Here we calculate exactly the conductance energy and current voltage characteristics as functions of the ring-to-electrode coupling strengths, magnetic flux and gate voltages.
Here we numerically compute the conductance energy and current voltage characteristics as functions of the ring-to-electrode coupling strengths, magnetic flux and gate voltages.
The calculations are based on the tight-binding model and the Green's function method, which numerically compute the conductance energy and current voltage characteristics as functions of the ring-electrodes coupling strengths, magnetic flux and gate voltages.
All the calculations are based on the tight-binding model and the Green's function method, which numerically compute the conductance energy and current voltage characteristics as functions of the gate voltages, ring-to-electrode coupling strengths and magnetic flux.
Following preliminary studies, an experimental design was followed to develop mathematical models that describe bead characteristics as functions of the pH and the TPP concentration in the gelling medium.
We incorporated the agitation and aeration rate of the pilot-scale fermentation into the dynamic models so that we could study mass transfer characteristics as functions of superficial gas velocity and agitation power for each run.
The methodology utilizes the Advanced Compact MOSFET (ACM) model and the gm characteristic as function of the NMOS transistor drain current ID.
The separation characteristics were determined as function of operating conditions such as concentration, temperature, permeate and feed pressure.
