Diffraction-based color separation redirects wavelengths, reducing light loss and preserving uniform color at oblique sensor edges.
This BSI image sensor case uses a low-refractivity polymer grid and higher-index color filters to improve QE and reduce crosstalk.
An integral barrel-base structure and aligned trimmed surfaces simplify assembly and support compact, high-quality imaging.
Controlled CuO and MoO3 levels support complete melting, blue-light transmission, and near-infrared cut filtering.
This image sensor uses perpendicular meta elements and phase modulation to direct polarized light, reducing optical energy loss.
Constant sidelobes support image reconstruction when sensor and scene aspect ratios differ.
Actuators, a guide ball, and magnetic fixing reduce sensor tremors while limiting camera module size and unpowered movement.
RGB-CMY display channels expand gamut, reduce metameric errors, and maintain compatibility with existing imaging equipment.
Multiple structure layers guide each color to its pixel, simplifying fabrication while preserving light reception and sensitivity.
Copper-ion phosphonic films target UV/IR cutoff limits while preserving visible transmittance.
Sputtered mirrors and grayscale-formed spacers improve filtering consistency while reducing wafer surface material waste.
Controlled semiconductor-particle and resin ratios preserve emission intensity and stability in thinner display wavelength-conversion films.
Bilayer optical coatings block selected visible wavelengths while preserving neutral reflection.
Different polarization directions across aperture regions balance light and limit crosstalk during multispectral imaging.
This optical filter separates cut wavelengths across two surfaces to preserve Hα transmission and reduce infrared ghosting and flare.
Repeated extrusion reduces commercial filler size toward a target, enabling uniform mixing in films that filter selected light wavelengths.
Layered display structures enable batch micro-LED transfer for high-definition displays.
Surface-modified quantum dots enable high-loading curable compositions with improved photoefficiency and inkjet processability.
Varying multilayer thicknesses and unpaired layers provide granular control of spectral range, bandwidth, and transmissivity.