A pancake lens assembly transmits ambient light through peripheral portions while directing image light centrally.
Segmenting microlenses into stacked arrays reduces manufacturing complexity and yield loss while enhancing depth resolution in plenoptic cameras.
A four-lens image pickup lens uses aspherical surfaces to correct aberrations while maintaining a compact form factor.
A metalens uses columnar microstructures with varying pitches to direct light wavelengths onto specific substrate positions.
Inverting the positive object-side group reduces lens length while maintaining perpendicular peripheral light incidence on the sensor.
Wafer-level meta-lenses replace bulky refractive optics with silicon metasurfaces, reducing camera thickness and weight while maintaining optical performance.
A five-element aspheric lens system adjusts light-focusing spots across wavelengths to extend depth of field in compact electronic products.
A variable focal length lens device uses a beam splitter to branch light into two paths for separate image sensors.
An imaging lens with alternating positive and negative refractive powers minimizes system length while correcting coma aberration for mobile cameras.
Distributing focal power across five lenses with aspherical surfaces corrects spherical aberrations while maintaining a large aperture.
An eight-lens optical imaging system uses specific refractive indices and focal length ratios to achieve high resolution.
Five-element aspheric lens assembly refracts light to correct spherical aberration, reducing total track length while maintaining optical performance.
A six-element optical imaging lens assembly uses aspheric surfaces to correct astigmatism and spherical aberration.
High refractive index adhesive guides image light through bonded lenses, overcoming total reflection limits for wide-angle viewing.
Aspherical surfaces in the first lens unit correct distortion and astigmatism, maintaining a wide field angle without increasing system size.
Injection-molded aspheric plastic lenses correct chromatic aberration and shading, reducing system size without sacrificing image quality.
Aspheric curvature ratios in a two-element lens assembly correct aberrations, reducing total track length while maintaining wide field of view.
Relocating the aperture stop between lens elements reduces stray light sensitivity and chromatic aberration in miniaturized mobile phone cameras.
A fluid lens incorporates thixotropic silica nanoparticles to increase cohesive energy and reduce gas solubility within the optical medium.
Flexible membrane actuators adjust liquid lens curvature without external fluid exchange.
Nested lens configuration with optimized thickness ratios reduces camera module height while maintaining high resolution across the field of view.
A six-lens camera design uses specific refractive power ratios to achieve a narrow angle of view under 50 degrees.
A three-element optical lens system uses aspheric surfaces with inflection points to correct aberrations and enhance image quality.
A five-element optical lens system balances refractive power distribution across aspheric surfaces to correct aberrations.
A lens-based optical window uses internally focused intermediate image lenses to project afocal images.
A five-element imaging lens configuration reduces system length through specific refractive power distribution and surface profiles.
A transparent display panel uses segmented optical patterns to concentrate external light and minimize diffraction effects.
An optical imaging lens with three elements and specific curvature ratios achieves an 87-degree field of view while reducing spherical aberration.
Photoswitch material in a deformable lens changes curvature via radiation intensity, eliminating the need for multiple fixed lenses.