Lens-collimated VCSEL arrays and a diffuser spread lidar pulses across the sensor field of view while lowering power use and package size.
Non-overlapping small radiation spots enable parallel optical inspection, raising throughput while preserving measurement accuracy and alignment.
A colored inner layer with light-transmitting holes preserves seamless display appearance while the outer glass improves scratch resistance.
Angularly distributed hologram channels and pupil expansion widen the viewing area while keeping the display aperture compact.
Gain-loss photonic crystal layers suppress reflection and boost transmission for tunable, unidirectional electromagnetic stealth across microwave, terahertz, infrared, and visible bands.
Diffuse and reflective polarizing layers help whiteboard films block peeking while preserving visibility of text and projected images inside.
Controlled Sdr, antiviral agent content, and matting help the optical film provide antiviral performance without sacrificing visibility.
Asymmetric lens surfaces preserve quadrangular light diffusion while reducing diffraction and intensity variation in projection image displays.
Controlled layer refractive index and thickness reduce reflection and yellowness variation across display regions in folded viewing modes.
Aspect-ratio-limited convex features on a polyester optical sheet reduce friction and self-sticking while supporting easier backlight manufacturing.
Separating the light emitter from the diffuser enables diffuser changes without repackaging, while wire bonding limits contamination and collisions.
Sequentially driving light sources through cylinder-lens arrays balances stereoscopic depth and resolution while reducing optical crosstalk.
Absorptive filters waste light in small pixels; color routers direct each wavelength to its photodetector for efficient sensing.
Surface inclination control helps an anti-glare film suppress external and background reflection without a grainy appearance when displays are off.
An aperture stop blocks aberrating peripheral rays while waveguide replicas expand the viewing window and preserve holographic image quality.