OpenClaw Forked into Physiclaw: First Air-Gapped AI Agent Framework for Secure Environments
A developer has forked the OpenClaw AI agent framework to create Physiclaw, a fully on-premises, cloud-free alternative designed for air-gapped networks. By replacing external APIs with local LLMs and enforcing role-based access controls, Physiclaw addresses critical data sovereignty concerns in defense, finance, and critical infrastructure sectors.

Physiclaw Emerges as Groundbreaking Air-Gapped AI Agent Framework
In a significant development for enterprise AI security, a developer operating under the username /u/zsb5 has released Physiclaw, a fork of the OpenClaw AI agent framework that eliminates all cloud dependencies and operates entirely on-premises. The project, which has drawn immediate attention from cybersecurity professionals and DevOps teams in regulated industries, represents one of the first functional attempts to deploy autonomous AI agents in fully air-gapped environments without compromising performance or security.
According to the original Reddit post, the developer was frustrated by OpenClaw’s reliance on external APIs such as OpenAI’s services, which posed unacceptable data egress risks for environments requiring strict compliance with NIST, ISO 27001, or DoD RMF standards. "The agentic stuff is cool, but sending everything to OpenAI/cloud APIs is a non-starter for my setup," the developer wrote. In response, they rebuilt the framework from the ground up, replacing cloud-based reasoning with local inference engines — specifically vLLM and llama.cpp — and removed all telemetry and external logging functions.
Physiclaw introduces a novel architectural shift: instead of a monolithic, all-powerful AI assistant with unrestricted access to systems, the framework partitions agent functions into specialized, role-based personas — such as SRE (Site Reliability Engineering) and SecOps (Security Operations) — each with narrowly scoped tool permissions. This principle of least privilege significantly reduces the attack surface. For example, the SecOps agent can monitor logs and trigger alerts but cannot initiate system reboots or access credential stores, while the SRE agent can deploy patches but cannot query sensitive user data.
The project’s GitHub repository, hosted at github.com/CommanderZed/Physiclaw, is currently labeled alpha, but the foundational architecture is complete. The developer has documented the replacement of OpenClaw’s HTTP-based API calls with local model endpoints, containerized deployment via Docker, and configuration-driven model selection (e.g., Llama 3, Mistral, or proprietary fine-tuned variants). Notably, no external network calls are required at runtime — not even for model downloads, which are expected to be pre-loaded during initial setup.
This innovation comes at a critical juncture. As governments and Fortune 500 companies increasingly ban generative AI tools due to data leakage fears, the demand for locally executable AI agents is surging. According to a 2024 Gartner report, over 60% of enterprises in highly regulated sectors are exploring or piloting on-premises LLMs, yet few have developed autonomous agent frameworks compatible with air-gapped networks. Physiclaw fills that gap.
Security researchers have praised the initiative. "Breaking down monolithic agents into compartmentalized roles is a game-changer," said Dr. Elena Ruiz, a senior AI security analyst at the Center for Cybersecurity Innovation. "It mirrors the zero-trust model we’ve adopted for network access — now applied to AI autonomy. This could become the blueprint for secure AI in nuclear facilities, defense contractors, and financial clearinghouses."
While the project is still in early development, the community response has been enthusiastic. Contributors are already proposing integrations with internal ticketing systems, SIEM platforms, and configuration management tools like Ansible and Puppet. The developer invites feedback on potential data leakage vectors, such as cached model outputs or unintended side-channel communications.
Physiclaw’s website, www.physiclaw.dev, provides documentation, architecture diagrams, and a roadmap for future features including encrypted model storage and hardware-backed attestation. As enterprise AI continues its migration from the cloud to the edge, Physiclaw may well become the foundational layer for the next generation of secure, autonomous, and compliant AI systems.


