Only require implementations to be able to compute the enum class name
and the corresponding entry name. Only this should be necessary to
correctly resolve the argument; the resolvers will find the
corresponding class descriptor if necessary
It's implemented through Jsr305State while it's not related
to jsr-305 becasue currently it's the most convenient way
to introduce the flag.
Probably, it's worth renaming Jsr305State to something more abstract
like NullabilityAnnotationsConfiguration
#KT-21982 Fixed
It's purpose is passing java classes being used during analysis
to incremental compilation to let it track diffs
Potentially it might be done the other way:
incremental compilation could build a separate container to analyze
necessary classes, but it's rather hard to implement now
#KT-17621 In Progress
This allows to get rid of the dependency on descriptors.runtime from
compiler/IDE tests which is problematic: classes there clash with the
classes in kotlin-reflect, which reference declarations in shadowed
packages
To make it obvious that this is a part of kotlin-reflect and should not
be packed into the compiler jar. Also copy 'classId' utility to
AbstractLocalClassProtoTest to minimize dependencies on
kotlin.reflect.jvm.internal
Note that the module itself is still needed and can't be merged into
kotlin-reflect because of the way it's used in
AbstractJvmRuntimeDescriptorLoaderTest
- Introduce new definitions in descriptors.proto
- Add new corresponding values in Flags.java
- Introduce ContractSerializer and ContractDeserializer, responsible for
for conversion ContractDescription <-> ProtoBuf.Contract
- Add dependency of 'serialization' module on 'resolution' so that it
could see contracts model.
Note that here we do a lot of seemingly unnecessary hoops, which in fact
necessary to respect existing module system (in particular, to be able
to extract ContractDescription declarations from 'descriptors' module to
make them invisible from reflection)
==========
Effect System introduction: 8/18
Rename addDeclarations -> registerModuleComponents
Use it to provide SamWithReceiverResolver extensions instead
Post construction on container composition can be achieved
but manually inserting injections where it seems appropriate
is bug prone
This fixes a bug where SamWithReceiverPlugin extension was not registered
for some containers in IDE which led to incorrect highlighting in IDE
Add IDE test for applying SamWithReceiver plugin
#KT-18062 Fixed
No package annotations are going to be loaded, and
TypeQualifierDefault/TypeQualifierNickname are no longer recognized by
default. Use the CLI argument "-Xload-jsr305-annotations" to enable this
behavior back
#KT-10942
- Move the following from 'deserialization' to 'descriptors':
NotFoundClasses.kt
AdditionalClassPartsProvider.kt
ClassDescriptorFactory.kt
PlatformDependentDeclarationFilter.kt
findClassInModule.kt
- Move the following form 'descriptors' to 'deserialization':
BuiltInSerializerProtocol.kt
builtInsPackageFragmentProvider.kt
- Extract a marker interface from BuiltInsPackageFragment and move its
implementation to 'deserialization'
- Change the type of parameters in PlatformDependentDeclarationFilter
and AdditionalClassPartsProvider to ClassDescriptor
This will help in getting rid of the circular dependency of
'descriptors' <-> 'deserialization'
Also add a findInnerClass method that can find an inner class
by its name
This change helps to avoid loading all the inner class files
eagerly (that may be rather slow), while all the names are available
in InnerClass attribute
The reason is that canonicalText requires some additional
computations to be done when reading class files, while
in fact we only need a class name of the type
Previously ReflectionTypes.find returned an error class in case a class
is not found in the module dependencies. The problem with this approach
is that each call site should call ErrorUtils.isError on the result and
report an error if needed, in order to stop this type from reaching the
codegen, which can't handle error types.
Now we create a MockClassDescriptor instance instead. It's not an error
class, so it'll be handled correctly in the codegen. Also its scope is
empty and errors are reported on any non-trivial usage (see
MissingDependencyClassChecker), so this approach is not worse than error
classes
#KT-16484 Fixed
Before creating a MetadataPackageFragment, check that the corresponding
directory (across the classpath) contains at least one .kotlin_metadata file.
Otherwise we're creating packages for every simple name queried during the
resolution and sometimes prefer a (empty) package to the existing class, for
example when the latter class is star-imported
Extract AbstractDeserializedPackageFragmentProvider out of
JvmBuiltInsPackageFragmentProvider and implement it a little bit differently in
MetadataPackageFragmentProvider. The main difference is in how the package
fragment scope is constructed: for built-ins, it's just a single scope that
loads everything from one protobuf message. For metadata, package scope can
consist of many files, some of which store information about classes and others
are similar to package parts on JVM, so a ChainedMemberScope instance is
created.
Introduce a bunch of interfaces/methods to deliver the needed behavior to the
'deserialization' module which is not JVM-specific and does not depend on the
compiler code: MetadataFinderFactory,
PackagePartProvider#findMetadataPackageParts, KotlinMetadataFinder#findMetadata.
Note that these declarations are currently only implemented in the compiler; no
metadata package parts/fragments will be found in IDE or reflection
Introduce a new method KotlinClassFinder#findBuiltInsData, which is only
implemented correctly in the JvmCliVirtualFileFinder because it's only used in
the compiler code at the moment.
Introduce JvmBuiltInsPackageFragmentProvider, the purpose of which is to look
for .kotlin_builtins files in the classpath and provide definitions of
built-ins from those files.
Also exclude script.runtime from compilation because, as other excluded
modules, it has no dependency on the stdlib and is no longer compilable from
the IDE now, because it cannot resolve built-ins from anywhere
Just reporting error by call checker may be too restrictive
in case there are some extensions that can be used successfully
Solution is to annotate additional members with
@Deprecated(level=Error) + @kotlin.internal.LowPriorityInOverloadResolution
If deserializing a type with arguments based on a local class for
decompiler, then just return Any type (without arguments).
Previously Any constructor was used with serialized arguments, that lead
to exception
Note that in case of deserialization for compiler nothing changes about
local-classes-based types (LocalClassifierResolverImpl is just inlined)
#KT-13408 Fixed