A Novel Design Approach for Dual-Band Electromagnetic Band-Gap Structure

Zhang, Lijing; Liang, Chuntao; Liang, Le; Chen, and Liang

doi:10.2528/pierm08071107

Cited by 35 publications

(24 citation statements)

References 28 publications

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“…1 shows the high impedance surface constituted of a dual-layer of offset "Mushroom-like" EBG unit cells (named DL-EBG). The unit cell is a square size (W x W) metallic patch connected to the ground plane with a metalized vias [1][2][3][4][5][6][7]. The distance between two adjacent patches is g and the periodicity is p= (W+g).…”

Section: IImentioning

confidence: 99%

Compact and broadband metamaterial-based array antenna

Ouslimani¹,

Yuan²,

Priou³

2014

2014 9th International Symposium on Communication Systems, Networks &Amp; Digital Sign (CSNDSP)

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b) Figure 1. Dual-layer metamaterial structure, (a) Square patch unit cells with metalized vias, (a) Side view and (b) Top view of the top layer and the bottom layer (a) (b) (c) Figure 2. Lumped LC equivalent circuit of the Dual-layer EBG structure; Ctotal=1.4 pF and Ltotal =11.165 nH Abstract-This paper presents the design of an array antenna composed of two metamaterial-based thin monopole-like elements placed on either side of a composite material, on the tail of an airplane. A 0.022 sub-wavelength dual-layer electromagnetic bandgap (DL-EBG) is used as an in-phase reflector plane. It is composed of offset mushroom-like Sivenpiper EBG arrays. This topology allows controlling both operating frequency and bandwidth. For a total height of 0.028 wavelengths, the antenna achieves 8.5 dB of gain and 24% of bandwidth around 1.4 GHz. The array antenna has a vertical polarization and omnidirectional radiation. The measurements and numerical simulations agree well.

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Section: IImentioning

confidence: 99%

Compact and broadband metamaterial-based array antenna

Ouslimani¹,

Yuan²,

Priou³

2014

2014 9th International Symposium on Communication Systems, Networks &Amp; Digital Sign (CSNDSP)

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“…Figure 7(a) sketched the suspended transmission line method [28,29] used here to determine numerically the transmission signal (S 21 ) across the metasurface of Fig. 6(a).…”

Section: Study Of the Dl-ebg Structuresmentioning

confidence: 99%

Dual-Layer Ebg Structures for Low-Profile ``Bent'' Monopole Antennas

Yuan¹,

Hafdallah-Ouslimani²,

Priou³

et al. 2013

PIER B

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Abstract-We propose in this paper the design, realization and experimental characterization of a low-profile metamaterial "bent" monopole antenna with a total height of 0.027λ 0 and a fractional bandwidth of 24.4% around 1.3 GHz. The metamaterial (MTM) structure is a dual-layer mushroom-like electromagnetic band gap (DL-EBG) conceived and optimized to improve the antenna's operating bandwidth. Moreover, a "Sabre-Type" antenna composed by two identical "bent" monopole metamaterial antennas placed on both sides of a composite thin slab material has been simulated and realized. The "sabre" antenna provides a vertically polarization and omnidirectional radiation patterns in the elevation plane while its radiation patterns are almost directional in the azimuth plane. A maximum gain of 8.7 dB is obtained by measurement at 1.45 GHz. A remarkable agreement is obtained between the measured and the simulated results.

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“…Most of the intentions and objectives of the integration of EBG structures with antennas in the literatures [3][4][5][6][7][8][9][10][11][12] were either to steer the beam, suppress surface waves or reflect in-phase incident waves in order to improve the performance of the antennas involved. Innovatively, in [1] the mEBG structures that were positioned in between the respective corporate feed lines and ground plane work as Band Rejecter (BR).…”

Section: The Incorporation Of Ebg Structuresmentioning

confidence: 99%

Electromagnetic Band Gap Structures Incorporate With Dual Band Microstrip Antenna Array

Masri

Rahim²,

Ayop³

et al. 2010

PIER M

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Abstract-A Dual band Microstrip Antenna Arrays (DbMSAA) incorporated with Mushroom Electromagnetic band Gap (MEBG) and modified Minkowski Electromagnetic Band Gap structures to further improve its radiation characteristics is reported in this work. The two different types of EBG structures work like a Band Rejecter (BR), separating the branch of feed line feeding two different groups of patch antenna arrays operating at 2.4 GHz and 5.8 GHz, thus making them operate individually at their particular frequencies, simultaneously. Initially, the possibilities of having a uniform and controlled radiation patterns are quite complicated to achieve due to the single port feeding technique used and developments of grating lobes at the higher band frequency, but, through the incorporation of the EBG structures, the problems could be solved immediately. The antenna's performance is improved where the grating lobes at 5.8 GHz are diminished, and the radiation patterns of the dual band antenna at both frequencies become more symmetrical with increased gain.

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A Novel Design Approach for Dual-Band Electromagnetic Band-Gap Structure

Cited by 35 publications

References 28 publications

Compact and broadband metamaterial-based array antenna

Compact and broadband metamaterial-based array antenna

Dual-Layer Ebg Structures for Low-Profile ``Bent'' Monopole Antennas

Electromagnetic Band Gap Structures Incorporate With Dual Band Microstrip Antenna Array

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