A functional layer imparts orbital and linear momentum on electromagnetic radiation to sort spectral components by wavelength.
Integrating excitation and detection in one semiconductor device eliminates separate sources, reducing electromagnetic bias and dielectric breakdown risks.
Segmented spotlight arrays compensate for low ultraviolet LED power and nonuniform detector sensitivity, enhancing detection accuracy.
Threshold comparison circuit replaces ADC sampling to resolve ambient light detection accuracy versus power consumption trade-offs.
A high thermal conductivity intermediate layer transfers heat from optical device layers to bulk substrates.
Positioning the center of gravity over a sloped portion counteracts rail deformation from auxiliary equipment forces.
A segmented filter member passes fluorescence through a central area while blocking illumination light in the peripheral region.
A color filter device embeds an inorganic film into a passivation layer recess to reduce height differences.
Retainer brackets with multiple support elements adjust optical module spacing relative to a carrier, eliminating the need for separate modules.
Dual axis actuator configuration reduces power consumption by merging oscillation mechanisms for efficient light path shifting.
Ferromagnetic particles embedded in the cladding of an optical fiber Bragg grating enable direct magneto-optic coupling.
Side surface grooves and white reflective sheets with high gloss direct scintillating light toward photosensors, increasing output by 30% to 50%.
Transparent multilayer stack integrates quantum dot sensitizing layer with CMOS image sensor to convert infrared radiation into visible light.
Replacing mechanical wire switches, the system uses optical detection to simplify operations and reduce device loss.
Planar lens protrusions control incident light phase to reduce vertical package height below 2 mm while maintaining optical performance.
An organic coating layer combined with multi-layered film structures reduces color shift and ghost images caused by incident angle variations.