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    Unitree Go2 EDU U3 with Livox MID-360 LiDAR mounted on top – main product image on white background

    Unitree Go2 EDU U3

    Unitree Go2 EDU U3 with Livox MID-360 LiDAR mounted on top – main product image on white background
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    Unitree Go2 EDU U3

    €16 399.59
    €13 553.38 excl. VAT

    Unitree Go2 EDU U3 is a top-of-the-line quadruped mobile robot ("robot dog") designed for research, education, and advanced development in robotics and AI. The EDU U3 variant offers open access to low-level joint control, support for ROS/ROS 2, C++/Python SDK, a rich sensor suite (4D LiDAR, HD camera, IMU), and high-performance drives for dynamic walking, running, and demanding terrain tasks. Ideal for universities, research labs, industrial development, and innovative R&D projects.

    Availability:On backorder

    €16 399.59

    On backorder

    Product Description

    Unitree Go2 EDU U3 is an advanced second-generation quadruped mobile robot from Unitree Robotics, designed specifically for the academic sphere, research institutions, and industrial development. The EDU version unlocks full access to developer interfaces, allowing for the implementation of custom algorithms for gait control, environment perception, autonomous navigation, and advanced AI collaboration.

    The U3 variant represents a more equipped configuration of the EDU series – compared to the basic EDU U1/U2, it offers an expanded sensor and communication suite and higher readiness for demanding applications such as SLAM, autonomous exploration, object inspection, or multi-agent system research.

    Key Benefits

    • Open Development Platform – access to low-level joint control, API and SDK for C++ and Python, support for both ROS 1 and ROS 2.
    • Rich Sensor Suite – integrated 4D LiDAR for 360° environment perception, wide-angle HD camera, IMU, and other sensors for robust localization and navigation.
    • High Performance and Dynamics – up to 12 degrees of freedom (3 per leg), powerful electric motors, and proprietary planetary gearboxes for stable walking, fast running, and handling uneven terrain.
    • Advanced Navigation and SLAM – ready for 3D mapping, autonomous trajectory planning, and real-time obstacle avoidance.
    • Full Support for AI and Robotics Research – ideal for reinforcement learning (RL), computer vision, multi-sensor fusion, human-robot interaction, and other experiments.
    • Industrial and Academic Deployment – suitable for university laboratories, research institutes, industrial R&D centers, inspection, and demonstration projects.

    Applications

    Unitree Go2 EDU U3 is primarily used in the following areas:

    • University Teaching and Research – robotics courses, mobile robots, motion control, machine learning, computer vision.
    • Autonomous Navigation Research – GNSS-denied environments, indoor spaces, industrial halls, warehouses, libraries.
    • Inspection and Exploration – testing algorithms for checking objects, technical equipment, buildings, or hazardous areas.
    • AI and Multi-agent System Testing – multi-robot collaboration, remote control, deployment in simulation and the real world.
    • Demonstration and Popularization of Technology – presentation events, trade fairs, demonstration projects for partners and investors.

    Main Features

    • Quadruped Robot Construction with 12 degrees of freedom – 3 active joints on each leg.
    • Walking and Running Speed up to approx. 5 m/s (depending on configuration and control).
    • Integrated 4D LiDAR for 360° spatial perception and advanced SLAM.
    • Front Wide-angle HD Camera for visual navigation, object detection, and computer vision.
    • IMU and Other Sensors for measuring orientation, acceleration, and motion stabilization.
    • Communication Interfaces: Wi‑Fi, or mobile connection (4G/5G – depending on specific configuration), Bluetooth.
    • Developer Environment:
      • Official C++/Python SDK from Unitree,
      • support for ROS 1 and ROS 2 (packages for integration into custom ROS applications),
      • remote control and monitoring capability.
    • Advanced Control Algorithms – pre-configured walking modes and movement patterns, with the possibility of modification and expansion.
    • Wireless Control via controller or mobile app, with the option to combine manual and autonomous control.

    Technical Specifications (Overview)

    Note: Specific parameters may vary slightly based on the delivered configuration and manufacturer updates. The values below are based on official Go2 EDU series materials and available documentation for the U3 variant.

    Parameter Value / Description
    Model Unitree Go2 EDU U3
    Robot Type Quadruped mobile robot
    Degrees of Freedom 12 DOF (3 joints per leg)
    Maximum Speed up to approx. 5 m/s (depending on mode and terrain)
    Sensors 4D LiDAR, front HD camera, IMU, others
    Environment Perception 360° spatial obstacle detection
    Developer Interface C++/Python SDK, ROS 1, ROS 2
    Control Modes autonomous, semi-autonomous, manual
    Wireless Communication Wi‑Fi, BT, possible 4G/5G module
    Power Supply Exchangeable battery (Li‑ion)
    Typical Use Research, education, industrial R&D, inspection

    Who is Unitree Go2 EDU U3 Suitable For

    • Faculties and Departments of Robotics, Mechatronics, Cybernetics, and AI.
    • Research Institutes focused on mobile robots, exploration, autonomous systems.
    • Industrial Enterprises and Integrators building custom inspection or logistics solutions.
    • Lab Environments testing RL, SLAM, navigation, and multi-sensor fusion algorithms.

    Thanks to open control access and a rich sensor suite, Unitree Go2 EDU U3 is an excellent choice for anyone looking to realistically deploy and test state-of-the-art control and perception algorithms for quadruped robots.

    Key Features:

    • Open EDU platform with low-level joint control access and a powerful SDK.
    • C++/Python and ROS 1/ROS 2 support for easy integration into existing research projects.
    • Integrated 4D LiDAR and HD camera for advanced environment perception, SLAM, and computer vision.
    • Dynamic walking and running, 12 DOF, and powerful drives for challenging terrain and testing advanced algorithms.
    • Suitable for universities, research institutions, and industrial R&D projects.
    • Flexible wireless communication and the ability to combine autonomous and manual control.