The type mapper does not map enum parameters and outer this parameters
to the right parameter signature kinds so around half the tests
are still failing. Since a new type mapper is being worked
on I will not investigate that further right now.
The reference can be lowered to `this` if it is captured in the lexical
scope of the corresponding enum entry, and not used by the enum entry's
super constructor. Otherwise, it is lowered to
`GETFIELD SomeEnum.SomeEntry`.
We get the info for the underlying progression and invert it. For
progressions whose last bound was open (e.g., `until` loop), the
reversed version will have an open first bound and so the induction
variable must be incremented first.
Also unified the way of extracting HeaderInfo out of changed calls
(e.g., `indices.reversed()`), and fixed declaration parents in
ForLoopsLowering.
This works in many cases, however, it is incomplete since there
are cases where classes are extracted to top-level and therefore
reparented. Therefore, we lose the information about the function
class are nested inside.
In case Java enum has an abstract member, it has the ACC_ABSTRACT flag
set in the bytecode. However, we should still load it with final
modality to be consistent with Kotlin enums which are always considered
final
#KT-23426 Fixed
Two known issues with generateNonPartClassDeclarations that was here
before were the fact that we didn't sort sealed classes and its
subclasses which led to NoSuchMethodError (KT-27097), and the fact that
we didn't skip expect classes which led to incorrect duplicate JVM class
name diagnostic (KT-30843)
#KT-27097 Fixed
#KT-30843 Fixed
This directive generates TailCallOptimizationChecker in package helpers.
The check for tail call optimization is based on coroutine stack traces
bug (feature?): when tail call optimization hits, the continuation
object is not generated. Thus, there is no debug metadata for this
suspend function. Consequently, the coroutines stack trace does not
contain stack trace element for that function.
This check is performed by TailCallOptimizationChecker.
Since this is runtime check, unlike bytecode tests, it does not require
test data adjustments on each codegen or inliner change.
Since the check is based on debug metadata, which is JVM specific, there
is not support for other backends yet.
if they are not inlined, but directly called.
Previously, all inline and crossinline lambda calls were treated by
codegen as if they are always going to be inlined. However, this is not
always the case.
Note, that we cannot generate these markers during codegen, since we
can inline code with no suspension points, but the whole inlined code
will become one giant suspension point. This, of course, breaks
tail-call optimization and, hence, slows down cold streams.
Because of that, we generate these markers, when we are sure, that they
are not going to be inlined. The only place, in which we know that, is
the inliner. During inlining of the inline function, we check, whether
the parameter is inline or crossinline and whether it is not an inline
lambda. If these checks pass, we generate the markers. Noinline
parameters are already covered by the codegen.
#KT-30706 Fixed
#KT-26925 Fixed
#KT-26418 Fixed
In SourceCompilerForInline we could enter ERASED_INLINE_CLASS context
from containing declaration context. That broke codegen context
hierarchy invariants assumed in accessor generation.
We would like DeclarationDescriptor.getOriginal() to always point to a
(preferably unique) unsubstituted descriptors for the given possibly
substituted descriptor. In case of LazySubstitutingClassDescriptor
(which can be observed for nested generic Java classes), this invariant
was broken, because 'getOriginal()' for constructors of substituted
class returned a copy created for this particular substituted class.
Ilya Chernikov