Context7
Up-to-date docs for AI agents
제작자가 쓴 설명(영어 원문)
Airtight math for AI agents: 3.68M-doc theorem search + numeric/Lean verification. No LLM, no key.
이 세 가지는 절대 하나의 점수로 합치지 않아요. 의견, 측정, 인기는 서로 다른 것이니까요.
이 서버는 아직 쉬운 말로 된 요약을 쓰지 못했어요. 아래는 레지스트리에서 읽어 온 사실이에요.
쓰고 있는 AI 앱을 고른 다음 설정을 복사하세요.
MATHLAS_SEED, MATHLAS_INDEX필요한 것
어떤 앱을 쓰세요?
위에서 앱을 고르세요. 기억해 두었다가 다음부터는 버튼에 “…에 설치”라고 표시해요.
Claude Desktop → Settings → Developer → Edit Config를 열고 claude_desktop_config.json에 이 내용을 붙여 넣으세요
{
"mcpServers": {
"mathlas": {
"command": "uvx",
"args": [
"mathlas-mcp"
],
"env": {
"MATHLAS_SEED": "your-value",
"MATHLAS_INDEX": "your-value"
}
}
}
}터미널에서 이 명령어를 실행하세요
claude mcp add mathlas --env MATHLAS_SEED=your-value --env MATHLAS_INDEX=your-value -- uvx mathlas-mcp실행하기 전에 빈 값을 채워 주세요.
프로젝트의 .cursor/mcp.json 또는 ~/.cursor/mcp.json에 붙여 넣으세요
{
"mcpServers": {
"mathlas": {
"command": "uvx",
"args": [
"mathlas-mcp"
],
"env": {
"MATHLAS_SEED": "your-value",
"MATHLAS_INDEX": "your-value"
}
}
}
}브라우저가 앱을 열지 물어본 다음, 앱이 설정을 보여 주고 확인을 요청해요. 키 값은 비워 두니 직접 입력하세요.
프로젝트의 .vscode/mcp.json에 붙여 넣으세요
{
"servers": {
"mathlas": {
"type": "stdio",
"command": "uvx",
"args": [
"mathlas-mcp"
],
"env": {
"MATHLAS_SEED": "your-value",
"MATHLAS_INDEX": "your-value"
}
}
}
}브라우저가 앱을 열지 물어본 다음, 앱이 설정을 보여 주고 확인을 요청해요. 키 값은 비워 두니 직접 입력하세요.
이 서버는 내 컴퓨터에서 실행되는데, ChatGPT는 인터넷에 있는 서버에만 연결할 수 있어요. 다른 앱을 고르세요.
선택한 앱은 이 기기의 쿠키에만 저장돼요. 계정은 필요 없어요.
MATHLAS_SEED envMATHLAS_INDEX env이 설정은 제작자의 레지스트리 정보로 만들었어요. README와 다르면 README를 따르세요.
내 컴퓨터에서 실행돼요. 설치하면 AI 앱에 도구 목록이 나타나요.
누구나 볼 수 있는 정보를 점검했고, 코드는 읽지 않았어요. 해당하지 않는 항목은 개수에서 뺐어요. · 2026년 11월 6일 점검
레지스트리 이름이 GitHub 계정 Archerkattri 기준으로 확인되었고, 이 계정이 저장소를 소유하고 있어요
아직 GitHub에서 이 저장소를 읽어 오지 않았어요
아직 GitHub에서 이 저장소를 읽어 오지 않았어요
내 컴퓨터에서 실행되는 서버라 인터넷 엔드포인트가 없어요
내 컴퓨터에서 실행되며, 대신 로컬 설정을 사용해요
내 컴퓨터에서 실행돼요. 도구 목록은 인터넷 엔드포인트가 있는 서버에서만 읽을 수 있어요
레지스트리에서 이 카테고리의 활성 서버 전체와 비교했어요. 스타는 게시자가 저장소를 소유한 경우에만 세요.
해당하는 기본 점검 1개 중 1개를 통과했어요. 코드는 읽지 않았어요. 키나 토큰을 넣기 전에 서버가 어떤 권한을 요구하는지 확인하고, 꼭 필요한 권한만 있는 키를 쓰세요.
레지스트리에 필수 키가 나와 있지 않아요. 다만 처음 쓸 때 로그인을 요구하는 서버도 있어요.
내 컴퓨터에서 실행돼요. AI 앱이 필요할 때 실행하고, 데이터는 제작자의 서버를 거치지 않아요(서버 자체가 온라인 서비스를 호출하는 경우는 제외).
GitHub 저장소는 마지막으로 – 변경됐고, 최신 버전(1.5.0)은 4개월 전 레지스트리에 올라왔어요.
Claude Desktop, Claude Code, Cursor, VS Code처럼 MCP를 지원하는 앱에서 쓸 수 있어요. 내 컴퓨터에 Python (uv)도 있어야 해요.
같은 카테고리에는: Context7, Codebase Memory, Exa
같은 카테고리에서 다른 제작자가 만든 서버예요. 스타 순으로 정렬했어요.
카드 보는 법:★ GitHub 스타i세 기둥: 리뷰 · 점검 · 사용 정도i업데이트 = 최신 버전을 레지스트리에 공개한 날i
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.
제작자의 저장소에서 쓰인 그대로 가져왔어요. PopNx MCP가 검토하거나 보증한 내용이 아니에요. HTML, 이미지, 스크립트는 제거했어요. 링크를 누르면 이 사이트를 벗어나요.
Available on mcp.so · Glama · listed in awesome-mcp-servers and best-of-lean4.
**An airtight-math tool an AI *uses* — no LLM, no API key, free.** Plug it into
Claude Code, Cursor, or any MCP client. The AI is the brain; mathlas is the
hands — it gives the AI the capabilities it lacks and returns *data*
(candidates, verdicts, checklists, scaffolds) for the AI to reason over.
Apache-2.0. The code is free for any use; published corpus/index artifacts carry their own per-source terms (CC-BY/CC0).
Every verdict from the real Lean 4.31.0 kernel / PSLQ + an independent re-eval — no LLM inside. Real in-process tool outputs, captured by assets/gen/capture_outputs.py .
search_existing_math finds the real theorem from a 3.68M-doc index; verify_numeric and verify_formal check claims with zero hallucination risk.identify_constant runs PSLQ + closed-form matching (50-digit precision); identify_sequence does an exact OEIS term-match.search_formal_math proxies the public Loogle + LeanSearch services and returns declaration names + types, provenance-labeled.One line, nothing to install first (needs uv):
claude mcp add mathlas -- uvx mathlas-mcp
uvx mathlas-mcp fetches + runs the server in an isolated env on first use. Prefer pip?
pip install mathlas-mcp # core: numeric + retrieval + verify + scaffolds
pip install 'mathlas-mcp[mcp]' # + official MCP SDK pip install 'mathlas-mcp[retrieve]' # + pyarrow, to read the real index pip install 'mathlas-mcp[embed]' # + sentence-transformers/torch, for the Qwen3 embedder
claude mcp add mathlas -- python -m mathlas.server
mathlas now appears as twelve tools the agent can call. The server prefers the official mcp SDK and falls back to a dependency-free stdio JSON-RPC server if mcp isn't installed — it always runs. (Cursor / any MCP client: point it at the same uvx mathlas-mcp or python -m mathlas.server stdio command.)
Optional local data (degrades honestly):
identify_sequencewants a local OEIS copy;verify_formalwants a Lean toolchain. Without them the tools return a clear "data/toolchain not available" — never a fake answer. Seedocs/methods.mdfor the one-line setup of each.
User: "Does x = cos(x) have a unique solution I can reach by iterating?"
AI → search_existing_math("contraction mapping unique fixed point complete metric space") ← [{name:"Banach Fixed-Point Theorem", statement:"Let (X,d) be a complete metric space and T a contraction. Then T has a unique fixed point ...", ...}, ...] AI → applicability_checklist(banach.statement) ← preconditions: ["(X,d) is a complete metric space", "T: X→X is a contraction"] conclusion: "T has a unique fixed point" AI (reasons): [0,1] is complete; cos is a contraction there (|cos'|=|sin|≤sin 1<1). Every precondition holds ⇒ Banach applies ⇒ unique fixed point, reachable by iteration. AI → verify_numeric("0.7390851332151607", " ")
mathlas supplied the search, the checklist, and the airtight numeric check. The AI did the judging. No LLM was called inside mathlas.
The discipline is airtight-or-nothing: a result is an independently-checkable fact or an honest "nothing." The false-positive rate is 0 across every tier (full tables + commands in RESULTS.md):
| Tier | Recovery@known | False-positive | Why it's airtight | Benchmark |
|---|---|---|---|---|
Numeric (identify_constant) | 8/8 | 0/3 | independent high-precision re-eval (50–51 digits) | benchmarks/numeric_bench.py |
Sequence (identify_sequence) | 8/8 (7 top-1) | 0/3 | exact term-match vs local OEIS (~400k seqs) | benchmarks/tier_bench.py |
Formal (verify_formal) | 7/7 verdicts | — | real Lean 4.31.0 kernel typecheck | benchmarks/tier_bench.py |
Ramanujan (conjecture_relation) | 6/6 | 0/2 | PSLQ + CF, every hit re-verified ≥25 digits | benchmarks/tier_bench.py |
| Applicability moat | 15/15 decomp + 6/6 catch | — | atomic preconditions, misapplication traps | benchmarks/moat_bench.py |
| FunSearch + web-aug | 14/14 | — | sandbox containment (network / timeout / memory) | benchmarks/tools_bench.py |
The table above, at a glance — 0 false positives across every tier (0/8 structureless inputs produced a false hit), 100% recovery on knowns. Numbers: RESULTS.md §1–2b.
Agent-in-the-loop, honestly reported (2026-06-10, Claude Fable 5): the same headless agent given 18 math tasks WITH the live mathlas MCP server as its only tool vs WITHOUT any tools scores 18/18 vs 15/18. The original 10-task set is saturated (10/10 both ways: a frontier model passes it from parametric knowledge alone, and we say so plainly), so an 8-task hard set was added where verification, not recall, is the bottleneck: that set goes 8/8 WITH vs 5/8 WITHOUT. The bare model times out on 50-digit integer-relation detection (PSLQ) and cannot name obscure OEIS sequences that shadow Catalan/Fibonacci prefixes and only diverge at depth. The bare passes it does earn are remarkable and we report them: it evaluated a 6-term constant relation to 45 digits by hand (residual 1.475e-27, correct), simulated IEEE-754 rounding bit-for-bit in its head (with one wrong exponent in prose), and proved a Machin-like formula exactly via Gaussian integers, all in-context at 3-9x the latency of a tool call. Every ground truth is a deterministic computation recorded in the bench; full table and provenance: RESULTS.md §2c. Run: benchmarks/agent_bench.py.
The 3.68M-doc index. search_existing_math is served from a 3,683,428-document dense index (Qwen3-Embedding-8B, 4096-d): the 1.34M permissive CC-BY/CC0 TheoremSearch subset + 2.34M slogan-embedded arXiv-math documents from Dolma, dense + Okapi-BM25 + RRF. Honest headline recall at full 3.68M scale: R@1 0.614 / R@10 0.832 querying by a document's raw *body* against its slogan-embedded entry — the hard cross-representation self-recall regime. (At the earlier 1.635M build, the easier same-representation slogan→slogan self-recall was R@1 0.977 / R@10 0.998 on its 81,833-doc held-out split.)
Open corpus on Hugging Face. The text + metadata side of that index is published at kattri15/mathlas-corpus: 3,683,428 theorem-level documents plus the small findings config, split into theoremsearch, dolma, and findings configs. It includes slogans, LaTeX statements, source URLs, titles, labels, categories, citation counts where known, and provenance keys. It does not include the 30 GB embedding matrices or local benchmark slices. Licenses are per config: TheoremSearch subset CC BY-SA 4.0, Dolma statements ODC-BY 1.0 with our slogans CC BY 4.0, and findings CC BY 4.0. Full audit: docs/HF_DATASET_LICENSING.md.
from datasets import load_dataset
ts = load_dataset("kattri15/mathlas-corpus", "theoremsearch", split="train") dolma = load_dataset("kattri15/mathlas-corpus", "dolma", split="train")
Quantized laptop tier (opt-in). The fp16 matrix is 30 GB on disk (~60 GB fp32 resident) — fine on the build box, not on a laptop. MATHLAS_QUANTIZED=binary (or quantized="binary" on HybridRetriever.from_index) serves the SAME index from memmapped quantized sidecars instead: sign-bit Hamming over 1.9 GB shortlists 1000 candidates, exact rescore picks the top-k — measured on the full 3.68M index with the same n=3000 protocol as the headline, it is recall-lossless (R@1 0.6143 vs 0.6140 fp16, R@10 equal at 0.8323; int8 mode: R@1 0.6147, 15 GB) at 2.4 s/query on 4 CPU threads. Honest caveat: this shrinks the *document* side only — queries must still be embedded by the same Qwen3-Embedding-8B (a small 0.6B encoder lives in a different vector space). The true end-to-end small-encoder tier is the 0.6B tier below. Numbers, build command, and the caveat in full: docs/QUANTIZED_TIER.md.
0.6B end-to-end laptop tier (opt-in). The SAME 3,683,428-doc corpus re-embedded once with Qwen3-Embedding-0.6B (1024-d, row-aligned with the served meta), so the query encoder itself runs on a laptop CPU: MATHLAS_ENCODER=0.6b (composes with MATHLAS_QUANTIZED=binary). Measured with the identical n=3000 cross-representation protocol, queries re-encoded by the 0.6B model: R@1 0.545 / R@10 0.745 (binary + int8 rescore; the 0.6B fp16 exact scan is 0.544 / 0.745, so quantization is again lossless within the tier). The honest price vs the 8B tier (0.614 / 0.832) is about 7-9pp recall; the dual-channel 8B configuration (0.965 / 0.999) stays the big-box quality ceiling. The laptop headline: end-to-end 0.67 s/query on 4 CPU threads (0.88 s on 2), query encoding included, over all 3.68M documents. Dense-channel footprint: binary sidecar 0.47 GB + 0.6B encoder ~1.2 GB (~1.7 GB; int8 rescore source 3.77 GB recommended; full fp16 sibling index 7.54 GB). On the TheoremSearch-110 corpus-only probe the tier scores Hit@20 8.2% / 10
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