When called by reflection the bit mask will be generated
discounting dispatch/extension receivers. Make sure that the
interpretation of the bit mask is consistent for direct and
reflective calls.
In addition, this also fixes the modifiers on java 8 parameter
metadata for the dispatch and extension receivers for these
inline class methods.
1. Postpone the computation of the signature for property
reference getters for extension properties until codegen time.
2. Generate metadata for static replacement functions instead
of the original functions.
Had to edit some bytecodeText tests to account for the fact that JVM_IR
no longer generates explicit initializations for ConstantValue fields,
but NoConstantValueAttributeForNonConstVals is not the default yet.
Fix getting kType metadata in cases when corresponding jsClass value
is passed through temporary variable.
This can happen when jsClass expression is not consided trivial by
local variable optimizer. This happens for object declarations from
different modules, for example kotlin.Unit
Otherwise a local class in a field initializer or anonymous init block
is copied into each constructor of the containing class (because
InitializersLowering calls deepCopy).
Since the code structure no longer resembles the original source code
here, record a custom EnclosingMethod mapping before moving such
classes, and use it in codegen.
so that the enclosing method of objects defined inside lambdas is the
one they are declared in.
Note that this does not fix *all* enclosingInfo tests because JVM_IR
currently follows the KT-28064 proposal, i.e. does not regenerate
objects defined inside lambdas under any circumstances. For example,
this causes test boxInline/enclosingInfo/inlineChain2.kt to fail because
the enclosing method of objects is _2Kt.box instead of (non-existent in
source code) `_2Kt$box$inlined$call$1.invoke` or whatever. What's more
important is that OUTERCLASS no longer points to a non-existent
`box$lambda-N` and therefore `.enclosingMethod` no longer throws.
There are two parts in this change:
1) Previously, we looked up $default methods with the incorrect
signature in supertypes. For example in defaultInSuperClass.kt, we'd
try to find a method foo$default with the signature `(B, String,
String, int, Object)` in the class A. Now we're modifying the array
of parameter types on each step if we're looking for a static
$default method, by assigning its first element to be the containing
class. This fixes cases when defaults come from a superclass.
2) For interfaces, $default methods are actually located in the
corresponding DefaultImpls class. Now we look up that class and
search for the $default method there. Note that this is needed
because of KT-33430. This fixes cases when defaults come from a
superinterface.
#KT-13936 Fixed
Without the `-Xmultifile-parts-inherit` mode for now.
This is implemented as follows: FileClassLowering collects information
about multifile parts and the corresponding facades, which a later
GenerateMultifileFacades phase uses to generate new IrFile instances and
add it to the module fragment that's being compiled.
Note that GenerateMultifileFacades is in the end of lowering phases
because delegates in the facade should be generated for all additional
functions generated by certain lowerings (default arguments,
JvmOverloads, etc.). If GenerateMultifileFacades was right after
FileClassLowering, they would still be generated, but we'd then process
them in lowerings mentioned above, which would result in duplicated
logic in the bytecode. There's a new bytecode text test which checks
that this doesn't happen for functions with default arguments.
This is possible now because after 3a9b94235f, 0423d0f41e and
5341de253f, all top level functions/properties in sources and in
binaries have a corresponding containing facade class
This fixes an issue in constructing annotation instances with array
class elements. For some reason, behavior of `ClassLoader.loadClass`
differs from `Class.forName` in handling arrays, namely:
* `loadClass("[Ltest.Foo;")` returns null
* `Class.forName("[Ltest.Foo;")` returns class for array of test.Foo
Overall, there doesn't seem to be any way to load an array class with
`CLassLoader.loadClass`.
We pass initialize=false to forName because this is the behavior of
ClassLoader.loadClass: it doesn't perform class initialization (e.g.
<clinit> is not executed).
#KT-31318 Fixed
1. Scheme of capturing local variables not touched
2. Lowered local functions are transposed to the nearest class (including local) or file
3. Local classes are also transpose to the nearest class (including local) or file
The main idea of this refactoring is to separate two usages of
`AnnotationDeserializer.resolveValue`: the one where we load annotation
argument values, and the one where we load constant values of properties
for JS/Native/Common
(`AnnotationAndConstantLoaderImpl.loadPropertyConstant`).
In the latter case, `expectedType` is the type of the property and it
can be a supertype of the actual value (e.g. see `arrayConst` in
compiler/testData/serialization/builtinsSerializer/compileTimeConstants.kt).
But in the former case, we need to check that the value conforms to the
expected type and disregard it if it's not the case, which is possible
if the annotation was recompiled separately.
#KT-28927
`RuntimeTypeMapper.mapSignature` threw exception because the descriptor
for `clone` was created manually in CloneableClassScope and therefore it
didn't have a JVM signature as in deserialized descriptors, and wasn't
recognized as a Java method either.
#KT-22923 Fixed
Mads Ager