Currently kotlin-stdlib-common doesn't have serialized built-ins inside,
so in a multiplatform project, it was possible that either JVM or JS
built-ins (depending on the order of entries in the project
configuration) were going to be used for the analysis of a common module
depending on kotlin-stdlib-common. This resulted, for example, in
additional built-in member calls (e.g. "List.stream()") being unresolved
in JVM modules when they used the List instance coming from the common
module (see the added test)
Set test directory to directory with test files (not relative to
findUsages folder). This way test will be configured as if all testdata
is under source root (previously it was copied into package under path
with findUsages) and resolvers will see classes under root package.
#KT-14974 In Progress
Before this fix line numbers for function call arguments were not generated,
so if argument was on another line than function call it was
impossible to stop on argument line during debugging.
Now line number for each argument is generated if necessary
(another line than function call line).
#KT-17144 Fixed
Use a single coroutinesState instead. Change the coroutines state in
some tests from "warn" to "enable"/"error" to test that deserialization
of older config files works ("warn" is the default value, so it wasn't
testing anything here)
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).
Package statement in Java file is updated too late
when moving the entire containing directory, so we force it
with intercepting MoveFileHandler implementation
MockReferenceType can't be used anymore because the new DebuggerClassNameProvider requires much more from it.
The new SmartMockReferenceType implements methods such as nestedTypes() or allLineLocations() properly.
Also, as PositionManager can return more than one class, we should check if any of the classes it returned matches the pattern.
MockReferenceType can't be used anymore because the new DebuggerClassNameProvider requires much more from it.
The new SmartMockReferenceType implements methods such as nestedTypes() or allLineLocations() properly.
Also, as PositionManager can return more than one class, we should check if any of the classes it returned matches the pattern.
Class APIs from java point of view stays the same so we can avoid generating those methods
Otherwise we have to calculate all supertypes when getMethods() is called,
which imposes severe performance penalties
We have to pretend these methods are not 'abstract' (also we consider them 'default' for safety)
so java highlighting does not report "class should be abstract" for all inheritors
We have to manually report "class should be abstract" on some of the java inheritors,
specifically those that are implementing interfaces directly
as opposed to extending kotlin classes implementing those interfaces
Mikhail Glukhikh