This change allows to revert adding `WITH_STDLIB` directive
to tests which happened at `a9343aeb`.
Co-authored-by: Alexander Udalov <Alexander.Udalov@jetbrains.com>
This inconsistency is present due to not using the `// WITH_STDLIB`
in the above tests. When K1 creates the enum, it tries to generate
`entries()`, and for that it tries to load `kotlin.enums.EnumEntries`,
but this is actually an unresolved reference. K1 silently swallows it,
and proceeds.
The reason K2 doesn't fail is that in order to generate `entries()` it
simply creates the necessary `ConeClassLikeType` with the desired
`classId` instead of loading the whole `ClassDescriptor`.
The reason we can still observe `$ENTRIES` and `$entries` in K1
is because they are generated during the JVM codegen, and it
only checks if the `EnumEntries` language feature is supported. It
doesn't check if the `entries` property has really existed in IR
(by this time it's expected to have already been lowered to the
`get-entries` function - that's why "has ... existed").
The reason why the codegen doesn't fail when working with
`kotlin.enums.EnumEntries` is because it creates its
own `IrClassSymbol`.
^KT-55840 Fixed
Merge-request: KT-MR-8727
Merged-by: Nikolay Lunyak <Nikolay.Lunyak@jetbrains.com>
We are going to deprecate `WITH_RUNTIME` directive. The main reason
behind this change is that `WITH_STDLIB` directive better describes
its meaning, specifically it will add kotlin stdlib to test's classpath.
For example, a lambda `{ param -> captured }` of type `E.(T) -> U` will
be transformed by LocalDeclarationsLowering into a private static method
fun f$lambda-0($this: E, $captured: U, param: T) = $captured
The reason for such an ordering is that a lambda looks the same as a
local function, and local function can have default arguments, and those
arguments can reference captured variables; thus, captured variables
must come before actual declared arguments.
However, this is not the order that the inliner wants. Moreover, since
it was written to handle lambdas represented as `invoke` methods of
anonymous objects, it does not expect the actual callable method to have
any parameters corresponding to captured variables at all. This results
in it attempting to generate a temporary node with descriptor
(LE;LU;LT;LU;)LU;
while still using locals 1 and 2 as `param` and `$captured` respectively.
In the example above, this is not critical, as they both have reference
type and the lambda will eventually be pasted into a different node
anyway; however, if it happens that one of them is a primitive, or both
are primitives of different types, the bytecode will use incorrect
instructions, causing verification errors. The correct descriptor is
(LE;LT;LU;)LU;
It uses isStaticMethod to determine whether to set ACC_STATIC, which is
not correct (see PR #2341). This results in using incorrectly typed
opcodes (as all arguments are shifted by 1) when modifying the inlined
lambda's bytecode. For example, in the test added by this commit, these
opcodes are inserted to spill the stack into locals before calling
another inline function.
Because getMethodAsmFlags is used by the non-IR backend (see PR #2341
again for why changing stuff might not be a good idea), the proposed
solution is to ditch it completely and override generateLambdaBody in
IrExpressionLambdaImpl to use FunctionCodegen's IR-based flag
computation logic.
Original problem is that lowered ir closures doesn't meet inliner expectations
about captured variable position in inlining method.
E.g.: Call 'foo(valueParam) { capturedParam }' to
inline function 'foo' with declaration
inline fun foo(valueParam: Foo, inlineParamWithCaptured: Bar.() ->) ....
is reorganized through inlining to equivalent call foo(valueParam, capturedParam1, cp2 ...).
But lowered closure for lambda parameter has totally different parameters order:
fun loweredLambda$x(extensionReceiver, captured1, cp2..., valueParam1, vp2...)
So before inlining lowered closure should be transformed to
fun loweredLambda$x(extensionReceiver, valueParam1, vp2..., captured1, cp2..)
#KT-28547 Fixed
This patch mutes the following test categories:
* Tests with java dependencies (System class,
java stdlib, jvm-oriented annotations etc).
* Coroutines tests.
* Reflection tests.
* Tests with an inheritance from the standard
collections.