DocumentCode
1112527
Title
Efficient Technique for the Cascade Connection of Multiple Two-Port Scattering Matrices
Author
Bachiller, Carmen ; González, Hector Esteban ; Esbert, Vicente Enrique Boria ; Martinez, A. Belen ; Morro, Jose Vicente
Author_Institution
Univ. Politecnica de Valencia, Valencia
Volume
55
Issue
9
fYear
2007
Firstpage
1880
Lastpage
1886
Abstract
There are several practical applications in microwave engineering that require the cascade connection of multiple two-port scattering matrices. Many microwave devices are analyzed by segmenting the structure into small building blocks (steps, resonators, lines, etc.) that are characterized by means of the generalized scattering matrix. In order to obtain the reflection and transmission parameters of the entire structure, the scattering matrices of all the building blocks must be cascaded. Traditionally, the conversion of the scattering matrices to ABCD or T matrices has been used in order to perform the cascade connection. An alternative to this procedure is to perform a recursive connection by pairs of the scattering matrices. In this paper, we present a new technique for the efficient cascade connection of N monomodal or multimodal scattering matrices that reduces the computation time by 35% when compared to the cascading by pairs, and by 75% when compared with the use of ABCD matrices.
Keywords
S-matrix theory; cascade networks; microwave devices; two-port networks; cascade circuits; cascade connection; microwave devices; microwave engineering; multimodal scattering matrices; multiple two-port scattering matrices; Circuits and systems; Electromagnetic devices; Electromagnetic scattering; GSM; Microwave devices; Microwave filters; Microwave theory and techniques; Reflection; Scattering parameters; Signal analysis; Cascade circuits and systems; filters; microwave devices; scattering matrices;
fLanguage
English
Journal_Title
Microwave Theory and Techniques, IEEE Transactions on
Publisher
ieee
ISSN
0018-9480
Type
jour
DOI
10.1109/TMTT.2007.904076
Filename
4298198
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