
Open hardware for embodied robotics
A mobile dual-arm research platform for data collection, teleoperation, and real-world embodied AI experiments.
Trusted by robotics developers and open-source communities worldwide
Open-source contributors worldwide
Transparent hardware and software stack
Community response and deployment support
Countries and regions in the community
AMR x OpenArm
Give OpenArm spatial autonomy
Evolve a desktop-bound tool arm into a mobile embodied agent that can move from lab demos into complex real-world tasks.

Full-space localization and dynamic perception
Move from fixed-position teaching to spatially adaptive robotics, with lidar navigation for centimeter-level positioning.
Extended operating radius and multi-point tasks
Dual-arm manipulation and long-range lidar path planning expand the robot beyond the limits of a desktop workspace.
Industrial-grade safety perception
Lidar-based navigation detects moving obstacles in real time, from people to pets, for safer operation in shared spaces.
Space-action training architecture
Chassis odometry, lidar point clouds, and arm joint poses are fused into richer spatiotemporal training data.
Deep openness and full-stack open source
Beyond APIs, the platform exposes low-level driver source code so developers keep full control of the stack.
Embodied model and simulation interfaces
Built-in Isaac Gym / MuJoCo interfaces and VLA model plugins connect the robot to modern embodied AI workflows.
FLAGSHIP PLATFORM
Mobile OpenArm X1
Dual 12-DOF arms on a high-precision, lidar-guided omnidirectional AMR base for mobile embodied AI research.

01 / OVERVIEW
A research-grade embodied AI platform
Mobile OpenArm X1 gives labs a 19-DOF robot platform for high-precision data collection, teleoperation, and embodied AI research.
02 / END EFFECTOR
Modular grippers for precise manipulation
The end-effector interface follows shared mechanical and electrical standards, supporting custom grippers and multi-position camera mounts.
03 / SOFTWARE
Ready for frontier embodied AI models
The software stack decouples hardware control while connecting upward to AI workflows, turning the machine into an evolvable agent.
PRE-ORDER PRICING
NVatom x OpenArm x ROS Education Foundation
Co-built for embodied AI research. Choose the deployment tier that matches your lab, then connect through the official hardware and software documentation.
Education
PRE-SALEM-OpenArm Edu
For university teaching, maker programs, and first embodied AI labs that need a lightweight open-source starting point.

- Lidar navigation + OpenArm
- Open documentation and software support
- Open-source teaching examples
- ROS + Python support
- Community support and deployment guidance
Research
PRE-SALEM-OpenArm Pro
For algorithm teams and advanced labs focused on policy validation, data collection, and publishable experiments.

- Lidar navigation + silent lift platform
- High-frequency data collection
- Embodied AI policy validation
- ACT and Diffusion Policy adaptation
- Software stack aligned with OpenArm
Max
PRE-SALEM-OpenArm Max
For long-horizon manipulation, full-scene navigation, and whole-body mobile operation research.

- Lidar navigation + bending structure
- 360-degree spatial turning
- 360-degree waist rotation
- Full-scene algorithm validation
- VR teleoperation and LeRobot framework
OFFICIAL CHANNELS
Buy and follow through official channels
Use the official store and social channels to purchase robots, follow updates, and verify the latest collaboration announcements.
PRE-ORDER NOW
NVatom x Open Hardware
NVatom lowers the barrier to advanced robotics by building a transparent, fully decoupled open-source hardware and software ecosystem. Complex robotic infrastructure becomes modular capability for researchers, universities, and makers.