A high-refractive-index light collection layer concentrates incident photons into underlying color filters to boost quantum efficiency.
A display panel uses transparent photoresist for both filters and planarization layers to ensure uniform thickness.
A yellowish photoresist color filter increases optical transmittance through fluorescence.
Replacing cadmium with indium and aluminum in the core reduces toxicity while maintaining high luminescence efficiency through precise shell thickness control.
An acid group-containing copolymer stabilizes quantum dot dispersion in photoresists, preventing agglomeration during heat treatment.
A four-piece infrared lens system uses specific refractive power distribution to achieve wide field of view and high resolution.
Segmenting the lens system and adding a replaceable protective film resolves the contradiction between miniaturization and wide-angle performance reliability.
A transparent metal layer connects to a substrate metal layer through a patterned through hole in the black matrix.
Perforated optical element between glass panes transmits light by angle of incidence while blocking direct solar radiation.
A prefabricated generic stamp with micro-grating arrays creates structural color pixels through selective imprinting.
A composite optical filter combines dielectric multilayer films with a resin substrate containing a near-infrared absorbing dye to control spectral transmittance.
Segmented dielectric layers selectively absorb harmful 420-470 nm blue radiation to protect eyes without reducing display brightness.
A cyanine dye-based photosensitive resin composition achieves high luminance and contrast ratios through photopolymerization.