Implement -produce framework option

It compiles Kotlin code to Objective-C framework
(also importable to Swift)
This commit is contained in:
Svyatoslav Scherbina
2017-11-22 17:30:31 +03:00
committed by SvyatoslavScherbina
parent 6114a5b35c
commit d745e80135
40 changed files with 3999 additions and 136 deletions
@@ -0,0 +1,41 @@
/*
* Copyright 2010-2017 JetBrains s.r.o.
*
* 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.
*/
package kotlinx.cinterop
import konan.internal.ExportForCppRuntime
// TODO: it it actually not related to cinterop.
@ExportTypeInfo("theNSArrayListTypeInfo")
internal class NSArrayList : AbstractList<Any?> {
// FIXME: override methods of Any.
@konan.internal.ExportForCppRuntime("Kotlin_NSArrayList_constructor")
constructor() : super()
override val size: Int get() = getSize()
@SymbolName("Kotlin_NSArrayList_getSize")
private external fun getSize(): Int
@SymbolName("Kotlin_NSArrayList_getElement")
external override fun get(index: Int): Any?
}
@ExportForCppRuntime private fun Kotlin_List_get(list: List<*>, index: Int): Any? = list.get(index)
@ExportForCppRuntime private fun Kotlin_List_getSize(list: List<*>): Int = list.size
@@ -0,0 +1,52 @@
/*
* Copyright 2010-2017 JetBrains s.r.o.
*
* 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.
*/
package org.jetbrains.kotlin.backend.konan
import org.jetbrains.kotlin.backend.konan.ir.KonanSymbols
import org.jetbrains.kotlin.ir.symbols.IrSimpleFunctionSymbol
import org.jetbrains.kotlin.ir.util.getPropertyGetter
import org.jetbrains.kotlin.types.KotlinType
internal fun KonanSymbols.getTypeConversion(
actualType: KotlinType,
expectedType: KotlinType
): IrSimpleFunctionSymbol? {
val actualValueType = actualType.correspondingValueType
val expectedValueType = expectedType.correspondingValueType
return when {
actualValueType == expectedValueType -> null
actualValueType == null && expectedValueType != null -> {
// This may happen in the following cases:
// 1. `actualType` is `Nothing`;
// 2. `actualType` is incompatible.
this.getUnboxFunction(expectedValueType)
}
actualValueType != null && expectedValueType == null -> {
this.boxFunctions[actualValueType]!!
}
else -> throw IllegalArgumentException("actual type is $actualType, expected $expectedType")
}
}
internal fun KonanSymbols.getUnboxFunction(valueType: ValueType): IrSimpleFunctionSymbol =
this.unboxFunctions[valueType]
?: this.boxClasses[valueType]!!.getPropertyGetter("value")!! as IrSimpleFunctionSymbol
@@ -22,6 +22,11 @@ import org.jetbrains.kotlin.backend.konan.llvm.parseBitcodeFile
import org.jetbrains.kotlin.backend.konan.util.getValueOrNull
import org.jetbrains.kotlin.konan.target.CompilerOutputKind
val CompilerOutputKind.isNativeBinary: Boolean get() = when (this) {
CompilerOutputKind.PROGRAM, CompilerOutputKind.DYNAMIC, CompilerOutputKind.FRAMEWORK -> true
CompilerOutputKind.LIBRARY, CompilerOutputKind.BITCODE -> false
}
internal fun produceOutput(context: Context) {
val llvmModule = context.llvmModule!!
@@ -29,6 +34,7 @@ internal fun produceOutput(context: Context) {
when (config.get(KonanConfigKeys.PRODUCE)) {
CompilerOutputKind.DYNAMIC,
CompilerOutputKind.FRAMEWORK,
CompilerOutputKind.PROGRAM -> {
val program = context.config.outputName
val output = "$program.kt.bc"
@@ -65,7 +65,7 @@ class KonanConfig(val project: Project, val configuration: CompilerConfiguration
prepareDependencies(configuration.getBoolean(KonanConfigKeys.CHECK_DEPENDENCIES))
}
private val produce = configuration.get(KonanConfigKeys.PRODUCE)!!
internal val produce get() = configuration.get(KonanConfigKeys.PRODUCE)!!
private val suffix = produce.suffix(targetManager.target)
val outputName = configuration.get(KonanConfigKeys.OUTPUT)?.removeSuffixIfPresent(suffix) ?: produce.name.toLowerCase()
val outputFile = outputName.suffixIfNot(produce.suffix(targetManager.target))
@@ -87,10 +87,8 @@ object KonanPhases {
// Don't serialize anything to a final executable.
KonanPhase.SERIALIZER.enabled =
(get(PRODUCE) == CompilerOutputKind.LIBRARY)
KonanPhase.LINK_STAGE.enabled =
(get(PRODUCE) == CompilerOutputKind.PROGRAM ||
get(PRODUCE) == CompilerOutputKind.DYNAMIC)
(config.produce == CompilerOutputKind.LIBRARY)
KonanPhase.LINK_STAGE.enabled = config.produce.isNativeBinary
KonanPhase.TEST_PROCESSOR.enabled = getBoolean(GENERATE_TEST_RUNNER)
@@ -239,7 +239,8 @@ internal class LinkStage(val context: Context) {
private val optimize = config.get(KonanConfigKeys.OPTIMIZATION) ?: false
private val debug = config.get(KonanConfigKeys.DEBUG) ?: false
private val dynamic = config.get(KonanConfigKeys.PRODUCE) == CompilerOutputKind.DYNAMIC
private val dynamic = context.config.produce == CompilerOutputKind.DYNAMIC ||
context.config.produce == CompilerOutputKind.FRAMEWORK
private val nomain = config.get(KonanConfigKeys.NOMAIN) ?: false
private val emitted = context.bitcodeFileName
private val libraries = context.llvm.librariesToLink
@@ -325,10 +326,16 @@ internal class LinkStage(val context: Context) {
// So we stick to "-alias _main _konan_main" on Mac.
// And just do the same on Linux.
private val entryPointSelector: List<String>
get() = if (nomain) emptyList() else platform.entrySelector
get() = if (nomain || dynamic) emptyList() else platform.entrySelector
private fun link(objectFiles: List<ObjectFile>, includedBinaries: List<String>, libraryProvidedLinkerFlags: List<String>): ExecutableFile? {
val executable = context.config.outputFile
val executable = if (context.config.produce != CompilerOutputKind.FRAMEWORK) {
context.config.outputFile
} else {
val framework = File(context.config.outputFile)
framework.mkdirs()
framework.child(framework.name.removeSuffix(".framework")).absolutePath
}
val linkCommand = platform.linkCommand(objectFiles, executable, optimize, debug, dynamic) +
platform.targetLibffi +
@@ -130,8 +130,6 @@ internal class ClassVtablesBuilder(val classDescriptor: ClassDescriptor, val con
}
val methodTableEntries: List<OverriddenFunctionDescriptor> by lazy {
assert(!classDescriptor.isAbstract())
classDescriptor.sortedContributedMethods
.flatMap { method -> method.allOverriddenDescriptors.map { OverriddenFunctionDescriptor(method, it) } }
.filter { it.canBeCalledVirtually }
@@ -242,6 +242,12 @@ internal val ClassDescriptor.typeInfoSymbolName: String
return "ktype:" + this.fqNameSafe.toString()
}
internal val ClassDescriptor.writableTypeInfoSymbolName: String
get() {
assert (this.isExported())
return "ktypew:" + this.fqNameSafe.toString()
}
internal val theUnitInstanceName = "kobj:kotlin.Unit"
internal val ClassDescriptor.objectInstanceFieldSymbolName: String
@@ -20,6 +20,8 @@ package org.jetbrains.kotlin.backend.konan.llvm
import kotlinx.cinterop.*
import llvm.*
import org.jetbrains.kotlin.backend.konan.Context
import org.jetbrains.kotlin.backend.konan.descriptors.isInterface
import org.jetbrains.kotlin.backend.konan.isObjCClass
import org.jetbrains.kotlin.descriptors.ClassConstructorDescriptor
import org.jetbrains.kotlin.konan.target.KonanTarget
import org.jetbrains.kotlin.descriptors.ClassDescriptor
@@ -76,6 +78,17 @@ internal inline fun<R> generateFunction(codegen: CodeGenerator, function: LLVMVa
generateFunctionBody(FunctionGenerationContext(function, codegen), code)
}
internal inline fun generateFunction(
codegen: CodeGenerator,
functionType: LLVMTypeRef,
name: String,
block: FunctionGenerationContext.(FunctionGenerationContext) -> Unit
): LLVMValueRef {
val function = LLVMAddFunction(codegen.context.llvmModule, name, functionType)!!
generateFunction(codegen, function, block)
return function
}
inline private fun <R> generateFunctionBody(functionGenerationContext: FunctionGenerationContext, code: FunctionGenerationContext.(FunctionGenerationContext) -> R) {
functionGenerationContext.prologue()
functionGenerationContext.code(functionGenerationContext)
@@ -184,6 +197,8 @@ internal class FunctionGenerationContext(val function: LLVMValueRef,
return res
}
fun param(index: Int): LLVMValueRef = LLVMGetParam(this.function, index)!!
fun load(value: LLVMValueRef, name: String = ""): LLVMValueRef {
val result = LLVMBuildLoad(builder, value, name)!!
// Use loadSlot() API for that.
@@ -352,6 +367,7 @@ internal class FunctionGenerationContext(val function: LLVMValueRef,
fun and(arg0: LLVMValueRef, arg1: LLVMValueRef, name: String = ""): LLVMValueRef = LLVMBuildAnd(builder, arg0, arg1, name)!!
fun or(arg0: LLVMValueRef, arg1: LLVMValueRef, name: String = ""): LLVMValueRef = LLVMBuildOr(builder, arg0, arg1, name)!!
fun xor(arg0: LLVMValueRef, arg1: LLVMValueRef, name: String = ""): LLVMValueRef = LLVMBuildXor(builder, arg0, arg1, name)!!
fun zext(arg: LLVMValueRef, type: LLVMTypeRef): LLVMValueRef =
LLVMBuildZExt(builder, arg, type, "")!!
@@ -401,6 +417,8 @@ internal class FunctionGenerationContext(val function: LLVMValueRef,
fun gep(base: LLVMValueRef, index: LLVMValueRef, name: String = ""): LLVMValueRef {
return LLVMBuildGEP(builder, base, cValuesOf(index), 1, name)!!
}
fun structGep(base: LLVMValueRef, index: Int, name: String = ""): LLVMValueRef =
LLVMBuildStructGEP(builder, base, index, name)!!
fun gxxLandingpad(numClauses: Int, name: String = ""): LLVMValueRef {
val personalityFunction = LLVMConstBitCast(context.llvm.gxxPersonalityFunction, int8TypePtr)
@@ -462,6 +480,41 @@ internal class FunctionGenerationContext(val function: LLVMValueRef,
return switch
}
fun lookupVirtualImpl(receiver: LLVMValueRef, descriptor: FunctionDescriptor): LLVMValueRef {
assert(LLVMTypeOf(receiver) == codegen.kObjHeaderPtr)
val owner = descriptor.containingDeclaration as ClassDescriptor
val typeInfoPtr: LLVMValueRef = if (owner.isObjCClass()) {
call(context.llvm.getObjCKotlinTypeInfo, listOf(receiver))
} else {
val typeInfoPtrPtr = LLVMBuildStructGEP(builder, receiver, 0 /* type_info */, "")!!
load(typeInfoPtrPtr)
}
assert (typeInfoPtr.type == codegen.kTypeInfoPtr) { LLVMPrintTypeToString(typeInfoPtr.type)!!.toKString() }
val llvmMethod = if (!owner.isInterface) {
// If this is a virtual method of the class - we can call via vtable.
val index = context.getVtableBuilder(owner).vtableIndex(descriptor)
val vtablePlace = gep(typeInfoPtr, Int32(1).llvm) // typeInfoPtr + 1
val vtable = bitcast(kInt8PtrPtr, vtablePlace)
val slot = gep(vtable, Int32(index).llvm)
load(slot)
} else {
// Otherwise, call by hash.
// TODO: optimize by storing interface number in lower bits of 'this' pointer
// when passing object as an interface. This way we can use those bits as index
// for an additional per-interface vtable.
val methodHash = codegen.functionHash(descriptor) // Calculate hash of the method to be invoked
val lookupArgs = listOf(typeInfoPtr, methodHash) // Prepare args for lookup
call(context.llvm.lookupOpenMethodFunction, lookupArgs)
}
val functionPtrType = pointerType(codegen.getLlvmFunctionType(descriptor)) // Construct type of the method to be invoked
return bitcast(functionPtrType, llvmMethod) // Cast method address to the type
}
fun resetDebugLocation() {
if (!context.shouldContainDebugInfo()) return
if (!currentPositionHolder.isAfterTerminator)
@@ -24,6 +24,7 @@ import org.jetbrains.kotlin.backend.konan.descriptors.DeserializedKonanModule
import org.jetbrains.kotlin.backend.konan.descriptors.LlvmSymbolOrigin
import org.jetbrains.kotlin.konan.target.KonanTarget
import org.jetbrains.kotlin.backend.konan.hash.GlobalHash
import org.jetbrains.kotlin.backend.konan.isNativeBinary
import org.jetbrains.kotlin.backend.konan.library.KonanLibraryReader
import org.jetbrains.kotlin.backend.konan.library.impl.LibraryReaderImpl
import org.jetbrains.kotlin.backend.konan.library.withResolvedDependencies
@@ -37,6 +38,8 @@ import org.jetbrains.kotlin.name.Name
import org.jetbrains.kotlin.resolve.descriptorUtil.module
import org.jetbrains.kotlin.types.KotlinType
import org.jetbrains.kotlin.types.TypeUtils
import kotlin.properties.ReadOnlyProperty
import kotlin.reflect.KProperty
internal sealed class SlotType {
// Frame local arena slot can be used.
@@ -371,11 +374,28 @@ internal class Llvm(val context: Context, val llvmModule: LLVMModuleRef) {
val checkInstanceFunction = importRtFunction("CheckInstance")
val throwExceptionFunction = importRtFunction("ThrowException")
val appendToInitalizersTail = importRtFunction("AppendToInitializersTail")
val initRuntimeIfNeeded = importRtFunction("Kotlin_initRuntimeIfNeeded")
val createKotlinObjCClass by lazy { importRtFunction("CreateKotlinObjCClass") }
val getObjCKotlinTypeInfo by lazy { importRtFunction("GetObjCKotlinTypeInfo") }
val missingInitImp by lazy { importRtFunction("MissingInitImp") }
val Kotlin_ObjCExport_refToObjC by lazyRtFunction
val Kotlin_ObjCExport_refFromObjC by lazyRtFunction
val Kotlin_Interop_CreateNSStringFromKString by lazyRtFunction
val Kotlin_Interop_CreateNSArrayFromKList by lazyRtFunction
val Kotlin_ObjCExport_GetAssociatedObject by lazyRtFunction
val Kotlin_ObjCExport_AbstractMethodCalled by lazyRtFunction
val kObjectReservedTailSize = if (context.config.produce.isNativeBinary) {
// Note: this defines the global declared in runtime (if any).
staticData.placeGlobal("kObjectReservedTailSize", Int32(0), isExported = true).also {
it.setConstant(true)
}
} else {
null
}
private val personalityFunctionName = when (context.config.targetManager.target) {
KonanTarget.MINGW -> "__gxx_personality_seh0"
else -> "__gxx_personality_v0"
@@ -400,6 +420,19 @@ internal class Llvm(val context: Context, val llvmModule: LLVMModuleRef) {
val memsetFunction = importMemset()
val usedFunctions = mutableListOf<LLVMValueRef>()
val usedGlobals = mutableListOf<LLVMValueRef>()
val compilerUsedGlobals = mutableListOf<LLVMValueRef>()
val staticInitializers = mutableListOf<LLVMValueRef>()
val fileInitializers = mutableListOf<IrField>()
private object lazyRtFunction {
operator fun provideDelegate(
thisRef: Llvm, property: KProperty<*>
) = object : ReadOnlyProperty<Llvm, LLVMValueRef> {
val value by lazy { thisRef.importRtFunction(property.name) }
override fun getValue(thisRef: Llvm, property: KProperty<*>): LLVMValueRef = value
}
}
}
@@ -25,6 +25,7 @@ import org.jetbrains.kotlin.backend.konan.*
import org.jetbrains.kotlin.backend.konan.descriptors.*
import org.jetbrains.kotlin.backend.konan.ir.*
import org.jetbrains.kotlin.backend.konan.library.impl.buildLibrary
import org.jetbrains.kotlin.backend.konan.objcexport.ObjCExport
import org.jetbrains.kotlin.backend.konan.optimizations.*
import org.jetbrains.kotlin.backend.konan.util.getValueOrNull
import org.jetbrains.kotlin.builtins.KotlinBuiltIns
@@ -291,7 +292,12 @@ internal class CodeGeneratorVisitor(val context: Context, val lifetimes: Map<IrE
context.log{"visitModule : ${ir2string(declaration)}"}
declaration.acceptChildrenVoid(this)
appendLlvmUsed(context.llvm.usedFunctions)
// Note: it is here because it also generates some bitcode.
ObjCExport(context).produceObjCFramework()
appendLlvmUsed("llvm.used", context.llvm.usedFunctions + context.llvm.usedGlobals)
appendLlvmUsed("llvm.compiler.used", context.llvm.compilerUsedGlobals)
appendStaticInitializers(context.llvm.staticInitializers)
appendEntryPointSelector(findMainEntryPoint(context))
}
@@ -2311,37 +2317,9 @@ internal class CodeGeneratorVisitor(val context: Context, val lifetimes: Map<IrE
fun callVirtual(descriptor: FunctionDescriptor, args: List<LLVMValueRef>,
resultLifetime: Lifetime): LLVMValueRef {
assert(LLVMTypeOf(args[0]) == codegen.kObjHeaderPtr)
val owner = descriptor.containingDeclaration as ClassDescriptor
val function = functionGenerationContext.lookupVirtualImpl(args.first(), descriptor)
val typeInfoPtr: LLVMValueRef = if (owner.isObjCClass()) {
call(context.llvm.getObjCKotlinTypeInfo, listOf(args.first()))
} else {
val typeInfoPtrPtr = LLVMBuildStructGEP(functionGenerationContext.builder, args[0], 0 /* type_info */, "")!!
functionGenerationContext.load(typeInfoPtrPtr)
}
assert (typeInfoPtr.type == codegen.kTypeInfoPtr)
val llvmMethod = if (!owner.isInterface) {
// If this is a virtual method of the class - we can call via vtable.
val index = context.getVtableBuilder(owner).vtableIndex(descriptor)
val vtablePlace = functionGenerationContext.gep(typeInfoPtr, Int32(1).llvm) // typeInfoPtr + 1
val vtable = functionGenerationContext.bitcast(kInt8PtrPtr, vtablePlace)
val slot = functionGenerationContext.gep(vtable, Int32(index).llvm)
functionGenerationContext.load(slot)
} else {
// Otherwise, call by hash.
// TODO: optimize by storing interface number in lower bits of 'this' pointer
// when passing object as an interface. This way we can use those bits as index
// for an additional per-interface vtable.
val methodHash = codegen.functionHash(descriptor) // Calculate hash of the method to be invoked
val lookupArgs = listOf(typeInfoPtr, methodHash) // Prepare args for lookup
call(context.llvm.lookupOpenMethodFunction, lookupArgs)
}
val functionPtrType = pointerType(codegen.getLlvmFunctionType(descriptor)) // Construct type of the method to be invoked
val function = functionGenerationContext.bitcast(functionPtrType, llvmMethod) // Cast method address to the type
return call(descriptor, function, args, resultLifetime) // Invoke the method
}
@@ -2396,13 +2374,13 @@ internal class CodeGeneratorVisitor(val context: Context, val lifetimes: Map<IrE
//-------------------------------------------------------------------------//
private fun appendLlvmUsed(args: List<LLVMValueRef>) {
private fun appendLlvmUsed(name: String, args: List<LLVMValueRef>) {
if (args.isEmpty()) return
memScoped {
val argsCasted = args.map { it -> constPointer(it).bitcast(int8TypePtr) }
val llvmUsedGlobal =
context.llvm.staticData.placeGlobalArray("llvm.used", int8TypePtr, argsCasted)
context.llvm.staticData.placeGlobalArray(name, int8TypePtr, argsCasted)
LLVMSetLinkage(llvmUsedGlobal.llvmGlobal, LLVMLinkage.LLVMAppendingLinkage);
LLVMSetSection(llvmUsedGlobal.llvmGlobal, "llvm.metadata");
@@ -117,13 +117,15 @@ internal class KotlinObjCClassInfoGenerator(override val context: Context) : Con
}
}
private val impType = pointerType(functionType(int8TypePtr, true, int8TypePtr, int8TypePtr))
private inner class ObjCMethodDesc(
val selector: String, val encoding: String, val impFunction: LLVMValueRef
) : Struct(
runtime.objCMethodDescription,
constPointer(impFunction).bitcast(impType),
staticData.cStringLiteral(selector),
staticData.cStringLiteral(encoding),
constPointer(impFunction).bitcast(int8TypePtr)
staticData.cStringLiteral(encoding)
)
private fun generateMethodDesc(info: ObjCMethodInfo) = ObjCMethodDesc(
@@ -75,6 +75,7 @@ internal class ClassLlvmDeclarations(
val bodyType: LLVMTypeRef,
val fields: List<PropertyDescriptor>, // TODO: it is not an LLVM declaration.
val typeInfoGlobal: StaticData.Global,
val writableTypeInfoGlobal: StaticData.Global?,
val typeInfo: ConstPointer,
val singletonDeclarations: SingletonLlvmDeclarations?,
val objCDeclarations: KotlinObjCClassLlvmDeclarations?)
@@ -289,7 +290,21 @@ private class DeclarationsGeneratorVisitor(override val context: Context) :
null
}
return ClassLlvmDeclarations(bodyType, fields, typeInfoGlobal, typeInfoPtr,
val writableTypeInfoType = runtime.writableTypeInfoType
val writableTypeInfoGlobal = if (writableTypeInfoType == null) {
null
} else if (descriptor.isExported()) {
val name = descriptor.writableTypeInfoSymbolName
staticData.createGlobal(writableTypeInfoType, name, isExported = true).also {
it.setLinkage(LLVMLinkage.LLVMCommonLinkage) // Allows to be replaced by other bitcode module.
}
} else {
staticData.createGlobal(writableTypeInfoType, "")
}.also {
it.setZeroInitializer()
}
return ClassLlvmDeclarations(bodyType, fields, typeInfoGlobal, writableTypeInfoGlobal, typeInfoPtr,
singletonDeclarations, objCDeclarations)
}
@@ -59,13 +59,29 @@ internal class ConstArray(val elemType: LLVMTypeRef?, val elements: List<ConstVa
override val llvm = LLVMConstArray(elemType, elements.map { it.llvm }.toCValues(), elements.size)!!
}
internal open class Struct(val type: LLVMTypeRef?, val elements: List<ConstValue>) : ConstValue {
internal open class Struct(val type: LLVMTypeRef?, val elements: List<ConstValue?>) : ConstValue {
constructor(type: LLVMTypeRef?, vararg elements: ConstValue) : this(type, elements.toList())
constructor(type: LLVMTypeRef?, vararg elements: ConstValue?) : this(type, elements.toList())
constructor(vararg elements: ConstValue) : this(structType(elements.map { it.llvmType }), *elements)
override val llvm = LLVMConstNamedStruct(type, elements.map { it.llvm }.toCValues(), elements.size)!!
override val llvm = LLVMConstNamedStruct(type, elements.mapIndexed { index, element ->
val expectedType = LLVMStructGetTypeAtIndex(type, index)
if (element == null) {
LLVMConstNull(expectedType)!!
} else {
element.llvm.also {
assert(it.type == expectedType) {
"Unexpected type at $index: expected ${LLVMPrintTypeToString(expectedType)!!.toKString()} " +
"got ${LLVMPrintTypeToString(it.type)!!.toKString()}"
}
}
}
}.toCValues(), elements.size)!!
init {
assert(elements.size == LLVMCountStructElementTypes(type))
}
}
internal class Int1(val value: Byte) : ConstValue {
@@ -106,6 +122,7 @@ internal fun constValue(value: LLVMValueRef) = object : ConstValue {
internal val int1Type = LLVMInt1Type()!!
internal val int8Type = LLVMInt8Type()!!
internal val int16Type = LLVMInt16Type()!!
internal val int32Type = LLVMInt32Type()!!
internal val int8TypePtr = pointerType(int8Type)
@@ -219,6 +236,9 @@ internal fun functionType(returnType: LLVMTypeRef, isVarArg: Boolean = false, va
if (isVarArg) 1 else 0
)!!
internal fun functionType(returnType: LLVMTypeRef, isVarArg: Boolean = false, paramTypes: List<LLVMTypeRef>) =
functionType(returnType, isVarArg, *paramTypes.toTypedArray())
fun llvm2string(value: LLVMValueRef?): String {
if (value == null) return "<null>"
@@ -35,7 +35,7 @@ internal class RTTIGenerator(override val context: Context) : ContextUtils {
private inner class FieldTableRecord(val nameSignature: LocalHash, val fieldOffset: Int) :
Struct(runtime.fieldTableRecordType, nameSignature, Int32(fieldOffset))
private inner class MethodTableRecord(val nameSignature: LocalHash, val methodEntryPoint: ConstValue) :
inner class MethodTableRecord(val nameSignature: LocalHash, val methodEntryPoint: ConstPointer?) :
Struct(runtime.methodTableRecordType, nameSignature, methodEntryPoint)
private inner class TypeInfo(val name: ConstValue, val size: Int,
@@ -49,7 +49,8 @@ internal class RTTIGenerator(override val context: Context) : ContextUtils {
val fields: ConstValue,
val fieldsCount: Int,
val packageName: String?,
val relativeName: String?) :
val relativeName: String?,
val writableTypeInfo: ConstPointer?) :
Struct(
runtime.typeInfoType,
@@ -71,7 +72,9 @@ internal class RTTIGenerator(override val context: Context) : ContextUtils {
Int32(fieldsCount),
kotlinStringLiteral(packageName),
kotlinStringLiteral(relativeName)
kotlinStringLiteral(relativeName),
*listOfNotNull(writableTypeInfo).toTypedArray()
)
private fun kotlinStringLiteral(string: String?): ConstPointer = if (string == null) {
@@ -155,18 +158,7 @@ internal class RTTIGenerator(override val context: Context) : ContextUtils {
val methods = if (classDesc.isAbstract()) {
emptyList()
} else {
val functionNames = mutableMapOf<Long, OverriddenFunctionDescriptor>()
context.getVtableBuilder(classDesc).methodTableEntries.map {
val functionName = it.overriddenDescriptor.functionName
val nameSignature = functionName.localHash
val previous = functionNames.putIfAbsent(nameSignature.value, it)
if (previous != null)
throw AssertionError("Duplicate method table entry: functionName = '$functionName', hash = '${nameSignature.value}', entry1 = $previous, entry2 = $it")
// TODO: compile-time resolution limits binary compatibility
val methodEntryPoint = it.implementation.entryPointAddress
MethodTableRecord(nameSignature, methodEntryPoint)
}.sortedBy { it.nameSignature.value }
methodTableRecords(classDesc)
}
val methodsPtr = staticData.placeGlobalConstArray("kmethods:$className",
@@ -181,7 +173,8 @@ internal class RTTIGenerator(override val context: Context) : ContextUtils {
methodsPtr, methods.size,
fieldsPtr, if (classDesc.isInterface) -1 else fields.size,
reflectionInfo.packageName,
reflectionInfo.relativeName
reflectionInfo.relativeName,
llvmDeclarations.writableTypeInfoGlobal?.pointer
)
val typeInfoGlobal = llvmDeclarations.typeInfoGlobal
@@ -189,16 +182,7 @@ internal class RTTIGenerator(override val context: Context) : ContextUtils {
val typeInfoGlobalValue = if (!classDesc.typeInfoHasVtableAttached) {
typeInfo
} else {
// TODO: compile-time resolution limits binary compatibility
val vtableEntries = context.getVtableBuilder(classDesc).vtableEntries.map {
val implementation = it.implementation
if (implementation.isExternalObjCClassMethod()) {
NullPointer(int8Type)
} else {
implementation.entryPointAddress
}
}
val vtable = ConstArray(int8TypePtr, vtableEntries)
val vtable = vtable(classDesc)
Struct(typeInfo, vtable)
}
@@ -208,6 +192,102 @@ internal class RTTIGenerator(override val context: Context) : ContextUtils {
exportTypeInfoIfRequired(classDesc, classDesc.llvmTypeInfoPtr)
}
fun vtable(classDesc: ClassDescriptor): ConstArray {
// TODO: compile-time resolution limits binary compatibility
val vtableEntries = context.getVtableBuilder(classDesc).vtableEntries.map {
val implementation = it.implementation
if (implementation.isExternalObjCClassMethod() || implementation.modality == Modality.ABSTRACT) {
NullPointer(int8Type)
} else {
implementation.entryPointAddress
}
}
return ConstArray(int8TypePtr, vtableEntries)
}
fun methodTableRecords(classDesc: ClassDescriptor): List<MethodTableRecord> {
val functionNames = mutableMapOf<Long, OverriddenFunctionDescriptor>()
return context.getVtableBuilder(classDesc).methodTableEntries.map {
val functionName = it.overriddenDescriptor.functionName
val nameSignature = functionName.localHash
val previous = functionNames.putIfAbsent(nameSignature.value, it)
if (previous != null)
throw AssertionError("Duplicate method table entry: functionName = '$functionName', hash = '${nameSignature.value}', entry1 = $previous, entry2 = $it")
// TODO: compile-time resolution limits binary compatibility
val implementation = it.implementation
val methodEntryPoint = if (implementation.modality == Modality.ABSTRACT) {
null
} else {
implementation.entryPointAddress
}
MethodTableRecord(nameSignature, methodEntryPoint)
}.sortedBy { it.nameSignature.value }
}
// TODO: extract more code common with generate()
fun generateSyntheticInterfaceImpl(
descriptor: ClassDescriptor,
methodImpls: Map<FunctionDescriptor, ConstPointer>
): ConstPointer {
assert(descriptor.isInterface)
val name = "".globalHash
val size = 0
val superClass = context.builtIns.any
assert(superClass.implementedInterfaces.isEmpty())
val interfaces = listOf(descriptor.typeInfoPtr)
val interfacesPtr = staticData.placeGlobalConstArray("",
pointerType(runtime.typeInfoType), interfaces)
assert(superClass.getMemberScope().getVariableNames().isEmpty())
val objOffsetsPtr = NullPointer(int32Type)
val objOffsetsCount = 0
val fieldsPtr = NullPointer(runtime.fieldTableRecordType)
val fieldsCount = 0
val methods = (methodTableRecords(superClass) + methodImpls.map { (method, impl) ->
assert(method.containingDeclaration == descriptor)
MethodTableRecord(method.functionName.localHash, impl.bitcast(int8TypePtr))
}).sortedBy { it.nameSignature.value }.also {
assert(it.distinctBy { it.nameSignature.value } == it)
}
val methodsPtr = staticData.placeGlobalConstArray("", runtime.methodTableRecordType, methods)
val reflectionInfo = ReflectionInfo(null, null)
val writableTypeInfoType = runtime.writableTypeInfoType
val writableTypeInfo = if (writableTypeInfoType == null) {
null
} else {
staticData.createGlobal(writableTypeInfoType, "")
.also { it.setZeroInitializer() }
.pointer
}
val typeInfo = TypeInfo(
name = name,
size = size,
superType = superClass.typeInfoPtr,
objOffsets = objOffsetsPtr, objOffsetsCount = objOffsetsCount,
interfaces = interfacesPtr, interfacesCount = interfaces.size,
methods = methodsPtr, methodsCount = methods.size,
fields = fieldsPtr, fieldsCount = fieldsCount,
packageName = reflectionInfo.packageName,
relativeName = reflectionInfo.relativeName,
writableTypeInfo = writableTypeInfo
)
val vtable = vtable(superClass)
return staticData.placeGlobal("", Struct(typeInfo, vtable))
.pointer.getElementPtr(0)
}
private val OverriddenFunctionDescriptor.implementation get() = getImplementation(context)
data class ReflectionInfo(val packageName: String?, val relativeName: String?)
@@ -29,9 +29,11 @@ interface RuntimeAware {
class Runtime(bitcodeFile: String) {
val llvmModule: LLVMModuleRef = parseBitcodeFile(bitcodeFile)
private fun getStructType(name: String) = LLVMGetTypeByName(llvmModule, "struct.$name")!!
internal fun getStructTypeOrNull(name: String) = LLVMGetTypeByName(llvmModule, "struct.$name")
internal fun getStructType(name: String) = getStructTypeOrNull(name)!!
val typeInfoType = getStructType("TypeInfo")
val writableTypeInfoType = getStructTypeOrNull("WritableTypeInfo")
val fieldTableRecordType = getStructType("FieldTableRecord")
val methodTableRecordType = getStructType("MethodTableRecord")
val globalHashType = getStructType("GlobalHash")
@@ -58,6 +60,10 @@ class Runtime(bitcodeFile: String) {
val kotlinObjCClassInfo by lazy { getStructType("KotlinObjCClassInfo") }
val objCMethodDescription by lazy { getStructType("ObjCMethodDescription") }
val objCTypeAdapter by lazy { getStructType("ObjCTypeAdapter") }
val objCToKotlinMethodAdapter by lazy { getStructType("ObjCToKotlinMethodAdapter") }
val kotlinToObjCMethodAdapter by lazy { getStructType("KotlinToObjCMethodAdapter") }
val typeInfoObjCExportAddition by lazy { getStructType("TypeInfoObjCExportAddition") }
val pointerSize: Int by lazy {
@@ -65,14 +65,32 @@ internal class StaticData(override val context: Context): ContextUtils {
}
}
val type get() = getGlobalType(this.llvmGlobal)
fun setInitializer(value: ConstValue) {
LLVMSetInitializer(llvmGlobal, value.llvm)
}
fun setZeroInitializer() {
LLVMSetInitializer(llvmGlobal, LLVMConstNull(this.type)!!)
}
fun setConstant(value: Boolean) {
LLVMSetGlobalConstant(llvmGlobal, if (value) 1 else 0)
}
fun setLinkage(value: LLVMLinkage) {
LLVMSetLinkage(llvmGlobal, value)
}
fun setAlignment(value: Int) {
LLVMSetAlignment(llvmGlobal, value)
}
fun setSection(name: String) {
LLVMSetSection(llvmGlobal, name)
}
val pointer = Pointer.to(this)
}
@@ -0,0 +1,51 @@
/*
* Copyright 2010-2017 JetBrains s.r.o.
*
* 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.
*/
package org.jetbrains.kotlin.backend.konan.llvm.objc
import llvm.LLVMTypeRef
import llvm.LLVMValueRef
import org.jetbrains.kotlin.backend.konan.descriptors.stdlibModule
import org.jetbrains.kotlin.backend.konan.llvm.*
internal open class ObjCCodeGenerator(val codegen: CodeGenerator) {
val context = codegen.context
val dataGenerator = ObjCDataGenerator(codegen)
fun FunctionGenerationContext.genSelector(selector: String): LLVMValueRef {
val selectorRef = dataGenerator.genSelectorRef(selector)
// TODO: clang emits it with `invariant.load` metadata.
return load(selectorRef.llvm)
}
fun FunctionGenerationContext.genGetSystemClass(name: String): LLVMValueRef {
val classRef = dataGenerator.genClassRef(name)
return load(classRef.llvm)
}
private val objcMsgSend = constPointer(
context.llvm.externalFunction(
"objc_msgSend",
functionType(int8TypePtr, true, int8TypePtr, int8TypePtr),
context.stdlibModule.llvmSymbolOrigin
)
)
// TODO: this doesn't support stret.
fun msgSender(functionType: LLVMTypeRef): LLVMValueRef =
objcMsgSend.bitcast(pointerType(functionType)).llvm
}
@@ -0,0 +1,248 @@
/*
* Copyright 2010-2017 JetBrains s.r.o.
*
* 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.
*/
package org.jetbrains.kotlin.backend.konan.llvm.objc
import llvm.*
import org.jetbrains.kotlin.backend.konan.descriptors.CurrentKonanModule
import org.jetbrains.kotlin.backend.konan.llvm.*
/**
* This class provides methods to generate Objective-C RTTI and other data.
* It is mostly based on `clang/lib/CodeGen/CGObjCMac.cpp`, and supports only subset of operations
* required for our purposes (thus simplified).
*
* [finishModule] must be called exactly once after all required data was generated.
*/
internal class ObjCDataGenerator(val codegen: CodeGenerator) {
val context = codegen.context
fun finishModule() {
addModuleClassList(
definedClasses,
"OBJC_LABEL_CLASS_$",
"__DATA,__objc_classlist,regular,no_dead_strip"
)
}
private val selectorRefs = mutableMapOf<String, ConstPointer>()
private val classRefs = mutableMapOf<String, ConstPointer>()
fun genSelectorRef(selector: String): ConstPointer = selectorRefs.getOrPut(selector) {
val literal = selectors.get(selector)
val global = codegen.staticData.placeGlobal("OBJC_SELECTOR_REFERENCES_", literal)
global.setLinkage(LLVMLinkage.LLVMPrivateLinkage)
LLVMSetExternallyInitialized(global.llvmGlobal, 1)
global.setAlignment(codegen.runtime.pointerAlignment)
global.setSection("__DATA,__objc_selrefs,literal_pointers,no_dead_strip")
context.llvm.compilerUsedGlobals += global.llvmGlobal
global.pointer
}
fun genClassRef(name: String): ConstPointer = classRefs.getOrPut(name) {
val classGlobal = getClassGlobal(name, isMetaclass = false)
val global = codegen.staticData.placeGlobal("OBJC_CLASSLIST_REFERENCES_\$_", classGlobal).also {
it.setLinkage(LLVMLinkage.LLVMPrivateLinkage)
it.setSection("__DATA,__objc_classrefs,regular,no_dead_strip")
it.setAlignment(codegen.runtime.pointerAlignment)
}
context.llvm.compilerUsedGlobals += global.pointer.llvm
global.pointer.bitcast(pointerType(int8TypePtr))
}
val classObjectType = codegen.runtime.getStructType("_class_t")
private fun getClassGlobal(name: String, isMetaclass: Boolean): ConstPointer {
val prefix = if (isMetaclass) {
"OBJC_METACLASS_\$_"
} else {
"OBJC_CLASS_\$_"
}
val globalName = prefix + name
// TODO: refactor usages and use [Global] class.
val llvmGlobal = LLVMGetNamedGlobal(context.llvmModule, globalName) ?:
codegen.importGlobal(globalName, classObjectType, CurrentKonanModule)
return constPointer(llvmGlobal)
}
private val emptyCache = constPointer(
codegen.importGlobal(
"_objc_empty_cache",
codegen.runtime.getStructType("_objc_cache"),
CurrentKonanModule
)
)
fun emitEmptyClass(name: String, superName: String) {
val runtime = context.llvm.runtime
fun struct(name: String) = runtime.getStructType(name)
val classRoType = struct("_class_ro_t")
val methodListType = struct("__method_list_t")
val protocolListType = struct("_objc_protocol_list")
val ivarListType = struct("_ivar_list_t")
val propListType = struct("_prop_list_t")
val classNameLiteral = classNames.get(name)
fun buildClassRo(isMetaclass: Boolean): ConstPointer {
// TODO: add NonFragileABI_Class_CompiledByARC flag?
val flags: Int
val start: Int
val size: Int
// TODO: stop using hard-coded values.
if (isMetaclass) {
flags = 1
start = 40
size = 40
} else {
flags = 0
start = 8
size = 8
}
val fields = mutableListOf<ConstValue>()
fields += Int32(flags)
fields += Int32(start)
fields += Int32(size)
fields += NullPointer(int8Type) // ivar layout name
fields += classNameLiteral
fields += NullPointer(methodListType)
fields += NullPointer(protocolListType)
fields += NullPointer(ivarListType)
fields += NullPointer(int8Type) // ivar layout
fields += NullPointer(propListType)
val roValue = Struct(classRoType, fields)
val roLabel = if (isMetaclass) {
"\\01l_OBJC_METACLASS_RO_\$_"
} else {
"\\01l_OBJC_CLASS_RO_\$_"
} + name
val roGlobal = context.llvm.staticData.placeGlobal(roLabel, roValue).also {
it.setLinkage(LLVMLinkage.LLVMPrivateLinkage)
it.setAlignment(runtime.pointerAlignment)
it.setSection("__DATA, __objc_const")
}
return roGlobal.pointer
}
fun buildClassObject(
isMetaclass: Boolean,
isa: ConstPointer,
superClass: ConstPointer,
classRo: ConstPointer
): ConstPointer {
val fields = mutableListOf<ConstValue>()
fields += isa
fields += superClass
fields += emptyCache
val vtableEntryType = pointerType(functionType(int8TypePtr, false, int8TypePtr, int8TypePtr))
fields += NullPointer(vtableEntryType) // empty vtable
fields += classRo
val classObjectValue = Struct(classObjectType, fields)
val classGlobal = getClassGlobal(name, isMetaclass = isMetaclass)
LLVMSetInitializer(classGlobal.llvm, classObjectValue.llvm)
LLVMSetSection(classGlobal.llvm, "__DATA, __objc_data")
LLVMSetAlignment(classGlobal.llvm, LLVMABIAlignmentOfType(runtime.targetData, classObjectType))
context.llvm.usedGlobals.add(classGlobal.llvm)
return classGlobal
}
val metaclassObject = buildClassObject(
isMetaclass = true,
isa = getClassGlobal("NSObject", isMetaclass = true),
superClass = getClassGlobal(superName, isMetaclass = true),
classRo = buildClassRo(isMetaclass = true)
)
val classObject = buildClassObject(
isMetaclass = false,
isa = metaclassObject,
superClass = getClassGlobal(superName, isMetaclass = false),
classRo = buildClassRo(isMetaclass = false)
)
definedClasses.add(classObject)
}
private val definedClasses = mutableListOf<ConstPointer>()
private fun addModuleClassList(elements: List<ConstPointer>, name: String, section: String) {
if (elements.isEmpty()) return
val global = context.llvm.staticData.placeGlobalArray(
name,
int8TypePtr,
elements.map { it.bitcast(int8TypePtr) }
)
global.setAlignment(
LLVMABIAlignmentOfType(
context.llvm.runtime.targetData,
LLVMGetInitializer(global.llvmGlobal)!!.type
)
)
global.setSection(section)
context.llvm.compilerUsedGlobals += global.llvmGlobal
}
private val classNames =
CStringLiteralsTable("OBJC_CLASS_NAME_", "__TEXT,__objc_classname,cstring_literals")
private val selectors =
CStringLiteralsTable("OBJC_METH_VAR_NAME_", "__TEXT,__objc_methname,cstring_literals")
private inner class CStringLiteralsTable(val label: String, val section: String) {
private val literals = mutableMapOf<String, ConstPointer>()
fun get(value: String) = literals.getOrPut(value) {
val bytes = value.toByteArray(Charsets.UTF_8).map { Int8(it) } + Int8(0)
val global = context.llvm.staticData.placeGlobalArray(label, int8Type, bytes)
global.setConstant(true)
global.setLinkage(LLVMLinkage.LLVMPrivateLinkage)
global.setSection(section)
LLVMSetUnnamedAddr(global.llvmGlobal, 1)
global.setAlignment(1)
context.llvm.compilerUsedGlobals += global.llvmGlobal
global.pointer.getElementPtr(0)
}
}
}
@@ -0,0 +1,229 @@
/*
* Copyright 2010-2017 JetBrains s.r.o.
*
* 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.
*/
package org.jetbrains.kotlin.backend.konan.llvm.objcexport
import llvm.*
import org.jetbrains.kotlin.backend.konan.descriptors.CurrentKonanModule
import org.jetbrains.kotlin.backend.konan.llvm.*
import org.jetbrains.kotlin.builtins.KotlinBuiltIns
import org.jetbrains.kotlin.descriptors.FunctionDescriptor
import org.jetbrains.kotlin.incremental.components.NoLookupLocation
import org.jetbrains.kotlin.name.Name
internal fun ObjCExportCodeGenerator.generateKotlinFunctionImpl(invokeMethod: FunctionDescriptor): ConstPointer {
// TODO: consider also overriding methods of `Any`.
val numberOfParameters = invokeMethod.valueParameters.size
val function = generateFunction(
codegen,
codegen.getLlvmFunctionType(invokeMethod),
"invokeFunction$numberOfParameters"
) {
val args = (0 until numberOfParameters).map { index -> kotlinReferenceToObjC(param(index + 1)) }
val rawBlockPtr = callFromBridge(context.llvm.Kotlin_ObjCExport_GetAssociatedObject, listOf(param(0)))
val blockLiteralType = codegen.runtime.getStructType("Block_literal_1")
val blockPtr = bitcast(pointerType(blockLiteralType), rawBlockPtr)
val invokePtr = structGep(blockPtr, 3)
val blockInvokeType = functionType(int8TypePtr, false, (0 .. numberOfParameters).map { int8TypePtr })
val invoke = bitcast(pointerType(blockInvokeType), load(invokePtr))
val result = callFromBridge(invoke, listOf(rawBlockPtr) + args)
// TODO: support void-as-Unit.
ret(objCReferenceToKotlin(result, Lifetime.RETURN_VALUE))
}.also {
LLVMSetLinkage(it, LLVMLinkage.LLVMInternalLinkage)
}
return constPointer(function)
}
internal class BlockAdapterToFunctionGenerator(val objCExportCodeGenerator: ObjCExportCodeGenerator) {
private val codegen get() = objCExportCodeGenerator.codegen
private val blockLiteralType = structType(
codegen.runtime.getStructType("Block_literal_1"),
codegen.kObjHeaderPtr
)
private val blockDescriptorType = codegen.runtime.getStructType("Block_descriptor_1")
val disposeHelper = generateFunction(
codegen,
functionType(voidType, false, int8TypePtr),
"blockDisposeHelper"
) {
val blockPtr = bitcast(pointerType(blockLiteralType), param(0))
val slot = structGep(blockPtr, 1)
storeAny(kNullObjHeaderPtr, slot) // TODO: can dispose_helper write to the block?
ret(null)
}.also {
LLVMSetLinkage(it, LLVMLinkage.LLVMInternalLinkage)
}
val copyHelper = generateFunction(
codegen,
functionType(voidType, false, int8TypePtr, int8TypePtr),
"blockCopyHelper"
) {
val dstBlockPtr = bitcast(pointerType(blockLiteralType), param(0))
val dstSlot = structGep(dstBlockPtr, 1)
val srcBlockPtr = bitcast(pointerType(blockLiteralType), param(1))
val srcSlot = structGep(srcBlockPtr, 1)
// Kotlin reference was `memcpy`ed from src to dst, "revert" this:
storeRefUnsafe(kNullObjHeaderPtr, dstSlot)
// and copy properly:
storeAny(loadSlot(srcSlot, isVar = false), dstSlot)
ret(null)
}.also {
LLVMSetLinkage(it, LLVMLinkage.LLVMInternalLinkage)
}
private fun generateDescriptorForBlockAdapterToFunction(numberOfParameters: Int): ConstValue {
val signature = buildString {
append('@')
val pointerSize = codegen.runtime.pointerSize
append(pointerSize * (numberOfParameters + 1))
var paramOffset = 0L
(0 .. numberOfParameters).forEach { index ->
append('@')
if (index == 0) append('?')
append(paramOffset)
paramOffset += pointerSize
}
}
assert(codegen.context.is64Bit())
return Struct(blockDescriptorType,
Int64(0),
Int64(LLVMStoreSizeOfType(codegen.runtime.targetData, blockLiteralType)),
constPointer(copyHelper),
constPointer(disposeHelper),
codegen.staticData.cStringLiteral(signature),
NullPointer(int8Type)
)
}
private fun FunctionGenerationContext.storeRefUnsafe(value: LLVMValueRef, slot: LLVMValueRef) {
assert(value.type == kObjHeaderPtr)
assert(slot.type == kObjHeaderPtrPtr)
storeAny(
bitcast(int8TypePtr, value),
bitcast(pointerType(int8TypePtr), slot)
)
}
private fun ObjCExportCodeGenerator.generateInvoke(numberOfParameters: Int): ConstPointer {
val functionType = functionType(
int8TypePtr,
false,
(0 .. numberOfParameters).map { int8TypePtr }
)
val result = generateFunction(codegen, functionType, "invokeBlock$numberOfParameters") {
val blockPtr = bitcast(pointerType(blockLiteralType), param(0))
val kotlinFunction = loadSlot(structGep(blockPtr, 1), isVar = false)
val args = (1 .. numberOfParameters).map { index ->
objCReferenceToKotlin(param(index), Lifetime.ARGUMENT)
}
val callee = lookupVirtualImpl(kotlinFunction, context.builtIns.getInvokeDescriptor(numberOfParameters))
val result = callFromBridge(callee, listOf(kotlinFunction) + args, Lifetime.ARGUMENT)
ret(kotlinReferenceToObjC(result))
}.also {
LLVMSetLinkage(it, LLVMLinkage.LLVMInternalLinkage)
}
return constPointer(result)
}
fun ObjCExportCodeGenerator.generateConvertFunctionToBlock(numberOfParameters: Int): LLVMValueRef {
val blockDescriptor = codegen.staticData.placeGlobal(
"",
generateDescriptorForBlockAdapterToFunction(numberOfParameters)
)
return generateFunction(
codegen,
functionType(int8TypePtr, false, codegen.kObjHeaderPtr),
"convertFunction$numberOfParameters"
) {
val isa = codegen.importGlobal(
"_NSConcreteStackBlock",
int8TypePtr,
CurrentKonanModule
)
val flags = Int32((1 shl 25) or (1 shl 30) or (1 shl 31)).llvm
val reserved = Int32(0).llvm
val invokeType = pointerType(functionType(voidType, true, int8TypePtr))
val invoke = generateInvoke(numberOfParameters).bitcast(invokeType).llvm
val descriptor = blockDescriptor.llvmGlobal
val blockOnStack = alloca(blockLiteralType)
val blockOnStackBase = structGep(blockOnStack, 0)
val slot = structGep(blockOnStack, 1)
listOf(bitcast(int8TypePtr, isa), flags, reserved, invoke, descriptor).forEachIndexed { index, it ->
storeAny(it, structGep(blockOnStackBase, index))
}
// Note: it is the slot in the block located on stack, so no need to manage it properly:
storeRefUnsafe(param(0), slot)
val retainBlock = context.llvm.externalFunction(
"objc_retainBlock",
functionType(int8TypePtr, false, int8TypePtr),
CurrentKonanModule
)
val copiedBlock = callFromBridge(retainBlock, listOf(bitcast(int8TypePtr, blockOnStack)))
val autoreleaseReturnValue = context.llvm.externalFunction(
"objc_autoreleaseReturnValue",
functionType(int8TypePtr, false, int8TypePtr),
CurrentKonanModule
)
ret(callFromBridge(autoreleaseReturnValue, listOf(copiedBlock)))
}.also {
LLVMSetLinkage(it, LLVMLinkage.LLVMInternalLinkage)
}
}
}
private fun KotlinBuiltIns.getInvokeDescriptor(numberOfParameters: Int): FunctionDescriptor =
getFunction(numberOfParameters).unsubstitutedMemberScope.getContributedFunctions(
Name.identifier("invoke"),
NoLookupLocation.FROM_BACKEND
).single()
@@ -0,0 +1,791 @@
/*
* Copyright 2010-2017 JetBrains s.r.o.
*
* 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.
*/
package org.jetbrains.kotlin.backend.konan.llvm.objcexport
import llvm.*
import org.jetbrains.kotlin.backend.common.descriptors.allParameters
import org.jetbrains.kotlin.backend.konan.*
import org.jetbrains.kotlin.backend.konan.descriptors.*
import org.jetbrains.kotlin.backend.konan.llvm.*
import org.jetbrains.kotlin.backend.konan.llvm.objc.ObjCCodeGenerator
import org.jetbrains.kotlin.backend.konan.objcexport.*
import org.jetbrains.kotlin.descriptors.*
import org.jetbrains.kotlin.incremental.components.NoLookupLocation
import org.jetbrains.kotlin.name.FqName
import org.jetbrains.kotlin.name.Name
import org.jetbrains.kotlin.resolve.descriptorUtil.getSuperClassOrAny
import org.jetbrains.kotlin.types.KotlinType
internal class ObjCExportCodeGenerator(
codegen: CodeGenerator,
val namer: ObjCExportNamer,
val mapper: ObjCExportMapper
) : ObjCCodeGenerator(codegen) {
val runtime get() = codegen.runtime
val staticData get() = codegen.staticData
val rttiGenerator = RTTIGenerator(context)
// TODO: currently bridges don't have any custom `landingpad`s,
// so it is correct to use [callAtFunctionScope] here.
// However, exception handling probably should be refactored
// (e.g. moved from `IrToBitcode.kt` to [FunctionGenerationContext]).
fun FunctionGenerationContext.callFromBridge(
function: LLVMValueRef,
args: List<LLVMValueRef>,
resultLifetime: Lifetime = Lifetime.IRRELEVANT
): LLVMValueRef = callAtFunctionScope(function, args, resultLifetime)
fun FunctionGenerationContext.genSendMessage(
returnType: LLVMTypeRef,
receiver: LLVMValueRef,
selector: String,
vararg args: LLVMValueRef
): LLVMValueRef {
val objcMsgSendType = functionType(
returnType,
false,
listOf(int8TypePtr, int8TypePtr) + args.map { it.type }
)
return callFromBridge(msgSender(objcMsgSendType), listOf(receiver, genSelector(selector)) + args)
}
fun FunctionGenerationContext.kotlinToObjC(
value: LLVMValueRef,
valueType: ObjCValueType
): LLVMValueRef = when (valueType) {
ObjCValueType.BOOL -> zext(value, int8Type) // TODO: zext behaviour may be strange on bit types.
ObjCValueType.CHAR, ObjCValueType.UNSIGNED_SHORT, ObjCValueType.SHORT,
ObjCValueType.INT, ObjCValueType.LONG_LONG, ObjCValueType.FLOAT, ObjCValueType.DOUBLE -> value
}
private fun FunctionGenerationContext.objCToKotlin(
value: LLVMValueRef,
valueType: ObjCValueType
): LLVMValueRef = when (valueType) {
ObjCValueType.BOOL -> icmpNe(value, Int8(0).llvm)
ObjCValueType.CHAR, ObjCValueType.UNSIGNED_SHORT, ObjCValueType.SHORT,
ObjCValueType.INT, ObjCValueType.LONG_LONG, ObjCValueType.FLOAT, ObjCValueType.DOUBLE -> value
}
fun FunctionGenerationContext.kotlinReferenceToObjC(value: LLVMValueRef) =
callFromBridge(context.llvm.Kotlin_ObjCExport_refToObjC, listOf(value))
fun FunctionGenerationContext.objCReferenceToKotlin(value: LLVMValueRef, resultLifetime: Lifetime) =
callFromBridge(context.llvm.Kotlin_ObjCExport_refFromObjC, listOf(value), resultLifetime)
fun FunctionGenerationContext.kotlinToObjC(
value: LLVMValueRef,
typeBridge: TypeBridge
): LLVMValueRef = when (typeBridge) {
is ReferenceBridge -> kotlinReferenceToObjC(value)
is ValueTypeBridge -> kotlinToObjC(value, typeBridge.objCValueType)
is HashCodeBridge -> {
assert(codegen.context.is64Bit())
zext(value, kInt64)
}
}
fun FunctionGenerationContext.objCToKotlin(
value: LLVMValueRef,
typeBridge: TypeBridge,
resultLifetime: Lifetime
): LLVMValueRef = when (typeBridge) {
is ReferenceBridge -> objCReferenceToKotlin(value, resultLifetime)
is ValueTypeBridge -> objCToKotlin(value, typeBridge.objCValueType)
is HashCodeBridge -> {
assert(codegen.context.is64Bit())
val low = trunc(value, int32Type)
val high = trunc(shr(value, 32, signed = false), int32Type)
xor(low, high)
}
}
inline fun FunctionGenerationContext.convertKotlin(
genValue: (Lifetime) -> LLVMValueRef,
actualType: KotlinType,
expectedType: KotlinType,
resultLifetime: Lifetime
): LLVMValueRef {
val conversion = context.ir.symbols.getTypeConversion(actualType, expectedType)
?: return genValue(resultLifetime)
val value = genValue(Lifetime.ARGUMENT)
return callFromBridge(conversion.descriptor.llvmFunction, listOf(value), resultLifetime)
}
internal fun emitRtti(
generatedClasses: Collection<ClassDescriptor>,
topLevel: Map<FqName, List<CallableMemberDescriptor>>
) {
val objCTypeAdapters = mutableListOf<ObjCTypeAdapter>()
generatedClasses.forEach {
objCTypeAdapters += createTypeAdapter(it)
val className = namer.getClassOrProtocolName(it)
val superClass = it.getSuperClassOrAny()
val superClassName = namer.getClassOrProtocolName(superClass)
dataGenerator.emitEmptyClass(className, superClassName)
// Note: it is generated only to be visible for linker.
// Methods will be added at runtime.
}
topLevel.forEach { fqName, declarations ->
objCTypeAdapters += createTypeAdapterForPackage(fqName, declarations)
dataGenerator.emitEmptyClass(namer.getPackageName(fqName), namer.kotlinAnyName)
}
emitSpecialClassesConvertions()
objCTypeAdapters += createTypeAdapter(context.builtIns.any)
val placedClassAdapters = mutableMapOf<String, ConstPointer>()
val placedInterfaceAdapters = mutableMapOf<String, ConstPointer>()
objCTypeAdapters.forEach { adapter ->
val typeAdapter = staticData.placeGlobal("", adapter).pointer
val descriptor = adapter.descriptor
val descriptorToAdapter = if (descriptor?.isInterface == true) {
placedInterfaceAdapters
} else {
// Objective-C class for Kotlin class or top-level declarations.
placedClassAdapters
}
descriptorToAdapter[adapter.objCName] = typeAdapter
if (descriptor != null) {
setObjCExportTypeInfo(descriptor, typeAdapter = typeAdapter)
}
}
fun emitSortedAdapters(nameToAdapter: Map<String, ConstPointer>, prefix: String) {
val sortedAdapters = nameToAdapter.toList().sortedBy { it.first }.map {
it.second
}
if (sortedAdapters.isNotEmpty()) {
val type = sortedAdapters.first().llvmType
val sortedAdaptersPointer = staticData.placeGlobalConstArray("", type, sortedAdapters)
// Note: this globals replace runtime globals with weak linkage:
staticData.placeGlobal(prefix, sortedAdaptersPointer, isExported = true)
staticData.placeGlobal("${prefix}Num", Int32(sortedAdapters.size), isExported = true)
}
}
emitSortedAdapters(placedClassAdapters, "Kotlin_ObjCExport_sortedClassAdapters")
emitSortedAdapters(placedInterfaceAdapters, "Kotlin_ObjCExport_sortedProtocolAdapters")
context.llvm.kObjectReservedTailSize!!.setInitializer(Int32(runtime.pointerSize))
dataGenerator.finishModule() // TODO: move to appropriate place.
}
private val impType = pointerType(functionType(int8TypePtr, true, int8TypePtr, int8TypePtr))
inner class ObjCToKotlinMethodAdapter(
selector: String,
encoding: String,
imp: ConstPointer
) : Struct(
runtime.objCToKotlinMethodAdapter,
staticData.cStringLiteral(selector),
staticData.cStringLiteral(encoding),
imp.bitcast(impType)
)
inner class KotlinToObjCMethodAdapter(
selector: String,
nameSignature: Long,
vtableIndex: Int,
kotlinImpl: ConstPointer
) : Struct(
runtime.kotlinToObjCMethodAdapter,
staticData.cStringLiteral(selector),
Int64(nameSignature),
Int32(vtableIndex),
kotlinImpl
)
inner class ObjCTypeAdapter(
val descriptor: ClassDescriptor?,
typeInfo: ConstPointer?,
vtable: ConstPointer?,
vtableSize: Int,
methodTable: List<RTTIGenerator.MethodTableRecord>,
val objCName: String,
directAdapters: List<ObjCToKotlinMethodAdapter>,
virtualAdapters: List<ObjCToKotlinMethodAdapter>,
reverseAdapters: List<KotlinToObjCMethodAdapter>
) : Struct(
runtime.objCTypeAdapter,
typeInfo,
vtable,
Int32(vtableSize),
staticData.placeGlobalConstArray("", runtime.methodTableRecordType, methodTable),
Int32(methodTable.size),
staticData.cStringLiteral(objCName),
staticData.placeGlobalConstArray(
"",
runtime.objCToKotlinMethodAdapter,
directAdapters
),
Int32(directAdapters.size),
staticData.placeGlobalConstArray(
"",
runtime.objCToKotlinMethodAdapter,
virtualAdapters
),
Int32(virtualAdapters.size),
staticData.placeGlobalConstArray(
"",
runtime.kotlinToObjCMethodAdapter,
reverseAdapters
),
Int32(reverseAdapters.size)
)
}
private fun ObjCExportCodeGenerator.setObjCExportTypeInfo(
descriptor: ClassDescriptor,
converter: ConstPointer? = null,
objCClass: ConstPointer? = null,
typeAdapter: ConstPointer? = null
) {
val objCExportAddition = Struct(runtime.typeInfoObjCExportAddition,
converter,
objCClass,
typeAdapter
)
val writableTypeInfoType = runtime.writableTypeInfoType!!
val writableTypeInfoValue = Struct(writableTypeInfoType, objCExportAddition)
val global = if (codegen.isExternal(descriptor)) {
// Note: this global replaces the external one with common linkage.
staticData.createGlobal(
writableTypeInfoType,
descriptor.writableTypeInfoSymbolName,
isExported = true
)
} else {
context.llvmDeclarations.forClass(descriptor).writableTypeInfoGlobal!!.also {
it.setLinkage(LLVMLinkage.LLVMExternalLinkage)
}
}
global.setInitializer(writableTypeInfoValue)
}
private val ObjCExportCodeGenerator.kotlinToObjCFunctionType: LLVMTypeRef
get() = functionType(int8TypePtr, false, codegen.kObjHeaderPtr)
private fun ObjCExportCodeGenerator.emitBoxConverter(objCValueType: ObjCValueType) {
val valueType = objCValueType.kotlinValueType
val symbols = context.ir.symbols
val name = "${valueType.classFqName.shortName()}To${objCValueType.nsNumberName}"
val converter = generateFunction(codegen, kotlinToObjCFunctionType, name) {
val unboxFunction = symbols.getUnboxFunction(valueType).descriptor.llvmFunction
val kotlinValue = callFromBridge(
unboxFunction,
listOf(param(0)),
Lifetime.IRRELEVANT
)
val value = kotlinToObjC(kotlinValue, objCValueType)
val nsNumber = genGetSystemClass("NSNumber")
ret(genSendMessage(int8TypePtr, nsNumber, objCValueType.nsNumberFactorySelector, value))
}
LLVMSetLinkage(converter, LLVMLinkage.LLVMPrivateLinkage)
val boxClass = symbols.boxClasses[valueType]!!
setObjCExportTypeInfo(boxClass.descriptor, constPointer(converter))
}
private fun ObjCExportCodeGenerator.emitFunctionConverters() {
val generator = BlockAdapterToFunctionGenerator(this)
(0 .. 22).forEach { numberOfParameters ->
val converter = generator.run { generateConvertFunctionToBlock(numberOfParameters) }
setObjCExportTypeInfo(context.builtIns.getFunction(numberOfParameters), constPointer(converter))
}
}
private fun ObjCExportCodeGenerator.generateKotlinFunctionAdapterToBlock(numberOfParameters: Int): ConstPointer {
val interfaceDescriptor = codegen.context.builtIns.getFunction(numberOfParameters)
val invokeMethod = interfaceDescriptor.unsubstitutedMemberScope.getContributedFunctions(
Name.identifier("invoke"), NoLookupLocation.FROM_BACKEND
).single()
val invokeImpl = generateKotlinFunctionImpl(invokeMethod)
return rttiGenerator.generateSyntheticInterfaceImpl(
interfaceDescriptor,
mapOf(invokeMethod to invokeImpl)
)
}
private fun ObjCExportCodeGenerator.emitKotlinFunctionAdaptersToBlock() {
val ptr = staticData.placeGlobalArray(
"",
pointerType(runtime.typeInfoType),
(0 .. 22).map {
generateKotlinFunctionAdapterToBlock(it)
}
).pointer.getElementPtr(0)
// Note: this global replaces the weak global defined in runtime.
staticData.placeGlobal("Kotlin_ObjCExport_functionAdaptersToBlock", ptr, isExported = true)
}
private fun ObjCExportCodeGenerator.emitSpecialClassesConvertions() {
setObjCExportTypeInfo(
context.builtIns.string,
constPointer(context.llvm.Kotlin_Interop_CreateNSStringFromKString)
)
setObjCExportTypeInfo(
context.builtIns.list,
constPointer(context.llvm.Kotlin_Interop_CreateNSArrayFromKList)
)
ObjCValueType.values().forEach {
emitBoxConverter(it)
}
emitFunctionConverters()
emitKotlinFunctionAdaptersToBlock()
}
private fun ObjCExportCodeGenerator.generateObjCImp(
target: FunctionDescriptor?,
methodBridge: MethodBridge,
isVirtual: Boolean = false
): LLVMValueRef {
// TODO: adapt exceptions.
val returnType = methodBridge.returnBridge
val result = LLVMAddFunction(context.llvmModule, "", objCFunctionType(methodBridge))!!
generateFunction(codegen, result) {
// TODO: call [NSObject init] if it is a constructor?
// TODO: check for abstract class if it is a constructor.
if (methodBridge.isKotlinTopLevel) {
callFromBridge(context.llvm.initRuntimeIfNeeded, emptyList())
// For instance methods it gets called when allocating.
}
if (target == null) {
// IMP for abstract method.
callFromBridge(
context.llvm.Kotlin_ObjCExport_AbstractMethodCalled,
listOf(param(0), param(1))
)
unreachable()
return@generateFunction
}
val args = methodBridge.paramBridges.mapIndexedNotNull { index, typeBridge ->
val isReceiver = index == 0
if (isReceiver && methodBridge.isKotlinTopLevel) {
null
} else {
val param = param(if (isReceiver) index else index + 1)
objCToKotlin(param, typeBridge, Lifetime.ARGUMENT)
}
}
val llvmTarget = if (!isVirtual) {
codegen.llvmFunction(target)
} else {
lookupVirtualImpl(args.first(), target)
}
val targetResult = callFromBridge(llvmTarget, args, Lifetime.ARGUMENT)
if (target is ConstructorDescriptor) {
ret(param(0))
} else when (returnType) {
VoidBridge -> ret(null)
is TypeBridge -> ret(kotlinToObjC(targetResult, returnType))
}
}
LLVMSetLinkage(result, LLVMLinkage.LLVMPrivateLinkage)
return result
}
// TODO: cache bridges.
private fun ObjCExportCodeGenerator.generateKotlinToObjCBridge(
descriptor: FunctionDescriptor,
baseMethod: FunctionDescriptor
): ConstPointer {
val methodBridge = mapper.bridgeMethod(baseMethod)
val allBaseMethodParams = baseMethod.allParameters
val paramBridges = methodBridge.paramBridges
val returnBridge = methodBridge.returnBridge
val objcMsgSend = msgSender(objCFunctionType(methodBridge))
val functionType = codegen.getLlvmFunctionType(descriptor)
val result = generateFunction(codegen, functionType, "") {
val args = mutableListOf<LLVMValueRef>()
descriptor.allParameters.forEachIndexed { index, parameter ->
val kotlinValue = convertKotlin(
{ param(index) },
actualType = parameter.type,
expectedType = allBaseMethodParams[index].type,
resultLifetime = Lifetime.ARGUMENT
)
args += kotlinToObjC(kotlinValue, paramBridges[index])
// TODO: if `convertKotlin` boxes Kotlin value, then it gets converted by `kotlinToObjC` to `NSNumber`,
// and boxing directly to `NSNumber` would be much efficient.
if (index == 0) {
args += genSelector(namer.getSelector(baseMethod))
}
}
val targetResult = callFromBridge(objcMsgSend, args)
assert(baseMethod !is ConstructorDescriptor)
when (returnBridge) {
VoidBridge -> {
if (LLVMGetReturnType(functionType) == voidType) {
ret(null)
} else {
ret(staticData.theUnitInstanceRef.llvm)
}
}
is TypeBridge -> {
val genConvertedTargetResult = { lifetime: Lifetime ->
objCToKotlin(targetResult, returnBridge, lifetime)
}
ret(convertKotlin(
genConvertedTargetResult,
actualType = baseMethod.returnType!!,
expectedType = descriptor.returnType!!,
resultLifetime = Lifetime.RETURN_VALUE
))
}
}
}
LLVMSetLinkage(result, LLVMLinkage.LLVMPrivateLinkage)
return constPointer(result)
}
private fun ObjCExportCodeGenerator.createReverseAdapter(
descriptor: FunctionDescriptor,
baseMethod: FunctionDescriptor,
functionName: String,
vtableIndex: Int?
): ObjCExportCodeGenerator.KotlinToObjCMethodAdapter {
val nameSignature = functionName.localHash.value
val selector = namer.getSelector(baseMethod)
val kotlinToObjC = generateKotlinToObjCBridge(
descriptor,
baseMethod
).bitcast(int8TypePtr)
return KotlinToObjCMethodAdapter(selector, nameSignature, vtableIndex ?: -1, kotlinToObjC)
}
private fun ObjCExportCodeGenerator.createMethodVirtualAdapter(
baseMethod: FunctionDescriptor
): ObjCExportCodeGenerator.ObjCToKotlinMethodAdapter {
assert(mapper.isBaseMethod(baseMethod))
val selector = namer.getSelector(baseMethod)
val methodBridge = mapper.bridgeMethod(baseMethod)
val objCToKotlin = constPointer(generateObjCImp(baseMethod, methodBridge, isVirtual = true))
return ObjCToKotlinMethodAdapter(selector, getEncoding(methodBridge), objCToKotlin)
}
private fun ObjCExportCodeGenerator.createMethodAdapter(
implementation: FunctionDescriptor?,
baseMethod: FunctionDescriptor
): ObjCExportCodeGenerator.ObjCToKotlinMethodAdapter {
val selectorName = namer.getSelector(baseMethod)
val methodBridge = mapper.bridgeMethod(baseMethod)
val objCEncoding = getEncoding(methodBridge)
val objCToKotlin = constPointer(generateObjCImp(implementation, methodBridge))
return ObjCToKotlinMethodAdapter(selectorName, objCEncoding, objCToKotlin)
}
private fun ObjCExportCodeGenerator.createConstructorAdapter(
descriptor: ConstructorDescriptor
): ObjCExportCodeGenerator.ObjCToKotlinMethodAdapter = createMethodAdapter(descriptor, descriptor)
private fun ObjCExportCodeGenerator.vtableIndex(descriptor: FunctionDescriptor): Int? {
assert(descriptor.isOverridable)
val classDescriptor = descriptor.containingDeclaration as ClassDescriptor
return if (classDescriptor.isInterface) {
null
} else {
context.getVtableBuilder(classDescriptor).vtableIndex(descriptor)
}
}
private fun ObjCExportCodeGenerator.createTypeAdapterForPackage(
fqName: FqName,
declarations: List<CallableMemberDescriptor>
): ObjCExportCodeGenerator.ObjCTypeAdapter {
val name = namer.getPackageName(fqName)
val adapters = declarations.toMethods().map { createMethodAdapter(it, it) }
return ObjCTypeAdapter(
descriptor = null,
typeInfo = null,
vtable = null,
vtableSize = -1,
methodTable = emptyList(),
objCName = name,
directAdapters = adapters,
virtualAdapters = emptyList(),
reverseAdapters = emptyList()
)
}
private fun ObjCExportCodeGenerator.createTypeAdapter(
descriptor: ClassDescriptor
): ObjCExportCodeGenerator.ObjCTypeAdapter {
val adapters = mutableListOf<ObjCExportCodeGenerator.ObjCToKotlinMethodAdapter>()
if (descriptor != context.builtIns.any) {
descriptor.constructors.forEach {
if (mapper.shouldBeExposed(it)) adapters += createConstructorAdapter(it)
}
}
val categoryMethods = mapper.getCategoryMembersFor(descriptor).toMethods()
val exposedMethods = descriptor.contributedMethods.filter { mapper.shouldBeExposed(it) } + categoryMethods
exposedMethods.filter { it.kind.isReal }.forEach { method ->
mapper.getBaseMethods(method).mapTo(adapters) { base ->
val implementation = if (method.modality == Modality.ABSTRACT) {
null
} else {
OverriddenFunctionDescriptor(method, base).getImplementation(context)
}
createMethodAdapter(implementation, base)
}
}
val reverseAdapters = mutableListOf<ObjCExportCodeGenerator.KotlinToObjCMethodAdapter>()
exposedMethods.forEach { method ->
val baseMethods = mapper.getBaseMethods(method)
val hasSelectorClash = baseMethods.map { namer.getSelector(it) }.distinct().size > 1
if (method.isOverridable && !hasSelectorClash) {
val baseMethod = baseMethods.first()
val presentVtableBridges = mutableSetOf<Int?>(null)
val presentMethodTableBridges = mutableSetOf<String>()
val allOverriddenDescriptors = method.allOverriddenDescriptors.map { it.original }
val (inherited, uninherited) = allOverriddenDescriptors.partition {
it != method && mapper.shouldBeExposed(it)
}
inherited.forEach {
presentVtableBridges += vtableIndex(it)
presentMethodTableBridges += it.functionName
}
uninherited.forEach {
val vtableIndex = vtableIndex(it)
val functionName = it.functionName
if (vtableIndex !in presentVtableBridges || functionName !in presentMethodTableBridges) {
presentVtableBridges += vtableIndex
presentMethodTableBridges += functionName
reverseAdapters += createReverseAdapter(it, baseMethod, functionName, vtableIndex)
}
}
} else {
// Mark it as non-overridable:
baseMethods.forEach { base ->
reverseAdapters += KotlinToObjCMethodAdapter(
namer.getSelector(base),
-1,
-1,
NullPointer(int8Type)
)
}
// TODO: some fake-overrides can be skipped.
}
}
val virtualAdapters = descriptor.contributedMethods.
filter { mapper.isBaseMethod(it) && it.isOverridable }
.map { createMethodVirtualAdapter(it) }
val typeInfo = constPointer(codegen.typeInfoValue(descriptor))
val objCName = namer.getClassOrProtocolName(descriptor)
val vtableSize = if (descriptor.kind == ClassKind.INTERFACE) {
-1
} else {
context.getVtableBuilder(descriptor).vtableEntries.size
}
val vtable = if (!descriptor.isInterface && !descriptor.typeInfoHasVtableAttached) {
staticData.placeGlobal("", rttiGenerator.vtable(descriptor)).also {
it.setConstant(true)
}.pointer.getElementPtr(0)
} else {
null
}
val methodTable = if (!descriptor.isInterface && descriptor.isAbstract()) {
rttiGenerator.methodTableRecords(descriptor)
} else {
emptyList()
}
return ObjCTypeAdapter(
descriptor,
typeInfo,
vtable,
vtableSize,
methodTable,
objCName,
adapters,
virtualAdapters,
reverseAdapters
)
}
private fun List<CallableMemberDescriptor>.toMethods(): List<FunctionDescriptor> = this.flatMap {
when (it) {
is PropertyDescriptor -> listOfNotNull(it.getter, it.setter)
is FunctionDescriptor -> listOf(it)
else -> error(it)
}
}
private fun objCFunctionType(methodBridge: MethodBridge): LLVMTypeRef {
val paramTypes = mutableListOf<LLVMTypeRef>()
methodBridge.paramBridges.forEachIndexed { index, typeBridge ->
paramTypes += typeBridge.objCType
if (index == 0) paramTypes += int8TypePtr // Selector.
}
val returnType = methodBridge.returnBridge.objCType
return functionType(returnType, false, *(paramTypes.toTypedArray()))
}
private val ObjCValueType.llvmType: LLVMTypeRef get() = when (this) {
ObjCValueType.BOOL -> int8Type
ObjCValueType.CHAR -> int8Type
ObjCValueType.UNSIGNED_SHORT -> int16Type
ObjCValueType.SHORT -> int16Type
ObjCValueType.INT -> int32Type
ObjCValueType.LONG_LONG -> kInt64
ObjCValueType.FLOAT -> LLVMFloatType()!!
ObjCValueType.DOUBLE -> LLVMDoubleType()!!
}
private val ReturnableTypeBridge.objCType: LLVMTypeRef get() = when (this) {
VoidBridge -> voidType
is ReferenceBridge -> int8TypePtr
is ValueTypeBridge -> this.objCValueType.llvmType
is HashCodeBridge -> kInt64 // TODO: only for 64-bit platforms
}
internal fun ObjCExportCodeGenerator.getEncoding(methodBridge: MethodBridge): String {
var paramOffset = 0
val pointerSize = runtime.pointerSize
val params = buildString {
fun appendParam(encoding: String, size: Int) {
append(encoding)
append(paramOffset)
paramOffset += size
}
methodBridge.paramBridges.forEachIndexed { index, typeBridge ->
appendParam(
typeBridge.objCEncoding,
LLVMStoreSizeOfType(runtime.targetData, typeBridge.objCType).toInt()
)
if (index == 0) appendParam(":", pointerSize)
}
}
val returnTypeEncoding = methodBridge.returnBridge.objCEncoding
val paramSize = paramOffset
return "$returnTypeEncoding$paramSize$params"
}
private val ReturnableTypeBridge.objCEncoding: String get() = when (this) {
VoidBridge -> "v"
ReferenceBridge -> "@"
is ValueTypeBridge -> this.objCValueType.encoding
HashCodeBridge -> "L" // NSUInteger = unsigned long; // TODO: `unsigned int` on watchOS
}
internal fun Context.is64Bit(): Boolean = this.config.targetManager.target.architecture.bitness == 64
@@ -18,6 +18,7 @@ package org.jetbrains.kotlin.backend.konan.lower
import org.jetbrains.kotlin.backend.common.AbstractValueUsageTransformer
import org.jetbrains.kotlin.backend.common.FileLoweringPass
import org.jetbrains.kotlin.backend.common.descriptors.explicitParameters
import org.jetbrains.kotlin.backend.common.descriptors.isSuspend
import org.jetbrains.kotlin.backend.konan.*
import org.jetbrains.kotlin.backend.konan.descriptors.target
@@ -28,10 +29,7 @@ import org.jetbrains.kotlin.ir.declarations.IrFunction
import org.jetbrains.kotlin.ir.expressions.*
import org.jetbrains.kotlin.ir.expressions.impl.IrCallImpl
import org.jetbrains.kotlin.ir.expressions.impl.IrTypeOperatorCallImpl
import org.jetbrains.kotlin.ir.util.getPropertyGetter
import org.jetbrains.kotlin.ir.util.isNullConst
import org.jetbrains.kotlin.ir.util.render
import org.jetbrains.kotlin.ir.util.type
import org.jetbrains.kotlin.ir.util.*
import org.jetbrains.kotlin.ir.visitors.transformChildrenVoid
import org.jetbrains.kotlin.types.KotlinType
import org.jetbrains.kotlin.types.TypeUtils
@@ -194,23 +192,16 @@ private class AutoboxingTransformer(val context: Context) : AbstractValueUsageTr
}
private fun IrExpression.adaptIfNecessary(actualType: KotlinType, expectedType: KotlinType): IrExpression {
val actualValueType = actualType.correspondingValueType
val expectedValueType = expectedType.correspondingValueType
val conversion = symbols.getTypeConversion(actualType, expectedType)
return if (conversion == null) {
this
} else {
val parameter = conversion.descriptor.explicitParameters.single()
val argument = this.uncheckedCast(parameter.type)
return when {
actualValueType == expectedValueType -> this
actualValueType == null && expectedValueType != null -> {
// This may happen in the following cases:
// 1. `actualType` is `Nothing`;
// 2. `actualType` is incompatible.
this.unbox(expectedValueType)
}
actualValueType != null && expectedValueType == null -> this.box(actualValueType)
else -> throw IllegalArgumentException("actual type is $actualType, expected $expectedType")
IrCallImpl(startOffset, endOffset, conversion).apply {
addArguments(listOf(parameter to argument))
}.uncheckedCast(this.type) // Try not to bring new type incompatibilities.
}
}
@@ -229,26 +220,4 @@ private class AutoboxingTransformer(val context: Context) : AbstractValueUsageTr
private fun getBoxType(valueType: ValueType) =
context.getInternalClass("${valueType.shortName}Box").defaultType
private fun IrExpression.box(valueType: ValueType): IrExpression {
val boxFunction = symbols.boxFunctions[valueType]!!
return IrCallImpl(startOffset, endOffset, boxFunction).apply {
putValueArgument(0, this@box)
}.uncheckedCast(this.type) // Try not to bring new type incompatibilities.
}
private fun IrExpression.unbox(valueType: ValueType): IrExpression {
symbols.unboxFunctions[valueType]?.let {
return IrCallImpl(startOffset, endOffset, it).apply {
putValueArgument(0, this@unbox.uncheckedCast(it.owner.valueParameters[0].type))
}.uncheckedCast(this.type)
}
val boxGetter = symbols.boxClasses[valueType]!!.getPropertyGetter("value")!!
return IrCallImpl(startOffset, endOffset, boxGetter).apply {
dispatchReceiver = this@unbox.uncheckedCast(boxGetter.descriptor.dispatchReceiverParameter!!.type)
}.uncheckedCast(this.type) // Try not to bring new type incompatibilities.
}
}
@@ -0,0 +1,61 @@
/*
* Copyright 2010-2017 JetBrains s.r.o.
*
* 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.
*/
package org.jetbrains.kotlin.backend.konan.objcexport
import org.jetbrains.kotlin.backend.konan.Context
import org.jetbrains.kotlin.backend.konan.llvm.CodeGenerator
import org.jetbrains.kotlin.backend.konan.llvm.objcexport.ObjCExportCodeGenerator
import org.jetbrains.kotlin.konan.file.File
import org.jetbrains.kotlin.konan.target.CompilerOutputKind
internal class ObjCExport(val context: Context) {
internal fun produceObjCFramework() {
if (context.config.produce != CompilerOutputKind.FRAMEWORK) return
val headerGenerator = ObjCExportHeaderGenerator(context)
headerGenerator.translateModule()
val namer = headerGenerator.namer
val mapper = headerGenerator.mapper
val framework = File(context.config.outputFile)
val headers = framework.child("Headers")
val frameworkName = framework.name.removeSuffix(".framework")
val headerName = frameworkName + ".h"
val header = headers.child(headerName)
headers.mkdirs()
header.writeLines(headerGenerator.build())
val modules = framework.child("Modules")
modules.mkdirs()
val moduleMap = """
|framework module $frameworkName {
| umbrella header "$headerName"
|
| export *
| module * { export * }
|}
""".trimMargin()
modules.child("module.modulemap").writeBytes(moduleMap.toByteArray())
val objCCodeGenerator = ObjCExportCodeGenerator(CodeGenerator(context), namer, mapper)
objCCodeGenerator.emitRtti(headerGenerator.generatedClasses, headerGenerator.topLevel)
}
}
@@ -0,0 +1,587 @@
/*
* Copyright 2010-2017 JetBrains s.r.o.
*
* 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.
*/
package org.jetbrains.kotlin.backend.konan.objcexport
import org.jetbrains.kotlin.backend.konan.Context
import org.jetbrains.kotlin.backend.konan.descriptors.isInterface
import org.jetbrains.kotlin.builtins.getReceiverTypeFromFunctionType
import org.jetbrains.kotlin.builtins.getReturnTypeFromFunctionType
import org.jetbrains.kotlin.builtins.getValueParameterTypesFromFunctionType
import org.jetbrains.kotlin.builtins.isFunctionType
import org.jetbrains.kotlin.descriptors.*
import org.jetbrains.kotlin.name.FqName
import org.jetbrains.kotlin.resolve.descriptorUtil.getSuperClassNotAny
import org.jetbrains.kotlin.resolve.descriptorUtil.getSuperInterfaces
import org.jetbrains.kotlin.resolve.descriptorUtil.isSubclassOf
import org.jetbrains.kotlin.resolve.descriptorUtil.module
import org.jetbrains.kotlin.resolve.scopes.MemberScope
import org.jetbrains.kotlin.types.KotlinType
import org.jetbrains.kotlin.types.TypeUtils
import org.jetbrains.kotlin.types.typeUtil.supertypes
import org.jetbrains.kotlin.utils.addIfNotNull
internal class ObjCExportHeaderGenerator(val context: Context) {
val mapper: ObjCExportMapper = object : ObjCExportMapper {
override fun isRepresentedAsObjCInterface(descriptor: ClassDescriptor): Boolean {
val objCType = mapReferenceType(descriptor.defaultType)
return objCType is ObjCClassType && objCType.className == translateClassName(descriptor)
}
override fun getCategoryMembersFor(descriptor: ClassDescriptor) =
extensions[descriptor].orEmpty()
}
val namer = ObjCExportNamer(context, mapper)
val generatedClasses = mutableSetOf<ClassDescriptor>()
val topLevel = mutableMapOf<FqName, MutableList<CallableMemberDescriptor>>()
private val kotlinAnyName = namer.kotlinAnyName
private val stubs = mutableListOf<Stub>()
private val classToName = mutableMapOf<ClassDescriptor, String>()
private val interfaceToName = mutableMapOf<ClassDescriptor, String>()
private val extensions = mutableMapOf<ClassDescriptor, MutableList<CallableMemberDescriptor>>()
val extraClassesToTranslate = mutableSetOf<ClassDescriptor>()
fun translateModule() {
// TODO: make the translation order stable
// to stabilize name mangling.
val packageFragments = context.moduleDescriptor.getPackageFragments()
packageFragments.forEach { packageFragment ->
packageFragment.getMemberScope().getContributedDescriptors()
.filterIsInstance<CallableMemberDescriptor>()
.filter { mapper.shouldBeExposed(it) }
.forEach {
val classDescriptor = mapper.getClassIfCategory(it)
if (classDescriptor != null) {
extensions.getOrPut(classDescriptor, { mutableListOf() }) += it
} else {
topLevel.getOrPut(packageFragment.fqName, { mutableListOf() }) += it
}
}
}
fun MemberScope.translateClasses(): Unit = this.getContributedDescriptors()
.filterIsInstance<ClassDescriptor>()
.filter { mapper.shouldBeExposed(it) }
.forEach {
if (it.isInterface) {
translateInterface(it)
} else {
translateClass(it)
}
it.unsubstitutedMemberScope.translateClasses()
}
packageFragments.forEach { packageFragment ->
packageFragment.getMemberScope().translateClasses()
}
extensions.forEach { classDescriptor, declarations ->
translateExtensions(classDescriptor, declarations)
}
topLevel.forEach { packageFqName, declarations ->
translateTopLevel(packageFqName, declarations)
}
while (extraClassesToTranslate.isNotEmpty()) {
val descriptor = extraClassesToTranslate.first()
extraClassesToTranslate -= descriptor
if (descriptor.isInterface) {
translateInterface(descriptor)
} else {
translateClass(descriptor)
}
}
}
fun translateClassName(descriptor: ClassDescriptor): String {
val descriptorToName = if (descriptor.isInterface) interfaceToName else classToName
return descriptorToName.getOrPut(descriptor) {
namer.getClassOrProtocolName(descriptor)
}
}
private fun translateInterface(descriptor: ClassDescriptor) {
if (!generatedClasses.add(descriptor)) return
val name = translateClassName(descriptor)
stubs.addBuiltBy {
+"@protocol $name${descriptor.superProtocolsClause}"
+"@required"
translateClassOrInterfaceMembers(descriptor)
+"@end;"
}
}
private val ClassDescriptor.superProtocolsClause: String get() {
val interfaces = this.getSuperInterfaces()
return if (interfaces.isEmpty()) {
""
} else buildString {
append(" <")
interfaces.forEach {
translateInterface(it)
append(translateClassName(it))
}
append(">")
}
}
private fun translateExtensions(classDescriptor: ClassDescriptor, declarations: List<CallableMemberDescriptor>) {
translateClass(classDescriptor)
stubs.addBuiltBy {
+"@interface ${translateClassName(classDescriptor)} (Extensions)"
translateMembers(declarations)
+"@end;"
}
}
private fun translateTopLevel(packageFqName: FqName, declarations: List<CallableMemberDescriptor>) {
val name = namer.getPackageName(packageFqName)
stubs.addBuiltBy {
+"__attribute__((objc_subclassing_restricted))"
+"@interface $name : KotlinBase" // TODO: stop inheriting KotlinBase.
translateMembers(declarations)
+"@end;"
}
}
private fun translateClass(descriptor: ClassDescriptor) {
if (!generatedClasses.add(descriptor)) return
val name = translateClassName(descriptor)
val superClass = descriptor.getSuperClassNotAny()
val superName = if (superClass == null) {
kotlinAnyName
} else {
translateClass(superClass)
translateClassName(superClass)
}
stubs.addBuiltBy {
if (descriptor.isFinalOrEnum) {
+"__attribute__((objc_subclassing_restricted))"
}
+"@interface $name : $superName${descriptor.superProtocolsClause}"
val presentConstructors = mutableSetOf<String>()
descriptor.constructors.filter { mapper.shouldBeExposed(it) }.forEach {
presentConstructors += getSelector(it)
+"${getSignature(it, it)};"
+""
}
// Hide "unimplemented" super constructors:
superClass?.constructors?.filter { mapper.shouldBeExposed(it) }?.forEach {
if (getSelector(it) !in presentConstructors) {
+"${getSignature(it, it)} __attribute__((unavailable));"
+""
// TODO: consider adding exception-throwing impls for these.
}
}
translateClassOrInterfaceMembers(descriptor)
+"@end;"
}
}
private fun StubBuilder.translateClassOrInterfaceMembers(descriptor: ClassDescriptor) {
val members = descriptor.unsubstitutedMemberScope.getContributedDescriptors()
.filterIsInstance<CallableMemberDescriptor>()
.filter { mapper.shouldBeExposed(it) }
translateMembers(members)
}
private fun StubBuilder.translateMembers(members: List<CallableMemberDescriptor>) {
// TODO: add some marks about modality.
val methods = mutableListOf<FunctionDescriptor>()
val properties = mutableListOf<PropertyDescriptor>()
members.forEach {
when (it) {
is FunctionDescriptor -> methods += it
is PropertyDescriptor -> if (mapper.isObjCProperty(it)) {
properties += it
} else {
methods.addIfNotNull(it.getter)
methods.addIfNotNull(it.setter)
}
else -> error(it)
}
}
methods.forEach { method ->
val superSignatures = method.overriddenDescriptors
.filter { mapper.shouldBeExposed(it) }
.flatMap { getSignatures(it.original) }
.toSet()
(getSignatures(method) - superSignatures).forEach {
+"$it;"
}
}
properties.forEach { property ->
val superSignatures = property.overriddenDescriptors
.filter { mapper.shouldBeExposed(it) }
.flatMap { getSignatures(it.original) }
.toSet()
getSignatures(property).filter { it !in superSignatures }.forEach {
+"$it;"
}
}
}
private val methodToSignatures = mutableMapOf<FunctionDescriptor, Set<String>>()
private fun getSignatures(method: FunctionDescriptor) = methodToSignatures.getOrPut(method) {
mapper.getBaseMethods(method).distinctBy { namer.getSelector(it) }.map { base ->
getSignature(method, base)
}.toSet()
}
private val propertyToSignatures = mutableMapOf<PropertyDescriptor, Set<String>>()
private fun getSignatures(property: PropertyDescriptor) = propertyToSignatures.getOrPut(property) {
mapper.getBaseProperties(property).distinctBy { namer.getName(it) }.map { base ->
getSignature(property, base)
}.toSet()
}
// TODO: consider checking that signatures for bases with same selector/name are equal.
fun getSelector(method: FunctionDescriptor): String {
return namer.getSelector(method)
}
private fun getSignature(property: PropertyDescriptor, baseProperty: PropertyDescriptor) = buildString {
assert(mapper.isBaseProperty(baseProperty))
assert(mapper.isObjCProperty(baseProperty))
val type = mapType(property.type, mapper.bridgeMethod(baseProperty.getter!!).returnBridge)
val name = namer.getName(baseProperty)
append("@property ")
val attributes = mutableListOf<String>()
val getterSelector = getSelector(baseProperty.getter!!)
if (getterSelector != name) {
attributes += "getter=$getterSelector"
}
val propertySetter = property.setter
if (propertySetter != null && mapper.shouldBeExposed(propertySetter)) {
val baseSetter = mapper.getBaseMethods(propertySetter).single()
val setterSelector = getSelector(baseSetter)
if (setterSelector != "set" + name.capitalize() + ":") {
attributes += "setter=$setterSelector"
}
} else {
attributes += "readonly"
}
if (attributes.isNotEmpty()) {
attributes.joinTo(this, prefix = "(", postfix = ") ")
}
append(type.render(name))
}
private fun getSignature(method: FunctionDescriptor, baseMethod: FunctionDescriptor) = buildString {
assert(mapper.isBaseMethod(baseMethod))
val methodBridge = mapper.bridgeMethod(baseMethod)
val selectorParts = getSelector(baseMethod).split(':')
if (methodBridge.isKotlinTopLevel) {
append("+")
} else {
append("-")
}
append("(")
val returnType = if (method is ConstructorDescriptor) {
"instancetype"
} else {
mapType(method.returnType!!, methodBridge.returnBridge).render()
}
append(returnType)
append(")")
val valueParameters = mapper.objCValueParameters(method)
val valueParameterNames = mutableListOf<String>()
valueParameters.forEach { p ->
// TODO: mangle only the extension receiver parameter.
var candidate = when {
p is ReceiverParameterDescriptor -> "receiver"
method is PropertySetterDescriptor -> "value"
else -> p.name.asString()
}
while (candidate in valueParameterNames) {
candidate += "_"
}
valueParameterNames += candidate
}
append(selectorParts[0])
valueParameters.forEachIndexed { index, p ->
val name = valueParameterNames[index]
if (index != 0) {
append(' ')
append(selectorParts[index])
}
append(":")
append("(")
append(mapType(p.type, methodBridge.paramBridges[index + 1]).render())
append(")")
append(name)
}
val swiftName = namer.getSwiftName(baseMethod)
append(" NS_SWIFT_NAME($swiftName)")
if (method is ConstructorDescriptor) {
append(" NS_DESIGNATED_INITIALIZER")
}
}
fun build(): List<String> = mutableListOf<String>().apply {
add("#import <stdint.h>")
add("#import <objc/NSObject.h>")
add("#import <CoreFoundation/CFBase.h>")
add("#import <Foundation/NSObjCRuntime.h>")
add("")
if (classToName.isNotEmpty()) {
add("@class ${classToName.values.joinToString()};")
add("")
}
if (interfaceToName.isNotEmpty()) {
add("@protocol ${interfaceToName.values.joinToString()};")
add("")
}
add("NS_ASSUME_NONNULL_BEGIN")
add("")
add("@interface $kotlinAnyName : NSObject")
add("-(instancetype) init __attribute__((unavailable));")
add("+(void)initialize;")
add("@end;")
add("")
stubs.forEach {
addAll(it.lines)
add("")
}
add("NS_ASSUME_NONNULL_END")
}
}
private sealed class ObjCType {
final override fun toString(): String = this.render()
open fun render(varName: String): String = "${this.render()} $varName"
abstract fun render(): String
}
private sealed class ObjCReferenceType(kotlinType: KotlinType) : ObjCType() {
val attributes = if (TypeUtils.isNullableType(kotlinType)) " _Nullable" else ""
}
private class ObjCClassType(kotlinType: KotlinType, val className: String) : ObjCReferenceType(kotlinType) {
override fun render() = "$className*$attributes"
}
private class ObjCProtocolType(kotlinType: KotlinType, val protocolName: String) : ObjCReferenceType(kotlinType) {
override fun render() = "id<$protocolName>$attributes" // TODO: check
}
private class ObjCIdType(kotlinType: KotlinType) : ObjCReferenceType(kotlinType) {
override fun render() = "id$attributes"
}
private class ObjCBlockPointerType(
kotlinType: KotlinType, val returnType: ObjCReferenceType, val parameterTypes: List<ObjCReferenceType>
) : ObjCReferenceType(kotlinType) {
override fun render() = render("")
override fun render(varName: String) = buildString {
append(returnType.render())
append("(^")
append(attributes)
append(varName)
append(")(")
if (parameterTypes.isEmpty()) append("void")
parameterTypes.joinTo(this) { it.render() }
append(')')
}
}
private class ObjCPrimitiveType(val cName: String) : ObjCType() {
override fun render() = cName
}
private object ObjCVoidType : ObjCType() {
override fun render() = "void"
override fun render(varName: String) = error("variables can't have `void` type")
}
private fun ObjCExportHeaderGenerator.mapReferenceType(kotlinType: KotlinType): ObjCReferenceType {
// TODO: translate `where T : BaseClass, T : SomeInterface` to `BaseClass* <SomeInterface>`
val classDescriptor = kotlinType.getErasedTypeClass()
if (classDescriptor.isSubclassOf(context.builtIns.list)) {
return ObjCClassType(kotlinType, "NSArray")
}
// TODO: Kotlin code doesn't have any checkcasts on unboxing,
// so it is possible that it expects boxed number of other type and unboxes it incorrectly.
if (classDescriptor.isSubclassOf(context.builtIns.number) ||
classDescriptor == context.builtIns.boolean ||
classDescriptor == context.builtIns.char) return ObjCClassType(kotlinType, "NSNumber")
when (classDescriptor) {
context.builtIns.any -> return ObjCIdType(kotlinType)
context.builtIns.string -> return ObjCClassType(kotlinType, "NSString")
}
val functionType = if (kotlinType.isFunctionType) {
kotlinType
} else {
kotlinType.supertypes().firstOrNull { it.isFunctionType }
// TODO: may be incorrect if type has more then one function supertype.
}
if (functionType != null) {
val returnType = functionType.getReturnTypeFromFunctionType()
val parameterTypes = listOfNotNull(functionType.getReceiverTypeFromFunctionType()) +
functionType.getValueParameterTypesFromFunctionType().map { it.type }
return ObjCBlockPointerType(
kotlinType,
mapReferenceType(returnType),
parameterTypes.map { mapReferenceType(it) }
)
}
if (classDescriptor !in generatedClasses) {
extraClassesToTranslate += classDescriptor
}
return if (classDescriptor.isInterface) {
ObjCProtocolType(kotlinType, translateClassName(classDescriptor))
} else {
ObjCClassType(kotlinType, translateClassName(classDescriptor))
}
}
private fun ObjCExportHeaderGenerator.mapType(
kotlinType: KotlinType,
typeBridge: ReturnableTypeBridge
): ObjCType = when (typeBridge) {
VoidBridge -> ObjCVoidType
ReferenceBridge -> mapReferenceType(kotlinType)
is ValueTypeBridge -> {
val cName = when (typeBridge.objCValueType) {
ObjCValueType.BOOL -> "BOOL"
ObjCValueType.CHAR -> "int8_t"
ObjCValueType.UNSIGNED_SHORT -> "unichar"
ObjCValueType.SHORT -> "int16_t"
ObjCValueType.INT -> "int32_t"
ObjCValueType.LONG_LONG -> "int64_t"
ObjCValueType.FLOAT -> "float"
ObjCValueType.DOUBLE -> "double"
}
// TODO: consider other namings.
ObjCPrimitiveType(cName)
}
HashCodeBridge -> ObjCPrimitiveType("NSUInteger")
}
private data class Stub(val lines: List<String>)
private class StubBuilder {
private val lines = mutableListOf<String>()
operator fun String.unaryPlus() {
lines.add(this)
}
operator fun Stub.unaryPlus() {
this@StubBuilder.lines.addAll(this.lines)
}
fun build() = Stub(lines)
}
private inline fun buildStub(block: StubBuilder.() -> Unit) = StubBuilder().let {
it.block()
it.build()
}
private inline fun MutableCollection<Stub>.addBuiltBy(block: StubBuilder.() -> Unit) {
this.add(buildStub(block))
}
private fun getPackagesFqNames(module: ModuleDescriptor): Set<FqName> {
val result = mutableSetOf<FqName>()
fun getSubPackages(fqName: FqName) {
result.add(fqName)
module.getSubPackagesOf(fqName) { true }.forEach { getSubPackages(it) }
}
getSubPackages(FqName.ROOT)
return result
}
private fun ModuleDescriptor.getPackageFragments(): List<PackageFragmentDescriptor> =
getPackagesFqNames(this).flatMap {
getPackage(it).fragments.filter { it.module == this }
}
@@ -0,0 +1,190 @@
/*
* Copyright 2010-2017 JetBrains s.r.o.
*
* 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.
*/
package org.jetbrains.kotlin.backend.konan.objcexport
import org.jetbrains.kotlin.backend.common.descriptors.allParameters
import org.jetbrains.kotlin.backend.common.descriptors.isSuspend
import org.jetbrains.kotlin.backend.konan.ValueType
import org.jetbrains.kotlin.backend.konan.correspondingValueType
import org.jetbrains.kotlin.descriptors.*
import org.jetbrains.kotlin.resolve.descriptorUtil.builtIns
import org.jetbrains.kotlin.resolve.descriptorUtil.isEffectivelyPublicApi
import org.jetbrains.kotlin.types.KotlinType
import org.jetbrains.kotlin.types.TypeUtils
import org.jetbrains.kotlin.types.typeUtil.isUnit
internal interface ObjCExportMapper {
fun isRepresentedAsObjCInterface(descriptor: ClassDescriptor): Boolean
fun getCategoryMembersFor(descriptor: ClassDescriptor): List<CallableMemberDescriptor>
}
internal fun ObjCExportMapper.getClassIfCategory(descriptor: CallableMemberDescriptor): ClassDescriptor? {
if (descriptor.dispatchReceiverParameter != null) return null
val extensionReceiverType = descriptor.extensionReceiverParameter?.type ?: return null
val erasedClass = extensionReceiverType.getErasedTypeClass()
return if (this.isRepresentedAsObjCInterface(erasedClass)) {
erasedClass
} else {
// E.g. receiver is protocol, or some type with custom mapping.
null
}
}
internal fun ObjCExportMapper.shouldBeExposed(descriptor: CallableMemberDescriptor): Boolean =
descriptor.isEffectivelyPublicApi && !descriptor.isSuspend
internal fun ObjCExportMapper.shouldBeExposed(descriptor: ClassDescriptor): Boolean =
descriptor.isEffectivelyPublicApi
private fun ObjCExportMapper.isBase(descriptor: CallableMemberDescriptor): Boolean =
descriptor.overriddenDescriptors.all { !shouldBeExposed(it) }
// e.g. it is not `override`, or overrides only unexposed methods.
internal fun ObjCExportMapper.isBaseMethod(descriptor: FunctionDescriptor) =
this.isBase(descriptor)
internal fun ObjCExportMapper.getBaseMethods(descriptor: FunctionDescriptor): List<FunctionDescriptor> =
if (isBaseMethod(descriptor)) {
listOf(descriptor)
} else {
descriptor.overriddenDescriptors.filter { shouldBeExposed(it) }.flatMap { getBaseMethods(it.original)}
}
internal fun ObjCExportMapper.isBaseProperty(descriptor: PropertyDescriptor) =
isBase(descriptor)
internal fun ObjCExportMapper.getBaseProperties(descriptor: PropertyDescriptor): List<PropertyDescriptor> =
if (isBaseProperty(descriptor)) {
listOf(descriptor)
} else {
descriptor.overriddenDescriptors.flatMap { getBaseProperties(it.original) }
}
internal tailrec fun KotlinType.getErasedTypeClass(): ClassDescriptor =
TypeUtils.getClassDescriptor(this) ?: this.constructor.supertypes.first().getErasedTypeClass()
internal fun ObjCExportMapper.isTopLevel(descriptor: CallableMemberDescriptor): Boolean =
descriptor.containingDeclaration !is ClassDescriptor && this.getClassIfCategory(descriptor) == null
internal fun ObjCExportMapper.objCValueParameters(method: FunctionDescriptor): List<ParameterDescriptor> =
when {
method is ConstructorDescriptor ->
listOfNotNull(method.dispatchReceiverParameter) + method.valueParameters
getClassIfCategory(method) == null ->
listOfNotNull(method.extensionReceiverParameter) + method.valueParameters
else -> method.valueParameters
}
internal fun ObjCExportMapper.isObjCProperty(property: PropertyDescriptor): Boolean =
this.objCValueParameters(property.getter!!).isEmpty() && // Which is false e.g. if it has two receivers.
!this.isTopLevel(property) // Because Objective-C has no class (e.g. static) properties.
// TODO: generalize type bridges to support such things as selectors, ignored class method receivers etc.
internal sealed class ReturnableTypeBridge
internal object VoidBridge : ReturnableTypeBridge()
internal sealed class TypeBridge : ReturnableTypeBridge()
internal object ReferenceBridge : TypeBridge()
internal data class ValueTypeBridge(val objCValueType: ObjCValueType) : TypeBridge()
internal object HashCodeBridge : TypeBridge()
internal data class MethodBridge(
val returnBridge: ReturnableTypeBridge,
val paramBridges: List<TypeBridge>,
val isKotlinTopLevel: Boolean = false
)
private fun ObjCExportMapper.bridgeType(kotlinType: KotlinType): TypeBridge {
val valueType = kotlinType.correspondingValueType
?: return ReferenceBridge
val objCValueType = ObjCValueType.values().singleOrNull { it.kotlinValueType == valueType }
?: error(valueType)
return ValueTypeBridge(objCValueType)
}
private fun ObjCExportMapper.bridgeReturnType(kotlinType: KotlinType): ReturnableTypeBridge = if (kotlinType.isUnit()) {
VoidBridge
} else {
bridgeType(kotlinType)
}
internal fun ObjCExportMapper.bridgeReturnType(descriptor: FunctionDescriptor): ReturnableTypeBridge {
val returnType = descriptor.returnType!!
return when {
descriptor.containingDeclaration == descriptor.builtIns.any && descriptor.name.asString() == "hashCode" ->
HashCodeBridge
descriptor is PropertyGetterDescriptor -> bridgePropertyType(descriptor.correspondingProperty)
else -> bridgeReturnType(returnType)
}
}
internal fun ObjCExportMapper.bridgeMethod(descriptor: FunctionDescriptor): MethodBridge {
assert(isBaseMethod(descriptor))
val returnBridge = bridgeReturnType(descriptor)
val paramBridges = mutableListOf<TypeBridge>()
val isTopLevel = isTopLevel(descriptor)
if (isTopLevel) {
paramBridges += ReferenceBridge
}
descriptor.allParameters.mapTo(paramBridges) { bridgeType(it.type) }
return MethodBridge(returnBridge, paramBridges, isKotlinTopLevel = isTopLevel)
}
internal fun ObjCExportMapper.bridgePropertyType(descriptor: PropertyDescriptor): TypeBridge {
assert(isBaseProperty(descriptor))
return bridgeType(descriptor.type)
}
internal enum class ObjCValueType(
val kotlinValueType: ValueType, // It is here for simplicity.
val encoding: String
) {
BOOL(ValueType.BOOLEAN, "c"),
CHAR(ValueType.BYTE, "c"),
UNSIGNED_SHORT(ValueType.CHAR, "S"),
SHORT(ValueType.SHORT, "s"),
INT(ValueType.INT, "i"),
LONG_LONG(ValueType.LONG, "q"),
FLOAT(ValueType.FLOAT, "f"),
DOUBLE(ValueType.DOUBLE, "d")
;
// UNSIGNED_SHORT -> unsignedShort
val nsNumberName = this.name.split('_').mapIndexed { index, s ->
val lower = s.toLowerCase()
if (index > 0) lower.capitalize() else lower
}.joinToString("")
val nsNumberValueSelector get() = "${nsNumberName}Value"
val nsNumberFactorySelector get() = "numberWith${nsNumberName.capitalize()}:"
}
@@ -0,0 +1,365 @@
/*
* Copyright 2010-2017 JetBrains s.r.o.
*
* 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.
*/
package org.jetbrains.kotlin.backend.konan.objcexport
import org.jetbrains.kotlin.backend.konan.Context
import org.jetbrains.kotlin.backend.konan.descriptors.isInterface
import org.jetbrains.kotlin.descriptors.*
import org.jetbrains.kotlin.incremental.components.NoLookupLocation
import org.jetbrains.kotlin.name.FqName
import org.jetbrains.kotlin.name.Name
import org.jetbrains.kotlin.resolve.descriptorUtil.fqNameSafe
import org.jetbrains.kotlin.resolve.descriptorUtil.isSubclassOf
import org.jetbrains.kotlin.resolve.descriptorUtil.module
import org.jetbrains.kotlin.resolve.descriptorUtil.parentsWithSelf
internal class ObjCExportNamer(val context: Context, val mapper: ObjCExportMapper) {
val kotlinAnyName = "KotlinBase"
private val methodSelectors = object : Mapping<FunctionDescriptor, String>() {
override fun conflict(first: FunctionDescriptor, second: FunctionDescriptor): Boolean =
!mapper.canHaveSameSelector(first, second)
}
private val methodSwiftNames = object : Mapping<FunctionDescriptor, String>() {
override fun conflict(first: FunctionDescriptor, second: FunctionDescriptor): Boolean =
!mapper.canHaveSameSelector(first, second)
// Note: this condition is correct but can be too strict.
}
private val propertyNames = object : Mapping<PropertyDescriptor, String>() {
override fun conflict(first: PropertyDescriptor, second: PropertyDescriptor): Boolean =
!mapper.canHaveSameName(first, second)
}
private val classNames = object : Mapping<Any, String>() {
override fun conflict(first: Any, second: Any): Boolean = true
}
private val protocolNames = object : Mapping<Any, String>() {
override fun conflict(first: Any, second: Any): Boolean = true
}
fun getPackageName(fqName: FqName): String = classNames.getOrPut(fqName) {
StringBuilder().apply {
append(context.moduleDescriptor.namePrefix)
if (fqName.isRoot) {
append("TopLevel")
} else {
append(fqName.pathSegments().joinToString("") { it.asString().capitalize() })
}
}.mangledSequence { append("_") }
}
fun getClassOrProtocolName(descriptor: ClassDescriptor): String {
val mapping = if (descriptor.isInterface) protocolNames else classNames
return mapping.getOrPut(descriptor) {
StringBuilder().apply {
append(context.moduleDescriptor.namePrefix)
if (descriptor.module != context.moduleDescriptor) {
append(descriptor.module.namePrefix)
}
descriptor.parentsWithSelf.takeWhile { it is ClassDescriptor }
.toList().reversed()
.joinTo(this, "") { it.name.asString().capitalize() }
}.mangledSequence { append("_") }
}
}
fun getSelector(method: FunctionDescriptor): String = methodSelectors.getOrPut(method) {
assert(mapper.isBaseMethod(method))
val parameters = mapper.objCValueParameters(method)
StringBuilder().apply {
append(method.mangledName)
parameters.forEachIndexed { index, it ->
val name = when {
it is ReceiverParameterDescriptor -> ""
method is PropertySetterDescriptor -> when (parameters.size) {
1 -> ""
else -> "value"
}
else -> it.name.asString()
}
if (index == 0) {
if (method is ConstructorDescriptor) append("With")
append(name.capitalize())
} else {
append(name)
}
append(':')
}
}.mangledSequence {
if (parameters.isNotEmpty()) {
// "foo:" -> "foo_:"
insert(lastIndex, '_')
} else {
// "foo" -> "foo_"
append("_")
}
}
}
fun getSwiftName(method: FunctionDescriptor): String = methodSwiftNames.getOrPut(method) {
assert(mapper.isBaseMethod(method))
val parameters = mapper.objCValueParameters(method)
StringBuilder().apply {
append(method.mangledName)
append("(")
parameters.forEach {
val label = when {
it is ReceiverParameterDescriptor -> "_"
method is PropertySetterDescriptor -> when (parameters.size) {
1 -> "_"
else -> "value"
}
else -> it.name.asString()
}
append(label)
append(":")
}
append(")")
}.mangledSequence {
if (parameters.isNotEmpty()) {
// "foo(label:)" -> "foo(label_:)"
insert(lastIndex - 1, '_')
} else {
// "foo()" -> "foo_()"
insert(lastIndex - 2, '_')
}
}
}
fun getName(property: PropertyDescriptor): String = propertyNames.getOrPut(property) {
assert(mapper.isBaseProperty(property))
assert(mapper.isObjCProperty(property))
StringBuilder().apply {
append(property.name.asString())
}.mangledSequence {
append('_')
}
}
init {
val any = context.builtIns.any
classNames.forceAssign(any, kotlinAnyName)
fun ClassDescriptor.method(name: String) =
this.unsubstitutedMemberScope.getContributedFunctions(
Name.identifier(name),
NoLookupLocation.FROM_BACKEND
).single()
val hashCode = any.method("hashCode")
val toString = any.method("toString")
val equals = any.method("equals")
methodSelectors.forceAssign(hashCode, "hash")
methodSwiftNames.forceAssign(hashCode, "hash")
methodSelectors.forceAssign(toString, "description")
methodSwiftNames.forceAssign(toString, "description")
methodSelectors.forceAssign(equals, "isEqual:")
methodSwiftNames.forceAssign(equals, "isEqual(:)")
}
private val FunctionDescriptor.mangledName: String get() {
if (this is ConstructorDescriptor) {
return "init"
}
val candidate = when (this) {
is PropertyGetterDescriptor -> this.correspondingProperty.name.asString()
is PropertySetterDescriptor -> "set${this.correspondingProperty.name.asString().capitalize()}"
else -> this.name.asString()
}
val trimmedCandidate = candidate.dropWhile { it == '_' }
for (family in listOf("alloc", "copy", "mutableCopy", "new", "init")) {
if (trimmedCandidate.startsWithWords(family)) {
// Then method can be detected as having special family by Objective-C compiler.
// mangle the name:
return "do" + candidate.capitalize()
}
}
// TODO: handle clashes with NSObject methods etc.
return candidate
}
private fun String.startsWithWords(words: String) = this.startsWith(words) &&
(this.length == words.length || !this[words.length].isLowerCase())
private abstract inner class Mapping<T : Any, N>() {
private val elementToName = mutableMapOf<T, N>()
private val nameToElements = mutableMapOf<N, MutableList<T>>()
abstract fun conflict(first: T, second: T): Boolean
fun getOrPut(element: T, nameCandidates: () -> Sequence<N>): N {
getIfAssigned(element)?.let { return it }
nameCandidates().forEach {
if (tryAssign(element, it)) {
return it
}
}
error("name candidates run out")
}
fun getIfAssigned(element: T): N? = elementToName[element]
fun tryAssign(element: T, name: N): Boolean {
if (element in elementToName) error(element)
val elements = nameToElements.getOrPut(name) { mutableListOf() }
if (elements.any { conflict(element, it) }) {
return false
}
elements += element
elementToName[element] = name
return true
}
fun forceAssign(element: T, name: N) {
if (name in nameToElements || element in elementToName) error(element)
nameToElements[name] = mutableListOf(element)
elementToName[element] = name
}
}
}
private inline fun StringBuilder.mangledSequence(crossinline mangle: StringBuilder.() -> Unit) =
generateSequence(this.toString()) {
this@mangledSequence.mangle()
this@mangledSequence.toString()
}
private fun ObjCExportMapper.canHaveCommonSubtype(first: ClassDescriptor, second: ClassDescriptor): Boolean {
assert(shouldBeExposed(first))
assert(shouldBeExposed(second))
if (first.isSubclassOf(second) || second.isSubclassOf(first)) {
return true
}
if (first.isFinalClass || second.isFinalClass) {
return false
}
return first.isInterface || second.isInterface
}
private fun ObjCExportMapper.canBeInheritedBySameClass(
first: CallableMemberDescriptor,
second: CallableMemberDescriptor
): Boolean {
if (this.isTopLevel(first) || this.isTopLevel(second)) {
return (first.containingDeclaration.fqNameSafe == second.containingDeclaration.fqNameSafe)
}
val firstClass = this.getClassIfCategory(first) ?: first.containingDeclaration as ClassDescriptor
val secondClass = this.getClassIfCategory(second) ?: second.containingDeclaration as ClassDescriptor
if (first is ConstructorDescriptor) {
return firstClass == secondClass || second !is ConstructorDescriptor && firstClass.isSubclassOf(secondClass)
}
if (second is ConstructorDescriptor) {
return secondClass == firstClass || first !is ConstructorDescriptor && secondClass.isSubclassOf(firstClass)
}
return canHaveCommonSubtype(firstClass, secondClass)
}
private fun ObjCExportMapper.canHaveSameSelector(first: FunctionDescriptor, second: FunctionDescriptor): Boolean {
assert(isBaseMethod(first))
assert(isBaseMethod(second))
if (!canBeInheritedBySameClass(first, second)) {
return true
}
if (first.dispatchReceiverParameter == null || second.dispatchReceiverParameter == null) {
// I.e. any is category method.
return false
}
if (first.name != second.name) {
return false
}
if (first.extensionReceiverParameter?.type != second.extensionReceiverParameter?.type) {
return false
}
if (first.valueParameters.map { it.type } != second.valueParameters.map { it.type }) {
return false
}
// Otherwise both are Kotlin member methods should merge in any common subclass.
// Taking into account the conditions above, check if methods have the same ABI:
return bridgeReturnType(first) == bridgeReturnType(second)
}
private fun ObjCExportMapper.canHaveSameName(first: PropertyDescriptor, second: PropertyDescriptor): Boolean {
assert(isBaseProperty(first))
assert(isObjCProperty(first))
assert(isBaseProperty(second))
assert(isObjCProperty(second))
if (!canBeInheritedBySameClass(first, second)) {
return true
}
if (first.dispatchReceiverParameter == null || second.dispatchReceiverParameter == null) {
// I.e. any is category property.
return false
}
return bridgePropertyType(first) == bridgePropertyType(second)
}
private val ModuleDescriptor.namePrefix: String get() {
// <fooBar> -> FooBar
val moduleName = this.name.asString().let { it.substring(1, it.lastIndex) }.capitalize()
val uppers = moduleName.filterIndexed { index, character -> index == 0 || character.isUpperCase() }
if (uppers.length >= 3) return uppers
return moduleName
}
+3 -3
View File
@@ -39,7 +39,7 @@ llvmLtoFlags.osx =
llvmLtoOptFlags.osx = -O3 -function-sections
llvmLtoNooptFlags.osx = -O1
llvmLtoDynamicFlags.osx = -relocation-model=pic
linkerKonanFlags.osx = -lc++ -lobjc
linkerKonanFlags.osx = -lc++ -lobjc -framework Foundation
linkerOptimizationFlags.osx = -dead_strip
linkerDebugFlags.osx = -S
linkerDynamicFlags.osx = -S -dylib
@@ -66,7 +66,7 @@ llvmLtoFlags.ios =
llvmLtoOptFlags.ios = -O3 -function-sections
linkerDebugFlags.ios = -S
llvmLtoNooptFlags.ios = -O1
linkerKonanFlags.ios = -lc++ -lobjc -sdk_version 10.2
linkerKonanFlags.ios = -lc++ -lobjc -framework Foundation -sdk_version 10.2
linkerOptimizationFlags.ios = -dead_strip
osVersionMinFlagLd.ios = -iphoneos_version_min
osVersionMinFlagClang.ios = -miphoneos-version-min
@@ -86,7 +86,7 @@ libffiDir.ios_sim = libffi-3.2.1-2-darwin-ios-sim
llvmLtoFlags.ios_sim =
llvmLtoOptFlags.ios_sim = -O3 -function-sections
llvmLtoNooptFlags.ios_sim = -O1
linkerKonanFlags.ios_sim = -lc++ -lobjc -sdk_version 10.2
linkerKonanFlags.ios_sim = -lc++ -lobjc -framework Foundation -sdk_version 10.2
linkerOptimizationFlags.ios_sim = -dead_strip
linkerDebugFlags.ios_sim = -S
osVersionMinFlagLd.ios_sim = -ios_simulator_version_min
+5
View File
@@ -33,6 +33,11 @@ inline void konanFreeMemory(void* memory) {
konan::free(memory);
}
template<typename T>
inline T* konanAllocArray(size_t length) {
return reinterpret_cast<T*>(konanAllocMemory(length * sizeof(T)));
}
template <typename T, typename ...A>
inline T* konanConstructInstance(A&& ...args) {
return new (konanAllocMemory(sizeof(T))) T(::std::forward<A>(args)...);
+5
View File
@@ -30,4 +30,9 @@
#define ARRAY_SIZE(a) (sizeof(a) / sizeof(a[0]))
#if KONAN_OBJC_INTEROP
#define KONAN_OBJECTS_CAN_HAVE_RESERVED_TAIL 1
#define KONAN_TYPE_INFO_HAS_WRITABLE_PART 1
#endif
#endif // RUNTIME_COMMON_H
+38 -11
View File
@@ -27,6 +27,7 @@
#include "Assert.h"
#include "Exceptions.h"
#include "Memory.h"
#include "MemoryPrivate.hpp"
#include "Natives.h"
// If garbage collection algorithm for cyclic garbage to be used.
@@ -349,10 +350,6 @@ inline bool isFreeable(const ContainerHeader* header) {
return (header->refCount_ & CONTAINER_TAG_MASK) < CONTAINER_TAG_PERMANENT;
}
inline bool isPermanent(const ContainerHeader* header) {
return (header->refCount_ & CONTAINER_TAG_MASK) == CONTAINER_TAG_PERMANENT;
}
inline bool isArena(const ContainerHeader* header) {
return (header->refCount_ & CONTAINER_TAG_MASK) == CONTAINER_TAG_STACK;
}
@@ -361,14 +358,21 @@ inline container_size_t alignUp(container_size_t size, int alignment) {
return (size + alignment - 1) & ~(alignment - 1);
}
#if KONAN_OBJECTS_CAN_HAVE_RESERVED_TAIL
// Note: defined by a compiler-generated bitcode.
extern "C" const container_size_t kObjectReservedTailSize;
#else
constexpr container_size_t kObjectReservedTailSize = 0;
#endif
// TODO: shall we do padding for alignment?
inline container_size_t objectSize(const ObjHeader* obj) {
const TypeInfo* type_info = obj->type_info();
container_size_t size = type_info->instanceSize_ < 0 ?
container_size_t size = kObjectReservedTailSize + (type_info->instanceSize_ < 0 ?
// An array.
ArrayDataSizeBytes(obj->array()) + sizeof(ArrayHeader)
:
type_info->instanceSize_ + sizeof(ObjHeader);
type_info->instanceSize_ + sizeof(ObjHeader));
return alignUp(size, kObjectAlignment);
}
@@ -393,6 +397,7 @@ inline bool isRefCounted(KConstRef object) {
extern "C" {
void objc_release(void* ptr);
void Kotlin_ObjCExport_releaseReservedObjectTail(ObjHeader* obj);
}
inline void runDeallocationHooks(ObjHeader* obj) {
@@ -400,6 +405,10 @@ inline void runDeallocationHooks(ObjHeader* obj) {
if (obj->type_info() == theObjCPointerHolderTypeInfo) {
void* objcPtr = *reinterpret_cast<void**>(obj + 1); // TODO: use more reliable layout description
objc_release(objcPtr);
} else {
if (HasReservedObjectTail(obj)) {
Kotlin_ObjCExport_releaseReservedObjectTail(obj);
}
}
#endif
}
@@ -756,7 +765,7 @@ ContainerHeader* AllocContainer(size_t size) {
// TODO: try to reuse elements of finalizer queue for new allocations, question
// is how to get actual size of container.
#endif
ContainerHeader* result = konanConstructSizedInstance<ContainerHeader>(size);
ContainerHeader* result = konanConstructSizedInstance<ContainerHeader>(alignUp(size, kObjectAlignment));
CONTAINER_ALLOC_EVENT(state, size, result);
#if TRACE_MEMORY
state->containers->insert(result);
@@ -794,7 +803,7 @@ void FreeContainer(ContainerHeader* header) {
void ObjectContainer::Init(const TypeInfo* type_info) {
RuntimeAssert(type_info->instanceSize_ >= 0, "Must be an object");
uint32_t alloc_size =
sizeof(ContainerHeader) + sizeof(ObjHeader) + type_info->instanceSize_;
sizeof(ContainerHeader) + sizeof(ObjHeader) + type_info->instanceSize_ + kObjectReservedTailSize;
header_ = AllocContainer(alloc_size);
if (header_) {
// One object in this container.
@@ -810,7 +819,7 @@ void ArrayContainer::Init(const TypeInfo* type_info, uint32_t elements) {
RuntimeAssert(type_info->instanceSize_ < 0, "Must be an array");
uint32_t alloc_size =
sizeof(ContainerHeader) + sizeof(ArrayHeader) -
type_info->instanceSize_ * elements;
type_info->instanceSize_ * elements + kObjectReservedTailSize;
header_ = AllocContainer(alloc_size);
RuntimeAssert(header_ != nullptr, "Cannot alloc memory");
if (header_) {
@@ -893,7 +902,7 @@ ObjHeader** ArenaContainer::getSlot() {
ObjHeader* ArenaContainer::PlaceObject(const TypeInfo* type_info) {
RuntimeAssert(type_info->instanceSize_ >= 0, "must be an object");
uint32_t size = type_info->instanceSize_ + sizeof(ObjHeader);
uint32_t size = type_info->instanceSize_ + sizeof(ObjHeader) + kObjectReservedTailSize;
ObjHeader* result = reinterpret_cast<ObjHeader*>(place(size));
if (!result) {
return nullptr;
@@ -906,7 +915,7 @@ ObjHeader* ArenaContainer::PlaceObject(const TypeInfo* type_info) {
ArrayHeader* ArenaContainer::PlaceArray(const TypeInfo* type_info, uint32_t count) {
RuntimeAssert(type_info->instanceSize_ < 0, "must be an array");
container_size_t size = sizeof(ArrayHeader) - type_info->instanceSize_ * count;
container_size_t size = sizeof(ArrayHeader) - type_info->instanceSize_ * count + kObjectReservedTailSize;
ArrayHeader* result = reinterpret_cast<ArrayHeader*>(place(size));
if (!result) {
return nullptr;
@@ -928,6 +937,14 @@ inline void ReleaseRef(const ObjHeader* object) {
Release(object->container());
}
void AddRefFromAssociatedObject(const ObjHeader* object) {
AddRef(object);
}
void ReleaseRefFromAssociatedObject(const ObjHeader* object) {
ReleaseRef(object);
}
extern "C" {
MemoryState* InitMemory() {
@@ -1036,6 +1053,16 @@ OBJ_GETTER(InitInstance,
#endif
}
bool HasReservedObjectTail(ObjHeader* obj) {
return kObjectReservedTailSize != 0 && !isPermanent(obj);
}
void* GetReservedObjectTail(ObjHeader* obj) {
return reinterpret_cast<void*>(
reinterpret_cast<uintptr_t>(obj) + objectSize(obj) - kObjectReservedTailSize
);
}
void SetRef(ObjHeader** location, const ObjHeader* object) {
MEMORY_LOG("SetRef *%p: %p\n", location, object)
*const_cast<const ObjHeader**>(location) = object;
+13
View File
@@ -115,6 +115,10 @@ struct ContainerHeader {
}
};
inline bool isPermanent(const ContainerHeader* header) {
return (header->refCount_ & CONTAINER_TAG_MASK) == CONTAINER_TAG_PERMANENT;
}
struct ArrayHeader;
// Header of every object.
@@ -153,6 +157,10 @@ struct ObjHeader {
const ArrayHeader* array() const { return reinterpret_cast<const ArrayHeader*>(this); }
};
inline bool isPermanent(const ObjHeader* obj) {
return isPermanent(obj->container());
}
// Header of value type array objects. Keep layout in sync with that of object header.
struct ArrayHeader {
const TypeInfo* type_info_;
@@ -331,6 +339,11 @@ void DeinitInstanceBody(const TypeInfo* typeInfo, void* body);
OBJ_GETTER(InitInstance, ObjHeader** location, const TypeInfo* type_info,
void (*ctor)(ObjHeader*));
// Returns true iff the object has space reserved in its tail for special purposes.
bool HasReservedObjectTail(ObjHeader* obj) RUNTIME_NOTHROW;
// Returns the pointer to the reserved space, `HasReservedObjectTail(obj)` must be true.
void* GetReservedObjectTail(ObjHeader* obj) RUNTIME_NOTHROW;
//
// Object reference management.
//
+25
View File
@@ -0,0 +1,25 @@
/*
* Copyright 2010-2017 JetBrains s.r.o.
*
* 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.
*/
#ifndef RUNTIME_MEMORYPRIVATE_HPP
#define RUNTIME_MEMORYPRIVATE_HPP
#include "Memory.h"
void AddRefFromAssociatedObject(const ObjHeader* object) RUNTIME_NOTHROW;
void ReleaseRefFromAssociatedObject(const ObjHeader* object) RUNTIME_NOTHROW;
#endif // RUNTIME_MEMORYPRIVATE_HPP
+941
View File
@@ -0,0 +1,941 @@
/*
* Copyright 2010-2017 JetBrains s.r.o.
*
* 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.
*/
#import "Types.h"
#import "Memory.h"
#if KONAN_OBJC_INTEROP
#import <Foundation/NSObject.h>
#import <Foundation/NSArray.h>
#import <Foundation/NSValue.h>
#import <Foundation/NSString.h>
#import <Foundation/NSNull.h>
#import <Foundation/NSMethodSignature.h>
#import <Foundation/NSException.h>
#import <objc/runtime.h>
#import "MemoryPrivate.hpp"
#import "Runtime.h"
#import "Utils.h"
struct ObjCToKotlinMethodAdapter {
const char* selector;
const char* encoding;
IMP imp;
};
struct KotlinToObjCMethodAdapter {
const char* selector;
MethodNameHash nameSignature;
int vtableIndex;
const void* kotlinImpl;
};
struct ObjCTypeAdapter {
const TypeInfo* kotlinTypeInfo;
const void * const * kotlinVtable;
int kotlinVtableSize;
const MethodTableRecord* kotlinMethodTable;
int kotlinMethodTableSize;
const char* objCName;
const ObjCToKotlinMethodAdapter* directAdapters;
int directAdapterNum;
const ObjCToKotlinMethodAdapter* virtualAdapters;
int virtualAdapterNum;
const KotlinToObjCMethodAdapter* reverseAdapters;
int reverseAdapterNum;
};
typedef id (*convertReferenceToObjC)(ObjHeader* obj);
struct TypeInfoObjCExportAddition {
convertReferenceToObjC convert;
Class objCClass;
const ObjCTypeAdapter* typeAdapter;
};
struct WritableTypeInfo {
TypeInfoObjCExportAddition objCExport;
};
static char associatedTypeInfoKey;
static const TypeInfo* getAssociatedTypeInfo(Class clazz) {
return (const TypeInfo*)[objc_getAssociatedObject(clazz, &associatedTypeInfoKey) pointerValue];
}
static void setAssociatedTypeInfo(Class clazz, const TypeInfo* typeInfo) {
objc_setAssociatedObject(clazz, &associatedTypeInfoKey, [NSValue valueWithPointer:typeInfo], OBJC_ASSOCIATION_RETAIN);
}
inline static bool HasAssociatedObjectField(ObjHeader* obj) {
return HasReservedObjectTail(obj);
}
inline static void SetAssociatedObject(ObjHeader* obj, id value) {
*reinterpret_cast<id*>(GetReservedObjectTail(obj)) = value;
}
extern "C" inline id Kotlin_ObjCExport_GetAssociatedObject(ObjHeader* obj) {
return *reinterpret_cast<id*>(GetReservedObjectTail(obj));
}
inline static OBJ_GETTER(AllocInstanceWithAssociatedObject, const TypeInfo* typeInfo, id associatedObject) {
ObjHeader* result = AllocInstance(typeInfo, OBJ_RESULT);
RuntimeAssert(HasAssociatedObjectField(result), "");
SetAssociatedObject(result, associatedObject);
return result;
}
static void initializeClass(Class clazz);
@protocol ConvertibleToKotlin
@required
-(KRef)toKotlin:(KRef*)OBJ_RESULT;
@end;
@interface KotlinBase : NSObject <ConvertibleToKotlin>
@end;
@implementation KotlinBase {
KRef kotlinObj;
}
-(KRef)toKotlin:(KRef*)OBJ_RESULT {
RETURN_OBJ(kotlinObj);
}
+(void)initialize {
initializeClass(self);
}
+(instancetype)allocWithZone:(NSZone*)zone {
Kotlin_initRuntimeIfNeeded();
KotlinBase* result = [super allocWithZone:zone];
const TypeInfo* typeInfo = getAssociatedTypeInfo(self);
if (typeInfo == nullptr) {
[NSException raise:NSGenericException
format:@"%s is not allocatable or +[KotlinBase initialize] method wasn't called on it",
class_getName(object_getClass(self))];
}
if (typeInfo->instanceSize_ < 0) {
[NSException raise:NSGenericException
format:@"Allocating %s is not supported yet",
class_getName(object_getClass(self))];
}
AllocInstanceWithAssociatedObject(typeInfo, result, &result->kotlinObj);
return result;
}
+(instancetype)createWrapper:(ObjHeader*)obj {
KotlinBase* result = [super allocWithZone:nil];
// TODO: should we call NSObject.init ?
UpdateRef(&result->kotlinObj, obj);
if (!isPermanent(obj)) {
RuntimeAssert(HasAssociatedObjectField(obj), "");
SetAssociatedObject(obj, result);
}
// TODO: permanent objects should probably be supported as custom types.
return [result autorelease];
}
-(instancetype)retain {
ObjHeader* obj = kotlinObj;
if (isPermanent(obj)) { // TODO: consider storing `isPermanent` to self field.
[super retain];
} else {
AddRefFromAssociatedObject(obj);
}
return self;
}
-(oneway void)release {
ObjHeader* obj = kotlinObj;
if (isPermanent(obj)) {
[super release];
} else {
ReleaseRefFromAssociatedObject(kotlinObj);
}
}
-(void)releaseAsAssociatedObject {
RuntimeAssert(!isPermanent(kotlinObj), "");
[super release];
}
@end;
extern "C" void Kotlin_ObjCExport_releaseReservedObjectTail(ObjHeader* obj) {
RuntimeAssert(HasAssociatedObjectField(obj), "");
id associatedObject = Kotlin_ObjCExport_GetAssociatedObject(obj);
if (associatedObject != nullptr) {
[associatedObject releaseAsAssociatedObject];
}
}
static const ObjCTypeAdapter* findAdapterByName(
const char* name,
const ObjCTypeAdapter** sortedAdapters,
int adapterNum
) {
int left = 0, right = adapterNum - 1;
while (right >= left) {
int mid = (left + right) / 2;
int cmp = strcmp(name, sortedAdapters[mid]->objCName);
if (cmp < 0) {
right = mid - 1;
} else if (cmp > 0) {
left = mid + 1;
} else {
return sortedAdapters[mid];
}
}
return nullptr;
}
__attribute__((weak)) const ObjCTypeAdapter** Kotlin_ObjCExport_sortedClassAdapters = nullptr;
__attribute__((weak)) int Kotlin_ObjCExport_sortedClassAdaptersNum = 0;
__attribute__((weak)) const ObjCTypeAdapter** Kotlin_ObjCExport_sortedProtocolAdapters = nullptr;
__attribute__((weak)) int Kotlin_ObjCExport_sortedProtocolAdaptersNum = 0;
static const ObjCTypeAdapter* findClassAdapter(Class clazz) {
return findAdapterByName(class_getName(clazz),
Kotlin_ObjCExport_sortedClassAdapters,
Kotlin_ObjCExport_sortedClassAdaptersNum
);
}
static const ObjCTypeAdapter* findProtocolAdapter(Protocol* prot) {
return findAdapterByName(protocol_getName(prot),
Kotlin_ObjCExport_sortedProtocolAdapters,
Kotlin_ObjCExport_sortedProtocolAdaptersNum
);
}
static const ObjCTypeAdapter* getTypeAdapter(const TypeInfo* typeInfo) {
return typeInfo->writableInfo_->objCExport.typeAdapter;
}
static Protocol* getProtocolForInterface(const TypeInfo* interfaceInfo) {
const ObjCTypeAdapter* protocolAdapter = getTypeAdapter(interfaceInfo);
if (protocolAdapter != nullptr) {
Protocol* protocol = objc_getProtocol(protocolAdapter->objCName);
if (protocol != nullptr) {
return protocol;
} else {
// TODO: construct the protocol in compiler instead, because this case can't be handled easily.
}
}
return nullptr;
}
static const TypeInfo* getOrCreateTypeInfo(Class clazz);
static void initializeClass(Class clazz) {
const ObjCTypeAdapter* typeAdapter = findClassAdapter(clazz);
if (typeAdapter == nullptr) {
getOrCreateTypeInfo(clazz);
return;
}
const TypeInfo* typeInfo = typeAdapter->kotlinTypeInfo;
bool isClassForPackage = typeInfo == nullptr;
if (!isClassForPackage) {
setAssociatedTypeInfo(clazz, typeInfo);
}
for (int i = 0; i < typeAdapter->directAdapterNum; ++i) {
const ObjCToKotlinMethodAdapter* adapter = typeAdapter->directAdapters + i;
SEL selector = sel_registerName(adapter->selector);
Class methodContainer = isClassForPackage ? object_getClass(clazz) : clazz;
BOOL added = class_addMethod(methodContainer, selector, adapter->imp, adapter->encoding);
RuntimeAssert(added, "Unexpected selector clash");
}
if (isClassForPackage) return;
for (int i = 0; i < typeInfo->implementedInterfacesCount_; ++i) {
Protocol* protocol = getProtocolForInterface(typeInfo->implementedInterfaces_[i]);
if (protocol != nullptr) {
class_addProtocol(clazz, protocol);
class_addProtocol(object_getClass(clazz), protocol);
}
}
}
@interface NSObject (NSObjectToKotlin) <ConvertibleToKotlin>
@end;
extern "C" id objc_retain(id self);
extern "C" id objc_retainBlock(id self);
extern "C" void objc_release(id self);
extern "C" id objc_retainAutoreleaseReturnValue(id self);
@implementation NSObject (NSObjectToKotlin)
-(ObjHeader*)toKotlin:(ObjHeader**)OBJ_RESULT {
const TypeInfo* typeInfo = getOrCreateTypeInfo(object_getClass(self));
RETURN_RESULT_OF(AllocInstanceWithAssociatedObject, typeInfo, objc_retain(self));
}
-(void)releaseAsAssociatedObject {
objc_release(self);
}
@end;
@interface NSString (NSStringToKotlin) <ConvertibleToKotlin>
@end;
extern "C" OBJ_GETTER(Kotlin_Interop_CreateKStringFromNSString, NSString* str);
@implementation NSString (NSStringToKotlin)
-(ObjHeader*)toKotlin:(ObjHeader**)OBJ_RESULT {
RETURN_RESULT_OF(Kotlin_Interop_CreateKStringFromNSString, self);
}
@end;
@interface NSArray (NSArrayToKotlin) <ConvertibleToKotlin>
@end;
extern "C" void Kotlin_NSArrayList_constructor(ObjHeader* obj);
extern const TypeInfo *theNSArrayListTypeInfo;
@implementation NSArray (NSArrayToKotlin)
-(ObjHeader*)toKotlin:(ObjHeader**)OBJ_RESULT {
ObjHeader* result = AllocInstanceWithAssociatedObject(theNSArrayListTypeInfo, objc_retain(self), OBJ_RESULT);
Kotlin_NSArrayList_constructor(result);
return result;
}
-(void)releaseAsAssociatedObject {
objc_release(self);
}
@end;
extern "C" {
OBJ_GETTER(Kotlin_boxBoolean, KBoolean value);
OBJ_GETTER(Kotlin_boxChar, KChar value);
OBJ_GETTER(Kotlin_boxByte, KByte value);
OBJ_GETTER(Kotlin_boxShort, KShort value);
OBJ_GETTER(Kotlin_boxInt, KInt value);
OBJ_GETTER(Kotlin_boxLong, KLong value);
OBJ_GETTER(Kotlin_boxFloat, KFloat value);
OBJ_GETTER(Kotlin_boxDouble, KDouble value);
}
@interface NSNumber (NSNumberToKotlin) <ConvertibleToKotlin>
@end;
static Class __NSCFBooleanClass = nullptr;
@implementation NSNumber (NSNumberToKotlin)
-(ObjHeader*)toKotlin:(ObjHeader**)OBJ_RESULT {
const char* type = self.objCType;
// TODO: the code below makes some assumption on char, short, int and long sizes.
switch (type[0]) {
case 'S': RETURN_RESULT_OF(Kotlin_boxChar, self.unsignedShortValue);
case 'c': {
Class booleanClass = __NSCFBooleanClass;
if (booleanClass == nullptr) {
// Note: __NSCFBoolean is not visible to linker, so this case can't be handled with a category.
booleanClass = __NSCFBooleanClass = objc_getClass("__NSCFBoolean");
if (booleanClass == nullptr) {
[NSException raise:NSGenericException format:@"__NSCFBoolean class not found"];
}
}
if (object_getClass(self) == booleanClass) {
RETURN_RESULT_OF(Kotlin_boxBoolean, self.boolValue);
} else {
RETURN_RESULT_OF(Kotlin_boxByte, self.charValue);
}
}
case 's': RETURN_RESULT_OF(Kotlin_boxShort, self.shortValue);
case 'i': RETURN_RESULT_OF(Kotlin_boxInt, self.intValue);
case 'q': RETURN_RESULT_OF(Kotlin_boxLong, self.longLongValue);
case 'f': RETURN_RESULT_OF(Kotlin_boxFloat, self.floatValue);
case 'd': RETURN_RESULT_OF(Kotlin_boxDouble, self.doubleValue);
default: return [super toKotlin:OBJ_RESULT];
}
}
@end;
@interface KListNSArray : NSArray <ConvertibleToKotlin>
@end;
extern "C" OBJ_GETTER(Kotlin_List_get, ObjHeader* list, KInt index);
extern "C" KInt Kotlin_List_getSize(ObjHeader* list);
extern "C" id Kotlin_ObjCExport_refToObjC(ObjHeader* obj);
@implementation KListNSArray {
ObjHeader* list;
}
-(void)dealloc {
UpdateRef(&list, nullptr);
[super dealloc];
}
+(id)createWithKList:(ObjHeader*)list {
KListNSArray* result = [[[KListNSArray alloc] init] autorelease];
UpdateRef(&result->list, list);
return result;
}
-(ObjHeader*)toKotlin:(ObjHeader**)OBJ_RESULT {
RETURN_OBJ(list);
}
-(id)objectAtIndex:(NSUInteger)index {
ObjHolder kotlinValueHolder;
ObjHeader* kotlinValue = Kotlin_List_get(list, index, kotlinValueHolder.slot());
if (kotlinValue == nullptr) return [NSNull null];
return Kotlin_ObjCExport_refToObjC(kotlinValue);
}
-(NSUInteger)count {
return Kotlin_List_getSize(list);
}
@end;
@interface NSBlock <NSObject>
@end;
@interface NSBlock (NSBlockToKotlin) <ConvertibleToKotlin>
@end;
struct Block_descriptor_1;
// Based on https://clang.llvm.org/docs/Block-ABI-Apple.html and libclosure source.
struct Block_literal_1 {
void *isa; // initialized to &_NSConcreteStackBlock or &_NSConcreteGlobalBlock
int flags;
int reserved;
void (*invoke)(void *, ...);
struct Block_descriptor_1 *descriptor; // IFF (1<<25)
// Or:
// struct Block_descriptor_1_without_helpers* descriptor // if hasn't (1<<25).
// imported variables
};
struct Block_descriptor_1 {
unsigned long int reserved; // NULL
unsigned long int size; // sizeof(struct Block_literal_1)
// optional helper functions
void (*copy_helper)(void *dst, void *src);
void (*dispose_helper)(void *src);
// required ABI.2010.3.16
const char *signature; // IFF (1<<30)
const void* layout; // IFF (1<<31)
};
struct Block_descriptor_1_without_helpers {
unsigned long int reserved; // NULL
unsigned long int size; // sizeof(struct Block_literal_1)
// required ABI.2010.3.16
const char *signature; // IFF (1<<30)
const void* layout; // IFF (1<<31)
};
static const char* getBlockEncoding(id block) {
Block_literal_1* literal = reinterpret_cast<Block_literal_1*>(block);
int flags = literal->flags;
RuntimeAssert((flags & (1 << 30)) != 0, "block has no signature stored");
return (flags & (1 << 25)) != 0 ?
literal->descriptor->signature :
reinterpret_cast<struct Block_descriptor_1_without_helpers*>(literal->descriptor)->signature;
}
// Note: replaced by compiler in appropriate compilation modes.
__attribute__((weak)) const TypeInfo * const * Kotlin_ObjCExport_functionAdaptersToBlock = nullptr;
static const TypeInfo* getFunctionTypeInfoForBlock(id block) {
const char* encoding = getBlockEncoding(block);
// TODO: optimize:
NSMethodSignature *signature = [NSMethodSignature signatureWithObjCTypes:encoding];
int parameterCount = signature.numberOfArguments - 1; // 1 for the block itself.
if (parameterCount > 22) {
[NSException raise:NSGenericException format:@"Blocks with %d (>22) parameters aren't supported", parameterCount];
}
for (int i = 1; i <= parameterCount; ++i) {
const char* argEncoding = [signature getArgumentTypeAtIndex:i];
if (argEncoding[0] != '@') {
[NSException raise:NSGenericException
format:@"Blocks with non-reference-typed arguments aren't supported (%s)", argEncoding];
}
}
const char* returnTypeEncoding = signature.methodReturnType;
if (returnTypeEncoding[0] != '@') {
[NSException raise:NSGenericException
format:@"Blocks with non-reference-typed return value aren't supported (%s)", returnTypeEncoding];
}
// TODO: support Unit-as-void.
return Kotlin_ObjCExport_functionAdaptersToBlock[parameterCount];
}
@implementation NSBlock (NSBlockToKotlin)
-(ObjHeader*)toKotlin:(ObjHeader**)OBJ_RESULT {
const TypeInfo* typeInfo = getFunctionTypeInfoForBlock(self);
RETURN_RESULT_OF(AllocInstanceWithAssociatedObject, typeInfo, objc_retainBlock(self));
// TODO: call (Any) constructor?
}
-(void)releaseAsAssociatedObject {
objc_release(self);
}
@end;
extern "C" id Kotlin_Interop_CreateNSArrayFromKList(ObjHeader* obj) {
return [KListNSArray createWithKList:obj];
}
static id Kotlin_ObjCExport_refToObjC_slowpath(ObjHeader* obj);
extern "C" id Kotlin_ObjCExport_refToObjC(ObjHeader* obj) {
if (obj == nullptr) return nullptr;
if (HasAssociatedObjectField(obj)) {
id associatedObject = Kotlin_ObjCExport_GetAssociatedObject(obj);
if (associatedObject != nullptr) {
return objc_retainAutoreleaseReturnValue(associatedObject);
}
}
convertReferenceToObjC converter = obj->type_info()->writableInfo_->objCExport.convert;
if (converter != nullptr) {
return converter(obj);
}
return Kotlin_ObjCExport_refToObjC_slowpath(obj);
}
extern "C" OBJ_GETTER(Kotlin_ObjCExport_refFromObjC, id obj) {
if (obj == nullptr) RETURN_OBJ(nullptr);
id convertible = (id<ConvertibleToKotlin>)obj;
return [convertible toKotlin:OBJ_RESULT];
}
static Class getOrCreateClass(const TypeInfo* typeInfo);
static id convertKotlinObject(ObjHeader* obj) {
Class clazz = obj->type_info()->writableInfo_->objCExport.objCClass;
RuntimeAssert(clazz != nullptr, "");
return [clazz createWrapper:obj];
}
static id Kotlin_ObjCExport_refToObjC_slowpath(ObjHeader* obj) {
const TypeInfo* typeInfo = obj->type_info();
convertReferenceToObjC converter = nullptr;
for (int i = 0; i < typeInfo->implementedInterfacesCount_; ++i) {
converter = typeInfo->implementedInterfaces_[i]->writableInfo_->objCExport.convert;
if (converter != nullptr) break;
}
if (converter == nullptr) {
getOrCreateClass(typeInfo);
converter = &convertKotlinObject;
}
typeInfo->writableInfo_->objCExport.convert = converter;
return converter(obj);
}
extern "C" KInt Kotlin_NSArrayList_getSize(ObjHeader* obj) {
NSArray* array = (NSArray*) Kotlin_ObjCExport_GetAssociatedObject(obj);
return [array count];
}
extern "C" OBJ_GETTER(Kotlin_NSArrayList_getElement, ObjHeader* obj, KInt index) {
NSArray* array = (NSArray*) Kotlin_ObjCExport_GetAssociatedObject(obj);
id element = [array objectAtIndex:index];
if (element == NSNull.null) RETURN_OBJ(nullptr);
RETURN_RESULT_OF(Kotlin_ObjCExport_refFromObjC, element);
}
static const TypeInfo* createTypeInfo(
const TypeInfo* superType,
const KStdVector<const TypeInfo*>& superInterfaces,
const KStdVector<const void*>& vtable,
const KStdVector<MethodTableRecord>& methodTable
) {
TypeInfo* result = (TypeInfo*)konanAllocMemory(sizeof(TypeInfo) + vtable.size() * sizeof(void*));
MakeGlobalHash(nullptr, 0, &result->name_);
result->instanceSize_ = superType->instanceSize_;
result->superType_ = superType;
result->objOffsets_ = superType->objOffsets_;
result->objOffsetsCount_ = superType->objOffsetsCount_;
KStdVector<const TypeInfo*> implementedInterfaces(
superType->implementedInterfaces_, superType->implementedInterfaces_ + superType->implementedInterfacesCount_
);
KStdUnorderedSet<const TypeInfo*> usedInterfaces(implementedInterfaces.begin(), implementedInterfaces.end());
for (const TypeInfo* interface : superInterfaces) {
if (usedInterfaces.insert(interface).second) {
implementedInterfaces.push_back(interface);
}
}
const TypeInfo** implementedInterfaces_ = konanAllocArray<const TypeInfo*>(implementedInterfaces.size());
for (int i = 0; i < implementedInterfaces.size(); ++i) {
implementedInterfaces_[i] = implementedInterfaces[i];
}
result->implementedInterfaces_ = implementedInterfaces_;
result->implementedInterfacesCount_ = implementedInterfaces.size();
MethodTableRecord* openMethods_ = konanAllocArray<MethodTableRecord>(methodTable.size());
for (int i = 0; i < methodTable.size(); ++i) openMethods_[i] = methodTable[i];
result->openMethods_ = openMethods_;
result->openMethodsCount_ = methodTable.size();
result->fields_ = nullptr;
result->fieldsCount_ = 0;
result->packageName_ = nullptr;
result->relativeName_ = nullptr; // TODO: add some info.
result->writableInfo_ = (WritableTypeInfo*)konanAllocMemory(sizeof(WritableTypeInfo));
for (int i = 0; i < vtable.size(); ++i) result->vtable()[i] = vtable[i];
return result;
}
static void addDefinedSelectors(Class clazz, KStdUnorderedSet<SEL>& result) {
unsigned int objcMethodCount;
Method* objcMethods = class_copyMethodList(clazz, &objcMethodCount);
for (int i = 0; i < objcMethodCount; ++i) {
result.insert(method_getName(objcMethods[i]));
}
if (objcMethods != nullptr) free(objcMethods);
}
static KStdVector<const TypeInfo*> getProtocolsAsInterfaces(Class clazz) {
KStdVector<const TypeInfo*> result;
unsigned int protocolCount;
Protocol** protocols = class_copyProtocolList(clazz, &protocolCount);
if (protocols == nullptr) return result;
for (int i = 0; i < protocolCount; ++i) {
Protocol* protocol = protocols[i];
const ObjCTypeAdapter* typeAdapter = findProtocolAdapter(protocol);
if (typeAdapter != nullptr) result.push_back(typeAdapter->kotlinTypeInfo);
}
if (protocols != nullptr) free(protocols);
return result;
}
static const TypeInfo* getMostSpecificKotlinClass(const TypeInfo* typeInfo) {
const TypeInfo* result = typeInfo;
while (getTypeAdapter(result) == nullptr) {
result = result->superType_;
RuntimeAssert(result != nullptr, "");
}
return result;
}
static void insertOrReplace(KStdVector<MethodTableRecord>& methodTable, MethodNameHash nameSignature, void* entryPoint) {
MethodTableRecord record = {nameSignature, entryPoint};
for (int i = methodTable.size() - 1; i >= 0; --i) {
if (methodTable[i].nameSignature_ == nameSignature) {
methodTable[i].methodEntryPoint_ = entryPoint;
return;
} else if (methodTable[i].nameSignature_ < nameSignature) {
methodTable.insert(methodTable.begin() + (i + 1), record);
return;
}
}
methodTable.insert(methodTable.begin(), record);
}
static const TypeInfo* createTypeInfo(Class clazz, const TypeInfo* superType) {
Class superClass = class_getSuperclass(clazz);
KStdUnorderedSet<SEL> definedSelectors;
addDefinedSelectors(clazz, definedSelectors);
const ObjCTypeAdapter* superTypeAdapter = getTypeAdapter(superType);
const void * const * superVtable = nullptr;
int superVtableSize = getTypeAdapter(getMostSpecificKotlinClass(superType))->kotlinVtableSize;
const MethodTableRecord* superMethodTable = nullptr;
int superMethodTableSize = 0;
if (superTypeAdapter != nullptr) {
// Then super class is Kotlin class.
// And if it is abstract, then vtable and method table are not available from TypeInfo,
// but present in type adapter instead:
superVtable = superTypeAdapter->kotlinVtable;
superMethodTable = superTypeAdapter->kotlinMethodTable;
superMethodTableSize = superTypeAdapter->kotlinMethodTableSize;
}
if (superVtable == nullptr) superVtable = superType->vtable();
if (superMethodTable == nullptr) {
superMethodTable = superType->openMethods_;
superMethodTableSize = superType->openMethodsCount_;
}
KStdVector<const void*> vtable(
superVtable,
superVtable + superVtableSize
);
KStdVector<MethodTableRecord> methodTable(
superMethodTable, superMethodTable + superMethodTableSize
);
KStdVector<const TypeInfo*> addedInterfaces = getProtocolsAsInterfaces(clazz);
KStdVector<const TypeInfo*> supers(
superType->implementedInterfaces_,
superType->implementedInterfaces_ + superType->implementedInterfacesCount_
);
for (const TypeInfo* t = superType; t != nullptr; t = t->superType_) {
supers.push_back(t);
}
for (const TypeInfo* t : supers) {
const ObjCTypeAdapter* typeAdapter = getTypeAdapter(t);
if (typeAdapter == nullptr) continue;
for (int i = 0; i < typeAdapter->reverseAdapterNum; ++i) {
const KotlinToObjCMethodAdapter* adapter = &typeAdapter->reverseAdapters[i];
if (definedSelectors.find(sel_registerName(adapter->selector)) == definedSelectors.end()) continue;
if (adapter->kotlinImpl == nullptr) {
[NSException raise:NSGenericException
format:@"[%s %s] can't be implemented",
class_getName(clazz), adapter->selector];
// TODO: describe the reasons
}
insertOrReplace(methodTable, adapter->nameSignature, const_cast<void*>(adapter->kotlinImpl));
if (adapter->vtableIndex != -1) vtable[adapter->vtableIndex] = adapter->kotlinImpl;
}
}
for (const TypeInfo* typeInfo : addedInterfaces) {
const ObjCTypeAdapter* typeAdapter = getTypeAdapter(typeInfo);
if (typeAdapter == nullptr) continue;
for (int i = 0; i < typeAdapter->reverseAdapterNum; ++i) {
const KotlinToObjCMethodAdapter* adapter = &typeAdapter->reverseAdapters[i];
if (adapter->kotlinImpl == nullptr) {
[NSException raise:NSGenericException
format:@"[%s %s] can't be implemented",
class_getName(clazz), adapter->selector];
}
insertOrReplace(methodTable, adapter->nameSignature, const_cast<void*>(adapter->kotlinImpl));
RuntimeAssert(adapter->vtableIndex == -1, "");
}
}
// TODO: consider forbidding the class being abstract.
const TypeInfo* result = createTypeInfo(superType, addedInterfaces, vtable, methodTable);
// TODO: it will probably never be requested, since such a class can't be instantiated in Kotlin.
result->writableInfo_->objCExport.objCClass = clazz;
return result;
}
static SimpleMutex typeInfoCreationMutex;
static const TypeInfo* getOrCreateTypeInfo(Class clazz) {
const TypeInfo* result = getAssociatedTypeInfo(clazz);
if (result != nullptr) {
return result;
}
Class superClass = class_getSuperclass(clazz);
const TypeInfo* superType = superClass == nullptr ?
theAnyTypeInfo :
getOrCreateTypeInfo(superClass);
LockGuard<SimpleMutex> lockGuard(typeInfoCreationMutex);
result = getAssociatedTypeInfo(clazz); // double-checking.
if (result == nullptr) {
result = createTypeInfo(clazz, superType);
setAssociatedTypeInfo(clazz, result);
}
return result;
}
static SimpleMutex classCreationMutex;
static int anonymousClassNextId = 0;
static void addVirtualAdapters(Class clazz, const ObjCTypeAdapter* typeAdapter) {
for (int i = 0; i < typeAdapter->virtualAdapterNum; ++i) {
const ObjCToKotlinMethodAdapter* adapter = typeAdapter->virtualAdapters + i;
SEL selector = sel_registerName(adapter->selector);
class_addMethod(clazz, selector, adapter->imp, adapter->encoding);
}
}
static Class createClass(const TypeInfo* typeInfo, Class superClass) {
RuntimeAssert(typeInfo->superType_ != nullptr, "");
char classNameBuffer[64];
snprintf(classNameBuffer, sizeof(classNameBuffer), "kobjcc%d", anonymousClassNextId++);
const char* className = classNameBuffer;
Class result = objc_allocateClassPair(superClass, className, 0);
RuntimeAssert(result != nullptr, "");
// TODO: optimize by adding virtual adapters only for overridden methods.
if (getTypeAdapter(typeInfo->superType_) == nullptr) {
// class for super type is also synthesized, no need to add class adapters;
} else {
for (const TypeInfo* superType = typeInfo->superType_; superType != nullptr; superType = superType->superType_) {
const ObjCTypeAdapter* typeAdapter = getTypeAdapter(superType);
if (typeAdapter != nullptr) {
addVirtualAdapters(result, typeAdapter);
}
}
}
KStdUnorderedSet<const TypeInfo*> superImplementedInterfaces(
typeInfo->superType_->implementedInterfaces_,
typeInfo->superType_->implementedInterfaces_ + typeInfo->superType_->implementedInterfacesCount_
);
for (int i = 0; i < typeInfo->implementedInterfacesCount_; ++i) {
const TypeInfo* interface = typeInfo->implementedInterfaces_[i];
if (superImplementedInterfaces.find(interface) == superImplementedInterfaces.end()) {
const ObjCTypeAdapter* typeAdapter = getTypeAdapter(interface);
if (typeAdapter != nullptr) {
addVirtualAdapters(result, typeAdapter);
}
}
}
objc_registerClassPair(result);
// TODO: it will probably never be requested, since such a class can't be instantiated in Objective-C.
setAssociatedTypeInfo(result, typeInfo);
return result;
}
static Class getOrCreateClass(const TypeInfo* typeInfo) {
Class result = typeInfo->writableInfo_->objCExport.objCClass;
if (result != nullptr) {
return result;
}
const ObjCTypeAdapter* typeAdapter = getTypeAdapter(typeInfo);
if (typeAdapter != nullptr) {
result = objc_getClass(typeAdapter->objCName);
RuntimeAssert(result != nullptr, "");
typeInfo->writableInfo_->objCExport.objCClass = result;
} else {
Class superClass = getOrCreateClass(typeInfo->superType_);
LockGuard<SimpleMutex> lockGuard(classCreationMutex); // Note: non-recursive
result = typeInfo->writableInfo_->objCExport.objCClass; // double-checking.
if (result == nullptr) {
result = createClass(typeInfo, superClass);
RuntimeAssert(result != nullptr, "");
typeInfo->writableInfo_->objCExport.objCClass = result;
}
}
return result;
}
extern "C" void Kotlin_ObjCExport_AbstractMethodCalled(id self, SEL selector) {
[NSException raise:NSGenericException
format:@"[%s %s] is abstract",
class_getName(object_getClass(self)), sel_getName(selector)];
}
#else // KONAN_OBJC_INTEROP
extern "C" KInt Kotlin_NSArrayList_getSize(ObjHeader* obj) {
RuntimeAssert(false, "Objective-C interop is disabled");
return -1;
}
extern "C" OBJ_GETTER(Kotlin_NSArrayList_getElement, ObjHeader* obj, KInt index) {
RuntimeAssert(false, "Objective-C interop is disabled");
RETURN_OBJ(nullptr);
}
#endif // KONAN_OBJC_INTEROP
+3 -1
View File
@@ -43,6 +43,8 @@ static inline void SetKotlinTypeInfo(Class clazz, const TypeInfo* typeInfo) {
GetKotlinClassData(clazz)->typeInfo = typeInfo;
}
const TypeInfo* GetObjCKotlinTypeInfo(const ObjHeader* obj) RUNTIME_NOTHROW;
const TypeInfo* GetObjCKotlinTypeInfo(const ObjHeader* obj) {
void* objcPtr = *reinterpret_cast<void * const *>(obj + 1); // TODO: use more reliable layout description
Class clazz = object_getClass(reinterpret_cast<id>(objcPtr));
@@ -85,9 +87,9 @@ static void AddDeallocMethod(Class clazz) {
}
struct ObjCMethodDescription {
void* (*imp)(void*, void*, ...);
const char* selector;
const char* encoding;
const void* imp;
};
struct KotlinObjCClassInfo {
+3 -3
View File
@@ -44,15 +44,15 @@ namespace {
extern "C" {
NSString* Kotlin_Interop_CreateNSStringFromKString(const ArrayHeader* str) {
id Kotlin_Interop_CreateNSStringFromKString(const ObjHeader* str) {
if (str == nullptr) {
return nullptr;
}
const KChar* utf16Chars = CharArrayAddressOfElementAt(str, 0);
const KChar* utf16Chars = CharArrayAddressOfElementAt(str->array(), 0);
NSString* result = [[[getNSStringClass() alloc] initWithBytes:utf16Chars
length:str->count_*sizeof(KChar)
length:str->array()->count_*sizeof(KChar)
encoding:NSUTF16LittleEndianStringEncoding] autorelease];
return result;
+9
View File
@@ -84,6 +84,15 @@ void Kotlin_initRuntimeIfNeeded() {
runtimeState = InitRuntime();
// Register runtime deinit function at thread cleanup.
konan::onThreadExit(Kotlin_deinitRuntimeIfNeeded);
#ifndef KONAN_WASM
// `onThreadExit` doesn't work on main thread, use `atexit`:
static bool deinitScheduledAtexit = false;
if (!deinitScheduledAtexit) {
deinitScheduledAtexit = true; // Having data race is OK here.
::atexit(Kotlin_deinitRuntimeIfNeeded);
}
#endif
}
}
+17
View File
@@ -22,6 +22,10 @@
#include "Common.h"
#include "Names.h"
#if KONAN_TYPE_INFO_HAS_WRITABLE_PART
struct WritableTypeInfo;
#endif
struct ObjHeader;
// An element of sorted by hash in-place array representing methods.
@@ -67,8 +71,21 @@ struct TypeInfo {
// or `null` if the class is anonymous.
ObjHeader* relativeName_;
#if KONAN_TYPE_INFO_HAS_WRITABLE_PART
WritableTypeInfo* writableInfo_;
#endif
// vtable starts just after declared contents of the TypeInfo:
// void* const vtable_[];
#ifdef __cplusplus
inline const void* const * vtable() const {
return reinterpret_cast<void * const *>(this + 1);
}
inline const void** vtable() {
return reinterpret_cast<const void**>(this + 1);
}
#endif
};
#ifdef __cplusplus
@@ -34,6 +34,7 @@ class BooleanBox(val value: Boolean) : Comparable<Boolean> {
override fun compareTo(other: Boolean): Int = value.compareTo(other)
}
@ExportForCppRuntime("Kotlin_boxBoolean")
fun boxBoolean(value: Boolean) = BooleanBox(value)
class CharBox(val value: Char) : Comparable<Char> {
@@ -52,6 +53,7 @@ class CharBox(val value: Char) : Comparable<Char> {
override fun compareTo(other: Char): Int = value.compareTo(other)
}
@ExportForCppRuntime("Kotlin_boxChar")
fun boxChar(value: Char) = CharBox(value)
class ByteBox(val value: Byte) : Number(), Comparable<Byte> {
@@ -78,6 +80,7 @@ class ByteBox(val value: Byte) : Number(), Comparable<Byte> {
override fun toDouble() = value.toDouble()
}
@ExportForCppRuntime("Kotlin_boxByte")
fun boxByte(value: Byte) = ByteBox(value)
class ShortBox(val value: Short) : Number(), Comparable<Short> {
@@ -104,6 +107,7 @@ class ShortBox(val value: Short) : Number(), Comparable<Short> {
override fun toDouble() = value.toDouble()
}
@ExportForCppRuntime("Kotlin_boxShort")
fun boxShort(value: Short) = ShortBox(value)
class IntBox(val value: Int) : Number(), Comparable<Int> {
@@ -130,6 +134,7 @@ class IntBox(val value: Int) : Number(), Comparable<Int> {
override fun toDouble() = value.toDouble()
}
@ExportForCppRuntime("Kotlin_boxInt")
fun boxInt(value: Int) = IntBox(value)
class LongBox(val value: Long) : Number(), Comparable<Long> {
@@ -156,6 +161,7 @@ class LongBox(val value: Long) : Number(), Comparable<Long> {
override fun toDouble() = value.toDouble()
}
@ExportForCppRuntime("Kotlin_boxLong")
fun boxLong(value: Long) = LongBox(value)
class FloatBox(val value: Float) : Number(), Comparable<Float> {
@@ -182,6 +188,7 @@ class FloatBox(val value: Float) : Number(), Comparable<Float> {
override fun toDouble() = value.toDouble()
}
@ExportForCppRuntime("Kotlin_boxFloat")
fun boxFloat(value: Float) = FloatBox(value)
class DoubleBox(val value: Double) : Number(), Comparable<Double> {
@@ -208,4 +215,5 @@ class DoubleBox(val value: Double) : Number(), Comparable<Double> {
override fun toDouble() = value.toDouble()
}
@ExportForCppRuntime("Kotlin_boxDouble")
fun boxDouble(value: Double) = DoubleBox(value)
@@ -111,6 +111,10 @@ data class File constructor(internal val javaPath: Path) {
fun appendBytes(bytes: ByteArray)
= Files.write(javaPath, bytes, StandardOpenOption.APPEND)
fun writeLines(lines: Iterable<String>) {
Files.write(javaPath, lines)
}
fun forEachLine(action: (String) -> Unit) {
Files.lines(javaPath).use { lines ->
lines.forEach { action(it) }
@@ -40,7 +40,7 @@ enum class Architecture(val bitness: Int) {
enum class KonanTarget(val family: Family, val architecture: Architecture, val detailedName: String, var enabled: Boolean = false) {
ANDROID_ARM32( Family.ANDROID, Architecture.ARM32, "android_arm32"),
ANDROID_ARM64( Family.ANDROID, Architecture.ARM64, "android_arm64"),
IPHONE( Family.IOS, Architecture.ARM32, "ios"),
IPHONE( Family.IOS, Architecture.ARM64, "ios"),
IPHONE_SIM( Family.IOS, Architecture.X64, "ios_sim"),
LINUX( Family.LINUX, Architecture.X64, "linux"),
MINGW( Family.WINDOWS, Architecture.X64, "mingw"),
@@ -63,6 +63,9 @@ enum class CompilerOutputKind {
DYNAMIC {
override fun suffix(target: KonanTarget?) = ".${target!!.family.dynamicSuffix}"
},
FRAMEWORK {
override fun suffix(target: KonanTarget?): String = ".framework"
},
LIBRARY {
override fun suffix(target: KonanTarget?) = ".klib"
},