DocumentCode :
2770828
Title :
Application of MoM-CGM-FFT to 3D dielectric scatterers
Author :
Zhu, Xiuqin ; Geng, Youlin ; Wu, Xinbao
Author_Institution :
China Res. Inst. of Radiowave Propagation, Henan, China
fYear :
2000
fDate :
15-18 Aug. 2000
Firstpage :
293
Lastpage :
296
Abstract :
In this paper, the electromagnetic scattering of three-dimensional (3D) dielectric bodies is investigated by using the mixed technique of method of moments (MoM), conjugate gradient method (CGM) and fast Fourier transform (FFT). Pulse basis functions and a Dirac /spl delta/ function are used for expansion and testing purposes to discretize the electric field integral equation (EFIE). CGM and FFT techniques are used for reducing storage and CPU time, therefore electrically large bodies can be handled simply and effectively. The numerical results are validated by comparing the radar cross section (RCS) of dielectric spheres with those obtained using analytical method or results given in other papers.
Keywords :
conjugate gradient methods; dielectric bodies; electric field integral equations; electromagnetic wave scattering; fast Fourier transforms; method of moments; radar cross-sections; 3D dielectric scatterers; Dirac /spl delta/ function; EFIE; MoM-CGM-FFT application; RCS; conjugate gradient method; dielectric spheres; electric field integral equation; electrically large bodies; electromagnetic scattering; fast Fourier transform; method of moments; numerical results; pulse basis functions; radar cross section; three-dimensional dielectric bodies; Dielectrics; Electromagnetic scattering; Fast Fourier transforms; Gradient methods; Integral equations; Moment methods; Radar cross section; Radar scattering; Testing; User-generated content;
fLanguage :
English
Publisher :
ieee
Conference_Titel :
Antennas, Propagation and EM Theory, 2000. Proceedings. ISAPE 2000. 5th International Symposium on
Conference_Location :
Beijing, China
Print_ISBN :
0-7803-6377-9
Type :
conf
DOI :
10.1109/ISAPE.2000.894782
Filename :
894782
Link To Document :
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