Introducing a dielectric region between the gate and source/drain regions lowers capacitive coupling without sacrificing device density or switching speed.
Segmented wells at varying depths detect specific wavelengths while deep trench isolation prevents crosstalk, enhancing quantum efficiency.
A light source assembly merges the transistor drain terminal with the LED cathode to enable precise brightness control.
A transistor structure uses a barrier layer between the silicon substrate and III-V channel to reduce on-resistance.
Shorting shield electrodes to P-body regions via metal strapping shrinks the termination area while maintaining high breakdown voltage.
Annealing an AlN buffer layer eliminates epitaxial wafer warp caused by crystal lattice stress, improving internal quantum efficiency.
Multi-layered gate insulating layer stabilizes Dirac voltage and maintains hole mobility by reducing moisture-induced doping.
Graded impurity profiles in the second semiconductor layer minimize current leakage while shortening the turn-off period.
A second metal film covers the silver electrode and dielectric film, reducing leakage current and improving breakdown voltage while maintaining high brightness.
A UVC-LED structure uses segmented electron blocking layers with varying magnesium concentrations to control carrier injection.
Reverse-tapered AlGaN regions stabilize normally-off characteristics and achieve high threshold voltage for reliable operation.
Oxygen doping in p-type and electron blocking layers boosts carrier concentration to improve light output while suppressing impurity diffusion.
Strained AlGaN layers decouple hole injection from UV absorption to boost light extraction efficiency.
A semiconductor memory charge storage film upper cover protrudes to control process distribution.
A transparent electrode layer with concave and convex micro-lens structures enhances current spreading across the light emitting diode active area.
Triangular LED substrates reduce internal reflection and current crowding to boost brightness by 2.79%.
A lateral bipolar transistor uses a raised collector and polysilicon emitter to reduce base resistance.
A trench gate semiconductor device uses a convex p-type layer to improve breakdown voltage.