that causes flaky tests because the default positioning strategy
was dependent on the order of the reported messages.
The code led to it was introduced in an attempt to extract common
PSI-independent strategy because PSI is leaking into the abstract
diagnostic infrastructure. The approach is definitely problematic,
but to fix it now, the leaking dependency to the psi-based module
is introduced. This should be fixed in the future by introducing
better abstractions.
Fixes flaky tests touched in the commit.
#KT-63002 fixed
The root cause of the problem is that we visit class annotations more
accurately than in the regular compiler transformer, so we have
a difference: the compiler assumes that annotation processing
of the class is called already inside this class, so it should enable
CLASS_HEADER_ANNOTATIONS mode to not capture extra context.
But we in LL FIR do this out of the class, so such context switching
is redundant and results in cutting out the outer class context
^KT-62587 Fixed
https://youtrack.jetbrains.com/issue/KT-59916/K2-Disappeared-REPEATEDANNOTATION
FirAnnotationChecker does not detect repeated annotation on dynamic type, since FirTypeResolverImpl wrongly did not convert source annotations to attributes of ConeDynamicType.
This MR improves FirTypeResolverImpl to convert attributes of FirDynamicTypeRef to annotations and attach them to ConeDynamicType.
Merge-request: KT-MR-12551
Merged-by: Vladimir Sukharev <Vladimir.Sukharev@jetbrains.com>
Anonymous functions (lambdas) are not allowed as annotation arguments.
However, because it is still possible to parse code written this way, it
must be handled without exception. So ignore these expressions when
processing annotation arguments.
#KT-59565 Fixed
In this commit we begin counting a catch parameter as
both a local variable and a value parameter for the purpose
of annotation targeting.
#KT-61691 Fixed
Reporting it for `VIRTUAL_MEMBER_HIDDEN`
is ok, because `VIRTUAL_MEMBER_HIDDEN`
has always been an error, so we are
allowed to treat these as overrides
implicitly.
^KT-59408 Fixed
^KT-59419 Fixed
^KT-57076 Fixed
This behavior wasn't intended during KT-15470 coding. I only intended to
prohibit `@get:` target on things different from properties. But I
accidentally prohibited `@property` on things different from properties
too
But it's a bug fix anyway, so let's keep it.
I also re-checked the implementation of KT-15470, I don't see any other
unintentional prohibitions
It's possible to write a fix that
would prevent false positives with
this checker, but the core
intuition behind it is invalid.
This checker assumes that it's
enough to only check direct
overriddens, while in reality
even simple `Source` override
functions are not allowed to
contain default values, so they
can't be used to make judgements
about them.
^KT-59408 Open
^KT-59408 Open
^KT-61095 Fixed
^KT-61165 Fixed
^KT-61029 Fixed
By ignoring type parameters. Since type parameters in annotations are a
very limited feature, their sole use is to be able to specify them as
KClass argument: annotation class Foo<T: Any>(val bar: KClass<T>).
Since we can encounter type param only as a KClass type argument (and
never as a property type), simple approach of ignoring them works fine.
In that case, since we simply copy property types to synthetic
implementation class, its properties in IR start look like this:
annotation class FooImpl(override val bar: KClass<T of Foo>). This IR
seems to be not completely correct, since FooImpl.bar type contains T of
Foo param, which is out of its scope. However, so far I didn't
encounter any problems with this during testing and after MR discussion
this approach has been considered possible.
#KT-59558 Fixed
#KT-59036 Fixed
A new resolution diagnostic UnsuccessfulCallableReferenceAtom is
introduced that is used in EagerResolveOfCallableReferences.
No diagnostic is reported on unresolved calls with this diagnostic
because
#KT-59856
Previously the argument type was being used for the actual type error
display. However, safe-call arguments are unwrapped which causes
nullable types to be displayed as non-null. Change to use the actual
type provided by the diagnostic instead of extracting the type from
the argument.
#KT-58844 Fixed
The change is needed for the parallel resolution (^KT-55750), so we can resolve the declaration
under a lock that is specific to this declaration.
Previously, if LL FIR was resolving some FirClass, LL FIR resolved all its children too, and it had no control over what parts of the FIR tree were modified.
The same applied to the designation path, sometimes the classes on the designation path
might be unexpectedly (and without lock) modified.
This commit introduces LLFirResolveTarget, which specifies which exact declarations should be resolved during the lazy resolution of the declaration.
All elements outside the declarations specified for resolve in LLFirResolveTarget, should not be modified.
The logic of lazy transformers is the following:
- Go to target declaration collecting all scopes from the file and containing classes
- Resolve only declarations that are specified by the LLFirResolveTarget, performing the resolve under a separate lock for each declaration
^KT-56543
^KT-57619 Fixed
Nikolay Lunyak