0196c2e53aabd2109f4344cdd9005ec673aecd1b
59
Commits
| Author | SHA1 | Message | Date | |
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  Colby MchenryandGitHub
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278a8edc35 |
fix(resolution): resolve calls to object-literal namespace members (#1573) (#1597)
Fixes #1573. Thanks @IAliceBobI — the report had the root cause exactly right, and the fix sits one layer up from the suggested spot (resolution rather than the container-kind set), for the reason below. ## What was wrong Methods of an exported object-literal constant — `export const api = { call() {…}, get: () => {…} }` used as a module's API surface — never received a call edge from `api.call()`, same-file or through an import. The members are extracted as plain functions with **bare** qualified names (`call`, not `api::call`) sitting inside the constant's source extent, so: - the `Container::member` lookup the class-shaped kinds use (#825) bails on kind `constant`, and even with `constant` added to that set there is no `api::call` to find; - the declared-type inference for imported singleton instances (#1292) finds no type in a literal and falls back to the constant edge; - the same-file strategies only consider classes and `method` kinds, so the call resolved to nothing at all. Net effect: `callers` / impact reported zero for methods called from everywhere, with no boundary warning because nothing about `obj.method()` looks dynamic. ## What this does Adds one helper that resolves a member **by containment** — a node named `member` whose source range lies inside the value's range, in the value's own file — and uses it from both halves: - **Import path**: when the imported value is a constant/variable, the literal member is tried right after the `Container::member` lookup and before the #1292 instance inference, so the cross-file edge lands on the method instead of the constant. - **Same-file path**: a same-file constant/variable receiver (TS/JS family only) is checked before the class-name strategies. Precision rules, all tested: calls accept callable kinds only; a declaration nested inside another member's body is not a member; nothing outside the value's range can donate a match — a same-named top-level function, or a method returned by a factory the value merely holds — so those cases keep today's behavior rather than guessing. Class statics (`C.s()`) and non-literal values are untouched. Extraction and qualified names are deliberately left alone: changing how literal members are named would have to be mirrored in the native kernel byte-for-byte, and the resolver-side lookup is contained and language-gated. ## Tests - The issue's repro end-to-end: `sameFileCallers` and `crossFileCaller` are both callers of `m`; a decoy `m` in a third file gets none; the `C.s()` static control resolves exactly as before; `crossFileCaller` no longer has a `calls` edge to the constant. - Arrow-property and method members both resolve; a `function call()` nested inside `get`'s body is never taken for `api.call()`. - A value holding a factory's result (`const obj = makeObj()`) with a same-named top-level `m` in the file: no false attribution, existing behavior kept. - The two positive tests fail on `main`; the control passes both ways, as a guard should. - Full suite: 189 files, 3181 passed / 9 skipped. With the built CLI on the issue's `a.ts`/`b.ts`: `codegraph callers m` → 2 callers (`sameFileCallers`, `crossFileCaller`); `callers s` unchanged; edges `sameFileCallers -> m` (0.85) and `crossFileCaller -> m` (import, 0.9), none to `obj`. 🤖 Generated with [Claude Code](https://claude.com/claude-code) https://claude.ai/code/session_01LxZj6W6Y1SHXwvpT3uwJpK |
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Colby MchenryandGitHub
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7963672689 |
fix(rust): resolve self.field.method() on the field's declared type instead of a same-named method (#1585) (#1599)
Fixes #1585. **Stacked on #1596** (the base branch is `fix/1588-rust-impl-type-qualification`; this PR's own diff is the second commit). Merge #1596 first, then retarget/merge this one. ## What was wrong ```rust impl Outer { pub fn run(&mut self) { self.inner.run(); // inner: Inner } } ``` produced `Outer::run -> Outer::run` — recursion the source doesn't contain. The extractor collapsed every `self.<field>.<method>()` receiver to the bare method name (`run`), so the resolver only ever saw `run` and exact-matched the nearest same-named method — the calling method itself, or a method of an unrelated type. Nothing marked the edge as a guess, and no row stayed in `unresolved_refs`, so a consumer had no way to tell. The same happened when the field's type isn't a project type at all (`its: std::vec::IntoIter<_>` → `self.its.next()`, `matcher: Regex` → `self.matcher.is_match()`): the bare `next` / `is_match` attached to whatever local method shared the name. ripgrep had 279 self-edges on `main`; the issue lists three sites, all of this shape. (The issue's C++ control — "`Outer::run -> Inner::run` resolves correctly" — doesn't actually hold on `main`: `inner.h` is classified as C by the `.h` heuristic, so `Inner::run` never exists and the C++ repro self-edges too. That's #1592, fixed separately.) ## What this does Rust struct fields are not graph nodes, so the field's type can only come from the struct's declaration text. This follows the Go 2-hop precedent exactly (`matchGoFieldChainCall`, #1276), including its exclusivity rule: 1. **Extraction (TS walker + native kernel, identical, parity-tested):** a call whose receiver is `self.<field>` keeps the owner-field shape — `self.inner.run()` is emitted as `self.inner.run`. Deeper chains (`self.a.b.m()`), call receivers (`self.f().m()`), parenthesized receivers and bare `self` keep the bare name, exactly as before. 2. **Resolution (`matchRustSelfFieldCall`):** owner type = the calling method's qualified-name prefix (`Outer::run` → `Outer`); the field's declared type is read from the owner struct's **own declaration lines** (comment-stripped, line by line — same discipline as the Go helper); the method is resolved **and validated** on that type by `resolveMethodOnType` (confidence 0.85, `instance-method`). 3. **Exclusive:** when the field is declared with an external type, a generic parameter (`T`), a container that doesn't auto-deref (`Option`/`Vec`/`Mutex`/…), or can't be found, the ref **stays unresolved** — it never falls through to the bare-name strategies. That is the safe behaviour the issue asks for, and it is what #1276 already chose for Go. `rustFieldTypeName` looks through exactly the layers Rust's method-call auto-deref looks through: references (`&`, `&'a mut`) and the owning smart pointers `Box`/`Rc`/`Arc`. `Box<dyn Source>` yields the trait, whose method node the interface-impl synthesizer then fans out to every implementation. `Option<Inner>` is left alone — `self.inner.take()` is Option's method and must not become `Inner::take`. Why it stacks on #1596: the owner is taken from the method's qualified name, which for a generic/lifetime impl was the trait's name before that fix. ## Measured on ripgrep (110 `.rs` files, #1596 build vs this branch) | | #1596 | this PR | |---|---|---| | nodes | 4029 | 4029 | | `calls` self-edges | 279 | **146** (none of the `self.<field>` shape remain — 116 bare-receiver, 30 other dotted) | | `self.<field>.m()` calls resolved through a validated field type | — | **292** (`DecompressionMatcher::command -> GlobSet::matches`, `Parser::find_long -> FlagMap::find`, `Haystack::path -> DirEntry::path`, …) | | `self.<field>.m()` calls left unresolved | — | **417** — every sampled one is a std/container method: `self.commands.push`, `self.child.wait`, `self.pre.is_some`, `self.colors.clone`, `self.path_terminator.unwrap_or` | | `calls` edges total | 9150 | 8878 (the 272 removed are the former bare-name guesses for those 417) | The issue's three sites: `walk.rs:824` now resolves to `IgnoreBuilder::add_custom_ignore_filename` (was a self-edge); `walk.rs:1195` (`self.its.next`, `IntoIter`) and `globset/lib.rs:983` (`self.matcher.is_match`, `Regex`) are parked as unresolved instead of guessed. The issue's repro gives `Outer::run -> Inner::run` (`instance-method`, confidence 0.85) on both the kernel path and `CODEGRAPH_KERNEL=0`. ## Tests - `__tests__/extraction.test.ts`: only the single-hop `self.<field>.<method>()` call keeps the prefix; deeper / call / parenthesized / bare-`self` receivers and a local receiver are unchanged. - `__tests__/resolution.test.ts` (end-to-end, Cargo layout): the issue's repro → `Outer::run -> Inner::run`, no self-edge; an external field type (`std::vec::IntoIter`) with a local `next` decoy → no edge at all; `Box<Inner>` and `&'a mut Inner` resolve, `Option<Inner>` does not (even though `Inner` declares the method); a generic `T` field → no edge; genuine `self.run()` recursion keeps its self-edge; the #1588 repro's `UsesFile::go` / `UsesBuf::go` resolve to `FileSource::read` / `BufSource::read`, and a `Box<dyn Source>` field lands on `Source::read` with the synthesizer fanning out to both impls. - `__tests__/fixtures/kernel-parity/torture.rs` grows the receiver shapes; all 15 kernel parity suites pass against the rebuilt kernel (147 tests). - Full `npm test` on this branch: 189 files, 3187 passed, 9 skipped, 0 failed. Re-index after upgrading. 🤖 Generated with [Claude Code](https://claude.com/claude-code) https://claude.ai/code/session_01LxZj6W6Y1SHXwvpT3uwJpK |
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Colby MchenryandGitHub
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12f7a59f26 |
fix(rust): qualify generic/lifetime impl methods by the implementing type, not the trait (#1588) (#1596)
Fixes #1588. ## What was wrong The receiver of an `impl` block — the name that qualifies its methods, owns the `contains` edge, and sources the `implements` edge — was found positionally: the **last bare `type_identifier` child** of the `impl_item`. That works for `impl Source for FileSource`. But once the implementing type carries parameters it parses as a `generic_type`, and the only bare identifier left is the **trait's**: ```rust impl Source for FileSource → FileSource::read ✓ impl<T> Source for BufSource<T> → Source::read ✗ (should be BufSource::read) impl<'a> Iterator for Parents<'a> → Iterator::next ✗ impl Trait for &Foo → Trait::method ✗ ``` Two consequences, both reproduced on `main`: - `BufSource::read` did not exist in the graph, so `resolveMethodOnType("BufSource", "read")` and "who calls `BufSource::read`" had no answer, and every generic implementation of a trait collapsed onto the same trait-qualified name. - Because the impl's method carried the trait's qualified name, the interface-impl synthesizer treated the impl **body** as a second trait declaration and emitted a dispatch edge from it (`Source::read -> FileSource::read`, registered at the generic impl's line — a body of `{ 0 }` containing no call at all). The native kernel (`rustlang.rs`) mirrored the positional rule deliberately, bug-for-bug, to hold byte-parity with the TS walker — its header said "preserve, never fix via the grammar's trait:/type: fields". So the fix has to land on both sides at once. ## What this does Both extractors now read the grammar's **named fields** instead of scanning children. One shared rule (`rustImplTypeName` in `languages/rust.ts`, `impl_type_name` in the kernel), applied to `impl_item.type`: | implementing type | node | receiver | |---|---|---| | `Foo` | `type_identifier` | `Foo` | | `Foo<T>` / `Foo<'a>` | `generic_type` → its `type` field | `Foo` | | `m::Foo` | `scoped_type_identifier` → its `name` field | `Foo` (was: no receiver) | | `&Foo` / `&'a mut Foo` | `reference_type` → its `type` field | `Foo` | | `(A, B)`, `dyn Tr`, `*const T`, `u32`, fn types | anything else | none — extracted as plain functions, exactly as before | The `implements` back-reference reads `impl_item.trait` (full text, so `fmt::Display` and `From<u32>` keep their spelling) and bails when the field is absent (inherent impl). Everything else — the no-scope impl quirk, the source-order `contains` owner scan, method extraction — is untouched; the `contains` edge simply lands on the implementing type now instead of the trait. The kernel header comment, the parity test's description, and the two design docs that documented the quirk as "preserve" are updated to say what changed. ## Measured on ripgrep (110 `.rs` files, `main` build vs this branch) | | main | this PR | |---|---|---| | nodes / methods | 4029 / 2202 | 4029 / 2202 | | impl methods qualified by a **trait** name (node outside that trait's extent) | 61 | **0** | | `Iterator::*` methods | 2 | 0 | | duplicate method qualified names | 77 | 42 | | synthesized `interface-impl` edges originating **outside** any trait declaration (the phantom fan-outs) | 38 | **0** | | synthesized `interface-impl` edges originating at a real trait declaration | 33 | **52** | | plain (non-heuristic) `calls` edges | 9098 | 9098 | So the synthesizer lost every phantom edge and *gained* 19 legitimate fan-outs to implementations it could not previously see as implementations. `contains` edges went 5237 → 5224: the 13 removed were trait→impl-method edges produced by the mis-qualification. The issue's repro now gives `BufSource::read` at line 12, `BufSource -> Source`, and both synthesized edges registered at the declaration (line 2) — identical on the kernel path and with `CODEGRAPH_KERNEL=0`. (The remaining `UsesFile::go -> BufSource::read` exact-match guess there is the separate `self.field.method()` receiver problem, #1585, which stacks on this.) ## Tests - `__tests__/extraction.test.ts` (Rust Extraction): method qualified names for generic / lifetime / reference / scoped / generic-trait impls; the trait's qualified name names exactly one node; `implements` refs come from the implementing type for every shape; the `contains` edge lands on the type; tuple / `dyn` impls keep producing plain functions with no `implements` ref. - `__tests__/resolution.test.ts` (end-to-end): `Source::read` names only the declaration; dispatch fans out to **both** `FileSource::read` and `BufSource::read`, every synthesized edge registered at line 2; neither impl body sprouts a synthesized call. - `__tests__/fixtures/kernel-parity/torture.rs` grows all the new impl shapes; `kernel-rustlang-parity` (LF + CRLF) passes against the rebuilt kernel. - `CODEGRAPH_KERNEL_EXPECT=1 npx vitest run __tests__/kernel-*.test.ts` — all 15 suites, 147 tests pass. - Full `npm test`: 3180 passed, 9 skipped, 1 failed — `mcp-daemon.test.ts > daemon idle-times-out after the last client disconnects`, a 30 s timing test that passed on re-run in isolation (the machine was running four parallel suites and kernel builds at the time); unrelated to extraction. Re-index after upgrading to pick up the corrected names. 🤖 Generated with [Claude Code](https://claude.com/claude-code) https://claude.ai/code/session_01LxZj6W6Y1SHXwvpT3uwJpK |
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 Colby McHenryandClaude Opus 5
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5b0c4b8b93 |
fix(resolution): trait dispatch reaches union implementors (#1515)
Making unions first-class nodes leaves the third loss in #1515 open: interfaceOverrideEdges enumerates its concrete side as ['class','struct'], so a union implementor is skipped even though it now has a real node and a real `implements` edge. "Who implements this trait" then answers wrongly rather than incompletely — the struct beside it bridges and the union does not. Add 'union' to that tuple, plus a regression test that pins the Rust trait -> union-impl hop (the struct implementor is the control proving the synthesizer ran). Verified the test fails on the union assertion alone before this change. No EXTRACTION_VERSION bump: main is already at 25 against v1.5.0's 24, so existing indexes are flagged stale for the next release regardless, and over-bumping is what turns the re-index hint into noise. Co-Authored-By: Claude Opus 5 <noreply@anthropic.com> |
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 ctype_lab
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e2195940fb | fix(union): complete downstream container handling | ||
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ctype_lab
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e922563e05 | fix(resolution): recognize union instantiation | ||
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c472cfb52e |
fix(resolution): literal-receiver builtins and nested locals stop fabricating call edges (#1317)
", ".join(sorted(x)) resolved by bare name to a project function named join — one nested inside a DIFFERENT function, so scope alone rules the edge out. Both defects from #1230, fixed independently: 1. Extraction: a member call on a LITERAL receiver (string, number, collection, regex — across grammars) emits no call ref at all. A literal's methods are the language's builtins, never project symbols; the bare-name fallback let them exact-match any same-named project function. Silent miss, never a wrong edge. 2. Resolution: matchByExactName filters out candidates nested inside a same-file FUNCTION container unless the ref originates within that container's line range. Class members (parent is a class-like node), top-level symbols, and C++ namespace prefixes (no parent node) are untouched. requests re-index: byte-identical (813 calls edges). excalidraw: -27 edges, all literal-receiver refs by construction. The issue's repro is pinned: join has exactly one caller (format_fields), report_missing has zero project callees. Fixes #1230 Co-authored-by: Claude Fable 5 <noreply@anthropic.com> |
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41c2029798 |
fix(go): field-chain calls resolve via validated type inference, never bare-name guessing (#1316)
target.conn.Exec("insert") with `conn *sql.DB` emitted a BARE `Exec`
ref (the receiver chain was dropped for non-identifier receivers), and
exact-match then bound it to the only local `Exec` — an unrelated
interface's method — fabricating an internal dependency (#1276).
Extraction now keeps Go 2-hop selector chains (`base.field.Method`),
and a dedicated matcher resolves them EXCLUSIVELY via two inference
hops: base's type from the enclosing scope (#1108 machinery), field's
declared type from the struct's own declaration lines (comment-
stripped, per-line — chi's "the tree router" doc comment otherwise
donates a phantom type). resolveMethodOnType validates the target.
Package-qualified field types are followed only when the package is
in-module — `handler http.Handler` must not bind a same-named local
decoy. Failure at any hop leaves the ref unresolved: chained Go
receivers never fall through to the bare-name strategies (they were
never emitted before, so no prior recall depends on that path).
chi before/after: node count stable (1,181); 8 correct field-chain
edges gained (mx.tree.FindRoute/InsertRoute/routes, validated,
including the unexported `node` type); the removed edges are the
prior bare-name guesses on external receivers.
Fixes #1276
Co-authored-by: Claude Fable 5 <noreply@anthropic.com>
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2ec877b08c |
fix(resolution): calls through an imported singleton resolve to the method (#1315)
reproStore.notifyJoinGuildStatus() after `import { reproStore }`
resolved its calls edge to the exported CONSTANT (resolvedBy:'import'),
while the identical same-file call resolved to the method via
local-variable receiver inference (#1108) — so `callers <method>`
missed every cross-file use and a widely-used method could look
unused (#1292).
resolveViaImport's member-descend now handles imported VALUES alongside
the #825 static-member case: when the base resolves to a
constant/variable, the value's type is inferred from ITS OWN
declaration lines in the exporting file (the shared #1108 pattern
table: `= new T(...)` initializers and type annotations) and the member
is resolved AND VALIDATED on that type via resolveMethodOnType. A
failed inference or validation keeps the existing constant edge —
never a fabricated one. Calls only; plain member reads still reference
the value.
excalidraw control: byte-identical graph (10,653 nodes / 19,483 calls
edges before and after).
Fixes #1292
Co-authored-by: Claude Fable 5 <noreply@anthropic.com>
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e437918026 |
fix(cpp): compose namespace prefix into out-of-line method qualified names (#1310)
An out-of-line member definition inside a namespace block takes its
qualifiedName from the declarator's receiver, which is spelled RELATIVE
to the enclosing namespace — so `namespace simulator {
ManifestStartup::Output ManifestStartup::Apply(...) {} }` indexed as
ManifestStartup::Apply while the class node carried
simulator::ManifestStartup. Fully-qualified call sites
(simulator::ManifestStartup::Apply(...)) never resolved; callers and
file impact came up empty (#1291).
The receiver-based qualifiedName now composes the active namespace
prefix, anchored at the first prefix segment the receiver re-spells
(so `namespace sim { void sim::M::f() {} }` doesn't double-prefix).
namespacePrefix is only ever non-empty for C++ — Go/Rust/Kotlin/Lua
receivers pass through unchanged.
leveldb re-index: node count byte-stable (3,044), calls edges +6,
namespace-qualified method names 947 -> 1,252.
Fixes #1291
Co-authored-by: Claude Fable 5 <noreply@anthropic.com>
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6103f5e228 |
fix(cpp): resolve explicit operator calls (a.operator+(b)) to the operator method (#1268)
* fix(cpp): resolve explicit operator calls (a.operator+(b)) to the operator method (#1247) tree-sitter-cpp can't parse an operator_name in field position: the call_expression carries `function: <receiver>` plus an ERROR child wrapping the operator_name instead of a field_expression callee, so the extractor emitted a calls ref named just the receiver (`a`) and the edge never resolved — while the operator method itself indexed fine. Two-part fix, scoped to the explicit call form (infix `a + b` / `a[i]` need receiver type inference and are tracked in #1258): - extraction: recover the operator_name from the ERROR child and emit `<receiver>.operator+` (`->` receivers normalized, `this->` emits the bare name), like any other member call - resolution: matchMethodCall's dot pattern now admits an operator method part (cpp-gated; symbol chars failed the \w match), so receiver-type inference + resolveMethodOnType validate the target — a same-named operator on an unrelated class can't capture the edge Co-Authored-By: Claude Fable 5 <noreply@anthropic.com> * fix(cpp): harden explicit operator-call recovery against real-world shapes (#1247) Validated on nlohmann/json (dozens of explicit operator[] / operator* / operator< call sites). Two refinements the synthetic fixtures missed: - normalize spaced call-site operator names (`it.operator * ()`, `other.operator < (*this)`) to the compact form definitions index as - drop the ref for a complex receiver (`obj()->operator+`, member chains ending in a call) instead of emitting a bare operator name: exact-name fallback GUESSED among unrelated same-named operators (linked a std::map operator[] call to an in-repo operator[]) — silent miss, never a wrong edge Co-Authored-By: Claude Fable 5 <noreply@anthropic.com> --------- Co-authored-by: Claude Fable 5 <noreply@anthropic.com> |
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7f325134e0 |
feat(extraction): add Nix language support with module-system option wiring (#324, #332 via #648 — carries #1084) (#1190)
Carries @TyceHerrman's #1084 as the functional base. Extraction + file wiring (imports/modules lists, callPackage), module-system option-path synthesizer, lexical-scope resolution gates, ABI-15 wasm rebuilt from upstream source. Validated on agenix, nix-darwin, home-manager, and nixpkgs (44,368 files, 3m49s, 1.30M nodes). Co-authored-by: Tyce Herrman <Tyce.Herrman@pm.me> Co-authored-by: Claude Fable 5 <noreply@anthropic.com> |
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a0208feaac |
feat(extraction): index Erlang escripts and OTP app resource files (#635, #648) (#1169)
escripts (.escript) index like any module — the ELP grammar has a
first-class shebang node, so no source transform is needed; main/1 and its
helpers get full function/call extraction.
OTP application resource files (<app>.app.src and compiled <app>.app) join
the graph as Erlang terms the grammar parses natively. They route by full
suffix (their last-dot extension, .src, is far too generic for the
extension map). The application tuple yields structure: {mod, {Mod, _}}
links the app to its callback module — the app's entry point — and
{applications, [...]} / {included_applications, [...]} connect umbrella
sibling apps, resolving through the OTP app-name == module-name convention;
kernel/stdlib and other out-of-repo apps stay unresolved.
App-file refs resolve only ever to MODULES: validation on emqx caught the
ssl OTP-app dependency resolving to a test helper FUNCTION named ssl (the
same defect class as the earlier -behaviour gate), so the matchReference
module-only gate now covers every ref an .app/.app.src file emits.
Validated on emqx: 2 app.src + 6 escripts indexed, entry-module and
umbrella-dependency edges all namespace-targeted post-gate, escript
functions extracted; a stray legacy/module.src stays unknown.
Co-authored-by: Claude Fable 5 <noreply@anthropic.com>
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6511722250 |
feat(extraction): add Erlang language support (.erl/.hrl) (#635, #648) (#1165)
Vendored WhatsApp/tree-sitter-erlang 0.19 (the ELP grammar, ABI 14) with an Erlang-shaped extractor: multi-clause/multi-arity functions merged into one symbol, -spec signatures, records with fields, -type/-opaque aliases, -define macros, -include/-include_lib file edges, and -export-driven visibility. Modules wrap in a namespace so remote mod:fn(...) calls resolve through the existing qualified-name matcher as mod::fn with zero resolver changes. -behaviour declarations link to the behaviour module — gated to namespace targets only (bare-name fallthrough linked -behaviour(supervisor) to an unrelated macro constant on emqx). OTP indirection with static targets is followed: spawn/apply/proc_lib/timer/rpc MFA-argument callees, and gen_server:call/cast(?MODULE | ?SERVER) to the module's own handle_call/handle_cast. Var-module dispatch and message sends stay deliberately unlinked. codegraph_explore also normalizes Erlang-native query spelling (mod:fn/3, init/2) so named symbols resolve as typed. Benchmarked on cowboy (189 files), ejabberd (414), emqx (2,447): extraction PASS on all three; with-codegraph arms reached 2/2/0 file Reads vs 10/5+/19 without, fastest on the largest repo. Co-authored-by: Claude Fable 5 <noreply@anthropic.com> |
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81cb59a86e |
fix(resolution): yield per ref and cache hot per-ref work so the watchdog can't kill a valid index (#1122) (#1137)
The #850 liveness watchdog was killing valid `codegraph init`/`index` runs at "Resolving refs 0-2%" on large collision-heavy repos (18-25K-file Java monorepos on slower hardware). #1105's cooperative yielding assumed a 500-ref sub-chunk is always cheap, but per-ref cost is unbounded: a colliding method name (`execute`, `process`, ...) whose candidate set misses the 5,000-entry name LRU re-fetches every same-named row (unbounded SELECT + materialization, measured 8.8ms at just 4K collisions on an M4 — linear in collision count), and receiver-type inference re-split the whole source file per ref (~20% of total index CPU). A dense pocket multiplied that past the 60s window and the heartbeat starved. Three guards, no behavior change: - resolveBatchYielding checkpoints after EVERY ref (maybeYield is a ~ns time check when under budget), so a slow pocket can never run more than one ref past the yield budget. - resolveMethodOnType's ref-independent candidate filter is memoized per (language, Type::method) on the resolver context; per-ref disambiguation (import FQN #314, call-site file #1079) stays outside the memo. - Receiver inference reads lines through a per-file LRU (shared and C++ inferrers), and skips generated/minified lines >10K chars instead of regex-scanning them per ref. Measured on a 4,028-file synthetic Java bank repo (392K refs): mid-loop max event-loop stall 1528ms -> 546ms under cache thrash, total init 250.9s -> 96.8s at default config. Co-authored-by: Claude Fable 5 <noreply@anthropic.com> |
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e53968cae8 |
fix(resolution): gate the Lua/Luau annotation pattern against method-call self-match (#1124) (#1131)
Lua method-call syntax (lg:Log()) is byte-identical to the Luau type-annotation shape (lg: Logger), and the receiver-type scan starts on the call's own line — so any PascalCase method call self-matched as "type = Log" before the scan reached the real declaration, silently dropping the calls edge whenever two or more classes shared a method name. The annotation pattern now rejects a capture followed by any of Lua's three call forms; its leading [\w.] lookahead alternative prevents backtracking from shrinking the capture to dodge the gate. Gated rather than dropped: the pattern is the only type source for Luau typed params and annotated locals whose initializer isn't T.new(). Co-authored-by: Claude Fable 5 <noreply@anthropic.com> |
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cf86fe8198 |
fix(resolution): extend typed-parameter receiver inference to Rust/Go/Dart/PHP (#1125) (#1130)
Completes the #1125 fix. The same typed-parameter gap fixed for TS/JS existed in every other language whose localReceiverTypePatterns only matched keyword-anchored locals (let/var/:=/= new) and never the bare parameter form: - Rust: the `:`-annotation pattern required `let`, so `fn use(lg: &Logger)` didn't match. Dropped the `let` anchor (still covers `let lg: Logger`), keeping the `&?mut?` handling — now covers params and closures `|lg: T|`. - Go: only `lg := T{}` / `var lg T` matched; a parameter/method-receiver `func use(lg Logger)` / `func (l Logger) M()` (name-before-type, no keyword) didn't. Added a PascalCase-guarded `ident Type` pattern — the guard plus the existing enclosing-scope bound (excludes package-level struct fields) keep the keyword-free shape from matching unrelated pairs. - Dart: the type-before-name pattern's trailing `[=;]` missed a parameter's `)`/`,`. Widened to `[=;,)]`, mirroring Java/C#. - PHP: only `$lg = new T` matched; a typed param `function use(Logger $lg)` (also `?Logger`, `\App\Logger`, `&$lg`, `catch (E $e)`) didn't. Added a type-before-$var pattern. Reserved words can't be class names, so the looser lowercase-allowing capture yields no wrong edges. Every pattern still relies on resolveMethodOnType validating the inferred type actually declares the method (no edge on a mis-inference) — the same safety net the already-covered languages use. Verified with a deterministic probe: all four now disambiguate two same-named methods via the typed param (Java + Kotlin as passing controls), full suite green (1930), no regressions. Adds a parameterized regression test (Rust/Go/Dart/PHP), associating method to type by qualifiedName so it holds where the method sits outside the type's line range (Rust impl, Go decl). Co-authored-by: Claude Opus 4.8 (1M context) <noreply@anthropic.com> |
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385001398b |
fix(resolution): infer typed-parameter receivers in TS/JS (#1125) (#1129)
The local-variable receiver-type inference from #1108/#1110 covered typed
parameters for every language except TypeScript/JavaScript (+ TSX/JSX). The
TS/JS `:`-annotation pattern required a leading `const|let|var`, so it only
matched a local's own annotation (`const lg: Logger`) and never a bare
parameter (`function use(lg: Logger)` / `(lg: Logger) =>`). With a second
class sharing the method name — the case where a same-name fallback can't
paper over it — `lg.log()` resolved to no edge, dropping it from callers and
impact/blast-radius. TS/JS is the most common language pair in the userbase,
so this was a real precision gap.
Replace the keyword-anchored pattern with the keyword-free
`\b${r}\b\s*:\s*([A-Z][\w.$]*)`, mirroring Kotlin/Swift/Scala. It's a strict
superset (still matches `const lg: Logger`) plus the typed-parameter case,
and the capture stops at `<` so a generic-typed param
(`repo: Repository<User>`) still yields `Repository`. resolveMethodOnType
already validates the inferred type declares the method, so the looser match
produces no edge on a mis-inference — the same safety net the other
languages rely on; Swift already ships this identical bare-colon pattern with
the same theoretical ternary/dict-literal exposure.
Adds a regression test using two ambiguous classes + typed params, asserting
each call routes to its OWN class's method (verified to fail without the fix
and pass with it — a single-class version would pass either way via the
same-name fallback, which is why the collision is load-bearing).
Co-authored-by: Claude Opus 4.8 (1M context) <noreply@anthropic.com>
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358f400c40 |
feat(resolution): local-variable method calls in Lua, Luau, R, Pascal (#1112) (#1113)
Extends the local-variable receiver-type inference (#1108/#1110) to the remaining supported languages with object-method calls. An empirical sweep found Objective-C, Svelte, Vue, and Astro already resolved `localVar.method()` (ObjC via message-send handling; the template langs ride the TypeScript path), leaving Lua, Luau, R, and Pascal. Lua/Luau/R were a resolution gap, not extraction: the call ref IS extracted (`lg:log`, `lg$log`), but (1) the resolver's fast pre-filter `hasAnyPossibleMatch` only understood `.`/`::` separators, so a `:`/`$` ref was dropped before any strategy ran, and (2) matchMethodCall only parsed `.`/`::` receivers with no local-var inference for these langs. Fixes: pre-filter now checks the member/receiver around `:` and `$`; matchMethodCall recognizes `lg:log` / `lg$log` and routes them through the same inference + validated resolveMethodOnType path; and inference patterns are added for Lua/Luau (`local x = T.new()` / `T()` / `x: T`), R (`x <- T$new()`), and Pascal (`var x: T` / `x := T.Create`). Pascal statement-form calls (`obj.Method;`) now resolve via the new inference pattern. The assignment-RHS parameterless form (`x := obj.Method`) is deliberately left as a field read by the existing Pascal extractor — an intentional field-vs-call ambiguity tradeoff — so it stays out of scope. Validated with single-file and two-file same-name repros per language (resolves to the right method; two-file is same-file-correct, #1079). Adds all four to the local-variable inference test matrix. Full suite green. Co-authored-by: Claude Opus 4.8 (1M context) <noreply@anthropic.com> |
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3424ff36c5 |
fix(extraction/ruby): build receiver.method calls so instance calls resolve (#1110) (#1111)
The Ruby extractor dropped the method name from a `receiver.method` call: `lg.log()` was recorded as a call to `lg` (the bare receiver), which matches no symbol, so the reference resolved to nothing and no method edge was ever produced. A Ruby method invoked through a receiver had no recorded callers and was invisible to impact/blast-radius and explore flow traces. This is the Ruby-specific blocker noted in #1108 — that local-variable type-inference fix couldn't help Ruby because the call reference itself was missing. extractCall recognized receiver-bearing calls by the `object`/`name`/ `function` fields other grammars use; tree-sitter-ruby's `call` node uses `receiver` + `method`, so it fell through to the generic fallback that takes the first named child (the receiver) as the callee. Handle Ruby `call`/`method_call` explicitly: build `receiver.method`, keep bare `foo(...)` as the method name, emit `Foo.new` as an `instantiates` ref, and give a capitalized (constant) receiver a `references` edge so a class used only via its class methods still records a dependent. With this plus #1108, `lg = Logger.new; lg.log` resolves `lg.log` to `Logger#log`, and the two-file same-name case is same-file-correct (#1079). Adds Ruby to the local-variable inference test matrix plus a focused test asserting `Foo.new` stays an instantiation. Co-authored-by: Claude Opus 4.8 (1M context) <noreply@anthropic.com> |
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ed64db08b4 |
feat(resolution): infer local-variable receiver types across languages (#1108) (#1109)
Instance calls through a local variable — `const lg = new Logger();
lg.log();` — only resolved to the method in C++. Every other language
produced no `calls` edge, because the resolver had no way to learn the
receiver variable's type, so such calls were missing from callers,
impact/blast-radius, and explore flow traces.
Local variables aren't indexed as nodes (node-explosion), so — like the
existing C++ inferrer — this reads the enclosing function's source and
matches the receiver's declaration/initializer to recover its type, then
hands it to resolveMethodOnType. That validates the method actually
exists on the inferred type, so a mis-inference yields no edge, which is
what lets the per-language patterns stay simple. The scan is bounded to
the enclosing scope so a same-named variable in another function can't
leak in.
Generalizes the C++-only path in matchMethodCall into a language dispatch:
C++ keeps its dedicated header-aware inferrer; a new shared
inferLocalReceiverType covers TypeScript, JavaScript, Python, Java, C#,
Kotlin, Swift, Go, Rust, Dart, Scala, and PHP, matching each language's
declaration shapes (`= new T`, `= T(...)`, `= T.new`, `let x = T{}`,
`x := T{}`, `T x = ...`, `x: T`, etc.). For Java/Kotlin an import FQN
still pins which same-named class is meant (#314); other languages fall
back to the call-site's own file (#1079).
Ruby is not covered: its extractor emits no `receiver.method()` call
reference in the first place, so there is nothing for resolution to
resolve — a separate extraction-layer gap.
Adds a parameterized end-to-end test covering all twelve languages. Full
suite green.
Co-authored-by: Claude Opus 4.8 (1M context) <noreply@anthropic.com>
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63bc0fd037 |
fix(resolution): resolve same-named methods to the call site's own file (#1079) (#1107)
When two files each declared a same-named class with a same-named method
(e.g. `class Logger { void log(); }`), a call resolved to whichever
definition was indexed first — so a call in `b/svc` wrongly targeted
`a/svc`, mixing up that method's callers and blast radius.
The reported case was C++ instance calls, but the underlying pattern —
"multiple same-named candidates, pick the first-indexed, ignore the call
site's file" — lived in three resolution paths, each firing for a
different call shape and affecting different languages:
- `obj.log()` instance -> resolveMethodOnType (C++)
- `Logger.log()` class receiver -> matchMethodCall Strategy 1/2/3
(Python, TypeScript, Java, C#)
- `Logger::log()` qualified -> matchByQualifiedName (C++, Rust)
All five sites now share one helper, `preferCallSiteFile`, that prefers
a candidate declared in the call site's own file when a name is
ambiguous. It runs after the `preferredFqn` block in resolveMethodOnType,
so Java/Kotlin import disambiguation (#314) — whose target is
intentionally in another file — is unaffected. The helper is a no-op
when there are fewer than two candidates or none share the call site's
file, so the common single-definition case is unchanged.
Adds 8 tests under `Same-name method disambiguation (#1079)`: the
`preferCallSiteFile` contract, resolveMethodOnType precedence (including
a guard that an import FQN still beats the same-file preference),
`matchByQualifiedName` disambiguation, and end-to-end index tests for the
C++ instance, TypeScript static, and C++ qualified call shapes.
Co-authored-by: Claude Opus 4.8 (1M context) <noreply@anthropic.com>
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2176a7a439 |
fix(extraction): record instantiates for C++ stack/brace construction (#1035) (#1049)
`instantiates` edges came only from heap `new Calculator(0)` (a
new_expression) and copy-init `Calculator c = Calculator(0)` (a
call_expression). Stack direct-init `Calculator calc(0)` and brace-init
`Widget w{1, 2}` parse as a `declaration` whose constructor arguments hang
directly off the declarator as an argument_list / initializer_list — there
is no call/new node — so the function-body walker saw no constructor
invocation and emitted no edge. A function that built objects with the
ordinary stack syntax looked like it didn't construct them, and the
dependency was missing from impact / callers.
In the body walker, a C++ `declaration` that is a stack/brace construction
now reuses extractInstantiation (a declaration's `type` field IS the
constructed class name, and extractInstantiation already strips template
args / namespace and emits the `instantiates` ref). Gated by
isCppStackConstruction, which requires BOTH a class-like type
(type_identifier / template_type / qualified_identifier — so `int x(0)`
and `auto z = …` are excluded) AND a declarator carrying args
(argument_list / initializer_list — so default `Calculator c;` and the
most-vexing-parse `Calculator c();` are excluded). The edge targets the
class node, not the same-named constructor method.
Co-authored-by: Claude Opus 4.8 (1M context) <noreply@anthropic.com>
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f4e03e9cdc |
fix(extraction): resolve C++ inheritance from templated base classes (#1043) (#1048)
A C++ class deriving from a template — `class Derived : public Base<int>`, a CRTP base `class App : public CRTPBase<App>`, a struct inheriting a template, or a templated base mixed into a multi-base clause — recorded its base as the full instantiation text (`Base<int>`). That never name-matched the template, which is indexed as the bare node `Base`, so the `extends` edge never resolved and the derived class looked like it inherited from nothing — callers/impact analysis stopped at the boundary. Strip the template arguments from the base-type reference name in the `base_class_clause` handler via a new `stripCppTemplateArgs` helper: it removes every balanced `<…>` group (any nesting/position), so `Base<int>` → `Base` and `ns::Tpl<int>` → `ns::Tpl`. The remaining qualified head is exactly what the non-templated base case already produces, so resolution treats templated and non-templated bases identically; a name with no template args passes through unchanged. Covers same-file and same-namespace bases (the dominant real-world patterns). A base in a different namespace referenced with its qualifier (`other_ns::Tpl<int>`) still doesn't resolve, but that's a pre-existing, orthogonal namespace-resolution gap — the non-templated `other_ns::Plain` fails identically — not a template issue. Co-authored-by: Claude Opus 4.8 (1M context) <noreply@anthropic.com> |
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45d3293c6a |
fix(resolution): stop "Resolving refs" wedge on theme-vendoring repos; add exclude config + index watchdogs (#999) (#1009)
Three fixes for a repo that commits a large JS/TS theme/SDK (Metronic under static/, ~1,600 tracked files): 1. A SECOND "Resolving refs" quadratic that #915 didn't cover. #915 capped import-name collisions; this caps method-name collisions (init/update/render re-declared on every widget), which flow through matchMethodCall Strategy 3 and findBestMatch instead. New AMBIGUOUS_NAME_CEILING (default 500, env CODEGRAPH_AMBIGUOUS_NAME_CEILING): above it the fuzzy strategies decline rather than score K candidates — no proximity score can pick the one true target among thousands anyway. Resolving drops from O(K^2) to linear in refs (e.g. 900-file synthetic: 28.7s -> 3.4s), edge counts unchanged, and the cap never fires on normal repos (max real method-collision ~40). 2. A new `exclude` array in codegraph.json keeps git-TRACKED paths out of the index, which .gitignore can't do (enumeration is `git ls-files`). Mirrors the existing includeIgnored plumbing across the git, sync, and non-git-walk paths. 3. `index`/`init` now install the #850 liveness + #277 ppid watchdogs (which were serve-only), so a wedged or orphaned indexer self-terminates instead of pinning a core. The --liftoff-only relaunch's spawnSync can't forward signals, so killing the parent shim used to orphan the worker. Tests: ubiquitous-name ceiling, exclude (incl. tracked-file exclusion on git + non-git), orphan self-termination (POSIX), and ppid-parser units. Shared the ppid parsers out of mcp/index.ts into mcp/ppid-watchdog.ts. Co-authored-by: Claude Opus 4.8 (1M context) <noreply@anthropic.com> |
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f7441f2124 |
fix(resolution,cli): cross-file static method calls + affected path normalization (#825) (#865)
Cross-file `ClassName.staticMethod()` calls resolved to the class, not the method: the import resolver matched the receiver `Foo` to the named class import but dropped the `.bar` member, and createEdges then mis-promoted the `calls` edge to `instantiates`. So callers/impact for the static method came back empty. Descend from the resolved class into its `Container::member` so the call links to the method; fall back to the class when no such member exists (non-`::` languages and genuine class references are unaffected). Also normalize `codegraph affected` inputs to the project-relative, forward-slash form the index stores, so `./src/x.ts`, an absolute path, and a Windows back-slash path all match (previously silently returned 0). Validated on luxon (24 files): node/edge totals identical (no explosion), 69 mis-promoted `instantiates` edges become `calls`, and real static factories (DateTime.fromISO, etc.) resolve their callers. Full suite: 1534 passed. Co-authored-by: Claude Opus 4.8 <noreply@anthropic.com> |
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823ffd1c3d |
feat(extraction+resolution): Astro support — frontmatter/template extraction + src/pages routes (#768) (#815)
.astro files were not indexed at all, leaving a typical Astro site mostly
invisible to search/impact/explore. New AstroExtractor (Svelte/Vue SFC
pattern): component node per file, TS frontmatter + <script> blocks
delegated to the TypeScript extractor, template {fn(...)} calls (incl. the
multiline `{posts.map((post) => (` opening line), PascalCase component-tag
references. New astroResolver: Astro global + astro:* virtual modules as
framework-provided, component resolution with the #764 ambiguity rule,
src/pages/ file-based routes ([param]→:param, [...rest]→*rest, _-prefixed
and *.config.* excluded). SFC languages now preload the TS/JS grammars
their extractors delegate to (a pure-SFC file set previously had none
loaded). Also fixes a pre-existing Svelte/Vue script-block off-by-one that
reported every script symbol one line low.
Validated per the playbook: stalux (the issue's repro) 54/54 .astro files
indexed, getIconNode found at its exact line, 14/14 routes, 93.0% fair
cross-file coverage; AstroPaper 27/27 components, 13/13 routes (underscore
dirs correctly excluded), explore connects page→Card→Datetime through the
jsx-render synthesizer; node/edge counts stable across re-syncs.
Co-authored-by: Claude Opus 4.8 <noreply@anthropic.com>
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222af6b87c |
fix(mcp+resolution): stop conflating same-named symbols across monorepo apps (#764) (#813)
A NestJS-style monorepo has one UserService/UserModule/UserRepository per app; with no package concept for TS they share one global name scope and agents visibly warned that CodeGraph was mixing unrelated classes. Two distinct problems, two fixes: 1. TOOL AGGREGATION. callers/callees returned one merged list across every same-named match, and impact merged all their blast radii into a single overstated subgraph. Now: matches group into DISTINCT DEFINITIONS (filePath + qualifiedName — same-file overloads still merge, that's the overload feature) and render one file-labeled section per definition; a new `file` argument (path or suffix, like codegraph_node's) narrows to one definition, suppressing the stale aggregation note; a non-matching `file` falls back to all definitions with a note. server-instructions documents the behavior. 2. RESOLUTION WRONG EDGES. Auditing a real monorepo (amplication, 54k nodes) found 1,036 cross-package `references` edges into duplicated names. Root cause: the React framework resolver ran PascalCase component resolution on refs from PLAIN .ts FILES (a GraphQL types file's own `Account` type alias lost to an arbitrary same-named CLASS in another package — the resolver's blind `components[0]` fallback at confidence 0.8 outranked the name-matcher's proximity-correct 0.7). Component resolution is now gated to JSX-capable refs (tsx/jsx) and never guesses among multiple candidates without a positional signal (same-dir / component-dir / unique). Cross-package wrong edges: 1,036 -> 40 (-96%; the remainder are genuine shared-model imports and codegen template scaffolds), with the freed refs re-resolving to the correct same-file/same-package targets. excalidraw (a real React repo) is a zero-delta control — legitimate component refs all carry same-dir/component-dir signals. Graph-level separation was verified correct on a fixture before any changes (import + proximity resolution keeps apps apart) — the conflation was tool-level plus the react-resolver edge class. Tests: 6-test e2e suite (grouped callers/callees, per-definition impact radii, file narrowing, fallback note, cross-app edge isolation) + react resolver unit tests updated to production reality (tsx refs resolve, plain-ts refs decline). Full suite 1398 passed. EXTRACTION_VERSION 23 -> 24 (re-index to drop the wrong cross-package edges). Closes #764 Co-authored-by: Claude Opus 4.8 (1M context) <noreply@anthropic.com> |
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dac00e7d44 |
fix(pascal): attribute a free routine's calls to it, not the file (#795)
A Pascal/Delphi procedure or function defined ONLY in the implementation section (no interface declaration, not a class method) had no node of its own, so extractPascalDefProc's caller lookup fell through to the nodeStack top — the file node. Every call in such a routine's body was lumped under the unit: callers returned the file, and impact couldn't attribute the call to the routine. (Methods were fine — they get a node from their class declaration.) Fix: when extractPascalDefProc finds no existing node for a FREE routine (a name with no `.`), create a function node for it and attribute the body's calls to it. Interface-declared free routines already have a node (found via the methodIndex), so there's no duplicate; methods keep their existing class-declaration node. PascalCoin A/B: +511 / -145 — the +511 are calls now correctly attributed to their actual routine (`allocate_new_datablock -> TDisposables::GetMem`), replacing -145 file-level aggregates; +248 new function nodes for the implementation-only routines. New synthetic test asserts a free routine's call attributes to it alongside a method caller. EXTRACTION_VERSION 17->18. Full suite green. Co-authored-by: Claude Opus 4.8 (1M context) <noreply@anthropic.com> |
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35dce04e1f |
feat(pascal): extract paren-less method calls (Obj.Free; / TFoo.GetInstance.DoIt;) (#793)
Pascal/Delphi lets a no-arg method or procedure drop its parens, so the call parses as a bare `exprDot` (not an `exprCall`) and was never recorded as a call — callers/impact/trace missed all of them (e.g. `Obj.Free`, `List.Clear`, the paren-less factory chain `TFoo.GetInstance.DoIt`). extractPascalParenlessCall handles these, wired into visitPascalBlock scoped to STATEMENT position only: a bare `Obj.Field;` statement is a no-op, so a statement-level dot expression is a call — but a dot in assignment LHS/RHS or a condition is left alone, since there it's genuinely ambiguous with a field/property access. The chained paren-less form reuses the #750 chain encoding (gated on the Delphi `TFoo`/`IFoo` type convention) and resolves the same way. PascalCoin A/B: +1131 / -1 — purely additive, and all 1131 new edges resolve to METHOD nodes (zero field/property false positives, confirming the statement-level gate). 3 new synthetic tests (paren-less call, paren-less chained factory, and the property-write/read non-extraction guard). EXTRACTION_VERSION 16->17. Full suite green. Co-authored-by: Claude Opus 4.8 (1M context) <noreply@anthropic.com> |
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af56f3539d |
fix(pascal): resolve chained factory calls TFoo.GetInstance().DoIt() (#750) (#791)
Ports the #645/#608 chained-receiver mechanism to Pascal/Delphi — which I'd previously mis-scoped as blocked. The paren'd chained form extracts fine; it just hit the chained-call gap like the others (with a decoy, `TFoo.GetInstance().DoIt()` mis-resolved to a same-named method on an unrelated class). - pascal.ts: getReturnType reads the method's `typeref` (a `function GetInstance: TBar` returns TBar; an interface return `IFoo` is captured too). - tree-sitter.ts: extractPascalCall now re-encodes a chained call `TFoo.GetInstance().DoIt` (the exprDot's receiver is an exprCall) instead of collapsing it to bare `DoIt`. Gated on the Delphi type-naming convention (`TFoo`/`IFoo`) so a capitalized VARIABLE chain (Pascal capitalizes locals too — `Curve.X().Y()`, `Self.X().Y()`) stays bare and keeps its existing bare-name resolution. - name-matcher.ts: `pascal` joins the dotted-chain gate + CHAIN_LANGUAGES + CONSTRUCTS_VIA_BARE_CALL (a `TFoo(x)` typecast yields a TFoo). When the factory's return type wasn't captured (a `constructor Create` has no `: TBar` but returns its class), resolve the method on the factory class itself. resolveMethodOnType validates, so a wrong inference yields no edge. Validation: 4 synthetic tests (factory+decoy, constructor chain, typecast chain, absent-method safety). Real-repo A/B on PascalCoin (772 files): +19 / -18 — 15 of the -18 are correct class→interface retargets (`GetInstance(): IAsn1OctetString` resolves `.GetOctets` on the declared interface, not baseline's concrete-class guess); 3 are negligible drops (0.02%). EXTRACTION_VERSION 15->16. Full suite green. Co-authored-by: Claude Opus 4.8 (1M context) <noreply@anthropic.com> |
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d21d2dfa50 |
fix(objc): resolve chained message-send calls [[Foo create] doIt] (#750) (#786)
Ports the #645/#608 chained-receiver mechanism to Objective-C. A message send whose receiver is itself a message send — `[[Foo create] doIt]` — used to drop the receiver, so `doIt` name-matched a same-named method on an unrelated class (commonly a test helper's `init` or an Apple-SDK method). - objc.ts: getReturnType reads the method's `method_type`, SKIPPING nullability / ARC qualifiers (`nonnull instancetype` must yield instancetype, not `nonnull`). - tree-sitter.ts: the message_expression branch now re-encodes a chained send `[[Foo create] doIt]` as `Foo.create().doIt` when the inner receiver is a capitalized class and the outer selector is unary. - name-matcher.ts: `objc` joins the dotted-chain gate + CHAIN_LANGUAGES. A class-message factory returns an instance of the RECEIVER class by convention (`instancetype`), so when the factory's own return type isn't recoverable (`alloc`/`new`/`shared…` return instancetype, or aren't user nodes), the receiver's type is the class itself — this resolves the ubiquitous `[[X alloc] init]` and singleton chains. resolveMethodOnType validates against the class and its supertypes, so a wrong inference yields no edge. Validation: 4 synthetic tests (factory+decoy, superclass conformance, absent-method safety, the nonnull-instancetype singleton). Real-repo A/B on SDWebImage (208 files): +35 / -75 — all corrections (the -75 are wrong `init` mis-matches to a test helper / wrong class, retargeted to the right class's init in the +35, plus 2 Apple-SDK chains on unindexed classes). db stable, no node explosion. EXTRACTION_VERSION 14->15. Full suite green. Co-authored-by: Claude Opus 4.8 (1M context) <noreply@anthropic.com> |
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16c73e2b0e |
fix(dart): resolve chained static-factory / constructor calls Foo.create().bar() (#750) (#762)
Ports the #645/#608 chained-receiver mechanism to Dart, plus makes Dart factory and named constructors first-class so their chains can resolve at all. A call whose receiver is itself a call — `Foo.create().bar()` (static factory or factory/named constructor) — used to drop the receiver to a bare `bar`, which name-matched a same-named method on an unrelated type (commonly a stdlib `Option`/`Iterator` `.map`/`.where` mis-tied to the project's own class). - dart.ts: extractBareCall now re-encodes `Foo.create().bar` when the chain starts with a capitalized type; getReturnType captures the return type (generic `List<Foo>` → `List`); factory (`factory Foo.create()`) and named (`Foo._()`) constructors are indexed as `Foo::create` / `Foo::_` with return type = the class (via resolveName + getReturnType + constructor_signature in methodTypes). - The UNNAMED ctor `Foo()` is deliberately NOT extracted (isMisparsedFunction), so plain construction stays an `instantiates` edge to the class rather than a call to a phantom `Foo::Foo` method. - dartCtorInfo validates a "constructor" against the enclosing class name, so a method tree-sitter MISPARSES as a constructor — `@override (A, B) m()`, where the annotation swallows the record return type and `m()` looks like a one-id constructor_signature — is still extracted as the method it is (regression found on localsend; covered by a new test). - name-matcher.ts / index.ts: `dart` joins the dotted-chain gate, CONSTRUCTS_VIA_BARE_CALL (case construction), and CHAIN_LANGUAGES (conformance for superclass/mixin methods). resolveMethodOnType validates, so a wrong inference yields no edge. Validation: 7 synthetic tests (static factory, factory/named ctor, construction, conformance, absent-method safety, the misparse regression, instantiation-not- hijacked). Real-repo A/B on localsend (368 Dart files): hand-written +17/-10 — all corrections (the -10 = 7 wrong stdlib/extension misattributions removed + 3 ctor source-renames), plus additive factory/named-ctor call resolution. Instantiation preserved; no node explosion. EXTRACTION_VERSION 13->14. Full suite green. Co-authored-by: Claude Opus 4.8 (1M context) <noreply@anthropic.com> |
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2f96f58cbb |
fix(scala): resolve chained static-factory/apply calls Foo.create().bar() (#750) (#761)
Ports the #645 (C++) / #608 (PHP) chained-receiver mechanism to Scala. A call whose receiver is itself a call — `Foo.create().bar()` (companion factory), `Builder(cfg).bar()` (case-class apply), or a fluent chain — used to drop the receiver to a bare `bar`, which name-matched a same-named method on an unrelated type. The most common wrong edge was a stdlib `Option`/`Iterator` `.map`/`.flatMap`/ `.foreach` mis-attributed onto the project's own same-named class. - scala.ts: `getReturnType` reads the `return_type` field — generic `List[Foo]` → container `List`, qualified `pkg.Foo` → `Foo`, `this.type` left undefined. - tree-sitter.ts: re-encode `Foo.create().bar` when the inner call's receiver chain starts with a capital (companion factory / case-class apply); instance chains (`list.map().filter()`) stay bare. - name-matcher.ts: `scala` joins the dotted-chain gate + CONSTRUCTS_VIA_BARE_CALL (case-class `apply` constructs the class); resolveMethodOnType validates, so a non-conventional `apply` returning another type yields no edge, not a wrong one. - index.ts: `scala` joins CHAIN_LANGUAGES so trait-inherited methods resolve via the conformance second pass. Validation: 4 synthetic tests (factory+decoy, case-class apply, trait conformance, absent-method safety). Real-repo A/B on gatling (750 Scala files): +14 / -59 unique edges — all corrections. The +14 are retargets (e.g. `HttpProtocolBuilder(cfg).baseUrl` now resolves to HttpProtocolBuilder::baseUrl, not the same-named private BaseUrlSupport helper); the -59 are wrong edges removed (stdlib Option/Iterator monad calls mis-tied to the project's Validation::*, self-loops, decoy collisions) — zero genuine factory chains dropped (verified: gatling has no real Validation.success().map() chains). db stable at 40 MB. EXTRACTION_VERSION 12→13. Full suite green. Co-authored-by: Claude Opus 4.8 (1M context) <noreply@anthropic.com> |
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ccced9e358 |
fix(go): resolve chained factory-function calls New().Method() (#750) (#760)
* fix(go): resolve chained factory-function calls New().Method() (#750) A Go call through a chained factory function — `New().Method()`, `With(cfg).Build()` — dropped the receiver to a bare method name, which then attached to a same-named method on an unrelated type (a wrong edge) or didn't resolve. Ports the #645/#608 mechanism for Go's bare-factory receivers: - Part 1: capture Go return types; a pointer `*Foo` -> `Foo`, a multi-return `(*Foo, error)` -> its first result, qualified `pkg.Foo` -> `Foo`. - Part 2: encode a bare-factory chain (`New().Method`), gated to an `identifier` receiver so instance chains (`obj.Method().Other()`) keep bare-name. - Part 3: matchDottedCallChain bare-inner Go branch looks up the FUNCTION's return type, then resolves+validates the method on it. Wired into the conformance pass so a method promoted from an embedded struct (`type Widget struct{ Base }` -> the existing `extends` edge) resolves. FALLBACK: when the inner isn't a resolvable function (a package-level VARIABLE holding a function value, e.g. gin's `engine()`), fall back to bare-name so the edge isn't dropped. Validated: synthetic decoy + args + multi-return + embedded-conformance + absent safety tests (4/4); full suite green. Real-repo A/B on gin (99 .go): pre-fallback -40 = 25 wrong self-loops removed (good) + 15 correct `Engine::ServeHTTP` dropped (gin's ginS variable-factory `engine()`); the fallback recovers the 15. gin A/B re-confirm with the fallback is PENDING (local index flakiness, not a code issue). EXTRACTION_VERSION 11 -> 12. Co-Authored-By: Claude Opus 4.8 (1M context) <noreply@anthropic.com> * fix(go): stop the chained-call fallback from looping the batched resolver The Go variable-inner fallback (for chains like `engine().ServeHTTP()` whose inner is a package-level var, not a factory function) resolved the method via a synthetic bare-name ref and propagated THAT ref as `.original`. Its `referenceName` was the bare `ServeHTTP`, not the stored `engine().ServeHTTP`, so `resolveAndPersistBatched`'s keyed `deleteSpecificResolvedReferences` no-oped, the offset-0 batch never drained, and the loop re-resolved + re-inserted the same rows forever — a runaway that grew a 99-file repo (gin) to 5,050,206 edges / 1.4 GB before filling the disk. - name-matcher.ts: tie the bare-name match back to the original `ref` so the batch-cleanup delete matches the stored row and the loop drains. - index.ts: add a non-progress guard to resolveAndPersistBatched — if the unresolved_refs table doesn't shrink after a batch, stop instead of growing the graph without bound (defense-in-depth for any future keyed-delete mismatch). - resolution.test.ts: regression test for the variable-inner chain — asserts the fallback edge resolves AND the edge count stays bounded (no explosion). gin A/B (post-fix): db 5.8 MB / 3,699 calls edges; net-zero unique-edge diff vs main (the fallback recovers the dropped edges, adds no wrong ones). Full suite green. Co-Authored-By: Claude Opus 4.8 (1M context) <noreply@anthropic.com> --------- Co-authored-by: Claude Opus 4.8 (1M context) <noreply@anthropic.com> |
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5805f01957 |
fix(rust): resolve chained associated-function calls Foo::new().bar() (#750) (#757)
A Rust call through a chained associated function — `Foo::new().bar()`, `Foo::with(cfg).build()` — dropped the receiver to a bare method name, which then attached to a same-named method on an unrelated type (a wrong edge) or didn't resolve. Ports the #645/#608 mechanism for Rust's `::` receivers: - Part 1: capture Rust return types; `-> Self` yields the `self` marker (resolved to the impl's own type, like PHP), references/generics are unwrapped/reduced. - Part 2: encode an associated-function chain (`Foo::new().bar`), gated to a scoped_identifier receiver so instance chains (`x.foo().bar()`) keep bare-name. - Part 3: resolve via matchScopedCallChain (PHP's `::` resolver, generalized), validated by resolveMethodOnType. Wire Rust into the conformance second pass (matchScopedCallChain variant) so a chained method provided by a trait the type implements (`impl Trait for Type` → existing implements edges) resolves too. Validated: synthetic decoy + args + Self + trait-default-conformance + absent safety tests; full suite green (lone failure is the known-flaky #662 daemon test, passes in isolation). Real-repo A/B vs main: clap (329 .rs) a net precision win — **+937 added (96% correct builder methods), 622 wrong->right retargets** (`Command::new().arg()` was mis-resolving to `ArgGroup::arg`, now `Command::arg`), +162 net unique edges; the pure-drops are largely wrong bare-name edges the fix correctly stops emitting. tokio-rs/bytes 0/0 (no regression). Known limit: the single-hop mechanism re-encodes only the first hop of a chain (deeper hops keep bare-name) — clap's unusually deep builder chains are partly covered. EXTRACTION_VERSION 10 -> 11. Co-authored-by: Claude Opus 4.8 (1M context) <noreply@anthropic.com> |
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7c7f0dd56f |
fix(swift): resolve chained static-factory/fluent calls + nested-extension naming (#750) (#755)
Completes Swift in the #750 chained-call series (after Java #751, Kotlin #752, C# #753, conformance #754). Two parts: 1. Swift chained-call resolution (the #645/#608 mechanism): capture Swift return types (positional, member types -> last segment), encode capitalized-receiver chains `Foo.make().draw()` / `Foo(args).draw()`, resolve+validate via the shared matchDottedCallChain (+ constructor branch). Fixes the decoy wrong-edge bug where a chained method dropped to a bare name and attached to a same-named method on an unrelated class. 2. Nested-type extension naming fix: `extension KF.Builder: KFOptionSetter` parsed as a class_declaration named `KF.Builder` (dot) — inconsistent with the type's own declaration `KF::Builder` (name `Builder`) — so the extension's conformances and members were invisible to a chained call on the type. A Swift resolveName now names a nested-type extension by its last segment (`Builder`), so its `implements`/`extends` edges and methods are found by the supertype walk (conformance #754) and the simple-name method match. Validated: synthetic decoy + args + constructor + absent-method tests; full suite green; nested-extension repro (`KF.url().onSuccess()` resolves via conformance to the protocol method). Real-repo A/B vs main (conformance) — Alamofire and Kingfisher both **0 added / 0 removed, node count unchanged**: NEUTRAL and SAFE. The prior -168 Kingfisher regression (from the naming inconsistency) is eliminated; Swift's unique-named fluent methods already resolved by bare name, so the chain path lands the same edges — the value here is decoy-collision correctness, the nested-extension naming fix, and consistency with the other four languages. EXTRACTION_VERSION 9 -> 10. Co-authored-by: Claude Opus 4.8 (1M context) <noreply@anthropic.com> |
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48d4654e8d |
feat(resolution): conformance-aware chained-method resolution (#750) (#754)
* feat(resolution): conformance-aware chained-method resolution (#750) A chained static-factory/fluent call whose method lives on a SUPERTYPE the receiver conforms to — a protocol-extension method (Swift), an interface default method, or an inherited superclass method — now resolves. resolveMethodOnType falls back to walking the return type's implements/extends edges (via the new context.getSupertypes) when the method isn't a direct member. Because those edges don't exist during the single-pass resolution, a second pass (resolveChainedCallsViaConformance) re-resolves the deferred chained refs after edges are built. Still validated, so a wrong inference yields no edge. Co-Authored-By: Claude Opus 4.8 (1M context) <noreply@anthropic.com> * docs(changelog): conformance-aware chained-method resolution (#750) Co-Authored-By: Claude Opus 4.8 (1M context) <noreply@anthropic.com> --------- Co-authored-by: Claude Opus 4.8 (1M context) <noreply@anthropic.com> |
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aa07dc59d4 |
fix(csharp): resolve chained static-factory calls Foo.Create().Bar() (#750) (#753)
A C# method called through a static factory or fluent chain — `Foo.Create().Bar()`, `JObject.Parse(s).Property(...)`, `Instant.FromUtc(...).InZone(zone)` — lost the receiver's type, so the chained method didn't resolve and the call was invisible to callers/impact/trace. Ports the #645/#608 mechanism to C# (additive, like Java #751): - Part 1: capture C# return types in the extractor, reading the `returns` field (`static Foo Create()` -> `Foo`); predefined/array/generic/nullable/namespaced types are normalized or skipped. - Part 2: encode a chained `member_access_expression` receiver (`Foo.Create(args).Bar()`) as `inner().Bar` with normalized empty parens, so factory calls that take arguments still split. Non-chained member calls keep their existing `recv.Method` text. - Part 3: resolve via the shared matchDottedCallChain (now Java/Kotlin/C#), validated by resolveMethodOnType so a wrong inference yields NO edge. Known limitation (safe): C# extension-method chains don't resolve, since the method lives on the extension class, not the receiver's type — no edge, never a wrong one. Validated: synthetic decoy + args + absent-method safety tests; full suite green; real-repo A/B on Newtonsoft.Json (945 .cs: +3, 0 lost) and nodatime (488 .cs: +73, 0 lost) — node count identical (no explosion), 0 edges lost, precision spot-checked verbatim (Instant.FromUtc().InZone(), Offset.FromHoursAndMinutes().Plus(), OffsetDateTimePattern.CreateWithInvariantCulture().WithTwoDigitYearMax()). EXTRACTION_VERSION 7 -> 8. Co-authored-by: Claude Opus 4.8 (1M context) <noreply@anthropic.com> |
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3e04650850 |
fix(kotlin): resolve chained companion-factory calls Foo.getInstance().bar() (#750) (#752)
A Kotlin method called through a companion-object factory, fluent chain, or
constructor — `Foo.getInstance().bar()`, `Config.create(opts).build()`,
`STMTransaction(f).commit()` — dropped the receiver to a BARE method name, which
then name-matched a same-named method on an unrelated class (a wrong edge) or
failed to resolve. Ports the #645/#608 mechanism to Kotlin:
- Part 1: capture Kotlin return types in the extractor. tree-sitter-kotlin
exposes no field names, so the return type is read positionally (the type node
after function_value_parameters); inferred/Unit/Nothing returns yield none.
- Part 2: encode a CLASS/companion-factory call-receiver chain as `inner().method`.
Gated to a capitalized receiver (`Foo.getInstance()` / `Foo(args)`) so instance
chains (`list.filter{}.map{}`) keep their bare-name behavior — re-encoding those
would only drop the edge, regressing recall in fluent codebases.
- Part 3: generalize matchJavaCallChain -> matchDottedCallChain (shared by the JVM
dot-notation languages); resolve the method on the factory's return type, or on
the constructed class for a Kotlin `Foo(args).method()` receiver. Validated via
resolveMethodOnType, so a wrong inference yields NO edge.
Validated: synthetic decoy + args + absent-method safety tests; full suite green;
real-repo A/B on arrow-kt/arrow (734 .kt) — node count identical (no explosion),
+49 validated-correct chained edges, and the removed edges are wrong bare-name
guesses the fix correctly stops emitting (419/438 from test/doc files; the 18
from product code are stdlib `.apply{}`, self-loops, and bare-name mismatches) —
a net precision improvement, ~0 correct product edges lost. Java path unchanged
(constructor branch is Kotlin-gated). EXTRACTION_VERSION 6 -> 7.
Co-authored-by: Claude Opus 4.8 (1M context) <noreply@anthropic.com>
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7f6bdf7ad1 |
fix(java): resolve chained static-factory calls Foo.getInstance().bar() (#750) (#751)
A Java method called through a static factory or fluent chain — `Foo.getInstance().bar()`, `Config.create(opts).build()` — lost the receiver's type, so the chained method either didn't resolve at all or (when a same-named method existed on an unrelated class) attached to whichever class was indexed first. Ports the #645 (C++) / #608 (PHP) 3-part mechanism: - Part 1: capture Java return types in the extractor (skip void/primitives/arrays, unwrap generics, strip package qualifier). - Part 2: encode a chained-call receiver as `inner().method` with normalized empty parens, so factory calls that take arguments still split. - Part 3: matchJavaCallChain resolves the chained method on the factory's return type, validated via resolveMethodOnType so a wrong inference yields NO edge (never a wrong one). Validated: synthetic decoy + absent-method safety tests; real-repo A/B on google/guava (3,227 files) — node count identical (no explosion), 0 edges lost, +1,507 unique chained edges recovered, precision spot-checked verbatim (Splitter.on().split(), CacheBuilder.newBuilder().recordStats(), GraphBuilder.directed().build(), nested MultimapBuilder.linkedHashKeys().arrayListValues()). EXTRACTION_VERSION 5 -> 6. Co-authored-by: Claude Opus 4.8 (1M context) <noreply@anthropic.com> |
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eb5960b535 |
fix(php): resolve chained static-factory calls Cls::for($x)->method() (#608) (#749)
A method called through a PHP fluent static factory — `ApiClient::for($c)->createOrder()`, the canonical Laravel per-credential/per-tenant client idiom — produced no `calls` edge: the receiver of `->createOrder` is the `Cls::for(...)` static call, whose result type was never recovered, so the edge was dropped and `codegraph_callers` returned nothing. Same shape as the C++ singleton/factory fix (#645), reusing its return_type column + the chained-call mechanism: - Capture PHP return types (getReturnType): `: self` / `: static` / `$this` stored as the `self` marker, a concrete `: Type` as its short name, primitives/unions dropped. - Encode the chained scoped-call receiver as `Cls::for().method` so the resolver can split it (PHP-gated, in extractCall). - New matchPhpCallChain: look up the factory's return type (`self` → the factory's own class; concrete → that class), then resolve AND validate the method on it — a wrong inference yields no edge, never a wrong one. EXTRACTION_VERSION 4->5 (re-index to populate PHP return types + chained edges). Validated on koel (1383 PHP files): node count identical (no explosion), 0 edges lost, +80 chained-call edges recovered; synthetic tests cover the self-factory, concrete-return, namespace, decoy, and absent-method cases. Co-authored-by: Claude Opus 4.8 (1M context) <noreply@anthropic.com> |
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6e2a24d96a |
fix(extraction): map PHP include/require to file→file dependency edges (#660) (#663)
PHP's importTypes only captured namespace_use_declaration, so include/require(_once) — the dependency mechanism in procedural and script-style PHP — never produced edges. callers, impact, and trace missed the entire file-include graph; only namespace `use` became a dependency edge. Capture the four include/require expression types and emit file→file imports edges, reusing the path-based resolution that C/C++ #include already goes through. Only static string-literal paths are resolved (relative to the including file); dynamic forms (include $var, require __DIR__ . '/x', interpolated strings) are skipped. Include PATHS are distinguished from namespace `use` symbols by shape: a path contains '/' or '.', which PHP identifiers and FQNs never do. A path-shaped include that doesn't resolve to a known project file is left unresolved and does NOT fall back to the symbol name-matcher, which would otherwise mis-connect "inc/db.php" to an unrelated db.php elsewhere — a wrong edge is worse than a missing one. Co-authored-by: Claude Opus 4.8 (1M context) <noreply@anthropic.com> Co-authored-by: Colby McHenry <me@colbymchenry.com> |
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fd03f31b2c |
fix(cpp): resolve calls through singletons/factories/chained getters (#645) (#742)
A C++ method call whose receiver is another call's result — `Foo::instance().bar()`, `WidgetFactory::create().draw()`, `openSession()->run()`, or the same stored in an `auto` local first — lost the receiver's type during extraction. The callee degraded to a bare method name, so when two classes shared a method name the call silently resolved to whichever was indexed first (or not at all), corrupting callers / impact / trace with a plausible-but-wrong edge. Three parts: - Capture C++ return types (new nodes.return_type column, schema v5): the function_definition's `type` field, normalized — smart-pointer pointee unwrapped, void/primitives dropped. - Preserve the inner-call receiver in extraction: a C/C++ field_expression whose receiver is itself a call is encoded `inner().method` instead of dropping to the bare name. Other languages keep the existing behavior. - New resolution strategy (matchCppCallChain): infer the receiver's class from the inner call's return type, then resolve AND validate the method on it. Handles singletons/accessors, factories returning a different type, free-function factories, make_unique/make_shared/new/direct construction, single-level member chains, and namespace-qualified inner calls. A wrong inference yields no edge, never a wrong one. EXTRACTION_VERSION 2->3 (re-index to populate return types). Validated on the issue repro + spdlog: node count stable (no explosion), deterministic, and ~100 pre-existing wrong `.size()`-style edges removed. Co-authored-by: Claude Opus 4.8 (1M context) <noreply@anthropic.com> |
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80db274e5f |
feat(csharp): index C# 12 primary constructors via an up-to-date grammar (#237) (#717)
Vendor tree-sitter-c-sharp 0.23.5 (ABI 15) for C#, replacing the bundled ABI-13 build that dropped primary-constructor classes. Adds native primary-ctor parsing, primary-ctor parameter dependency edges, return-type extraction via the renamed `returns` field, and a preParse that blanks `#if` directive lines the new grammar mis-parses inside enum bodies. Validated on MediatR / eShopOnWeb / Newtonsoft.Json + full suite. Co-Authored-By: Claude Opus 4.8 (1M context) <noreply@anthropic.com> |
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2f50473aaa |
fix(go): attach cross-file methods to their receiver type (#583) (#716)
Add a resolution-phase pass (goCrossFileMethodContainsEdges) that links a Go method to its same-named receiver type within the same package (= directory), so a method declared in a different file from its `type` is no longer orphaned from the struct. Runs before goImplementsEdges so cross-file methods also count toward interface satisfaction (#584). Adds a regression test + CHANGELOG entry. Co-Authored-By: Claude Opus 4.8 (1M context) <noreply@anthropic.com> |
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8d35931c3b |
fix(python): resolve call edges through imported modules (#578) (#715)
Give resolvePythonModuleMember the same absolute-dotted-path fallback that resolveModuleImportToFile already uses, so a `module.func()` call after `from pkg import module` / `import pkg.module as module` records its `calls` edge. Adds a regression test and a CHANGELOG entry. Co-Authored-By: Claude Opus 4.8 (1M context) <noreply@anthropic.com> |
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629d8472b1 |
fix(extraction): index Vue <template> component usages (#629 follow-up) (#659)
Vue's extractor parsed only the <script> block, so a component used solely in another component's <template> (`<MyButton />`) produced no reference — and thus showed a false 0 callers, even after the barrel-resolution fix in PR #657. This is the Vue analogue of Svelte's extractTemplateComponents. extractTemplateComponents() now scans the template (everything outside the <script>/<style> blocks, which also handles nested <template> tags for v-if/slots) for component tags: - PascalCase tags (`<MyButton/>`) — captured as-is. - kebab-case tags (`<my-button/>`) — converted to PascalCase so they match the imported component's name. Safe: an unmatched name creates no edge during resolution, so native custom elements just don't resolve. - Native HTML elements (lowercase, no hyphen) and Vue built-ins (Transition, KeepAlive, …) are skipped. Adds no nodes — only `references` — so node counts stay stable. With this plus #657, a Vue component re-exported through a barrel and used only in a template now resolves end-to-end (callers/impact/callees). Co-authored-by: Claude Opus 4.8 (1M context) <noreply@anthropic.com> |
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bdfd55e69c |
fix(resolution): resolve Svelte/Vue component barrels & workspace imports (#629) (#657)
Component barrels (`export { default as X } from './X.svelte'`) and
monorepo workspace imports (`@scope/ui/widgets`) left the consumer↔component
edge uncreated, so live components showed a false `0 callers` — the canonical
dead-code signal — risking deletion of live code.
The Svelte default-barrel case broke at FOUR layers, each of which alone left
it unresolved:
- findExportedSymbol matched only function/class for a default export, never
`component` (Svelte/Vue SFCs are kind 'component').
- extractImportMappings had no svelte/vue branch, so SFC consumers produced
zero import mappings and resolveViaImport never ran.
- EXTENSION_RESOLUTION had no svelte/vue entry, so relative imports from an
SFC (`./lib` -> `/index.ts`) resolved to nothing.
- getReExports parsed the barrel in the CONSUMER's threaded language, so a
.svelte consumer made extractReExports bail on a .ts index barrel.
Workspace package-subpath barrels get a new workspace-packages module
(mirrors go-module/path-aliases): reads package.json `workspaces`
(npm/yarn/bun) + pnpm-workspace.yaml, maps member name->dir, resolves
`@scope/ui/widgets` -> `packages/ui/widgets`. Gated behind the workspaces
field so single-package repos are unaffected.
Bare `./`/`.` directory imports already resolved; covered with a regression
test. Verified both directions (callers/impact AND callees) for Svelte; Vue
script-level imports also resolve. 4 new tests; full suite green (1126).
Co-authored-by: Claude Opus 4.8 (1M context) <noreply@anthropic.com>
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 Artem BambalovandGitHub
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34240eb297 |
feat(jvm): resolve Java/Kotlin imports by fully-qualified name (#412)
Wrap top-level declarations of `.kt` / `.java` files in an implicit `namespace` node carrying the file's `package`, then resolve `import com.example.foo.Bar` through that qualifiedName index — so a Bar in Models.kt resolves correctly regardless of filename, a top-level function import binds to its declaration, Java↔Kotlin interop crosses cleanly, and same-name classes across packages no longer collide. Wildcard imports still go through name-matcher.
Also extracts Java/C# anonymous-class overrides (`new T() { ... }`) as first-class class nodes with their override methods. Phase 5.5 interface-impl then bridges T's abstract methods to the anonymous overrides automatically — including the lambda-returned `new T() { ... }` pattern common in guava (Splitter, CacheBuilder).
Concrete impact on macrozheng/mall (524 .java files, multi-module Spring + MyBatis): 524 namespace nodes, 862 imports edges newly resolve to Java symbols, 76 distinct `Criteria` classes preserved across packages with no merge. On google/guava (3,227 .java): 3,608 anonymous classes extracted, +2,534 interface-impl edges reach overrides hidden in `new T() { ... }` blocks.
Agent A/B playbook on small (spring-petclinic-kotlin, 38 .kt), medium (mall, 524 .java), large (guava, 3,227 .java) — 3 flow prompts × 2 runs/arm × 2 arms = 36 runs, claude-opus, headless. Spring repos: 0/0 Read/Grep with-arm, −27% wall-clock vs no-codegraph. Guava: 1.8 Read avg with-arm (vs 2.0 without) — improved by the anon-class extraction; residual is a lambda→SAM coverage gap orthogonal to FQN imports (filing follow-up).
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