Hall sensor detects temple folding to automatically switch power states, reducing battery drain from forgotten manual shutdowns.
Housing modules consolidate electronic components within spectacle frames, reducing manufacturing complexity while maintaining aesthetic appeal.
A camera pipeline adjusts resolution dynamically to balance image quality and power consumption in augmented reality eyewear.
Overmolded flexible gasket seals eyeglass temple cavity, preventing delamination and water ingress while maintaining structural integrity.
Slidable mounts reposition speakers along a flexible band to resolve fit contradictions in wearable electronic displays.
A rechargeable lithium ion battery integrates into an ophthalmic lens via actinic radiation polymerization of a reactive monomer mixture.
Segmented temples bend around ears to improve fit without damaging rigid sections holding electronic components.
Non-parallel embedded coils harvest power and track orientation, resolving the trade-off between battery capacity and device complexity.
Segmented mesh electrodes increase communication sensitivity and speed while preserving visibility through transparent intervals.
A smart contact device uses specific terminal materials to enable electronic functionality in wet environments.
Eye-mountable device uses tactile sensors to adjust focal distance, compensating for presbyopia without complex mechanical systems.
Segmented visor and frame resolve profile thickness versus aesthetic appeal contradictions.
Wearable UV-C sources mounted on eyewear frames direct ultraviolet energy downward to purify air around the nose and mouth.
Integrated contact lens circuitry enables bi-directional data exchange through blink detection signals.
Cavities in temple arms accept detachable ornament members through threaded or pivoted interfaces, enabling diverse style combinations without tools.
An optical function controller adapts a programmable lens based on wearer activity data, eliminating the need for multiple pairs of spectacles.
A controlling circuit adjusts ophthalmic lens transmission using light and movement data from integrated sensors.
A polarization beam splitter and quarter-wave plate double the output angle of reflected laser light from a scanning MEMS mirror.