Files
codegraph/__tests__/integration/full-pipeline.test.ts
T
Colby MchenryandClaude Opus 5.5 7210d2fd4c perf(resolution): remove the JS indexing regressions since 1.6.2; the summary time covers the whole run (#2334) (#2362)
Indexing pretix took 2.2x as long since #2163 (issue #2334), and the
bundled minified d3 was what #2344 left of CPython's 1.6.2 slowdown. Two
JS/TS checks that first shipped in 1.6.2 redid whole-file work for every
reference:

- matchDestructuredCallResult (#2163) ran for every bare call in a file
  holding `const {` / `let {` / `var {`: per call it re-tested that
  pattern on the source, then stripped, blanked and brace-walked every
  line above the call and matched the binding regex over it.
- jsFunctionLocalScope (#2226) re-stripped the calling function's lines
  above each reference. In a minified script every function's text runs
  to the end of its one line, so each strip was the whole file.

CPU profiles, main -> this change: matchDestructuredCallResult 82.4 s
-> 1.7 s and jsFunctionLocalScope 12.3 s -> 5.2 s on pretix; 35.4 s ->
0.37 s and 23.3 s -> 1.0 s on CPython's Lib/profiling + Doc/_static.

Now:
- A file's `const { … } = f(…)` bindings are read once per resolution:
  the blanked code, each binding's end, callee and keys, the block it
  sits in and where that block closes, and the spans the blanker read as
  regex literals. A call looks up its own name; only a call through a
  destructured name scans the code between that binding and itself for
  shadowing, and only once the callee is found to return the key (a
  `require(…)` destructuring, for one, needs no scan).
- Blanking the text above a call on its own gives the file's blanked code
  up to the call: the stripper and blanker look past a character only for
  a comment opener's second character and for a regex literal's closing
  `/`. So the prefix's bindings are the file's that end at or before the
  call (a match never reads past its `(`, and one running past the call
  holds no `{`…`(` to start another), and its brace stack follows from
  where each block closes. For a call inside a span the file reads as a
  regex literal (a division, in minified code) the prefix is the code up
  to the `/` plus the short tail blanked on its own; where a binding
  statement could run across that `/` (inside its `{ … }` or `< … >`), and
  for out-of-range positions, the old per-call scan still runs.
- jsFunctionLocalScope strips a function's lines once and cuts at the
  reference's line end; functions that start on the same line share the
  regex answer by (file, first line, reference line, name).
- The new memos, and JS_FN_LOCAL_MEMO (never cleared before), drop with
  the other per-file memos in clearNameMatcherMemos.

The summary line printed orchestrator.indexAll's durationMs, which covers
extraction only, beside node and edge totals recomputed after resolution:
the issue's 19.9 s run printed "in 1.7s". CodeGraph.indexAll and sync now
report the whole run's wall time, which `codegraph init`, `index` and
`sync`, the MCP auto-sync log and the telemetry duration bucket read.

Verification: nodes, edges and unresolved_refs dumps keyed by
file|kind|qualified_name|start_line are byte-identical to origin/main
8998697f (with #2357's new destructuring and Vue template refs) on all
24 runs: pretix, mealie and CPython's Lib/profiling + Doc/_static, 8
each; and to deac7710 (#2358, #2360, #2361) on one more round of each. A differential harness ran old and new matchDestructuredCallResult
on every call position of mealie (10,330) and the CPython assets (9,170,
742 inside misread regex literals) and on 16,000 random token-soup
sources (1.33M positions), and old and new jsFunctionLocalScope on ~500K
(function, line, name) triples: no difference; it reports one for each
deliberate mutation of the new code that is not provably equivalent.

Medians of 4 interleaved runs on a loaded 16-thread Windows box, process
CPU / wall / peak RSS: pretix 160.2 s / 75.9 s / 2.47 GB -> 88.7 s /
43.5 s / 1.93 GB; CPython assets 75.1 s / 37.6 s / 1.23 GB -> 32.1 s /
20.4 s / 0.81 GB; mealie (no bundles, the control) 39.2 s -> 38.6 s CPU.

__tests__/js-resolution-work.test.ts counts strips: a file with a
destructured binding and 40 bare calls is stripped for the check once
(41 on main), a 40-line function once (40 on main); each count fails when
only its own half of the fix is reverted. full-pipeline.test.ts requires
indexAll's and sync's durationMs to cover a linking pass delayed 250 ms
past the orchestrator's time (on main: 218 < 468).

Co-authored-by: Claude Opus 5.5 <noreply@anthropic.com>
2026-10-05 21:52:39 +00:00

322 lines
13 KiB
TypeScript

/**
* End-to-end pipeline integration tests
*
* Exercises the full happy path that unit tests cover in isolation:
* init → indexAll → resolveReferences → searchNodes/getCallers/buildContext → sync
*
* Also covers two error paths that were previously uncovered:
* - Indexing a file that contains a syntactically invalid snippet
* (parse errors must not abort the batch).
* - Sync correctly applies adds + modifies + removes in a single pass.
*
* A synthetic ~120-file project is generated per test (5k files would
* dwarf the test runner; 120 files of varied TS shape is enough to
* stress the resolver and graph layers without slowing the suite to a
* crawl).
*/
import { describe, it, expect, beforeEach, afterEach, vi } from 'vitest';
import * as fs from 'fs';
import * as path from 'path';
import * as os from 'os';
import CodeGraph from '../../src/index';
function createTempDir(prefix = 'codegraph-int-'): string {
return fs.mkdtempSync(path.join(os.tmpdir(), prefix));
}
function cleanupTempDir(dir: string): void {
if (fs.existsSync(dir)) {
fs.rmSync(dir, { recursive: true, force: true });
}
}
/**
* Generate a synthetic TypeScript project with the given module count.
* Each module exports a function that calls the previous module's
* function so that the resolver has real import edges + call edges to
* resolve. The first module is a leaf; the last is the root.
*/
function generateSyntheticProject(root: string, moduleCount: number): void {
const srcDir = path.join(root, 'src');
fs.mkdirSync(srcDir, { recursive: true });
// Leaf module — no imports.
fs.writeFileSync(
path.join(srcDir, `mod0.ts`),
`export function fn0(x: number): number { return x + 1; }\n` +
`export class Mod0 { ping(): string { return 'mod0'; } }\n`
);
for (let i = 1; i < moduleCount; i++) {
const prev = i - 1;
fs.writeFileSync(
path.join(srcDir, `mod${i}.ts`),
`import { fn${prev}, Mod${prev} } from './mod${prev}';\n` +
`export function fn${i}(x: number): number { return fn${prev}(x) + 1; }\n` +
`export class Mod${i} extends Mod${prev} {\n` +
` call${i}(): number { return fn${i}(${i}); }\n` +
`}\n`
);
}
// Entry point file.
fs.writeFileSync(
path.join(srcDir, 'index.ts'),
`import { fn${moduleCount - 1}, Mod${moduleCount - 1} } from './mod${moduleCount - 1}';\n` +
`export function entry(): number {\n` +
` const m = new Mod${moduleCount - 1}();\n` +
` return fn${moduleCount - 1}(0) + m.call${moduleCount - 1}();\n` +
`}\n`
);
}
describe('Integration: full pipeline', () => {
let tempDir: string;
beforeEach(() => {
tempDir = createTempDir();
});
afterEach(() => {
cleanupTempDir(tempDir);
});
it('runs init → index → resolve → search → callers → context → sync', async () => {
const MODULE_COUNT = 120;
generateSyntheticProject(tempDir, MODULE_COUNT);
// ── init ──────────────────────────────────────────────────────
const cg = await CodeGraph.init(tempDir, {
config: { include: ['**/*.ts'], exclude: [] },
});
try {
// ── indexAll ────────────────────────────────────────────────
const indexResult = await cg.indexAll();
// Synthetic project: MODULE_COUNT mod files + 1 index file.
expect(indexResult.filesIndexed).toBeGreaterThanOrEqual(MODULE_COUNT);
const statsAfterIndex = cg.getStats();
expect(statsAfterIndex.fileCount).toBeGreaterThanOrEqual(MODULE_COUNT);
expect(statsAfterIndex.nodeCount).toBeGreaterThan(MODULE_COUNT * 2);
// ── resolveReferences ────────────────────────────────────────
// Many call-site edges are wired up during extraction itself, so
// the unresolved-reference queue may already be drained by the
// time we get here. We assert that resolve completes cleanly and
// returns a well-formed result; downstream callers/callees
// assertions verify the graph is actually populated.
cg.reinitializeResolver();
const resolution = cg.resolveReferences();
expect(resolution).toBeDefined();
expect(resolution.stats).toBeDefined();
expect(typeof resolution.stats.total).toBe('number');
expect(typeof resolution.stats.resolved).toBe('number');
// ── searchNodes ──────────────────────────────────────────────
const entryResults = cg.searchNodes('entry', { limit: 10 });
expect(entryResults.length).toBeGreaterThan(0);
const entryNode = entryResults.find((r) => r.node.name === 'entry');
expect(entryNode).toBeDefined();
const midResults = cg.searchNodes(`fn50`, { limit: 10 });
expect(midResults.find((r) => r.node.name === 'fn50')).toBeDefined();
// ── getCallers / getCallees ──────────────────────────────────
const fn0Results = cg.searchNodes('fn0', { limit: 5 });
const fn0Node = fn0Results.find((r) => r.node.name === 'fn0');
expect(fn0Node).toBeDefined();
const callers = cg.getCallers(fn0Node!.node.id);
// fn0 is called by fn1 (at least). After resolution this should
// be wired up.
expect(Array.isArray(callers)).toBe(true);
// ── buildContext ─────────────────────────────────────────────
const context = await cg.buildContext('entry function chain', {
maxNodes: 10,
format: 'markdown',
});
expect(typeof context).toBe('string');
expect((context as string).length).toBeGreaterThan(0);
// ── sync (add + modify + remove in one pass) ─────────────────
// Add: a new file referencing entry().
fs.writeFileSync(
path.join(tempDir, 'src', 'consumer.ts'),
`import { entry } from './index';\nexport const result = entry();\n`
);
// Modify: change mod0.
fs.writeFileSync(
path.join(tempDir, 'src', 'mod0.ts'),
`export function fn0(x: number): number { return x + 2; }\n` +
`export function newHelper(): string { return 'new'; }\n` +
`export class Mod0 { ping(): string { return 'mod0v2'; } }\n`
);
// Remove: drop mod1 — note this will leave dangling imports in
// mod2, which the resolver should tolerate.
fs.unlinkSync(path.join(tempDir, 'src', 'mod1.ts'));
const syncResult = await cg.sync();
expect(syncResult.filesAdded).toBeGreaterThanOrEqual(1);
expect(syncResult.filesModified).toBeGreaterThanOrEqual(1);
expect(syncResult.filesRemoved).toBeGreaterThanOrEqual(1);
// New symbol must now be findable; removed file's symbols gone.
expect(cg.searchNodes('newHelper').length).toBeGreaterThan(0);
// Removed file should no longer appear in the indexed file list.
// (FTS prefix matching makes name-based assertions unreliable here —
// Mod10/Mod11/… all start with "Mod1" — so we check the file set
// instead.)
const filesAfterSync = cg.getNodesInFile('src/mod1.ts');
expect(filesAfterSync).toHaveLength(0);
} finally {
cg.destroy();
}
}, 60_000);
it('keeps indexing files when one file has a parse error', async () => {
const srcDir = path.join(tempDir, 'src');
fs.mkdirSync(srcDir, { recursive: true });
// Valid files
fs.writeFileSync(
path.join(srcDir, 'good1.ts'),
`export function good1(): number { return 1; }\n`
);
fs.writeFileSync(
path.join(srcDir, 'good2.ts'),
`export function good2(): number { return 2; }\n`
);
// Intentionally broken file — unclosed brace, stray tokens.
fs.writeFileSync(
path.join(srcDir, 'broken.ts'),
`export function broken(\n this is { not valid typescript at all\n`
);
const cg = await CodeGraph.init(tempDir, {
config: { include: ['**/*.ts'], exclude: [] },
});
try {
const result = await cg.indexAll();
// The two good files must still be indexed regardless of the
// broken one. Tree-sitter is error-tolerant so it may still
// extract a partial AST from broken.ts — but the test only
// requires that the batch completes and finds the good symbols.
expect(result.filesIndexed).toBeGreaterThanOrEqual(2);
const good1 = cg.searchNodes('good1');
const good2 = cg.searchNodes('good2');
expect(good1.find((r) => r.node.name === 'good1')).toBeDefined();
expect(good2.find((r) => r.node.name === 'good2')).toBeDefined();
} finally {
cg.destroy();
}
}, 30_000);
it('handles repeated sync calls when nothing has changed', async () => {
generateSyntheticProject(tempDir, 10);
const cg = await CodeGraph.init(tempDir, {
config: { include: ['**/*.ts'], exclude: [] },
});
try {
await cg.indexAll();
const statsBefore = cg.getStats();
const first = await cg.sync();
const second = await cg.sync();
// Subsequent sync with no changes should be a no-op.
expect(first.filesAdded + first.filesModified + first.filesRemoved).toBe(0);
expect(second.filesAdded + second.filesModified + second.filesRemoved).toBe(0);
const statsAfter = cg.getStats();
expect(statsAfter.fileCount).toBe(statsBefore.fileCount);
expect(statsAfter.nodeCount).toBe(statsBefore.nodeCount);
} finally {
cg.destroy();
}
}, 30_000);
it('reports edgesCreated including resolution + synthesizer phases', async () => {
// The synthetic project has cross-file imports, calls, and extends —
// all wired up in the resolution phase, AFTER the orchestrator's
// per-file extraction counter is done. The CLI summary used to read
// only the extraction-phase counter and undercount the graph; this
// test pins the counter to the true DB totals across all phases.
generateSyntheticProject(tempDir, 30);
const cg = await CodeGraph.init(tempDir, {
config: { include: ['**/*.ts'], exclude: [] },
});
try {
const result = await cg.indexAll();
const stats = cg.getStats();
expect(result.success).toBe(true);
expect(result.nodesCreated).toBe(stats.nodeCount);
expect(result.edgesCreated).toBe(stats.edgeCount);
// Sanity: cross-file resolution had something to do — calls/extends
// edges should exist beyond the bare extraction-time contains edges.
const containsOnly = stats.edgesByKind.contains ?? 0;
expect(stats.edgeCount).toBeGreaterThan(containsOnly);
} finally {
cg.destroy();
}
}, 30_000);
it('reports durationMs for the whole run, resolution and linking included (#2334)', async () => {
// The CLI summary printed the orchestrator's time — extraction alone —
// beside the totals of the whole run, so slow resolution never showed.
generateSyntheticProject(tempDir, 10);
const cg = await CodeGraph.init(tempDir, {
config: { include: ['**/*.ts'], exclude: [] },
});
const internals = cg as unknown as {
orchestrator: Record<'indexAll' | 'sync', (...args: unknown[]) => Promise<{ durationMs: number }>>;
resolver: { resolveDeferredThisMemberRefs: () => Promise<number> };
};
// What the orchestrator measured; and a linking pass that takes a known while.
let extraction = -1;
const measure = (method: 'indexAll' | 'sync') => {
const original = internals.orchestrator[method].bind(internals.orchestrator);
vi.spyOn(internals.orchestrator, method).mockImplementation(async (...args: unknown[]) => {
const result = await original(...args);
extraction = result.durationMs;
return result;
});
};
const LINKING_MS = 250;
const linking = internals.resolver.resolveDeferredThisMemberRefs.bind(internals.resolver);
vi.spyOn(internals.resolver, 'resolveDeferredThisMemberRefs').mockImplementation(async () => {
const until = Date.now() + LINKING_MS;
while (Date.now() < until) await new Promise((r) => setTimeout(r, 10));
return linking();
});
try {
measure('indexAll');
const indexed = await cg.indexAll();
expect(extraction).toBeGreaterThanOrEqual(0);
expect(indexed.durationMs).toBeGreaterThanOrEqual(extraction + LINKING_MS);
// Likewise a sync that re-resolves a changed file.
fs.appendFileSync(path.join(tempDir, 'src', 'index.ts'), 'export function again(): number { return entry(); }\n');
extraction = -1;
measure('sync');
const synced = await cg.sync();
expect(synced.filesModified).toBe(1);
expect(extraction).toBeGreaterThanOrEqual(0);
expect(synced.durationMs).toBeGreaterThanOrEqual(extraction + LINKING_MS);
} finally {
vi.restoreAllMocks();
cg.destroy();
}
}, 30_000);
});