Hybrid Metamaterial for the Secondary Radar Antenna System

This paper proposes the gain enhancement of dual-band and dual-polarized asymmetric horn antenna for the secondary radar system using hybrid metamaterial techniques. The hybrid metamaterial is comprised of the structures of woodpile electromagnetic bandgap (EBG) for gain enhancement of the primary m...

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Main Authors: Peerasan Khamsalee, Piyaporn Mesawad, Rangsan Wongsan
Format: Article
Language:English
Published: The Korean Institute of Electromagnetic Engineering and Science 2020-07-01
Series:Journal of Electromagnetic Engineering and Science
Subjects:
Online Access:http://www.jees.kr/upload/pdf/jees-2020-20-3-221.pdf
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spelling doaj-0c0e63c1cf044937a6419edef01df3182020-11-25T04:00:45ZengThe Korean Institute of Electromagnetic Engineering and ScienceJournal of Electromagnetic Engineering and Science2671-72552671-72632020-07-0120322123310.26866/jees.2020.20.3.2213396Hybrid Metamaterial for the Secondary Radar Antenna SystemPeerasan KhamsaleePiyaporn MesawadRangsan WongsanThis paper proposes the gain enhancement of dual-band and dual-polarized asymmetric horn antenna for the secondary radar system using hybrid metamaterial techniques. The hybrid metamaterial is comprised of the structures of woodpile electromagnetic bandgap (EBG) for gain enhancement of the primary main beam of the radar system at the operating frequency of 1,300 MHz with horizontal polarization; and the wire medium structure that is placed beside the EBG structure for gain improvement of the identification friend or foe (IFF) main beam, which is operated at the center frequency of 1,060 MHz with vertical polarization. Meanwhile, the cooperated structures have to function to control the directions of the primary and IFF main beams retaining at 0° and 6°, respectively, too. When the hybrid metamaterial structure is placed at the front of an asymmetric horn’s aperture, with suitable parameters and optimized spacing, it is found to increase the gains of the two beams compared to the single asymmetric horn around 3 dB and retain the directions of original main beams. The comparison of the results between simulation and measurement, such as the reflected power (S11), gain, and radiation patterns, are in good agreement.http://www.jees.kr/upload/pdf/jees-2020-20-3-221.pdfgain enlargementelectromagnetic band gaphorn antennasecondary radarwire medium
collection DOAJ
language English
format Article
sources DOAJ
author Peerasan Khamsalee
Piyaporn Mesawad
Rangsan Wongsan
spellingShingle Peerasan Khamsalee
Piyaporn Mesawad
Rangsan Wongsan
Hybrid Metamaterial for the Secondary Radar Antenna System
Journal of Electromagnetic Engineering and Science
gain enlargement
electromagnetic band gap
horn antenna
secondary radar
wire medium
author_facet Peerasan Khamsalee
Piyaporn Mesawad
Rangsan Wongsan
author_sort Peerasan Khamsalee
title Hybrid Metamaterial for the Secondary Radar Antenna System
title_short Hybrid Metamaterial for the Secondary Radar Antenna System
title_full Hybrid Metamaterial for the Secondary Radar Antenna System
title_fullStr Hybrid Metamaterial for the Secondary Radar Antenna System
title_full_unstemmed Hybrid Metamaterial for the Secondary Radar Antenna System
title_sort hybrid metamaterial for the secondary radar antenna system
publisher The Korean Institute of Electromagnetic Engineering and Science
series Journal of Electromagnetic Engineering and Science
issn 2671-7255
2671-7263
publishDate 2020-07-01
description This paper proposes the gain enhancement of dual-band and dual-polarized asymmetric horn antenna for the secondary radar system using hybrid metamaterial techniques. The hybrid metamaterial is comprised of the structures of woodpile electromagnetic bandgap (EBG) for gain enhancement of the primary main beam of the radar system at the operating frequency of 1,300 MHz with horizontal polarization; and the wire medium structure that is placed beside the EBG structure for gain improvement of the identification friend or foe (IFF) main beam, which is operated at the center frequency of 1,060 MHz with vertical polarization. Meanwhile, the cooperated structures have to function to control the directions of the primary and IFF main beams retaining at 0° and 6°, respectively, too. When the hybrid metamaterial structure is placed at the front of an asymmetric horn’s aperture, with suitable parameters and optimized spacing, it is found to increase the gains of the two beams compared to the single asymmetric horn around 3 dB and retain the directions of original main beams. The comparison of the results between simulation and measurement, such as the reflected power (S11), gain, and radiation patterns, are in good agreement.
topic gain enlargement
electromagnetic band gap
horn antenna
secondary radar
wire medium
url http://www.jees.kr/upload/pdf/jees-2020-20-3-221.pdf
work_keys_str_mv AT peerasankhamsalee hybridmetamaterialforthesecondaryradarantennasystem
AT piyapornmesawad hybridmetamaterialforthesecondaryradarantennasystem
AT rangsanwongsan hybridmetamaterialforthesecondaryradarantennasystem
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