/* -*- Mode: C++; tab-width: 8; indent-tabs-mode: nil; c-basic-offset: 4 -*- * vim: set ts=8 sts=4 et sw=4 tw=99: * This Source Code Form is subject to the terms of the Mozilla Public * License, v. 2.0. If a copy of the MPL was not distributed with this * file, You can obtain one at http://mozilla.org/MPL/2.0/. */ #ifndef jit_mips32_LIR_mips32_h #define jit_mips32_LIR_mips32_h namespace js { namespace jit { class LBoxFloatingPoint : public LInstructionHelper<2, 1, 1> { MIRType type_; public: LIR_HEADER(BoxFloatingPoint); LBoxFloatingPoint(const LAllocation& in, const LDefinition& temp, MIRType type) : type_(type) { setOperand(0, in); setTemp(0, temp); } MIRType type() const { return type_; } const char* extraName() const { return StringFromMIRType(type_); } }; class LUnbox : public LInstructionHelper<1, 2, 0> { public: LIR_HEADER(Unbox); MUnbox* mir() const { return mir_->toUnbox(); } const LAllocation* payload() { return getOperand(0); } const LAllocation* type() { return getOperand(1); } const char* extraName() const { return StringFromMIRType(mir()->type()); } }; class LUnboxFloatingPoint : public LInstructionHelper<1, 2, 0> { MIRType type_; public: LIR_HEADER(UnboxFloatingPoint); static const size_t Input = 0; LUnboxFloatingPoint(const LBoxAllocation& input, MIRType type) : type_(type) { setBoxOperand(Input, input); } MUnbox* mir() const { return mir_->toUnbox(); } MIRType type() const { return type_; } const char* extraName() const { return StringFromMIRType(type_); } }; class LDivOrModI64 : public LCallInstructionHelper { public: LIR_HEADER(DivOrModI64) static const size_t Lhs = 0; static const size_t Rhs = INT64_PIECES; LDivOrModI64(const LInt64Allocation& lhs, const LInt64Allocation& rhs) { setInt64Operand(Lhs, lhs); setInt64Operand(Rhs, rhs); } MBinaryArithInstruction* mir() const { MOZ_ASSERT(mir_->isDiv() || mir_->isMod()); return static_cast(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::TrapOffset trapOffset() const { MOZ_ASSERT(mir_->isDiv() || mir_->isMod()); if (mir_->isMod()) return mir_->toMod()->trapOffset(); return mir_->toDiv()->trapOffset(); } }; class LUDivOrModI64 : public LCallInstructionHelper { public: LIR_HEADER(UDivOrModI64) static const size_t Lhs = 0; static const size_t Rhs = INT64_PIECES; LUDivOrModI64(const LInt64Allocation& lhs, const LInt64Allocation& rhs) { setInt64Operand(Lhs, lhs); setInt64Operand(Rhs, rhs); } MBinaryArithInstruction* mir() const { MOZ_ASSERT(mir_->isDiv() || mir_->isMod()); return static_cast(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::TrapOffset trapOffset() const { MOZ_ASSERT(mir_->isDiv() || mir_->isMod()); if (mir_->isMod()) return mir_->toMod()->trapOffset(); return mir_->toDiv()->trapOffset(); } }; class LWasmTruncateToInt64 : public LCallInstructionHelper { public: LIR_HEADER(WasmTruncateToInt64); explicit LWasmTruncateToInt64(const LAllocation& in) { setOperand(0, in); } MWasmTruncateToInt64* mir() const { return mir_->toWasmTruncateToInt64(); } }; } // namespace jit } // namespace js #endif /* jit_mips32_LIR_mips32_h */