In the IDE, there might come declarations from other files/modules
that we link against, but not pass to the backend. As only declarations
from the compiled files end up being in the cache, the consistency check
should be relaxed.
In the IDE, it's impossible to pass classes from all modules to the
backend, so symbols for 'external' source declarations need to be
generated ad-hoc.
Such declarations do not go through the lowering phase, including one
that replaces the containing package fragment with a facade class.
In the IDE, there might come declarations from other files/modules
that we link against, but not compile. Type parameters are one of such
declaration kinds.
In the IDE, FIR declarations for libraries are built on top of binary
stubs. This helps to improve memory usage significantly, as Protobuf
metadata isn't loaded all the time. However, the containing file type
for stubs is different.
For a more efficient lookup of a companion with the functions of obtaining a serializer, a special annotation is added to the named companions.
Merge-request: KT-MR-11003
Merged-by: Sergey Shanshin <Sergey.Shanshin@jetbrains.com>
This is needed to be able to precisely distinguish different synthetic
declarations (like fields for delegates and functions for data classes)
in fir2ir
Logic that was used to complete receiver expression is no longer needed
after the `invoke receiver completion` change:
7b46c59d57
Before that change, we could have generated a new receiver expression
during resolution in case of `call() -> call.<invoke>()` resolution,
Here - `call` is newly generated qualified access that wasn't completed.
We were detecting such situations by detecting change in the receiver
between original `call()` shape and output `___.invoke()` shape in
the expression.
After that change, we always complete the receiver of invoke during
`callResolver.resolveCallAndSelectCandidate`
So the logic that detects receiver mismatch and invokes receiver
completion after it isn't needed anymore
Move language version settings, compiler configuration and different
flags there, and use this config everywhere in both backends instead of
GenerationState.
This will hopefully make GenerationState less of a "god object" and
remove the need to have it available everywhere, in particular in JVM IR
lowerings code, in the future.
Also, future refactorings will make it easier to inject backend-specific
behavior into common code, so that we would not need to handle support
of new features in the old backend.
The following transformations were commonized:
* generation of the transformed atomic extension signature
* building atomic array fields (arrays are now supported on both backends JVM and K/N)
* transformation of function calls on atomic array elements
* Generation and invocation of atomic extensions (the only difference is generation of synthetic value parameters)
* Changed synthetic parameters passed to the generated atomic extensions
See, KT-60528
Merge-request: KT-MR-11249
Merged-by: Maria Sokolova <maria.sokolova@jetbrains.com>
We have `BackendKinds.IrBackend` for IR emitted by the frontend.
We need a different backend kind for IR deserialized from klibs.
We cannot use `BackendKinds.IrBackend` for that purpose, because we
cannot have two different `IrBackendInput` subclasses with the same
kind.
We need a different `IrBackendInput` subclass for deserialized IR
because the `IrBackendInput` for frontend-emitted IR contains some
properties like `sourceFiles` which don't make sense for
deserialized IR.
Since we now have two backend kinds for IR artifacts, we need to make
certain functions and classes in the test infrastructure generic
over backend kinds.
Note: the JsIrDeserializedFromKlibBackendInput class is not used
anywhere yet. We will use it in the coming commits.
Yan Zhulanow