Robin: AI-Powered Dark Web OSINT
Dark web OSINT over Tor: search onion engines, scrape pages, report with your own model.
Security suite for AI agents: flag drains, permit-phishing & risky actions before signing.
选择你使用的 AI 应用,然后复制设置。
通过 3/3 项检查 · 在你的电脑上运行
第一步:你用哪个 AI?
选择你用的应用,步骤会显示在下方。
可连接 Claude,但需要先准备
需要先在电脑上安装 Python (uv)(只需一次) · 仅限电脑上的 Claude 应用(Windows 或 Mac),网页和手机不可用
SettingsDeveloperEdit Config
{
"mcpServers": {
"chain-signer": {
"command": "uvx",
"args": [
"chain-signer"
]
}
}
}用 Chain Signer 告诉我你能帮我做什么,然后做一件给我看✓ 如果 Claude 说正在使用 Chain Signer,或回答中出现 Chain Signer 的工具名称,就表示连接成功
菜单名称已于 2026年11月11日 对照 Anthropic 帮助页面核实 · 你的界面可能因版本略有不同
ChatGPT 暂时无法连接 Chain Signer
Chain Signer 需要安装在你的电脑上,而 ChatGPT 只能连接在网上运行的服务器
A · 使用能连接 Chain Signer 的应用
B · 网络安全 类中能连接 ChatGPT 的其他服务器
从同类中使用较多的里挑选,仅限用地址即可连接、无需密钥的
可连接 Claude Code,但需要先准备
需要先在电脑上安装 Python (uv)(只需一次)
Mac:按 Command+空格,输入 Terminal · Windows:打开 PowerShell
claude mcp add --scope user chain-signer -- uvx chain-signer应能看到 Chain Signer 在列表中并显示已连接
用 Chain Signer 告诉我你能帮我做什么,然后做一件给我看✓ 如果 Claude Code 说正在使用 Chain Signer,或回答中出现 Chain Signer 的工具名称,就表示连接成功
菜单名称已于 2026年11月11日 对照 Anthropic 帮助页面核实 · 你的界面可能因版本略有不同
可连接 Cursor,但需要先准备
需要先在电脑上安装 Python (uv)(只需一次)
用 Chain Signer 告诉我你能帮我做什么,然后做一件给我看✓ 如果 Cursor 说正在使用 Chain Signer,或回答中出现 Chain Signer 的工具名称,就表示连接成功
菜单名称已于 2026年11月11日 对照 Cursor 帮助页面核实 · 你的界面可能因版本略有不同
可连接 VS Code,但需要先准备
需要先在电脑上安装 Python (uv)(只需一次)
用 Chain Signer 告诉我你能帮我做什么,然后做一件给我看✓ 如果 VS Code 说正在使用 Chain Signer,或回答中出现 Chain Signer 的工具名称,就表示连接成功
菜单名称已于 2026年11月11日 对照 VS Code 帮助页面核实 · 你的界面可能因版本略有不同
Claude Code
claude mcp add --scope user chain-signer -- uvx chain-signerClaude Desktop (claude_desktop_config.json)
{
"mcpServers": {
"chain-signer": {
"command": "uvx",
"args": [
"chain-signer"
]
}
}
}Cursor (~/.cursor/mcp.json)
{
"mcpServers": {
"chain-signer": {
"command": "uvx",
"args": [
"chain-signer"
]
}
}
}VS Code (mcp.json)
{
"servers": {
"chain-signer": {
"type": "stdio",
"command": "uvx",
"args": [
"chain-signer"
]
}
}
}这些设置是根据作者在注册中心的条目生成的。如果 README 的写法不同,请以 README 为准。
依据这个服务器的连接方式和各应用自己的文档,检查于 2026年11月10日。
在你的电脑上运行,适用于
ClaudeGooseLM StudioMsty StudioCherry StudioCursorVS Code + GitHub CopilotVisual StudioWindsurf (Devin Desktop)ZedKiroClineContinueJetBrains AI AssistantClaude CodeCodex CLIGemini CLIOpenCodenodecodeWarpLibreChatRaycast
它在你的电脑上运行;安装后,工具列表会显示在你的 AI 应用中。
我们检查的是任何人都能看到的信息;我们没有阅读代码。不适用的检查项不计入总数。 · 检查于 2026年11月12日
注册名称已通过 GitHub 账户 Kevthetech143 验证,该账户拥有此仓库
代码最后更新于4个月前
使用 MIT
它在你的电脑上运行,没有互联网端点
在你的电脑上运行,改用本地设置
它在你的电脑上运行;我们只能读取互联网端点的工具列表
提问、分享技巧或报告无法使用。按“有帮助”数量排序。
还没有评价
与注册中心里这个分类中所有活跃的服务器比较。只有当发布者拥有该仓库时,星标数才计入。
它在 3 项适用的基础检查中通过了 3 项。我们没有阅读代码。在添加密钥或令牌之前,请先看看这个服务器要求哪些权限,并使用只具备所需权限的密钥。
注册中心没有列出必需的密钥,不过有些服务器会在首次使用时要求你登录。
它在你的电脑上运行。你的 AI 应用会在需要时启动它,数据不会经过作者的服务器(除非它自己调用在线服务)。
GitHub 仓库最后更新于4个月前,最新版本(0.5.31)于5个月前进入注册中心。
支持 MCP 的应用,例如 Claude Desktop、Claude Code、Cursor 和 VS Code。你的电脑上还需要有 Python (uv)。
同一分类中有:Robin: AI-Powered Dark Web OSINT, HOL Guard, SonarQube MCP Server
同一分类中其他作者的服务器,按星标数排序。
如何看卡片:↓ 每周下载量i★ GitHub 星标i三大支柱:评价 · 检查 · 使用情况i更新 = 最新版本发布到注册中心的时间i
Dark web OSINT over Tor: search onion engines, scrape pages, report with your own model.
Local-first AI agent security evidence and approval workflows through HOL Guard's stdio MCP server.
Analyze code quality and security with SonarQube Server or Cloud directly in AI assistants.
按原文从作者的仓库复制。PopNx MCP 没有审查或背书其内容。HTML、图片和脚本已被移除。链接会离开本站。
A security suite for AI agents — the seatbelt that catches the dangerous thing BEFORE it happens. Three guards, each callable on its own (and as MCP tools), pairing with any wallet or identity stack:
preflight(tx) — decode an unsigned transaction and flag drains before signing (unlimited/large approval, approve-all, token & NFT transferFrom, proxy upgrade, on-chain permit, on-chain Permit2 approve/permit/transferFrom, approvals hidden in multicall incl. Uniswap router batches and Multicall3 aggregate/aggregate3/aggregate3Value (the batch helper on every EVM chain), approvals wrapped in ERC-4337/smart-account execute/executeBatch, Gnosis Safe multiSend/execTransaction and DSProxy execute, drains routed through the Uniswap Universal Router (Permit2 permit/transferFrom commands incl. sub-plans), 1inch AggregationRouter v5 swap() with redirected output or zero slippage, 0x ExchangeProxy transformERC20() with zero slippage, EIP-7702 account delegation, will-revert).inspect_typed_data(td) — catch permit-phishing in an EIP-712 message before the agent signs it (ERC-2612, Uniswap Permit2 incl. SignatureTransfer + witness variants, DAI-style permits) and Seaport orders that give assets away — zero consideration, proceeds routed to a third party, or hidden in a BulkOrder tree.check_action(action, policy) — enforce allow/forbid + value/recipient limits before the agent acts.All three fail safe and are guards, not guarantees. Also bundled: a non-custodial multi-chain wallet (burner, balance, send, swap) — the agent holds its own key and signs locally. No MetaMask, no account, no custody.
from chain_signer import assert_safe
assert_safe(tx) # raises if the tx is a drain/unlimited-approval/revert — review before signing
pip install chain-signer
export ETHERSCAN_API_KEY=... # for live balance reads + broadcast (Etherscan v2)
Bitcoin/Solana support is optional: `pip install "chain-signer[all]"`.
pip install chain-signer
from chain_signer import preflight
spender = "0x" + "22" * 20 tx = {"to": "0x" + "33" * 20, "data": "0x095ea7b3" + spender[2:].rjust(64, "0") + "f" * 64, "value": 0} print(preflight(tx)) # ok=False — flags unlimited_approval before you'd ever sign
That's the wedge: the drain gets flagged before you'd ever sign it — no key, no funds, no network.
from chain_signer import burner, send_ether
from chain_signer.balance import get_balance
w = burner() # fresh throwaway wallet; the agent owns w.private_key print(w.address, get_balance(w)) # live on-chain balance send_ether(w, "0x...recipient", 0.001) # auto nonce+gas, signed locally, broadcast
Full runnable demos are in the repo: `examples/agent_safety_demo.py` (all three guards stop three
real attacks) and examples/quickstart.py (wallet) — clone to run them, or just import as above.
Before an agent signs, hand the unsigned tx to preflight() — it decodes the calldata and returns the risks, or use assert_safe() to hard-stop on a HIGH flag. Offline, no network, never raises.
from chain_signer import preflight, assert_safe
tx = {"to": token, "data": "0x095ea7b3" + spender_padded + "f"*64, "value": 0}
report = preflight(tx)
assert_safe(tx) # raises ValueError on a HIGH flag; pass force=True to override assert_safe(tx, sim=my_simulator) # optional: also flag will-revert via your simulation hook
What it flags today: unlimited/large approval, `increaseAllowance`, `setApprovalForAll`,
ERC-20 transferFrom + ERC-721/1155 safeTransferFrom (token & NFT drains), ERC-777 authorizeOperator/operatorSend (operator-grant + operator-pull drains), on-chain ERC-2612 and DAI-style permit, on-chain Permit2 approve/permit/transferFrom (single and batch — the dominant approval router: unlimited uint160 allowance + drain pull) plus Permit2 SignatureTransfer permit(Witness)TransferFrom (the one-shot signed-permit pull intent/filler protocols use), proxy upgradeTo/upgradeToAndCall, approvals hidden inside multicall (all router variants, nested) and Multicall3 `aggregate`/`aggregate3`/`aggregate3Value` (the canonical batch helper deployed at one address on every EVM chain), approvals wrapped in ERC-4337/smart-account execute/executeBatch, Gnosis Safe multiSend/execTransaction, or DSProxy execute(target,data)/execute(code,data) (decoded and recursed), drains routed through the Uniswap Universal Router (execute(commands,inputs) — Permit2 permit/transferFrom commands, batch and EXECUTE_SUB_PLAN), EIP-7702 account delegation (the "wallet upgrade" drainer), large native value, opaque calldata, malformed calls, and will-revert (with a sim hook). Honest limits (read these): this is STATIC analysis — it decodes calldata and matches known drain patterns. It is NOT a transaction simulator: it won't catch a novel/obfuscated drain it can't decode (those get a low-severity "unknown" flag, not a block), and simulation-based scanners go deeper there. Safety coverage is EVM-only today (no Solana/Bitcoin tx analysis). And it is not yet field-proven at scale. A first-line guard for known patterns — not a guarantee. Pair it with simulation + human review for high-value actions.
A drain doesn't need a transaction. A dApp can ask the agent to sign an EIP-712 message — most dangerously a permit granting an unlimited token allowance, which preflight (a tx check) can't see. inspect_typed_data() catches it before the agent signs:
from chain_signer import inspect_typed_data
report = inspect_typed_data(typed_data) # the EIP-712 object you're about to sign
Covers all three major permit shapes: **ERC-2612**, **Uniswap Permit2** (PermitSingle/PermitBatch, plus
SignatureTransfer and the witness variants intent protocols use), and DAI-style (allowed: true), plus Seaport marketplace orders that hand assets over for nothing — zero consideration, proceeds routed to a third party while your asset leaves, or the same giveaway buried in a BulkOrder merkle tree. Offline, never raises.
inspect_typed_data only protects when the agent remembers to call it first — sign_typed_data alone will happily sign a permit-phishing message. guarded_sign_typed_data() composes the two so signing is screened by default: it inspects, then refuses to sign a HIGH-risk drain.
from chain_signer import guarded_sign_typed_data, SignatureBlocked
sig = guarded_sign_typed_data(wallet, domain, types, message, "Permit") # raises SignatureBlocked on a drain
On a clean message the signature is byte-identical to `sign_typed_data`; pass `force=True` to override.
Identity tells you *who* the agent is; it doesn't stop a bad *action*. check_action() enforces a policy on a proposed tool call before it runs — fail-safe (denies on unreadable input):
from chain_signer import check_action
policy = {"forbid_tools": ["bridge"], "max_value_wei": 10**18, "allow_recipients": [trusted_addr]} r = check_action({"tool": "send", "args": {"to": addr, "value_wei": 5*10**18}}, policy)
All three guards are exposed as MCP tools (preflight, inspect_signature, check_action) — any agent runtime (Claude, Cursor, …) can call them directly, read-only, no key.
What's caught and what isn't — the honest threat-coverage map: docs/THREAT-COVERAGE.md.
preflight(tx) / assert_safe(tx) — decode an unsigned tx and flag drain patterns before signing.inspect_typed_data(td) — flag permit-phishing in an EIP-712 message before the agent signs it.guarded_sign_typed_data(w, domain, types, message, primary_type) — screen then sign; refuses a drain.check_action(action, policy) — enforce allow/forbid + value/recipient limits before the agent acts.burner() — a fresh wallet for a one-off task; discard it when done.restore(key) — reload a wallet later from its exported private key (same key → same address).send_ether(w, to, amount) — send in ETH (not wei); nonce, gas, and broadcast handled for you.get_balance(w) — live balance from the chain (Etherscan v2 indexer, not a flaky public RPC).swap(...) — token swaps via 0x/Paraswap.[all] extra.The private key is generated/loaded locally, used only to sign, and never logged, returned, or stored by this library. You hold the key; we never touch your funds. That is the whole design.
w.private_key is the keys to the wallet. Treat it like a password:
restore(key).export_encrypted(w, password) gives a password-protected keystore dict to store at rest; load_encrypted(keystore, password) brings the wallet back. Never store the raw key if you can store the keystore.The wallet does not expose sign_transaction / sign_message methods. Signing is done by function helpers you pass the wallet to — e.g. send_ether(w, to, amount) signs and broadcasts, and sign_message(w, "text") returns an EIP-191 signature for auth / sign-in flows (recoverable via eth_account Account.recover_message).
pip install may warn that the chain-signer script dir isn't on your PATH. The library works regardless; to use the CLI directly, add that dir to PATH or run python -m chain_signer ....
chain_signer.mcp_server exposes list_tools() and call_tool(name, arguments). CLI:
python -m chain_signer list
python -m chain_signer call create_wallet '{"chain":"evm"}'
General-purpose, non-custodial tooling. You are responsible for using it within the laws and terms of service that apply to you. Not intended or marketed for any restricted or prohibited trading in your jurisdiction.
tx.send, call_contract, explicit nonce/gas) remain available for advanced use.from chain_signer import burner, sign_x402_payment
w = burner() payload = sign_x402_payment(w, token=USDC, to=PAY_TO, value=1000, valid_before=EXPIRES, chain_id=8453)
Builds + signs the EIP-3009 authorization x402 expects (the "exact" scheme). Your agent pays a
paid API by itself — no password prompt, no signup, no custody.