Sentence examples for em propagation from inspiring English sources
Dielectric properties of materials are important indications of the depth of EM propagation and dispersion.
Current research interests include planetary exploration, remote sensing applications, radar techniques, EM propagation and scattering, and digital signal processing.
However, since in these models, some kind of simplifications are employed which may result in an electromagnetic waves (EM) propagation pattern different from what exists in a real transformer and encounter errors in its PD measurement results.
These assumptions naturally lead to an elegant empirical Bayes inference procedure that exploits Monte Carlo EM, belief propagation, and dynamic programming.
For mimicking the structure of an infinite periodic array, the 2-D array of PBNAs was obtained from the unit cell by using periodic boundary condition (PBC) along the x- and y-axes and the anisotropic perfectly matched layers (PML) condition along the EM wave propagation direction.
If we consider an electromagnetic (EM) wave propagating in the structure with propagation constant k=k∥ + k z ẑ, there are two independent EM modes: TM and transverse electric (TE).
If we consider an electromagnetic (EM) wave propagating in the structure with propagation constant k= k∥ + k z, there are two independent EM modes: transverse-magnetic (TM) modes and transverse electric (TE) modes.
Our main interests include InSAR imaging, Earth exploration from space, satellite remote sensing, planetary science, digital signal processing for geoscience applications, and EM scattering and propagation.
The sensor is based on the principle of electromagnetic (EM) surface wave propagation, and consists of a thin-layer of wave-guiding media attached to a metal base (e.g., steel bridge elements) and an EM wave emitter and receiver.
This model characterizes not only the propagation of EM waves, but also other effects such as multipath, soil composition, water content, and burial depth.
For this purpose, we present a combined rock-physics methodology of electromagnetic (EM) and seismic wave propagation for the detection and monitoring of CO2 in crosswell experiments.
