`getValue` -> `value`
`getValueOr` -> `value_or`
`hasValue` -> `has_value`
`map` -> `transform`
The old API will be deprecated in the rebranch.
To avoid merge conflicts, use the new API already in the main branch.
rdar://102362022
IDE/Refactoring had dependencies to libswiftIndex, but libswiftIndex
also depends on libswiftIDE (SourceEntityWalker, etc.)
To break libswiftIndex <-> libswiftIDE dependency cycle, move
"refactoring" related files to a new library 'libswiftRefactoring'
rdar://101692282
These libraries formed a strongly connected component in the CMake build graph. The weakest link I could find was from IDE to FrontendTool and Frontend, which was necessitated by the `CompileInstance` class (https://github.com/apple/swift/pull/40645). I moved a few files out of IDE into a new IDETools library to break the cycle.
#58786 (rdar://93030932) was failing because the `swift-frontend` invocations passed a `swiftExecutablePath` to `Invocation.parseArgs`. This caused the `ClangImporter` instance to point to a `clang` binary next to the `swift-frontend` executable while SourceKit used PATH to find `clang`. The clang executable next to `swift-frontend` doesn’t actually exist because `clang` lives in `llvm-linux-aarch64/bin` and `swift-frontend` lives in `swift-linux-aarch64/bin`.
So some checks for a minimum clang verison failed for the normal build (because the executable doesn’t actually exists) while they pass during the SourceKit build (which used `clang` from `PATH`). This in turn caused the `outline-atomics` to be enabled to the SourceKit clang compiler arguments but not the clang compiler arguments for a normal build and thus resulted in two separate module cache directories (which includes the enabled features in the module directory hash).
To fix this issue, also set the swift executable path for compiler invocations created from SourceKit.
Fixes#58786 (rdar://93030932)
Essentially, just wire up cancellation tokens and cancellation flags for `CompletionInstance` and make sure to return `CancellableResult::cancelled()` when cancellation is detected.
rdar://83391488
Previously, `SwiftASTManager` and `SlowRequestSimulator` maintained their own list of in-progress cancellation tokens. With code completion cancellation coming up, there would need to be yet another place to track in-progress requests, so let’s centralize it.
While at it, also support cancelling requests before they are scheduled, eliminating the need for a `sleep` in a test case.
The current implementaiton leaks tiny amounts of memory if a request is cancelled after if finishes. I think this is fine because it is a pretty nieche case and the leaked memory is pretty small (a `std::map` entry pointing to a `std::function` + `bool`). Alternatively, we could require the client to always dispose of the cancellation token manually.
The invocation of the code completion second pass should be implementation detail of `CompletionInstance`. Create a method on `CompletionInstance` that correctly invokes the second pass and just reutnrs the type context info results to the caller.
This refactors a bunch of code-completion methods around `performOperation` to return their results via a callback only instead of the current mixed approach of indicating failure via a return value, returning an error string as an inout parameter and success results via a callback. The new guarantee should be that the callback is always called exactly once on control flow graph.
Other than a support for passing the (currently unused) cancelled state through the different instance, there should be no functionality change.
The key changes here are
- To keep track of cancellation tokens for all `ScheduledConsumer`s in `SwiftASTManager`
- Generate unique request handles for all incoming requests (`create_request_handle `), use these request handles as cancellation tokens and return them from the `sourcekitd_send_request` methods
- Implement cancellation with `sourcekitd_cancel_request` as the entry point and `SwiftASTManager::cancelASTConsumer` as the termination point
Everything else is just plumbing the cancellation token through the various abstraction layers.
rdar://83391505
Check if dependencies are modified since the last checking.
Dependencies:
- Other source files in the current module
- Dependent files collected by the dependency tracker
When:
- If the last dependency check was over N (defaults to 5) seconds ago
Invalidate if:
- The dependency file is missing
- The modification time of the dependecy is greater than the last check
- If the modification time is zero, compare the content using the file
system from the previous completion and the current completion
rdar://problem/62336432
To controls the lifetime of CompilerInstance within CompletionIntance.
- Prevent from using the same CompilerInstance from multiple completion
requests
- Separate the stacktrace between "fast" and "normal" completions
- Further code consolidation between various completion-like requests
- Introduce ide::CompletionInstance to manage CompilerInstance
- `CompletionInstance` vends the cached CompilerInstance when:
-- The compiler arguments (i.e. CompilerInvocation) has has not changed
-- The primary file is the same
-- The completion happens inside function bodies in both previous and
current completion
-- The interface hash of the primary file has not changed
- Otherwise, it vends a fresh CompilerInstance and cache it for the next
completion
rdar://problem/20787086
State the previously unstated nested type requirement that CodingKeys adds to the witness requirements of a given type. The goal is to make this member cheap to synthesize, and independent of the expensive protocol conformance checks required to append it to the member list.
Further, this makes a clean conceptual separation between what I'm calling "nested type requirements" and actual type and value requirements.
With luck, we'll never have to use this attribute anywhere else.
SwiftSourceInfo files provide source location information for decls coming from
loaded modules. For most IDE use cases it either has an undesirable impact on
performance with no benefit (code completion), results in stale locations being
used instead of more up-to-date indexer locations (cursor info), or has no
observable effect (live diagnostics, which are filtered to just those with a
location in the primary file).
For non-IDE clients of SourceKit though, cursor info providing declaration
locations for symbols from other modules is useful, so add a global
configuration option (and a new request to set it) to control whether
.swiftsourceinfo files are loaded or not based on use case (they are loaded by
default).
GetFinalPathNameByHandleW returns NTPaths (\\?\ Paths) which is an issue
as they don't match the paths stored in the internal dictionaries which
are DOS paths.
