The initial assumption were that inside compiler and test framework all
line breaks are normalized, because we read text files only through IDEA
utils (which do normalization).
The mistake was that 'StringBuilder.appendln()' appends
'System.lineSeparator()' as well, so it's not enough to only check that
we don't load files from disk without normalizing whitespaces.
Note that using 'it.replace(System.lineSeparator(), ...)' would be
incorrect too, because actually we have strings with two kinds of line
breaks here (normalized and not normalized), so we're looking for both
via simple regex.
Inject it instead of calling constructor manually and passing instance
directly into the container. This allows to accept some components in
constructor of ExpectedActualDeclarationChecker
This commit doesn't change behaviour of any inference algorithm, it
introduces opportunity to switch constraint system that is used for
overload resolution and fix problematic cases by changing one enum
entry.
Due to fundamental changes, there are cases where a new inference
algorithm reports overload resolution ambiguity errors (#KT-31670,
#KT-31758), which is correct from its point of view. However, this is
a breaking change and to really make it, we should be very confident
and have enough motivation for it, therefore, we don't change behavior
now in order to collect more examples (if there are any). And if we
find a lot of erroneous examples, we'll be able to change the behavior
quite simply
Previously, containers set-up was performed by calls to static functions
like 'createContainerForLazyResolve', which would set-up whole container
from scratch.
This has several issues:
- complicates code re-use and encourages copy-paste of one and the same
set-up logic
- complicates composition of multiplatform containers (because each
set-up method relies on the fact that it should take an empty
container and compose it completely)
The idea of this commit is to split set-up methods into smaller ones,
with finer areas of responsibility, which allows to re-use them
in various scenarios (and, in particularly motivating composition
of multiplatform container)
This commit introduces the ability to register a PlatformExtensionClashResolver
in a container. Each PlatformExtensionClashResolver has a corresponding
PlatformSpecificExtensions.
If, during container composition, several instances of
PlatformSpecificExtensions were registred, instead of throwing
InvalidCardinalityException, corresponding PlatformExtensionClashResolver
will be asked to resolve clash.
This allows to make injection more composable and less coupled across
different contributors of service, providing a basis for such motivating
cases as composing containers with both JS and JVM services (for analysis
of multiplatform modules).
Previously, that would be impossible:
a) JS would inject default instances for some services which would clash
with non-default JVM services (like SyntheticScopes)
b) Also, there are a very few services for which *both* platforms provide
non-default implementations, so they should be merged manually on
case-by-case basis (e.g., IdentifierChecker)
This is a large commit, which introduces general API for working with
abstraction of Platform.
- Add new abstraction to 'core' - SimplePlatform - which represents
exactly one platform
- Clients are strongly prohibited to create instances of SimplePlatform
by hand, instead, corresponding *Platforms abstraction should be used
(e.g. JvmPlatforms, JsPlatforms, KonanPlatforms)
- Move TargetPlatform to 'core', it represents now a collection of
SimplePlatforms
- Clients are strongly encouraged to use TargetPlatform
(not SimplePlatform) in API, to enforce checks for multiplatform
- Provide a helper-extensions to work with TargetPlatform
(in particular, for getting a specific component platform)
- Remove MultiTargetPlatform in favour of TargetPlatform
- Notably, this commit leaves another widely used duplicated abstraction,
namely, IdePlatform. For the sake sanity, removal of IdePlatform is
extracted in the separate commit.
This decouples simple data (TargetPlatform) from other subsystem-specific
logic (like default imports, built-ins, etc.).
Aside from purely aesthetic improvements, it also makes it easier
to move 'TargetPlatform' into core (see next commits)
Mostly unused imports. Also, in some places,
TargetPlatform/MultiTargetPlatform were just passed around without
actually using (e.g. in deserialization)
There is added a new service named `SubstitutingScopeProvider`, that
provides factory that creates captured types and approximator for them.
In OI they are the same as before commit, for NI they are empty, because
that approximation interferes with NI algorithm
That service is injected into function descriptors and property descriptors
and used for creating `SubstitutingScope` with correct services
Also there is changed time when we approximate captured types in NI
(after all call checkers)
#KT-25290 Fixed
Also that commit removes usages of builtins inside
effect system and starts refactoring of functor
composition via composition instead of inheritance.
There are some changes in testdata related to inference of recursive
functions with implicit return types.
After this commit they all are marked as unresolved. It happens because
those functions have DeferredType as return type, and computing this
type produces recursive exception, which provides “typechecker
recursive problem” diagnostic.
Before this commit, function call was completed successfully, because
call completer didn’t computed that type, and computation of DeferredType
were triggered only in `DataFlowAnalyzer.checkType`.
Now, effect system tries to compute that type while wrapping KotlinTypes
into ESTypes, and effect system itself is triggered in in call completer,
so, call completion doesn’t finish and function call is marked as unresolved.
#KT-31364
Vladimir Dolzhenko