.CreateAlignedLoad(&NewAI, NewAI.getAlignment(),
- getName(".load"));
- if (NumElements == 1) {
- V = IRB.CreateInsertElement(LI, V, IRB.getInt32(BeginIndex),
- getName(".insert"));
- DEBUG(dbgs() << " insert: " << *V << "\n");
- } else {
- // When inserting a smaller vector into the larger to store, we first
- // use a shuffle vector to widen it with undef elements, and then
- // a second shuffle vector to select between the loaded vector and the
- // incoming vector.
- SmallVector<Constant*, 8> Mask;
- Mask.reserve(VecTy->getNumElements());
- for (unsigned i = 0; i != VecTy->getNumElements(); ++i)
- if (i >= BeginIndex && i < EndIndex)
- Mask.push_back(IRB.getInt32(i - BeginIndex));
- else
- Mask.push_back(UndefValue::get(IRB.getInt32Ty()));
- V = IRB.CreateShuffleVector(V, UndefValue::get(V->getType()),
- ConstantVector::get(Mask),
- getName(".expand"));
- DEBUG(dbgs() << " shuffle1: " << *V << "\n");
-
- Mask.clear();
- for (unsigned i = 0; i != VecTy->getNumElements(); ++i)
- if (i >= BeginIndex && i < EndIndex)
- Mask.push_back(IRB.getInt32(i));
- else
- Mask.push_back(IRB.getInt32(i + VecTy->getNumElements()));
- V = IRB.CreateShuffleVector(V, LI, ConstantVector::get(Mask),
- getName("insert"));
- DEBUG(dbgs() << " shuffle2: " << *V << "\n");
- }
- } else {
- V = convertValue(TD, IRB, V, VecTy);
- }
+
+ // Mix in the existing elements.
+ Value *Old = IRB.CreateAlignedLoad(&NewAI, NewAI.getAlignment(),
+ getName(".load"));
+ V = insertVector(IRB, Old, V, BeginIndex, getName(".vec"));
+
StoreInst *Store = IRB.CreateAlignedStore(V, &NewAI, NewAI.getAlignment());
Pass.DeadInsts.insert(&SI);
return V;
}
+ /// \brief Compute a vector splat for a given element value.
+ Value *getVectorSplat(IRBuilder<> &IRB, Value *V, unsigned NumElements) {
+ V = IRB.CreateVectorSplat(NumElements, V, NamePrefix);
+ DEBUG(dbgs() << " splat: " << *V << "\n");
+ return V;
+ }
+
bool visitMemSetInst(MemSetInst &II) {
DEBUG(dbgs() << " original: " << II << "\n");
IRBuilder<> IRB(&II);
(BeginOffset != NewAllocaBeginOffset ||
EndOffset != NewAllocaEndOffset ||
!AllocaTy->isSingleValueType() ||
- !TD.isLegalInteger(TD.getTypeSizeInBits(ScalarTy)))) {
+ !TD.isLegalInteger(TD.getTypeSizeInBits(ScalarTy)) ||
+ TD.getTypeSizeInBits(ScalarTy)%8 != 0)) {
Type *SizeTy = II.getLength()->getType();
Constant *Size = ConstantInt::get(SizeTy, EndOffset - BeginOffset);
CallInst *New
// If we can represent this as a simple value, we have to build the actual
// value to store, which requires expanding the byte present in memset to
// a sensible representation for the alloca type. This is essentially
- // splatting the byte to a sufficiently wide integer, bitcasting to the
- // desired scalar type, and splatting it across any desired vector type.
- uint64_t Size = EndOffset - BeginOffset;
- Value *V = getIntegerSplat(IRB, II.getValue(), Size);
-
- // If this is an element-wide memset of a vectorizable alloca, insert it.
- if (VecTy && (BeginOffset > NewAllocaBeginOffset ||
- EndOffset < NewAllocaEndOffset)) {
- if (V->getType() != ScalarTy)
- V = convertValue(TD, IRB, V, ScalarTy);
- StoreInst *Store = IRB.CreateAlignedStore(
- IRB.CreateInsertElement(IRB.CreateAlignedLoad(&NewAI,
- NewAI.getAlignment(),
- getName(".load")),
- V, IRB.getInt32(getIndex(BeginOffset)),
- getName(".insert")),
- &NewAI, NewAI.getAlignment());
- (void)Store;
- DEBUG(dbgs() << " to: " << *Store << "\n");
- return true;
- }
+ // splatting the byte to a sufficiently wide integer, splatting it across
+ // any desired vector width, and bitcasting to the final type.
+ Value *V;
+
+ if (VecTy) {
+ // If this is a memset of a vectorized alloca, insert it.
+ assert(ElementTy == ScalarTy);
+
+ unsigned BeginIndex = getIndex(BeginOffset);
+ unsigned EndIndex = getIndex(EndOffset);
+ assert(EndIndex > BeginIndex && "Empty vector!");
+ unsigned NumElements = EndIndex - BeginIndex;
+ assert(NumElements <= VecTy->getNumElements() && "Too many elements!");
+
+ Value *Splat = getIntegerSplat(IRB, II.getValue(),
+ TD.getTypeSizeInBits(ElementTy)/8);
+ Splat = convertValue(TD, IRB, Splat, ElementTy);
+ if (NumElements > 1)
+ Splat = getVectorSplat(IRB, Splat, NumElements);
- // If this is a memset on an alloca where we can widen stores, insert the
- // set integer.
- if (IntTy && (BeginOffset > NewAllocaBeginOffset ||
- EndOffset < NewAllocaEndOffset)) {
- assert(!II.isVolatile());
Value *Old = IRB.CreateAlignedLoad(&NewAI, NewAI.getAlignment(),
getName(".oldload"));
- Old = convertValue(TD, IRB, Old, IntTy);
- assert(BeginOffset >= NewAllocaBeginOffset && "Out of bounds offset");
- uint64_t Offset = BeginOffset - NewAllocaBeginOffset;
- V = insertInteger(TD, IRB, Old, V, Offset, getName(".insert"));
- }
+ V = insertVector(IRB, Old, Splat, BeginIndex, getName(".vec"));
+ } else if (IntTy) {
+ // If this is a memset on an alloca where we can widen stores, insert the
+ // set integer.
+ assert(!II.isVolatile());
- if (V->getType() != AllocaTy)
+ uint64_t Size = EndOffset - BeginOffset;
+ V = getIntegerSplat(IRB, II.getValue(), Size);
+
+ if (IntTy && (BeginOffset != NewAllocaBeginOffset ||
+ EndOffset != NewAllocaBeginOffset)) {
+ Value *Old = IRB.CreateAlignedLoad(&NewAI, NewAI.getAlignment(),
+ getName(".oldload"));
+ Old = convertValue(TD, IRB, Old, IntTy);
+ assert(BeginOffset >= NewAllocaBeginOffset && "Out of bounds offset");
+ uint64_t Offset = BeginOffset - NewAllocaBeginOffset;
+ V = insertInteger(TD, IRB, Old, V, Offset, getName(".insert"));
+ } else {
+ assert(V->getType() == IntTy &&
+ "Wrong type for an alloca wide integer!");
+ }
V = convertValue(TD, IRB, V, AllocaTy);
+ } else {
+ // Established these invariants above.
+ assert(BeginOffset == NewAllocaBeginOffset);
+ assert(EndOffset == NewAllocaEndOffset);
+
+ V = getIntegerSplat(IRB, II.getValue(),
+ TD.getTypeSizeInBits(ScalarTy)/8);
+ if (VectorType *AllocaVecTy = dyn_cast<VectorType>(AllocaTy))
+ V = getVectorSplat(IRB, V, AllocaVecTy->getNumElements());
+
+ V = convertValue(TD, IRB, V, AllocaTy);
+ }
Value *New = IRB.CreateAlignedStore(V, &NewAI, NewAI.getAlignment(),
II.isVolatile());
// Record this instruction for deletion.
Pass.DeadInsts.insert(&II);
- bool IsWholeAlloca = BeginOffset == NewAllocaBeginOffset &&
- EndOffset == NewAllocaEndOffset;
- bool IsVectorElement = VecTy && !IsWholeAlloca;
- uint64_t Size = EndOffset - BeginOffset;
- IntegerType *SubIntTy
- = IntTy ? Type::getIntNTy(IntTy->getContext(), Size*8) : 0;
-
- Type *OtherPtrTy = IsDest ? II.getRawSource()->getType()
- : II.getRawDest()->getType();
- if (!EmitMemCpy) {
- if (IsVectorElement)
- OtherPtrTy = VecTy->getElementType()->getPointerTo();
- else if (IntTy && !IsWholeAlloca)
- OtherPtrTy = SubIntTy->getPointerTo();
- else
- OtherPtrTy = NewAI.getType();
- }
-
- // Compute the other pointer, folding as much as possible to produce
- // a single, simple GEP in most cases.
- Value *OtherPtr = IsDest ? II.getRawSource() : II.getRawDest();
- OtherPtr = getAdjustedPtr(IRB, TD, OtherPtr, RelOffset, OtherPtrTy,
- getName("." + OtherPtr->getName()));
-
// Strip all inbounds GEPs and pointer casts to try to dig out any root
// alloca that should be re-examined after rewriting this instruction.
+ Value *OtherPtr = IsDest ? II.getRawSource() : II.getRawDest();
if (AllocaInst *AI
= dyn_cast<AllocaInst>(OtherPtr->stripInBoundsOffsets()))
Pass.Worklist.insert(AI);
if (EmitMemCpy) {
+ Type *OtherPtrTy = IsDest ? II.getRawSource()->getType()
+ : II.getRawDest()->getType();
+
+ // Compute the other pointer, folding as much as possible to produce
+ // a single, simple GEP in most cases.
+ OtherPtr = getAdjustedPtr(IRB, TD, OtherPtr, RelOffset, OtherPtrTy,
+ getName("." + OtherPtr->getName()));
+
Value *OurPtr
= getAdjustedAllocaPtr(IRB, IsDest ? II.getRawDest()->getType()
: II.getRawSource()->getType());
if (!Align)
Align = 1;
- Value *SrcPtr = OtherPtr;
+ bool IsWholeAlloca = BeginOffset == NewAllocaBeginOffset &&
+ EndOffset == NewAllocaEndOffset;
+ uint64_t Size = EndOffset - BeginOffset;
+ unsigned BeginIndex = VecTy ? getIndex(BeginOffset) : 0;
+ unsigned EndIndex = VecTy ? getIndex(EndOffset) : 0;
+ unsigned NumElements = EndIndex - BeginIndex;
+ IntegerType *SubIntTy
+ = IntTy ? Type::getIntNTy(IntTy->getContext(), Size*8) : 0;
+
+ Type *OtherPtrTy = NewAI.getType();
+ if (VecTy && !IsWholeAlloca) {
+ if (NumElements == 1)
+ OtherPtrTy = VecTy->getElementType();
+ else
+ OtherPtrTy = VectorType::get(VecTy->getElementType(), NumElements);
+
+ OtherPtrTy = OtherPtrTy->getPointerTo();
+ } else if (IntTy && !IsWholeAlloca) {
+ OtherPtrTy = SubIntTy->getPointerTo();
+ }
+
+ Value *SrcPtr = getAdjustedPtr(IRB, TD, OtherPtr, RelOffset, OtherPtrTy,
+ getName("." + OtherPtr->getName()));
Value *DstPtr = &NewAI;
if (!IsDest)
std::swap(SrcPtr, DstPtr);
Value *Src;
- if (IsVectorElement && !IsDest) {
- // We have to extract rather than load.
- Src = IRB.CreateExtractElement(
- IRB.CreateAlignedLoad(SrcPtr, Align, getName(".copyload")),
- IRB.getInt32(getIndex(BeginOffset)),
- getName(".copyextract"));
+ if (VecTy && !IsWholeAlloca && !IsDest) {
+ Src = IRB.CreateAlignedLoad(&NewAI, NewAI.getAlignment(),
+ getName(".load"));
+ Src = extractVector(IRB, Src, BeginIndex, EndIndex, getName(".vec"));
} else if (IntTy && !IsWholeAlloca && !IsDest) {
Src = IRB.CreateAlignedLoad(&NewAI, NewAI.getAlignment(),
getName(".load"));
getName(".copyload"));
}
- if (IntTy && !IsWholeAlloca && IsDest) {
+ if (VecTy && !IsWholeAlloca && IsDest) {
+ Value *Old = IRB.CreateAlignedLoad(&NewAI, NewAI.getAlignment(),
+ getName(".oldload"));
+ Src = insertVector(IRB, Old, Src, BeginIndex, getName(".vec"));
+ } else if (IntTy && !IsWholeAlloca && IsDest) {
Value *Old = IRB.CreateAlignedLoad(&NewAI, NewAI.getAlignment(),
getName(".oldload"));
Old = convertValue(TD, IRB, Old, IntTy);
Src = convertValue(TD, IRB, Src, NewAllocaTy);
}
- if (IsVectorElement && IsDest) {
- // We have to insert into a loaded copy before storing.
- Src = IRB.CreateInsertElement(
- IRB.CreateAlignedLoad(&NewAI, NewAI.getAlignment(), getName(".load")),
- Src, IRB.getInt32(getIndex(BeginOffset)),
- getName(".insert"));
- }
-
StoreInst *Store = cast<StoreInst>(
IRB.CreateAlignedStore(Src, DstPtr, Align, II.isVolatile()));
(void)Store;
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