explain-openclaw
Multi-AI documentation for OpenClaw: architecture, security audits, deployment guide
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Explain OpenClaw is a comprehensive documentation repository for the OpenClaw framework, a self-hosted AI assistant platform. It covers various aspects such as plain English explanations, technical architecture, deployment scenarios, privacy and safety measures, security audits, worst-case security scenarios, optimizations, and AI model comparisons. The repository serves as a living knowledge base with beginner-friendly explanations and detailed technical insights for contributors.
README:
- What is OpenClaw? (plain English)
- Glossary
- What is Moltbook?
- Threat model
- Hardening checklist
- High privacy config example
- Detecting OpenClaw requests (for hosting services)
- Architecture (technical)
- Repo map
- Deployment: Standalone Mac mini
- Deployment: Isolated VPS
- Deployment: Cloudflare Moltworker
- Deployment: Docker Model Runner
- Commands + troubleshooting
- Optimizations:
-
Security documentation:
openclaw security auditcommand reference- Official security advisories (CVEs/GHSAs)
- Security audit analysis (Issue #1796)
- Second security audit (Medium article)
- Third security audit (ZeroLeeks AI Red Team)
- Post-merge security hardening
- Open upstream security issues
- Open upstream security PRs
- Ecosystem security threats
- SecurityScorecard STRIKE report analysis (Feb 2026, 28k+ exposed instances)
- Model poisoning and sleeper agent backdoors (Feb 2026 Microsoft research)
- Cisco AI Defense skill scanner analysis (Feb 2026, blog post + tool evaluation)
- AI model analysis comparison
-
Worst-case security scenarios:
- Overview
- Mac Mini risks
- VPS risks
- Moltworker risks
- Cross-cutting vulnerabilities
- ClawHub marketplace risks (Feb 2026 campaign)
- Skills.sh risks (supply chain)
- Prompt injection attacks (27 examples)
- Misconfiguration examples
- AI self-misconfiguration
This folder is a living knowledge base for the OpenClaw framework — actively maintained documentation that has grown from an initial multi-model AI analysis into a broad reference covering security audits, deployment operations, threat intelligence, and beginner-friendly explanations.
What you'll find here:
| Section | What it covers |
|---|---|
| Plain English | What OpenClaw is, glossary, "explain it like I'm new" |
| Technical | Architecture deep-dive, repo map for contributors |
| Deployment | Mac mini (local-first), Isolated VPS (remote + hardened), Cloudflare Moltworker (serverless), Docker Model Runner (local AI, zero API cost) |
| Privacy & Safety | Threat model, hardening checklist, request fingerprint detection |
| Security Audits | Independently verified audit analyses, CVE/GHSA tracking, upstream issue monitoring |
| Worst-Case Scenarios | Attack catalogs, prompt injection examples, supply chain threats, incident response |
| Optimizations | Cost/token reduction, model routing recommendations |
| AI Model Comparison | Accuracy benchmarks across five AI models' analyses |
What started as a synthesis of five AI models' analyses has expanded through continuous upstream tracking and independent code verification. It reconciles analyses from Copilot GPT-5.2, Gemini 3.0 Pro, GLM 4.7, Opus 4.5, and Kimi K2.5 — with an accuracy comparison showing which models verified claims against source code and which accepted them at face value.
Repo docs + code win. Model summaries are supporting material.
OpenClaw is a self-hosted AI assistant platform. You run an always-on process called the Gateway on a machine you control (a Mac mini at home or an isolated VPS). The Gateway connects to messaging apps (WhatsApp/Telegram/Discord/iMessage/… via built-in channels + plugins), receives messages, runs an agent turn (the “brain”), optionally invokes tools/devices, and sends responses back.
Key idea: your Gateway host is the trust boundary. If it’s compromised (or configured too openly), your assistant can be turned into a data-exfil / automation engine.
Official docs starting point:
- https://docs.openclaw.ai/start/getting-started
- https://docs.openclaw.ai/gateway
- https://docs.openclaw.ai/gateway/security
- Standalone Mac mini (local-first, high privacy)
- The Gateway runs on a Mac mini you own.
- Default best practice: keep it loopback-only (
gateway.bind: "loopback") and access it locally. - Optional remote access should be via SSH tunnels or Tailscale Serve, not public ports.
- Isolated VPS server (remote, locked down)
- The Gateway runs on a small Linux VPS.
- Fastest path: DigitalOcean 1-Click Deploy pre-configures security hardening automatically.
- Default best practice: keep it loopback-only and access it via SSH tunnel or tailnet.
- Harden the host like any admin system (dedicated user, firewall, patching, log hygiene).
- Cloudflare Moltworker (serverless, managed infrastructure)
- The Gateway runs inside Cloudflare's Sandbox SDK container on their global edge network.
- No hardware to manage; automatic scaling and isolation.
- Uses R2 for persistence, AI Gateway for model routing, Browser Rendering for web automation.
- Proof-of-concept; requires Cloudflare Workers paid plan ($5/month minimum).
- Docker Model Runner (local AI, zero API cost)
- Run LLMs locally via Docker Desktop's Model Runner.
- Zero API costs after initial model download.
- Complete privacy — no data leaves your machine.
- Requires Docker Desktop 4.40+ and compatible hardware (Apple Silicon, NVIDIA GPU, or AMD GPU).
- Standalone Mac mini (local-first)
-
Isolated VPS (remote + locked down)
- DigitalOcean 1-Click Deploy (recommended)
- Cloudflare Moltworker (serverless)
- Docker Model Runner (local AI, zero cost)
The repo strongly recommends using the onboarding wizard; it sets up:
- a working Gateway service (launchd/systemd)
- auth/provider credentials
- safe access defaults (pairing, token)
Recommended installer:
curl -fsSL https://openclaw.ai/install.sh | bashAlternative:
npm install -g openclaw@latestopenclaw onboard --install-daemonopenclaw gateway status
openclaw status
openclaw healthThree levels of security auditing:
# Read-only scan of config + filesystem permissions (no network calls)
openclaw security audit
# Everything above + live WebSocket probe of the running gateway
openclaw security audit --deep
# Apply safe auto-fixes first, then run full audit to show remaining issues
openclaw security audit --fix| Flag | What it adds | Modifies system? |
|---|---|---|
| (none) | Scans config, filesystem permissions, channel policies, model hygiene, plugin trust, attack surface summary (50+ check IDs across 12 categories) | No — read-only |
--deep |
All base checks + live WebSocket probe of running gateway (5 s timeout), verifies auth handshake | No — read-only probe |
--fix |
Applies safe fixes before running the full audit: chmod 600/700 on state/config/credentials, flips groupPolicy open→allowlist, sets logging.redactSensitive off→"tools". Report shows remaining issues post-fix |
Yes — safe defaults only; no destructive changes |
Note:
--fixruns the fix pass before the audit (src/cli/security-cli.ts:46), so the report you see reflects the hardened state. Any findings that remain are issues--fixcannot auto-resolve.
If you only do one security thing, do this:
openclaw security audit --fixSee the full command reference for what each check covers, what --fix changes, and which documented issues the audit can and cannot detect.
(Security audit docs: https://docs.openclaw.ai/gateway/security)
OpenClaw is easiest to understand as 6 layers:
-
Gateway (control plane) — one long-running process that owns:
- message ingress/egress
- sessions + transcripts
- routing rules
- plugin loading
- tool execution policy + sandboxing
- node/device pairing and invocations
-
Channels — adapters from Telegram/WhatsApp/etc. into a normalized message/event shape.
-
Routing + sessions — decides which “agent/session” handles which chat.
-
Agent runtime — takes context (system prompt + history + attachments), calls your chosen model provider, streams responses, and can request tools.
-
Tools — optional capabilities beyond text (web fetch/search, browser control, exec, cron, nodes/devices).
-
Surfaces — where you interact:
- chat apps (WhatsApp/Telegram/…)
- Control UI dashboard (web)
- macOS menu bar app
This matters because your security choices mostly reduce to:
- Who can trigger the agent? (pairing + allowlists + group policies)
- What can the agent do once triggered? (tools/sandboxing/nodes)
- What can the agent reach? (network exposure, filesystem access, accounts)
This FAQ is intentionally long and practical; it’s the “things you’ll actually Google at 2am.”
- Mac mini (recommended for most privacy-first users): always-on, easy local access, no cloud exposure by default.
- VPS (recommended for always-on + remote access): great uptime, but higher security responsibility. DigitalOcean 1-Click handles hardening automatically.
- Cloudflare Moltworker (low-maintenance serverless): no hardware to manage, pay-as-you-go, but proof-of-concept status.
- Docker Model Runner (maximum privacy + zero cost): run local LLMs via Docker Desktop for complete privacy and no API fees. Requires Apple Silicon, NVIDIA, or AMD GPU.
- Laptop (okay for learning/dev): simplest to start, but sleeps often and you may be tempted to expose it.
See runbooks:
No. OpenClaw is a self-hosted assistant platform that talks to models (Anthropic/OpenAI/etc.) and wraps them with routing, sessions, tools, and chat integrations.
The main always-on process is the Gateway (default port 18789) which multiplexes:
- a WebSocket control plane
- the dashboard/control UI (HTTP)
- optional HTTP endpoints (OpenAI-compatible APIs)
See: https://docs.openclaw.ai/gateway
By default, OpenClaw stores state under ~/.openclaw/ (or ~/.openclaw-<profile>/ for profiles). This includes config, credentials, and session transcripts.
See: https://docs.openclaw.ai/gateway/security ("Credential storage map")
This repo's positioning is local-first control. Still, your chosen model provider will receive whatever text/media is sent to it for inference, unless you run a local model.
- Run on a single-user machine you control (Mac mini).
- Keep the Gateway loopback-only.
- Use pairing/allowlists so only you can talk to it.
- Don’t enable powerful tools until you understand the blast radius.
Use the wizard:
openclaw onboard --install-daemonThe Gateway likely has auth enabled and the UI is missing the token/password.
Fast fixes:
- Run
openclaw dashboard(it prints a tokenized URL). - If remote: bring up an SSH tunnel first:
then open
ssh -N -L 18789:127.0.0.1:18789 user@gateway-host
http://127.0.0.1:18789/?token=....
See: https://docs.openclaw.ai/help/faq (Control UI unauthorized)
Pairing is owner approval for:
- DM pairing (who can message the bot)
- device/node pairing (which devices can connect)
See: https://docs.openclaw.ai/start/pairing
-
openclaw gatewayruns the Gateway in the foreground in your terminal. -
openclaw gateway restartrestarts the background service (launchd/systemd).
See: https://docs.openclaw.ai/help/faq
gateway.port controls the single multiplexed port for WebSocket + HTTP. Precedence is:
--port > OPENCLAW_GATEWAY_PORT > gateway.port > default 18789
See: https://docs.openclaw.ai/help/faq
Usually no.
Preferred patterns:
- Loopback + SSH tunnel (universal)
- Loopback + Tailscale Serve (best UX)
Only bind to LAN/tailnet when you understand the auth requirements.
See: https://docs.openclaw.ai/gateway/remote and https://docs.openclaw.ai/gateway/tailscale
Yes, but it’s usually unnecessary; one Gateway can run multiple channels and agents.
If you do, you must isolate:
- config path (
OPENCLAW_CONFIG_PATH) - state dir (
OPENCLAW_STATE_DIR) - workspace (
agents.defaults.workspace) - port (
gateway.port)
See: https://docs.openclaw.ai/gateway/multiple-gateways
Use:
openclaw status --all
openclaw logs --followSee: https://docs.openclaw.ai/help/faq (log locations)
All three matter, but the practical order is:
- Inbound access (DM/group policies)
- Tool blast radius (exec/browser/web)
- Network exposure (bind modes, proxies, auth)
- Host compromise (OS hardening, keys, patching)
See: https://docs.openclaw.ai/gateway/security
Plugins run in-process with the Gateway. Treat them like installing arbitrary code.
Recommendation:
- only install plugins you trust
- prefer pinned versions
- keep an explicit allowlist if supported
See: https://docs.openclaw.ai/gateway/security ("Plugins/extensions")
A local model is the strongest privacy posture because it avoids sending content to a third-party provider. However, it changes the safety profile: smaller/weak local models can be easier to prompt-inject and may handle tool policies worse.
See: https://docs.openclaw.ai/gateway/local-models
Consider DM session isolation (multi-user mode) so each peer gets an isolated DM session, and use identity linking only where appropriate.
For multi-agent setups, each agent can also be scoped independently: per-agent sandbox isolation, tool allow/deny policies, and workspace access controls prevent one agent's context from leaking into another. See per-agent access scoping for details.
See: https://docs.openclaw.ai/gateway/security ("DM session isolation") and https://docs.openclaw.ai/concepts/session
Purpose: This section documents what can go wrong in the worst possible misconfiguration or compromise scenarios for each deployment type.
Read this if: You're evaluating OpenClaw for sensitive use cases, want to understand the blast radius of potential failures, or need to build a threat model for your organization.
See the detailed breakdown in 05-worst-case-security/.
| Deployment | Trust Boundary | Biggest Risk | Recovery Complexity |
|---|---|---|---|
| Mac Mini | Your hardware | Physical access, cloud sync | Medium (rotate keys) |
| VPS/1-Click | Shared infra | Internet exposure, root compromise | High (rebuild VPS) |
| Moltworker | Cloudflare | No egress filtering, R2 breach | Very High (no local control) |
Based on source code review of:
-
src/gateway/net.ts- Network binding with fallback chains -
src/gateway/auth.ts- Authentication mechanisms -
src/agents/bash-tools.exec.ts- Shell execution -
src/pairing/pairing-store.ts- Credential storage -
src/security/audit.ts- Security audit checks
Critical vulnerabilities if misconfigured:
-
Silent binding fallback - Loopback failure → 0.0.0.0 exposure (
src/gateway/net.ts:159-164) -
Dangerous auth flags -
dangerouslyDisableDeviceAuthbypasses device verification (src/config/types.gateway.ts:69-72) - No encryption at rest - Credentials protected only by file permissions (0o600/0o700)
- Egress-free Moltworker - Sandbox can exfiltrate to any server
| Document | Coverage |
|---|---|
| Overview | Attack surface comparison, decision guide, severity levels |
| Mac Mini Risks | Physical access, cloud sync trap, silent network exposure |
| VPS Risks | Internet exposure, multi-tenant risks, credential storage |
| Moltworker Risks | Trust boundaries, egress filtering, R2 single point of failure |
| Cross-Cutting | Prompt injection, tool execution, channel tokens, supply chain |
| ClawHub Marketplace Risks | Skills marketplace supply chain, ClawHavoc campaign, social engineering |
| Prompt Injection Attacks | 27 attack examples with data exfiltration scenarios |
| Misconfiguration Examples | 10 real mistakes with step-by-step fixes |
| Incident Response | Containment, credential rotation, recovery procedures |
📚 Key resource: The Prompt Injection Attacks guide (27 examples with defenses) is referenced throughout this documentation. If you read one security document beyond the threat model, read that one.
Purpose: Documents how third-party services can identify HTTP requests originating from OpenClaw, and what OpenClaw users should know about their request fingerprint.
Read this if: You run a hosting service/API and want to identify OpenClaw traffic, or you're an OpenClaw user who wants to understand what your instance reveals about itself.
| Request type | Header | Value | Detectable? |
|---|---|---|---|
| Media file fetches | User-Agent |
OpenClaw-Gateway/1.0 |
Yes — explicitly names OpenClaw |
| GitHub API (signal-cli install) | User-Agent |
openclaw |
Yes — explicitly names OpenClaw |
| Anthropic OAuth API | User-Agent |
openclaw |
Yes — explicitly names OpenClaw |
| Perplexity/OpenRouter API | HTTP-Referer |
https://openclaw.ai |
Yes — domain identifies OpenClaw |
| Perplexity/OpenRouter API | X-Title |
OpenClaw / OpenClaw Web Search
|
Yes — explicitly names OpenClaw |
| MiniMax VLM API | MM-API-Source |
OpenClaw |
Yes — custom header |
| ACP protocol | clientInfo.name |
openclaw-acp-client |
Yes — protocol-level identification |
| WebFetch (browsing websites) | User-Agent |
Chrome browser string | No — indistinguishable from real browser |
| Brave Search API | (no custom UA) | Default fetch UA | Weak — Node.js fetch fingerprint only |
| xAI Grok API | (no custom UA) | Default fetch UA | Weak — Node.js fetch fingerprint only |
The full analysis includes source code references, Cloudflare WAF rules (with regex examples for Business/Enterprise), and a guide for placing Cloudflare as a reverse proxy in front of your Gateway with inbound header protection: Detecting OpenClaw Requests
- Getting started: https://docs.openclaw.ai/start/getting-started
- Install: https://docs.openclaw.ai/install
- Gateway (runbook): https://docs.openclaw.ai/gateway
- Gateway security: https://docs.openclaw.ai/gateway/security
- Remote access: https://docs.openclaw.ai/gateway/remote
- Tailscale: https://docs.openclaw.ai/gateway/tailscale
- Pairing: https://docs.openclaw.ai/start/pairing
- Help / FAQ: https://docs.openclaw.ai/help/faq
- Troubleshooting: https://docs.openclaw.ai/gateway/troubleshooting
- External security guide: https://vibeproof.dev/blog/moltbot-security-setup-guide
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Zep is a long-term memory service for AI Assistant apps. With Zep, you can provide AI assistants with the ability to recall past conversations, no matter how distant, while also reducing hallucinations, latency, and cost. Zep persists and recalls chat histories, and automatically generates summaries and other artifacts from these chat histories. It also embeds messages and summaries, enabling you to search Zep for relevant context from past conversations. Zep does all of this asyncronously, ensuring these operations don't impact your user's chat experience. Data is persisted to database, allowing you to scale out when growth demands. Zep also provides a simple, easy to use abstraction for document vector search called Document Collections. This is designed to complement Zep's core memory features, but is not designed to be a general purpose vector database. Zep allows you to be more intentional about constructing your prompt: 1. automatically adding a few recent messages, with the number customized for your app; 2. a summary of recent conversations prior to the messages above; 3. and/or contextually relevant summaries or messages surfaced from the entire chat session. 4. and/or relevant Business data from Zep Document Collections.
doc2plan
doc2plan is a browser-based application that helps users create personalized learning plans by extracting content from documents. It features a Creator for manual or AI-assisted plan construction and a Viewer for interactive plan navigation. Users can extract chapters, key topics, generate quizzes, and track progress. The application includes AI-driven content extraction, quiz generation, progress tracking, plan import/export, assistant management, customizable settings, viewer chat with text-to-speech and speech-to-text support, and integration with various Retrieval-Augmented Generation (RAG) models. It aims to simplify the creation of comprehensive learning modules tailored to individual needs.
whatsapp-chatgpt
This repository contains a WhatsApp bot that utilizes OpenAI's GPT and DALL-E 2 to respond to user inputs. Users can interact with the bot through voice messages, which are transcribed and responded to. The bot requires Node.js, npm, an OpenAI API key, and a WhatsApp account. It uses Puppeteer to run a real instance of Whatsapp Web to avoid being blocked. However, there is a risk of being blocked by WhatsApp as it does not allow bots or unofficial clients on its platform. The bot is not free to use, and users will be charged by OpenAI for each request made.
OmniSteward
OmniSteward is an AI-powered steward system based on large language models that can interact with users through voice or text to help control smart home devices and computer programs. It supports multi-turn dialogue, tool calling for complex tasks, multiple LLM models, voice recognition, smart home control, computer program management, online information retrieval, command line operations, and file management. The system is highly extensible, allowing users to customize and share their own tools.
chatgpt-wechat
ChatGPT-WeChat is a personal assistant application that can be safely used on WeChat through enterprise WeChat without the risk of being banned. The project is open source and free, with no paid sections or external traffic operations except for advertising on the author's public account '积木成楼'. It supports various features such as secure usage on WeChat, multi-channel customer service message integration, proxy support, session management, rapid message response, voice and image messaging, drawing capabilities, private data storage, plugin support, and more. Users can also develop their own capabilities following the rules provided. The project is currently in development with stable versions available for use.
mcp-agent
mcp-agent is a simple, composable framework designed to build agents using the Model Context Protocol. It handles the lifecycle of MCP server connections and implements patterns for building production-ready AI agents in a composable way. The framework also includes OpenAI's Swarm pattern for multi-agent orchestration in a model-agnostic manner, making it the simplest way to build robust agent applications. It is purpose-built for the shared protocol MCP, lightweight, and closer to an agent pattern library than a framework. mcp-agent allows developers to focus on the core business logic of their AI applications by handling mechanics such as server connections, working with LLMs, and supporting external signals like human input.
Gmail-MCP-Server
Gmail AutoAuth MCP Server is a Model Context Protocol (MCP) server designed for Gmail integration in Claude Desktop. It supports auto authentication and enables AI assistants to manage Gmail through natural language interactions. The server provides comprehensive features for sending emails, reading messages, managing labels, searching emails, and batch operations. It offers full support for international characters, email attachments, and Gmail API integration. Users can install and authenticate the server via Smithery or manually with Google Cloud Project credentials. The server supports both Desktop and Web application credentials, with global credential storage for convenience. It also includes Docker support and instructions for cloud server authentication.
Operit
Operit AI is a fully functional AI assistant application for mobile devices, running independently on Android devices with powerful tool invocation capabilities. It offers over 40 built-in tools for file system operations, HTTP requests, system operations, UI automation, and media processing. The app combines these tools with rich plugins to enable a wide range of tasks, from simple to complex, providing a comprehensive experience of a smartphone AI assistant.
