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fix(cpp): resolve callers for typed pointer method calls (#445)

Resolves typed member-pointer method calls like `m_cpAlg->Processing()` so `codegraph callers CDetect::Processing` returns the expected callers.

- Extract C/C++ `field_expression` member calls as receiver-qualified references, so `ptr->method()` is preserved as a receiver-aware reference.
- Surface out-of-line C++ method definitions (`int CDetect::Processing() {...}` in `.cpp` with class in `.hpp`) as proper method nodes with the correct qualified identity.
- C++ receiver-type inference: declarator regex requires a terminator after the receiver (rules out matching `return m_cpAlg->...`), handles `Type*x`/`Type *x`/`Type* x` uniformly, and rejects C++ keywords as a final guard.
- `resolveMethodOnType` matches by `Class::method` qualified-name suffix, so out-of-line definitions across files resolve (typical `.hpp`/`.cpp` split).

Validated on bitcoin-core (1306 .cpp files): 38,180 → 40,503 cpp method incoming-call edges (+6.1%), deterministic across re-indexes. Regression test added for the ambiguous-name + `return ptr->m()` / `Type x = ptr->m()` patterns.

Closes #445

Co-authored-by: chenyuxuan <458254969@qq.com>
Co-authored-by: Colby McHenry <me@colbymchenry.com>
Co-authored-by: Claude Opus 4.7 (1M context) <noreply@anthropic.com>
thismilktea 4 недель назад
Родитель
Сommit
c0cf9c1e7d

+ 1 - 0
CHANGELOG.md

@@ -14,6 +14,7 @@ and adheres to [Semantic Versioning](https://semver.org/spec/v2.0.0.html).
 - **Watch sync no longer aborts with `FOREIGN KEY constraint failed`.** PR #62 plugged this FK violation at the extraction layer (empty-named nodes whose containment edges had no target), but the same violation kept reappearing on v0.9.5 during the daemon's *watch sync* — not on initial index. Once an agent's daemon had been running long enough to accumulate edits, a resolver lookup that crossed a framework-specific cache could hand back a node whose row had been removed by a recent file rewrite, and the FK check then aborted the entire resolution batch, leaving the user's daemon log filling with `Watch sync failed { error: 'FOREIGN KEY constraint failed' }`. `QueryBuilder.insertEdges` now validates every batch's endpoints against the `nodes` table directly (one fresh `SELECT id IN (...)` per batch, no cache) and silently skips edges with missing source or target — so a stale lookup result drops one edge instead of aborting the whole sync. Surfaces as a fresh `codegraph init`/`index` cycle now surviving its first watch-sync cycle without the FK error, and the daemon recovering naturally instead of compounding into further failures. Closes #455.
 - **Watch sync no longer aborts with `FOREIGN KEY constraint failed`.** PR #62 plugged this FK violation at the extraction layer (empty-named nodes whose containment edges had no target), but the same violation kept reappearing on v0.9.5 during the daemon's *watch sync* — not on initial index. Once an agent's daemon had been running long enough to accumulate edits, a resolver lookup that crossed a framework-specific cache could hand back a node whose row had been removed by a recent file rewrite, and the FK check then aborted the entire resolution batch, leaving the user's daemon log filling with `Watch sync failed { error: 'FOREIGN KEY constraint failed' }`. `QueryBuilder.insertEdges` now validates every batch's endpoints against the `nodes` table directly (one fresh `SELECT id IN (...)` per batch, no cache) and silently skips edges with missing source or target — so a stale lookup result drops one edge instead of aborting the whole sync. Surfaces as a fresh `codegraph init`/`index` cycle now surviving its first watch-sync cycle without the FK error, and the daemon recovering naturally instead of compounding into further failures. Closes #455.
 - **Hermes Agent: `codegraph install --target hermes` no longer corrupts `~/.hermes/config.yaml`.** Hermes serializes its config with PyYAML's default block style, which writes list items at the *same* indent as the parent mapping key (`cli:` and `- hermes-cli` both at column 2). The previous line-based YAML patcher mistook that first `  - hermes-cli` for the next sibling key, truncated the `cli:` block, and then spliced `- mcp-codegraph` at indent 4 *before* the existing items — leaving subsequent entries (`- browser`, `- clarify`, …) and even other platforms (`telegram:`, `discord:`) appearing at the `platform_toolsets:` level, which is no longer parseable YAML. The installer now recognizes the same-indent list style, finds the real end of the block at the next sibling key, and appends `- mcp-codegraph` at whatever indent the existing items already use. Re-installing on an already-corrupted file (or a 4-space-nested config that worked before) still produces a clean, parseable result. Closes #456.
 - **Hermes Agent: `codegraph install --target hermes` no longer corrupts `~/.hermes/config.yaml`.** Hermes serializes its config with PyYAML's default block style, which writes list items at the *same* indent as the parent mapping key (`cli:` and `- hermes-cli` both at column 2). The previous line-based YAML patcher mistook that first `  - hermes-cli` for the next sibling key, truncated the `cli:` block, and then spliced `- mcp-codegraph` at indent 4 *before* the existing items — leaving subsequent entries (`- browser`, `- clarify`, …) and even other platforms (`telegram:`, `discord:`) appearing at the `platform_toolsets:` level, which is no longer parseable YAML. The installer now recognizes the same-indent list style, finds the real end of the block at the next sibling key, and appends `- mcp-codegraph` at whatever indent the existing items already use. Re-installing on an already-corrupted file (or a 4-space-nested config that worked before) still produces a clean, parseable result. Closes #456.
 - **NestJS: `RouterModule.register([...])` route prefixes now propagate to controller routes.** Previously a controller declared inside a module wired through NestJS's `RouterModule` (a common pattern for modular apps with nested route prefixes) was indexed with its raw `@Controller(...) + @Get(...)` path — so `UsersController` under `RouterModule.register([{ path: 'admin', module: AdminModule, children: [{ path: 'users', module: UsersModule }] }])` showed up as `GET /` instead of `GET /admin/users`. The new cross-file pass walks every `*.module.{ts,js}` for `RouterModule.register/forRoot/forChild([...])` (recursive `children`) and `@Module({ controllers: [...] })`, then prepends the correct prefix to each affected route — including non-empty `@Controller` paths and method-level params (`/admin/users/:id`). The route node's `id` is preserved across the update so existing route→handler edges stay intact, and the pass is idempotent so incremental sync recovers when `app.module.ts` itself is edited. Closes #459.
 - **NestJS: `RouterModule.register([...])` route prefixes now propagate to controller routes.** Previously a controller declared inside a module wired through NestJS's `RouterModule` (a common pattern for modular apps with nested route prefixes) was indexed with its raw `@Controller(...) + @Get(...)` path — so `UsersController` under `RouterModule.register([{ path: 'admin', module: AdminModule, children: [{ path: 'users', module: UsersModule }] }])` showed up as `GET /` instead of `GET /admin/users`. The new cross-file pass walks every `*.module.{ts,js}` for `RouterModule.register/forRoot/forChild([...])` (recursive `children`) and `@Module({ controllers: [...] })`, then prepends the correct prefix to each affected route — including non-empty `@Controller` paths and method-level params (`/admin/users/:id`). The route node's `id` is preserved across the update so existing route→handler edges stay intact, and the pass is idempotent so incremental sync recovers when `app.module.ts` itself is edited. Closes #459.
+- **C++ callers now resolve through typed member pointers (#445/#454).** `codegraph callers CDetect::Processing` previously returned nothing for call sites like `m_cpAlg->Processing()` because (a) `field_expression` calls weren't kept as receiver-qualified references, (b) out-of-line method definitions (`int CDetect::Processing() {...}` in `.cpp` while the class is in `.hpp` — typical C++ layout) weren't surfaced as class methods, and (c) the resolver had no way to bridge a `Type* receiver` declaration to its method calls. Calls through typed object pointers, references, and stack values now resolve to the right class's method, including the common ambiguous-name case (two classes with a shared method name) and call sites embedded in `return ptr->m()` or `Type x = ptr->m()` forms. Measured on bitcoin-core (1306 .cpp files): +6.1% C++ caller edges resolved end-to-end.
 
 
 ### Added
 ### Added
 - **Installer targets for Gemini CLI and the Antigravity IDE.** `codegraph install` (and the interactive prompt) now detect and configure two more agents out of the box:
 - **Installer targets for Gemini CLI and the Antigravity IDE.** `codegraph install` (and the interactive prompt) now detect and configure two more agents out of the box:

+ 105 - 0
__tests__/frameworks-integration.test.ts

@@ -161,6 +161,111 @@ describe('C++ end-to-end — virtual override synthesis', () => {
     tmpDir = undefined;
     tmpDir = undefined;
   });
   });
 
 
+  it('resolves callers through typed object pointers', async () => {
+    tmpDir = fs.mkdtempSync(path.join(os.tmpdir(), 'cg-cpp-'));
+    let cg: CodeGraph | undefined;
+    try {
+      fs.writeFileSync(
+        path.join(tmpDir, 'detect.hpp'),
+        'class CDetect {\n' +
+          ' public:\n' +
+          '  int Processing();\n' +
+          '};\n' +
+          'class CDetector {\n' +
+          ' private:\n' +
+          '  CDetect* m_cpAlg = nullptr;\n' +
+          ' public:\n' +
+          '  int Run();\n' +
+          '  int Flush();\n' +
+          '};\n'
+      );
+      fs.writeFileSync(
+        path.join(tmpDir, 'detect.cpp'),
+        '#include "detect.hpp"\n' +
+          'int CDetector::Run() { return m_cpAlg->Processing(); }\n' +
+          'int CDetector::Flush() { return m_cpAlg->Processing(); }\n' +
+          'int CDetect::Processing() { return 0; }\n'
+      );
+
+      cg = CodeGraph.initSync(tmpDir);
+      await cg.indexAll();
+
+      const processing = cg
+        .getNodesByKind('method')
+        .find((n) => n.qualifiedName.endsWith('CDetect::Processing'));
+      expect(processing).toBeDefined();
+
+      const callers = cg.getCallers(processing!.id).map((c) => c.node.qualifiedName);
+      expect(callers).toContain('CDetector::Run');
+      expect(callers).toContain('CDetector::Flush');
+
+      const runMethod = cg
+        .getNodesByKind('method')
+        .find((n) => n.qualifiedName.endsWith('CDetector::Run'));
+      expect(runMethod).toBeDefined();
+      const callees = cg.getCallees(runMethod!.id).map((c) => c.node.qualifiedName);
+      expect(callees).toContain('CDetect::Processing');
+    } finally {
+      cg?.close();
+    }
+  });
+
+  it('resolves typed pointer callers when the method name is ambiguous and the call sits inside a return/declaration', async () => {
+    // Regression: an earlier version of the C++ receiver-type inference matched
+    // the call line itself (`return m_cpAlg->Processing()`) and treated `return`
+    // as the type, OR grabbed `int r =` as a type from the prefix. With Strategy
+    // 3's "unique method name" fallback, the original issue example resolved
+    // anyway — but as soon as two classes share a method name (very common in
+    // real C++), both calls go unresolved.
+    tmpDir = fs.mkdtempSync(path.join(os.tmpdir(), 'cg-cpp-'));
+    let cg: CodeGraph | undefined;
+    try {
+      fs.writeFileSync(
+        path.join(tmpDir, 'detect.hpp'),
+        'class CDetect { public: int Processing(); };\n' +
+          'class CWidget { public: int Processing(); };\n' +
+          'class CDetector {\n' +
+          ' private:\n' +
+          '  CDetect* m_cpAlg = nullptr;\n' +
+          ' public:\n' +
+          '  int RunReturn();\n' +
+          '  int RunAssign();\n' +
+          '};\n'
+      );
+      fs.writeFileSync(
+        path.join(tmpDir, 'detect.cpp'),
+        '#include "detect.hpp"\n' +
+          'int CDetector::RunReturn() { return m_cpAlg->Processing(); }\n' +
+          'int CDetector::RunAssign() { int r = m_cpAlg->Processing(); return r; }\n' +
+          'int CDetect::Processing() { return 0; }\n' +
+          'int CWidget::Processing() { return 0; }\n'
+      );
+
+      cg = CodeGraph.initSync(tmpDir);
+      await cg.indexAll();
+
+      const detectProc = cg
+        .getNodesByKind('method')
+        .find((n) => n.qualifiedName === 'CDetect::Processing');
+      const widgetProc = cg
+        .getNodesByKind('method')
+        .find((n) => n.qualifiedName === 'CWidget::Processing');
+      expect(detectProc).toBeDefined();
+      expect(widgetProc).toBeDefined();
+
+      const detectCallers = cg.getCallers(detectProc!.id).map((c) => c.node.qualifiedName);
+      expect(detectCallers).toContain('CDetector::RunReturn');
+      expect(detectCallers).toContain('CDetector::RunAssign');
+
+      // CWidget::Processing is never called — calls must NOT misroute here.
+      const widgetCallers = cg.getCallers(widgetProc!.id).map((c) => c.node.qualifiedName);
+      expect(widgetCallers).not.toContain('CDetector::RunReturn');
+      expect(widgetCallers).not.toContain('CDetector::RunAssign');
+    } finally {
+      cg?.close();
+    }
+  });
+
   it('bridges a base virtual method to the subclass override', async () => {
   it('bridges a base virtual method to the subclass override', async () => {
     tmpDir = fs.mkdtempSync(path.join(os.tmpdir(), 'cg-cpp-'));
     tmpDir = fs.mkdtempSync(path.join(os.tmpdir(), 'cg-cpp-'));
     fs.writeFileSync(
     fs.writeFileSync(

+ 47 - 0
src/extraction/languages/c-cpp.ts

@@ -2,6 +2,51 @@ import type { Node as SyntaxNode } from 'web-tree-sitter';
 import { getChildByField, getNodeText } from '../tree-sitter-helpers';
 import { getChildByField, getNodeText } from '../tree-sitter-helpers';
 import type { LanguageExtractor } from '../tree-sitter-types';
 import type { LanguageExtractor } from '../tree-sitter-types';
 
 
+function extractCppQualifiedMethodName(node: SyntaxNode, source: string): string | undefined {
+  const declarator = getChildByField(node, 'declarator');
+  if (!declarator) return undefined;
+
+  const queue: SyntaxNode[] = [declarator];
+  while (queue.length > 0) {
+    const current = queue.shift()!;
+    if (current.type === 'qualified_identifier') {
+      const text = getNodeText(current, source).trim();
+      const parts = text.split('::').filter(Boolean);
+      return parts[parts.length - 1];
+    }
+    for (let i = 0; i < current.namedChildCount; i++) {
+      const child = current.namedChild(i);
+      if (child) queue.push(child);
+    }
+  }
+
+  return undefined;
+}
+
+function extractCppReceiverType(node: SyntaxNode, source: string): string | undefined {
+  const declarator = getChildByField(node, 'declarator');
+  if (!declarator) return undefined;
+
+  const queue: SyntaxNode[] = [declarator];
+  while (queue.length > 0) {
+    const current = queue.shift()!;
+    if (current.type === 'qualified_identifier') {
+      const text = getNodeText(current, source).trim();
+      const parts = text.split('::').filter(Boolean);
+      if (parts.length > 1) {
+        return parts.slice(0, -1).join('::');
+      }
+      return undefined;
+    }
+    for (let i = 0; i < current.namedChildCount; i++) {
+      const child = current.namedChild(i);
+      if (child) queue.push(child);
+    }
+  }
+
+  return undefined;
+}
+
 export const cExtractor: LanguageExtractor = {
 export const cExtractor: LanguageExtractor = {
   functionTypes: ['function_definition'],
   functionTypes: ['function_definition'],
   classTypes: [],
   classTypes: [],
@@ -62,6 +107,8 @@ export const cppExtractor: LanguageExtractor = {
   nameField: 'declarator',
   nameField: 'declarator',
   bodyField: 'body',
   bodyField: 'body',
   paramsField: 'parameters',
   paramsField: 'parameters',
+  resolveName: extractCppQualifiedMethodName,
+  getReceiverType: extractCppReceiverType,
   getVisibility: (node) => {
   getVisibility: (node) => {
     // Check for access specifier in parent
     // Check for access specifier in parent
     const parent = node.parent;
     const parent = node.parent;

+ 8 - 3
src/extraction/tree-sitter.ts

@@ -1504,10 +1504,11 @@ export class TreeSitterExtractor {
       const func = getChildByField(node, 'function') || node.namedChild(0);
       const func = getChildByField(node, 'function') || node.namedChild(0);
 
 
       if (func) {
       if (func) {
-        if (func.type === 'member_expression' || func.type === 'attribute' || func.type === 'selector_expression' || func.type === 'navigation_expression') {
+        if (func.type === 'member_expression' || func.type === 'attribute' || func.type === 'selector_expression' || func.type === 'navigation_expression' || func.type === 'field_expression') {
           // Method call: obj.method() or obj.field.method()
           // Method call: obj.method() or obj.field.method()
           // Go uses selector_expression with 'field', JS/TS uses member_expression with 'property'
           // Go uses selector_expression with 'field', JS/TS uses member_expression with 'property'
           // Kotlin uses navigation_expression with navigation_suffix > simple_identifier
           // Kotlin uses navigation_expression with navigation_suffix > simple_identifier
+          // C/C++ use field_expression for both `obj.method()` and `ptr->method()`
           let property = getChildByField(func, 'property') || getChildByField(func, 'field');
           let property = getChildByField(func, 'property') || getChildByField(func, 'field');
           if (!property) {
           if (!property) {
             const child1 = func.namedChild(1);
             const child1 = func.namedChild(1);
@@ -1524,9 +1525,13 @@ export class TreeSitterExtractor {
             // This helps the resolver distinguish method calls from bare function calls
             // This helps the resolver distinguish method calls from bare function calls
             // (e.g., Python's console.print() vs builtin print())
             // (e.g., Python's console.print() vs builtin print())
             // Skip self/this/cls as they don't aid resolution
             // Skip self/this/cls as they don't aid resolution
-            const receiver = getChildByField(func, 'object') || getChildByField(func, 'operand') || func.namedChild(0);
+            const receiver =
+              getChildByField(func, 'object') ||
+              getChildByField(func, 'operand') ||
+              getChildByField(func, 'argument') ||
+              func.namedChild(0);
             const SKIP_RECEIVERS = new Set(['self', 'this', 'cls', 'super']);
             const SKIP_RECEIVERS = new Set(['self', 'this', 'cls', 'super']);
-            if (receiver && (receiver.type === 'identifier' || receiver.type === 'simple_identifier')) {
+            if (receiver && (receiver.type === 'identifier' || receiver.type === 'simple_identifier' || receiver.type === 'field_identifier')) {
               const receiverName = getNodeText(receiver, this.source);
               const receiverName = getNodeText(receiver, this.source);
               if (!SKIP_RECEIVERS.has(receiverName)) {
               if (!SKIP_RECEIVERS.has(receiverName)) {
                 calleeName = `${receiverName}.${methodName}`;
                 calleeName = `${receiverName}.${methodName}`;

+ 133 - 0
src/resolution/name-matcher.ts

@@ -146,6 +146,122 @@ export function matchByQualifiedName(
   return null;
   return null;
 }
 }
 
 
+function resolveMethodOnType(
+  typeName: string,
+  methodName: string,
+  ref: UnresolvedRef,
+  context: ResolutionContext,
+  confidence: number,
+  resolvedBy: ResolvedRef['resolvedBy'],
+): ResolvedRef | null {
+  // Look up methods by name and match by qualifiedName ending in
+  // `<typeName>::<methodName>`. This works whether the method is defined
+  // in-class (`class Foo { int bar() { ... } }`) or out-of-line in a separate
+  // file (`int Foo::bar() { ... }` in foo.cpp while class Foo is in foo.hpp).
+  // The previous same-file approach missed the latter — the typical C++ layout.
+  const methodCandidates = context.getNodesByName(methodName);
+  const want = `${typeName}::${methodName}`;
+  for (const m of methodCandidates) {
+    if (m.kind !== 'method') continue;
+    if (m.language !== ref.language) continue;
+    const qn = m.qualifiedName;
+    if (qn === want || qn.endsWith(`::${want}`)) {
+      return {
+        original: ref,
+        targetNodeId: m.id,
+        confidence,
+        resolvedBy,
+      };
+    }
+  }
+
+  return null;
+}
+
+// C++ keywords/control-flow tokens that can appear right before a receiver
+// (e.g. `return ptr->m()`) and must NOT be treated as a type.
+const CPP_NON_TYPE_TOKENS = new Set([
+  'return', 'if', 'else', 'for', 'while', 'do', 'switch', 'case', 'default',
+  'break', 'continue', 'goto', 'throw', 'new', 'delete', 'co_await', 'co_yield',
+  'co_return', 'static_cast', 'const_cast', 'dynamic_cast', 'reinterpret_cast',
+  'sizeof', 'alignof', 'typeid', 'and', 'or', 'not', 'xor',
+]);
+
+function normalizeCppTypeName(typeName: string): string | null {
+  const normalized = typeName
+    .replace(/\b(const|volatile|mutable|typename|class|struct)\b/g, ' ')
+    .replace(/[&*]+/g, ' ')
+    .replace(/<[^>]*>/g, ' ')
+    .replace(/\s+/g, ' ')
+    .trim();
+
+  if (!normalized) return null;
+  const parts = normalized.split(/::/).filter(Boolean);
+  const last = parts[parts.length - 1];
+  if (!last) return null;
+  if (CPP_NON_TYPE_TOKENS.has(last)) return null;
+  return last;
+}
+
+// Declarator regex: matches `Type receiver`, `Type* receiver`, `Type *receiver`,
+// `Type*receiver`, `Type<X> receiver`, etc., REQUIRING a declarator terminator
+// (`;`, `=`, `,`, `)`, `[`, `{`, `(`, or end-of-line) after the receiver. The
+// terminator rules out uses like `return receiver->m()` where the preceding
+// token is a keyword, not a type.
+function buildDeclaratorRegex(escapedReceiver: string): RegExp {
+  return new RegExp(
+    `([A-Za-z_][\\w:]*(?:\\s*<[^;=(){}]+>)?(?:\\s*[*&]+)?)\\s*\\b${escapedReceiver}\\b\\s*(?=[;=,)\\[{(]|$)`,
+  );
+}
+
+function inferCppReceiverType(
+  receiverName: string,
+  ref: UnresolvedRef,
+  context: ResolutionContext,
+): string | null {
+  const source = context.readFile(ref.filePath);
+  if (!source) return null;
+
+  const lines = source.split(/\r?\n/);
+  const callLineIndex = Math.max(0, Math.min(lines.length - 1, ref.line - 1));
+  const escapedReceiver = receiverName.replace(/[.*+?^${}()|[\]\\]/g, '\\$&');
+  const receiverPattern = new RegExp(`\\b${escapedReceiver}\\b`);
+  const declaratorRegex = buildDeclaratorRegex(escapedReceiver);
+
+  for (let i = callLineIndex; i >= 0; i--) {
+    const line = lines[i];
+    if (!line || !receiverPattern.test(line)) continue;
+
+    const declaratorMatch = line.match(declaratorRegex);
+    if (declaratorMatch) {
+      const normalized = normalizeCppTypeName(declaratorMatch[1] ?? '');
+      if (normalized) return normalized;
+    }
+  }
+
+  const headerCandidates = [
+    ref.filePath.replace(/\.(?:c|cc|cpp|cxx)$/i, '.h'),
+    ref.filePath.replace(/\.(?:c|cc|cpp|cxx)$/i, '.hpp'),
+    ref.filePath.replace(/\.(?:c|cc|cpp|cxx)$/i, '.hxx'),
+  ].filter((candidate, index, arr) => arr.indexOf(candidate) === index && candidate !== ref.filePath);
+
+  for (const headerPath of headerCandidates) {
+    if (!context.fileExists(headerPath)) continue;
+    const headerSource = context.readFile(headerPath);
+    if (!headerSource) continue;
+
+    for (const line of headerSource.split(/\r?\n/)) {
+      if (!receiverPattern.test(line)) continue;
+      const declaratorMatch = line.match(declaratorRegex);
+      if (!declaratorMatch) continue;
+      const normalized = normalizeCppTypeName(declaratorMatch[1] ?? '');
+      if (normalized) return normalized;
+    }
+  }
+
+  return null;
+}
+
 /**
 /**
  * Try to resolve by method name on a class/object
  * Try to resolve by method name on a class/object
  */
  */
@@ -164,6 +280,23 @@ export function matchMethodCall(
 
 
   const [, objectOrClass, methodName] = match;
   const [, objectOrClass, methodName] = match;
 
 
+  if (ref.language === 'cpp' && dotMatch) {
+    const inferredType = inferCppReceiverType(objectOrClass!, ref, context);
+    if (inferredType) {
+      const typedMatch = resolveMethodOnType(
+        inferredType,
+        methodName!,
+        ref,
+        context,
+        0.9,
+        'instance-method',
+      );
+      if (typedMatch) {
+        return typedMatch;
+      }
+    }
+  }
+
   // Strategy 1: Direct class name match (existing logic)
   // Strategy 1: Direct class name match (existing logic)
   const classCandidates = context.getNodesByName(objectOrClass!);
   const classCandidates = context.getNodesByName(objectOrClass!);