Shared terminals let the lens barrel and diaphragm move together while simplifying wiring, lowering camera module assembly cost and complexity.
Different polarization directions and wavelength-selective pupil filters cut aperture crosstalk while balancing light for multispectral imaging.
Phase-modulating nanostructures combine polarization filtering and pixel focusing to cut angle dependency and crosstalk in image sensors.
A transparent non-display panel region enables bottom light curing of frame glue, improving bond depth and supporting narrower bezels.
Two transparent layers in a through-hole package seal the light emitter while lowering internal reflection to improve display brightness and directivity.
Nonperiodic dielectric resonators compensate dispersion so multiple wavelengths share one focal point or angle with reduced chromatic aberration.
A core-shell Ag-In-Ga-S nanoparticle composition raises green-light quantum yield while narrowing FWHM and reducing trap emissions.
Mie resonance particles and isolation walls enable thinner color filters, simpler patterning, and lower crosstalk in image sensors and displays.
Phase-delaying scatterers and a micro lens array concentrate different wavelength bands to improve low-light sensitivity in compact image sensors.
Variable time-update cycles capture threshold-crossing photon counts while cutting memory bits and circuit area in low-light sensing.
A photo-memory optical sensor stores image data in-pixel, cutting transfer delays and power use for faster real-time vision processing.
Software frame correction and detector warping reduce distortion blur in MSIA and TDI scanning, improving sharpness and signal-to-noise ratio.
Photosensitive hole formation aligns micrometric optical elements with aperture layers without costly tools, enabling scalable optical system manufacturing.
Thin low-index spacers in a fully buried color filter array improve photodiode isolation and density while preserving photon capture.
Overlapping color filter layers into the non-display area smooth panel edge height, preventing optical film voids and appearance defects.
Fano resonance pixels reject selected wavelengths in a simpler dielectric structure, enabling precise spectral analysis with lower filter complexity.
An inorganic layer and spaced color filter patterns give the seal member stronger adhesion, blocking air penetration and external light reflection.