#ifndef jit_x64_LIR_x64_h
#define jit_x64_LIR_x64_h
namespace js {
namespace jit {
class LUnboxBase : public LInstructionHelper<1, 1, 0> {
public:
LUnboxBase(LNode::Opcode op, const LAllocation& input)
: LInstructionHelper<1, 1, 0>(op) {
setOperand(0, input);
}
static const size_t Input = 0;
MUnbox* mir() const { return mir_->toUnbox(); }
};
class LUnbox : public LUnboxBase {
public:
LIR_HEADER(Unbox)
explicit LUnbox(const LAllocation& input) : LUnboxBase(classOpcode, input) {}
const char* extraName() const { return StringFromMIRType(mir()->type()); }
};
class LUnboxFloatingPoint : public LUnboxBase {
MIRType type_;
public:
LIR_HEADER(UnboxFloatingPoint)
LUnboxFloatingPoint(const LAllocation& input, MIRType type)
: LUnboxBase(classOpcode, input), type_(type) {}
MIRType type() const { return type_; }
const char* extraName() const { return StringFromMIRType(type_); }
};
class LWasmUint32ToDouble : public LInstructionHelper<1, 1, 0> {
public:
LIR_HEADER(WasmUint32ToDouble)
explicit LWasmUint32ToDouble(const LAllocation& input)
: LInstructionHelper(classOpcode) {
setOperand(0, input);
}
};
class LWasmUint32ToFloat32 : public LInstructionHelper<1, 1, 0> {
public:
LIR_HEADER(WasmUint32ToFloat32)
explicit LWasmUint32ToFloat32(const LAllocation& input)
: LInstructionHelper(classOpcode) {
setOperand(0, input);
}
};
class LDivOrModI64 : public LBinaryMath<1> {
public:
LIR_HEADER(DivOrModI64)
LDivOrModI64(const LAllocation& lhs, const LAllocation& rhs,
const LDefinition& temp)
: LBinaryMath(classOpcode) {
setOperand(0, lhs);
setOperand(1, rhs);
setTemp(0, temp);
}
const LDefinition* remainder() { return getTemp(0); }
MBinaryArithInstruction* mir() const {
MOZ_ASSERT(mir_->isDiv() || mir_->isMod());
return static_cast<MBinaryArithInstruction*>(mir_);
}
bool canBeDivideByZero() const {
if (mir_->isMod()) {
return mir_->toMod()->canBeDivideByZero();
}
return mir_->toDiv()->canBeDivideByZero();
}
bool canBeNegativeOverflow() const {
if (mir_->isMod()) {
return mir_->toMod()->canBeNegativeDividend();
}
return mir_->toDiv()->canBeNegativeOverflow();
}
wasm::BytecodeOffset bytecodeOffset() const {
MOZ_ASSERT(mir_->isDiv() || mir_->isMod());
if (mir_->isMod()) {
return mir_->toMod()->bytecodeOffset();
}
return mir_->toDiv()->bytecodeOffset();
}
};
class LUDivOrModI64 : public LBinaryMath<1> {
public:
LIR_HEADER(UDivOrModI64);
LUDivOrModI64(const LAllocation& lhs, const LAllocation& rhs,
const LDefinition& temp)
: LBinaryMath(classOpcode) {
setOperand(0, lhs);
setOperand(1, rhs);
setTemp(0, temp);
}
const LDefinition* remainder() { return getTemp(0); }
const char* extraName() const {
return mir()->isTruncated() ? "Truncated" : nullptr;
}
MBinaryArithInstruction* mir() const {
MOZ_ASSERT(mir_->isDiv() || mir_->isMod());
return static_cast<MBinaryArithInstruction*>(mir_);
}
bool canBeDivideByZero() const {
if (mir_->isMod()) {
return mir_->toMod()->canBeDivideByZero();
}
return mir_->toDiv()->canBeDivideByZero();
}
wasm::BytecodeOffset bytecodeOffset() const {
MOZ_ASSERT(mir_->isDiv() || mir_->isMod());
if (mir_->isMod()) {
return mir_->toMod()->bytecodeOffset();
}
return mir_->toDiv()->bytecodeOffset();
}
};
class LWasmTruncateToInt64 : public LInstructionHelper<1, 1, 1> {
public:
LIR_HEADER(WasmTruncateToInt64);
LWasmTruncateToInt64(const LAllocation& in, const LDefinition& temp)
: LInstructionHelper(classOpcode) {
setOperand(0, in);
setTemp(0, temp);
}
MWasmTruncateToInt64* mir() const { return mir_->toWasmTruncateToInt64(); }
const LDefinition* temp() { return getTemp(0); }
};
} }
#endif