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/*
* Copyright 2010-2024 JetBrains s.r.o. and Kotlin Programming Language contributors.
* Use of this source code is governed by the Apache 2.0 license that can be found in the license/LICENSE.txt file.
*/
package org.jetbrains.kotlin.backend.common.serialization
import org.jetbrains.kotlin.backend.common.linkage.issues.IrSymbolTypeMismatchException
import org.jetbrains.kotlin.backend.common.serialization.encodings.*
import org.jetbrains.kotlin.backend.common.serialization.encodings.BinarySymbolData.SymbolKind
import org.jetbrains.kotlin.backend.common.serialization.encodings.BinarySymbolData.SymbolKind.*
import org.jetbrains.kotlin.backend.common.serialization.proto.IrConst.ValueCase.*
import org.jetbrains.kotlin.backend.common.serialization.proto.IrOperation.OperationCase.*
import org.jetbrains.kotlin.backend.common.serialization.proto.IrStatement.StatementCase
import org.jetbrains.kotlin.backend.common.serialization.proto.IrVarargElement.VarargElementCase
import org.jetbrains.kotlin.ir.IrBuiltIns
import org.jetbrains.kotlin.ir.IrElement
import org.jetbrains.kotlin.ir.IrStatement
import org.jetbrains.kotlin.ir.declarations.*
import org.jetbrains.kotlin.ir.descriptors.*
import org.jetbrains.kotlin.ir.expressions.*
import org.jetbrains.kotlin.ir.expressions.impl.*
import org.jetbrains.kotlin.ir.symbols.*
import org.jetbrains.kotlin.ir.types.*
import org.jetbrains.kotlin.ir.types.impl.*
import org.jetbrains.kotlin.ir.util.parentAsClass
import org.jetbrains.kotlin.utils.memoryOptimizedMap
import kotlin.reflect.full.declaredMemberProperties
import org.jetbrains.kotlin.backend.common.serialization.proto.IrBlock as ProtoBlock
import org.jetbrains.kotlin.backend.common.serialization.proto.IrBlockBody as ProtoBlockBody
import org.jetbrains.kotlin.backend.common.serialization.proto.IrBranch as ProtoBranch
import org.jetbrains.kotlin.backend.common.serialization.proto.IrBreak as ProtoBreak
import org.jetbrains.kotlin.backend.common.serialization.proto.IrCall as ProtoCall
import org.jetbrains.kotlin.backend.common.serialization.proto.IrCatch as ProtoCatch
import org.jetbrains.kotlin.backend.common.serialization.proto.IrClassReference as ProtoClassReference
import org.jetbrains.kotlin.backend.common.serialization.proto.IrComposite as ProtoComposite
import org.jetbrains.kotlin.backend.common.serialization.proto.IrConst as ProtoConst
import org.jetbrains.kotlin.backend.common.serialization.proto.IrConstructorCall as ProtoConstructorCall
import org.jetbrains.kotlin.backend.common.serialization.proto.IrContinue as ProtoContinue
import org.jetbrains.kotlin.backend.common.serialization.proto.IrDelegatingConstructorCall as ProtoDelegatingConstructorCall
import org.jetbrains.kotlin.backend.common.serialization.proto.IrDoWhile as ProtoDoWhile
import org.jetbrains.kotlin.backend.common.serialization.proto.IrDynamicMemberExpression as ProtoDynamicMemberExpression
import org.jetbrains.kotlin.backend.common.serialization.proto.IrDynamicOperatorExpression as ProtoDynamicOperatorExpression
import org.jetbrains.kotlin.backend.common.serialization.proto.IrEnumConstructorCall as ProtoEnumConstructorCall
import org.jetbrains.kotlin.backend.common.serialization.proto.IrErrorCallExpression as ProtoErrorCallExpression
import org.jetbrains.kotlin.backend.common.serialization.proto.IrErrorExpression as ProtoErrorExpression
import org.jetbrains.kotlin.backend.common.serialization.proto.IrExpression as ProtoExpression
import org.jetbrains.kotlin.backend.common.serialization.proto.IrFunctionExpression as ProtoFunctionExpression
import org.jetbrains.kotlin.backend.common.serialization.proto.IrFunctionReference as ProtoFunctionReference
import org.jetbrains.kotlin.backend.common.serialization.proto.IrGetClass as ProtoGetClass
import org.jetbrains.kotlin.backend.common.serialization.proto.IrGetEnumValue as ProtoGetEnumValue
import org.jetbrains.kotlin.backend.common.serialization.proto.IrGetField as ProtoGetField
import org.jetbrains.kotlin.backend.common.serialization.proto.IrGetObject as ProtoGetObject
import org.jetbrains.kotlin.backend.common.serialization.proto.IrGetValue as ProtoGetValue
import org.jetbrains.kotlin.backend.common.serialization.proto.IrInstanceInitializerCall as ProtoInstanceInitializerCall
import org.jetbrains.kotlin.backend.common.serialization.proto.IrLocalDelegatedPropertyReference as ProtoLocalDelegatedPropertyReference
import org.jetbrains.kotlin.backend.common.serialization.proto.IrOperation as ProtoOperation
import org.jetbrains.kotlin.backend.common.serialization.proto.IrPropertyReference as ProtoPropertyReference
import org.jetbrains.kotlin.backend.common.serialization.proto.IrReturn as ProtoReturn
import org.jetbrains.kotlin.backend.common.serialization.proto.IrSetField as ProtoSetField
import org.jetbrains.kotlin.backend.common.serialization.proto.IrSetValue as ProtoSetValue
import org.jetbrains.kotlin.backend.common.serialization.proto.IrSpreadElement as ProtoSpreadElement
import org.jetbrains.kotlin.backend.common.serialization.proto.IrStatement as ProtoStatement
import org.jetbrains.kotlin.backend.common.serialization.proto.IrStringConcat as ProtoStringConcat
import org.jetbrains.kotlin.backend.common.serialization.proto.IrSyntheticBody as ProtoSyntheticBody
import org.jetbrains.kotlin.backend.common.serialization.proto.IrSyntheticBodyKind as ProtoSyntheticBodyKind
import org.jetbrains.kotlin.backend.common.serialization.proto.IrThrow as ProtoThrow
import org.jetbrains.kotlin.backend.common.serialization.proto.IrTry as ProtoTry
import org.jetbrains.kotlin.backend.common.serialization.proto.IrTypeOp as ProtoTypeOp
import org.jetbrains.kotlin.backend.common.serialization.proto.IrTypeOperator as ProtoTypeOperator
import org.jetbrains.kotlin.backend.common.serialization.proto.IrVararg as ProtoVararg
import org.jetbrains.kotlin.backend.common.serialization.proto.IrVarargElement as ProtoVarargElement
import org.jetbrains.kotlin.backend.common.serialization.proto.IrWhen as ProtoWhen
import org.jetbrains.kotlin.backend.common.serialization.proto.IrWhile as ProtoWhile
import org.jetbrains.kotlin.backend.common.serialization.proto.Loop as ProtoLoop
import org.jetbrains.kotlin.backend.common.serialization.proto.MemberAccessCommon as ProtoMemberAccessCommon
class IrBodyDeserializer(
private val builtIns: IrBuiltIns,
private val allowErrorNodes: Boolean,
private val irFactory: IrFactory,
private val libraryFile: IrLibraryFile,
private val declarationDeserializer: IrDeclarationDeserializer
) {
private val fileLoops = hashMapOf()
private fun deserializeLoopHeader(loopIndex: Int, loopBuilder: () -> IrLoop): IrLoop =
fileLoops.getOrPut(loopIndex, loopBuilder)
private fun deserializeBlockBody(
proto: ProtoBlockBody,
start: Int, end: Int
): IrBlockBody {
val statements = proto.statementList.memoryOptimizedMap { deserializeStatement(it) as IrStatement }
return irFactory.createBlockBody(start, end, statements)
}
private fun deserializeBranch(proto: ProtoBranch, start: Int, end: Int): IrBranch {
val condition = deserializeExpression(proto.condition)
val result = deserializeExpression(proto.result)
return IrBranchImpl(start, end, condition, result)
}
private fun deserializeCatch(proto: ProtoCatch, start: Int, end: Int): IrCatch {
val catchParameter = declarationDeserializer.deserializeIrVariable(proto.catchParameter)
val result = deserializeExpression(proto.result)
return IrCatchImpl(start, end, catchParameter, result)
}
private fun deserializeSyntheticBody(proto: ProtoSyntheticBody, start: Int, end: Int): IrSyntheticBody {
val kind = when (proto.kind!!) {
ProtoSyntheticBodyKind.ENUM_VALUES -> IrSyntheticBodyKind.ENUM_VALUES
ProtoSyntheticBodyKind.ENUM_VALUEOF -> IrSyntheticBodyKind.ENUM_VALUEOF
ProtoSyntheticBodyKind.ENUM_ENTRIES -> IrSyntheticBodyKind.ENUM_ENTRIES
}
return IrSyntheticBodyImpl(start, end, kind)
}
internal fun deserializeStatement(proto: ProtoStatement): IrElement {
val coordinates = BinaryCoordinates.decode(proto.coordinates)
val start = coordinates.startOffset
val end = coordinates.endOffset
val element = when (proto.statementCase) {
StatementCase.BLOCK_BODY //proto.hasBlockBody()
-> deserializeBlockBody(proto.blockBody, start, end)
StatementCase.BRANCH //proto.hasBranch()
-> deserializeBranch(proto.branch, start, end)
StatementCase.CATCH //proto.hasCatch()
-> deserializeCatch(proto.catch, start, end)
StatementCase.DECLARATION // proto.hasDeclaration()
-> declarationDeserializer.deserializeDeclaration(proto.declaration)
StatementCase.EXPRESSION // proto.hasExpression()
-> deserializeExpression(proto.expression)
StatementCase.SYNTHETIC_BODY // proto.hasSyntheticBody()
-> deserializeSyntheticBody(proto.syntheticBody, start, end)
else
-> TODO("Statement deserialization not implemented: ${proto.statementCase}")
}
return element
}
private fun deserializeBlock(proto: ProtoBlock, start: Int, end: Int, type: IrType): IrBlock {
val statements = mutableListOf()
val statementProtos = proto.statementList
val origin = deserializeIrStatementOrigin(proto.hasOriginName()) { proto.originName }
statementProtos.forEach {
statements.add(deserializeStatement(it) as IrStatement)
}
return IrBlockImpl(start, end, type, origin, statements)
}
private fun deserializeMemberAccessCommon(access: IrMemberAccessExpression<*>, proto: ProtoMemberAccessCommon) {
proto.valueArgumentList.forEachIndexed { i, arg ->
if (arg.hasExpression()) {
val expr = deserializeExpression(arg.expression)
access.putValueArgument(i, expr)
}
}
proto.typeArgumentList.forEachIndexed { i, arg ->
access.putTypeArgument(i, declarationDeserializer.deserializeNullableIrType(arg))
}
if (proto.hasDispatchReceiver()) {
access.dispatchReceiver = deserializeExpression(proto.dispatchReceiver)
}
if (proto.hasExtensionReceiver()) {
access.extensionReceiver = deserializeExpression(proto.extensionReceiver)
}
}
private fun deserializeClassReference(
proto: ProtoClassReference,
start: Int,
end: Int,
type: IrType
): IrClassReference {
val symbol = deserializeTypedSymbol(
proto.classSymbol,
fallbackSymbolKind = /* just the first possible option */ CLASS_SYMBOL
)
val classType = declarationDeserializer.deserializeIrType(proto.classType)
/** TODO: [createClassifierSymbolForClassReference] is internal function */
return IrClassReferenceImpl(start, end, type, symbol, classType)
}
// TODO: probably a bit more abstraction possible here up to `IrMemberAccessExpression`
// but at this point further complexization looks overengineered
private class IrAnnotationType : IrDelegatedSimpleType() {
var irConstructorCall: IrConstructorCall? = null
override val delegate: IrSimpleType by lazy { resolveType() }
private fun resolveType(): IrSimpleType {
val constructorCall = irConstructorCall ?: error("irConstructorCall should not be null at this stage")
irConstructorCall = null
val klass = constructorCall.symbol.owner.parentAsClass
val typeParameters = extractTypeParameters(klass).ifEmpty {
return IrSimpleTypeBuilder().apply { classifier = klass.symbol }.buildSimpleType()
}
val rawType = with(IrSimpleTypeBuilder()) {
arguments = typeParameters.memoryOptimizedMap {
classifier = it.symbol
buildSimpleType()
}
classifier = klass.symbol
buildSimpleType()
}
val typeParametersToArguments = HashMap(typeParameters.size)
for (i in typeParameters.indices) {
val typeParameter = typeParameters[i]
val callTypeArgument = constructorCall.getTypeArgument(i) ?: error("No type argument for id $i")
val typeArgument = makeTypeProjection(callTypeArgument, typeParameter.variance)
typeParametersToArguments[typeParameter.symbol] = typeArgument
}
val substitutor = IrTypeSubstitutor(typeParametersToArguments)
return substitutor.substitute(rawType) as IrSimpleType
}
}
fun deserializeAnnotation(proto: ProtoConstructorCall): IrConstructorCall {
val irType = IrAnnotationType()
// TODO: use real coordinates
return deserializeConstructorCall(proto, 0, 0, irType).also { irType.irConstructorCall = it }
}
private fun deserializeConstructorCall(proto: ProtoConstructorCall, start: Int, end: Int, type: IrType): IrConstructorCall {
val symbol = deserializeTypedSymbol(proto.symbol, CONSTRUCTOR_SYMBOL)
return IrConstructorCallImpl(
start, end, type,
symbol, typeArgumentsCount = proto.memberAccess.typeArgumentCount,
constructorTypeArgumentsCount = proto.constructorTypeArgumentsCount,
valueArgumentsCount = proto.memberAccess.valueArgumentCount,
origin = deserializeIrStatementOrigin(proto.hasOriginName()) { proto.originName }
).also {
deserializeMemberAccessCommon(it, proto.memberAccess)
}
}
private fun deserializeCall(proto: ProtoCall, start: Int, end: Int, type: IrType): IrCall {
val symbol = deserializeTypedSymbol(proto.symbol, FUNCTION_SYMBOL)
val superSymbol = deserializeTypedSymbolWhen(proto.hasSuper(), CLASS_SYMBOL) { proto.`super` }
val origin = deserializeIrStatementOrigin(proto.hasOriginName()) { proto.originName }
val call: IrCall =
// TODO: implement the last three args here.
IrCallImpl(
start, end, type,
symbol, proto.memberAccess.typeArgumentCount,
proto.memberAccess.valueArgumentList.size,
origin,
superSymbol
)
deserializeMemberAccessCommon(call, proto.memberAccess)
return call
}
private fun deserializeComposite(proto: ProtoComposite, start: Int, end: Int, type: IrType): IrComposite {
val statements = mutableListOf()
val statementProtos = proto.statementList
val origin = deserializeIrStatementOrigin(proto.hasOriginName()) { proto.originName }
statementProtos.forEach {
statements.add(deserializeStatement(it) as IrStatement)
}
return IrCompositeImpl(start, end, type, origin, statements)
}
private fun deserializeDelegatingConstructorCall(
proto: ProtoDelegatingConstructorCall,
start: Int,
end: Int
): IrDelegatingConstructorCall {
val symbol = deserializeTypedSymbol(proto.symbol, CONSTRUCTOR_SYMBOL)
val call = IrDelegatingConstructorCallImpl(
start,
end,
builtIns.unitType,
symbol,
proto.memberAccess.typeArgumentCount,
proto.memberAccess.valueArgumentCount
)
deserializeMemberAccessCommon(call, proto.memberAccess)
return call
}
private fun deserializeEnumConstructorCall(
proto: ProtoEnumConstructorCall,
start: Int,
end: Int,
): IrEnumConstructorCall {
val symbol = deserializeTypedSymbol(proto.symbol, CONSTRUCTOR_SYMBOL)
val call = IrEnumConstructorCallImpl(
start,
end,
builtIns.unitType,
symbol,
proto.memberAccess.typeArgumentCount,
proto.memberAccess.valueArgumentCount
)
deserializeMemberAccessCommon(call, proto.memberAccess)
return call
}
private fun deserializeFunctionExpression(
functionExpression: ProtoFunctionExpression,
start: Int,
end: Int,
type: IrType
) =
IrFunctionExpressionImpl(
start, end, type,
declarationDeserializer.deserializeIrFunction(functionExpression.function),
deserializeIrStatementOrigin(functionExpression.originName)
)
private fun deserializeErrorExpression(
proto: ProtoErrorExpression,
start: Int, end: Int, type: IrType
): IrErrorExpression {
require(allowErrorNodes) {
"IrErrorExpression($start, $end, \"${libraryFile.string(proto.description)}\") found but error code is not allowed"
}
return IrErrorExpressionImpl(start, end, type, libraryFile.string(proto.description))
}
private fun deserializeErrorCallExpression(
proto: ProtoErrorCallExpression,
start: Int, end: Int, type: IrType
): IrErrorCallExpression {
require(allowErrorNodes) {
"IrErrorCallExpressionImpl($start, $end, \"${libraryFile.string(proto.description)}\") found but error code is not allowed"
}
return IrErrorCallExpressionImpl(start, end, type, libraryFile.string(proto.description)).apply {
if (proto.hasReceiver()) {
explicitReceiver = deserializeExpression(proto.receiver)
}
proto.valueArgumentList.forEach {
arguments.add(deserializeExpression(it))
}
}
}
private fun deserializeFunctionReference(
proto: ProtoFunctionReference,
start: Int, end: Int, type: IrType
): IrFunctionReference {
val symbol = deserializeTypedSymbol(
proto.symbol,
fallbackSymbolKind = /* just the first possible option */ FUNCTION_SYMBOL
)
val origin = deserializeIrStatementOrigin(proto.hasOriginName()) { proto.originName }
val reflectionTarget = deserializeTypedSymbolWhen(
proto.hasReflectionTargetSymbol(),
fallbackSymbolKind = /* just the first possible option */ FUNCTION_SYMBOL
) { proto.reflectionTargetSymbol }
val callable = IrFunctionReferenceImpl(
start,
end,
type,
symbol,
proto.memberAccess.typeArgumentCount,
proto.memberAccess.valueArgumentCount,
reflectionTarget,
origin
)
deserializeMemberAccessCommon(callable, proto.memberAccess)
return callable
}
private fun deserializeGetClass(proto: ProtoGetClass, start: Int, end: Int, type: IrType): IrGetClass {
val argument = deserializeExpression(proto.argument)
return IrGetClassImpl(start, end, type, argument)
}
private fun deserializeGetField(proto: ProtoGetField, start: Int, end: Int, type: IrType): IrGetField {
val access = proto.fieldAccess
val symbol = deserializeTypedSymbol(access.symbol, FIELD_SYMBOL)
val origin = deserializeIrStatementOrigin(proto.hasOriginName()) { proto.originName }
val superQualifier = deserializeTypedSymbolWhen(access.hasSuper(), CLASS_SYMBOL) { access.`super` }
val receiver = if (access.hasReceiver()) {
deserializeExpression(access.receiver)
} else null
return IrGetFieldImpl(start, end, symbol, type, receiver, origin, superQualifier)
}
private fun deserializeGetValue(proto: ProtoGetValue, start: Int, end: Int, type: IrType): IrGetValue {
val symbol = deserializeTypedSymbol(proto.symbol, fallbackSymbolKind = null, remap = false)
val origin = deserializeIrStatementOrigin(proto.hasOriginName()) { proto.originName }
// TODO: origin!
return IrGetValueImpl(start, end, type, symbol, origin)
}
private fun deserializeGetEnumValue(
proto: ProtoGetEnumValue,
start: Int,
end: Int,
type: IrType
): IrGetEnumValue {
val symbol = deserializeTypedSymbol(proto.symbol, ENUM_ENTRY_SYMBOL)
return IrGetEnumValueImpl(start, end, type, symbol)
}
private fun deserializeGetObject(
proto: ProtoGetObject,
start: Int,
end: Int,
type: IrType
): IrGetObjectValue {
val symbol = deserializeTypedSymbol(proto.symbol, CLASS_SYMBOL)
return IrGetObjectValueImpl(start, end, type, symbol)
}
private fun deserializeInstanceInitializerCall(
proto: ProtoInstanceInitializerCall,
start: Int,
end: Int
): IrInstanceInitializerCall {
val symbol = deserializeTypedSymbol(proto.symbol, CLASS_SYMBOL)
return IrInstanceInitializerCallImpl(start, end, symbol, builtIns.unitType)
}
private fun deserializeIrLocalDelegatedPropertyReference(
proto: ProtoLocalDelegatedPropertyReference,
start: Int,
end: Int,
type: IrType
): IrLocalDelegatedPropertyReference {
val delegate = deserializeTypedSymbol(proto.delegate, fallbackSymbolKind = null)
val getter = deserializeTypedSymbol(proto.getter, FUNCTION_SYMBOL)
val setter =
deserializeTypedSymbolWhen(proto.hasSetter(), FUNCTION_SYMBOL) { proto.setter }
val symbol = deserializeTypedSymbol(proto.symbol, fallbackSymbolKind = null)
val origin = deserializeIrStatementOrigin(proto.hasOriginName()) { proto.originName }
return IrLocalDelegatedPropertyReferenceImpl(
start, end, type,
symbol,
delegate,
getter,
setter,
origin
)
}
private fun deserializePropertyReference(proto: ProtoPropertyReference, start: Int, end: Int, type: IrType): IrPropertyReference {
val symbol = deserializeTypedSymbol(proto.symbol, PROPERTY_SYMBOL)
val field = deserializeTypedSymbolWhen(proto.hasField(), FIELD_SYMBOL) { proto.field }
val getter = deserializeTypedSymbolWhen(proto.hasGetter(), FUNCTION_SYMBOL) { proto.getter }
val setter = deserializeTypedSymbolWhen(proto.hasSetter(), FUNCTION_SYMBOL) { proto.setter }
val origin = deserializeIrStatementOrigin(proto.hasOriginName()) { proto.originName }
val callable = IrPropertyReferenceImpl(
start, end, type,
symbol,
proto.memberAccess.typeArgumentCount,
field,
getter,
setter,
origin
)
deserializeMemberAccessCommon(callable, proto.memberAccess)
return callable
}
private fun deserializeReturn(proto: ProtoReturn, start: Int, end: Int): IrReturn {
val symbol = deserializeTypedSymbol(
proto.returnTarget,
fallbackSymbolKind = /* just the first possible option */ FUNCTION_SYMBOL
)
val value = deserializeExpression(proto.value)
return IrReturnImpl(start, end, builtIns.nothingType, symbol, value)
}
private fun deserializeSetField(proto: ProtoSetField, start: Int, end: Int): IrSetField {
val access = proto.fieldAccess
val symbol = deserializeTypedSymbol(access.symbol, FIELD_SYMBOL)
val superQualifier = deserializeTypedSymbolWhen(access.hasSuper(), CLASS_SYMBOL) { access.`super` }
val receiver = if (access.hasReceiver()) {
deserializeExpression(access.receiver)
} else null
val value = deserializeExpression(proto.value)
val origin = deserializeIrStatementOrigin(proto.hasOriginName()) { proto.originName }
return IrSetFieldImpl(start, end, symbol, receiver, value, builtIns.unitType, origin, superQualifier)
}
private fun deserializeSetValue(proto: ProtoSetValue, start: Int, end: Int): IrSetValue {
val symbol = deserializeTypedSymbol(proto.symbol, fallbackSymbolKind = null, remap = false)
val value = deserializeExpression(proto.value)
val origin = deserializeIrStatementOrigin(proto.hasOriginName()) { proto.originName }
return IrSetValueImpl(start, end, builtIns.unitType, symbol, value, origin)
}
private fun deserializeSpreadElement(proto: ProtoSpreadElement): IrSpreadElement {
val expression = deserializeExpression(proto.expression)
val coordinates = BinaryCoordinates.decode(proto.coordinates)
return IrSpreadElementImpl(coordinates.startOffset, coordinates.endOffset, expression)
}
private fun deserializeStringConcat(proto: ProtoStringConcat, start: Int, end: Int, type: IrType): IrStringConcatenation {
val argumentProtos = proto.argumentList
val arguments = mutableListOf()
argumentProtos.forEach {
arguments.add(deserializeExpression(it))
}
return IrStringConcatenationImpl(start, end, type, arguments)
}
private fun deserializeThrow(proto: ProtoThrow, start: Int, end: Int): IrThrowImpl {
return IrThrowImpl(start, end, builtIns.nothingType, deserializeExpression(proto.value))
}
private fun deserializeTry(proto: ProtoTry, start: Int, end: Int, type: IrType): IrTryImpl {
val result = deserializeExpression(proto.result)
val catches = mutableListOf()
proto.catchList.forEach {
catches.add(deserializeStatement(it) as IrCatch)
}
val finallyExpression = if (proto.hasFinally()) deserializeExpression(proto.finally) else null
return IrTryImpl(start, end, type, result, catches, finallyExpression)
}
private fun deserializeTypeOperator(operator: ProtoTypeOperator) = when (operator) {
ProtoTypeOperator.CAST ->
IrTypeOperator.CAST
ProtoTypeOperator.IMPLICIT_CAST ->
IrTypeOperator.IMPLICIT_CAST
ProtoTypeOperator.IMPLICIT_NOTNULL ->
IrTypeOperator.IMPLICIT_NOTNULL
ProtoTypeOperator.IMPLICIT_COERCION_TO_UNIT ->
IrTypeOperator.IMPLICIT_COERCION_TO_UNIT
ProtoTypeOperator.IMPLICIT_INTEGER_COERCION ->
IrTypeOperator.IMPLICIT_INTEGER_COERCION
ProtoTypeOperator.SAFE_CAST ->
IrTypeOperator.SAFE_CAST
ProtoTypeOperator.INSTANCEOF ->
IrTypeOperator.INSTANCEOF
ProtoTypeOperator.NOT_INSTANCEOF ->
IrTypeOperator.NOT_INSTANCEOF
ProtoTypeOperator.SAM_CONVERSION ->
IrTypeOperator.SAM_CONVERSION
ProtoTypeOperator.IMPLICIT_DYNAMIC_CAST ->
IrTypeOperator.IMPLICIT_DYNAMIC_CAST
ProtoTypeOperator.REINTERPRET_CAST ->
IrTypeOperator.REINTERPRET_CAST
}
private fun deserializeTypeOp(proto: ProtoTypeOp, start: Int, end: Int, type: IrType): IrTypeOperatorCall {
val operator = deserializeTypeOperator(proto.operator)
val operand = declarationDeserializer.deserializeIrType(proto.operand)//.brokenIr
val argument = deserializeExpression(proto.argument)
return IrTypeOperatorCallImpl(start, end, type, operator, operand, argument)
}
private fun deserializeVararg(proto: ProtoVararg, start: Int, end: Int, type: IrType): IrVararg {
val elementType = declarationDeserializer.deserializeIrType(proto.elementType)
val elements = mutableListOf()
proto.elementList.forEach {
elements.add(deserializeVarargElement(it))
}
return IrVarargImpl(start, end, type, elementType, elements)
}
private fun deserializeVarargElement(element: ProtoVarargElement): IrVarargElement {
return when (element.varargElementCase) {
VarargElementCase.EXPRESSION
-> deserializeExpression(element.expression)
VarargElementCase.SPREAD_ELEMENT
-> deserializeSpreadElement(element.spreadElement)
else
-> TODO("Unexpected vararg element")
}
}
private fun deserializeWhen(proto: ProtoWhen, start: Int, end: Int, type: IrType): IrWhen {
val branches = mutableListOf()
val origin = deserializeIrStatementOrigin(proto.hasOriginName()) { proto.originName }
proto.branchList.forEach {
branches.add(deserializeStatement(it) as IrBranch)
}
// TODO: provide some origin!
return IrWhenImpl(start, end, type, origin, branches)
}
private fun deserializeLoop(proto: ProtoLoop, loop: IrLoop): IrLoop {
val label = if (proto.hasLabel()) libraryFile.string(proto.label) else null
val body = if (proto.hasBody()) deserializeExpression(proto.body) else null
val condition = deserializeExpression(proto.condition)
loop.label = label
loop.condition = condition
loop.body = body
return loop
}
// we create the loop before deserializing the body, so that
// IrBreak statements have something to put into 'loop' field.
private fun deserializeDoWhile(proto: ProtoDoWhile, start: Int, end: Int, type: IrType) =
deserializeLoop(
proto.loop,
deserializeLoopHeader(proto.loop.loopId) {
val origin = deserializeIrStatementOrigin(proto.loop.hasOriginName()) { proto.loop.originName }
IrDoWhileLoopImpl(start, end, type, origin)
}
)
private fun deserializeWhile(proto: ProtoWhile, start: Int, end: Int, type: IrType) =
deserializeLoop(
proto.loop,
deserializeLoopHeader(proto.loop.loopId) {
val origin = deserializeIrStatementOrigin(proto.loop.hasOriginName()) { proto.loop.originName }
IrWhileLoopImpl(start, end, type, origin)
}
)
private fun deserializeDynamicMemberExpression(
proto: ProtoDynamicMemberExpression,
start: Int,
end: Int,
type: IrType
) =
IrDynamicMemberExpressionImpl(
start,
end,
type,
libraryFile.string(proto.memberName),
deserializeExpression(proto.receiver)
)
private fun deserializeDynamicOperatorExpression(
proto: ProtoDynamicOperatorExpression,
start: Int,
end: Int,
type: IrType
) =
IrDynamicOperatorExpressionImpl(start, end, type, deserializeDynamicOperator(proto.operator)).apply {
receiver = deserializeExpression(proto.receiver)
proto.argumentList.mapTo(arguments) { deserializeExpression(it) }
}
private fun deserializeDynamicOperator(operator: ProtoDynamicOperatorExpression.IrDynamicOperator) =
when (operator) {
ProtoDynamicOperatorExpression.IrDynamicOperator.UNARY_PLUS -> IrDynamicOperator.UNARY_PLUS
ProtoDynamicOperatorExpression.IrDynamicOperator.UNARY_MINUS -> IrDynamicOperator.UNARY_MINUS
ProtoDynamicOperatorExpression.IrDynamicOperator.EXCL -> IrDynamicOperator.EXCL
ProtoDynamicOperatorExpression.IrDynamicOperator.PREFIX_INCREMENT -> IrDynamicOperator.PREFIX_INCREMENT
ProtoDynamicOperatorExpression.IrDynamicOperator.PREFIX_DECREMENT -> IrDynamicOperator.PREFIX_DECREMENT
ProtoDynamicOperatorExpression.IrDynamicOperator.POSTFIX_INCREMENT -> IrDynamicOperator.POSTFIX_INCREMENT
ProtoDynamicOperatorExpression.IrDynamicOperator.POSTFIX_DECREMENT -> IrDynamicOperator.POSTFIX_DECREMENT
ProtoDynamicOperatorExpression.IrDynamicOperator.BINARY_PLUS -> IrDynamicOperator.BINARY_PLUS
ProtoDynamicOperatorExpression.IrDynamicOperator.BINARY_MINUS -> IrDynamicOperator.BINARY_MINUS
ProtoDynamicOperatorExpression.IrDynamicOperator.MUL -> IrDynamicOperator.MUL
ProtoDynamicOperatorExpression.IrDynamicOperator.DIV -> IrDynamicOperator.DIV
ProtoDynamicOperatorExpression.IrDynamicOperator.MOD -> IrDynamicOperator.MOD
ProtoDynamicOperatorExpression.IrDynamicOperator.GT -> IrDynamicOperator.GT
ProtoDynamicOperatorExpression.IrDynamicOperator.LT -> IrDynamicOperator.LT
ProtoDynamicOperatorExpression.IrDynamicOperator.GE -> IrDynamicOperator.GE
ProtoDynamicOperatorExpression.IrDynamicOperator.LE -> IrDynamicOperator.LE
ProtoDynamicOperatorExpression.IrDynamicOperator.EQEQ -> IrDynamicOperator.EQEQ
ProtoDynamicOperatorExpression.IrDynamicOperator.EXCLEQ -> IrDynamicOperator.EXCLEQ
ProtoDynamicOperatorExpression.IrDynamicOperator.EQEQEQ -> IrDynamicOperator.EQEQEQ
ProtoDynamicOperatorExpression.IrDynamicOperator.EXCLEQEQ -> IrDynamicOperator.EXCLEQEQ
ProtoDynamicOperatorExpression.IrDynamicOperator.ANDAND -> IrDynamicOperator.ANDAND
ProtoDynamicOperatorExpression.IrDynamicOperator.OROR -> IrDynamicOperator.OROR
ProtoDynamicOperatorExpression.IrDynamicOperator.EQ -> IrDynamicOperator.EQ
ProtoDynamicOperatorExpression.IrDynamicOperator.PLUSEQ -> IrDynamicOperator.PLUSEQ
ProtoDynamicOperatorExpression.IrDynamicOperator.MINUSEQ -> IrDynamicOperator.MINUSEQ
ProtoDynamicOperatorExpression.IrDynamicOperator.MULEQ -> IrDynamicOperator.MULEQ
ProtoDynamicOperatorExpression.IrDynamicOperator.DIVEQ -> IrDynamicOperator.DIVEQ
ProtoDynamicOperatorExpression.IrDynamicOperator.MODEQ -> IrDynamicOperator.MODEQ
ProtoDynamicOperatorExpression.IrDynamicOperator.ARRAY_ACCESS -> IrDynamicOperator.ARRAY_ACCESS
ProtoDynamicOperatorExpression.IrDynamicOperator.INVOKE -> IrDynamicOperator.INVOKE
}
private fun deserializeBreak(proto: ProtoBreak, start: Int, end: Int, type: IrType): IrBreak {
val label = if (proto.hasLabel()) libraryFile.string(proto.label) else null
val loopId = proto.loopId
val loop = deserializeLoopHeader(loopId) { error("break clause before loop header") }
val irBreak = IrBreakImpl(start, end, type, loop)
irBreak.label = label
return irBreak
}
private fun deserializeContinue(proto: ProtoContinue, start: Int, end: Int, type: IrType): IrContinue {
val label = if (proto.hasLabel()) libraryFile.string(proto.label) else null
val loopId = proto.loopId
val loop = deserializeLoopHeader(loopId) { error("break clause before loop header") }
val irContinue = IrContinueImpl(start, end, type, loop)
irContinue.label = label
return irContinue
}
private fun deserializeConst(proto: ProtoConst, start: Int, end: Int, type: IrType): IrExpression =
when (proto.valueCase!!) {
NULL
-> IrConstImpl.constNull(start, end, type)
BOOLEAN
-> IrConstImpl.boolean(start, end, type, proto.boolean)
BYTE
-> IrConstImpl.byte(start, end, type, proto.byte.toByte())
CHAR
-> IrConstImpl.char(start, end, type, proto.char.toChar())
SHORT
-> IrConstImpl.short(start, end, type, proto.short.toShort())
INT
-> IrConstImpl.int(start, end, type, proto.int)
LONG
-> IrConstImpl.long(start, end, type, proto.long)
STRING
-> IrConstImpl.string(start, end, type, libraryFile.string(proto.string))
FLOAT_BITS
-> IrConstImpl.float(start, end, type, Float.fromBits(proto.floatBits))
DOUBLE_BITS
-> IrConstImpl.double(start, end, type, Double.fromBits(proto.doubleBits))
VALUE_NOT_SET
-> error("Const deserialization error: ${proto.valueCase} ")
}
private fun deserializeOperation(proto: ProtoOperation, start: Int, end: Int, type: IrType): IrExpression =
when (proto.operationCase!!) {
BLOCK -> deserializeBlock(proto.block, start, end, type)
BREAK -> deserializeBreak(proto.`break`, start, end, type)
CLASS_REFERENCE -> deserializeClassReference(proto.classReference, start, end, type)
CALL -> deserializeCall(proto.call, start, end, type)
COMPOSITE -> deserializeComposite(proto.composite, start, end, type)
CONST -> deserializeConst(proto.const, start, end, type)
CONTINUE -> deserializeContinue(proto.`continue`, start, end, type)
DELEGATING_CONSTRUCTOR_CALL -> deserializeDelegatingConstructorCall(proto.delegatingConstructorCall, start, end)
DO_WHILE -> deserializeDoWhile(proto.doWhile, start, end, type)
ENUM_CONSTRUCTOR_CALL -> deserializeEnumConstructorCall(proto.enumConstructorCall, start, end)
FUNCTION_REFERENCE -> deserializeFunctionReference(proto.functionReference, start, end, type)
GET_ENUM_VALUE -> deserializeGetEnumValue(proto.getEnumValue, start, end, type)
GET_CLASS -> deserializeGetClass(proto.getClass, start, end, type)
GET_FIELD -> deserializeGetField(proto.getField, start, end, type)
GET_OBJECT -> deserializeGetObject(proto.getObject, start, end, type)
GET_VALUE -> deserializeGetValue(proto.getValue, start, end, type)
LOCAL_DELEGATED_PROPERTY_REFERENCE -> deserializeIrLocalDelegatedPropertyReference(
proto.localDelegatedPropertyReference,
start,
end,
type
)
INSTANCE_INITIALIZER_CALL -> deserializeInstanceInitializerCall(proto.instanceInitializerCall, start, end)
PROPERTY_REFERENCE -> deserializePropertyReference(proto.propertyReference, start, end, type)
RETURN -> deserializeReturn(proto.`return`, start, end)
SET_FIELD -> deserializeSetField(proto.setField, start, end)
SET_VALUE -> deserializeSetValue(proto.setValue, start, end)
STRING_CONCAT -> deserializeStringConcat(proto.stringConcat, start, end, type)
THROW -> deserializeThrow(proto.`throw`, start, end)
TRY -> deserializeTry(proto.`try`, start, end, type)
TYPE_OP -> deserializeTypeOp(proto.typeOp, start, end, type)
VARARG -> deserializeVararg(proto.vararg, start, end, type)
WHEN -> deserializeWhen(proto.`when`, start, end, type)
WHILE -> deserializeWhile(proto.`while`, start, end, type)
DYNAMIC_MEMBER -> deserializeDynamicMemberExpression(proto.dynamicMember, start, end, type)
DYNAMIC_OPERATOR -> deserializeDynamicOperatorExpression(proto.dynamicOperator, start, end, type)
CONSTRUCTOR_CALL -> deserializeConstructorCall(proto.constructorCall, start, end, type)
FUNCTION_EXPRESSION -> deserializeFunctionExpression(proto.functionExpression, start, end, type)
ERROR_EXPRESSION -> deserializeErrorExpression(proto.errorExpression, start, end, type)
ERROR_CALL_EXPRESSION -> deserializeErrorCallExpression(proto.errorCallExpression, start, end, type)
OPERATION_NOT_SET -> error("Expression deserialization not implemented: ${proto.operationCase}")
}
fun deserializeExpression(proto: ProtoExpression): IrExpression {
val coordinates = BinaryCoordinates.decode(proto.coordinates)
val start = coordinates.startOffset
val end = coordinates.endOffset
val type = declarationDeserializer.deserializeIrType(proto.type)
val operation = proto.operation
val expression = deserializeOperation(operation, start, end, type)
return expression
}
private fun deserializeIrStatementOrigin(protoName: Int): IrStatementOrigin {
val originName = libraryFile.string(protoName)
val componentPrefix = "COMPONENT_"
return if (originName.startsWith(componentPrefix))
IrStatementOrigin.COMPONENT_N.withIndex(originName.removePrefix(componentPrefix).toInt())
else
statementOriginIndex[originName] ?: error("Unexpected statement origin: $originName")
}
/**
* This is more compact form of deserializeIrStatementOrigin() that allows writing
* val origin = deserializeIrStatementOrigin(proto.hasOriginName()) { proto.originName }
* instead of (as it was before)
* val origin = if (proto.hasOriginName()) deserializeIrStatementOrigin(proto.originName) else null
*/
private inline fun deserializeIrStatementOrigin(hasOriginName: Boolean, protoName: () -> Int): IrStatementOrigin? =
if (hasOriginName) deserializeIrStatementOrigin(protoName()) else null
/**
* This function allows to check deserialized symbols. If the deserialized symbol mismatches the symbol kind
* at the call site in the deserializer then generate and reference another symbol with
* the same signature. In case PL is off, just throw [IrSymbolTypeMismatchException].
*
* Note: [fallbackSymbolKind] must not completely match [S], but it should represent a subclass of [S].
*
* Example: [S] is [IrClassifierSymbol] and [fallbackSymbolKind] is [CLASS_SYMBOL],
* which is only one possible option along with [TYPE_PARAMETER_SYMBOL].
*
* Note, that for local IR declarations such as [IrValueDeclaration] [fallbackSymbolKind] can be left null.
*/
private inline fun deserializeTypedSymbol(
code: Long,
fallbackSymbolKind: SymbolKind?,
remap: Boolean = true
): S = with(declarationDeserializer) {
val symbol = if (remap) deserializeIrSymbolAndRemap(code) else deserializeIrSymbol(code)
symbol.checkSymbolType(fallbackSymbolKind)
}
private inline fun deserializeTypedSymbolWhen(
condition: Boolean,
fallbackSymbolKind: SymbolKind?,
code: () -> Long
): S? = if (condition) deserializeTypedSymbol(code(), fallbackSymbolKind, remap = true) else null
private companion object {
private val statementOriginIndex = IrStatementOrigin.Companion::class
.declaredMemberProperties
.mapNotNull { it.get(IrStatementOrigin.Companion) as? IrStatementOrigin }
.associateBy { it.debugName }
}
}