Run Robotics Unveils Centaur Robot for Dangerous Environments

Chinese robotics company Run Robotics has introduced a new hybrid platform, which they describe as a "centaur robot." This system features a humanoid upper body mounted upon a wheeled-legged lower body. The configuration aims to address inherent limitations regarding endurance and stability often observed in conventional industrial robots. It is designed for operations within demanding and dangerous environments, including areas within steel mills, active mines, and future space operations.

Credit: RUN ROBOTICS

The robot employs a distinct configuration featuring four wheeled legs and two arms, enabling effective navigation across varied and complex terrains. Traditional wheeled robots commonly encounter difficulties with obstacles such as stairs and loose debris on the ground. Conversely, humanoid robots are known for their high energy consumption, which limits their operational duration. Run Robotics' design combines these distinct approaches, allowing the machine to achieve rapid movement across smooth surfaces and to traverse rugged ground with equal capability.

Active suspension is integrated into each leg, allowing independent adjustment of height and position. This advanced mechanism is designed to absorb sudden bumps and consistently maintain the robot's balance while it moves over uneven surfaces. And, this continuous adjustment occurs without the need for the system to pause or reconfigure itself during transit. Independent joint locking further enhances the robot's operational resilience. This critical feature ensures the machine remains mobile even if a wheel sustains critical damage, a common risk in harsh operational zones.

Should such damage occur, the machine can precisely shift its centre of gravity, enabling it to walk or limp out of a hazard zone if the situation demands it. The system is engineered to support a dynamic payload capacity ranging from 100 to 120 kilograms while actively navigating particularly rough environments. For static applications, where the robot acts as a stationary base, it possesses a substantial capacity of 210 kilograms, facilitating its use as a stable platform for heavy equipment.

Technical specifications for the platform include more than 30 free-moving joints and advanced tactile sensing dexterous hands, allowing for intricate manipulation tasks. The system delivers a robust 930 Newton metres of torque, providing considerable power for its movements and actions. But, a sophisticated sensor fusion based head assembly provides essential data for its environmental perception and operational decision-making. The robot operates using an embodied artificial intelligence foundation model. This model facilitates end-to-end environment perception, crucial for its autonomous functions in complex settings.

The platform incorporates a system-level explosion-proof design. This construction permits its safe deployment in highly hazardous industrial areas and potentially volatile space settings where safety is paramount. It also features multi-agent distributed collaboration capabilities, enabling coordinated action and shared task execution with other robotic units or systems. The robot is presently in its demonstration and industry showcase phase, according to Run Robotics and OTOFOOTAGE, with future deployment anticipated for emergency rescue operations, steel manufacturing processes, and mining activities.

• Hybrid design merges wheeled speed with legged terrain capabilities.

• Active suspension and joint locking enable mobility even with damaged wheels.

• Robot handles dynamic payloads up to 120 kg and static loads of 210 kg.

• Explosion-proof construction allows use in hazardous industrial and space settings.

• Embodied artificial intelligence and sensor fusion provide end-to-end environmental perception.