Characterization, analysis, and implementation of integrated bandstop structures on ultra-wideband archimedean spiral antenna

Jae H. Jeon; John T Chang; Anh Vu Pham

doi:10.1109/TAP.2016.2539368

Characterization, analysis, and implementation of integrated bandstop structures on ultra-wideband archimedean spiral antenna

Jae H. Jeon, John T Chang, Anh Vu Pham

Research output: Contribution to journal › Article › peer-review

4 Scopus citations

Abstract

A subsection of the radiating spiral arm, placed in parallel, induces a bandstop response at a notch frequency proportional to the resonant length of the strip. Detailed parametric study on the effect of variation of design parameters for an Archimedean spiral antenna and the resonant parallel strip (RPS) is presented. Empirical analysis on phase velocity on the radiating spiral arms allows characterization of RPS in terms of its resonant length. Identified systematic relation between design parameters and filter response is applied to design an antenna for the 3.1-10.5 GHz operating band with the notch response over the IEEE 802.11a band, 5.15-5.95 GHz. Successful implementation is demonstrated through performance comparison between simulated and experimental results.

Original language	English (US)
Article number	7428851
Pages (from-to)	1999-2004
Number of pages	6
Journal	IEEE Transactions on Antennas and Propagation
Volume	64
Issue number	5
DOIs	https://doi.org/10.1109/TAP.2016.2539368
State	Published - May 1 2016
Externally published	Yes

Keywords

Bandstop filters
notch filters
spiral antennas
ultra wideband

ASJC Scopus subject areas

Electrical and Electronic Engineering
Condensed Matter Physics

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10.1109/TAP.2016.2539368

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abstract = "A subsection of the radiating spiral arm, placed in parallel, induces a bandstop response at a notch frequency proportional to the resonant length of the strip. Detailed parametric study on the effect of variation of design parameters for an Archimedean spiral antenna and the resonant parallel strip (RPS) is presented. Empirical analysis on phase velocity on the radiating spiral arms allows characterization of RPS in terms of its resonant length. Identified systematic relation between design parameters and filter response is applied to design an antenna for the 3.1-10.5 GHz operating band with the notch response over the IEEE 802.11a band, 5.15-5.95 GHz. Successful implementation is demonstrated through performance comparison between simulated and experimental results.",

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AU - Chang, John T

AU - Pham, Anh Vu

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N2 - A subsection of the radiating spiral arm, placed in parallel, induces a bandstop response at a notch frequency proportional to the resonant length of the strip. Detailed parametric study on the effect of variation of design parameters for an Archimedean spiral antenna and the resonant parallel strip (RPS) is presented. Empirical analysis on phase velocity on the radiating spiral arms allows characterization of RPS in terms of its resonant length. Identified systematic relation between design parameters and filter response is applied to design an antenna for the 3.1-10.5 GHz operating band with the notch response over the IEEE 802.11a band, 5.15-5.95 GHz. Successful implementation is demonstrated through performance comparison between simulated and experimental results.

AB - A subsection of the radiating spiral arm, placed in parallel, induces a bandstop response at a notch frequency proportional to the resonant length of the strip. Detailed parametric study on the effect of variation of design parameters for an Archimedean spiral antenna and the resonant parallel strip (RPS) is presented. Empirical analysis on phase velocity on the radiating spiral arms allows characterization of RPS in terms of its resonant length. Identified systematic relation between design parameters and filter response is applied to design an antenna for the 3.1-10.5 GHz operating band with the notch response over the IEEE 802.11a band, 5.15-5.95 GHz. Successful implementation is demonstrated through performance comparison between simulated and experimental results.

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KW - spiral antennas

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Characterization, analysis, and implementation of integrated bandstop structures on ultra-wideband archimedean spiral antenna

Abstract

Keywords

ASJC Scopus subject areas

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