Head-worn optics, multi-wavelength lighting, and linked image capture enable real-time magnified viewing during procedures without bulky microscopes.
A head-worn magnification and lighting setup enables real-time image capture under white, UV, or IR light without bulky stationary microscopes.
A passive prism overlay lets eyeglasses reflect a smartphone screen into normal sight, reducing AR headset bulk while preserving awareness.
A spiral ribbon circuit around the hinge core spreads bending strain and helps shield electronic eyewear connections from hinge contamination.
Elastic lens-seat retraction lets corrective lenses snap into place with a stable gap, reducing manual alignment effort and lens damage.
A snap-fit additively manufactured frame hides cameras, fits different head sizes, and improves comfort and eye-tracking accuracy.
A vertical movement unit lifts auxiliary lenses above the main frame to keep eye level stable, reduce wobble, and avoid visual obstruction.
An adhesive reading lens attachment adds near-vision support to sunglasses or protective eyewear, reducing the need to carry multiple pairs.
Segmented primary and peripheral lens areas combine clear central viewing with diffused side imagery to make VR scenes feel more immersive.
A two-shot injection process forms clear sensor and illuminator lenses with an opaque dam, preserving optical separation in compact HMDs.
Two-shot molding integrates clear sensor optics with an opaque dam to limit light leakage.
A passive prism combiner overlays smartphone images on scenery without bulky AR hardware.
A nose-bridge-mounted floating frame separates waveguides from frame flexing, preserving binocular AR alignment and protecting displays.
Detachable temple tips stabilize head mounted displays by distributing weight and reducing ear interference.
Ball and socket joints in the lens holder allow real-time magnification changes to resolve strain from fixed optical systems.
A single driving motor synchronizes left and right lens barrels via a linkage member, eliminating dual motors to cut power consumption and control costs.
Surface markings on the lens define imager position relative to correction parameters, eliminating overmolding and reducing lens thickness.
Segmented face shields with strategic openings allow unobstructed loupe use while maintaining protection against hazardous aerosols.
A multi-layer experiential optical device uses low tack pressure-sensitive adhesive to reversibly adhere to optical lenses.