A three-element photographing lens assembly uses aspheric surfaces to correct optical aberrations.
Four aspheric lens elements correct distortion at 140-degree fields of view without increasing device complexity or weight.
A six-element imaging lens assembly uses aspheric surfaces to control light projection angles.
Optimized aspherical surfaces correct distortion while reducing focal distance, resolving the trade-off between compactness and image quality.
A cyclic olefin-based copolymer lens achieves high refractive index through ternary unit formulation.
A six-element optical image assembly uses alternating refractive powers to correct aberrations and enhance light entry.
Five-lens optical imaging system with optimized radii ratios reduces device thickness while maintaining long focal length telephoto capability.
A four-element image pickup lens uses aspherical surfaces on negative and positive elements to expand the field of view beyond 200 degrees.
Nested third and fourth lenses reduce optical system length, enabling thin mobile terminal mounting without sacrificing resolution.
Nesting a shutter mechanism between lens elements maintains compact dimensions while correcting chromatic aberration through optimized Abbe number selection.
A numerical method derives a continuous lens surface curve from Snell's law to extend depth of focus while maintaining manufacturing feasibility.
First lens acts as aperture stop while aspherical elements correct aberrations to shrink full length.
A five-lens imaging system with specific refractive power ratios.
Fresnel optical facets fold the image beam path through multifunction glass, resolving space constraints and coupling errors in head-mounted displays.
Aspheric surfaces on multiple elements correct aberrations, enabling a shorter total length while maintaining high imaging quality.
Aspheric plastic lens elements balance refractive power to reduce total track length while correcting spherical and chromatic aberrations.
Curved hydrophobic surfaces enable bistable polar fluid positioning without continuous voltage, achieving high reflectance and saturated colors.
Iterative optimization adjusts freeform surface sag and curvature to resolve computational bottlenecks in wide-angle lens distortion control.
Stacked optical channels divide phase space to reduce bulky headset volume while maintaining wide field of view and full eyebox coverage.
A five-lens optical assembly uses specific Abbe number distributions to correct chromatic aberration and improve resolution.
A lens array camera uses relatively prime sensing elements and lenses to drive groups simultaneously for high resolution.
A fluidic lens uses a thermally deformable membrane to adjust inner space volume and maintain constant focal distance.
Spherical surfaces replace cylindrical geometry to prevent beam overlap and aberrations while maintaining high utilization efficiency.
A four-element aspheric lens system distributes refractive power to correct optical aberrations.
A plastic optical lens assembly incorporates defined-wavelength light absorbents to filter infrared radiation while maintaining visible light transmittance.
A liquid lens uses a truncated cone chamber and asymmetric electrodes to control the fluid interface position.
A fluidic lens applies membrane pre-tension to counteract gravity-induced asymmetries and maintain optical stability across varying orientations.