The Unitree Go2-W Inspection Wheeled Robotic Dog is a sophisticated robotic companion designed for versatile all-terrain navigation. It features an innovative in-wheel motor system paired with 7-inch pneumatic tires, enabling it to traverse a variety of surfaces with ease. This robotic dog is engineered to overcome obstacles up to 70cm in height and can climb stairs effortlessly, providing a robust solution for challenging environments.

Standing at a height of 70cm, the Unitree Go2-W is equipped with advanced technology, including a super-wide-angle 3D LIDAR and an HD wide-angle camera, which enhance its navigational capabilities. The robot is powered by an 8-core high-performance CPU, ensuring efficient processing and operation. Its aluminum knee joint motor delivers a maximum joint torque of approximately 45N.m, contributing to its dynamic movement and stability.

The Unitree Go2-W offers a payload capacity of approximately 8kg, with a maximum speed of 2.5 meters per second. It is capable of handling a maximum climb angle of 35 degrees, making it suitable for a wide range of applications. The robot supports various connectivity options, including WIFI6, 4G, and Bluetooth, and features a voice function for enhanced user interaction.

For extended functionality, the Unitree Go2-W supports secondary development and comes with an expansion module featuring a standard arithmetic module (Orin NX). It is powered by a long-endurance battery with a capacity of 15000mAh, providing an operational time of 1.5 to 3 hours, and can be quickly recharged with a fast charger.

Note: This product is a civilian robot, and users are advised to refrain from making any dangerous modifications or using the robot in a hazardous manner.

The Unitree Go2-W can perform on-site navigation mapping.

With its self-developed L1 LiDAR and dedicated mobile app, it is capable of building high-precision point cloud maps in real time. Once the map is created, users can set navigation waypoints, enabling the robot to perform autonomous patrol, auto-charging, and route-based movement.