For destructing calls, the component type is used for the property type
in all cases. However, this can result in runtime and/or compilation
errors when the property is a var and changed, especially when the
component is a primitive but the property type is nullable. Instead,
only use the component type when the property is also a val.
^KT-64944 Fixed
... if the delegate happens to be a function call whose second
argument is a callable reference but not actually a provideDelegate
call.
The fix is to ensure that the call is _actually_ a desugared
provideDelegate call.
This fixes a CCE in a case where the delegate expression is a regular
function call and the second argument is a callable reference.
#KT-65165 Fixed
If we encounter a declaration in the current module whose signature
is the same as that of a declaration in another module which we happen
to also reference from the current module, don't report any errors,
just like we don't do it in Kotlin/JVM. This leaves the user in the KLIB
hell situation, but this is intentional, because otherwise a legitimate
change like moving a declaration to another module and marking
the original one as `@Deprecated("", level = DeprecationLevel.HIDDEN)`
would lead to a error, and we don't want that.
Also, don't try to show the diagnostics on a declaration that doesn't
have an IrFile.
^KT-65063 Fixed
Pass the metadata serializer instance instead. This allows to further
reduce code duplication by introducing the common interface
`KlibSingleFileMetadataSerializer` for abstracting away K1 and K2
representation of a source file, as well as reusing
`Fir2KlibMetadataSerializer` across different backends.
KT-64392
Substitution of type arguments to non-reified type parameters may lead
to accidental reification, which should not be done (see ^KT-60174 for
examples). So, we should erase them, except the few cases.
^KT-60174: Fixed
^KT-60175: Fixed
- For synthetic calls
- For delegated constructor calls
Also, I checked that for each toResolvedReference() (beside annotations)
that converts candidate to the resolved reference,
we run `runPCLARelatedTasksForCandidate()` in the same context.
^KT-65103 Fixed
Previously, when an Objective-C library had an unused Objective-C
forward declaration (`@class` or `@protocol`), cinterop tool didn't
include it into the resulting klib at all.
This led to a subtle bug (KT-64105). One Obj-C library has unused
Obj-C forward declaration, and another one depends on the first and
uses this forward declaration, e.g. as a function result type.
When building the first cinterop klib, this forward declaration is not
added to `includedForwardDeclarations` in the klib manifest (the
compiler uses this property to decide whether to synthesize the
corresponding class).
When building the second cinterop klib, the forward declaration is not
added to its manifest either, because it is located in the dependency
(and therefore should've been included there).
As a result, the forward declaration is included nowhere, and any
attempt to use it in Kotlin fails, including calling the function from
the second lib.
This commit fixes this bug by including even unused Objective-C forward
declarations, which is consistent with any other kind of declarations
and seems more natural.
^KT-64105 Fixed
Native test infra groups individual tests into compilations, so it
renames packages, patching package and import directives, to avoid
clashes.
This doesn't include "standard" packages. They are distinguished by a
predicate defined in the test infra. This predicate didn't include
`objcnames.*` -- synthetic package provided by the compiler.
As a result, tests importing from `objcnames.*` got those import
directives patched, which was unexpected and could make tests fail.
This commit fixes the problem, making `objnames.*` recognized as
a "standard" package.
When building cinterop klibs, cinterop tool can accept dependencies,
which affects the way it processes the native library.
The test infrastructure allowed to specify cinterop module dependencies,
but didn't actually pass them to the tool.
This commit fixes that.
This provider is a first step of "Kotlin Native Toolchain".
This solves several problems:
1) Resolving K/N bundle during configuration phase ->
now it happens during execution phase
2) Downloading K/N bundle with internal mechanisms ->
now it uses Gradle dependency resolvers and Transform Artifact
^KT-58303
^KT-52567
^KT-49268
Alexander Udalov