In order to implement immediate and REPL modes in swift_driver, this functionality
needs to be in a library (instead of directly in the swift executable).
Swift SVN r12519
- Added a couple of new targets:
- libswiftDriver, which contains most of the driver implementation
- swift_driver, which produces the actual executable
- Added centralized version information into libswiftBasic.
- Added a new "Driver Design & Internals" document, which currently describes
the high-level design of the Swift driver.
- Implemented an early version of the functionality of the driver, including
versions of the Parse, Pipeline, Bind, Translate, and Execute driver stages.
Parse, Pipeline, and Bind are largely implemented; Translate and Execute are
early placeholders. (Translate produces "swift_driver --version" and "ld -v"
commands, while Execute performs all subtasks sequentially, rather than in
parallel.)
This is just the starting point for the Swift driver. Tests for the existing
behavior are forthcoming.
Swift SVN r10933
ClangImporter::create had a 'weak' attribute but it did not actually have the desired effect,
static libraries still want to link to ClangImporter::create if it is used.
Avoiding linking ClangImporter kinda "worked" because CompilerInvocation::setSDKPath was inline,
so if you didn't call it then you didn't need to link to Clang importer, but that is avoiding
ClangImporter statically, not dynamically.
You could see this by moving CompilerInvocation::setSDKPath out-of-line and then sil-opt would fail to link.
In order to have clients avoiding linking Clang, introduce NullClangImporter which just returns null for the
ClangImporter constructor function.
Swift SVN r7465
* Added a mode in swift-ide-test to test code completion. Unlike c-index-test,
the code completion token in tests is a real token -- we don't need to
count lines and columns anymore.
* Added support in lexer to produce a code completion token.
* Added a parser interface to code completion. It is passed down from the
libFrontend to the parser, but its functions are not called yet.
* Added a sketch of the interface of code completion consumer and code
completion results.
Note: all this is not doing anything useful yet.
Swift SVN r6128
From a user's perspective, one imports Clang modules using the normal
Swift syntax for module imports, e.g.,
import Cocoa
However, to enable importing Clang modules, one needs to point Swift
at a particular SDK with the -sdk= argument, e.g.,
swift -sdk=/Applications/Xcode.app/Contents/Developer/Platforms/MacOSX.platform/Developer/SDKs/MacOSX10.9M.sdk
and, of course, that SDK needs to provide support for modules.
There are a number of moving parts here. The major pieces are:
CMake support for linking Clang into Swift: CMake users will now need
to set the SWIFT_PATH_TO_CLANG_SOURCE and SWIFT_PATH_TO_CLANG_BUILD
to the locations of the Clang source tree (which defaults to
tools/clang under your LLVM source tree) and the Clang build tree.
Makefile support for linking Clang into Swift: Makefile users will
need to have Clang located in tools/clang and Swift located in
tools/swift, and builds should just work.
Module loader abstraction: similar to Clang's module loader,
a module loader is responsible for resolving a module name to an
actual module, loading that module in the process. It will also be
responsible for performing name lookup into that module.
Clang importer: the only implementation of the module loader
abstraction, the importer creates a Clang compiler instance capable of
building and loading Clang modules. The approach we take here is to
parse a dummy .m file in Objective-C ARC mode with modules enabled,
but never tear down that compilation unit. Then, when we get a request
to import a Clang module, we turn that into a module-load request to
Clang's module loader, which will build an appropriate module
on-the-fly or used a cached module file.
Note that name lookup into Clang modules is not yet
implemented. That's the next major step.
Swift SVN r3199
actually render emitted diagnostics. This is both a useful
generalization (we expect to have a number of other
DiagnosticConsumers down the road, as Clang does) and is also
important now to avoid a layering violation when adjusting the source
location at the end of a SourceRange to the end of the token.
Swift SVN r850
diagnostics over to it.
There are a few differences between this diagnostic engine and Clang's
engine:
- Diagnostics are specified by a .def file (Diagnostics.def), rather
than via tblgen, which drastically simplifies the build and makes
code completion work when you add a new diagnostic.
- Calls to the "diagnose()" method are safely typed based on the
argument types specified in the .def file, so it's harder to write a
diagnostic whose expected arguments (in the string) and whose actual
arguments (in the code) don't match.
- It uses variadic templates, so it hangs with the cool kids.
Swift SVN r734
This CMake-based build system is based on the one in Clang, simplified
and tweaked slightly to better support building a smaller Xcode
project that links against an existing LLVM (rather than importing all
of LLVM into this project).
Swift SVN r403
