This performs very conservative dependency generation for each compile task
within a full compilation. Any source file, swiftmodule, or Objective-C
header file that is /touched/ gets added to the dependencies list, which
is written out on a per-input basis at the end of compilation.
This does /not/ handle dependencies for the aggregated swiftmodule, swiftdoc,
generated header, or linked binary. This is just the minimum needed to get
Xcode to recognize what needs to be rebuilt when a header or Swift source
file changes. We can revisit this later.
This finishes <rdar://problem/14899639> for now.
Swift SVN r18045
- Continue adding support for checked downcasts of array types (rdar://problem/16535104)
- Fix non-bridged array conversions post-r17868
- Fix rdar://problem/16773693
- Add tests for NSArray coercions to and from Array<T>
Swift SVN r17957
Introduce some infrastructure that allows us to speculatively apply
localized fixes to expressions during constraint solving to fix minor
typos and omissions. At present, we're able to introduce the fixes
during constraint simplification, prefer systems with fewer fixes when
there are multiple fixes, and diagnose the fixes with Fix-Its.
Actually rewriting the AST to reflect what the Fix-Its are doing is
still not handled.
As a start, introduce a fix that adds '()' if it appears to have been
forgotton, producing a diagnostic like this if it works out:
t.swift:8:3: error: function produces expected type 'B'; did you mean
to call it with '()'?
f(g)
^
()
Note that we did regress in one test case
(test/NameBinding/multi-file.swift), because that diagnostic was
getting lucky with the previous formulation.
Swift SVN r16937
Also, create the Clang module loader directly rather than indirecting through
a "get constructor" function. It's no longer a valid configuration to not
have a Clang importer.
Swift SVN r16862
This was part of the original weak design that
there was never any particular reason to rush the
implementation for. It's convenient to do this now
so that we can use it to implement Unmanaged<T> for
importing CF types.
Swift SVN r16693
Blocks need to be born on the stack, so we need a way to represent that on-stack storage. @block_storage T will represent the layout of a block that contains storage for a capture of type T.
Swift SVN r16355
We have to work with selectors quite often, so provide an efficient
representation for them. Switch ObjCAttr over to this representation,
which has the nice property that it efficiently represents implicit
@objc attributes with names and allows us to overwrite the Objective-C
name without losing all source information. Addresses
<rdar://problem/16478678>, and sets us up for dealing with selectors
better.
Swift SVN r16327
Swift will use the basename + argument names formulation for
names. Update the DeclName interfaces, printing, and __FUNCTION__ to
use the method syntax.
We'll still need to rework the "x.foo:bar:wibble:" syntax; that will
come (significantly) later.
Swift SVN r15763
Language features like erasing concrete metatype
values are also left for the future. Still, baby steps.
The singleton ordinary metatype for existential types
is still potentially useful; we allow it to be written
as P.Protocol.
I've been somewhat cavalier in making code accept
AnyMetatypeType instead of a more specific type, and
it's likely that a number of these places can and
should be more restrictive.
When T is an existential type, parse T.Type as an
ExistentialMetatypeType instead of a MetatypeType.
An existential metatype is the formal type
\exists t:P . (t.Type)
whereas the ordinary metatype is the formal type
(\exists t:P . t).Type
which is singleton. Our inability to express that
difference was leading to an ever-increasing cascade
of hacks where information is shadily passed behind
the scenes in order to make various operations with
static members of protocols work correctly.
This patch takes the first step towards fixing that
by splitting out existential metatypes and giving
them a pointer representation. Eventually, we will
need them to be able to carry protocol witness tables
Swift SVN r15716
This fixes the following two bugs:
1. We sometimes would create new conformances when deserializing a
witness method which would not be mapped in the SILModule to the
appropriate witness table. This would cause us to be unable to perform
devirtualization of this witness method. This is tested via a new
verifier check.
2. Different conformances would be created for an instance of a base
protocol and the original protocol. This would cause IRGen to try to
emit witness table global variables with differing types, hitting an
assertion. This is tested via a traditional test.
Swift SVN r15362
..."resolveExternalDeclImplicitMembers".
Now that the ClangImporter has direct access to the type-checker (through
a LazyResolver), there's no reason to bounce through an obtusely generic
interface on ASTContext. Just call through directly to handle the implicit
members and conformances of external decls.
There's no actual functionality change here, though we can probably do
further cleanup in this area.
Swift SVN r15356
Rather than simply trapping with no output, have the initializer stubs
call into a new standard library function _unimplemented_initializer
that emits a more reasonable diagnostic, containing the name of the
class, the name of the initializer, and the file/line/column where the
class itself is defined. This finishes <rdar://problem/16156996>.
Swift SVN r15049
These return placeholder text at the moment, but this enables us to can build
infrastructure that passes them around before the ReST parser is working.
Swift SVN r14650
If an enum has no cases with payloads, make it implicitly Equatable and Hashable, and derive default implementations of '==' and 'hashValue'. Insert the derived '==' into module context wrapped in a new DerivedFileUnit kind, and arrange for it to be codegenned with the deriving EnumDecl by adding a 'DerivedOperatorDecls' array to NominalTypeDecls that gets visited at SILGen time.
Swift SVN r14471
variables
This change allows the type checker to create member references to generic
nominals with free type variables -- see tests. This is important for code
completion, for example, swift.Dictionary.#^A^#
Fixes rdar://15980316
Swift SVN r14461
This is more in line with all other modules currently on our system.
If/when we get our final name for the language, we're at least now set
up to rename the library without /too/ much trouble. (This is mostly just
a lot of searching for "import swift", "swift.", "'swift'", and '"swift"'.
The compiler itself is pretty much just using STDLIB_NAME consistently now,
per r13758.)
<rdar://problem/15972383>
Swift SVN r14001
GenericSignatures with no params or requirements are a bug, so verify that they don't happen by making GenericSignature::get return null and GenericFunctionType assert that it has a nonnull signature. Hack Sema not to try to produce nongeneric GenericFunctionTypes when a function in a local type in a generic function context is type-checked; there's a deeper modeling issue that needs to be fixed here, but that's beyond the scope of 1.0. Now that GenericSignature always has at least one subtype, its factories no longer need an independent ASTContext argument.
Swift SVN r13837
Change GenericFunctionType to reference a GenericSignature instead of containing its generic parameters and requirements in-line, and clean up some interface type APIs that awkwardly returned ArrayRef pairs to instead return GenericSignatures instead.
Swift SVN r13807
For better type safety in SILFunctionTypes, which always want canonical types, and to provide a unique place to hang information common to all equivalent generic signatures, give GenericSignatures a concept of being "canonical".
Swift SVN r13794
