* Make pointer bounds non-experimental
* Rename @PointerBounds to @_SwiftifyImport
* Rename filenames containing PointerBounds
* Add _PointerParam exception to stdlib ABI test
* Add _PointerParam to stdlib API changes
* Rename _PointerParam to _SwiftifyInfo
- Don't use CommaJoined, since profile-sample-use only takes one file
- Specify that the flag is only supported by the new swift-driver.
for rdar://135443278
This results in an automatic wrapper function with safe pointer types
when the imported function has bounds attributes. This exercises similar
pathways as the recently added functionality for specifying macros from
swift_attr. The new functionality is guarded by the experimental
language feature SafeInteropWrappers.
rdar://97942270
This makes sure that the compiler does not emit `-enable-experimental-cxx-interop`/`-cxx-interoperability-mode` flags in `.swiftinterface` files. Those flags were breaking explicit module builds. The module can still be rebuilt from its textual interface if C++ interop was enabled in the current compilation.
rdar://140203932
Also introduce two new frontend flags:
The -solver-scope-threshold flag sets the maximum number of scopes, which was
previously hardcoded to 1 million.
The -solver-trail-threshold flag sets the maximum number of trail steps,
which defaults to 64 million.
To allow feature build settings to be composed more flexibly, allow an
`-enable-upcoming-feature` flag to be overridden by a
`-disable-upcoming-feature` flag. Whichever comes last on the command line
takes effect. Provide the same functionality for `-enable-experimental-feature`
as well.
Resolves rdar://126283879.
The `-include-submodules` flag causes the synthesized interface to include
implicit Clang submodules of the module being printed. Since these are
automatically made visible when importing the corresponding top-level module,
it's often useful to have them present in the same synthesized Swift
interface instead of having to make separate invocations to get each
submodule separately.
The `-print-fully-qualified-types` causes type names to be printed with
full module qualification. This is useful when using the synthesized
interface for some other kind of analysis, because it ensures that all
type references explicitly indicate which module they came from, instead
of having to guess scoping and import resolution rules to figure out
which module a reference comes from.
It is unsound to expose `package` declarations in textual interfaces without a
package identity for them to belong to so we should not offer this flag.
Resolves rdar://139361524.
This patch adds support for serialization and deserialization of
debug scopes.
Debug scopes are serialized in post order and enablement is
controlled through the experimental-serialize-debug-info flag which
is turned off by default. Functions only referred to by these debug
scopes are deserialized as zombie functions directly.
This achieves the same as clang's `-fdebug-info-for-profiling`, which
emits DWARF discriminators to aid in narrowing-down which basic block
corresponds to a particular instruction address. This is particularly
useful for sampling-based profiling.
rdar://135443278
This is something that I have wanted to add for a while and have never had the
need to. I need it now to fix a bug in the bots where I am forced to use IRGen
output to test ThunkLowering which causes platform level differences to show up
in the FileCheck output. With this, I can just emit the actual lowered SIL
output and just test it at that level. There are other cases like this where we
are unable to test lowered SIL so we use IRGen creating this brittleness.
Hopefully this stops this problem from showing up in the future.
rdar://138845396
Add flag `-load-resolved-plugin` to load macro plugin, which provides a
pre-resolved entry into PluginLoader so the plugins can be loaded based
on module name without searching the file system. The option is mainly
intended to be used by explicitly module build and the flag is supplied
by dependency scanner.
This change refactors the top-level dependency scanning flow to follow the following procedure:
Scan():
1. From the source target under scan, query all imported module identifiers for a *Swift* module. Leave unresolved identifiers unresolved. Proceed transitively to build a *Swift* module dependency graph.
2. Take every unresolved import identifier in the graph from (1) and, assuming that it must be a Clang module, dispatch all of them to be queried in-parallel by the scanner's worker pool.
3. Resolve bridging header Clang module dpendencies
4. Resolve all Swift overlay dependencies, relying on all Clang modules collected in (2) and (3)
5. For the source target under scan, use all of the above discovered module dependencies to resolve all cross-import overlay dependencies
It might be unexpected to future users that `-swift-compiler-version`
would produce a version aligned to .swiftinterface instead of one used
to build the .swiftmodule file. To avoid this possible confusion, let's
scope down the version to `-interface-compiler-version` flag and
`SWIFT_INTERFACE_COMPILER_VERSION` option in the module.
