A tube-based adapter links an eyeglass loudspeaker cavity to a standard BTE hearing aid, enabling sealed, reliable sound transmission.
Selective photochromatic and non-pigmented acetate layers create repeatable eyeglass frame patterns without losing wet block manufacturing simplicity.
Insert-molded microphone integration in the frame improves sound pickup while keeping smart glasses compact, lightweight, and better sealed.
A bi-stable 4-bar hinge lets head-mounted arms adapt to different head shapes while protecting routed cables and maintaining secure positioning.
A lens-integrated HOE and front-mounted optical engine create virtual images while avoiding MEMS scanner bulk, eye-safety risks, and frame-bending errors.
Electrochromic lenses adjust absorbed wavelengths from sensor or user input to support mood, performance, and therapeutic use without static tints.
Control logic switches smart glasses between user-directed audio, ambient sound, and alerts based on wear status to reduce public disturbance.
Annular and regional strain gauges compensate for corneal irregularities to produce more accurate intraocular pressure distribution data.
By moving the speaker to the mounting member and routing sound through the hinge area, this case avoids thick temples and complex wiring.
Magnetic flux pulses from eyelid motion let a smart contact lens determine its position and adjust dioptric power without cameras.
A support seal confines low-pressure mold flow to encapsulate electronics, hold component position, and avoid enclosure surface defects.
Multiple annular and regional strain gauges compensate for corneal irregularities to improve intraocular pressure mapping accuracy.
A removable adhesive silicone chamber adds localized eye humidity on standard eyeglass lenses, avoiding permanent frame changes for dry eye relief.
Concentric hinge rings route the power and data cable through electronic eyeglasses with minimal bending, torsion, and jamming.
Splitting processing across two temple-mounted SoCs improves eyewear thermal balance, raises compute capacity, and simplifies interconnects.
A spring-biased extender lets smart-glasses temples hyperextend for a more stable, comfortable fit across different head sizes.
Sensor-driven lens power switching adapts headset optics for near viewing, low light, and eye fatigue to improve user-specific visual comfort.
A variable-transmission lens uses illuminance-change thresholds and overshoot control to cushion abrupt light shifts and reduce wearer discomfort.
A movable sound relief hole shifts wave interference direction in smart glasses to adapt sound elimination zones and protect privacy.
A switchable lens shielding film hides camera holes when inactive and clears for imaging, improving smart glasses appearance and reducing discomfort.