A thermal conductive barrel structure transfers heat from internal sources to the lens of a wearable electronic device.
A retinal projection device uses a movable light source and MEMS mirrors to direct images outside the normal field of view.
A cooling management program assigns computing activities to smart contact lenses based on thermal patterns.
Nesting a micro-display within the frame reduces bulk while maintaining comfort, and tilting the exit window aligns the optical axis for natural viewing.
A master-slave smart contact lens system segments electronic components across two lenses to reduce power consumption.
An oscillator circuit correlates shared antenna electrode impedance with eyelid position to enable precise gaze tracking in smart contact lenses.
Temple-mounted double capacitive sensors detect wear status to reduce battery consumption while providing haptic feedback.
Pivot joints and adjustment screws align the display module to accommodate varying interpupillary distances while maintaining a slim eyewear profile.
Integrate photopolymer film into eyeglass lenses to resolve the trade-off between holographic image quality and device bulk.
Half cavities and reflective sidewalls in ultra-dense LED arrays concentrate stray light into projection optics collection angles.
A lens uses reflective facets to widen the exit pupil without diffractive elements.
A head-mountable device routes wires through rim cavities and a nose bridge cavity to secure components within the frame structure.
Light assembly with translucent cover illuminates eyewear retainers in low light, resolving visibility complexity trade-offs.
Segmenting the sensor into a rigid lens layer eliminates manufacturing complexity and misalignment while maintaining precise intraocular pressure detection.
A heart rate sensor mounts on an elastically flexible support element within the temple piece to maintain contact against the anatomical area.
A behind-the-ear hearing device integrates a thin acoustic tube through a spectacle adapter for direct sound transmission.
Motorized support legs adjust cushion pressure via motion sensors, reducing skin discomfort during static wear while minimizing shaking during dynamic movement.
A segmented eyewear restraint system uses a front chain and rear cord to secure optical devices on the head.
Smart contact lenses capture oculesics to augment voice commands, resolving low contextual understanding in standard assistants.
Segmented electrochromic lenses use distinct dye chemistries to independently control light transmission for user eyes and camera sensors.
Display-optimized lenses combine specific polarizers and spectral color filters to reduce sunlight brightness while preserving display color accuracy.
A lens integrates electrical components within its structure to reduce external obstructions.
Rotatable position adjusting end pieces resolve head size adaptability issues by enabling precise tilt and opening angle adjustments.
Optical eyewear monitors pupil behavior to detect blood sugar levels, replacing invasive finger pricking with non-invasive continuous measurement.
An adjustable lens module changes focal distance to exercise eye muscles during normal imaging activities.
Rotatable polarization filters tune incident light to block specific eigenpolarization states and transmit orthogonal states.