Prototype
Infinity Hand
Daxo Robotics
PrivateRedefining robotic dexterity with ultra-redundant hands built for precision, resilience, and embodied AI.
Founded 2023$70M raised
Redefining robotic dexterity with ultra-redundant hands built for precision, resilience, and embodied AI.
Daxo Robotics is a robotics company specializing in ultra-dexterous robotic hands and advanced manipulation systems for humanoid robots. Rather than developing complete humanoid platforms, the company focuses on recreating the dexterity, precision, and resilience of the human hand through bio-inspired mechanical design and high-density actuation. Its flagship Muscle v0 hand uses an ultra-redundant architecture with 108 actuators and approximately 20 actuators per finger, enabling precise, compliant manipulation while remaining highly fault tolerant. Through graceful degradation, the hand continues to operate effectively even if a portion of its actuators fail, making it well suited for demanding industrial, research, and embodied AI applications where reliability and fine manipulation are critical.
Platform maturity, autonomy stack, and flagship-system specifications in one view.
A concise view of platform maturity and deployment footprint.
On its official site, Daxo presents its technology as an AI-driven autonomous robotic hand built around an ultra-redundant muscle array. The company explicitly argues that hardware not constrained by the human form can outperform more literal anthropomorphic designs in dexterity and reliability.
An Accelerate Humanoid Robot profile said Daxo had built a 108-motor hand in roughly 90 days and was pitching a radically lower cost structure than incumbent dexterous hands. That framing matters because Daxo is not only making a technical dexterity claim, but also an economic claim about how quickly high-actuator hands can be iterated and deployed.
On its official site, Daxo presents its technology as an AI-driven autonomous robotic hand built around an ultra-redundant muscle array. The company explicitly argues that hardware not constrained by the human form can outperform more literal anthropomorphic designs in dexterity and reliability.
In Roboticos dataset, Daxos Muscle v0 hand is tracked for using 108 actuators, including 20 per finger, to pursue extremely high dexterity. The key systems claim is graceful degradation: even after losing a share of its actuators, the hand is designed to maintain useful manipulation performance rather than fail outright.
