A zoom lens uses segmented units with specific refractive powers to achieve wide angle of view and high magnification ratio.
A waveguide device uses polarizing units to guide light with sub-critical diffraction angles through diffractive optical elements.
A diffractive optical element on a lens surface controls ghost generation through specific focal length and curvature constraints.
Gradient refractive index lenses replace Fresnel optics to reduce headset weight while maintaining high-resolution imaging and wide field of view.
Two parallel DOE lens arrays split and modify light beams to reduce structural complexity and alignment difficulty in lithography exposure apparatuses.
A zoom lens first unit negative lens uses specific glass materials to minimize chromatic aberration of magnification.
Dielectric layers with periodic gratings enhance wavelength selectivity, resolving unwanted color blends while enabling high-quality multi-color imaging.
A monolithic eyepiece integrates a diffractive optical element with a reflective folding surface to correct chromatic aberration in head mounted displays.
A diffractive optical element disperses compressive stress through a segmented resin layer design.
Variable-width structures in concentric annulus sections reduce aspect ratios to maintain shape stability under environmental loads.
A reticulate grid element creates controlled fiducial spots in coronagraphic images to enable precise star location and intensity measurements.
A display device incorporates a light-transmitting member on an optical unit to manage image light paths.
A zoom lens uses a voice coil motor to drive the focus lens unit for rapid focusing.
SFSI illumination encodes axial profiles in Fourier space to improve resolution while reducing photodamage.
Varying grating heights in a diffractive optical element reduce flare light intensity while maintaining chromatic aberration correction.
A carrier substrate layer stack incorporates anti-lightguide surface structures to modify stray light propagation within optical components.
A planar waveguide directs symbology light to the viewer's eye while transmitting infrared scene radiation through its structure.
A segmented optical film recycles light via a reflective surface to prevent luminance deterioration caused by privacy-mode absorption.
Sinuous junction zones connect inclined line flanks to maintain optical performance and visual effects despite miniaturization constraints.
A liquid crystal cell uses a diffraction phase grating array to separate images for naked eye 3D viewing.
A variable magnification optical system uses moving lens groups to correct aberrations.
Optimized extender lens design reduces F-number without increasing weight, resolving trade-offs between magnification and optical reliability.
Varying waveguide widths in the array creates multiple coupling center wavelengths, expanding bandwidth from 3.8 THz to over 12.5 THz.
A finder optical system uses a multilayer diffractive element to correct aberrations and achieve a wide angle of view.