Robotics

HEXEL modules combine soft and rigid components, enabling rapid reconfiguration. Magnets allow quick connections, adapting robots for various tasks and environments.

Cornell's sub-millimeter robots use kirigami to morph from 2D to 3D. 100 panels with 200 nanoscale hinges allow 40% size change via electrical stimulation.

Electro-hydraulic actuators mimic muscles, using oil-filled bags with electrodes. Voltage creates attraction, moving oil and shortening the bag, enabling paired movements.

Cornell researchers create biohybrid robots using fungal mycelia, enabling environmental sensing and responsive movement to light and touch.

MIT's zinc-air microbattery, smaller than a sand grain, powers tiny robots. It uses air to oxidise zinc, generating 1 volt for circuits and sensors.

Ornek develops AI robot guide dog IC4U using NVIDIA Jetson. Features sound sensors, 3D camera, detects objects, and assists shopping. Aims to help visually impaired navigate.