The shape of the electric displacement saturation zone is shown to depend on the transverse electric displacement.
An analytical model based upon electric field saturation concept along the crack front is proposed in an attempt to predict the fracture of piezoelectric materials containing conducting cracks.
An approximate analytical solution to the present non-linear crack problem is derived on the basis of the electric polarization saturation model together with the fundamental solutions for two concentrated loading crack problems.
In the present paper, the electric polarization saturation at the front of a thermally loaded penny-shaped crack in an infinite thermo-piezo-elastic medium is studied in both analytical and numerical manners.
By reversing the stacking sequence of the two layers, we could individually modify the electric resistance and saturation magnetic moment.
The viscosity increments δηon and δηoff, upon dissolving a liquid crystal polymer (LCP) in a thermotropic nematic solvent, were determined by rheometry in the presence and absence, respectively, of a saturation electric field.
The third, at high electric field, shows saturation of cesium packing, and this is best demonstrated by the decrease (as opposed to expected increase) in cesium ion density when changing the field from −2.82 to −3.77 V/Å.
Wide-bandgap III V nitrides are promising semiconductor materials for frequency and voltage operation because of their excellent material properties, including large band gaps, high critical electric fields, high-saturation electron velocities, and high conductivities [1, 2].
Electric conductivity (electrical conductivity of reference saturation extract) in soil was measured to analyse salt accumulation (Fig. 8).
This has important implications in determining the water saturation, from electric logs, of hydrocarbon reservoirs.
