Axol is a dual-arm robot purpose-built for builders working on physical AI. As a complete, ready-to-deploy dual-arm robot, it empowers researchers and engineers to automate physical tasks without weeks of setup. Designed by Almond and backed by Y Combinator, each unit is assembled in the Dogpatch neighborhood of San Francisco, California, emphasizing hands-on craftsmanship. The robot's core value proposition is eliminating compromises: its seven-degree-of-freedom arms offer 860mm reach and 6.5kg peak payload, while an open-source SDK and VR teleoperation pipeline provide a seamless path from experimentation to production. This dual-arm robot addresses the gap between research platforms and industrial robots, offering a capable, open, and affordable solution starting at $7,999.
The concrete problem Axol solves is the limited workspace and singularities common in comparable dual-arm platforms. Many robots force users to reposition frequently or accept constrained trajectories, slowing down development and deployment. Axol's extra-long reach of 860mm per arm significantly outperforms alternatives like YAM (750mm) and WidowX (650mm), giving access to a wider area without moving the base. Additionally, full 180° pitch and yaw at the wrist dramatically reduces shoulder singularities, resulting in smoother, more reliable motions. This matters because physical AI tasks often involve complex, contact-rich manipulation over large volumes; Axol's design ensures fewer interruptions and higher throughput in production environments.
The first major feature group is the dual 7-DOF arms themselves. Each arm is independent with 860mm reach and 6.5kg peak payload, operated via USB-C CAN control at 500Hz. This high-bandwidth, low-latency interface enables precise joint-level control, critical for training and deploying learned policies. The two arms can work together for bimanual tasks or double the cycle time of a single-arm robot by operating on separate workpieces. Protected wiring with fully internally routed cables ensures cables are not damaged during motion, while modular wrists accept custom end-effectors or grippers. These design choices make the robot robust for repeated, long-duration use in real-world settings.
The second major feature group is VR teleoperation via WebXR. Axol supports teleoperation from any compatible headset, streaming hand and elbow poses over WebSocket. The system includes built-in data collection and recording modes, allowing operators to demonstrate tasks for imitation learning. This is useful because it provides an intuitive way to generate high-quality training data without programming complex motion sequences. Users can control the robot in real time, with natural arm movements translated to bimanual actions. The VR teleop pipeline is open source and integrated with the larger SDK, making it easy to extend or customize for specific data collection needs.
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The third feature group is the open-source SDK and software stack. The Python SDK and CLI include a bimanual inverse kinematics solver, low-level CAN motor interface, ZED camera streaming, LeRobot bindings, and a joint tuning toolkit. FAKRA GMSL 2.0 passthrough connectors allow wrist-mounted cameras for high-speed, low-latency machine vision. These capabilities integrate with existing hardware stacks, supporting custom sensors and peripherals. The software is hosted on GitHub under the almond-bot/axol repository, with documentation designed for extensibility. This open approach accelerates development cycles and enables the community to contribute improvements.
How the product works overall: Axol ships within one week and comes ready for deployment. The base model includes two 7-DOF arms with grippers, FAKRA ports, USB-C control, and a 1500W power supply. The Axol Kit adds a height-adjustable base, three ZED X One S cameras, a ZED Box Orin NX 16GB, and FAKRA cables. The workflow starts with raw joint control via the Python SDK, then leverages VR teleop for demonstration collection, and finally trains policies using LeRobot or other frameworks. The bimanual IK solver simplifies coordinated arm movements. This approach bridges simulation and reality, allowing iterative refinement.
Concrete use cases include data collection for contact-rich manipulation tasks. Almond offers a service where they collect high-quality labeled data in LeRobot format for customers' specific tasks. Another use case is teleoperation for remote manipulation, where operators control Axol from a VR headset to perform delicate operations. The robot's dual arms are ideal for tasks requiring bimanual coordination, such as assembly or material handling. With the Axol Base, the robot can be moved between workstations. Users achieve outcomes like faster cycle times, reduced downtime, and scalable data pipelines for training AI models.
Target users include AI researchers, robotics engineers, and startup teams building physical AI applications. Axol is designed for those who need a capable, open platform for research or production. It is assembled in the USA, with services like customization and on-site repair for SF Bay Area. Pricing starts at $7,999 for the robot alone, $11,999 for the full kit. The software stack supports Python, VR, and standard machine vision hardware. Summary: Axol provides the reach, payload, and open ecosystem needed to automate physical work effectively, making it a top choice for the physical AI community.
AI researchers, robotics engineers, and startup teams building physical AI applications. Axol is designed for those who need a capable, open platform for research or production. It is assembled in the USA, with services like customization and on-site repair for SF Bay Area. Pricing starts at $7,999 for the robot alone, $11,999 for the full kit. The software stack supports Python, VR, and standard machine vision hardware.