Include a mapping from Objective-C selectors to the @objc methods that
produce Objective-c methods with those selectors. Use this to lazily
populate the Objective-C method lookup tables in each class. This makes
@objc override checking work across Swift modules, which is part of
rdar://problem/18391046.
Note that we use a single, unified selector table, both because it is
simpler and because it makes global queries ("is there any method with
the given selector?") easier.
Swift SVN r23214
@objc methods, initializers, deinitializers, properties, and
subscripts all produce Objective-C methods. Diagnose cases where two
such entities (which may be of different kinds) produce the same
Objective-C method in the same class.
As a special exception, one can have an Objective-C method in an
extension that conflicts with an Objective-C method in the original
class definition, so long as the original class definition is from a
different model. This reflects the reality in Objective-C that the
category definition wins over the original definition, and is used in
at least one overlay (SpriteKit).
This is the first part of rdar://problem/18391046; the second part
involves checking that overrides are sane.
Swift SVN r23147
This included a test that failed on case-sensitive filesystems. Test fixed.
(Aside: Why not just have this fail with "no such module"? Why use a different
error? Because even if "import FOO" picks up a module named 'Foo', there may
actually be a module named 'FOO' on the system (in another folder), and we
should be able to find that. Fixing that is tracked by rdar://problem/18691936.)
rdar://problem/15632996 (again)
Swift SVN r22856
Due to case-insensitive filesystems, "import foundation" can result in the
overlay module for Foundation being loaded. Everything is confused later on
because the (wrong) module name is used in manglings, leading to all sorts
of issues.
This is not the right fix for the problem, because a user really is allowed
to have modules named "foundation" and "FOUNDATION" and "Foundation" coexisting
on their system. To do that we'll want to check the actual case of a
.framework bundle or .swiftmodule file on disk and make sure it matches before
even trying to load the file. But this is a good sanity check anyway.
rdar://problem/15632996
Swift SVN r22818
Modeling builtins as first-class function values doesn't really make sense because there's no real function value to emit, and modeling them this way complicates passes that work with builtins because they have to invent function types for builtin invocations. It's much more straightforward to have a single instruction that references the builtin by ID, along with the type information for the necessary values, type parameters, and results, so add a new "builtin" instruction that directly represents a builtin invocation. NFC yet.
Swift SVN r22690
properties.
The main design change here is that, rather than having
purportedly orthogonal storage kinds and has-addressor
bits, I've merged them into an exhaustive enum of the
possibilities. I've also split the observing storage kind
into stored-observing and inherited-observing cases, which
is possible to do in the parser because the latter are
always marked 'override' and the former aren't. This
should lead to much better consideration for inheriting
observers, which were otherwise very easy to forget about.
It also gives us much better recovery when override checking
fails before we can identify the overridden declaration;
previously, we would end up spuriously considering the
override to be a stored property despite the user's
clearly expressed intent.
Swift SVN r22381
I can't actually reproduce the buildbot failure that happened last night, so
hopefully it will (a) happen again, so I can investigate, or (b) not happen
again.
Swift SVN r22230
FixNum.h and BCRecordLayout.h will move down into LLVM, APINotes
will move into Clang. Get the namespaces right before we start to move
files around.
Swift SVN r22218
conformances (22195 to 22199).
It broke tests:
Failing Tests (4):
Swift :: Interpreter/SDK/Foundation_NSString.swift
Swift :: SIL/Serialization/deserialize_appkit.sil
Swift :: SIL/Serialization/deserialize_foundation.sil
Swift :: stdlib/NSStringAPI.swift
Swift SVN r22214
Like the Clang decls, this happens at the end of the type-checking, just as
a simple walk through the loaded decls of the loaded modules. This caught
all of the issues in this commit series and will hopefully keep us honest in
the future.
(By the way, we don't verify right when we return a deserialized decl for the
same reason we don't verify right when we return an imported decl: parts of
the decl may be delayed, and (a) we don't want to force things to be imported
or deserialized sooner than necessary, yet (b) we want to verify as much as
possible.)
rdar://problem/16968891
Swift SVN r22200
Doug had changed the comment but not the implementation -- we were still
serializing the containing module rather than the declaring nominal or
extension.
Found by enabling verification on deserialized decls (to come soon).
Swift SVN r22198
We add two more fields to SILGlobalVariable: a VarDecl and a flag to see if this
is a declaration. VarDecl is mainly used for debugger support, it is also used
to check if the variable is weak imported.
We also modify the serializer to serialize the extra two fields.
Swift SVN r21883
This behaves like @UIApplicationMain, except for AppKit. Attach it to your NSApplicationDelegate, and an artificial "main" will be generated that invokes NSApplicationMain() for you. Implements rdar://problem/16904667.
Swift SVN r21697
This is useful both for caching purposes and for comparison of discriminators
(something the debugger will need to do when looking up a particular decl).
No observable functionality change.
Swift SVN r21610
We currently mangle private declarations exactly like public declarations,
which means that private entities with the same name and same type will
have the same symbol even if defined in separate files.
This commit introduces a new mangling production, private-decl-name, which
includes a discriminator string to identify the file a decl came from.
Actually producing a unique string has not yet been implemented, nor
serialization, nor lookup using such a discriminator.
Part of rdar://problem/17632175.
Swift SVN r21598
Previously, we depended on whether or not a serialized module was located
within a framework bundle to consider whether or not it may have a "Clang
half". However, LLDB loads serialized modules from dSYM bundles. Rather
than try to figure out if such a module is "really" a framework, just track
whether the original module was built with -import-underlying-module. If so,
consider the underlying Clang module to be re-exported.
rdar://problem/18099523
Swift SVN r21544
