const DataLayout *DL;
const TargetLibraryInfo *TLI;
const DominatorTree *DT;
- AssumptionTracker *AT;
+ AssumptionCache *AC;
const Instruction *CxtI;
Query(const DataLayout *DL, const TargetLibraryInfo *tli,
- const DominatorTree *dt, AssumptionTracker *at = nullptr,
+ const DominatorTree *dt, AssumptionCache *ac = nullptr,
const Instruction *cxti = nullptr)
- : DL(DL), TLI(tli), DT(dt), AT(at), CxtI(cxti) {}
+ : DL(DL), TLI(tli), DT(dt), AC(ac), CxtI(cxti) {}
};
} // end anonymous namespace
static Value *SimplifyAndInst(Value *, Value *, const Query &, unsigned);
static Value *SimplifyBinOp(unsigned, Value *, Value *, const Query &,
unsigned);
+static Value *SimplifyFPBinOp(unsigned, Value *, Value *, const FastMathFlags &,
+ const Query &, unsigned);
static Value *SimplifyCmpInst(unsigned, Value *, Value *, const Query &,
unsigned);
static Value *SimplifyOrInst(Value *, Value *, const Query &, unsigned);
Value *llvm::SimplifyAddInst(Value *Op0, Value *Op1, bool isNSW, bool isNUW,
const DataLayout *DL, const TargetLibraryInfo *TLI,
- const DominatorTree *DT, AssumptionTracker *AT,
+ const DominatorTree *DT, AssumptionCache *AC,
const Instruction *CxtI) {
- return ::SimplifyAddInst(Op0, Op1, isNSW, isNUW,
- Query (DL, TLI, DT, AT, CxtI), RecursionLimit);
+ return ::SimplifyAddInst(Op0, Op1, isNSW, isNUW, Query(DL, TLI, DT, AC, CxtI),
+ RecursionLimit);
}
/// \brief Compute the base pointer and cumulative constant offsets for V.
Value *llvm::SimplifySubInst(Value *Op0, Value *Op1, bool isNSW, bool isNUW,
const DataLayout *DL, const TargetLibraryInfo *TLI,
- const DominatorTree *DT, AssumptionTracker *AT,
+ const DominatorTree *DT, AssumptionCache *AC,
const Instruction *CxtI) {
- return ::SimplifySubInst(Op0, Op1, isNSW, isNUW,
- Query (DL, TLI, DT, AT, CxtI), RecursionLimit);
+ return ::SimplifySubInst(Op0, Op1, isNSW, isNUW, Query(DL, TLI, DT, AC, CxtI),
+ RecursionLimit);
}
/// Given operands for an FAdd, see if we can fold the result. If not, this
}
Value *llvm::SimplifyFAddInst(Value *Op0, Value *Op1, FastMathFlags FMF,
- const DataLayout *DL, const TargetLibraryInfo *TLI,
- const DominatorTree *DT, AssumptionTracker *AT,
- const Instruction *CxtI) {
- return ::SimplifyFAddInst(Op0, Op1, FMF, Query (DL, TLI, DT, AT, CxtI),
+ const DataLayout *DL,
+ const TargetLibraryInfo *TLI,
+ const DominatorTree *DT, AssumptionCache *AC,
+ const Instruction *CxtI) {
+ return ::SimplifyFAddInst(Op0, Op1, FMF, Query(DL, TLI, DT, AC, CxtI),
RecursionLimit);
}
Value *llvm::SimplifyFSubInst(Value *Op0, Value *Op1, FastMathFlags FMF,
- const DataLayout *DL, const TargetLibraryInfo *TLI,
- const DominatorTree *DT, AssumptionTracker *AT,
- const Instruction *CxtI) {
- return ::SimplifyFSubInst(Op0, Op1, FMF, Query (DL, TLI, DT, AT, CxtI),
+ const DataLayout *DL,
+ const TargetLibraryInfo *TLI,
+ const DominatorTree *DT, AssumptionCache *AC,
+ const Instruction *CxtI) {
+ return ::SimplifyFSubInst(Op0, Op1, FMF, Query(DL, TLI, DT, AC, CxtI),
RecursionLimit);
}
-Value *llvm::SimplifyFMulInst(Value *Op0, Value *Op1,
- FastMathFlags FMF,
+Value *llvm::SimplifyFMulInst(Value *Op0, Value *Op1, FastMathFlags FMF,
const DataLayout *DL,
const TargetLibraryInfo *TLI,
- const DominatorTree *DT,
- AssumptionTracker *AT,
+ const DominatorTree *DT, AssumptionCache *AC,
const Instruction *CxtI) {
- return ::SimplifyFMulInst(Op0, Op1, FMF, Query (DL, TLI, DT, AT, CxtI),
+ return ::SimplifyFMulInst(Op0, Op1, FMF, Query(DL, TLI, DT, AC, CxtI),
RecursionLimit);
}
Value *llvm::SimplifyMulInst(Value *Op0, Value *Op1, const DataLayout *DL,
const TargetLibraryInfo *TLI,
- const DominatorTree *DT, AssumptionTracker *AT,
+ const DominatorTree *DT, AssumptionCache *AC,
const Instruction *CxtI) {
- return ::SimplifyMulInst(Op0, Op1, Query (DL, TLI, DT, AT, CxtI),
+ return ::SimplifyMulInst(Op0, Op1, Query(DL, TLI, DT, AC, CxtI),
RecursionLimit);
}
Value *llvm::SimplifySDivInst(Value *Op0, Value *Op1, const DataLayout *DL,
const TargetLibraryInfo *TLI,
- const DominatorTree *DT,
- AssumptionTracker *AT,
+ const DominatorTree *DT, AssumptionCache *AC,
const Instruction *CxtI) {
- return ::SimplifySDivInst(Op0, Op1, Query (DL, TLI, DT, AT, CxtI),
+ return ::SimplifySDivInst(Op0, Op1, Query(DL, TLI, DT, AC, CxtI),
RecursionLimit);
}
Value *llvm::SimplifyUDivInst(Value *Op0, Value *Op1, const DataLayout *DL,
const TargetLibraryInfo *TLI,
- const DominatorTree *DT,
- AssumptionTracker *AT,
+ const DominatorTree *DT, AssumptionCache *AC,
const Instruction *CxtI) {
- return ::SimplifyUDivInst(Op0, Op1, Query (DL, TLI, DT, AT, CxtI),
+ return ::SimplifyUDivInst(Op0, Op1, Query(DL, TLI, DT, AC, CxtI),
RecursionLimit);
}
-static Value *SimplifyFDivInst(Value *Op0, Value *Op1, const Query &Q,
- unsigned) {
+static Value *SimplifyFDivInst(Value *Op0, Value *Op1, FastMathFlags FMF,
+ const Query &Q, unsigned) {
// undef / X -> undef (the undef could be a snan).
if (match(Op0, m_Undef()))
return Op0;
if (match(Op1, m_Undef()))
return Op1;
+ // 0 / X -> 0
+ // Requires that NaNs are off (X could be zero) and signed zeroes are
+ // ignored (X could be positive or negative, so the output sign is unknown).
+ if (FMF.noNaNs() && FMF.noSignedZeros() && match(Op0, m_AnyZero()))
+ return Op0;
+
return nullptr;
}
-Value *llvm::SimplifyFDivInst(Value *Op0, Value *Op1, const DataLayout *DL,
+Value *llvm::SimplifyFDivInst(Value *Op0, Value *Op1, FastMathFlags FMF,
+ const DataLayout *DL,
const TargetLibraryInfo *TLI,
- const DominatorTree *DT,
- AssumptionTracker *AT,
+ const DominatorTree *DT, AssumptionCache *AC,
const Instruction *CxtI) {
- return ::SimplifyFDivInst(Op0, Op1, Query (DL, TLI, DT, AT, CxtI),
+ return ::SimplifyFDivInst(Op0, Op1, FMF, Query(DL, TLI, DT, AC, CxtI),
RecursionLimit);
}
Value *llvm::SimplifySRemInst(Value *Op0, Value *Op1, const DataLayout *DL,
const TargetLibraryInfo *TLI,
- const DominatorTree *DT,
- AssumptionTracker *AT,
+ const DominatorTree *DT, AssumptionCache *AC,
const Instruction *CxtI) {
- return ::SimplifySRemInst(Op0, Op1, Query (DL, TLI, DT, AT, CxtI),
+ return ::SimplifySRemInst(Op0, Op1, Query(DL, TLI, DT, AC, CxtI),
RecursionLimit);
}
Value *llvm::SimplifyURemInst(Value *Op0, Value *Op1, const DataLayout *DL,
const TargetLibraryInfo *TLI,
- const DominatorTree *DT,
- AssumptionTracker *AT,
+ const DominatorTree *DT, AssumptionCache *AC,
const Instruction *CxtI) {
- return ::SimplifyURemInst(Op0, Op1, Query (DL, TLI, DT, AT, CxtI),
+ return ::SimplifyURemInst(Op0, Op1, Query(DL, TLI, DT, AC, CxtI),
RecursionLimit);
}
-static Value *SimplifyFRemInst(Value *Op0, Value *Op1, const Query &,
- unsigned) {
+static Value *SimplifyFRemInst(Value *Op0, Value *Op1, FastMathFlags FMF,
+ const Query &, unsigned) {
// undef % X -> undef (the undef could be a snan).
if (match(Op0, m_Undef()))
return Op0;
if (match(Op1, m_Undef()))
return Op1;
+ // 0 % X -> 0
+ // Requires that NaNs are off (X could be zero) and signed zeroes are
+ // ignored (X could be positive or negative, so the output sign is unknown).
+ if (FMF.noNaNs() && FMF.noSignedZeros() && match(Op0, m_AnyZero()))
+ return Op0;
+
return nullptr;
}
-Value *llvm::SimplifyFRemInst(Value *Op0, Value *Op1, const DataLayout *DL,
+Value *llvm::SimplifyFRemInst(Value *Op0, Value *Op1, FastMathFlags FMF,
+ const DataLayout *DL,
const TargetLibraryInfo *TLI,
- const DominatorTree *DT,
- AssumptionTracker *AT,
+ const DominatorTree *DT, AssumptionCache *AC,
const Instruction *CxtI) {
- return ::SimplifyFRemInst(Op0, Op1, Query (DL, TLI, DT, AT, CxtI),
+ return ::SimplifyFRemInst(Op0, Op1, FMF, Query(DL, TLI, DT, AC, CxtI),
RecursionLimit);
}
if (Op0 == Op1)
return Constant::getNullValue(Op0->getType());
+ // undef >> X -> 0
+ // undef >> X -> undef (if it's exact)
+ if (match(Op0, m_Undef()))
+ return isExact ? Op0 : Constant::getNullValue(Op0->getType());
+
// The low bit cannot be shifted out of an exact shift if it is set.
if (isExact) {
unsigned BitWidth = Op0->getType()->getScalarSizeInBits();
APInt Op0KnownZero(BitWidth, 0);
APInt Op0KnownOne(BitWidth, 0);
- computeKnownBits(Op0, Op0KnownZero, Op0KnownOne, Q.DL, /*Depth=*/0, Q.AT, Q.CxtI,
- Q.DT);
+ computeKnownBits(Op0, Op0KnownZero, Op0KnownOne, Q.DL, /*Depth=*/0, Q.AC,
+ Q.CxtI, Q.DT);
if (Op0KnownOne[0])
return Op0;
}
return V;
// undef << X -> 0
+ // undef << X -> undef if (if it's NSW/NUW)
if (match(Op0, m_Undef()))
- return Constant::getNullValue(Op0->getType());
+ return isNSW || isNUW ? Op0 : Constant::getNullValue(Op0->getType());
// (X >> A) << A -> X
Value *X;
Value *llvm::SimplifyShlInst(Value *Op0, Value *Op1, bool isNSW, bool isNUW,
const DataLayout *DL, const TargetLibraryInfo *TLI,
- const DominatorTree *DT, AssumptionTracker *AT,
+ const DominatorTree *DT, AssumptionCache *AC,
const Instruction *CxtI) {
- return ::SimplifyShlInst(Op0, Op1, isNSW, isNUW, Query (DL, TLI, DT, AT, CxtI),
+ return ::SimplifyShlInst(Op0, Op1, isNSW, isNUW, Query(DL, TLI, DT, AC, CxtI),
RecursionLimit);
}
MaxRecurse))
return V;
- // undef >>l X -> 0
- // undef >>l X -> undef (if it's exact)
- if (match(Op0, m_Undef()))
- return isExact ? UndefValue::get(Op0->getType())
- : Constant::getNullValue(Op0->getType());
-
// (X << A) >> A -> X
Value *X;
if (match(Op0, m_NUWShl(m_Value(X), m_Specific(Op1))))
Value *llvm::SimplifyLShrInst(Value *Op0, Value *Op1, bool isExact,
const DataLayout *DL,
const TargetLibraryInfo *TLI,
- const DominatorTree *DT,
- AssumptionTracker *AT,
+ const DominatorTree *DT, AssumptionCache *AC,
const Instruction *CxtI) {
- return ::SimplifyLShrInst(Op0, Op1, isExact, Query (DL, TLI, DT, AT, CxtI),
+ return ::SimplifyLShrInst(Op0, Op1, isExact, Query(DL, TLI, DT, AC, CxtI),
RecursionLimit);
}
if (match(Op0, m_AllOnes()))
return Op0;
- // undef >>a X -> 0
- // undef >>a X -> undef (if it's exact)
- if (match(Op0, m_Undef()))
- return isExact ? UndefValue::get(Op0->getType())
- : Constant::getNullValue(Op0->getType());
-
// (X << A) >> A -> X
Value *X;
if (match(Op0, m_NSWShl(m_Value(X), m_Specific(Op1))))
return X;
// Arithmetic shifting an all-sign-bit value is a no-op.
- unsigned NumSignBits = ComputeNumSignBits(Op0, Q.DL, 0, Q.AT, Q.CxtI, Q.DT);
+ unsigned NumSignBits = ComputeNumSignBits(Op0, Q.DL, 0, Q.AC, Q.CxtI, Q.DT);
if (NumSignBits == Op0->getType()->getScalarSizeInBits())
return Op0;
Value *llvm::SimplifyAShrInst(Value *Op0, Value *Op1, bool isExact,
const DataLayout *DL,
const TargetLibraryInfo *TLI,
- const DominatorTree *DT,
- AssumptionTracker *AT,
+ const DominatorTree *DT, AssumptionCache *AC,
const Instruction *CxtI) {
- return ::SimplifyAShrInst(Op0, Op1, isExact, Query (DL, TLI, DT, AT, CxtI),
+ return ::SimplifyAShrInst(Op0, Op1, isExact, Query(DL, TLI, DT, AC, CxtI),
RecursionLimit);
}
// A & (-A) = A if A is a power of two or zero.
if (match(Op0, m_Neg(m_Specific(Op1))) ||
match(Op1, m_Neg(m_Specific(Op0)))) {
- if (isKnownToBeAPowerOfTwo(Op0, /*OrZero*/true, 0, Q.AT, Q.CxtI, Q.DT))
+ if (isKnownToBeAPowerOfTwo(Op0, /*OrZero*/ true, 0, Q.AC, Q.CxtI, Q.DT))
return Op0;
- if (isKnownToBeAPowerOfTwo(Op1, /*OrZero*/true, 0, Q.AT, Q.CxtI, Q.DT))
+ if (isKnownToBeAPowerOfTwo(Op1, /*OrZero*/ true, 0, Q.AC, Q.CxtI, Q.DT))
return Op1;
}
Value *llvm::SimplifyAndInst(Value *Op0, Value *Op1, const DataLayout *DL,
const TargetLibraryInfo *TLI,
- const DominatorTree *DT, AssumptionTracker *AT,
+ const DominatorTree *DT, AssumptionCache *AC,
const Instruction *CxtI) {
- return ::SimplifyAndInst(Op0, Op1, Query (DL, TLI, DT, AT, CxtI),
+ return ::SimplifyAndInst(Op0, Op1, Query(DL, TLI, DT, AC, CxtI),
RecursionLimit);
}
if ((C2->getValue() & (C2->getValue() + 1)) == 0 && // C2 == 0+1+
match(A, m_Add(m_Value(V1), m_Value(V2)))) {
// Add commutes, try both ways.
- if (V1 == B && MaskedValueIsZero(V2, C2->getValue(), Q.DL,
- 0, Q.AT, Q.CxtI, Q.DT))
+ if (V1 == B &&
+ MaskedValueIsZero(V2, C2->getValue(), Q.DL, 0, Q.AC, Q.CxtI, Q.DT))
return A;
- if (V2 == B && MaskedValueIsZero(V1, C2->getValue(), Q.DL,
- 0, Q.AT, Q.CxtI, Q.DT))
+ if (V2 == B &&
+ MaskedValueIsZero(V1, C2->getValue(), Q.DL, 0, Q.AC, Q.CxtI, Q.DT))
return A;
}
// Or commutes, try both ways.
if ((C1->getValue() & (C1->getValue() + 1)) == 0 &&
match(B, m_Add(m_Value(V1), m_Value(V2)))) {
// Add commutes, try both ways.
- if (V1 == A && MaskedValueIsZero(V2, C1->getValue(), Q.DL,
- 0, Q.AT, Q.CxtI, Q.DT))
+ if (V1 == A &&
+ MaskedValueIsZero(V2, C1->getValue(), Q.DL, 0, Q.AC, Q.CxtI, Q.DT))
return B;
- if (V2 == A && MaskedValueIsZero(V1, C1->getValue(), Q.DL,
- 0, Q.AT, Q.CxtI, Q.DT))
+ if (V2 == A &&
+ MaskedValueIsZero(V1, C1->getValue(), Q.DL, 0, Q.AC, Q.CxtI, Q.DT))
return B;
}
}
Value *llvm::SimplifyOrInst(Value *Op0, Value *Op1, const DataLayout *DL,
const TargetLibraryInfo *TLI,
- const DominatorTree *DT, AssumptionTracker *AT,
+ const DominatorTree *DT, AssumptionCache *AC,
const Instruction *CxtI) {
- return ::SimplifyOrInst(Op0, Op1, Query (DL, TLI, DT, AT, CxtI),
+ return ::SimplifyOrInst(Op0, Op1, Query(DL, TLI, DT, AC, CxtI),
RecursionLimit);
}
Value *llvm::SimplifyXorInst(Value *Op0, Value *Op1, const DataLayout *DL,
const TargetLibraryInfo *TLI,
- const DominatorTree *DT, AssumptionTracker *AT,
+ const DominatorTree *DT, AssumptionCache *AC,
const Instruction *CxtI) {
- return ::SimplifyXorInst(Op0, Op1, Query (DL, TLI, DT, AT, CxtI),
+ return ::SimplifyXorInst(Op0, Op1, Query(DL, TLI, DT, AC, CxtI),
RecursionLimit);
}
return getTrue(ITy);
case ICmpInst::ICMP_EQ:
case ICmpInst::ICMP_ULE:
- if (isKnownNonZero(LHS, Q.DL, 0, Q.AT, Q.CxtI, Q.DT))
+ if (isKnownNonZero(LHS, Q.DL, 0, Q.AC, Q.CxtI, Q.DT))
return getFalse(ITy);
break;
case ICmpInst::ICMP_NE:
case ICmpInst::ICMP_UGT:
- if (isKnownNonZero(LHS, Q.DL, 0, Q.AT, Q.CxtI, Q.DT))
+ if (isKnownNonZero(LHS, Q.DL, 0, Q.AC, Q.CxtI, Q.DT))
return getTrue(ITy);
break;
case ICmpInst::ICMP_SLT:
- ComputeSignBit(LHS, LHSKnownNonNegative, LHSKnownNegative, Q.DL,
- 0, Q.AT, Q.CxtI, Q.DT);
+ ComputeSignBit(LHS, LHSKnownNonNegative, LHSKnownNegative, Q.DL, 0, Q.AC,
+ Q.CxtI, Q.DT);
if (LHSKnownNegative)
return getTrue(ITy);
if (LHSKnownNonNegative)
return getFalse(ITy);
break;
case ICmpInst::ICMP_SLE:
- ComputeSignBit(LHS, LHSKnownNonNegative, LHSKnownNegative, Q.DL,
- 0, Q.AT, Q.CxtI, Q.DT);
+ ComputeSignBit(LHS, LHSKnownNonNegative, LHSKnownNegative, Q.DL, 0, Q.AC,
+ Q.CxtI, Q.DT);
if (LHSKnownNegative)
return getTrue(ITy);
- if (LHSKnownNonNegative && isKnownNonZero(LHS, Q.DL,
- 0, Q.AT, Q.CxtI, Q.DT))
+ if (LHSKnownNonNegative &&
+ isKnownNonZero(LHS, Q.DL, 0, Q.AC, Q.CxtI, Q.DT))
return getFalse(ITy);
break;
case ICmpInst::ICMP_SGE:
- ComputeSignBit(LHS, LHSKnownNonNegative, LHSKnownNegative, Q.DL,
- 0, Q.AT, Q.CxtI, Q.DT);
+ ComputeSignBit(LHS, LHSKnownNonNegative, LHSKnownNegative, Q.DL, 0, Q.AC,
+ Q.CxtI, Q.DT);
if (LHSKnownNegative)
return getFalse(ITy);
if (LHSKnownNonNegative)
return getTrue(ITy);
break;
case ICmpInst::ICMP_SGT:
- ComputeSignBit(LHS, LHSKnownNonNegative, LHSKnownNegative, Q.DL,
- 0, Q.AT, Q.CxtI, Q.DT);
+ ComputeSignBit(LHS, LHSKnownNonNegative, LHSKnownNegative, Q.DL, 0, Q.AC,
+ Q.CxtI, Q.DT);
if (LHSKnownNegative)
return getFalse(ITy);
- if (LHSKnownNonNegative && isKnownNonZero(LHS, Q.DL,
- 0, Q.AT, Q.CxtI, Q.DT))
+ if (LHSKnownNonNegative &&
+ isKnownNonZero(LHS, Q.DL, 0, Q.AC, Q.CxtI, Q.DT))
return getTrue(ITy);
break;
}
break;
case ICmpInst::ICMP_SGT:
case ICmpInst::ICMP_SGE:
- ComputeSignBit(RHS, KnownNonNegative, KnownNegative, Q.DL,
- 0, Q.AT, Q.CxtI, Q.DT);
+ ComputeSignBit(RHS, KnownNonNegative, KnownNegative, Q.DL, 0, Q.AC,
+ Q.CxtI, Q.DT);
if (!KnownNonNegative)
break;
// fall-through
return getFalse(ITy);
case ICmpInst::ICMP_SLT:
case ICmpInst::ICMP_SLE:
- ComputeSignBit(RHS, KnownNonNegative, KnownNegative, Q.DL,
- 0, Q.AT, Q.CxtI, Q.DT);
+ ComputeSignBit(RHS, KnownNonNegative, KnownNegative, Q.DL, 0, Q.AC,
+ Q.CxtI, Q.DT);
if (!KnownNonNegative)
break;
// fall-through
break;
case ICmpInst::ICMP_SGT:
case ICmpInst::ICMP_SGE:
- ComputeSignBit(LHS, KnownNonNegative, KnownNegative, Q.DL,
- 0, Q.AT, Q.CxtI, Q.DT);
+ ComputeSignBit(LHS, KnownNonNegative, KnownNegative, Q.DL, 0, Q.AC,
+ Q.CxtI, Q.DT);
if (!KnownNonNegative)
break;
// fall-through
return getTrue(ITy);
case ICmpInst::ICMP_SLT:
case ICmpInst::ICMP_SLE:
- ComputeSignBit(LHS, KnownNonNegative, KnownNegative, Q.DL,
- 0, Q.AT, Q.CxtI, Q.DT);
+ ComputeSignBit(LHS, KnownNonNegative, KnownNegative, Q.DL, 0, Q.AC,
+ Q.CxtI, Q.DT);
if (!KnownNonNegative)
break;
// fall-through
uint32_t BitWidth = CI->getBitWidth();
APInt LHSKnownZero(BitWidth, 0);
APInt LHSKnownOne(BitWidth, 0);
- computeKnownBits(LHS, LHSKnownZero, LHSKnownOne, Q.DL, /*Depth=*/0, Q.AT,
+ computeKnownBits(LHS, LHSKnownZero, LHSKnownOne, Q.DL, /*Depth=*/0, Q.AC,
Q.CxtI, Q.DT);
const APInt &RHSVal = CI->getValue();
if (((LHSKnownZero & RHSVal) != 0) || ((LHSKnownOne & ~RHSVal) != 0))
Value *llvm::SimplifyICmpInst(unsigned Predicate, Value *LHS, Value *RHS,
const DataLayout *DL,
const TargetLibraryInfo *TLI,
- const DominatorTree *DT,
- AssumptionTracker *AT,
+ const DominatorTree *DT, AssumptionCache *AC,
Instruction *CxtI) {
- return ::SimplifyICmpInst(Predicate, LHS, RHS, Query (DL, TLI, DT, AT, CxtI),
+ return ::SimplifyICmpInst(Predicate, LHS, RHS, Query(DL, TLI, DT, AC, CxtI),
RecursionLimit);
}
if (Pred == FCmpInst::FCMP_TRUE)
return ConstantInt::get(GetCompareTy(LHS), 1);
- if (isa<UndefValue>(RHS)) // fcmp pred X, undef -> undef
- return UndefValue::get(GetCompareTy(LHS));
+ // fcmp pred x, undef and fcmp pred undef, x
+ // fold to true if unordered, false if ordered
+ if (isa<UndefValue>(LHS) || isa<UndefValue>(RHS)) {
+ // Choosing NaN for the undef will always make unordered comparison succeed
+ // and ordered comparison fail.
+ return ConstantInt::get(GetCompareTy(LHS), CmpInst::isUnordered(Pred));
+ }
// fcmp x,x -> true/false. Not all compares are foldable.
if (LHS == RHS) {
}
// Handle fcmp with constant RHS
- if (Constant *RHSC = dyn_cast<Constant>(RHS)) {
+ if (ConstantFP *CFP = dyn_cast<ConstantFP>(RHS)) {
// If the constant is a nan, see if we can fold the comparison based on it.
- if (ConstantFP *CFP = dyn_cast<ConstantFP>(RHSC)) {
- if (CFP->getValueAPF().isNaN()) {
- if (FCmpInst::isOrdered(Pred)) // True "if ordered and foo"
+ if (CFP->getValueAPF().isNaN()) {
+ if (FCmpInst::isOrdered(Pred)) // True "if ordered and foo"
+ return ConstantInt::getFalse(CFP->getContext());
+ assert(FCmpInst::isUnordered(Pred) &&
+ "Comparison must be either ordered or unordered!");
+ // True if unordered.
+ return ConstantInt::getTrue(CFP->getContext());
+ }
+ // Check whether the constant is an infinity.
+ if (CFP->getValueAPF().isInfinity()) {
+ if (CFP->getValueAPF().isNegative()) {
+ switch (Pred) {
+ case FCmpInst::FCMP_OLT:
+ // No value is ordered and less than negative infinity.
return ConstantInt::getFalse(CFP->getContext());
- assert(FCmpInst::isUnordered(Pred) &&
- "Comparison must be either ordered or unordered!");
- // True if unordered.
- return ConstantInt::getTrue(CFP->getContext());
- }
- // Check whether the constant is an infinity.
- if (CFP->getValueAPF().isInfinity()) {
- if (CFP->getValueAPF().isNegative()) {
- switch (Pred) {
- case FCmpInst::FCMP_OLT:
- // No value is ordered and less than negative infinity.
- return ConstantInt::getFalse(CFP->getContext());
- case FCmpInst::FCMP_UGE:
- // All values are unordered with or at least negative infinity.
- return ConstantInt::getTrue(CFP->getContext());
- default:
- break;
- }
- } else {
- switch (Pred) {
- case FCmpInst::FCMP_OGT:
- // No value is ordered and greater than infinity.
- return ConstantInt::getFalse(CFP->getContext());
- case FCmpInst::FCMP_ULE:
- // All values are unordered with and at most infinity.
- return ConstantInt::getTrue(CFP->getContext());
- default:
- break;
- }
+ case FCmpInst::FCMP_UGE:
+ // All values are unordered with or at least negative infinity.
+ return ConstantInt::getTrue(CFP->getContext());
+ default:
+ break;
+ }
+ } else {
+ switch (Pred) {
+ case FCmpInst::FCMP_OGT:
+ // No value is ordered and greater than infinity.
+ return ConstantInt::getFalse(CFP->getContext());
+ case FCmpInst::FCMP_ULE:
+ // All values are unordered with and at most infinity.
+ return ConstantInt::getTrue(CFP->getContext());
+ default:
+ break;
}
}
}
+ if (CFP->getValueAPF().isZero()) {
+ switch (Pred) {
+ case FCmpInst::FCMP_UGE:
+ if (CannotBeOrderedLessThanZero(LHS))
+ return ConstantInt::getTrue(CFP->getContext());
+ break;
+ case FCmpInst::FCMP_OLT:
+ // X < 0
+ if (CannotBeOrderedLessThanZero(LHS))
+ return ConstantInt::getFalse(CFP->getContext());
+ break;
+ default:
+ break;
+ }
+ }
}
// If the comparison is with the result of a select instruction, check whether
Value *llvm::SimplifyFCmpInst(unsigned Predicate, Value *LHS, Value *RHS,
const DataLayout *DL,
const TargetLibraryInfo *TLI,
- const DominatorTree *DT,
- AssumptionTracker *AT,
+ const DominatorTree *DT, AssumptionCache *AC,
const Instruction *CxtI) {
- return ::SimplifyFCmpInst(Predicate, LHS, RHS, Query (DL, TLI, DT, AT, CxtI),
+ return ::SimplifyFCmpInst(Predicate, LHS, RHS, Query(DL, TLI, DT, AC, CxtI),
RecursionLimit);
}
if (isa<UndefValue>(FalseVal)) // select C, X, undef -> X
return TrueVal;
- if (const auto *ICI = dyn_cast<ICmpInst>(CondVal)) {
+ const auto *ICI = dyn_cast<ICmpInst>(CondVal);
+ unsigned BitWidth = TrueVal->getType()->getScalarSizeInBits();
+ if (ICI && BitWidth) {
+ ICmpInst::Predicate Pred = ICI->getPredicate();
+ APInt MinSignedValue = APInt::getSignBit(BitWidth);
Value *X;
const APInt *Y;
- if (ICI->isEquality() &&
+ bool TrueWhenUnset;
+ bool IsBitTest = false;
+ if (ICmpInst::isEquality(Pred) &&
match(ICI->getOperand(0), m_And(m_Value(X), m_APInt(Y))) &&
match(ICI->getOperand(1), m_Zero())) {
- ICmpInst::Predicate Pred = ICI->getPredicate();
+ IsBitTest = true;
+ TrueWhenUnset = Pred == ICmpInst::ICMP_EQ;
+ } else if (Pred == ICmpInst::ICMP_SLT &&
+ match(ICI->getOperand(1), m_Zero())) {
+ X = ICI->getOperand(0);
+ Y = &MinSignedValue;
+ IsBitTest = true;
+ TrueWhenUnset = false;
+ } else if (Pred == ICmpInst::ICMP_SGT &&
+ match(ICI->getOperand(1), m_AllOnes())) {
+ X = ICI->getOperand(0);
+ Y = &MinSignedValue;
+ IsBitTest = true;
+ TrueWhenUnset = true;
+ }
+ if (IsBitTest) {
const APInt *C;
// (X & Y) == 0 ? X & ~Y : X --> X
// (X & Y) != 0 ? X & ~Y : X --> X & ~Y
if (FalseVal == X && match(TrueVal, m_And(m_Specific(X), m_APInt(C))) &&
*Y == ~*C)
- return Pred == ICmpInst::ICMP_EQ ? FalseVal : TrueVal;
+ return TrueWhenUnset ? FalseVal : TrueVal;
// (X & Y) == 0 ? X : X & ~Y --> X & ~Y
// (X & Y) != 0 ? X : X & ~Y --> X
if (TrueVal == X && match(FalseVal, m_And(m_Specific(X), m_APInt(C))) &&
*Y == ~*C)
- return Pred == ICmpInst::ICMP_EQ ? FalseVal : TrueVal;
+ return TrueWhenUnset ? FalseVal : TrueVal;
if (Y->isPowerOf2()) {
// (X & Y) == 0 ? X | Y : X --> X | Y
// (X & Y) != 0 ? X | Y : X --> X
if (FalseVal == X && match(TrueVal, m_Or(m_Specific(X), m_APInt(C))) &&
*Y == *C)
- return Pred == ICmpInst::ICMP_EQ ? TrueVal : FalseVal;
+ return TrueWhenUnset ? TrueVal : FalseVal;
// (X & Y) == 0 ? X : X | Y --> X
// (X & Y) != 0 ? X : X | Y --> X | Y
if (TrueVal == X && match(FalseVal, m_Or(m_Specific(X), m_APInt(C))) &&
*Y == *C)
- return Pred == ICmpInst::ICMP_EQ ? TrueVal : FalseVal;
+ return TrueWhenUnset ? TrueVal : FalseVal;
}
}
}
Value *llvm::SimplifySelectInst(Value *Cond, Value *TrueVal, Value *FalseVal,
const DataLayout *DL,
const TargetLibraryInfo *TLI,
- const DominatorTree *DT,
- AssumptionTracker *AT,
+ const DominatorTree *DT, AssumptionCache *AC,
const Instruction *CxtI) {
return ::SimplifySelectInst(Cond, TrueVal, FalseVal,
- Query (DL, TLI, DT, AT, CxtI), RecursionLimit);
+ Query(DL, TLI, DT, AC, CxtI), RecursionLimit);
}
/// SimplifyGEPInst - Given operands for an GetElementPtrInst, see if we can
Value *llvm::SimplifyGEPInst(ArrayRef<Value *> Ops, const DataLayout *DL,
const TargetLibraryInfo *TLI,
- const DominatorTree *DT, AssumptionTracker *AT,
+ const DominatorTree *DT, AssumptionCache *AC,
const Instruction *CxtI) {
- return ::SimplifyGEPInst(Ops, Query (DL, TLI, DT, AT, CxtI), RecursionLimit);
+ return ::SimplifyGEPInst(Ops, Query(DL, TLI, DT, AC, CxtI), RecursionLimit);
}
/// SimplifyInsertValueInst - Given operands for an InsertValueInst, see if we
return nullptr;
}
-Value *llvm::SimplifyInsertValueInst(Value *Agg, Value *Val,
- ArrayRef<unsigned> Idxs,
- const DataLayout *DL,
- const TargetLibraryInfo *TLI,
- const DominatorTree *DT,
- AssumptionTracker *AT,
- const Instruction *CxtI) {
- return ::SimplifyInsertValueInst(Agg, Val, Idxs,
- Query (DL, TLI, DT, AT, CxtI),
+Value *llvm::SimplifyInsertValueInst(
+ Value *Agg, Value *Val, ArrayRef<unsigned> Idxs, const DataLayout *DL,
+ const TargetLibraryInfo *TLI, const DominatorTree *DT, AssumptionCache *AC,
+ const Instruction *CxtI) {
+ return ::SimplifyInsertValueInst(Agg, Val, Idxs, Query(DL, TLI, DT, AC, CxtI),
RecursionLimit);
}
Value *llvm::SimplifyTruncInst(Value *Op, Type *Ty, const DataLayout *DL,
const TargetLibraryInfo *TLI,
- const DominatorTree *DT,
- AssumptionTracker *AT,
+ const DominatorTree *DT, AssumptionCache *AC,
const Instruction *CxtI) {
- return ::SimplifyTruncInst(Op, Ty, Query (DL, TLI, DT, AT, CxtI),
+ return ::SimplifyTruncInst(Op, Ty, Query(DL, TLI, DT, AC, CxtI),
RecursionLimit);
}
return SimplifyFMulInst (LHS, RHS, FastMathFlags(), Q, MaxRecurse);
case Instruction::SDiv: return SimplifySDivInst(LHS, RHS, Q, MaxRecurse);
case Instruction::UDiv: return SimplifyUDivInst(LHS, RHS, Q, MaxRecurse);
- case Instruction::FDiv: return SimplifyFDivInst(LHS, RHS, Q, MaxRecurse);
+ case Instruction::FDiv:
+ return SimplifyFDivInst(LHS, RHS, FastMathFlags(), Q, MaxRecurse);
case Instruction::SRem: return SimplifySRemInst(LHS, RHS, Q, MaxRecurse);
case Instruction::URem: return SimplifyURemInst(LHS, RHS, Q, MaxRecurse);
- case Instruction::FRem: return SimplifyFRemInst(LHS, RHS, Q, MaxRecurse);
+ case Instruction::FRem:
+ return SimplifyFRemInst(LHS, RHS, FastMathFlags(), Q, MaxRecurse);
case Instruction::Shl:
return SimplifyShlInst(LHS, RHS, /*isNSW*/false, /*isNUW*/false,
Q, MaxRecurse);
}
}
+/// SimplifyFPBinOp - Given operands for a BinaryOperator, see if we can
+/// fold the result. If not, this returns null.
+/// In contrast to SimplifyBinOp, try to use FastMathFlag when folding the
+/// result. In case we don't need FastMathFlags, simply fall to SimplifyBinOp.
+static Value *SimplifyFPBinOp(unsigned Opcode, Value *LHS, Value *RHS,
+ const FastMathFlags &FMF, const Query &Q,
+ unsigned MaxRecurse) {
+ switch (Opcode) {
+ case Instruction::FAdd:
+ return SimplifyFAddInst(LHS, RHS, FMF, Q, MaxRecurse);
+ case Instruction::FSub:
+ return SimplifyFSubInst(LHS, RHS, FMF, Q, MaxRecurse);
+ case Instruction::FMul:
+ return SimplifyFMulInst(LHS, RHS, FMF, Q, MaxRecurse);
+ default:
+ return SimplifyBinOp(Opcode, LHS, RHS, Q, MaxRecurse);
+ }
+}
+
Value *llvm::SimplifyBinOp(unsigned Opcode, Value *LHS, Value *RHS,
const DataLayout *DL, const TargetLibraryInfo *TLI,
- const DominatorTree *DT, AssumptionTracker *AT,
+ const DominatorTree *DT, AssumptionCache *AC,
const Instruction *CxtI) {
- return ::SimplifyBinOp(Opcode, LHS, RHS, Query (DL, TLI, DT, AT, CxtI),
+ return ::SimplifyBinOp(Opcode, LHS, RHS, Query(DL, TLI, DT, AC, CxtI),
RecursionLimit);
}
+Value *llvm::SimplifyFPBinOp(unsigned Opcode, Value *LHS, Value *RHS,
+ const FastMathFlags &FMF, const DataLayout *DL,
+ const TargetLibraryInfo *TLI,
+ const DominatorTree *DT, AssumptionCache *AC,
+ const Instruction *CxtI) {
+ return ::SimplifyFPBinOp(Opcode, LHS, RHS, FMF, Query(DL, TLI, DT, AC, CxtI),
+ RecursionLimit);
+}
+
/// SimplifyCmpInst - Given operands for a CmpInst, see if we can
/// fold the result.
static Value *SimplifyCmpInst(unsigned Predicate, Value *LHS, Value *RHS,
Value *llvm::SimplifyCmpInst(unsigned Predicate, Value *LHS, Value *RHS,
const DataLayout *DL, const TargetLibraryInfo *TLI,
- const DominatorTree *DT, AssumptionTracker *AT,
+ const DominatorTree *DT, AssumptionCache *AC,
const Instruction *CxtI) {
- return ::SimplifyCmpInst(Predicate, LHS, RHS, Query (DL, TLI, DT, AT, CxtI),
+ return ::SimplifyCmpInst(Predicate, LHS, RHS, Query(DL, TLI, DT, AC, CxtI),
RecursionLimit);
}
Value *llvm::SimplifyCall(Value *V, User::op_iterator ArgBegin,
User::op_iterator ArgEnd, const DataLayout *DL,
- const TargetLibraryInfo *TLI,
- const DominatorTree *DT, AssumptionTracker *AT,
- const Instruction *CxtI) {
- return ::SimplifyCall(V, ArgBegin, ArgEnd, Query(DL, TLI, DT, AT, CxtI),
+ const TargetLibraryInfo *TLI, const DominatorTree *DT,
+ AssumptionCache *AC, const Instruction *CxtI) {
+ return ::SimplifyCall(V, ArgBegin, ArgEnd, Query(DL, TLI, DT, AC, CxtI),
RecursionLimit);
}
Value *llvm::SimplifyCall(Value *V, ArrayRef<Value *> Args,
const DataLayout *DL, const TargetLibraryInfo *TLI,
- const DominatorTree *DT, AssumptionTracker *AT,
+ const DominatorTree *DT, AssumptionCache *AC,
const Instruction *CxtI) {
return ::SimplifyCall(V, Args.begin(), Args.end(),
- Query(DL, TLI, DT, AT, CxtI), RecursionLimit);
+ Query(DL, TLI, DT, AC, CxtI), RecursionLimit);
}
/// SimplifyInstruction - See if we can compute a simplified version of this
/// instruction. If not, this returns null.
Value *llvm::SimplifyInstruction(Instruction *I, const DataLayout *DL,
const TargetLibraryInfo *TLI,
- const DominatorTree *DT,
- AssumptionTracker *AT) {
+ const DominatorTree *DT, AssumptionCache *AC) {
Value *Result;
switch (I->getOpcode()) {
break;
case Instruction::FAdd:
Result = SimplifyFAddInst(I->getOperand(0), I->getOperand(1),
- I->getFastMathFlags(), DL, TLI, DT, AT, I);
+ I->getFastMathFlags(), DL, TLI, DT, AC, I);
break;
case Instruction::Add:
Result = SimplifyAddInst(I->getOperand(0), I->getOperand(1),
cast<BinaryOperator>(I)->hasNoSignedWrap(),
- cast<BinaryOperator>(I)->hasNoUnsignedWrap(),
- DL, TLI, DT, AT, I);
+ cast<BinaryOperator>(I)->hasNoUnsignedWrap(), DL,
+ TLI, DT, AC, I);
break;
case Instruction::FSub:
Result = SimplifyFSubInst(I->getOperand(0), I->getOperand(1),
- I->getFastMathFlags(), DL, TLI, DT, AT, I);
+ I->getFastMathFlags(), DL, TLI, DT, AC, I);
break;
case Instruction::Sub:
Result = SimplifySubInst(I->getOperand(0), I->getOperand(1),
cast<BinaryOperator>(I)->hasNoSignedWrap(),
- cast<BinaryOperator>(I)->hasNoUnsignedWrap(),
- DL, TLI, DT, AT, I);
+ cast<BinaryOperator>(I)->hasNoUnsignedWrap(), DL,
+ TLI, DT, AC, I);
break;
case Instruction::FMul:
Result = SimplifyFMulInst(I->getOperand(0), I->getOperand(1),
- I->getFastMathFlags(), DL, TLI, DT, AT, I);
+ I->getFastMathFlags(), DL, TLI, DT, AC, I);
break;
case Instruction::Mul:
- Result = SimplifyMulInst(I->getOperand(0), I->getOperand(1),
- DL, TLI, DT, AT, I);
+ Result =
+ SimplifyMulInst(I->getOperand(0), I->getOperand(1), DL, TLI, DT, AC, I);
break;
case Instruction::SDiv:
- Result = SimplifySDivInst(I->getOperand(0), I->getOperand(1),
- DL, TLI, DT, AT, I);
+ Result = SimplifySDivInst(I->getOperand(0), I->getOperand(1), DL, TLI, DT,
+ AC, I);
break;
case Instruction::UDiv:
- Result = SimplifyUDivInst(I->getOperand(0), I->getOperand(1),
- DL, TLI, DT, AT, I);
+ Result = SimplifyUDivInst(I->getOperand(0), I->getOperand(1), DL, TLI, DT,
+ AC, I);
break;
case Instruction::FDiv:
Result = SimplifyFDivInst(I->getOperand(0), I->getOperand(1),
- DL, TLI, DT, AT, I);
+ I->getFastMathFlags(), DL, TLI, DT, AC, I);
break;
case Instruction::SRem:
- Result = SimplifySRemInst(I->getOperand(0), I->getOperand(1),
- DL, TLI, DT, AT, I);
+ Result = SimplifySRemInst(I->getOperand(0), I->getOperand(1), DL, TLI, DT,
+ AC, I);
break;
case Instruction::URem:
- Result = SimplifyURemInst(I->getOperand(0), I->getOperand(1),
- DL, TLI, DT, AT, I);
+ Result = SimplifyURemInst(I->getOperand(0), I->getOperand(1), DL, TLI, DT,
+ AC, I);
break;
case Instruction::FRem:
Result = SimplifyFRemInst(I->getOperand(0), I->getOperand(1),
- DL, TLI, DT, AT, I);
+ I->getFastMathFlags(), DL, TLI, DT, AC, I);
break;
case Instruction::Shl:
Result = SimplifyShlInst(I->getOperand(0), I->getOperand(1),
cast<BinaryOperator>(I)->hasNoSignedWrap(),
- cast<BinaryOperator>(I)->hasNoUnsignedWrap(),
- DL, TLI, DT, AT, I);
+ cast<BinaryOperator>(I)->hasNoUnsignedWrap(), DL,
+ TLI, DT, AC, I);
break;
case Instruction::LShr:
Result = SimplifyLShrInst(I->getOperand(0), I->getOperand(1),
- cast<BinaryOperator>(I)->isExact(),
- DL, TLI, DT, AT, I);
+ cast<BinaryOperator>(I)->isExact(), DL, TLI, DT,
+ AC, I);
break;
case Instruction::AShr:
Result = SimplifyAShrInst(I->getOperand(0), I->getOperand(1),
- cast<BinaryOperator>(I)->isExact(),
- DL, TLI, DT, AT, I);
+ cast<BinaryOperator>(I)->isExact(), DL, TLI, DT,
+ AC, I);
break;
case Instruction::And:
- Result = SimplifyAndInst(I->getOperand(0), I->getOperand(1),
- DL, TLI, DT, AT, I);
+ Result =
+ SimplifyAndInst(I->getOperand(0), I->getOperand(1), DL, TLI, DT, AC, I);
break;
case Instruction::Or:
- Result = SimplifyOrInst(I->getOperand(0), I->getOperand(1), DL, TLI, DT,
- AT, I);
+ Result =
+ SimplifyOrInst(I->getOperand(0), I->getOperand(1), DL, TLI, DT, AC, I);
break;
case Instruction::Xor:
- Result = SimplifyXorInst(I->getOperand(0), I->getOperand(1),
- DL, TLI, DT, AT, I);
+ Result =
+ SimplifyXorInst(I->getOperand(0), I->getOperand(1), DL, TLI, DT, AC, I);
break;
case Instruction::ICmp:
- Result = SimplifyICmpInst(cast<ICmpInst>(I)->getPredicate(),
- I->getOperand(0), I->getOperand(1),
- DL, TLI, DT, AT, I);
+ Result =
+ SimplifyICmpInst(cast<ICmpInst>(I)->getPredicate(), I->getOperand(0),
+ I->getOperand(1), DL, TLI, DT, AC, I);
break;
case Instruction::FCmp:
- Result = SimplifyFCmpInst(cast<FCmpInst>(I)->getPredicate(),
- I->getOperand(0), I->getOperand(1),
- DL, TLI, DT, AT, I);
+ Result =
+ SimplifyFCmpInst(cast<FCmpInst>(I)->getPredicate(), I->getOperand(0),
+ I->getOperand(1), DL, TLI, DT, AC, I);
break;
case Instruction::Select:
Result = SimplifySelectInst(I->getOperand(0), I->getOperand(1),
- I->getOperand(2), DL, TLI, DT, AT, I);
+ I->getOperand(2), DL, TLI, DT, AC, I);
break;
case Instruction::GetElementPtr: {
SmallVector<Value*, 8> Ops(I->op_begin(), I->op_end());
- Result = SimplifyGEPInst(Ops, DL, TLI, DT, AT, I);
+ Result = SimplifyGEPInst(Ops, DL, TLI, DT, AC, I);
break;
}
case Instruction::InsertValue: {
InsertValueInst *IV = cast<InsertValueInst>(I);
Result = SimplifyInsertValueInst(IV->getAggregateOperand(),
IV->getInsertedValueOperand(),
- IV->getIndices(), DL, TLI, DT, AT, I);
+ IV->getIndices(), DL, TLI, DT, AC, I);
break;
}
case Instruction::PHI:
- Result = SimplifyPHINode(cast<PHINode>(I), Query (DL, TLI, DT, AT, I));
+ Result = SimplifyPHINode(cast<PHINode>(I), Query(DL, TLI, DT, AC, I));
break;
case Instruction::Call: {
CallSite CS(cast<CallInst>(I));
- Result = SimplifyCall(CS.getCalledValue(), CS.arg_begin(), CS.arg_end(),
- DL, TLI, DT, AT, I);
+ Result = SimplifyCall(CS.getCalledValue(), CS.arg_begin(), CS.arg_end(), DL,
+ TLI, DT, AC, I);
break;
}
case Instruction::Trunc:
- Result = SimplifyTruncInst(I->getOperand(0), I->getType(), DL, TLI, DT,
- AT, I);
+ Result =
+ SimplifyTruncInst(I->getOperand(0), I->getType(), DL, TLI, DT, AC, I);
break;
}
const DataLayout *DL,
const TargetLibraryInfo *TLI,
const DominatorTree *DT,
- AssumptionTracker *AT) {
+ AssumptionCache *AC) {
bool Simplified = false;
SmallSetVector<Instruction *, 8> Worklist;
I = Worklist[Idx];
// See if this instruction simplifies.
- SimpleV = SimplifyInstruction(I, DL, TLI, DT, AT);
+ SimpleV = SimplifyInstruction(I, DL, TLI, DT, AC);
if (!SimpleV)
continue;
return Simplified;
}
-bool llvm::recursivelySimplifyInstruction(Instruction *I,
- const DataLayout *DL,
+bool llvm::recursivelySimplifyInstruction(Instruction *I, const DataLayout *DL,
const TargetLibraryInfo *TLI,
const DominatorTree *DT,
- AssumptionTracker *AT) {
- return replaceAndRecursivelySimplifyImpl(I, nullptr, DL, TLI, DT, AT);
+ AssumptionCache *AC) {
+ return replaceAndRecursivelySimplifyImpl(I, nullptr, DL, TLI, DT, AC);
}
bool llvm::replaceAndRecursivelySimplify(Instruction *I, Value *SimpleV,
const DataLayout *DL,
const TargetLibraryInfo *TLI,
const DominatorTree *DT,
- AssumptionTracker *AT) {
+ AssumptionCache *AC) {
assert(I != SimpleV && "replaceAndRecursivelySimplify(X,X) is not valid!");
assert(SimpleV && "Must provide a simplified value.");
- return replaceAndRecursivelySimplifyImpl(I, SimpleV, DL, TLI, DT, AT);
+ return replaceAndRecursivelySimplifyImpl(I, SimpleV, DL, TLI, DT, AC);
}
projects / oota-llvm.git / blobdiff