A photonic crystal cavity integrates a metal cladding layer to enhance thermal and electrical conductivity for efficient light emission.
A semiconductor component uses multiphoton absorption in an active zone to generate shorter wavelength optical radiation.
Reflective structures fold the optical path to expand beam diameter, resolving alignment tolerance issues and reducing manufacturing complexity.
Hybrid ring laser integrates two reflective semiconductor optical amplifiers with a symmetric power splitter to enable seamless component switching.
Folded optical path increases gain-structure incidences to boost pulse energy and enable wavelength tunability for multi-photon microscopy.
Three-dimensional photonic crystals with semiconductor rods achieve compact footprints and waveguide compatibility through dimensional transition.
Asymmetric waveguide angles on separate substrates guide laser light between chips without returning reflected beams to the source.
A directional coupler uses a dielectric core and polymer cladding to enable wavelength tuning via refractive index changes.
An optoelectronic data transmission device uses an electro-optic modulator to frequency-modulate pulsed laser light for high-speed signal transfer.
Segmented signal lead with varying diameters buried in sealing glass resolves impedance mismatch while maintaining processing stability.
A resonator fiber optic gyroscope introduces an offset frequency between counter-propagating optical beams to separate interference signals from the measurement band.
Segmenting the resonator from the substrate shortens the optical path to boost modulation speed while maintaining chip handling ease.
A resistive heating element on a laser substrate adjusts current flow to maintain optimal operating temperature.
Fully etched Z-cut lithium niobate waveguides paired with symmetric electrodes modulate transverse magnetic optical waves within microring resonators.
Optical amplification via facet alignment increases LIDAR output power, reducing coupling losses at waveguide interfaces.
Photonic crystal structures embedded in the amplifier suppress spontaneous emission, enabling clear image capture in ultra-low light conditions.
Back-side bonding of the gain medium enables hybrid laser integration while maintaining compatibility with front-side metallization fabrication processes.
A semiconductor device integrates an optically active material grown epitaxially within a crystalline seed layer embedded in a passive silicon substrate.