A diffractive projection mirror neutralizes chromatic aberrations from microlenses, reducing optical complexity and manufacturing costs.
A near-eye display apparatus uses a segmented light guiding plate with diffractive gratings to route image light from an optical engine to the user's eye.
A projection lens third group maintains a constant distance to the light valve for stable image beam coverage across focal lengths.
A grating compound lens unit deflects light to intersect the optical axis, enabling paraxial imaging in a thin display device.
Multiple light distributions with intensity minima enable parallel fluorophore localization, reducing processing time compared to sequential scanning.
A subwavelength diffractive component uses microstructures to form an artificial material with varying effective indices for beam manipulation.
Integrating dielectric elastomer actuators with holograms enables dynamic adjustment of playback angles and wavelengths, replacing multiple static components.
A Fourier-beam shaper uses a waveguide and spatial converter to output light beams through different regions.
Stationary first lens unit anchors optical path, correcting chromatic aberration across wide angle to telephoto range.
A support structure with a reflection suppressing portion enables uniform alignment of photo-alignable materials during optical element manufacturing.
A diffractive grating separates light into orders focused simultaneously on an image plane, eliminating mechanical refocusing delays and sample disturbance.
Stacked lens configurations integrate metasurfaces with waveguide combiners, eliminating post-alignment processes and reducing device weight.
A three-element imaging lens uses a diffractive optical surface on a negative meniscus lens to correct chromatic aberrations.
Concave and convex light extraction patterns on planarization layers resolve total internal reflection to improve luminance and eliminate rainbow Mura.