arkcompiler_ets_runtime/ecmascript/compiler/mcr_lowering.cpp
zhangyinlu 2db36d25bc [fuzz] Math函数及DataView函数在特殊入参时的问题修复
Issue: https://gitee.com/openharmony/arkcompiler_ets_runtime/issues/IACA00
Description: MathMin输入参数不应该限制为Tagged,DataView get/set函数isLittleEndian参数传入浮点数需要对类型进行判断及转换
Change-Id: I309c26bac353ff04b920b8c8f1f884bba7ee1599
2024-07-14 17:30:15 +08:00

1310 lines
51 KiB
C++

/*
* Copyright (c) 2023 Huawei Device Co., Ltd.
* Licensed under the Apache License, Version 2.0 (the "License");
* you may not use this file except in compliance with the License.
* You may obtain a copy of the License at
*
* http://www.apache.org/licenses/LICENSE-2.0
*
* Unless required by applicable law or agreed to in writing, software
* distributed under the License is distributed on an "AS IS" BASIS,
* WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied.
* See the License for the specific language governing permissions and
* limitations under the License.
*/
#include "ecmascript/compiler/mcr_lowering.h"
#include "ecmascript/compiler/argument_accessor.h"
#include "ecmascript/compiler/bytecodes.h"
#include "ecmascript/compiler/share_gate_meta_data.h"
#include "ecmascript/compiler/share_opcodes.h"
#include "ecmascript/compiler/pgo_type/pgo_type_manager.h"
#include "ecmascript/global_env.h"
#include "ecmascript/js_function.h"
#include "ecmascript/js_hclass.h"
#include "ecmascript/js_thread.h"
#include "ecmascript/jspandafile/program_object.h"
#include "ecmascript/message_string.h"
namespace panda::ecmascript::kungfu {
GateRef MCRLowering::VisitGate(GateRef gate)
{
auto op = acc_.GetOpCode(gate);
switch (op) {
case OpCode::STATE_SPLIT:
DeleteStateSplit(gate);
break;
case OpCode::ARRAY_GUARDIAN_CHECK:
LowerArrayGuardianCheck(gate);
break;
case OpCode::HCLASS_STABLE_ARRAY_CHECK:
LowerHClassStableArrayCheck(gate);
break;
case OpCode::HEAP_OBJECT_CHECK:
LowerHeapObjectCheck(gate);
break;
case OpCode::ELEMENTSKIND_CHECK:
LowerElementskindCheck(gate);
break;
case OpCode::LOAD_CONST_OFFSET:
LowerLoadConstOffset(gate);
break;
case OpCode::LOAD_HCLASS_FROM_CONSTPOOL:
LowerLoadHClassFromConstpool(gate);
break;
case OpCode::STORE_CONST_OFFSET:
LowerStoreConstOffset(gate);
break;
case OpCode::CONVERT_HOLE_AS_UNDEFINED:
LowerConvertHoleAsUndefined(gate);
break;
case OpCode::GET_GLOBAL_ENV:
LowerGetGlobalEnv(gate);
break;
case OpCode::GET_GLOBAL_ENV_OBJ:
LowerGetGlobalEnvObj(gate);
break;
case OpCode::GET_GLOBAL_ENV_OBJ_HCLASS:
LowerGetGlobalEnvObjHClass(gate);
break;
case OpCode::GET_GLOBAL_CONSTANT_VALUE:
LowerGetGlobalConstantValue(gate);
break;
case OpCode::INT32_CHECK_RIGHT_IS_ZERO:
LowerInt32CheckRightIsZero(gate);
break;
case OpCode::REMAINDER_IS_NEGATIVE_ZERO:
LowerRemainderIsNegativeZero(gate);
break;
case OpCode::FLOAT64_CHECK_RIGHT_IS_ZERO:
LowerFloat64CheckRightIsZero(gate);
break;
case OpCode::VALUE_CHECK_NEG_OVERFLOW:
LowerValueCheckNegOverflow(gate);
break;
case OpCode::OVERFLOW_CHECK:
LowerOverflowCheck(gate);
break;
case OpCode::INT32_UNSIGNED_UPPER_BOUND_CHECK:
LowerInt32UnsignedUpperBoundCheck(gate);
break;
case OpCode::INT32_DIV_WITH_CHECK:
LowerInt32DivWithCheck(gate);
break;
case OpCode::LEX_VAR_IS_HOLE_CHECK:
LowerLexVarIsHoleCheck(gate);
break;
case OpCode::IS_UNDEFINED_OR_HOLE_CHECK:
LowerIsUndefinedOrHoleCheck(gate);
break;
case OpCode::IS_NOT_UNDEFINED_OR_HOLE_CHECK:
LowerIsNotUndefinedOrHoleCheck(gate);
break;
case OpCode::IS_DATA_VIEW_CHECK:
LowerIsDataViewCheck(gate);
break;
case OpCode::STORE_MEMORY:
LowerStoreMemory(gate);
break;
case OpCode::CHECK_AND_CONVERT:
LowerCheckAndConvert(gate);
break;
case OpCode::TAGGED_IS_HEAP_OBJECT:
LowerTaggedIsHeapObject(gate);
break;
case OpCode::IS_MARKER_CELL_VALID:
LowerIsMarkerCellValid(gate);
break;
case OpCode::IS_SPECIFIC_OBJECT_TYPE:
LowerIsSpecificObjectType(gate);
break;
case OpCode::MIGRATE_FROM_HEAPVALUE_TO_RAWVALUE:
LowerMigrateFromHeapValueToRawValue(gate);
break;
case OpCode::MIGRATE_FROM_RAWVALUE_TO_HEAPVALUES:
LowerMigrateFromRawValueToHeapValues(gate);
break;
case OpCode::MIGRATE_FROM_HOLEINT_TO_HOLENUMBER:
LowerMigrateFromHoleIntToHoleNumber(gate);
break;
case OpCode::MIGRATE_FROM_HOLENUMBER_TO_HOLEINT:
LowerMigrateFromHoleNumberToHoleInt(gate);
break;
case OpCode::HEAP_OBJECT_IS_ECMA_OBJECT:
LowerHeapObjectIsEcmaObject(gate);
break;
case OpCode::IS_CALLABLE_CHECK:
LowerIsCallableCheck(gate);
break;
default:
break;
}
return Circuit::NullGate();
}
void MCRLowering::LowerConvertHoleAsUndefined(GateRef gate)
{
Environment env(gate, circuit_, &builder_);
Label returnUndefined(&builder_);
Label exit(&builder_);
GateRef receiver = acc_.GetValueIn(gate, 0);
DEFVALUE(result, (&builder_), VariableType::JS_ANY(), receiver);
builder_.Branch(builder_.TaggedIsHole(*result), &returnUndefined, &exit, 1, BranchWeight::DEOPT_WEIGHT,
"holeCheck");
builder_.Bind(&returnUndefined);
{
result = builder_.UndefineConstant();
builder_.Jump(&exit);
}
builder_.Bind(&exit);
acc_.ReplaceGate(gate, builder_.GetState(), builder_.GetDepend(), *result);
}
void MCRLowering::LowerLoadConstOffset(GateRef gate)
{
Environment env(gate, circuit_, &builder_);
GateRef receiver = acc_.GetValueIn(gate, 0);
GateRef offset = builder_.IntPtr(acc_.GetOffset(gate));
VariableType type = VariableType(acc_.GetMachineType(gate), acc_.GetGateType(gate));
GateRef result = builder_.Load(type, receiver, offset, acc_.GetMemoryOrder(gate));
acc_.ReplaceGate(gate, Circuit::NullGate(), builder_.GetDepend(), result);
}
void MCRLowering::LowerLoadHClassFromConstpool(GateRef gate)
{
Environment env(gate, circuit_, &builder_);
GateRef constpool = acc_.GetValueIn(gate, 0);
uint32_t index = acc_.GetIndex(gate);
if (!env_->IsJitCompiler()) {
GateRef constPoolSize = builder_.GetLengthOfTaggedArray(constpool);
GateRef valVecIndex = builder_.Int32Sub(constPoolSize, builder_.Int32(ConstantPool::AOT_HCLASS_INFO_INDEX));
GateRef valVec = builder_.GetValueFromTaggedArray(constpool, valVecIndex);
GateRef hclass = builder_.GetValueFromTaggedArray(valVec, builder_.Int32(index));
acc_.ReplaceGate(gate, Circuit::NullGate(), builder_.GetDepend(), hclass);
} else {
JSTaggedValue hclass = env_->GetPTManager()->QueryHClassByIndexForJIT(index);
acc_.ReplaceGate(gate, Circuit::NullGate(), builder_.GetDepend(), builder_.TaggedValueConstant(hclass));
}
}
void MCRLowering::LowerStoreConstOffset(GateRef gate)
{
Environment env(gate, circuit_, &builder_);
GateRef receiver = acc_.GetValueIn(gate, 0);
GateRef value = acc_.GetValueIn(gate, 1);
GateRef offset = builder_.IntPtr(acc_.GetOffset(gate));
VariableType type = VariableType(acc_.GetMachineType(gate), acc_.GetGateType(gate));
builder_.Store(type, glue_, receiver, offset, value, acc_.GetMemoryOrder(gate));
acc_.ReplaceGate(gate, builder_.GetState(), builder_.GetDepend(), Circuit::NullGate());
}
void MCRLowering::LowerHeapObjectCheck(GateRef gate)
{
Environment env(gate, circuit_, &builder_);
GateRef frameState = acc_.GetFrameState(gate);
GateRef receiver = acc_.GetValueIn(gate, 0);
GateRef heapObjectCheck = builder_.TaggedIsHeapObject(receiver);
builder_.DeoptCheck(heapObjectCheck, frameState, DeoptType::NOTHEAPOBJECT1);
acc_.ReplaceGate(gate, builder_.GetState(), builder_.GetDepend(), Circuit::NullGate());
}
void MCRLowering::LowerTaggedIsHeapObject(GateRef gate)
{
Environment env(gate, circuit_, &builder_);
GateRef receiver = acc_.GetValueIn(gate, 0);
GateRef result = builder_.TaggedIsHeapObject(receiver);
acc_.ReplaceGate(gate, builder_.GetState(), builder_.GetDepend(), result);
}
void MCRLowering::LowerIsMarkerCellValid(GateRef gate)
{
Environment env(gate, circuit_, &builder_);
GateRef cell = acc_.GetValueIn(gate, 0);
GateRef result = builder_.IsMarkerCellValid(cell);
acc_.ReplaceGate(gate, builder_.GetState(), builder_.GetDepend(), result);
}
void MCRLowering::LowerIsSpecificObjectType(GateRef gate)
{
Environment env(gate, circuit_, &builder_);
JSType expectType = static_cast<JSType>(acc_.GetJSType(gate));
GateRef obj = acc_.GetValueIn(gate, 0);
GateRef result;
switch (expectType) {
case JSType::JS_MAP: {
result = builder_.TaggedObjectIsJSMap(obj);
break;
}
case JSType::JS_SET: {
result = builder_.TaggedObjectIsJSSet(obj);
break;
}
case JSType::JS_DATE: {
result = builder_.TaggedObjectIsJSDate(obj);
break;
}
case JSType::JS_ARRAY: {
result = builder_.TaggedObjectIsJSArray(obj);
break;
}
case JSType::STRING_FIRST: {
result = builder_.TaggedObjectIsString(obj);
break;
}
case JSType::JS_TYPED_ARRAY_FIRST: {
result = builder_.TaggedObjectIsTypedArray(obj);
break;
}
default: {
LOG_COMPILER(FATAL) << "this branch is unreachable";
UNREACHABLE();
}
}
acc_.ReplaceGate(gate, builder_.GetState(), builder_.GetDepend(), result);
}
void MCRLowering::DeleteStateSplit(GateRef gate)
{
auto depend = acc_.GetDep(gate);
auto frameState = acc_.GetFrameState(gate);
acc_.DeleteGateIfNoUse(frameState);
acc_.ReplaceGate(gate, Circuit::NullGate(), depend, Circuit::NullGate());
}
void MCRLowering::LowerArrayGuardianCheck(GateRef gate)
{
Environment env(gate, circuit_, &builder_);
GateRef frameState = acc_.GetFrameState(gate);
GateRef guardiansOffset = builder_.IntPtr(JSThread::GlueData::GetStableArrayElementsGuardiansOffset(false));
GateRef check = builder_.Load(VariableType::BOOL(), glue_, guardiansOffset);
builder_.DeoptCheck(check, frameState, DeoptType::NOTSARRAY1);
acc_.ReplaceGate(gate, builder_.GetState(), builder_.GetDepend(), Circuit::NullGate());
}
void MCRLowering::LowerHClassStableArrayCheck(GateRef gate)
{
Environment env(gate, circuit_, &builder_);
GateRef frameState = acc_.GetFrameState(gate);
GateRef hclass = acc_.GetValueIn(gate, 0);
GateRef check = Circuit::NullGate();
GateRef stableCheck = builder_.IsStableElements(hclass);
ArrayMetaDataAccessor accessor = acc_.GetArrayMetaDataAccessor(gate);
ElementsKind kind = accessor.GetElementsKind();
if (accessor.IsLoadElement() && !Elements::IsHole(kind)) {
if (Elements::IsComplex(kind)) {
GateRef elementsKindCheck = builder_.Int32GreaterThanOrEqual(builder_.Int32(static_cast<int32_t>(kind)),
builder_.GetElementsKindByHClass(hclass));
check = builder_.BoolAnd(stableCheck, elementsKindCheck);
} else {
GateRef elementsKindCheck = builder_.Equal(builder_.Int32(static_cast<int32_t>(kind)),
builder_.GetElementsKindByHClass(hclass));
check = builder_.BoolAnd(stableCheck, elementsKindCheck);
}
} else {
check = stableCheck;
}
builder_.DeoptCheck(check, frameState, DeoptType::NOTSARRAY2);
acc_.ReplaceGate(gate, builder_.GetState(), builder_.GetDepend(), Circuit::NullGate());
}
void MCRLowering::LowerElementskindCheck(GateRef gate)
{
Environment env(gate, circuit_, &builder_);
GateRef frameState = acc_.GetFrameState(gate);
GateRef hclass = acc_.GetValueIn(gate, 0);
ArrayMetaDataAccessor accessor = acc_.GetArrayMetaDataAccessor(gate);
ElementsKind kind = accessor.GetElementsKind();
GateRef check = builder_.Equal(builder_.Int32(static_cast<int32_t>(kind)),
builder_.GetElementsKindByHClass(hclass));
if (accessor.IsLoadElement()) {
builder_.DeoptCheck(check, frameState, DeoptType::ELEMENSKINDMISMATCHEDATLOAD);
} else {
builder_.DeoptCheck(check, frameState, DeoptType::ELEMENSKINDMISMATCHEDATSTORE);
}
acc_.ReplaceGate(gate, builder_.GetState(), builder_.GetDepend(), Circuit::NullGate());
}
StateDepend MCRLowering::LowerConvert(StateDepend stateDepend, GateRef gate)
{
Environment env(stateDepend.State(), stateDepend.Depend(), {}, circuit_, &builder_);
GateRef value = acc_.GetValueIn(gate);
ValueType dstType = acc_.GetDstType(gate);
GateRef result = Circuit::NullGate();
Label exit(&builder_);
switch (acc_.GetSrcType(gate)) {
case ValueType::BOOL:
ASSERT(dstType == ValueType::TAGGED_BOOLEAN);
result = ConvertBoolToTaggedBoolean(value);
break;
case ValueType::INT32:
if (dstType == ValueType::TAGGED_INT) {
result = ConvertInt32ToTaggedInt(value);
} else if (dstType == ValueType::FLOAT64) {
result = ConvertInt32ToFloat64(value);
} else {
ASSERT(dstType == ValueType::BOOL);
result = builder_.NotEqual(value, builder_.Int32(0));
}
break;
case ValueType::UINT32:
if (dstType == ValueType::TAGGED_NUMBER) {
result = ConvertUInt32ToTaggedNumber(value, &exit);
} else if (dstType == ValueType::FLOAT64) {
result = ConvertUInt32ToFloat64(value);
} else {
ASSERT(dstType == ValueType::BOOL);
result = builder_.NotEqual(value, builder_.Int32(0));
}
break;
case ValueType::FLOAT64:
if (dstType == ValueType::TAGGED_DOUBLE) {
result = ConvertFloat64ToTaggedDouble(value);
} else if (dstType == ValueType::INT32) {
result = ConvertFloat64ToInt32(value, &exit);
} else {
ASSERT(dstType == ValueType::BOOL);
result = ConvertFloat64ToBool(value);
}
break;
case ValueType::TAGGED_BOOLEAN:
ASSERT((dstType == ValueType::BOOL));
result = ConvertTaggedBooleanToBool(value);
break;
case ValueType::TAGGED_INT:
ASSERT((dstType == ValueType::INT32));
result = ConvertTaggedIntToInt32(value);
break;
case ValueType::TAGGED_DOUBLE:
ASSERT((dstType == ValueType::FLOAT64));
result = ConvertTaggedDoubleToFloat64(value);
break;
case ValueType::CHAR: {
ASSERT((dstType == ValueType::ECMA_STRING));
GateRef glue = acc_.GetGlueFromArgList();
result = builder_.CallStub(glue, gate, CommonStubCSigns::CreateStringBySingleCharCode, { glue, value });
break;
}
case ValueType::HOLE_INT:
if (dstType == ValueType::TAGGED_INT) {
result = ConvertSpecialHoleIntToTagged(value, &exit);
}
break;
case ValueType::HOLE_DOUBLE:
if (dstType == ValueType::TAGGED_DOUBLE) {
result = ConvertSpecialHoleDoubleToTagged(value, &exit);
}
break;
default:
LOG_COMPILER(FATAL) << "this branch is unreachable";
break;
}
acc_.ReplaceGate(gate, Circuit::NullGate(), Circuit::NullGate(), result);
return builder_.GetStateDepend();
}
GateRef MCRLowering::ConvertSpecialHoleIntToTagged(GateRef gate, Label* exit)
{
Label returnUndefined(&builder_);
Label returnTaggedInt(&builder_);
DEFVALUE(result, (&builder_), VariableType::JS_ANY(), builder_.HoleConstant());
builder_.Branch(builder_.IsSpecialHole(gate), &returnUndefined, &returnTaggedInt, 1, BranchWeight::DEOPT_WEIGHT,
"specialHoleCheck");
builder_.Bind(&returnUndefined);
{
result = builder_.UndefineConstant();
builder_.Jump(exit);
}
builder_.Bind(&returnTaggedInt);
{
GateRef rawInt = builder_.TruncInt64ToInt32(gate);
result = ConvertInt32ToTaggedInt(rawInt);
builder_.Jump(exit);
}
builder_.Bind(exit);
return *result;
}
GateRef MCRLowering::ConvertSpecialHoleDoubleToTagged(GateRef gate, Label* exit)
{
Label returnUndefined(&builder_);
Label returnTaggedDouble(&builder_);
DEFVALUE(result, (&builder_), VariableType::JS_ANY(), builder_.HoleConstant());
builder_.Branch(builder_.IsSpecialHole(gate), &returnUndefined, &returnTaggedDouble, 1, BranchWeight::DEOPT_WEIGHT,
"specialHoleCheck");
builder_.Bind(&returnUndefined);
{
result = builder_.UndefineConstant();
builder_.Jump(exit);
}
builder_.Bind(&returnTaggedDouble);
{
GateRef rawDouble = builder_.CastInt64ToFloat64(gate);
result = ConvertFloat64ToTaggedDouble(rawDouble);
builder_.Jump(exit);
}
builder_.Bind(exit);
return *result;
}
GateRef MCRLowering::ConvertTaggedNumberToBool(GateRef gate, Label *exit)
{
DEFVALUE(result, (&builder_), VariableType::BOOL(), builder_.Boolean(false));
Label isInt(&builder_);
Label isDouble(&builder_);
Label toInt32(&builder_);
BRANCH_CIR(builder_.TaggedIsInt(gate), &isInt, &isDouble);
builder_.Bind(&isInt);
{
GateRef intVal = builder_.GetInt64OfTInt(gate);
result = builder_.NotEqual(intVal, builder_.Int64(0));
}
builder_.Jump(exit);
builder_.Bind(&isDouble);
{
GateRef doubleVal = builder_.GetDoubleOfTDouble(gate);
result = ConvertFloat64ToBool(doubleVal);
}
builder_.Jump(exit);
builder_.Bind(exit);
return *result;
}
GateRef MCRLowering::ConvertTaggedNumberToInt32(GateRef gate, Label *exit)
{
DEFVALUE(result, (&builder_), VariableType::INT32(), builder_.Int32(0));
Label isInt(&builder_);
Label isDouble(&builder_);
Label toInt32(&builder_);
BRANCH_CIR(builder_.TaggedIsInt(gate), &isInt, &isDouble);
builder_.Bind(&isInt);
result = ConvertTaggedIntToInt32(gate);
builder_.Jump(exit);
builder_.Bind(&isDouble);
result = ConvertFloat64ToInt32(ConvertTaggedDoubleToFloat64(gate), &toInt32);
builder_.Jump(exit);
builder_.Bind(exit);
return *result;
}
GateRef MCRLowering::ConvertTaggedNumberToFloat64(GateRef gate, Label *exit)
{
DEFVALUE(result, (&builder_), VariableType::FLOAT64(), builder_.Double(0));
Label isInt(&builder_);
Label isDouble(&builder_);
BRANCH_CIR(builder_.TaggedIsInt(gate), &isInt, &isDouble);
builder_.Bind(&isInt);
result = ConvertInt32ToFloat64(ConvertTaggedIntToInt32(gate));
builder_.Jump(exit);
builder_.Bind(&isDouble);
result = ConvertTaggedDoubleToFloat64(gate);
builder_.Jump(exit);
builder_.Bind(exit);
return *result;
}
void MCRLowering::LowerCheckAndConvert(GateRef gate)
{
Environment env(gate, circuit_, &builder_);
GateRef frameState = acc_.GetFrameState(gate);
ValueType srcType = acc_.GetSrcType(gate);
Label exit(&builder_);
switch (srcType) {
case ValueType::UINT32:
LowerCheckUInt32AndConvert(gate, frameState);
break;
case ValueType::TAGGED_INT:
LowerCheckTaggedIntAndConvert(gate, frameState);
break;
case ValueType::TAGGED_DOUBLE:
LowerCheckTaggedDoubleAndConvert(gate, frameState, &exit);
break;
case ValueType::TAGGED_BOOLEAN:
LowerCheckTaggedBoolAndConvert(gate, frameState);
break;
case ValueType::TAGGED_NUMBER:
LowerCheckTaggedNumberAndConvert(gate, frameState, &exit);
break;
case ValueType::BOOL:
LowerCheckSupportAndConvert(gate, frameState);
break;
case ValueType::TAGGED_NULL:
LowerCheckNullAndConvert(gate, frameState);
break;
case ValueType::UNDEFINED:
LowerUndefinedAndConvert(gate, frameState);
break;
case ValueType::HOLE_INT:
LowerCheckSpecialHoleAndConvert(gate, frameState);
break;
case ValueType::HOLE_DOUBLE:
LowerCheckSpecialHoleAndConvert(gate, frameState);
break;
default:
UNREACHABLE();
}
}
void MCRLowering::LowerCheckSpecialHoleAndConvert(GateRef gate, GateRef frameState)
{
GateRef value = acc_.GetValueIn(gate, 0);
GateRef typeCheck = builder_.IsNotSpecialHole(value);
builder_.DeoptCheck(typeCheck, frameState, DeoptType::CANNOTSTORESPECAILHOLE);
GateRef result = Circuit::NullGate();
ValueType dst = acc_.GetDstType(gate);
if (dst == ValueType::INT32) {
result = builder_.TruncInt64ToInt32(value);
} else if (dst == ValueType::FLOAT64) {
result = builder_.CastInt64ToFloat64(value);
} else if (dst == ValueType::TAGGED_INT) {
GateRef rawInt = builder_.TruncInt64ToInt32(gate);
result = ConvertInt32ToTaggedInt(rawInt);
} else if (dst == ValueType::TAGGED_DOUBLE) {
GateRef rawDouble = builder_.CastInt64ToFloat64(value);
result = ConvertFloat64ToTaggedDouble(rawDouble);
} else {
UNREACHABLE();
}
acc_.ReplaceGate(gate, builder_.GetState(), builder_.GetDepend(), result);
}
void MCRLowering::LowerCheckUInt32AndConvert(GateRef gate, GateRef frameState)
{
GateRef value = acc_.GetValueIn(gate, 0);
GateRef upperBound = builder_.Int32(INT32_MAX);
GateRef check = builder_.Int32UnsignedLessThanOrEqual(value, upperBound);
builder_.DeoptCheck(check, frameState, DeoptType::INT32OVERFLOW1);
acc_.ReplaceGate(gate, builder_.GetState(), builder_.GetDepend(), value);
}
void MCRLowering::LowerCheckTaggedIntAndConvert(GateRef gate, GateRef frameState)
{
GateRef value = acc_.GetValueIn(gate, 0);
GateRef typeCheck = builder_.TaggedIsInt(value);
builder_.DeoptCheck(typeCheck, frameState, DeoptType::NOTINT1);
GateRef result = Circuit::NullGate();
ValueType dst = acc_.GetDstType(gate);
ASSERT(dst == ValueType::INT32 || dst == ValueType::FLOAT64);
if (dst == ValueType::INT32) {
result = ConvertTaggedIntToInt32(value);
} else {
result = ConvertTaggedIntToFloat64(value);
}
acc_.ReplaceGate(gate, builder_.GetState(), builder_.GetDepend(), result);
}
void MCRLowering::LowerCheckTaggedDoubleAndConvert(GateRef gate, GateRef frameState, Label *exit)
{
GateRef value = acc_.GetValueIn(gate, 0);
GateRef typeCheck = builder_.TaggedIsDouble(value);
builder_.DeoptCheck(typeCheck, frameState, DeoptType::NOTDOUBLE1);
GateRef result = Circuit::NullGate();
ValueType dst = acc_.GetDstType(gate);
ASSERT(dst == ValueType::INT32 || dst == ValueType::FLOAT64);
if (dst == ValueType::INT32) {
result = ConvertTaggedDoubleToInt32(value, exit);
} else {
result = ConvertTaggedDoubleToFloat64(value);
}
acc_.ReplaceGate(gate, builder_.GetState(), builder_.GetDepend(), result);
}
void MCRLowering::LowerCheckTaggedNumberAndConvert(GateRef gate, GateRef frameState, Label *exit)
{
GateRef value = acc_.GetValueIn(gate, 0);
GateRef typeCheck = builder_.TaggedIsNumber(value);
builder_.DeoptCheck(typeCheck, frameState, DeoptType::NOTNUMBER1);
GateRef result = Circuit::NullGate();
ValueType dst = acc_.GetDstType(gate);
if (dst == ValueType::INT32) {
result = ConvertTaggedNumberToInt32(value, exit);
} else if (dst == ValueType::FLOAT64) {
result = ConvertTaggedNumberToFloat64(value, exit);
} else {
ASSERT(dst == ValueType::BOOL);
result = ConvertTaggedNumberToBool(value, exit);
}
acc_.ReplaceGate(gate, builder_.GetState(), builder_.GetDepend(), result);
}
void MCRLowering::LowerCheckSupportAndConvert(GateRef gate, GateRef frameState)
{
ValueType dstType = acc_.GetDstType(gate);
ASSERT(dstType == ValueType::INT32 || dstType == ValueType::FLOAT64);
bool support = acc_.IsConvertSupport(gate);
GateRef value = acc_.GetValueIn(gate, 0);
GateRef result = Circuit::NullGate();
if (dstType == ValueType::INT32) {
builder_.DeoptCheck(builder_.Boolean(support), frameState, DeoptType::NOTINT2);
result = builder_.BooleanToInt32(value);
} else {
builder_.DeoptCheck(builder_.Boolean(support), frameState, DeoptType::NOTDOUBLE2);
result = builder_.BooleanToFloat64(value);
}
acc_.ReplaceGate(gate, builder_.GetState(), builder_.GetDepend(), result);
}
void MCRLowering::LowerCheckTaggedBoolAndConvert(GateRef gate, GateRef frameState)
{
GateRef value = acc_.GetValueIn(gate, 0);
GateRef typeCheck = builder_.TaggedIsBoolean(value);
builder_.DeoptCheck(typeCheck, frameState, DeoptType::NOTBOOL1);
GateRef result = Circuit::NullGate();
GateRef boolValue = ConvertTaggedBooleanToBool(value);
if (acc_.GetDstType(gate) == ValueType::BOOL) {
result = boolValue;
} else if (acc_.GetDstType(gate) == ValueType::INT32) {
result = builder_.ZExtInt1ToInt32(boolValue);
} else if (acc_.GetDstType(gate) == ValueType::FLOAT64) {
result = builder_.BooleanToFloat64(boolValue);
} else {
UNREACHABLE();
}
acc_.ReplaceGate(gate, builder_.GetState(), builder_.GetDepend(), result);
}
void MCRLowering::LowerCheckNullAndConvert(GateRef gate, GateRef frameState)
{
GateRef value = acc_.GetValueIn(gate, 0);
GateRef typeCheck = builder_.TaggedIsNull(value);
builder_.DeoptCheck(typeCheck, frameState, DeoptType::NOTNULL1);
GateRef result = Circuit::NullGate();
if (acc_.GetDstType(gate) == ValueType::INT32) {
result = builder_.Int32(0);
} else if (acc_.GetDstType(gate) == ValueType::FLOAT64) {
result = builder_.Double(0);
} else if (acc_.GetDstType(gate) == ValueType::BOOL) {
result = builder_.False();
} else {
UNREACHABLE();
}
acc_.ReplaceGate(gate, builder_.GetState(), builder_.GetDepend(), result);
}
void MCRLowering::LowerUndefinedAndConvert(GateRef gate, GateRef frameState)
{
GateRef value = acc_.GetValueIn(gate, 0);
GateRef typeCheck = builder_.TaggedIsUndefined(value);
builder_.DeoptCheck(typeCheck, frameState, DeoptType::NOTNULL2);
GateRef result = Circuit::NullGate();
if (acc_.GetDstType(gate) == ValueType::FLOAT64) {
result = builder_.NanValue();
} else if (acc_.GetDstType(gate) == ValueType::BOOL) {
result = builder_.False();
} else if (acc_.GetDstType(gate) == ValueType::INT32) {
result = builder_.Int32(0);
} else {
UNREACHABLE();
}
acc_.ReplaceGate(gate, builder_.GetState(), builder_.GetDepend(), result);
}
GateRef MCRLowering::ConvertTaggedBooleanToBool(GateRef value)
{
return builder_.TaggedIsTrue(value);
}
GateRef MCRLowering::ConvertBoolToTaggedBoolean(GateRef gate)
{
return builder_.BooleanToTaggedBooleanPtr(gate);
}
GateRef MCRLowering::ConvertInt32ToFloat64(GateRef gate)
{
return builder_.ChangeInt32ToFloat64(gate);
}
GateRef MCRLowering::ConvertUInt32ToFloat64(GateRef gate)
{
return builder_.ChangeUInt32ToFloat64(gate);
}
GateRef MCRLowering::ConvertInt32ToTaggedInt(GateRef gate)
{
return builder_.Int32ToTaggedPtr(gate);
}
GateRef MCRLowering::ConvertUInt32ToTaggedNumber(GateRef gate, Label *exit)
{
Label isOverFlow(&builder_);
Label notOverFlow(&builder_);
GateRef upperBound = builder_.Int32(INT32_MAX);
DEFVALUE(taggedVal, (&builder_), VariableType::JS_ANY(), builder_.HoleConstant());
BRANCH_CIR(builder_.Int32UnsignedLessThanOrEqual(gate, upperBound), &notOverFlow, &isOverFlow);
builder_.Bind(&notOverFlow);
taggedVal = builder_.Int32ToTaggedPtr(gate);
builder_.Jump(exit);
builder_.Bind(&isOverFlow);
taggedVal = builder_.DoubleToTaggedDoublePtr(builder_.ChangeUInt32ToFloat64(gate));
builder_.Jump(exit);
builder_.Bind(exit);
return *taggedVal;
}
GateRef MCRLowering::ConvertFloat64ToInt32(GateRef gate, Label *exit)
{
return builder_.DoubleToInt(gate, exit);
}
GateRef MCRLowering::ConvertFloat64ToBool(GateRef gate)
{
GateRef doubleNotZero = builder_.DoubleNotEqual(gate, builder_.Double(0.0));
GateRef doubleNotNAN = builder_.BoolNot(builder_.DoubleIsNAN(gate));
return builder_.BoolAnd(doubleNotZero, doubleNotNAN);
}
GateRef MCRLowering::ConvertFloat64ToTaggedDouble(GateRef gate)
{
return builder_.DoubleToTaggedDoublePtr(gate);
}
GateRef MCRLowering::ConvertTaggedIntToInt32(GateRef gate)
{
return builder_.GetInt32OfTInt(gate);
}
GateRef MCRLowering::ConvertTaggedIntToFloat64(GateRef gate)
{
return builder_.ChangeInt32ToFloat64(builder_.GetInt32OfTInt(gate));
}
GateRef MCRLowering::ConvertTaggedDoubleToInt32(GateRef gate, Label *exit)
{
return builder_.DoubleToInt(builder_.GetDoubleOfTDouble(gate), exit);
}
GateRef MCRLowering::ConvertTaggedDoubleToFloat64(GateRef gate)
{
return builder_.GetDoubleOfTDouble(gate);
}
void MCRLowering::LowerGetGlobalEnv(GateRef gate)
{
Environment env(gate, circuit_, &builder_);
GateRef glueGlobalEnvOffset = builder_.IntPtr(JSThread::GlueData::GetGlueGlobalEnvOffset(false));
GateRef glueGlobalEnv = builder_.Load(VariableType::JS_POINTER(), glue_, glueGlobalEnvOffset);
acc_.ReplaceGate(gate, Circuit::NullGate(), builder_.GetDepend(), glueGlobalEnv);
}
void MCRLowering::LowerGetGlobalEnvObj(GateRef gate)
{
Environment env(gate, circuit_, &builder_);
GateRef globalEnv = acc_.GetValueIn(gate, 0);
size_t index = acc_.GetIndex(gate);
GateRef offset = builder_.IntPtr(GlobalEnv::HEADER_SIZE + JSTaggedValue::TaggedTypeSize() * index);
GateRef object = builder_.Load(VariableType::JS_ANY(), globalEnv, offset);
acc_.ReplaceGate(gate, Circuit::NullGate(), builder_.GetDepend(), object);
}
void MCRLowering::LowerGetGlobalEnvObjHClass(GateRef gate)
{
Environment env(gate, circuit_, &builder_);
GateRef globalEnv = acc_.GetValueIn(gate, 0);
size_t index = acc_.GetIndex(gate);
GateRef offset = builder_.IntPtr(GlobalEnv::HEADER_SIZE + JSTaggedValue::TaggedTypeSize() * index);
GateRef object = builder_.Load(VariableType::JS_ANY(), globalEnv, offset);
auto hclass = builder_.Load(VariableType::JS_POINTER(), object,
builder_.IntPtr(JSFunction::PROTO_OR_DYNCLASS_OFFSET));
acc_.ReplaceGate(gate, Circuit::NullGate(), builder_.GetDepend(), hclass);
}
void MCRLowering::LowerGetGlobalConstantValue(GateRef gate)
{
Environment env(gate, circuit_, &builder_);
size_t index = acc_.GetIndex(gate);
GateRef gConstAddr = builder_.Load(VariableType::JS_POINTER(), glue_,
builder_.IntPtr(JSThread::GlueData::GetGlobalConstOffset(false)));
GateRef constantIndex = builder_.IntPtr(JSTaggedValue::TaggedTypeSize() * index);
GateRef result = builder_.Load(VariableType::JS_POINTER(), gConstAddr, constantIndex);
acc_.ReplaceGate(gate, Circuit::NullGate(), builder_.GetDepend(), result);
}
void MCRLowering::HeapAllocateInSOld(GateRef gate)
{
GateRef size = acc_.GetValueIn(gate, 0);
GateRef ret = builder_.CallRuntime(glue_, RTSTUB_ID(AllocateInSOld), Gate::InvalidGateRef,
{builder_.ToTaggedInt(size)}, gate);
acc_.ReplaceGate(gate, builder_.GetState(), builder_.GetDepend(), ret);
}
void MCRLowering::LowerInt32CheckRightIsZero(GateRef gate)
{
Environment env(gate, circuit_, &builder_);
GateRef frameState = acc_.GetFrameState(gate);
GateRef right = acc_.GetValueIn(gate, 0);
GateRef rightNotZero = builder_.Int32NotEqual(right, builder_.Int32(0));
builder_.DeoptCheck(rightNotZero, frameState, DeoptType::MODZERO1);
acc_.ReplaceGate(gate, builder_.GetState(), builder_.GetDepend(), Circuit::NullGate());
}
void MCRLowering::LowerRemainderIsNegativeZero(GateRef gate)
{
Environment env(gate, circuit_, &builder_);
GateRef frameState = acc_.GetFrameState(gate);
GateRef left = acc_.GetValueIn(gate, 0);
GateRef right = acc_.GetValueIn(gate, 1);
GateRef leftIsNegative = builder_.Int32LessThan(left, builder_.Int32(0));
GateRef remainder =
builder_.BinaryArithmetic(circuit_->Smod(), MachineType::I32, left, right, GateType::NJSValue());
GateRef remainderEqualZero = builder_.Int32Equal(remainder, builder_.Int32(0));
GateRef remainderIsNotNegative = builder_.BoolNot(builder_.BoolAnd(leftIsNegative, remainderEqualZero));
builder_.DeoptCheck(remainderIsNotNegative, frameState, DeoptType::REMAINDERISNEGATIVEZERO);
acc_.ReplaceGate(gate, builder_.GetState(), builder_.GetDepend(), Circuit::NullGate());
}
void MCRLowering::LowerFloat64CheckRightIsZero(GateRef gate)
{
Environment env(gate, circuit_, &builder_);
GateRef frameState = acc_.GetFrameState(gate);
GateRef right = acc_.GetValueIn(gate, 0);
GateRef rightNotZero = builder_.DoubleNotEqual(right, builder_.Double(0.0));
builder_.DeoptCheck(rightNotZero, frameState, DeoptType::DIVZERO1);
acc_.ReplaceGate(gate, builder_.GetState(), builder_.GetDepend(), Circuit::NullGate());
}
void MCRLowering::LowerLexVarIsHoleCheck(GateRef gate)
{
Environment env(gate, circuit_, &builder_);
GateRef frameState = acc_.GetFrameState(gate);
GateRef value = acc_.GetValueIn(gate, 0);
GateRef valueIsNotHole = builder_.TaggedIsNotHole(value);
builder_.DeoptCheck(valueIsNotHole, frameState, DeoptType::LEXVARISHOLE1);
acc_.ReplaceGate(gate, builder_.GetState(), builder_.GetDepend(), Circuit::NullGate());
}
void MCRLowering::LowerIsUndefinedOrHoleCheck(GateRef gate)
{
Environment env(gate, circuit_, &builder_);
GateRef frameState = acc_.GetFrameState(gate);
GateRef value = acc_.GetValueIn(gate, 0);
GateRef isNotUndefinedorHole = builder_.BoolNot(builder_.TaggedIsUndefinedOrHole(value));
builder_.DeoptCheck(isNotUndefinedorHole, frameState, DeoptType::ISUNDEFINEDORHOLE);
acc_.ReplaceGate(gate, builder_.GetState(), builder_.GetDepend(), Circuit::NullGate());
}
void MCRLowering::LowerIsNotUndefinedOrHoleCheck(GateRef gate)
{
Environment env(gate, circuit_, &builder_);
GateRef frameState = acc_.GetFrameState(gate);
GateRef value = acc_.GetValueIn(gate, 0);
GateRef isUndefinedorHole = builder_.TaggedIsUndefinedOrHole(value);
builder_.DeoptCheck(isUndefinedorHole, frameState, DeoptType::ISNOTUNDEFINEDORHOLE);
acc_.ReplaceGate(gate, builder_.GetState(), builder_.GetDepend(), Circuit::NullGate());
}
void MCRLowering::LowerIsDataViewCheck(GateRef gate)
{
Environment env(gate, circuit_, &builder_);
GateRef frameState = acc_.GetFrameState(gate);
GateRef obj = acc_.GetValueIn(gate, 0);
GateRef isDataView = builder_.CheckJSType(obj, JSType::JS_DATA_VIEW);
builder_.DeoptCheck(isDataView, frameState, DeoptType::ISNOTDATAVIEW);
acc_.ReplaceGate(gate, builder_.GetState(), builder_.GetDepend(), Circuit::NullGate());
}
void MCRLowering::LowerValueCheckNegOverflow(GateRef gate)
{
Environment env(gate, circuit_, &builder_);
GateRef frameState = acc_.GetFrameState(gate);
GateRef value = acc_.GetValueIn(gate, 0);
GateRef valueNotZero = builder_.NotEqual(value, builder_.Int32(0));
builder_.DeoptCheck(valueNotZero, frameState, DeoptType::NOTNEGOV1);
acc_.ReplaceGate(gate, builder_.GetState(), builder_.GetDepend(), Circuit::NullGate());
}
void MCRLowering::LowerOverflowCheck(GateRef gate)
{
Environment env(gate, circuit_, &builder_);
GateRef frameState = acc_.GetFrameState(gate);
GateRef result = acc_.GetValueIn(gate, 0);
GateRef condition = builder_.BoolNot(builder_.ExtractValue(MachineType::I1, result, builder_.Int32(1)));
builder_.DeoptCheck(condition, frameState, DeoptType::NOTINT3);
acc_.ReplaceGate(gate, builder_.GetState(), builder_.GetDepend(), Circuit::NullGate());
}
void MCRLowering::LowerInt32UnsignedUpperBoundCheck(GateRef gate)
{
Environment env(gate, circuit_, &builder_);
GateRef frameState = acc_.GetFrameState(gate);
GateRef value = acc_.GetValueIn(gate, 0);
GateRef upperBound = acc_.GetValueIn(gate, 1);
GateRef condition = builder_.Int32UnsignedLessThanOrEqual(value, upperBound);
builder_.DeoptCheck(condition, frameState, DeoptType::NOTINT4);
acc_.ReplaceGate(gate, builder_.GetState(), builder_.GetDepend(), Circuit::NullGate());
}
void MCRLowering::LowerInt32DivWithCheck(GateRef gate)
{
Environment env(gate, circuit_, &builder_);
GateRef frameState = acc_.GetFrameState(gate);
GateRef left = acc_.GetValueIn(gate, 0);
GateRef right = acc_.GetValueIn(gate, 1);
GateRef result = Circuit::NullGate();
GateRef rightGreaterZero = builder_.Int32GreaterThan(right, builder_.Int32(0));
GateRef rightLessZero = builder_.Int32LessThan(right, builder_.Int32(0));
GateRef leftNotZero = builder_.Int32NotEqual(left, builder_.Int32(0));
GateRef condition = builder_.BoolOr(rightGreaterZero, builder_.BoolAnd(rightLessZero, leftNotZero));
builder_.DeoptCheck(condition, frameState, DeoptType::DIVZERO2);
result = builder_.BinaryArithmetic(circuit_->Sdiv(), MachineType::I32, left, right, GateType::NJSValue());
GateRef truncated = builder_.BinaryArithmetic(circuit_->Mul(),
MachineType::I32, result, right, GateType::NJSValue());
GateRef overCheck = builder_.Int32Equal(truncated, left);
builder_.DeoptCheck(overCheck, frameState, DeoptType::NOTINT5);
acc_.ReplaceGate(gate, builder_.GetState(), builder_.GetDepend(), result);
}
void MCRLowering::LowerStoreMemory(GateRef gate)
{
Environment env(gate, circuit_, &builder_);
GateRef receiver = acc_.GetValueIn(gate, 0);
GateRef index = acc_.GetValueIn(gate, 1);
GateRef value = acc_.GetValueIn(gate, 2);
builder_.Store(VariableType::VOID(), glue_, receiver, index, value);
acc_.ReplaceGate(gate, builder_.GetState(), builder_.GetDepend(), Circuit::NullGate());
}
void MCRLowering::InitializeWithSpeicalValue(Label *exit, GateRef object, GateRef glue,
GateRef value, GateRef start, GateRef end)
{
Label begin(&builder_);
Label storeValue(&builder_);
Label endLoop(&builder_);
DEFVALUE(startOffset, (&builder_), VariableType::INT32(), start);
builder_.Jump(&begin);
builder_.LoopBegin(&begin);
{
BRANCH_CIR(builder_.Int32UnsignedLessThan(*startOffset, end), &storeValue, exit);
builder_.Bind(&storeValue);
{
builder_.Store(VariableType::INT64(), glue, object, builder_.ZExtInt32ToPtr(*startOffset), value);
startOffset = builder_.Int32Add(*startOffset, builder_.Int32(JSTaggedValue::TaggedTypeSize()));
builder_.Jump(&endLoop);
}
builder_.Bind(&endLoop);
builder_.LoopEnd(&begin);
}
}
void MCRLowering::LowerMigrateFromRawValueToHeapValues(GateRef gate)
{
Environment env(gate, circuit_, &builder_);
DEFVALUE(newElements, (&builder_), VariableType::JS_ANY(), builder_.Undefined());
Label exit(&builder_);
GateRef object = acc_.GetValueIn(gate, 0);
GateRef needCOW = acc_.GetValueIn(gate, 1);
GateRef isIntKind = acc_.GetValueIn(gate, 2);
GateRef elements = builder_.GetElementsArray(object);
GateRef length = builder_.GetLengthOfTaggedArray(elements);
Label createCOW(&builder_);
Label createNormal(&builder_);
Label finishElementsInit(&builder_);
BRANCH_CIR(needCOW, &createCOW, &createNormal);
builder_.Bind(&createCOW);
{
newElements = builder_.CallRuntime(glue_, RTSTUB_ID(NewCOWTaggedArray), acc_.GetDep(gate),
{ builder_.Int32ToTaggedPtr(length) }, gate);
builder_.Jump(&finishElementsInit);
}
builder_.Bind(&createNormal);
{
newElements = builder_.CallRuntime(glue_, RTSTUB_ID(NewTaggedArray), acc_.GetDep(gate),
{ builder_.Int32ToTaggedPtr(length) }, gate);
builder_.Jump(&finishElementsInit);
}
builder_.Bind(&finishElementsInit);
DEFVALUE(index, (&builder_), VariableType::INT32(), builder_.Int32(0));
Label loopHead(&builder_);
Label loopEnd(&builder_);
Label afterLoop(&builder_);
Label storeValue(&builder_);
builder_.Jump(&loopHead);
builder_.LoopBegin(&loopHead);
{
Label storeHole(&builder_);
Label storeNormalValue(&builder_);
Label finishStore(&builder_);
BRANCH_CIR(builder_.Int32UnsignedLessThan(*index, length), &storeValue, &afterLoop);
builder_.Bind(&storeValue);
{
Label rawValueIsInt(&builder_);
Label rawValueIsNumber(&builder_);
GateRef value = builder_.GetValueFromJSArrayWithElementsKind(VariableType::INT64(), elements, *index);
BRANCH_CIR(builder_.IsSpecialHole(value), &storeHole, &storeNormalValue);
builder_.Bind(&storeHole);
{
builder_.SetValueToTaggedArray(VariableType::JS_ANY(), glue_, *newElements, *index, builder_.Hole());
builder_.Jump(&finishStore);
}
builder_.Bind(&storeNormalValue);
{
BRANCH_CIR(isIntKind, &rawValueIsInt, &rawValueIsNumber);
builder_.Bind(&rawValueIsInt);
{
GateRef convertedInt = builder_.ToTaggedIntPtr(value);
builder_.SetValueToTaggedArray(VariableType::JS_ANY(), glue_, *newElements, *index, convertedInt);
builder_.Jump(&finishStore);
}
builder_.Bind(&rawValueIsNumber);
{
GateRef tmpDouble = builder_.CastInt64ToFloat64(value);
GateRef convertedDouble = builder_.DoubleToTaggedDoublePtr(tmpDouble);
builder_.SetValueToTaggedArray(VariableType::JS_ANY(), glue_, *newElements,
*index, convertedDouble);
builder_.Jump(&finishStore);
}
}
builder_.Bind(&finishStore);
{
index = builder_.Int32Add(*index, builder_.Int32(1));
builder_.Jump(&loopEnd);
}
}
}
builder_.Bind(&loopEnd);
builder_.LoopEnd(&loopHead);
builder_.Bind(&afterLoop);
{
builder_.Jump(&exit);
}
builder_.Bind(&exit);
acc_.ReplaceGate(gate, builder_.GetState(), builder_.GetDepend(), *newElements);
}
void MCRLowering::LowerMigrateFromHeapValueToRawValue(GateRef gate)
{
Environment env(gate, circuit_, &builder_);
DEFVALUE(newElements, (&builder_), VariableType::JS_ANY(), builder_.Undefined());
Label exit(&builder_);
GateRef object = acc_.GetValueIn(gate, 0);
GateRef needCOW = acc_.GetValueIn(gate, 1);
GateRef isIntKind = acc_.GetValueIn(gate, 2);
GateRef elements = builder_.GetElementsArray(object);
GateRef length = builder_.GetLengthOfTaggedArray(elements);
Label createCOW(&builder_);
Label createNormal(&builder_);
Label finishElementsInit(&builder_);
BRANCH_CIR(needCOW, &createCOW, &createNormal);
builder_.Bind(&createCOW);
{
newElements = builder_.CallRuntime(glue_, RTSTUB_ID(NewCOWMutantTaggedArray), acc_.GetDep(gate),
{ builder_.Int32ToTaggedPtr(length) }, gate);
builder_.Jump(&finishElementsInit);
}
builder_.Bind(&createNormal);
{
newElements = builder_.CallRuntime(glue_, RTSTUB_ID(NewMutantTaggedArray), acc_.GetDep(gate),
{ builder_.Int32ToTaggedPtr(length) }, gate);
builder_.Jump(&finishElementsInit);
}
builder_.Bind(&finishElementsInit);
DEFVALUE(index, (&builder_), VariableType::INT32(), builder_.Int32(0));
Label loopHead(&builder_);
Label loopEnd(&builder_);
Label afterLoop(&builder_);
Label storeValue(&builder_);
builder_.Jump(&loopHead);
builder_.LoopBegin(&loopHead);
{
Label storeSpecialHole(&builder_);
Label storeNormalValue(&builder_);
Label finishStore(&builder_);
BRANCH_CIR(builder_.Int32UnsignedLessThan(*index, length), &storeValue, &afterLoop);
builder_.Bind(&storeValue);
{
Label convertToInt(&builder_);
Label convertToDouble(&builder_);
GateRef value = builder_.GetValueFromTaggedArray(elements, *index);
BRANCH_CIR(builder_.TaggedIsHole(value), &storeSpecialHole, &storeNormalValue);
builder_.Bind(&storeSpecialHole);
{
builder_.SetValueToTaggedArray(VariableType::INT64(), glue_, *newElements,
*index, builder_.SpecialHoleConstant());
builder_.Jump(&finishStore);
}
builder_.Bind(&storeNormalValue);
{
Label valueIsInt(&builder_);
Label valueIsDouble(&builder_);
BRANCH_CIR(isIntKind, &convertToInt, &convertToDouble);
builder_.Bind(&convertToInt);
{
GateRef convertedInt = builder_.GetInt64OfTInt(value);
builder_.SetValueToTaggedArray(VariableType::INT64(), glue_, *newElements, *index, convertedInt);
builder_.Jump(&finishStore);
}
builder_.Bind(&convertToDouble);
{
BRANCH_CIR(builder_.TaggedIsInt(value), &valueIsInt, &valueIsDouble);
builder_.Bind(&valueIsInt);
{
GateRef convertedDoubleFromTInt = builder_.CastDoubleToInt64(builder_.GetDoubleOfTInt(value));
builder_.SetValueToTaggedArray(VariableType::INT64(), glue_, *newElements, *index,
convertedDoubleFromTInt);
builder_.Jump(&finishStore);
}
builder_.Bind(&valueIsDouble);
{
GateRef doubleValue = builder_.GetDoubleOfTDouble(value);
GateRef convertedDoubleFromTDouble = builder_.CastDoubleToInt64(doubleValue);
builder_.SetValueToTaggedArray(VariableType::INT64(), glue_, *newElements, *index,
convertedDoubleFromTDouble);
builder_.Jump(&finishStore);
}
}
}
builder_.Bind(&finishStore);
{
index = builder_.Int32Add(*index, builder_.Int32(1));
builder_.Jump(&loopEnd);
}
}
}
builder_.Bind(&loopEnd);
builder_.LoopEnd(&loopHead);
builder_.Bind(&afterLoop);
{
builder_.Jump(&exit);
}
builder_.Bind(&exit);
acc_.ReplaceGate(gate, builder_.GetState(), builder_.GetDepend(), *newElements);
}
void MCRLowering::LowerMigrateFromHoleIntToHoleNumber(GateRef gate)
{
Environment env(gate, circuit_, &builder_);
GateRef object = acc_.GetValueIn(gate, 0);
Label exit(&builder_);
GateRef elements = builder_.GetElementsArray(object);
GateRef length = builder_.GetLengthOfTaggedArray(elements);
DEFVALUE(index, (&builder_), VariableType::INT32(), builder_.Int32(0));
Label loopHead(&builder_);
Label loopEnd(&builder_);
Label afterLoop(&builder_);
Label storeValue(&builder_);
builder_.Jump(&loopHead);
builder_.LoopBegin(&loopHead);
{
Label storeNormalValue(&builder_);
Label finishStore(&builder_);
BRANCH_CIR(builder_.Int32UnsignedLessThan(*index, length), &storeValue, &afterLoop);
builder_.Bind(&storeValue);
{
GateRef value = builder_.GetValueFromTaggedArray(VariableType::INT64(), elements, *index);
BRANCH_CIR(builder_.IsSpecialHole(value), &finishStore, &storeNormalValue);
builder_.Bind(&storeNormalValue);
{
GateRef intVal = builder_.TruncInt64ToInt32(value);
GateRef convertedValue = builder_.CastDoubleToInt64(builder_.ChangeInt32ToFloat64(intVal));
builder_.SetValueToTaggedArray(VariableType::INT64(), glue_, elements, *index,
convertedValue);
builder_.Jump(&finishStore);
}
builder_.Bind(&finishStore);
{
index = builder_.Int32Add(*index, builder_.Int32(1));
builder_.Jump(&loopEnd);
}
}
}
builder_.Bind(&loopEnd);
builder_.LoopEnd(&loopHead);
builder_.Bind(&afterLoop);
{
builder_.Jump(&exit);
}
builder_.Bind(&exit);
acc_.ReplaceGate(gate, builder_.GetState(), builder_.GetDepend(), Circuit::NullGate());
}
void MCRLowering::LowerMigrateFromHoleNumberToHoleInt(GateRef gate)
{
Environment env(gate, circuit_, &builder_);
GateRef object = acc_.GetValueIn(gate, 0);
Label exit(&builder_);
GateRef elements = builder_.GetElementsArray(object);
GateRef length = builder_.GetLengthOfTaggedArray(elements);
DEFVALUE(index, (&builder_), VariableType::INT32(), builder_.Int32(0));
Label loopHead(&builder_);
Label loopEnd(&builder_);
Label afterLoop(&builder_);
Label storeValue(&builder_);
builder_.Jump(&loopHead);
builder_.LoopBegin(&loopHead);
{
Label storeNormalValue(&builder_);
Label finishStore(&builder_);
BRANCH_CIR(builder_.Int32UnsignedLessThan(*index, length), &storeValue, &afterLoop);
builder_.Bind(&storeValue);
{
GateRef value = builder_.GetValueFromTaggedArray(VariableType::INT64(), elements, *index);
BRANCH_CIR(builder_.IsSpecialHole(value), &finishStore, &storeNormalValue);
builder_.Bind(&storeNormalValue);
{
GateRef doubleVal = builder_.CastInt64ToFloat64(value);
GateRef convertedValue = builder_.SExtInt32ToInt64(builder_.ChangeFloat64ToInt32(doubleVal));
builder_.SetValueToTaggedArray(VariableType::INT64(), glue_, elements, *index,
convertedValue);
builder_.Jump(&finishStore);
}
builder_.Bind(&finishStore);
{
index = builder_.Int32Add(*index, builder_.Int32(1));
builder_.Jump(&loopEnd);
}
}
}
builder_.Bind(&loopEnd);
builder_.LoopEnd(&loopHead);
builder_.Bind(&afterLoop);
{
builder_.Jump(&exit);
}
builder_.Bind(&exit);
acc_.ReplaceGate(gate, builder_.GetState(), builder_.GetDepend(), Circuit::NullGate());
}
void MCRLowering::LowerHeapObjectIsEcmaObject(GateRef gate)
{
Environment env(gate, circuit_, &builder_);
GateRef frameState = acc_.GetFrameState(gate);
GateRef value = acc_.GetValueIn(gate, 0);
GateRef isEcmaObject = builder_.TaggedObjectIsEcmaObject(value);
builder_.DeoptCheck(isEcmaObject, frameState, DeoptType::NOT_ECMA_OBJECT);
acc_.ReplaceGate(gate, builder_.GetState(), builder_.GetDepend(), Circuit::NullGate());
}
void MCRLowering::LowerIsCallableCheck(GateRef gate)
{
Environment env(gate, circuit_, &builder_);
GateRef func = acc_.GetValueIn(gate, 0);
GateRef frameState = acc_.GetFrameState(gate);
GateRef isHeapObject = builder_.TaggedIsHeapObject(func);
GateRef callable = builder_.IsCallable(func);
builder_.DeoptCheck(builder_.BoolAnd(isHeapObject, callable), frameState, DeoptType::NOTCALLABLE);
acc_.ReplaceGate(gate, builder_.GetState(), builder_.GetDepend(), Circuit::NullGate());
}
} // namespace panda::ecmascript