This commit handles situations when some annotation in deserialized code
has an empty array literal argument [] or even non-empty [something].
Before this commit, we tried to guess a type of this array by "resolving"
the relevant annotation class and looking into the corresponding
parameter. Sometimes it can work, but also it can provoke recursive
resolve e.g. when the annotation class is a nested class in the same scope.
In this commit we changed the behavior in the following way:
- first, for non-empty array literals in deserialized code we just
take the array type from the corresponding array literal element
- second, for empty array literals we no more try to "guess" anything.
Instead we approximate array type as Array<Any>, and later at FIR2IR
stage we use the corresponding parameter type instead. At FIR2IR stage,
everything is already resolved and problems with recursions are no more
possible.
#KT-62598 Fixed
Previously, creating a declaration with Fir2IrCallableDeclarationsGenerator/
Fir2IrClassifiersGenerator didn't guarantee that this declaration will
be actually added to the list of parent class/file declarations, which
lead to situations when FIR2IR created some declarations in the air
(mostly fake-overrides)
^KT-57858 Fixed
Remove FirEmptyOverridesBackwardCompatibilityHelper since it's not used anymore
Remove overridesMemberWithPlatformDependent.kt test file since it becomes redundant
Fake overrides created by K1, as well as fir2ir in K2, use DEFINED. So
this gets rid of a lot of differences in IR text dumps between the K2
normal mode and K2 with IR fake overrides, and will ultimately help in
implementing and testing KT-61360.
The change in AddContinuationLowering is needed to fix tests like
kt47549. When creating anonymous classes for SAM implementations, we're
reusing the same fake override building machinery. And since we can't
extract any meaningful information from the fake override parameter's
origin anymore, we have to get the parameter from the original symbol.
If some function is not fake-override, then its type should be just
default type of containing class
For fake overrides the default type calculated in the following way:
1. Find first overridden function, which is not fake override
2. Take its containing class
3. Find supertype of current containing class with type constructor of
class from step 2
^KT-60252 Fixed
For annotations defined in Java, IrProperties do not contain initializers in backing fields,
as annotation properties are represented as Java methods.
Therefore, it is not possible to use initializer values as default values for constructor parameters.
However, K2 stores default values in annotation's constructor parameters,
so it is possible to fix this issue if they're properly transfered to the IR
and inspected in JvmAnnotationImplementationTransformer
#KT-47702 Fixed
#KT-47702 tag fixed-in-k2
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
This aligns the behavior with K1 and fixes an issue when the default
value was deserialized as FirExpressionStub leading to an exception
in FIR2IR when trying to convert it to an IR expression.
#KT-60120 Fixed
#KT-59610 Fixed
- Actualize muted K2 tests
- Actualize muted K1 tests with module systems because legacy Wasm test
infra had no respect for "// MODULE: ..." test directives
Add some more filters on private/synthetic stuff (which doesn't matter
in practice) to make full and light analysis mode dumps as similar as
possible, so that all existing tests will pass for JVM IR. Unmute some
tests which were failing with the old JVM backend.
Tests on repeatable annotations are muted because in full analysis,
annotations are wrapped into the container (e.g. `@A(1) @A(2)` ->
`@A$Container(A(1), A(2))`), but they are no in the light analysis mode.
So there's always going to be a difference for these tests between full
and light analysis, unless we're going to change behavior of kapt, which
would be a kind of a breaking change.
#KT-58497 Fixed
This only applies to JVM and fq-names in declaration references
in IR dumps.
This enables us to run more irText tests on platforms other than JVM
(see KT-58605).
This doesn't reduce the quality of tests, because the flags are still
printed for declarations themselves. We only omit them in references.
However, this makes the tests more compatible with non-JVM backends
(see KT-58605), because flags of referenced stdlib declarations may
differ among target platforms.
When an annotation constructor value parameter is annotated with the
very same annotation, FIR2IR went in an infinite loop when trying
to generate it.
To fix this, the constructor is added to the Fir2IrDeclarationStorage
cache before generating the value parameters.
To accommodate for the missing parameters, the value arguments count
is determined using the FIR.
This commit adds missing pieces for the puzzle:
Annotation instantiation feature uses IrProperty's initializer to instantiate
properties from other modules that have default values which weren't
specified on call site.
To support this feature properly, Fir2IrVisitor should fill LazyIrProperty's
backing field initializer with information from Fir.
To get this information into Fir, FirMemberDeserializer should be able to read
it from KotlinJvmBinaryClass with AnnotationLoaderVisitorImpl. (klibs are unsupported for now)
There's a catch with enum entries references: we can't access session.SymbolProvider to resolve it
because we're still at the deserialization stage, and it can cause StackOverflow if enum is nested in the
same class (see RequiresOptIn.Level). To mitigate this, a new FirEnumEntryDeserializedAccessExpression is produced
instead; it is later replaced with the correct reference in the Fir2IrVisitor.
^KT-58137 Fixed
Also add test to loadJava folder with annotations default values that
verifies metadata loading
During extracting type attributes from annotations we should expand
typealiases of annotation type to handle cases when user makes a typealias
on some special annotation, like `kotlin.internal.Exact`. And to exapnd
typealias we should resolve annotation class id to symbol.
This leads to a cycle during class deserialization, if some nested annotation
is used as type annotation in some declaration in the same class
```
interface SomeInterface {
interface NestedInterface : @Ann Some
interface Some
@Target(AnnotationTarget.TYPE)
annotation class Ann
}
```
Attempt to find symbol for SomeInterface.Ann during deserialization of
SomeInterface.NestedInterface wil lead to second attempt to deserialize
class SomeInterface, which eventually leads to StackOverFlow. And at the
same time expanding typealiases for annotations from binaries has not
much sense, because types in binaries are already expanded
So to fix this issue it's enough to just not expand typealiases on type
annotations for types of deserialized declarations
^KT-57876 Fixed
This change allows to revert adding `WITH_STDLIB` directive
to tests which happened at `a9343aeb`.
Co-authored-by: Alexander Udalov <Alexander.Udalov@jetbrains.com>
If an annotation doesn't specify an explicit use-site target,
previously it was added to both, the primary constructor value parameter
and the property in the FIR. Then, in FIR2IR, only the "correct" one was
added to the IR. Move up the deduplication logic into the frontend.
^KT-56177 Fixed
This inconsistency is present due to not using the `// WITH_STDLIB`
in the above tests. When K1 creates the enum, it tries to generate
`entries()`, and for that it tries to load `kotlin.enums.EnumEntries`,
but this is actually an unresolved reference. K1 silently swallows it,
and proceeds.
The reason K2 doesn't fail is that in order to generate `entries()` it
simply creates the necessary `ConeClassLikeType` with the desired
`classId` instead of loading the whole `ClassDescriptor`.
The reason we can still observe `$ENTRIES` and `$entries` in K1
is because they are generated during the JVM codegen, and it
only checks if the `EnumEntries` language feature is supported. It
doesn't check if the `entries` property has really existed in IR
(by this time it's expected to have already been lowered to the
`get-entries` function - that's why "has ... existed").
The reason why the codegen doesn't fail when working with
`kotlin.enums.EnumEntries` is because it creates its
own `IrClassSymbol`.
^KT-55840 Fixed
Merge-request: KT-MR-8727
Merged-by: Nikolay Lunyak <Nikolay.Lunyak@jetbrains.com>
In K1 analogue of `K2_VISIBILITY_ERROR` is `K1_RUNTIME_ERROR`, so
candidates with `K2_VISIBILITY_ERROR` should win over innaplicable
candidates with `INAPPLICABLE`, `INAPPLICABLE_ARGUMENTS_MAPPING_ERROR`
or `INAPPLICABLE_WRONG_RECEIVER` applicability
This is needed to allow resolution to invisible symbols (and later
suppress error with `@Suppress("INVISIBLE_SYMBOL", "INVISIBLE_REFERENCE")`
^KT-55026 Fixed
^KT-55234
Dmitriy Novozhilov