... at the cost of correctness, see test changes
This change was suggested by Argyrios.
But we still take 10 seconds to compute completion results for Cocoa.
Swift SVN r16599
Use this node to capture the argument name and its source location in
the AST. We're only building these in one place at the moment; the
rest will be updated soon.
Swift SVN r16581
In order for Xcode to use these completions, we complete "?.member" when the
user has typed "anOptional.", but we also say that in order to apply this
result, N bytes to the left of the cursor should be erased first.
rdar://16579657 rdar://15233283
Swift SVN r16409
class A {
init(a: Int) {}
}
A(#^HERE^#
In its current state, this is a hack that I am not proud of. There is
potential here to provide such completions for all function calls:
class A {
func foo(a: Int) {}
func foo(a: Double) {}
}
A().foo(#^HERE^#
but this requires code completion doing its own name lookup, since the type
checker will give us an error type due to ambiguity of overloaded functions.
Type checker also sometimes gives up in cases like these:
struct A {
func foo() {}
}
A().foo
which is understandable, since we disallow partial applications of functions on
values, but returning the correct type here is useful for code completion.
rdar://16597372
Swift SVN r16367
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
We can just get it from the instance type, if the instance type has been fully initialized, which is the case except during parsing of type decls when the decls' own types are being formed.
Swift SVN r15598
When we see an unresolved @class in a Clang module, we check the class name
against the classes in the Swift module with the same name.
This unfortunately necessitates putting a reference to the active type checker
into the ClangImporter, because the class in the current Swift module hasn't
been type-checked yet. This is now being used everywhere we do a lookup.
<rdar://problem/16295994>
Swift SVN r15355
Code completion used to suggest non-static members in member var initializer,
and incorrectly reported the reason why the declarations are visible from the
initializer.
Swift SVN r14457
User can not call them directly, so code completion now skips them just like
getters and setters.
This is part of fixing rdar://15849262
Swift SVN r14341
These changes add support for build and target configurations in the compiler.
Build and target configurations, combined with the use of #if/#else/#endif allow
for conditional compilation within declaration and statement contexts.
Build configurations can be passed into the compiler via the new '-D' flag, or
set within the LangOptions class. Target configurations are implicit, and
currently only "os" and "arch" are supported.
Swift SVN r14305
- purge @inout from comments in the compiler except for places talking about
the SIL argument convention.
- change diagnostics to not refer to @inout
- Change the astprinter to print InoutType without the @, so it doesn't show
up in diagnostics or in closure argument types in code completion.
- Implement type parsing support for the new inout syntax (before we just
handled patterns).
- Switch the last couple of uses in the stdlib (in types) to inout.
- Various testcase updates (more to come).
Swift SVN r13564
- Introduce a new TypeBase::getInOutObjectType() that strips off @inout types
- Switch stuff that is calling getRValueType() to call getInOutObjectType()
when they are stripping @inout, not @lvalue (this is primarily around
stuff working with self)
- Update testcases, some diagnostics improve around & handling.
This fixes rdar://15708430 and rdar://15729093.
Swift SVN r11794
(various) FunctionType::get's, ArrayType::get,
ArraySliceType::get, OptionalType::get, and a few
other places.
There is more to be done here, but this is all I plan to do
for now.
Swift SVN r11497
This completes the FileUnit refactoring. A module consists of multiple
FileUnits, which provide decls from various file-like sources. I say
"file-like" because the Builtin module is implemented with a single
BuiltinUnit, and imported Clang modules are just a single FileUnit source
within a module.
Most modules, therefore, contain a single file unit; only the main module
will contain multiple source files (and eventually partial AST files).
The term "translation unit" has been scrubbed from the project. To refer
to the context of declarations outside of any other declarations, use
"top-level" or "module scope". To refer to a .swift file or its DeclContext,
use "source file". To refer to a single unit of compilation, use "module",
since the model is that an entire module will be compiled with a single
driver call. (It will still be possible to compile a single source file
through the direct-to-frontend interface, but only in the context of the
whole module.)
Swift SVN r10837
