An asymmetrical triple barrier structure was grown with a δ-layer of boron impurity in the center of a narrow quantum well.
The residual internal stress of such organosilicon/SiOx barrier structure was significantly lower than that of a single SiOx film deposited directly on the substrate.
An organosilicon/silicon oxide (SiOx) multilayered barrier structure was consecutively deposited onto the polyethylene terephthalate (PET) substrate by plasma-enhanced chemical vapor deposition (PECVD) using tetramethylsilane (TMS) monomer and TMS oxygen gas mixture, respectively.
In brief, the back-to-back Schottky barrier structure is composed of two inversely connected Schottky barriers, and the current in this structure is dominated by the reverse current of the reverse-biased Schottky barrier.
One possibility is that once the cuticle barrier structure is formed shortly after eclosion the adult epidermis becomes dispensable for survival.
The barrier structures are designed to limit dark current associated with Shockley Read Hall (SRH) generation recombination processes and to decrease influence of surface leakage current without impeding photocurrent.
The spin resonant tunneling through a semiconductor double-barrier structure are investigated by solving static Schrödinger equations.
The improvement on the structural quality and surface densification of the organosilicon/SiOx barrier structures was discussed and observed from their chemical bond configurations and surface morphologies.
Each part of the barrier structures is studied in order to achieve optimal device operation at 150 K and 77 K, in the midwave and longwave infrared domain, respectively.
A metal oxide semiconductor memory device with NiSi nanocrystal Al2O3/SiO2 double-barrier structure was fabricated.
According to our previous reports on the current transport behavior of semiconductor nanowires [41, 42], the nonlinear transport behavior in Fig. 4 indicates that the CdS nanoarrays make two Schottky barrier contacts with the two Pt electrodes, and a back-to-back Schottky barriers structure is formed.
