Solid-state muscles
Central electromagnetic muscle arrays generate force, keeping the core actuation system together.
Project Hyperion
Solid-state muscles. Full-body sensing. Physical intelligence.
nMECH is developing a common robotics architecture for dangerous, demanding work. Machines that can expand what people can safely build, maintain and explore.
Pressure. Corrosion. Impact. Debris. Hyperion starts with the realities of physical work and an architecture intended to reduce complexity where the machine meets the world.
Central electromagnetic muscle arrays generate force, keeping the core actuation system together.
Tendons transmit force to the work. The goal is lightweight, simpler limbs with fewer vulnerable components at the extremities.
The architecture is designed to use mechanical response through the tendons as part of an integrated actuation and sensing system.
Engineering architecture in development. Calibrated force and sensing performance remain to be validated.
Standardize the machine. Specialize the tools. A shared architecture is being developed for different bodies, tasks and operating environments.
Focused manipulation in fixed or mobile installations.
Reach, tools and workspaces built around people.
Alternative bodies for mobility and stability.
Configurations shaped by the work.
Proposed configurations. Tooling, protection and deployment systems require mission-specific development and testing.
The long-term ambition is broad. The engineering path is specific: validate the core, demonstrate a useful task, then qualify the machine for its environment.
Intended application areas. Environmental resilience and operational capability are development targets, subject to testing.
Physical work demands more than a fixed sequence. Goals change. Observations are incomplete. Contact with the environment matters.
Hyperion is designed to combine perception, full-body sensing and intelligent control to understand its surroundings, respond to instructions and adapt its actions to the task.
Modeling, prototypes and staged evaluation guide the program. Each next step is defined by the evidence needed to move forward.
Measure force, motion, losses and sensing behavior under representative loads. Use the results to refine the muscle and tendon systems.
Bring actuation, limbs, feedback and control together in a representative task before expanding the configuration.
Test against the actual operating conditions. Establish reliability, maintenance requirements and useful performance through staged trials.
BUILD WITH US
We welcome conversations with engineering and manufacturing partners, prospective deployment partners, and investors interested in the next stages of validation.