Context7
Up-to-date docs for AI agents
作者による説明(英語の原文)
Local-first, source-traceable agent memory — no LLM at ingest, fully offline
この3つを1つのスコアにまとめることはしません。意見、測定、人気はそれぞれ別のものだからです。
このサーバーのやさしい解説はまだ書いていません。以下はレジストリから読み取った事実です。
使っているAIアプリを選んで、設定をコピーしてください。
MIDAS_MCP_DB, MIDAS_MCP_EMBEDDER, MIDAS_MCP_MAX_RECORDS, MIDAS_MCP_MIN_IMPORTANCE必要なもの
どのアプリを使っていますか?
上でアプリを選んでください。選んだアプリを覚えておくので、次からはボタンに「…にインストール」と表示されます。
Claude Desktop → Settings → Developer → Edit Config を開き、claude_desktop_config.json にこれを貼り付けます
{
"mcpServers": {
"midas": {
"command": "uvx",
"args": [
"midas-memory-mcp"
],
"env": {
"MIDAS_MCP_DB": "your-value",
"MIDAS_MCP_EMBEDDER": "your-value",
"MIDAS_MCP_MAX_RECORDS": "your-value",
"MIDAS_MCP_MIN_IMPORTANCE": "your-value"
}
}
}
}ターミナルでこれを実行します
claude mcp add midas --env MIDAS_MCP_DB=your-value --env MIDAS_MCP_EMBEDDER=your-value --env MIDAS_MCP_MAX_RECORDS=your-value --env MIDAS_MCP_MIN_IMPORTANCE=your-value -- uvx midas-memory-mcp動かす前に、空欄の値を入力してください。
プロジェクトの .cursor/mcp.json、または ~/.cursor/mcp.json に貼り付けます
{
"mcpServers": {
"midas": {
"command": "uvx",
"args": [
"midas-memory-mcp"
],
"env": {
"MIDAS_MCP_DB": "your-value",
"MIDAS_MCP_EMBEDDER": "your-value",
"MIDAS_MCP_MAX_RECORDS": "your-value",
"MIDAS_MCP_MIN_IMPORTANCE": "your-value"
}
}
}
}ブラウザがアプリを開いてよいか確認し、そのあとアプリが設定を表示して確認を求めます。キーの値は空欄のままなので、自分で入力してください。
プロジェクトの .vscode/mcp.json に貼り付けます
{
"servers": {
"midas": {
"type": "stdio",
"command": "uvx",
"args": [
"midas-memory-mcp"
],
"env": {
"MIDAS_MCP_DB": "your-value",
"MIDAS_MCP_EMBEDDER": "your-value",
"MIDAS_MCP_MAX_RECORDS": "your-value",
"MIDAS_MCP_MIN_IMPORTANCE": "your-value"
}
}
}
}ブラウザがアプリを開いてよいか確認し、そのあとアプリが設定を表示して確認を求めます。キーの値は空欄のままなので、自分で入力してください。
これはパソコンで動くサーバーですが、ChatGPTがつなげるのはインターネット上のサーバーだけです。ほかのアプリを選んでください。
選んだアプリは、この端末のCookieに保存されます。アカウントは不要です。
MIDAS_MCP_DB envMIDAS_MCP_EMBEDDER envMIDAS_MCP_MAX_RECORDS envMIDAS_MCP_MIN_IMPORTANCE envこの設定は、作者のレジストリ登録情報から作成しています。READMEと違う場合は、READMEに従ってください。
パソコンで動くサーバーです。インストールすると、ツール一覧がAIアプリに表示されます。
誰でも見られる情報をチェックしており、コードは読んでいません。当てはまらない項目は数に入れていません。 · 2026年11月7日にチェック
レジストリ名は、リポジトリを所有するGitHubアカウント vornicx で確認済みです
このリポジトリはまだGitHubから読み取っていません
このリポジトリはまだGitHubから読み取っていません
これはパソコンで動くため、インターネット上のエンドポイントはありません
パソコンで動き、代わりにローカルの設定を使います
パソコンで動くサーバーです。ツール一覧を読み取れるのは、インターネット上のエンドポイントがある場合だけです
レジストリでこのカテゴリにある有効なすべてのサーバーと比較しています。スターは、公開者がリポジトリの所有者である場合だけ数えます。
当てはまる基本チェック1項目のうち1項目に合格しました。コードは読んでいません。キーやトークンを追加する前に、サーバーがどんなアクセスを求めているかを確認し、必要な権限だけを持つキーを使ってください。
レジストリには必須のキーは載っていません。ただし、最初に使うときにサインインを求めるサーバーもあります。
あなたのパソコンで動きます。必要なときにAIアプリが起動し、データは作者のサーバーを通りません(サーバー自体がオンラインサービスを呼び出す場合を除きます)。
GitHubリポジトリの最終更新は–、最新バージョン(0.0.1)がレジストリに届いたのは5 か月前です。
Claude Desktop、Claude Code、Cursor、VS CodeなどのMCP対応アプリで使えます。パソコンにPython (uv)も必要です。
同じカテゴリには:Context7, Codebase Memory, Exa
同じカテゴリで、ほかの作者が作ったサーバー。スターの多い順。
カードの見方:★ GitHubスターi3つの柱:レビュー · チェック · 利用状況i更新=最新バージョンをレジストリに公開した日i
Up-to-date docs for AI agents
Codebase knowledge graph for AI agents — 162 languages, sub-ms queries, 99% fewer tokens.
Connect AI agents to Exa for web search, content fetching, and multi-step research.
作者のリポジトリから書かれたとおりにコピーしたものです。PopNx MCPは内容を確認・推奨していません。HTML、画像、スクリプトは取り除いています。リンクはこのサイトの外へ移動します。
Midas
The local memory layer for long-horizon AI agents — remembers across sessions, keeps what's current, and won't act on stale memory. No LLM at ingest · $0 per message · fully local · every recall traces to its source.
Your AI assistant forgets everything between sessions. Midas is the memory that lives next to it, on your machine. Your coding agent remembers the decisions, conventions, and bugs from three sessions ago — without piping every message through an LLM to "extract" facts. It costs nothing per message, nothing leaves your computer, every memory traces back to the exact turn it came from, and it won't let an agent act on memory that's stale or never confirmed.
uv tool install "midas-memory[mcp,local]" # install
midas init # create the shared memory + wire up your MCP clients
uv tool upgrade midas-memory # Update Midas
Install in your agent · See the benchmarks · Complete overview · Roadmap
Most memory tools call an LLM to summarize every session — so you pay in tokens forever, add latency, ship every turn to a provider, and get back *rewritten* facts you can't audit. Midas makes the opposite bet, and that bet is what makes it cheap, private, and trustworthy:
Every Midas number below is measured and reproducible from this repo; the LLM-at-ingest column reflects the structural properties of that design class (Mem0, Zep, Hindsight) and the figures documented in BENCHMARKS.md.
| Midas | LLM-at-ingest systems (Mem0, Zep, Hindsight) | |
|---|---|---|
| LLM calls at ingest | 0 | ≥1 per session |
| Cost per message | $0 | per-token API spend, forever |
| Data egress at ingest | None | every turn leaves the box |
| Ingest latency | ~16–116 ms, local, embed-bound | ~668 ms + API round-trip |
| Recall returns | verbatim source turn, traceable | LLM-rewritten facts (source recall@k not computable) |
| Deterministic & reproducible | yes — every number, one command | no |
| Works fully offline | yes (measured end-to-end with a local Ollama reader) | no |
LongMemEval-s judged answer (gpt-4o) | 0.84 | 0.84 — Observational Memory, with LLM ingest |
| Whole-conversation aggregation / summarization | ❌ by design — top-k retrieval can't cover it (documented) | ✅ their structural edge |
The last row is deliberate: Midas trades whole-conversation abilities for $0, privacy, and auditability, and publishes the measurements that show exactly where that trade bites.
Finding a buried fact is table stakes. A long-horizon coding agent needs memory it can act on safely and resume from cleanly — which is where similarity search alone falls short:
| You ask… | Midas answers with | Why top-k recall can't |
|---|---|---|
| *"Can I run this destructive migration?"* | Guard: allowed only if you confirmed it, and only if that confirmation is still current | provenance + currency aren't a similarity match |
| *"What's the current state of project Apollo?"* | `memory_state`: the live, non-superseded decisions / constraints / facts | a broad "current state" query matches no single turn |
| *"What changed since our last session?"* | `memory_diff`: beliefs added, and beliefs revised (old → new) | "what's new" isn't a content query at all |
| *"How do I speed up the transactions list?"* | the prior fix resurfaces, so the agent doesn't re-diagnose it | — |
These properties are measured, not asserted — the [agent-memory bench suite](docs/agent-memory-benches.md) scores action-safety, decision-adherence, repeated-mistake avoidance, resume fidelity, conflict detection/precision (live contradictions between agents found without over-flagging), and adversarial memory-safety across scripted multi-session projects. The safety eval blocks 10 / 10 adversarial attacks (ASR 0.00) — including a planted confirmation next to a prohibition, a confirmation for a *different* action, a provenance-laundering supersession, and a cross-namespace approval — with no over-blocking (benign-pass 1.00). Deterministic, $0, no LLM. Reproduce every number with one command:
uv run python -m eval.benches # the whole governance suite — or `midas bench` from a checkout
Deterministic, reader-independent retrieval (recall@k — fraction of the gold supporting turns pulled into context) on the full public sets, vs a recency-window baseline:
| Benchmark (full set) | baseline | Midas |
|---|---|---|
| LongMemEval-`s` — 500 questions, 246,750 turns | 0.01 | 0.92 |
| LoCoMo — 10 conversations, n=1,540 | 0.05 | 0.73 |
| BEAM — frontier benchmark, 100K → 10M tokens | 0.00 | 0.56 → 0.32 |
And the cross-system metric, judged answer-rate (same gpt-4o judge the leaderboards use):
| Judged answer | baseline | Midas |
|---|---|---|
LongMemEval-s (gpt-4o reader, ties LLM-ingest SOTA at $0 ingest) | — | 0.84 |
| BEAM-100K (gpt-4o judge, raw-turn floor, $0 ingest) | 0.05 | 0.40 |
All of it at 0 LLM calls, $0, and 0 data egress at ingest. Full numbers, per-category breakdowns, reproduce commands, and the head-to-head vs Mem0/Zep/Mastra are in [BENCHMARKS.md](BENCHMARKS.md).
Eval-first means we publish the misses too. Hybrid retrieval, reranking, thread-diversification,
dual-granularity indexing, and *naive distillation* were all measured to not help (or to hurt) and
are documented as such. That honesty is the point — see BENCHMARKS.md and
docs/frontier-2026.md.
One command wires up everything:
midas init # creates the shared memory + configures every MCP client it finds
midas status # check what's wired · run midas init --dry-run to preview first
Both take `--json` to emit a machine-readable *client wiring receipt* — which memory each client got wired to, under which scope/policy, and which clients were skipped (config paths only, never memory contents). Paste it into a bug report, or let another agent verify the setup without scraping prose.
midas init creates one shared memory (~/.midas/memory.sqlite3) and points the MCP clients it detects — Claude Code, Codex, Grok Build, Cursor, Claude Desktop, Windsurf, VS Code, Gemini CLI, Cline, Zed — at it. So all your agents read and write the same memory, autonomously, with no per-client paths to keep in sync.
Prefer a single endpoint over per-client launches? Run one server and give your clients an MCP URL:
midas serve --http # → http://127.0.0.1:7077/mcp (one server, one memory, every client shares it)
midas serve --http --token # require Authorization: Bearer on every request
Keep Midas current with `midas update`. See your memory anytime with `midas inspect`.
Already carrying agent memory in files? `midas import --from claude-md CLAUDE.md` (or --from cursorrules, --from jsonl, --from mem0, --from zep) turns those rules and exports into first-class, recallable, governable memories — tagged with where they came from, idempotent on re-run.
Want memory even when the agent never calls capture? `midas init --claude-hook` installs a Claude Code SessionEnd hook that offers each session's user turns to memory — Midas's no-LLM policy still decides what is actually kept.
Manual setup — any client, or to customize (click to expand)
Midas is a standard MCP server: point any client at the `midas-mcp` command. It uses the shared store by default — no path needed. The universal block:
{ "mcpServers": { "midas": { "command": "midas-mcp", "env": { "MIDAS_MCP_EMBEDDER": "local" } } } }
| Client | Where the config goes |
|---|---|
| Claude Code | claude mcp add midas -s user -e MIDAS_MCP_EMBEDDER=local -- midas-mcp |
| Cursor | ~/.cursor/mcp.json — paste the JSON block |
| Claude Desktop | Settings → Developer → Edit Config (claude_desktop_config.json) — paste, restart |
| Codex CLI | codex mcp add midas -- midas-mcp |
| Grok Build | grok mcp add --scope user midas -e MIDAS_MCP_EMBEDDER=local -e MIDAS_MCP_CLIENT=grok-build -- midas-mcp |
| Windsurf | ~/.codeium/windsurf/mcp_config.json — paste the block |
| VS Code | user mcp.json (servers key, "type": "stdio") — midas init writes it |
| Gemini CLI | ~/.gemini/settings.json (mcpServers key) — midas init writes it |
| Cline | cline_mcp_settings.json in VS Code global storage — midas init writes it |
| Zed | settings.json → context_servers — midas init writes it |
| Anything else | point it at command midas-mcp |
| No Python | npx -y midas-memory-mcp — the TypeScript port (experimental; semantic embeddings via optional @huggingface/transformers) |
Override per client with env: `MIDAS_MCP_DB` (default ~/.midas/memory.sqlite3; :memory: = ephemeral) · MIDAS_MCP_MAX_RECORDS · MIDAS_MCP_MIN_IMPORTANCE · MIDAS_MCP_NAMESPACE.
⚠️ GUI apps don't share your shell `PATH`. If a client says *"command not found"*, use the absolute
path from
which midas-mcp. On Windows use forward slashes in JSON paths.
Once connected, Midas injects a short policy into the agent (*recall first, then capture durable facts/decisions/preferences/constraints/corrections*). The agent captures freely; Midas decides what's kept — it scores importance (no LLM), drops trivia, skips duplicates, revises stale beliefs, and forgets the low-value tail to stay bounded. Before any memory-justified external or destructive action, the agent calls `che
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