High Efficiency Runtime
Single Rust binary with fast startup characteristics and low memory consumption for long-running agent workloads.
ZeroClaw is our Rust-native autonomous agent framework for teams that need reliable execution, strict security defaults, and low operating overhead. In production and self-hosted environments alike, ZeroClaw is designed to launch quickly, run efficiently, and scale through modular provider, channel, memory, and tooling integrations.
ZeroClaw is built as a minimal, trait-driven architecture so infrastructure teams can adapt model providers, channels, memory, and operational tools without hard vendor lock-in.
Single Rust binary with fast startup characteristics and low memory consumption for long-running agent workloads.
Sandbox controls, filesystem scoping, allowlists, encrypted secrets, and gateway-style access patterns.
22+ provider compatibility, multi-channel messaging support, built-in memory, observability, and tool orchestration.
The following baseline is compiled from official project materials and repository documentation to support transparent evaluation.
| Implementation | 100% Rust architecture delivered as a compact standalone binary. |
|---|---|
| Resource Profile | Published metrics indicate ~3.4 MB binary size and ~7.8 MB peak RSS in benchmark snapshots. |
| Startup | Documented startup profile is ~0.38s cold and under 10ms warm in reference measurements. |
| Provider Support | 22+ provider integrations, including OpenAI-compatible endpoints and local model workflows. |
| Default Network Posture | Gateway flow is designed around localhost binding and one-time pairing for bearer-token access. |
| Memory Layer | Built-in SQLite storage with hybrid keyword and vector retrieval. |
| Observability | Prometheus and OpenTelemetry support for production monitoring. |
Source scope: official repository README, the ZeroClaw Comprehensive Research Report, and the referenced ZeroClaw article draft (snapshot dated February 15, 2026).
ZeroClaw follows a trait-based system design where core capabilities can be swapped through configuration. This keeps deployment flexible while maintaining a minimal runtime footprint.
| AI Models | ProviderShips with 22+ providers and supports OpenAI-compatible APIs, including custom endpoints. |
|---|---|
| Channels | ChannelSupports CLI and multi-platform messaging, with room for custom connectors. |
| Memory | MemoryIncludes SQLite, FTS5 keyword retrieval, vector similarity, and hybrid ranking. |
| Tools | ToolBuilt-in shell, file, memory, browser, and integration capabilities. |
| Observability | ObserverSupports operational telemetry pathways including Prometheus and OpenTelemetry. |
| Runtime | RuntimeAdapterRuns natively on Mac, Linux, and low-power hardware such as Raspberry Pi. |
| Security | SecurityPolicyGateway pairing, sandboxing, path scoping, and allowlist controls by design. |
| Identity | IdentityConfigSupports OpenClaw-style and JSON-based identity formats. |
ZeroClaw supports multiple autonomy levels so teams can align execution privileges with their operational risk model.
Designed for constrained execution where inspection and low-risk tasks are prioritized.
Balances autonomy and control with human oversight on sensitive actions.
Enables broader autonomous execution for approved workflows and environments.
This snapshot summarizes practical deployment context and project momentum from the research report baseline.
Metrics reflect a point-in-time snapshot from the report dated February 15, 2026.
ZeroClaw focuses on practical operator needs: low-latency startup, low RAM footprint, and predictable automation behavior on constrained and server-class hardware.
All major technical claims are tied to the official codebase and public documentation, with a clear update timestamp on this page.
Security controls are explicit by design, including scope boundaries, allowlisted operations, and secret handling aligned with least-privilege principles.
Structured data in the page head defines ZeroClaw as an organization and software entity to improve search engine entity understanding.
This workflow reflects the practical onboarding path from the referenced ZeroClaw article: install Rust, build release, run onboarding, and keep the agent online as a daemon.
Use the official Rust installer when Rust is not already available in your environment.
curl --proto '=https' --tlsv1.2 -sSf https://sh.rustup.rs | sh
Build the release target for optimized runtime performance, then install to your system path.
git clone https://github.com/theonlyhennygod/zeroclaw.git
cd zeroclaw
cargo build --release
cargo install --path . --force
Set provider credentials, choose channels, and configure a pairing code for secure gateway access.
zeroclaw onboard --interactive
Run ZeroClaw in daemon mode for 24/7 tasks, then check runtime status from the CLI.
zeroclaw daemon
zeroclaw status
ZeroClaw supports AIEOS identity configuration so teams can define stable assistant behavior beyond prompt-only setup, including persona, language style, and long-term role consistency.
Enable AIEOS format by pointing ZeroClaw to your identity package:
[identity]
format = "aieos"
aieos_path = "identity.json"
The referenced article suggests choosing tools by workload profile rather than popularity alone.
If your priority is rich local interaction experiences and creative front-end workflows, OpenClaw may fit better for those specific interaction-driven use cases.
If your priority is long-running automation on constrained infrastructure, ZeroClaw is positioned as the stronger option due to its compact footprint and startup efficiency.
Explore question-led research pages built from the ZeroClaw deep research report. Each page targets a high-intent search topic and includes a left-side TOC for cross-navigation.
Open the English research hub for all topic pages, including positioning, architecture, pricing, roadmap, and final recommendation.
打开中文研究导航,查看按疑问词拆解的专题内页,并通过左侧目录快速跳转。
Key answers for teams evaluating zeroclaw in production, testing, and self-hosted automation environments.
zeroclaw, branded as ZeroClaw, is a Rust-native autonomous AI agent framework focused on speed, security, and modular system design.
zeroclaw emphasizes lightweight runtime behavior, fast startup, and a trait-based architecture that can be reconfigured without changing core source code.
Yes. zeroclaw is maintained in a public GitHub repository with visible code history, issue tracking, and release activity.
Yes. zeroclaw is designed for constrained environments and is suitable for devices such as Raspberry Pi and lightweight VPS deployments.
zeroclaw supports 22+ providers, including OpenAI-compatible endpoints, so teams can use hosted APIs or custom routing strategies.
Yes. zeroclaw supports local model workflows, including common local-serving setups such as Ollama integrations.
zeroclaw applies a localhost-first network posture, pairing-based access flow, sandbox controls, and allowlist boundaries for paths and commands.
zeroclaw uses SQLite-based memory with hybrid retrieval by combining FTS5 keyword matching, vector similarity, and weighted ranking logic.
zeroclaw supports readonly, supervised, and full autonomy modes so teams can align execution scope with governance and risk requirements.
According to the referenced project materials, tokens named ZEROCLAW are not documented as an official component of the zeroclaw AI project.