Axol is a dual-arm robot designed specifically for builders working on physical AI. It represents a new category of ready-out-of-the-box hardware that combines powerful manipulation capabilities with an open-source ecosystem. The core value of this physical AI robot lies in its ability to reduce the time from concept to deployed AI policies, offering researchers and engineers a platform that requires minimal setup. With dual 7-DOF arms, an 860mm reach, and a peak payload of 6.5kg, Axol is built for real-world tasks. Backed by Y Combinator and assembled in San Francisco, it embodies a commitment to high-quality, accessible robotics for the AI community.
The primary pain point addressed by Axol is the lack of affordable, high-performance hardware for physical AI research and development. Existing dual-arm platforms often suffer from limited reach, problematic singularities, and closed software stacks that hinder rapid iteration. These constraints force researchers to spend excessive time on hardware setup and workaround rather than on model development and testing. Axol solves this by offering best-in-class kinematic design and a fully open-source SDK from day one. This means users can bypass many of the common obstacles in manipulation robotics, focusing instead on building and training effective AI policies. The result is a significant reduction in development cycle time and a smoother path to real-world deployment.
One of Axol's standout feature groups is its Extra-Long Reach and Reduced Singularities. With an arm reach of 860mm, Axol outperforms comparable platforms like YAM (750mm) and WidowX (650mm), providing access to a wider workspace without needing to reposition the robot. This is complemented by a full 180° pitch and yaw at the wrist, which dramatically reduces shoulder singularities. The benefit is a larger effective workspace and smoother trajectories, enabling more complex manipulation tasks. For applications requiring precise movements across a broad area, such as assembly or bin picking, these specifications directly translate to higher success rates and fewer motion planning failures. This design choice is fundamental to Axol's philosophy of enabling real-world, AI-first deployments.
The second major feature group is the Open-Source SDK and VR Teleoperation capability. The SDK includes a Python library, CLI, bimanual IK solver, low-level CAN motor interface, ZED camera streaming, LeRobot bindings, and a joint tuning toolkit. All of this is open source, hosted on GitHub, and built to be extended. Complementing the SDK is a WebXR-based VR teleoperation system that works with any compatible headset. It streams hand and elbow poses over WebSocket and includes built-in data collection and recording modes. This combination empowers users to quickly prototype control strategies, collect manipulation data, and train policies without being locked into proprietary frameworks. The VR teleop also offers an intuitive way to demonstrate tasks for imitation learning.
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Additional capabilities include Protected Wiring, FAKRA GMSL 2.0 Passthrough, and Dual 7-DOF Arms. The fully internally routed cables protect against damage and maintain a clean appearance, crucial for reliable operation in production environments. The FAKRA GMSL 2.0 passthrough connectors allow wrist-mounted cameras with high-speed, low-latency machine vision, enabling real-time perception for closed-loop control. The dual 7-DOF arms provide redundancy and flexibility, opening doors to bimanual manipulation applications or doubling cycle time by using both arms independently. The robot's construction from steel, aluminum, and TPU ensures long-term durability. These features together make Axol a deployment-ready platform that can be customized and integrated with existing hardware stacks.
Axol's overall approach is to provide a complete, open platform that bridges the gap between raw joint control and trained policies. The workflow begins with the low-level CAN interface for direct motor control, then moves up through the Python SDK for higher-level commands. Users can leverage the bimanual IK solver for coordinated arm movements or use the VR teleop to demonstrate complex tasks. Data collection is integrated via WebSocket streams and LeRobot bindings, allowing seamless recording of manipulation episodes. The open-source console provides a unified interface for monitoring and controlling the robot. This layered architecture supports everything from hardware debugging to policy deployment, all within a single ecosystem that prioritizes extensibility and community collaboration.
Concrete use cases for Axol include AI manipulation research, where researchers can quickly iterate on imitation learning algorithms using the VR teleop for demonstration collection. The data collection service offered by Almond provides high-quality, labeled manipulation data in LeRobot format, ready to plug into training pipelines. In academic labs, Axol serves as a reliable platform for studying bimanual coordination and contact-rich manipulation tasks. For companies, Axol can be deployed on mobile bases or lifts for factory automation scenarios requiring flexible manipulation. The platform's open-source nature allows customization to specific application requirements, such as changing end-effectors or arm specs. Users report reduced time from concept to deployment, with the robot performing reliably in production-like environments.
Target users for Axol are builders, AI researchers, robotics engineers, and developers focused on physical AI. The platform supports Linux-based development and integrates with standard robotic frameworks via its Python SDK and ROS-like capabilities. Pricing starts at $7,999 for the Axol robot (launch discount), with the Axol Kit at $11,999 including cameras and compute, and the Axol Base at $999 for mobility. Almond also offers customization, data collection, and repair services. Axol ships within one week from San Francisco and is assembled in the USA. In summary, Axol provides a powerful, accessible, and open platform for advancing physical AI from research to real-world deployment.
Axol is built for AI researchers, robotics engineers, and developers working on physical AI applications. It is ideal for academic labs studying bimanual manipulation, companies deploying automation in production environments, and startups building AI-driven robotic systems. The platform also serves hobbyists and makers who need an open, powerful robotic arm for experimentation. Backed by Y Combinator and assembled in San Francisco, Axol is designed for users who value high-quality hardware, open-source software, and a ready-out-of-the-box experience. Target segments include manipulation researchers, imitation learning practitioners, VR teleoperation developers, and integration engineers looking to customize hardware for specific tasks.