DocumentCode
3586520
Title
Unit element bandpass filter design via simplified real frequency technique for UWB microstrip patch antenna
Author
Kopru, Ramazan ; Kilinc, Sedat ; Aksen, Ahmet ; Yarman, B.S.
Author_Institution
Electr.-Electron. Eng, Isik Univ., Istanbul, Turkey
fYear
2014
Firstpage
1
Lastpage
5
Abstract
Design of a UWB (Ultra Wideband) microstrip patch antenna to operate in the first channel of the UWB standard and a bandpass (BP) UE (Unit Element) microstrip filter (BPUEF) for this antenna are studied and presented with promising experimental results. A typical UE BP filter is a lossless 2-port network which is formed with certain number of cascade connected commensurate transmission lines. Based on the simplified real frequency technique (SRFT) in Richards domain, driving point Darlington impedance function of the BPUEF is obtained via optimization such that optimum power transfer would be possible between a PA (power amplifier) and the antenna. Using the UE synthesis, characteristic impedance values of each UE is extracted from the input impedance function. Theoretical design (Matlab), simulation (ADS, Agilent Inc.) and the measurements are shown to be in a high degree of agreement.
Keywords
band-pass filters; microstrip antennas; microstrip filters; optimisation; ultra wideband antennas; Richards domain; UWB microstrip patch antenna; cascade connected commensurate transmission lines; characteristic impedance; input impedance function; lossless 2-port network; microstrip filter; optimum power transfer; point Darlington impedance function; power amplifier; simplified real frequency technique; unit element bandpass filter design; Antenna measurements; Impedance; MATLAB; Microstrip antennas; Microstrip filters; Patch antennas; Transmission line measurements; Richards immittance synthesis; UWB; impedance matching; microstrip patch antenna; optimization; simplified real frequency technique; unit elements;
fLanguage
English
Publisher
ieee
Conference_Titel
Microwave Symposium (MMS), 2014 14th Mediterranean
Print_ISBN
978-1-4799-7390-3
Type
conf
DOI
10.1109/MMS.2014.7088952
Filename
7088952
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