A contact layer with a graded aluminum composition ratio facilitates reflective electrode formation on nitride semiconductors.
Vertical trenches filled with control gate material expand the electron trapping stack area, reducing bit variation while maintaining storage density.
A finFET design uses segmented epitaxial patterns with varying germanium concentrations to enhance charge mobility in the channel region.
An undoped current-spreading layer replaces metal extensions to distribute current uniformly, reducing light absorption and boosting luminous intensity.
Gate spacers block ions while a dielectric cap controls depth, reducing channel impurities and enhancing carrier mobility.
Dividing grooves segment the light emitting structure to reduce scattering and improve efficiency.
A III-nitride high electron mobility transistor uses an optimized epitaxial stack to achieve high breakdown voltage and current stability.
V-grooves in monolithic LEDs lower indium concentration to relieve strain, enabling red light emission without efficiency loss from solubility limits.
A varactor hyper-abrupt junction region incorporates a superlattice layer of stacked semiconductor and non-semiconductor monolayers to enhance charge carrier mobility.
A high-k dielectric layer reduces the electric field in a semiconductor drift layer, enabling higher reverse breakdown voltages than Schottky junctions.
Integrating a SiC MOSFET with a SiC BJT reduces reverse leakage and boosts yield despite substrate defects.
Segmented spacers and a capping pattern shield gate electrodes from fluorine-based etching gas, preventing electrical shorts in dense MOSFET structures.
Angular selective dielectric mirror transmits specific radiation ranges to improve waveguide coupling while maintaining uniform chromaticity distribution.