AI systems don't scale because they recompute instead of reuse. Every turn, the agent re-reads the same files, re-traverses the same dependencies, and re-inflates the context window with structure it already discovered. Token bills grow. Latency grows. Reasoning quality drops. The model isn't the bottleneck — the recomputation leak is.

trace-mcp builds a framework-aware graph of your codebase once, then serves it through MCP so the agent reasons from a precomputed structure instead of brute-reading the repo. Ask "what breaks if I change this model?" — instead of 80 Grep calls and 190 file reads, the agent calls get_change_impact once and gets the blast radius across PHP, Vue, migrations, and DI. One tool call replaces ~42 minutes of agent exploration. 81 framework integrations across 80 languages, 170 tools.

The same engine indexes markdown vaults. [[wikilinks]] become first-class edges, frontmatter and #tags become metadata, headings become nested sections. find_usages returns backlinks. apply_rename rewrites every link to a renamed note. One MCP for code and knowledge — no second tool to plug in.

Why this matters

AI is bottlenecked not by models, but by recomputation. Agents treat the context window like a database — they re-read the same files, re-traverse the same dependencies, and re-inflate context every turn with structure they already computed five steps ago. Token bills, latency, and hallucinations all grow with project size instead of with task complexity.

trace-mcp closes the recomputation leak. The graph is built once, kept incrementally fresh, and served to every agent that asks — so the same work isn't paid for over and over.

• Lower cost — fewer tokens per successful answer, on average and at peak
• Lower latency — fewer sequential tool calls, fewer round-trips to the model
• Higher accuracy — less noise in context means fewer hallucinations and stronger first-response correctness
• Production stability — context that scales with project size, not against it

We started with code intelligence — the hardest, noisiest context most agents handle today — and the same engine now indexes markdown knowledge vaults (Obsidian, Logseq, plain MD) as a peer domain. Wikilinks, tags, frontmatter, and embeds become graph edges and symbol metadata; search, find_usages, get_change_impact, and apply_rename work identically over both.

What trace-mcp does for you

| You ask | trace-mcp answers | How | |---|---|---| | "What breaks if I change this model?" | Blast radius across languages + risk score + linked architectural decisions | get_change_impact — reverse dependency graph + decision memory | | "Why was auth implemented this way?" | The actual decision record with reasoning and tradeoffs | query_decisions — searches the decision knowledge graph linked to code | | "I'm starting a new task" | Optimal code subgraph + relevant past decisions + dead-end warnings | plan_turn — opening-move router with decision enrichment | | "What did we discuss about GraphQL last month?" | Verbatim conversation fragments with file references | search_sessions — FTS5 search across all past session content | | "Show me the request flow from URL to rendered page" | Route → Middleware → Controller → Service → View with prop mapping | get_request_flow — framework-aware edge traversal | | "Find all untested code in this module" | Symbols classified as "unreached" or "imported but never called in tests" | get_untested_symbols — test-to-source mapping | | "What's the impact of this API change on other services?" | Cross-subproject client calls with confidence scores | get_subproject_impact — topology graph traversal | | "What notes link to this concept?" | Backlinks across the vault, with section + alias context | find_usages on a note:<basename> symbol | | "What breaks if I rename this note?" | Every [[wikilink]] and [text](path.md) that references it | get_change_impact — wikilink-aware reverse graph |

Four things no other tool does:

1. Framework-aware edges — trace-mcp understands that Inertia::render('Users/Show') connects PHP to Vue, that @Injectable() creates a DI dependency, that $user->posts() means a posts table from migrations. 58 integrations across 15 frameworks, 7 ORMs, 13 UI libraries.

2. Code-linked decision memory — when you record "chose PostgreSQL for JSONB support", it's linked to src/db/connection.ts::Pool#class. When someone runs get_change_impact on that symbol, they see the decision. MemPalace stores decisions as text; trace-mcp ties them to the dependency graph.

3. Cross-session intelligence — past sessions are mined for decisions and indexed for search. When you start a new session, get_wake_up gives you orientation in ~300 tokens; plan_turn shows relevant past decisions for your task; get_session_resume carries over structural context from previous sessions.

4. Code and knowledge in one graph — point trace-mcp at a markdown vault (Obsidian, Logseq, plain MD) and the same engine indexes it: each note becomes a note:<basename> symbol, headings become nested sections, [[wikilinks]] and ![[embeds]] become graph edges, frontmatter and #tags ride on metadata. PageRank, Signal Fusion ranking, embeddings, and rename refactoring all apply unchanged. The agent does not learn a second tool — it learns one graph that happens to contain both your codebase and your second brain.

The problem

AI coding agents recompute the same work every turn — and they're framework-blind while doing it.

They re-read UserController.php, then re-read it again next turn. They don't know that Inertia::render('Users/Show', $data) connects a Laravel controller to resources/js/Pages/Users/Show.vue. They don't know that $user->posts() means the posts table defined three migrations ago. They can't trace a request from URL to rendered pixel — so they trace it again, and again, every session.

The result: 5–15× repeated reads of hot files in a single task, context windows used as scratch databases, and agents that get more expensive the bigger the project gets — instead of more capable.

The solution

trace-mcp builds a cross-language dependency graph from your source code and exposes it through the Model Context Protocol — the plugin format Claude Code, Cursor, Windsurf and other AI coding agents speak. Any MCP-compatible agent gets framework-level understanding out of the box.

| Without trace-mcp | With trace-mcp | |---|---| | Agent reads 15 files to understand a feature | get_task_context — optimal code subgraph in one shot | | Agent doesn't know which Vue page a controller renders | routes_to → renders_component → uses_prop edges | | "What breaks if I change this model?" — agent guesses | get_change_impact traverses reverse dependencies across languages | | Schema? Agent needs a running database | Migrations parsed — schema reconstructed from code | | Prop mismatch between PHP and Vue? Discovered in production | Detected at index time — PHP data vs. defineProps |

Desktop app

trace-mcp ships with an optional Electron desktop app (packages/app) that gives you a visual surface over the same index the MCP server uses. It manages multiple projects, wires up MCP clients, and provides a GPU-accelerated graph explorer — all without opening a terminal.

Projects & clients. The menu window lists indexed projects with live status (Ready / indexing / error) and re-index / remove controls. The MCP Clients tab detects installed clients (Claude Code, Claw Code, Claude Desktop, Cursor, Windsurf, Continue, Junie, JetBrains AI, Codex, AMP, Warp, Factory Droid) and wires trace-mcp into them with one click, including enforcement level (Base / Standard / Max — CLAUDE.md only, + hooks, + tweakcc & agent-behavior rules; Max-tier features are Claude Code–specific). Warp and JetBrains AI require manual paste in the IDE because their config storage is GUI-only.

Per-project overview. Each project opens in its own tabbed window: Overview (files, symbols, edges, coverage, linked services, re-index), Ask (natural-language query over the index), and Graph. Overview also surfaces Most Symbols files, last-indexed timestamp, and the dependency coverage meter.

GPU graph explorer. The Graph tab renders the full dependency graph on the GPU via cosmos.gl — tens of thousands of nodes/edges at interactive frame rates. Filter by Files / Symbols, overlay detected communities, highlight groups, toggle labels/FPS, and step through graph depth. Good for getting a feel for coupling, hotspots, and how a codebase is actually shaped before you dive into tools.

Install: grab the latest build from Releases —

• macOS — trace-mcp-<version>-arm64-mac.zip (Apple Silicon) or trace-mcp-<version>-mac.zip (Intel). Unzip and drag trace-mcp.app into /Applications.
• Windows — run trace-mcp.Setup.<version>.exe.

The app talks to the same trace-mcp daemon (http://127.0.0.1:3741) that MCP clients use, so anything you index from the app is immediately available to Claude Code / Cursor / etc.

How trace-mcp compares

trace-mcp combines code graph navigation, cross-session memory, and real-time code understanding in a single tool. Most adjacent projects solve one of these — trace-mcp unifies all three and is the only one with framework-aware cross-language edges (81 integrations) and code-linked decision memory.

• vs. token-efficient exploration (Repomix, jCodeMunch, cymbal) — trace-mcp adds framework edges, refactoring, security, and subprojects on top of symbol lookup.
• vs. session-memory tools (MemPalace, claude-mem, ConPort) — trace-mcp links decisions to specific symbols/files, so they surface automatically in impact analysis.
• vs. RAG / doc-gen (DeepContext, smart-coding-mcp) — trace-mcp answers "show me the execution path, deps, and tests," not "find code similar to this query."
• vs. code-graph MCP servers (Serena, Roam-Code) — trace-mcp has the broadest language coverage (81) and is the only one with cross-language framework edges.

Full side-by-side tables with GitHub stars, languages, and per-capability coverage: docs/comparisons.md.

Token reduction — measured, not marketed

AI agents burn tokens recomputing what they already discovered last turn — re-reading files, re-traversing dependencies, re-inflating context. trace-mcp replaces that with precision context: only the symbols, edges, and signatures relevant to the query, served from a graph that was computed once.

What to expect — by workload:

| Workload | Typical reduction | |---|---| | Mixed real-world production (code-aware tasks across a typical session) | ~40–50% on average | | Effective capacity at the same context budget | up to ~2× | | Structured code-navigation tasks (symbol lookup, impact analysis, type hierarchy, call graph) | up to 99% less redundant processing | | Targeted research / planning queries (composite tasks that replace ~10 sequential operations) | up to ~40× on individual calls | | Non-code workloads (raw text, unstructured data) | Out of scope today |

The averages are the honest number to plan against: across a typical session you're mixing high-leverage graph queries with reads, edits, and cheaper calls, and the net usually lands at 30–60% depending on stack and task mix. The peaks (up to 99% on individual structured calls) are real and reproducible — that's where recomputation gets eliminated most cleanly — but they're per-call, not per-session.

Benchmark: trace-mcp's own codebase (694 files, 3,831 symbols → 929 files, 5,197 symbols in v1.30):

Task                    Without trace-mcp    With trace-mcp    Reduction
───────────────────────────────────────────────────────────────────────────
Symbol lookup                42,518 tokens       1,162 tokens       97.3%
File exploration             27,486 tokens         855 tokens       96.9%
Search                       22,860 tokens       8,000 tokens       65.0%
Find usages                  11,430 tokens       1,720 tokens       85.0%
Context bundle               12,847 tokens       3,485 tokens       72.9%
Batch overhead               16,831 tokens       8,299 tokens       50.7%
Impact analysis              49,141 tokens       1,856 tokens       96.2%
Call graph                  178,345 tokens       9,285 tokens       94.8%
Type hierarchy               94,762 tokens         855 tokens       99.1%
Tests for                    22,590 tokens       1,150 tokens       94.9%
Composite task              223,721 tokens      14,245 tokens       93.6%
───────────────────────────────────────────────────────────────────────────
Total                       702,532 tokens      50,812 tokens       92.8%

Across 11 structured task categories, recomputation drops by up to ~99% per call when the agent reuses the graph instead of re-reading files — peaks where the math gets dramatic. Read that as a peak structured-task result on a well-supported TS/Vue codebase, not a number you should expect on every project. In production, on mixed workloads, expect ~40–50% on average. Less noise in context also means fewer hallucinations and better first-response accuracy — a quality benefit you don't see in token counts.

Savings scale with project size. On a 650-file project, structured-task savings cluster around ~522K tokens per session. On a 5,000-file enterprise codebase, savings grow non-linearly — without trace-mcp, the agent reads more wrong files before finding the right one. With trace-mcp, graph traversal stays O(relevant edges), not O(total files).

Composite tasks deliver the biggest wins. A single get_task_context call replaces a chain of ~10 sequential operations (search → get_symbol × 5 → Read × 3 → Grep × 2). That's one round-trip instead of ten — fewer tokens, lower latency, and one clean answer instead of ten partial ones.

Run it on your codebase

npx trace-mcp benchmark .

Per-category token savings against your actual repo in ~5 minutes — no install, no signup, all local. Numbers above are from trace-mcp's own TypeScript/Vue codebase (929 files, 5,197 symbols) under structured benchmarks; production reduction on mixed workloads will be lower (typically 30–60% depending on stack), but the per-task patterns hold for any well-supported stack.

Measured using benchmark_project — runs eleven real task categories (symbol lookup, file exploration, text search, find usages, context bundle, batch overhead, impact analysis, call graph traversal, type hierarchy, tests-for, composite task context) against the indexed project. "Without trace-mcp" = estimated tokens from equivalent Read/Grep/Glob operations (full file reads, grep output). "With trace-mcp" = actual tokens returned by trace-mcp tools (targeted symbols, outlines, graph results). Token counts estimated using trace-mcp's built-in savings tracker.

Reproduce it yourself:

# Via CLI (no install)
npx trace-mcp benchmark /path/to/project

# Or via MCP tool
benchmark_project  # runs against the current project

Key capabilities

• Request flow tracing — URL → Route → Middleware → Controller → Service, across backend frameworks
• Component trees — render hierarchy with props / emits / slots (Vue, React, Blade)
• Schema from migrations — no DB connection needed
• Event chains — Event → Listener → Job fan-out (Laravel, Django, NestJS, Celery, Socket.io)
• Change impact analysis — reverse dependency traversal across languages, enriched with linked architectural decisions
• Graph-aware task context — describe a dev task → get the optimal code subgraph (execution paths, tests, types) + relevant past decisions, adapted to bugfix/feature/refactor intent
• Call graph & DI tree — bidirectional call graphs with 4-tier resolution confidence, optional LSP enrichment for compiler-grade accuracy, NestJS dependency injection
• ORM model context — relationships, schema, metadata for 7 ORMs
• Dead code & test gap detection — find untested exports/symbols (with "unreached" vs "imported_not_called" classification), dead code, per-symbol test reach in impact analysis
• Security scanning — OWASP Top-10 pattern scanning and taint analysis (source→sink data flow). Exportable MCP-server security context for skill-scan
• Semantic search, offline by default — bundled ONNX embeddings work out of the box, no API keys; switch to Ollama/OpenAI for LLM-powered summarisation
• Decision memory — mine sessions for decisions, link them to symbols/files, auto-surface in impact analysis
• Multi-service subprojects — link graphs across services via API contracts; cross-service impact + service-scoped decisions
• CI/PR change impact reports — automated blast radius, risk scoring, test-gap detection, architecture violations on every PR

Supported stack

Languages (81): PHP, TypeScript, JavaScript, Python, Go, Java, Kotlin, Ruby, Rust, C, C++, C#, Swift, Objective-C, Objective-C++, Dart, Scala, Groovy, Elixir, Erlang, Haskell, Gleam, Bash, Lua, Perl, GDScript, R, Julia, Nix, SQL, PL/SQL, HCL/Terraform, Protocol Buffers, GraphQL, Prisma, Vue SFC, HTML, CSS/SCSS/SASS/LESS, XML/XUL/XSD, YAML, JSON, TOML, Assembly, Fortran, AutoHotkey, Verse, AL, Blade, EJS, Zig, OCaml, Clojure, F#, Elm, CUDA, COBOL, Verilog/SystemVerilog, GLSL, Meson, Vim Script, Common Lisp, Emacs Lisp, Dockerfile, Makefile, CMake, INI, Svelte, Markdown, MATLAB, Lean 4, FORM, Magma, Wolfram/Mathematica, Ada, Apex, D, Nim, Pascal, PowerShell, Solidity, Tcl

Frameworks: Laravel (+ Livewire, Nova, Filament, Pennant), Django (+ DRF), FastAPI, Flask, Express, NestJS, Fastify, Hono, Next.js, Nuxt, Rails, Spring, tRPC

ORMs: Eloquent, Prisma, TypeORM, Drizzle, Sequelize, Mongoose, SQLAlchemy

Frontend: Vue, React, React Native, Blade, Inertia, shadcn/ui, Nuxt UI, MUI, Ant Design, Headless UI

Other: GraphQL, Socket.io, Celery, Zustand, Pydantic, Zod, n8n, React Query/SWR, Playwright/Cypress/Jest/Vitest/Mocha

Knowledge vaults: Obsidian, Logseq, plain markdown — [[wikilinks]], ![[embeds]], [text](path.md), frontmatter (YAML), #tags, ATX headings. Each note becomes a note:<basename> symbol with sections nested inside; wikilinks resolve to references / embeds edges between notes. Mix vault and code in one project — point root at a directory that contains both and run a single find_usages across them.

Full details: Supported frameworks · All tools

Quick start

See your waste first — 5 minutes, no setup, no signup:

npx trace-mcp benchmark .

Indexes the project, runs 11 structured task benchmarks (symbol lookup, impact analysis, call graph, type hierarchy, …), and prints per-task token cost — without trace-mcp vs. with. You'll see exactly where your agent recomputes work it could reuse.

Then wire it into your AI agent:

npm install -g trace-mcp
trace-mcp init        # one-time global setup (MCP clients, hooks, CLAUDE.md)
trace-mcp add         # register current project for indexing

• init — configures your MCP client (Claude Code, Cursor, Windsurf, Claude Desktop, …), installs the guard hook, adds routing rules to ~/.claude/CLAUDE.md.
• add — detects frameworks, creates the per-project index, registers the project. Re-run in every project you want trace-mcp to understand.

All state lives in ~/.trace-mcp/ — your project directory stays clean unless you opt into .traceignore or .trace-mcp/.config.json.

Then in your MCP client:

> get_project_map to see what frameworks are detected
> get_task_context("fix the login bug") to get full execution context for a task
> get_change_impact on app/Models/User.php to see what depends on it

Indexing a markdown vault (Obsidian / Logseq / plain MD). Point trace-mcp add at the vault root — .md/.mdx/.markdown are picked up by default. Each note becomes a note:<basename> symbol, headings nest as sections, [[wikilinks]] and ![[embeds]] resolve to graph edges, frontmatter aliases: make alternate names resolvable, and #tags aggregate so every note carrying #sgr is one find_usages away.

> find_usages on note:my-concept     // backlinks across the vault
> find_usages on tag:sgr             // every note tagged #sgr
> get_change_impact on note:legacy   // what breaks if I rename or delete it
> search "schema-guided reasoning"   // PageRank + embeddings over the vault

Prefer a GUI? The desktop app handles install, indexing, MCP-client wiring, and re-indexing without touching a terminal.

Going further: adding more projects / upgrading / manual setup · semantic search (local ONNX) · indexing & file watcher · .traceignore.

Local-first by design

trace-mcp runs entirely on your machine. Your source code is never the product.

• Indexing happens locally. The MCP server is a Node process you run yourself — stdio or http://127.0.0.1:3741.
• Index lives in ~/.trace-mcp/, never inside your project and never uploaded. Your repo directory stays clean unless you opt into .traceignore or .trace-mcp/.config.json.
• Semantic search is offline by default — bundled ONNX embeddings, no API keys, no outbound calls. Switch to Ollama (local) or OpenAI (opt-in) via config.
• No telemetry. Nothing is phoned home about your code, queries, or usage.
• What your AI client sees is governed by your AI client. trace-mcp returns graph results over MCP; how Claude Code / Cursor / Codex / Windsurf forward them to a model is up to that client's privacy model.
• To wipe everything, delete ~/.trace-mcp/. That is the entire footprint.

For security-sensitive environments, review SECURITY.md before use.

Getting the most out of trace-mcp

trace-mcp works on three levels to make AI agents use its tools instead of raw file reading:

Level 1: Automatic (works out of the box)

The MCP server provides instructions and tool descriptions with routing hints that tell AI agents when to prefer trace-mcp over native Read/Grep/Glob. This works with any MCP-compatible client — no configuration needed.

Level 2: CLAUDE.md (recommended)

trace-mcp init adds a Code Navigation Policy block to ~/.claude/CLAUDE.md (or your project's CLAUDE.md) that tells the agent which trace-mcp tool to prefer over Read/Grep/Glob for each kind of task. If you skipped init, see System prompt routing for the full block and how to tune enforcement.

Level 3: Hook enforcement (Claude Code only)

For hard enforcement, trace-mcp init installs a PreToolUse guard hook that blocks Read/Grep/Glob on source files and redirects the agent to trace-mcp tools (non-code files, Read-before-Edit, and safe Bash commands pass through). Manage manually with trace-mcp setup-hooks --global / --uninstall. Details: System prompt routing.

Level 4: Max tier — system prompt rewrites + agent behavior rules

Picking Max during trace-mcp init (the default) layers on two more amplifiers:

• tweakcc system-prompt rewrites patch Claude Code's core tool descriptions so the model internalizes "use trace-mcp search" instead of "use Grep" from the start. Claude Code only.
• agent_behavior: "strict" ships a compact set of discipline rules via MCP instructions — no flattery, disagree on wrong premises, never fabricate, goal-driven execution, 2-strike session hygiene, no drive-by refactors. Cross-client (Claude Code, Cursor, Codex, Windsurf) and auto-updates on npm upgrade trace-mcp without re-running init.

This is the "make every teammate's agent behave like a senior engineer by default" setup. Tune or disable via tools.agent_behavior in ~/.trace-mcp/.config.json — see Tool exposure & agent behavior.

Decision memory

Decisions, tradeoffs, and discoveries from AI-agent conversations usually vanish when the session ends. trace-mcp captures them and links each decision to the code it's about — so when someone later runs get_change_impact on src/db/connection.ts::Pool#class, the "we chose PostgreSQL for JSONB" decision surfaces automatically.

• Mine — mine_sessions scans Claude Code / Claw Code JSONL logs and extracts decisions via pattern matching (0 LLM calls). Types: architecture, tech choice, bug root cause, tradeoff, convention.
• Link — each decision attaches to a symbol or file; supports service-scoped decisions for subprojects.
• Surface — decisions auto-enrich get_change_impact, plan_turn, and get_session_resume. Temporal validity (valid_from/valid_until) makes "what was true on 2025-01-15?" queries possible.
• Search — query_decisions (FTS5 + filters) for decisions; search_sessions for raw conversation content across all past sessions.

trace-mcp memory mine                           # extract decisions from sessions
trace-mcp memory search "GraphQL migration"     # search past conversations
trace-mcp memory timeline --file src/auth.ts    # decision history for a file

Full tool list, CLI, temporal validity, service scoping: Decision memory.

Subprojects

A subproject is any repo in your project's ecosystem — microservice, frontend, shared lib, CLI tool. trace-mcp links dependency graphs across subprojects: if service A calls an endpoint in service B, changing the endpoint in B shows up as a breaking change for A.

Discovery is automatic. On each index, trace-mcp detects subprojects (Docker Compose, flat/grouped workspaces, monolith fallback), parses API contracts (OpenAPI, GraphQL SDL, Protobuf/gRPC), scans code for HTTP client calls (fetch, axios, Http::, requests, http.Get, gRPC stubs, GraphQL ops), and links the calls to known endpoints.

cd ~/projects/my-app && trace-mcp add
# → auto-detects user-service (openapi.yaml) and order-service
# → links order-service → user-service via /api/users/{id}

trace-mcp subproject impact --endpoint=/api/users
# → [order-service] src/services/user-client.ts:42 (axios, confidence: 85%)

External subprojects can be added manually with trace-mcp subproject add --repo=... --project=.... MCP tools: get_subproject_graph, get_subproject_impact, get_subproject_clients, subproject_add_repo, subproject_sync.

Full CLI, detection modes, MCP-tool reference, topology config: Configuration — topology & subprojects.

CI/PR change impact reports

trace-mcp ci-report --base main --head HEAD produces a markdown or JSON report per pull request: summary, blast radius (depth-2 reverse dep traversal), test coverage gaps (per-symbol hasTestReach), risk analysis (30% complexity + 25% churn + 25% coupling + 20% blast radius), architecture violations (auto-detects clean / hexagonal presets), and new dead exports.

Use --fail-on high to block merges on high-risk changes. See .github/workflows/ci.yml for a ready-to-use GitHub Action that runs build → test → impact-report and posts a sticky PR comment on every push.

Pilot program — for teams running LLM in production

If you're shipping AI features in production — internal copilots, customer-facing assistants, RAG over a code or knowledge base — and you're hitting cost, latency, or quality ceilings, we'll run a focused pilot with you.

Format: 2–4 weeks. Minimal integration. One or two real production use cases — not a demo.

What we measure (before / after):

• Tokens per successful answer
• First-response accuracy (% of queries resolved without retry)
• Retries and fallback calls
• End-to-end latency
• User success rate on a fixed evaluation set

What you get: a clear, before/after report on whether context optimization moves the metrics that matter for your stack — and a path to scale usage with confidence instead of throttling it on cost.

We're not optimizing for cost reduction in isolation. We're optimizing for systems that work at scale: teams that move from unstable usage to reliable production and then grow their LLM footprint.

Get in touch: open an issue at github.com/nikolai-vysotskyi/trace-mcp/issues tagged pilot, or reach out to @nikolai-vysotskyi.

How it works

Source files (PHP, TS, Vue, Python, Go, Java, Kotlin, Ruby, HTML, CSS, Blade)
    │
    ▼
┌──────────────────────────────────────────┐
│  Pass 1 — Per-file extraction            │
│  tree-sitter → symbols                   │
│  integration plugins → routes,           │
│    components, migrations, events,       │
│    models, schemas, variants, tests      │
└────────────────────┬─────────────────────┘
                     │
                     ▼
┌──────────────────────────────────────────┐
│  Pass 2 — Cross-file resolution          │
│  PSR-4 · ES modules · Python modules    │
│  Vue components · Inertia bridge         │
│  Blade inheritance · ORM relations       │
│  → unified directed edge graph           │
└────────────────────┬─────────────────────┘
                     │
                     ▼
┌──────────────────────────────────────────┐
│  Pass 3 — LSP enrichment (opt-in)       │
│  tsserver · pyright · gopls ·           │
│  rust-analyzer → compiler-grade         │
│  call resolution, 4-tier confidence     │
└────────────────────┬─────────────────────┘
                     │
                     ▼
┌──────────────────────────────────────────┐
│  SQLite (WAL mode) + FTS5               │
│  nodes · edges · symbols · routes       │
│  + embeddings (local ONNX by default)   │
│  + optional: LLM summaries              │
└────────────────────┬─────────────────────┘
                     │
                     ▼
┌──────────────────────────────────────────┐
│  Decision Memory (decisions.db)         │
│  decisions · session chunks · FTS5      │
│  temporal validity · code linkage       │
│  auto-mined from session logs           │
└────────────────────┬─────────────────────┘
                     │
                     ▼
         MCP server (stdio or HTTP/SSE)
         170 tools · 2 resources

Incremental by default — files are content-hashed; unchanged files are skipped on re-index.

Plugin architecture — language plugins (symbol extraction) and integration plugins (semantic edges) are loaded based on project detection, organized into categories: framework, ORM, view, API, validation, state, realtime, testing, tooling.

Details: Architecture & plugin system

Documentation

| Document | Description | |---|---| | Supported frameworks | Complete list of languages, frameworks, ORMs, UI libraries, and what each extracts | | Tools reference | All 170 MCP tools with descriptions and usage examples | | Configuration | Config options, AI setup, environment variables, security settings | | Architecture | How indexing works, plugin system, project structure, tech stack | | Decision memory | Decision knowledge graph, session mining, cross-session search, wake-up context | | Analytics | Session analytics, token savings tracking, optimization reports, benchmarks | | System prompt routing | Optional tweakcc integration for maximum tool routing enforcement | | Comparisons | Full side-by-side tables vs. other code intelligence / memory / RAG tools | | Development | Building, testing, contributing, adding new plugins |

Star History

License

MIT

Built by Nikolai Vysotskyi