Nano-structured routing filters separate light into four bands to improve color accuracy while reducing optical component complexity.
Segmented optical elements with bent teeth resolve the trade-off between simple structure and versatile beam shaping while concealing semiconductor chips.
Faceted lateral surfaces cross light beams inside the lens to ensure uniform illumination, eliminating irregular distribution and bulky cooling components.
Beam shaping components combine multiple laser beams into a single output with a predetermined intensity profile along the horizontal axis.
An asymmetric illumination lens with elliptical profiles refracts light to reduce Fresnel reflections and resolve uniformity issues in thin 16:9 backlights.
Dynamic scanning concentrates light intensity on specific areas to improve depth resolution at long distances without increasing electrical power consumption.
A structured lens and angular filter redirect divergent light from an emitter array, resolving Lambertian waste for efficient far-field imaging.
Adjustable reflecting surfaces in a backlight lens redirect light to optimize viewing angles and intensity across large displays.
A laser illumination system uses a MEMS mirror and cylindrical lens array to shape light beams into flat-top distributions.
A color mixing lens assembly uses a center kick structure and plated surface to redirect electromagnetic radiation through an exit surface.