Full-wave analysis of circular guiding structures completely filled with ferrite by using the finite difference frequency domain method is presented. The ferrite is assumed to be azimuthally magnetized to remanence. Emphasis is placed on the TE 0m modes that are rotationally symmetric. These modes e
Full-wave analysis of circular guiding structures using the finite difference frequency domain method
✍ Scribed by Mohammad R. Rawashdeh; Nihad I. Dib
- Publisher
- John Wiley and Sons
- Year
- 2010
- Tongue
- English
- Weight
- 416 KB
- Volume
- 20
- Category
- Article
- ISSN
- 1096-4290
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✦ Synopsis
In this article, a general full-wave two dimensional finite difference frequency domain (2D-FDFD) method is presented that could be used to analyze general circular multi-layered multi-conductor guiding structures. The FDFD method is mainly used to get the dispersion curves for these structures. The results which are obtained using the FDFD equations come through solving an eigen-value problem, where the obtained eigen-values and eigen-vectors are used to produce the propagation constants, distribution of the fields and the characteristic impedances for these structures. Several examples ranging from simple coaxial lines to coupled circular microstrip lines are presented. The FDFD results are compared with those obtained through other analytical and numerical techniques.
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