Embodied-OS for Openclaw

A unified operating system that enables AI agents to control physical robots through natural language commands and multi-modal perception.

zhenstaff
v0.1.0
Mar 8, 2026
0
1.2k
0

Install & Download

1. ClawHub CLI

The fastest way to install a skill directly from the registry.

npx clawhub@latest install embodied-os

2. Manual Installation

Copy the skill folder to one of these locations

Global
~/.openclaw/skills/
Workspace
<project>/skills/

Priority: Workspace > Local > Bundled

3. Prompt Installation

Copy this prompt to OpenClaw to install it automatically.

Help me install embodied-os using Clawhub. If Clawhub is not installed, install it first (npm i -g clawhub).

Prefer to download?

Get the raw skill files in a ZIP archive.

What is Embodied-OS?

Embodied-OS serves as the critical control hub bridging the gap between advanced AI agents and physical world robotics. By providing a unified Robot Abstraction Layer (RAL), it allows developers to interact with diverse hardware—from Boston Dynamics Spot to Franka Panda—using a single, consistent API. This integration within the ecosystem of Openclaw Skills empowers users to leverage Large Language Models like Claude and GPT for complex task planning and execution in real-world environments.

The system handles the heavy lifting of multi-modal perception, integrating vision, audio, and tactile sensing to give AI agents a comprehensive understanding of their surroundings. Whether you are automating a warehouse or building a research assistant, this skill provides the high-level action primitives and safety validators necessary for reliable physical interaction.

Embodied-OS Use Cases

  • Warehouse Automation: Directing mobile manipulators to pick specific items based on visual tags and transport them across aisles.
  • Elderly Care Assistance: Monitoring environments and responding to verbal requests or emergency signals via service robots.
  • Research Lab Automation: Executing precise multi-step chemistry or physics experiments through dual-arm robot control.
  • Natural Language Control: Controlling complex robotic systems by simply talking to an AI agent like ChatGPT or Claude.

How Embodied-OS Works

  1. Initialization: The EmbodiedOS core is initialized using a configuration file that defines robot platforms and perception sensors.
  2. Hardware Connection: The system establishes a connection to the physical or simulated robot via the Robot Abstraction Layer (RAL).
  3. Agent Integration: An AI Agent Interface is linked to the robot, enabling natural language command processing through models like Claude-4.
  4. Perception & Planning: The system processes multi-modal data while the AI decomposes high-level tasks into executable action primitives.
  5. Safe Execution: The Action Executor carries out commands while the Safety Validator monitors workspace bounds and force limits in real-time.

Embodied-OS Setup

To begin using this entry from the Openclaw Skills library, follow these steps:

1. Install via Clawhub

clawhub install embodied-os

2. Install Python Package

pip install openclaw-embodied-os

3. Configure Environment

Set your AI provider keys in your environment or a .env file:

export ANTHROPIC_API_KEY="sk-ant-..."
export OPENAI_API_KEY="sk-..."

Embodied-OS Data Schema & Taxonomy

The skill utilizes a structured configuration and state management system to organize robotic data:

Component Data Type Description
robot YAML/Object Defines platform, model, and network endpoint (e.g., UR5e).
perception Metadata Manages camera resolutions, FPS, and sensor types.
safety Constraints Stores coordinate bounds, max velocity, and force limits.
agent Model Config Specifies the LLM model and API authentication for control.
state Telemetry Tracks joint positions, velocity, and real-time sensor feedback.

Embodied-OS Advanced Features

  • Multi-Layer Safety System: Real-time collision avoidance, workspace bounding, and force limit monitoring to protect hardware.
  • AI-Powered Task Decomposition: Automatically breaks down complex verbal instructions into sequential robot primitives.
  • Unified Robot Abstraction Layer: Swap between physical robots and simulated environments without changing your core application code.
  • Multi-Modal Sensor Fusion: Synchronized processing of vision, audio, and tactile data for high-fidelity environment awareness.

SKILL.md


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