Unitree H2 Intelligent Bionic Humanoid Robot

Elegant whole-body articulation with next-generation high-torque actuators for dynamic, precise humanoid performance.

The Unitree H2 Humanoid is Unitree’s latest full-size humanoid robotics platform, designed for advanced research, motion control development, service robotics experimentation, and educational use. Built using industrial-grade materials and a reinforced mechanical structure, the H2 is engineered for high durability, strength, and stability in demanding operating environments.

The Unitree H2 features a vision-based perception system centred around Dual-Eye Cameras enabling environmental awareness, balance control, and visual interaction. The base system is powered by an Intel Core i5 processor, providing reliable onboard computing performance for locomotion control, perception processing, and user-level development without the need for additional accelerator platforms.

Standing at 1.8 Meters tall, the UniTree H1 humanoid is built to achieve a human-like form factor and height, Its proportionally designed limbs and torso enable natural bipedal movement, supporting highly coordinated whole-body motion such as elegant dance routines and complex fighting techniques, demonstrating precise balance, timing, and full-body control.

The H2 delivers significantly enhanced motion capability through high-torque joint actuators and a refined whole-body control architecture With an increased number of degrees of freedom across the arms, legs, waist, and head, the robot is capable of smooth, expressive, and highly responsive movement, allowing it to stabilise rapidly during complex or unexpected motion scenarios.

In its standard base configuration, the Unitree H2 is supplied without dexterous hands, instead using simple end-effectors optimised for locomotion and full-body motion research. Dexterous hand systems are available as optional upgrades for users requiring advanced manipulation and interaction capabilities.

The Unitree H2 is equipped with a quick-swap battery system, supporting extended operation depending on workload and enabling minimal downtime between sessions. This modular power design ensures the H2 remains suitable for long research cycles, demonstrations, and continuous development environments.