* fix: link object literal methods to exported bindings
* fix(ingestion): bridge object-literal value receivers in scope-resolution (PR #1718 review)
Addresses adversarial production-readiness review on PR #1718 / issue #1358:
- F1 (caller resolution) — setting `ownerId` on object-literal method symbols
alone is not sufficient; the scope-resolution receiver-bound resolver only
consults class-like or type-annotated bindings, so lowercase value receivers
(`export const fooService = {...}; fooService.getUser(...)`) never reach the
owner-indexed lookup. Adds a Case 5 value-receiver bridge in
receiver-bound-calls.ts that resolves the receiver name as a Const/Variable
binding, translates its def to the canonical graph node id, and emits the
CALLS edge via the owner-indexed method registry.
- F2 (boundary guard) — rewrites findObjectLiteralBindingInfo as an explicit
two-phase AST walk: Phase A tracks object-literal depth (returns null for
nested literals and pre-declarator function/class boundaries — IIFE
patterns); Phase B walks the declarator's ancestors and rejects function,
class, and block-statement containers (if / for / while / try / catch /
switch / etc.) before reaching program/export_statement. Prevents false
HAS_METHOD edges for locally-scoped or block-scoped object literals.
- F4 — drops the dead `ownerName` field from ObjectLiteralBindingInfo.
Constraint: TS/JS are scope-resolution migrated per RFC #909; the legacy
Call-Resolution DAG (call-processor.ts) is intentionally left untouched.
Tests:
- test/integration/ast-helpers-object-literal-binding.test.ts (13 cases) —
pins helper semantics: happy paths, function/arrow/class-ctor boundaries,
nested literals, block scope (if / for-of / try), IIFE, assignment
expressions without declarator.
- test/integration/object-literal-owner-resolution.test.ts (9 cases) —
drives the full pipeline against an on-disk fixture: sequential CALLS edge
emission (issue #1358 proof), worker-mode parity, negative local binding,
and nested-literal attribution boundary.
Full sweep: 2958/2958 integration + 6056/6056 unit tests pass.
* refactor(ingestion): address code-review findings on object-literal owner resolution
Multi-agent code review on the prior commit surfaced 7 actionable findings,
all walked through and applied here. None change observable behavior for
issue #1358's fix; all harden correctness, predicate stability, and test
signal.
- #1 (P1 / 3-reviewer corroboration): Case 5 in receiver-bound-calls.ts no
longer hand-builds graph.addRelationship + a dedup key. New
tryEmitEdgeWithExplicitTargetId in edges.ts takes a pre-resolved target
id (the canonical Method nodeId from the parser) and reuses every
invariant of tryEmitEdge: dedup-key format, collapse-flag honoring,
caller-id resolution, rel-id shape, mapReferenceKindToEdgeType for
read/write ACCESSES. This also lands the adversarial reviewer's "F2"
follow-up (hardcoded type: 'CALLS' for non-call sites) for free.
- #2 (P2 cross-reviewer): findValueBindingInScope's predicate inverted
from denylist ("not class-like and not callable") to explicit allowlist
matching reconcileOwnership's registration set:
Const | Variable | Property | Static. Extracted as isOwnableValueLabel
so future NodeLabel additions require an explicit opt-in.
- #6 (P2): walkScopeChain<T>() extracted; both findClassBindingInScope
and findValueBindingInScope now route through it. Local scope.bindings
are exhausted BEFORE lookupBindingsAt (imported/augmented) at every
scope level — preserves JavaScript lexical scoping where a local const
shadows an imported binding of the same name. Behavior was already
correct in findClassBindingInScope but was implicit; now it is the
walker's explicit, documented contract.
- #7 (P2): scope-walker duplication closed. findClassBindingInScope and
findValueBindingInScope reduce to thin wrappers over walkScopeChain
with their respective predicate. findClassBindingInScope keeps its
qualifiedNames + dotted-name fallback tail.
- #3 (P2): parse-worker.ts hoists `const ownerId = enclosingClassId ??
objectLiteralOwnerInfo?.ownerId` once before the symbol push, dropping
the duplicated coalesce + `as string` cast. Matches the cast-free
pattern at parsing-processor.ts:793. HAS_METHOD emit site reuses the
same hoisted local.
- #4 (P2): object-literal-owner-resolution.test.ts Test A's CALLS-edge
assertion no longer matches by name alone. .toEqual now pins the
canonical target id (Method:src/service.ts:getUser#1 via generateId),
confidence (0.85), and reason ('import-resolved'). A regression that
emits the edge at confidence=0, with the wrong reason, or against a
phantom Method node now fails the test.
- #5 (P2): worker-parity test adds a CI tripwire — when CI=1 and
dist/parse-worker.js is missing, throw at module top with a clear
message. Locally, skipIf(!hasDistWorker) keeps the fast-iteration
experience; CI cannot pass with U3 (worker-path ownerId) unverified.
Verification: tsc --noEmit clean. Targeted regression sweep on
ast-helpers-object-literal-binding (13), object-literal-owner-resolution
(9), has-method (60), cross-file-binding (40) — 122/122 pass. Full unit
sweep: 6056/6056. Integration suite: 1 pre-existing Windows-flake in
worker-pool.test.ts (passes 28/28 in isolation) unrelated to this diff.
* refactor(scope-resolution): align Const label emission with legacy DAG (PR #1718 review F1)
Eliminates the architectural fragility surfaced by PR #1718's adversarial review
Finding 1. Previously, normalizeNodeLabel('const') returned 'Variable' while
the legacy DAG parse phase emits 'Const' graph nodes (via @definition.const
capture for lexical_declaration). PR #1718's Case 5 value-receiver bridge
resolved correctly only because resolveDefGraphId happened to fall back to
simpleKey after the qualified-key miss — accidental correctness.
After this change, scope-resolution defs for `const x = ...` declarations
report def.type === 'Const', matching the graph node label. resolveDefGraphId's
qualified-key path now hits on the first try; the simple-key fallback is no
longer load-bearing for value receivers and can be tightened in future without
silently breaking Case 5.
Audit completeness verification:
- Grep `\bVariable\b` across src/core/ingestion/scope-resolution/ surfaced two
consumer sites that already accept both labels: reconcile-ownership.ts:101+168
(`def.type === 'Variable' || def.type === 'Const' || ...`) and
walkers.ts:207 isOwnableValueLabel (`Const | Variable | Property | Static`).
No language hook in src/core/ingestion/languages/ branches on
`def.type === 'Variable'` for what's actually a const declaration.
- Sentinel stress test (the full unit + integration suite run with the
renamed label in place): 6137/6137 unit tests pass; 2967/2967 integration
tests pass. One pre-existing Windows-only flake on worker-pool.test.ts when
run alongside the full integration suite (passes 28/28 in isolation,
unrelated to scope-extractor — same flake observed before this diff).
The variable mapping (`'variable' → 'Variable'`) is preserved for `var`
declarations, matching the legacy DAG's `@definition.variable` capture for
variable_declaration. The split now mirrors the parse-phase capture
distinction exactly.
Per plan docs/plans/2026-05-21-002-feat-pr1718-followups-class-instance-and-label-normalization-plan.md
U4 + U5. T1 (class-instance singleton resolution from issue #1358's second
sub-case) is deferred to a standalone pre-plan investigation, not shipped
here.
* test(ingestion): add regression coverage for issue #1358 singleton sub-cases
Closes the remaining sub-cases of issue #1358 surfaced by PR #1718's
adversarial review (Finding 4, NOTED): the class-instance singleton
(`export const fooService = new FooService();`) and the factory-pattern
singleton (`export const fooService = makeFooService();`).
Pre-plan investigation (per docs/plans/2026-05-21-002 § "Pre-Plan
Investigation Task (T1)") confirmed Outcome A for both patterns — they
already resolve end-to-end through scope-resolution's
`@type-binding.constructor` capture (languages/typescript/query.ts:489-511)
+ `propagateImportedReturnTypes` chain-follow
(scope-resolution/passes/imported-return-types.ts:114) + receiver-bound
Case 4 simple typeBinding lookup (receiver-bound-calls.ts:625). The
mechanism was wired correctly before this session; the regression-net
wasn't.
This test pins the behavior:
- Pattern 1: `caller → FooService.getUser` CALLS edge with
confidence 0.85 and reason 'import-resolved'
- Pattern 2: same edge shape via factory chain-follow (the
`@type-binding.alias` capture for `const u = find()` style)
Both assertions use exact `.toEqual([{...}])` shape pinning so a future
regression that targets a phantom Method node, emits at lower confidence,
or drops the cross-file import-resolved reason fails loudly.
Verification: 5/5 pass, 127/127 in targeted regression sweep including
object-literal-owner-resolution.test.ts, ast-helpers-object-literal-
binding.test.ts, has-method.test.ts, and cross-file-binding.test.ts.
No production code change. The class methods get a class-qualified node id
(`Method:src/service.ts:FooService.getUser#1`) distinguishing them from
same-name methods on other classes — distinct from the bare-name node id
shape PR #1718's object-literal case uses.
* test(resolvers): add class-instance + factory-pattern singleton coverage for TS/JS (issue #1358)
Closes the remaining sub-cases of issue #1358 surfaced by PR #1718's
adversarial review (Finding 4). PR #1718 fixed object-literal-shorthand
singletons (`export const fooService = { getUser() {} }`); this commit adds
parallel coverage for the two other singleton shapes that resolve through
the existing scope-resolution chain:
// Pattern 1 — class-instance singleton
export class FooService { getUser(id) { ... } }
export const fooService = new FooService();
// Pattern 2 — factory-pattern singleton
export class FooService { getUser(id) { ... } }
export function makeFooService() { return new FooService(); }
export const fooService = makeFooService();
Pre-plan investigation (per local plan docs/plans/2026-05-21-002 § "Pre-Plan
Investigation Task (T1)") confirmed Outcome A — both patterns already
resolve end-to-end through:
- `@type-binding.constructor` capture (languages/{typescript,javascript}/
query.ts) seeds `fooService → FooService` at parse time
- `propagateImportedReturnTypes` (scope-resolution/passes/
imported-return-types.ts:114) mirrors the typeBinding cross-file
- Receiver-bound Case 4 simple typeBinding lookup
(scope-resolution/passes/receiver-bound-calls.ts:625) MRO-walks
FooService and emits the CALLS edge to getUser
Tests added per language × pattern (5 each, 10 total):
- node existence (Class, Method, Function, Const, plus Function for the
factory pattern's `makeFooService`)
- HAS_METHOD edge from class to method (class-instance variant)
- CALLS edge from caller to `getUser` with `targetFilePath: 'src/service.{ts,js}'`,
`reason: 'import-resolved'`, `confidence: 0.85` — exact `.toEqual([{...}])`
shape pinning so a regression that emits at lower confidence or drops the
cross-file reason fails loudly
Fixtures placed under the existing `test/fixtures/lang-resolution/` convention.
Tests appended to `test/integration/resolvers/{typescript,javascript}.test.ts`,
matching the in-file pattern of every other resolver scenario.
Also supersedes and removes the standalone
`test/integration/class-instance-and-factory-singleton-resolution.test.ts`
introduced earlier in this PR session (`0df91b77`) — the proper home for
language-resolver scenarios is the per-language resolver test file alongside
similar fixtures (`javascript-self-this-resolution`, `javascript-cross-file`,
`typescript-tsconfig-paths`, etc.). One canonical location for the scenario,
not two.
Verification: 10/10 new singleton tests pass; 297/297 full TS+JS resolver
suite pass (no regression in any existing resolver test).
* test(resolvers): gate TS/JS singleton tests behind scope-resolution parity (CI run 26223603426)
The class-instance and factory-pattern singleton CALLS-edge resolution
tests added in
|
||
|---|---|---|
| .. | ||
| .claude | ||
| bench | ||
| hooks/claude | ||
| scripts | ||
| shadow-parity-dashboard | ||
| skills | ||
| src | ||
| test | ||
| vendor | ||
| .env.example | ||
| .npmignore | ||
| CHANGELOG.md | ||
| Dockerfile.test | ||
| package-lock.json | ||
| package.json | ||
| README.md | ||
| tsconfig.json | ||
| tsconfig.test.json | ||
| vitest.config.ts | ||
GitNexus
Graph-powered code intelligence for AI agents. Index any codebase into a knowledge graph, then query it via MCP or CLI.
Works with Cursor, Claude Code, Codex, Windsurf, Cline, OpenCode, and any MCP-compatible tool.
Why?
AI coding tools don't understand your codebase structure. They edit a function without knowing 47 other functions depend on it. GitNexus fixes this by precomputing every dependency, call chain, and relationship into a queryable graph.
Three commands to give your AI agent full codebase awareness.
Quick Start
# Index your repo (run from repo root)
npx gitnexus analyze
That's it. This indexes the codebase, installs agent skills, registers Claude Code hooks, and creates AGENTS.md / CLAUDE.md context files — all in one command.
To configure MCP for your editor, run npx gitnexus setup once — or set it up manually below.
gitnexus setup auto-detects your editors and writes the correct global MCP config. You only need to run it once.
Editor Support
| Editor | MCP | Skills | Hooks (auto-augment) | Support |
|---|---|---|---|---|
| Claude Code | Yes | Yes | Yes (PreToolUse) | Full |
| Cursor | Yes | Yes | Yes (postToolUse, manual install) | Full |
| Codex | Yes | Yes | — | MCP + Skills |
| Windsurf | Yes | — | — | MCP |
| OpenCode | Yes | Yes | — | MCP + Skills |
Claude Code gets the deepest integration: MCP tools + agent skills + PreToolUse hooks that automatically enrich grep/glob/bash calls with knowledge graph context.
Community Integrations
| Agent | Install | Source |
|---|---|---|
| pi | pi install npm:pi-gitnexus |
pi-gitnexus |
MCP Setup (manual)
If you prefer to configure manually instead of using gitnexus setup:
Claude Code (full support — MCP + skills + hooks)
# macOS / Linux
claude mcp add gitnexus -- npx -y gitnexus@latest mcp
# Windows
claude mcp add gitnexus -- cmd /c npx -y gitnexus@latest mcp
Codex (full support — MCP + skills)
codex mcp add gitnexus -- npx -y gitnexus@latest mcp
Cursor / Windsurf
Add to ~/.cursor/mcp.json (global — works for all projects):
{
"mcpServers": {
"gitnexus": {
"command": "npx",
"args": ["-y", "gitnexus@latest", "mcp"]
}
}
}
OpenCode
Add to ~/.config/opencode/config.json:
{
"mcp": {
"gitnexus": {
"command": "npx",
"args": ["-y", "gitnexus@latest", "mcp"]
}
}
}
How It Works
GitNexus builds a complete knowledge graph of your codebase through a multi-phase indexing pipeline:
- Structure — Walks the file tree and maps folder/file relationships
- Parsing — Extracts functions, classes, methods, and interfaces using Tree-sitter ASTs
- Resolution — Resolves imports and function calls across files with language-aware logic
- Field & Property Type Resolution — Tracks field types across classes and interfaces for deep chain resolution (e.g.,
user.address.city.getName()) - Return-Type-Aware Variable Binding — Infers variable types from function return types, enabling accurate call-result binding
- Field & Property Type Resolution — Tracks field types across classes and interfaces for deep chain resolution (e.g.,
- Clustering — Groups related symbols into functional communities
- Processes — Traces execution flows from entry points through call chains
- Search — Builds hybrid search indexes for fast retrieval
The result is a LadybugDB graph database stored locally in .gitnexus/ with full-text search and semantic embeddings.
MCP Tools
Your AI agent gets these tools automatically:
| Tool | What It Does | repo Param |
|---|---|---|
list_repos |
Discover all indexed repositories | — |
query |
Process-grouped hybrid search (BM25 + semantic + RRF) | Optional |
context |
360-degree symbol view — categorized refs, process participation | Optional |
impact |
Blast radius analysis with depth grouping and confidence | Optional |
detect_changes |
Git-diff impact — maps changed lines to affected processes | Optional |
rename |
Multi-file coordinated rename with graph + text search | Optional |
cypher |
Raw Cypher graph queries | Optional |
With one indexed repo, the
repoparam is optional. With multiple, specify which:query({query: "auth", repo: "my-app"}).
MCP Resources
| Resource | Purpose |
|---|---|
gitnexus://repos |
List all indexed repositories (read first) |
gitnexus://repo/{name}/context |
Codebase stats, staleness check, and available tools |
gitnexus://repo/{name}/clusters |
All functional clusters with cohesion scores |
gitnexus://repo/{name}/cluster/{name} |
Cluster members and details |
gitnexus://repo/{name}/processes |
All execution flows |
gitnexus://repo/{name}/process/{name} |
Full process trace with steps |
gitnexus://repo/{name}/schema |
Graph schema for Cypher queries |
MCP Prompts
| Prompt | What It Does |
|---|---|
detect_impact |
Pre-commit change analysis — scope, affected processes, risk level |
generate_map |
Architecture documentation from the knowledge graph with mermaid diagrams |
CLI Commands
gitnexus setup # Configure MCP for your editors (one-time)
gitnexus analyze [path] # Index a repository (or update stale index)
gitnexus analyze --repair-fts # Fast path: rebuild/verify only FTS indexes on existing index data
gitnexus analyze --force # Full rebuild: re-parse + graph rebuild + FTS rebuild
gitnexus analyze --embeddings # Enable embedding generation (slower, better search)
gitnexus analyze --skip-agents-md # Preserve custom AGENTS.md/CLAUDE.md gitnexus section edits
gitnexus analyze --verbose # Log skipped files when parsers are unavailable
gitnexus analyze --max-file-size 1024 # Skip files larger than N KB (default: 512, cap: 32768)
gitnexus analyze --worker-timeout 60 # Increase worker idle timeout for slow parses
gitnexus mcp # Start MCP server (stdio) — serves all indexed repos
gitnexus serve # Start local HTTP server (multi-repo) for web UI
gitnexus index # Register an existing .gitnexus/ folder into the global registry
gitnexus list # List all indexed repositories
gitnexus status # Show index status for current repo
gitnexus clean # Delete index for current repo
gitnexus clean --all --force # Delete all indexes
gitnexus wiki [path] # Generate LLM-powered docs from knowledge graph
gitnexus wiki --model <model> # Wiki with custom LLM model (default: gpt-4o-mini)
# Repository groups (multi-repo / monorepo service tracking)
gitnexus group create <name> # Create a repository group
gitnexus group add <group> <groupPath> <registryName> # Add a repo to a group. <groupPath> is a hierarchy path (e.g. hr/hiring/backend); <registryName> is the repo's name from the registry (see `gitnexus list`)
gitnexus group remove <group> <groupPath> # Remove a repo from a group by its hierarchy path
gitnexus group list [name] # List groups, or show one group's config
gitnexus group sync <name> # Extract contracts and match across repos/services
gitnexus group contracts <name> # Inspect extracted contracts and cross-links
gitnexus group query <name> <q> # Search execution flows across all repos in a group
gitnexus group status <name> # Check staleness of repos in a group
Remote Embeddings
Set these env vars to use a remote OpenAI-compatible /v1/embeddings endpoint instead of the local model:
export GITNEXUS_EMBEDDING_URL=http://your-server:8080/v1
export GITNEXUS_EMBEDDING_MODEL=BAAI/bge-large-en-v1.5
export GITNEXUS_EMBEDDING_DIMS=1024 # optional, default 384
export GITNEXUS_EMBEDDING_API_KEY=your-key # optional, default: "unused"
gitnexus analyze . --embeddings
Works with Infinity, vLLM, TEI, llama.cpp, Ollama, LM Studio, or OpenAI. When unset, local embeddings are used unchanged.
Multi-Repo Support
GitNexus supports indexing multiple repositories. Each gitnexus analyze registers the repo in a global registry (~/.gitnexus/registry.json). The MCP server serves all indexed repos automatically.
Supported Languages
TypeScript, JavaScript, Python, Java, C, C++, C#, Go, Rust, PHP, Kotlin, Swift, Ruby
Language Feature Matrix
| Language | Imports | Named Bindings | Exports | Heritage | Type Annotations | Constructor Inference | Config | Frameworks | Entry Points |
|---|---|---|---|---|---|---|---|---|---|
| TypeScript | ✓ | ✓ | ✓ | ✓ | ✓ | ✓ | ✓ | ✓ | ✓ |
| JavaScript | ✓ | ✓ | ✓ | ✓ | — | ✓ | ✓ | ✓ | ✓ |
| Python | ✓ | ✓ | ✓ | ✓ | ✓ | ✓ | ✓ | ✓ | ✓ |
| Java | ✓ | ✓ | ✓ | ✓ | ✓ | ✓ | — | ✓ | ✓ |
| Kotlin | ✓ | ✓ | ✓ | ✓ | ✓ | ✓ | — | ✓ | ✓ |
| C# | ✓ | ✓ | ✓ | ✓ | ✓ | ✓ | ✓ | ✓ | ✓ |
| Go | ✓ | — | ✓ | ✓ | ✓ | ✓ | ✓ | ✓ | ✓ |
| Rust | ✓ | ✓ | ✓ | ✓ | ✓ | ✓ | — | ✓ | ✓ |
| PHP | ✓ | ✓ | ✓ | — | ✓ | ✓ | ✓ | ✓ | ✓ |
| Ruby | ✓ | — | ✓ | ✓ | — | ✓ | — | ✓ | ✓ |
| Swift | — | — | ✓ | ✓ | ✓ | ✓ | ✓ | ✓ | ✓ |
| C | — | — | ✓ | — | ✓ | ✓ | — | ✓ | ✓ |
| C++ | — | — | ✓ | ✓ | ✓ | ✓ | — | ✓ | ✓ |
Imports — cross-file import resolution · Named Bindings — import { X as Y } / re-export tracking · Exports — public/exported symbol detection · Heritage — class inheritance, interfaces, mixins · Type Annotations — explicit type extraction for receiver resolution · Constructor Inference — infer receiver type from constructor calls (self/this resolution included for all languages) · Config — language toolchain config parsing (tsconfig, go.mod, etc.) · Frameworks — AST-based framework pattern detection · Entry Points — entry point scoring heuristics
Agent Skills
GitNexus ships with skill files that teach AI agents how to use the tools effectively:
- Exploring — Navigate unfamiliar code using the knowledge graph
- Debugging — Trace bugs through call chains
- Impact Analysis — Analyze blast radius before changes
- Refactoring — Plan safe refactors using dependency mapping
Installed automatically by both gitnexus analyze (per-repo) and gitnexus setup (global).
Requirements
- Node.js >= 18
- Git repository (uses git for commit tracking)
Release candidates
Stable releases publish to the default latest dist-tag. When a pull request
with non-documentation changes merges into main, an automated workflow also
publishes a prerelease build under the rc dist-tag, so early adopters can
try in-flight fixes without waiting for the next stable cut. (Docs-only
merges are skipped.)
# Try the latest release candidate (pre-stable — may change at any time)
npm install -g gitnexus@rc
# — or —
npx gitnexus@rc analyze
Release-candidate versions follow the standard semver prerelease format
X.Y.Z-rc.N, where X.Y.Z is the next stable target (bumped from the
current latest by patch by default; minor or major when kicking off a
bigger cycle) and N increments per published rc. Example sequence:
1.6.2-rc.1, 1.6.2-rc.2, …, then once 1.6.2 ships stable,
1.6.3-rc.1. See the Releases page
for the full list; stable latest is unaffected.
Troubleshooting
Cannot destructure property 'package' of 'node.target' as it is null
This crash was caused by a dependency URL format that is incompatible with certain npm/arborist versions (npm/cli#8126). It is fixed in gitnexus v1.6.2+. Upgrade to the latest version:
npx gitnexus@latest analyze # always uses the newest release
# — or —
npm install -g gitnexus@latest # upgrade a global install
If you still hit npm install issues after upgrading, these generic workarounds may help:
npm install -g npm@latest # update npm itself
npm cache clean --force # clear a possibly corrupt cache
Installation fails with native module errors
Some optional language grammars (Dart, Kotlin, Swift) require native compilation. If they fail, GitNexus still works — those languages will be skipped.
If npm install -g gitnexus fails on native modules:
# Ensure build tools are available (Linux/macOS)
# Ubuntu/Debian: sudo apt install python3 make g++
# macOS: xcode-select --install
# Retry installation
npm install -g gitnexus
Analyze warns about unavailable FTS or VECTOR extensions
GitNexus uses optional DuckDB extensions for BM25 and vector search. The gitnexus serve and MCP read paths only ever try to LOAD the extensions — they never block on a network install. The analyze command, by default, attempts one bounded out-of-process INSTALL if LOAD fails and proceeds even when that install times out, so the index is always written to disk; BM25/vector search degrade gracefully until the extensions become available.
Configure the behavior with two environment variables:
| Variable | Values | Default | Effect |
|---|---|---|---|
GITNEXUS_LBUG_EXTENSION_INSTALL |
auto, load-only, never |
auto |
auto runs one bounded INSTALL if LOAD fails. load-only only uses already-installed extensions (recommended for offline / firewalled environments). never skips optional extensions entirely. |
GITNEXUS_LBUG_EXTENSION_INSTALL_TIMEOUT_MS |
positive integer | 15000 |
Wall-clock budget for the out-of-process INSTALL child before it is killed. |
# Offline/airgapped: never reach the network for extensions
GITNEXUS_LBUG_EXTENSION_INSTALL=load-only npx gitnexus analyze
# Slow network: give extension downloads more time
GITNEXUS_LBUG_EXTENSION_INSTALL_TIMEOUT_MS=30000 npx gitnexus analyze
Analysis runs out of memory
For very large repositories:
# Increase Node.js heap size
NODE_OPTIONS="--max-old-space-size=16384" npx gitnexus analyze
# Exclude large directories
echo "vendor/" >> .gitnexusignore
echo "dist/" >> .gitnexusignore
Large files are being skipped
By default the walker skips files larger than 512 KB (see log line Skipped N large files (>512KB)). Raise the threshold via either the CLI flag or the environment variable — both accept a value in KB:
# CLI flag (takes precedence over the env var)
npx gitnexus analyze --max-file-size 2048 # skip only files > 2 MB
# Environment variable (persists across commands)
export GITNEXUS_MAX_FILE_SIZE=2048
npx gitnexus analyze
Values above 32768 KB (32 MB) are clamped to the tree-sitter parser ceiling; invalid values fall back to the 512 KB default with a one-time warning. When an override is active, analyze prints the effective threshold in its startup banner (e.g. GITNEXUS_MAX_FILE_SIZE: effective threshold 2048KB (default 512KB)).
Analyze reports a worker timeout
Worker parse timeouts are recoverable. GitNexus retries stalled worker jobs with backoff, splits large jobs to isolate slow files, and falls back to the sequential parser when needed. If a large repository needs more time per worker job, use either:
# CLI flag, in seconds
npx gitnexus analyze --worker-timeout 60
# Environment variable, in milliseconds
export GITNEXUS_WORKER_SUB_BATCH_TIMEOUT_MS=60000
npx gitnexus analyze
For repositories with very large source files, GITNEXUS_WORKER_SUB_BATCH_MAX_BYTES controls the worker job byte budget. The default is 8388608 bytes (8 MB).
Worker pool resilience tuning
Three env vars expose the pool's resilience layers (respawn budget, cumulative-timeout cap, circuit breaker). Defaults are tuned for typical repos; bump them when an analyze legitimately needs more retries, or lower them to fail-fast on a known-bad shape.
| Variable | Default | Effect |
|---|---|---|
GITNEXUS_WORKER_MAX_RESPAWNS_PER_SLOT |
3 |
Max replacement spawns per slot before the slot is dropped from the active rotation. |
GITNEXUS_WORKER_MAX_CUMULATIVE_TIMEOUT_MS |
5 × subBatchTimeoutMs |
Total retry wall-time budget per job before quarantining. Bounds exponentially-growing retry waits. |
GITNEXUS_WORKER_CONSECUTIVE_FAILURE_THRESHOLD |
max(3, poolSize) |
Per-slot consecutive deaths before the pool's circuit breaker trips. After tripping, dispatches require a fresh pool. |
Privacy
- All processing happens locally on your machine
- No code is sent to any server
- Index stored in
.gitnexus/inside your repo (gitignored) - Global registry at
~/.gitnexus/stores only paths and metadata
Web UI
GitNexus also has a browser-based UI at gitnexus.vercel.app — 100% client-side, your code never leaves the browser.
Local Backend Mode: Run gitnexus serve and open the web UI locally — it auto-detects the server and shows all your indexed repos, with full AI chat support. No need to re-upload or re-index. The agent's tools (Cypher queries, search, code navigation) route through the backend HTTP API automatically.
License
Free for non-commercial use. Contact for commercial licensing.