DocumentCode
1034271
Title
Determination of the Green´s function in the spectral domain using a matrix method: Application to radiators or resonators immersed in a complex anisotropic layered medium
Author
Krowne, Cliford M.
Author_Institution
Naval Research Lab., Washington, DC, USA
Volume
34
Issue
2
fYear
1986
fDate
2/1/1986 12:00:00 AM
Firstpage
247
Lastpage
253
Abstract
A planar structure having arbitrarily located conductor patches immersed in complex anisotropic layered media presents a very general field problem. This problem is solved here by a rigorous formulation technique characterizing each layer by a
tensor and finding the appropriate Fourier transformed Green\´s function matrix
of
size. The technique finds a set of field eigenvectors for each layer. Using
, a method of moments numerical solution for radiation characteristics of probe fed patch(es) can be had in the spectral domain employing, for example, a zero reaction method. Variation of real frequencies of the driving probe fed signal is allowed by that approach. Those workers desirous of radiator or resonator fields and frequency behavior at only selected resonant frequencies can use
to derive a matrix
given here. Setting the determinant of
equal to zero yields complex resonant frequency solutions, and the field solutions as a consequence to the nonprobe fed or free standing patch structure. The method is very versatile and can handle a large class of microwave or millimeter wave integrated circuit or monolithic circuit problems, no matter how simple or complex as long as they possess planar layers.
tensor and finding the appropriate Fourier transformed Green\´s function matrix
of
size. The technique finds a set of field eigenvectors for each layer. Using
, a method of moments numerical solution for radiation characteristics of probe fed patch(es) can be had in the spectral domain employing, for example, a zero reaction method. Variation of real frequencies of the driving probe fed signal is allowed by that approach. Those workers desirous of radiator or resonator fields and frequency behavior at only selected resonant frequencies can use
to derive a matrix
given here. Setting the determinant of
equal to zero yields complex resonant frequency solutions, and the field solutions as a consequence to the nonprobe fed or free standing patch structure. The method is very versatile and can handle a large class of microwave or millimeter wave integrated circuit or monolithic circuit problems, no matter how simple or complex as long as they possess planar layers.Keywords
Electromagnetic propagation in anisotropic media; Electromagnetic propagation in nonhomogeneous media; Green´s functions; Resonators; Anisotropic magnetoresistance; Conductors; Green´s function methods; Integrated circuit yield; Moment methods; Nonhomogeneous media; Probes; Resonant frequency; Tensile stress; Transmission line matrix methods;
fLanguage
English
Journal_Title
Antennas and Propagation, IEEE Transactions on
Publisher
ieee
ISSN
0018-926X
Type
jour
DOI
10.1109/TAP.1986.1143794
Filename
1143794
Link To Document