This is a way for future compilers to cause previous compilers to report
diagnostics on usages of some declarations. Diagnostic can have a message
(and/or error code), level (error, warning, or completely hide the declaration
from the resolution), and Kotlin version, since which the diagnostic should no
longer be reported
Delete KAnnotatedElementImpl because it's not possible to make it a class (its
subclasses have other classes in supertypes) to cache annotations in a property
23 invokes in KFunctionFromReferenceImpl (and consequently, in FunctionImpl)
were needed before 1576160390: a wrapped function
reference must have had the necessary invoke to be called as an instance of a
specific function type. After 1576160390, this is
not needed anymore because KFunctionFromReferenceImpl is now an internal
implementation detail of reflection, and no invoke is ever called on it.
Also store name in KPropertyImpl, so that calling 'name' on a KProperty
instance in the property delegate does not result in unnecessary descriptor
computation
The only place where their get/set methods were used was in
KPropertyNImpl.Getter.invoke, and it's fine if that results in a reflective
call instead (KPropertyN#getter is not available without kotlin-reflect.jar
anyway). The test data has been changed because a package local Java field is
not accessible via reflection
Most of KClassImpl operations should be cached, but creating a lazy value for
each operation would significantly increase memory footprint of a KClassImpl
instance. Therefore we decide to store all lazy values under a single lazy
value named 'data' which is stored in KClassImpl. There's a minor overhead of
indirection on any operation now, however it'll allow us to substantially
increase reflection performance by caching everything we can
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
Both primitive int and wrapper type java.lang.Integer are represented by the
single type kotlin.Int in Kotlin, so inequality between the corresponding
KClasses was confusing here. To keep the old behavior, one may call 'k1.java ==
k2.java' instead of `k1 == k2`
#KT-13462 Fixed
As in KClassifier.createType and everywhere in the compiler, specify arguments
for the innermost type first. This is more convenient to use because generally
the construction/introspection of such type starts from the innermost class
anyway (i.e. something like generateSequence can be used, without the need to
call .reverse() in the end)
Its semantics were unclear and its javaType was implemented incorrectly (it
should have returned ParameterizedType with star projections for generic type)