Co-packaging a photonic engine and laser die shortens optical paths, removes extra silicon substrates, and improves heat dissipation.
A pivotable rear tray stores excess fiber with bend control and interlock access, reducing damage and signal loss in splice closures.
A movable cage portion contacts the heat sink during connector insertion, simplifying thermal coupling while saving space and parts.
An array of beam-shaping units expands illumination coverage and cuts aperture truncation, reducing divergence and power loss in beam combining.
A large-diameter fiber section with a tapered sloping surface strengthens glass block bonding and diverts reflected light in laser systems.
Vertical reflectors and interposer waveguides improve optical coupling efficiency and alignment tolerance in compact photonic-electronic packages.
Metal-layer bonding replaces UV adhesive to improve heat dissipation and alignment stability in integrated optical waveguide modules.
Sealed daisy-chained optical tap terminals use hardened connectors and gel-sealed ports to improve outdoor durability and simplify installation.
A tapered sidewall coupler with stacked cores bridges thin waveguides and thick photodetector absorption layers to improve coupling efficiency.
Double-sided then single-sided etching reshapes glass vias to reduce undercutting and free opening diameter from substrate thickness.
An angled waveguide-to-absorber interface redirects reflected light, improving responsivity and quantum efficiency while lowering dark current.
Parallel microLED and photodetector arrays enable dense chip links with lower power and complexity than laser or electrical interconnects.
Integrated photonics and electronic dies with micro-lenses, mirrors, and waveguides cut PCB area and power while enabling high-bandwidth links.
A lower-index bulk region isolates adjacent emitter and detector paths, reducing light leakage and cross-talk in compact electronic devices.