"import func Darwin.C.math.hypot" will now work to just import "hypot".
(Since 'Darwin.C.math' is an implicit submodule of 'Darwin',
"import func Darwin.hypot" also works. That's okay.)
<rdar://problem/17272311>
Swift SVN r20356
it indirectly through another pointer from Decl, just embed DeclAttributes
directly into Decl and get rid of the "getMutableAttrs" nonsense.
Swift SVN r20216
We do this so that the swiftmodule file contains all info necessary to
reconstruct the AST for debugging purposes. If the swiftmodule file is copied
into a dSYM bundle, it can (in theory) be used to debug a built app months
later. The header is processed with -frewrite-includes so that it includes
any non-modular content; the user will not have to recreate their project
structure and header maps to reload the AST.
There is some extra complexity here: a target with a bridging header
(such as a unit test target) may depend on another target with a bridging
header (such as an app target). This is a rare case, but one we'd like to
still keep working. However, if both bridging headers import some common.h,
we have a problem, because -frewrite-includes will lose the once-ness
of #import. Therefore, we /also/ store the path, size, and mtime of a
bridging header in the swiftmodule, and prefer to use a regular parse from
the original file if it can be located and hasn't been changed.
<rdar://problem/17688408>
Swift SVN r20128
When a module built with -autolink-force-load is imported, add a reference
to a special symbol in the corresponding library so that ld is forced to
link it.
This means the library will be linked into the final binary even if no other
symbols are used (which happens for some of our overlays that just add
category methods to Objective-C classes).
Second part of <rdar://problem/16829587>
Swift SVN r17751
This doesn't handle cross-references to decls /loaded/ from the header
just yet, so all that's testable right now is whether the header's imports
are visible from the secondary target (after being imported in response
to loading the serialized module).
More of <rdar://problem/16702101>
Swift SVN r17638
The on-disk hashtable is moving from clang to llvm. This updates some
consumers for the new path and namespace. I've also shortened the
make_range(data_begin(), data_end()) calls on the hash table to just
use data().
Swift SVN r16537
OnDiskIterableChainedHashTable interface introduced in CFE 206189.
Thanks to Justin for guiding me through this!
The test-failures I was worried about after I originally committed this
turned out to be unrelated.
Swift SVN r16340
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
In a framework containing both Clang headers and a Swift module, the Swift
module gets picked up first, but then automatically imports (and re-exports)
the Clang module as well.
One interesting case here is that it's possible for the Clang side to add
categories to a class declared in Swift. In order to support this, the
Clang importer can now find extensions for Swift classes marked @objc.
(I couldn't think of a way to test this separately; the previous commit
was supposed to do that, but worked without this change.)
<rdar://problem/16295937>
Swift SVN r15084
The driver infers the filename from the module file by replacing the extension,
and passes the explicit path to the swiftdoc file to the frontend. But there
is no option in the driver to control emission of swiftdoc (it is always
emitted, and name is always inferred from the swiftmodule name).
The swiftdoc file consists of a single table that maps USRs to {brief comment,
raw comment}. In order to look up a comment for decl we generate the USR
first. We hope that the performance hit will not be that bad, because most
declarations come from Clang. The advantage of this design is that the
swiftdoc file is not locked to the swiftmodule file, and can be updated,
replaced, and even localized.
Swift SVN r14914
This won't ever happen naturally, but by either messing with the module file
or asking the compiler to load something that isn't a module at all we could
end up hitting the assert.
<rdar://problem/16274875>
Swift SVN r14902
Make the name lookup interfaces all take DeclNames instead of identifiers, and update the lookup caches of the various file units to index their members by both compound name and simple name. Serialized modules are keyed by identifiers, so as a transitional hack, do simple name lookup then filter the results by compound name.
Swift SVN r14768
Swift can now find modules inside framework bundles matching this layout:
Foo.framework/
Foo.swiftmodule/
ARCH.swiftmodule
Currently, ARCH is the architecture name used by build configurations (#if),
but this was more done out of convenience than anything else (there's
currently no access to the current target from the ASTContext). We'll need
to revisit this if/when we decide to support architecture subtypes (armv7s
vs. armv7 vs. arm), at which point we'll also have to deal with fallback
architectures.
Framework search paths are specified using -F. Like bare import paths, there
are currently no "built-in framework search paths".
The master plan for Swift frameworks is in <rdar://problem/16062602>.
<rdar://problem/16155907>
Swift SVN r14363
From now on, /any/ changes to SIL or AST serialization must increment
VERSION_MINOR in ModuleFormat.h.
The original intent of VERSION_MAJOR/VERSION_MINOR was that VERSION_MAJOR
would only increment when backwards-incompatible changes are introduced,
and VERSION_MINOR merely indicates whether to expect additional information.
However, the module infrastructure currently isn't forgiving enough to accept
even backwards-compatible changes to the record schemas, and the SIL
serialization design might not be compatible with that at all.
So for now, treat any version number 0.x as incompatible with any other 0.y.
We can bump to 1 when we hit stability.
<rdar://problem/15494343>
Swift SVN r13841
This necessitated adding a new function to validate a serialized AST, so
that we can get the same information that used to be extracted from the
section header.
For now, we'll continue accepting the wrapped ASTs as well, since we
haven't changed the existing debug info generator.
Swift SVN r12922
We don't currently use this for anything, but if we have the module name
available and easy to access in the bitstream, we can drop the wrapper
around the serialized AST that's put into the binary itself for use by LLDB.
Swift SVN r12921
We don't currently use this for anything, but if we have the module name
available and easy to access in the bitstream, we can drop the wrapper
around the serialized AST that's put into the binary itself for use by LLDB.
Swift SVN r12919
The only reason to do this was in case an extension adopted a compiler-known
protocol, but that has long ben taken care of by
ModuleFile::loadDeclsConformingTo.
Swift SVN r11224
There shouldn't ever be a reason to do this: if a conversion function is
ever selected by the type-checker, it's because the type the conversion
lives on was suggested by another constraint, which means we can do a
normal lookup for the conversion function.
This is actually the only thing being eagerly deserialized, so remove the
notion of eager deserialization altogether.
Swift SVN r11220
Since we don't have soft-failure yet from deserialization, it's helpful to
at least know where to start looking when something crashes. There are some
rough edges here but it should be much better than nothing.
This also pulls the list of record nodes out into a separate file, so that
we can avoid repeating it.
Example crash:
1. While reading from ./CTypes.swiftmodule
2. While deserializing 'CBool' (StructDecl)
3. While deserializing decl #26 (XREF)
4. Cross-reference to 'LogicValue' in swift
(don't worry, this is an example where I'm tweaking things)
<rdar://problem/14838332>
Swift SVN r11057
Each loaded file gets added to the main module, rather than being a standalone
separate module. In theory, this will be used to assemble several partial
ASTs into a complete module. In practice, there's still a ways to go...but
this can already round-trip a single module file.
This also factors out the FileUnit-creating part of SerializedModuleLoader,
which should help clients like SourceKit that don't need to search for a
swiftmodule file associated with a particular import.
Swift SVN r10952
Part of the FileUnit restructuring. A serialized module is now represented as
a TranslationUnit containing a single SerializedASTFile.
As part of this change, the FileUnit interface has been made virtual, rather
than switching on the Kind in every accessor. We think the operations
performed on files are sufficiently high-level that this shouldn't affect us.
A nice side effect of all this is that we now properly model the visibility
of modules imported into source files. Previously, we would always consider
the top-level imports of all files within a target, whether re-exported or
not.
We may still end up wanting to distinguish properties of a complete Swift
module file from a partial AST file, but we can do that within
SerializedModuleLoader.
Swift SVN r10832
Previously we would cache the results of operator lookup whether or not the
operator we found came from an imported module. Since different source files
can have different imports, it's not correct to automatically share operators
from imported modules with all files in the translation unit.
This still isn't fully correct; the current logic prefers operators from
local imports over operators implicitly available from other source files.
Swift SVN r9683
Semantic context describes the origin of the declaration and serves the same
purpose as opaque numeric "priority" in Clang -- to determine the most likely
completion.
This is the initial implementation. There are a few opportunities to bump the
priority of a certain decl by giving it SemanticContextKind::ExprSpecific
context that are not implemented yet.
Swift SVN r9052
SerializedSILLoader to hold a list of SIL deserializers.
Also add an intial implementation of a linking pass that is run right after
SILGen to link the declaration of SILFunction to the actual definition in
the serialized module.
We add two blocks to the serialized module: a sil index block that
maps identifier to a function ID and also holds a list of function offsets,
and a sil block for the actual SILFunctions. We can probably use subblock
instead of two top-level blocks.
The serialization/de-serialization of the function hash table and the function
offsets are implemented. But we are missing handling of types (see FIXME in
the code).
ModuleFile::Serialized is made public to be used by SIL deserializer, as well
as ModuleFile::getType.
The SIL deserializer holds a pointer to the ModuleFile, it gets the sil cursor
and the sil index cursor from the ModuleFile. The other option is for SIL
deserializer to find the start of the two sil blocks within itself, thus having
less coupling with ModuleFile.
No testing case yet because we are missing handling of types.
Swift SVN r8206
few SIL instructions types.
This will be tested when we have a SIL deserializer. Testing cases covering
each implemented SIL instruction will be added.
Swift SVN r8094
getDisplayDecls() was introduced for ":print_module" and works slightly differently, e.g.
it will return the decls from a shadowed clang module, since we want to display them.
Swift SVN r7909
Per discussion with Doug, there's no reason why this should not work:
class Outer {
class Inner {
func extract() { ... }
}
}
var obj : DynamicLookup = ...
obj.extract!()
Swift SVN r7763
