Boston Dynamics Unveils New Atlas Hand for Industrial Tasks

Boston Dynamics has unveiled a new four-fingered hand for its Atlas humanoid robot, engineered for industrial tasks and mass manufacturing. The hand, announced on October 1, 2026, features 13 degrees of freedom and dense tactile sensing for precision manipulation in manufacturing and logistics environments.

The four-fingered hand features 13 degrees of freedom, direct actuation, and tactile sensing for precision manipulation. It uses 13 identical, fully encapsulated actuators with no fragile cables crossing the joints. Each of the three non-thumb fingers has three degrees of freedom, while the opposable thumb has four. The hand is roughly the size of a large human hand and incorporates backdrivable transmissions. Dense pressure-sensitive tactile sensors on the fingertips and palm work alongside internal joint measurements for movement, position, and applied forces, enabling proprioception and improved control. This design supports pinch grasps, tripod grasps, and controlled thumb movements.

Built for real-world use

Engineered for strength, durability, and tool compatibility, the hand can lift heavy loads and operate industrial equipment. The production Atlas robot is rated for an instantaneous payload of 110 pounds and a sustained payload of 66 pounds. The company demonstrated the hand carrying a loaded mini-fridge weighing more than 100 pounds. It is designed to handle tools including drills, grinders, nail guns, torque drivers, and welding torches. The intent is to manipulate objects, recover from slips, and operate tools, providing sufficient dexterity for useful physical work rather than replicating all human hand capabilities.

Designed for simulation and scale

Optimized for sim-to-real training and mass production, the hand prioritizes simplicity, modularity, and manufacturability. The four-finger design with 13 degrees of freedom represents an increase from seven in the previous generation. This architecture was built for high-fidelity simulation to enable reinforcement learning. Simulations can reproduce variations in friction, motor behaviour, object shapes, and external disturbances.

The decision to use four fingers instead of five was deliberate. Testing showed four fingers were sufficient for expected tasks. Adding a pinky would require three additional actuators, increasing cost, size, and failure points. The design philosophy emphasizes simplicity to increase the velocity of experimentation and deployment. Modularity and actuator maturity were learned from Atlas’s body design. The hand supports precise pinching, three-point grips, and repositioning objects within the hand.

Context and next steps

While tested internally, full fleet deployment requires coordination, and the hand is part of broader industrial readiness efforts. The hand was tested internally at Boston Dynamics headquarters but has not yet been deployed to the full robot fleet. Deployment requires coordination to avoid disrupting ongoing data collection or applications.

The design process considered tradeoffs between dexterity, strength, ruggedness, cost, reparability, and sensing. Alberto Rodriguez, director of robot behavior for Atlas at Boston Dynamics, led the development. Brendan Schulman, vice president of policy and government relations at the company, will participate in a panel on 'Reshoring With Robots: A Policy Discussion' at RoboBusiness 2026 in Santa Clara, California, on October 20 and 21.

Boston Dynamics and Hyundai are training Atlas at a dedicated facility in Georgia on manufacturing and logistics tasks. The announcement does not establish that Atlas can autonomously perform every industrial task demonstrated, as such applications require additional control, positioning, and workplace safety capabilities. The company has not announced a separate commercial price or deployment timetable for the redesigned hand. The hand is intended for eventual large-scale manufacturing deployment as part of Boston Dynamics' wider Atlas industrial readiness programme.