The regression appeared after
b5a8ffaddc
when we started trying both static and member methods until
first success and when there is no successful
we were just leaving the last one (e.g. private member)
But the actual problem is that we were commiting the trace
in case of single (but incorrect) result in resolution mode of
SHAPE_FUNCTION_ARGUMENTS when we couldn't yet choose the
correct static method
Also we shouldn't choose a shape for callable reference
using only the knowledge that result is single:
it may lead to the wrong inference result
(see test with Pattern::compile)
#KT-17597 Fixed
#KT-10397 Fixed
According to JVMS (p. 4.3.4) inner classes should be separated with `$` in generic signature.
Note that in Java, inner types separated with `.` after first parameterized type, and now we preserve the same behaviour. See tests for clarification.
Local returns normalization can generate POP instructions.
These POP instructions can drop functional parameters, as in KT-17590,
and should be processed in markPlacesForInlineAndRemoveInlinable just
as other POP instructions.
KT-17590 conditional return in inline function parameter argument causes compilation exception
It never terminates, so the corresponding value on stack can't be used.
However, if this happens in an inlined lambda argument, the inliner is
unable to remove the corresponding ALOAD instruction (because default
handler never terminates, and thus corresponding ALOAD is not used for
lambda invocation).
KT-17573 try-finally expression in inlined function parameter argument fails with VerifyError
When a try-catch expression is passed as an argument to the inline
lambda parameter, lambda variable on stack is spilled and restored in
several different locations (1 for try-block, 1 for each catch-blocks).
So it's possible that lambda to be invoked comes from multiple loads,
all of which should have the same "root" lambda parameter.
In cases like KT-17384, where 'break' or 'continue' happens in an argument
to an inlined lambda call, fix-stack transformation sees corresponding
ALOAD for lambda, and inserts corresponding POP instruction before jump.
However, this ALOAD is later removed during inlining.
So, we should also remove the related POP instructions.
com.typesafe.akka:akka-cluster-sharding_2.12:2.5
akka.cluster.sharding.ClusterSharding has the following methods:
public static ClusterSharding get(ActorSystem var0) {
return ClusterSharding$.MODULE$.get(var0);
}
public static Extension get(ActorSystem var0) {
return ClusterSharding$.MODULE$.get(var0);
}
NB: ClusterSharding <: Extension
None of these methods is synthetic or something, but javac allows
calls like ClusterSharding.get(null) and they get resolved
to the first method returning ClusterSharding
It seems that both javac and IntelliJ resolution algorithms filter out
such clashing declarations choosing the one that has the most
specific return type, the same idea is applied in the change
#KT-17560 Fixed
By default we use the fast implementation in CLI compiler,
but in the most of the tests the old one is enabled
Also add tests on CompiledJava with the fast class reading
implementation
It's only used for CLI compiler, and it should improve performance
of loading Java descriptors from class-files
For IntelliJ, it leads to 10-15% percent speedup of Kotlin Builder
Before this change, we were using a Java model based on Java PSI that
also read class files, but do it less effectively since it performs
some extra work, that we don't need, e.g. eagerly reading all
the inner classes
It seems to be very natural refactoring considering the
following changes: optimizing KotlinCliJavaFileManagerImpl.findClass
to make it read class files manually instead of requesting PSI
Don't use coroutine facade in following cases:
* When calling coroutine functions in non-suspend mode (i.e.
suspend flag is either false or skipped).
* When passing continuation from suspend function to suspend function.
Use facade only for corresponding intrinsics.
Reason: interceptor should not be called on each suspend function
invocation, it should be called after resume from innermost
suspend function.
Fix KT-17067. The example provided with the issue is very similar to
dispatchResume.kt which passes after these changes.
Add test to prove that KT-17446 is no more reproducible.
Also, remove kotlin-reflect form container module.
Main goal is get rid of kotlin-reflect.jar from modules what required for minimal compiler.jar which can compile Kotlin only to JS to make it smaller.
Instead of reusing the same AnalyzerFacade that is used for resolution
of a module to resolve its dependencies, analyze each dependency
module/library with a facade depending on its target platform. Introduce
and use CommonLibraryDetectionUtil in addition to
KotlinJavaScriptLibraryDetectionUtil, to detect common libraries (with
.kotlin_metadata files).
Note that before multi-platform projects, this was not needed because
there were only two platforms (JVM and JS), and JVM module had only JVM
modules/libraries as dependencies, JS module had only JS
modules/libraries as dependencies. Now, for example, a JVM module can
have a common module/library as a dependency, and it would be incorrect
to analyze that dependency with JvmAnalyzerFacade because that facade
does not know anything about .kotlin_metadata files.
The changes in Dsl.kt and KotlinCacheServiceImpl.kt are needed because
PsiElement.getJavaDescriptorResolver, called from some IDE code, started
to fail on a common module, because the container for a common module
does not have the JavaDescriptorResolver
When resolving a class body for a class without a primary constructor
(e.g., an interface), no checks were performed for redeclarations
in the corresponding class header.
Creating & initializing a lexical scope of an appropriate kind will do it.
Note that since class has no primary constructor, only type parameters
could be redeclared (and that's KT-4960).
Stop making aliasing suspend function descriptor with reference to
instance of state machine. This may cause problems in some cases,
for example, when compiling recursive suspend function. See KT-17281.
Instead, make alias for synthetic continuation parameter. This
additionally required some refactoring, e.g. *always* generating
continuation parameter during codegen.
Denis Zharkov