Generally, AC electric field distribution depends on relative permittivity of dielectric materials but in case of DC, electrical conductivity of dielectric material is a dominant factor which determines electric field distribution.
In a recent paper, Wang and Pilon [Electrochim. Acta 63 (2012) 55] claimed that electrochemical impedance spectroscopy (EIS) has intrinsic limitations in determining electric double layer capacitances at electrode/electrolyte interfaces.
Thus, the tolerance factor in the perovskite was the most dominant factor to determine electric and/or magnetic properties in most manganese oxides and nickelates [10 12].
The solutions of Equations (1) and (2) provide us with single particle or mean field Green's functions, which describe scattering of particles and densities of states, and through particular choices or re-definition of the energy parameter, they also determine electric potentials and exchange interactions.
The amount of excitable cells within each electric organ determines the electric potential of an EOD, which can range from few millivolts to several hundreds of volts (e.g., in the electric eel Electrophorus electricus) [ 3].
The minimum ignition energy and flame spread velocity of layered Ti powder mixed with different percentages of TiO2 were determined using electric spark ignition.
The electrostrictive behavior was determined from electric field induced strain, observed with a photonic displacement apparatus in the film thickness direction.
Orthogonal array was designed to optimize the operation parameters of 3DER, which was determined as electric field intensity 1 V/cm, filling amount of TiO2-SiO2/GAC particles 200 g/L, electrolytic concentration (Na2SO4) 0.07 mol/L, pH 3, treatment time 120 min.
In a third step, it is determined the electric power amount to be drained off the battery of every quadcopter for a given route depending on the weight carried, distance covered, number of workstations visited and the quadcopter aerodynamic efficiency.
