Title :
Polarimetric scattering from a layer of random clusters of small spheroids
Author_Institution :
Dept. of Electron. Eng., Fudan Univ., Shanghai, China
fDate :
8/1/1994 12:00:00 AM
Abstract :
Employing the volume integral equation formulation with self-interaction term for internal fields, the Jones scattering matrix and phase matrix for random clusters of small spheroids are derived. The mutual coherent wave interactions among clustered spheroids are included. Clustering enhances the internal fields and the scattering amplitude function. Substituting the newly derived phase matrix into the Mueller matrix in the approach of vector radiative transfer for a layer of random clusters of small spheroids, fully polarimetric copolarized and cross-polarized backscattering are numerically calculated. Clustering effects of a layer of random spheroids are quantitatively illustrated, and the backscattering enhancement of several dB order and its functional dependence on parameters are discussed
Keywords :
backscatter; electromagnetic wave polarisation; electromagnetic wave scattering; integral equations; Jones scattering matrix; Mueller matrix; backscattering enhancement; functional dependence; internal fields; mutual coherent wave interactions; phase matrix; polarimetric copolarized backscattering; polarimetric cross-polarized backscattering; random clusters of small spheroids; random spheroids layer; scattering amplitude function; self-interaction term; vector radiative transfer; volume integral equation formulation; Backscatter; Coagulation; Electromagnetic propagation; Electromagnetic scattering; Integral equations; Laser radar; Matrices; Particle scattering; Radar scattering; Rayleigh scattering;
Journal_Title :
Antennas and Propagation, IEEE Transactions on