Unitree H1

Unitree H1 is a full-sized, universal humanoid robot standing approximately 180 cm tall and weighing around 47 kg. Designed for superior agility, speed, and load capacity, it features a robust, stable, and highly flexible design with advanced powertrain technology developed in-house by Unitree. The robot’s leg joints have 5 degrees of freedom (hip with 3 DOF, knee 1 DOF, ankle 1 DOF) and arm joints have 4 DOF (expandable). It is equipped with high-torque articulation motors capable of delivering up to 360 N·m at the joints, enabling dynamic walking and running at speeds exceeding 1.5 m/s, with potential mobility beyond 5 m/s. Unitree H1 integrates a 360° perception system combining Livox MID360 3D LiDAR and Intel RealSense D435i depth camera, providing real-time high-precision spatial data acquisition for environment mapping and navigation. Powered by dual Intel Core i7-1265U processors, it supports advanced control and perception computing. Its industrial-grade crossed roller bearings and low inertia high-speed permanent magnet synchronous motors ensure high performance and durability. The robot is ROS-compatible and provides APIs and SDKs for flexible development, making it an ideal platform for research, development, and advanced robotics applications.

Unitree H1 performs agile bipedal locomotion, including walking and running on complex terrains with dynamic balance. It uses its multi-DOF legs and arms for dexterous manipulation and interaction with the environment. The robot autonomously navigates using its 360° depth perception system, avoiding obstacles and mapping surroundings in real time. It supports natural human-robot interaction through voice and facial recognition and can be programmed for diverse tasks in research, industrial automation, and service robotics.

• Research & Development: Provides a versatile platform for humanoid robotics and AI innovation.
• Industrial Automation: Supports dynamic locomotion and manipulation in manufacturing and logistics.
• Service Robotics: Enables interactive assistance and complex task execution.
• Education: Serves as a teaching tool for robotics and AI technologies.
• Inspection & Surveillance: Equipped with advanced sensors for environment monitoring.

Unitree H1 by Unitree Robotics is a next-generation full-size humanoid robot built for speed, agility, and advanced AI interaction. Designed with high-performance actuators and dynamic balance control, H1 delivers human-like movement with exceptional stability.

Ideal for research, automation, and commercial deployment, Unitree H1 combines cutting-edge robotics engineering with intelligent perception, making it one of the most advanced humanoid robots available today

Unitree H1 by Unitree Robotics is a high-performance humanoid robot engineered for real-world applications requiring agility, speed, and intelligent interaction. As one of the most advanced humanoid platforms from Unitree, H1 represents a major step forward in robotics innovation.

The robot is equipped with powerful joint motors and high-torque actuators, enabling fast and stable locomotion. With advanced balance algorithms and motion control systems, Unitree H1 can walk, run, and perform dynamic movements with precision. Its lightweight yet durable construction ensures both efficiency and robustness.

Unitree H1 also integrates AI-driven perception systems, including visual recognition and sensor-based navigation, allowing it to operate autonomously in complex environments. This makes it suitable for research institutions, industrial automation, and next-generation service applications.

Key features include:

• ? Full-size humanoid robot with high-speed mobility
• ? Advanced locomotion (walking, running, dynamic balance)
• ? AI-powered perception and navigation
• ⚙️ High-performance actuators and joint systems
• ? Ideal for research, development, and commercial use

Unitree H1 is designed for the future of robotics—offering unmatched performance, flexibility, and scalability for businesses and innovators looking to integrate humanoid robots into real-world environments.