An integrated optical device splits pump light between two interferometer arms to generate entangled photon pairs through path manipulation.
A ZnS1-xOx core/shell quantum dot structure enhances conductivity and brightness in light-emitting diodes.
A diffraction grating with wavelength-dependent optical permittivity guides white-light beams to a waveguide.
Composite particles with luminescent nanoparticles uniformly dispersed in a thermally conductive inorganic material.
An integrated optical member combines quantum dot conversion and a reflective filter layer to eliminate the yellow ring phenomenon in liquid crystal displays.
Segmented support strips maintain structural stability while minimizing transmission loss disruption to the photonic band gap structure.
Non-stoichiometric quantum dots emit mid-infrared rays via intra-band electron transitions.
Metamaterial structures convert optical signals between modes to increase communication capacity while reducing manufacturing complexity.
Stacked mesa layers transform narrow core light distribution to wider fiber mode, resolving coupling loss while maintaining confinement.
A heavily doped semiconductor substrate forms a tunnel junction with seed islands to enable efficient current passage through the optoelectronic device.
A light emitting device uses a low-temperature buffer layer to reduce lattice mismatch in semiconductor structures.
A germanium photodetector structure achieves high gain and speed at low voltage, reducing power consumption in optical communication systems.
A semiconductor optical device uses a graded cladding layer to attenuate guided light and stabilize the lasing wavelength.
Active color conversion material replaces passive filters, boosting light output efficiency by two to four times.
A plasmonic optical waveguide couples a nano-aperture with a metal nano-particle to amplify light intensity.
An indium zinc phosphorus core combined with a zinc sulfur shell enables efficient blue light emission while eliminating environmental toxicity.
A cadmium-free core-shell quantum dot uses zinc tellurium selenium and sulfur layers to emit red light with high luminous efficiency.
Electrospray ionization deposits charged quantum dots onto targeted microscopic areas, eliminating organic contamination from photoresist or carrier liquids.
An insulating layer between charge transfer and emission layers balances hole and electron injection in quantum dot LEDs.