Design and Fabrication of a Novel Quadruple-Band Monopole Antenna Using a U-DGS and Open-Loop-Ring Resonators

Boutejdar, A.; Challal, Mouloud; Bennani, Saad Dosse; Mouhouche, F.; Djafri, K.

doi:10.7716/aem.v6i3.573

Cited by 19 publications

(7 citation statements)

References 19 publications

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“…The proposed antenna occupies a compact size of 30 × 40 × 0.8 mm 3 , and the impedance bandwidth of the designed antenna is higher than the UWB antennas reported recently [33][34][35][36].…”

Section: Introductionmentioning

confidence: 91%

Design of Compact Monopole Antenna using Double U-DMS Resonators for WLAN, LTE, and WiMAX Applications

Boutejdar¹,

Salamin²,

Bennani³

et al. 2017

TELKOMNIKA

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In this research, a novel wide-band microstrip antenna for wideband applications is proposed. The proposed antenna consists of a square radiating patch and a partial ground plane with a smal rectangular notch-shape. Two symmetrical U-slots are etched in radiating patch. The defected microstrip U-shapes and the small notch improve the antenna characterestics such impedance wideband and the gain along the transmission area. The proposed antenna is simulated on an FR4 substrate of a dielectric constant of 4.3, thickness 1.6 mm, permittivity 4.4, and loss tangent 0.018. The simulation and optimization results are carried out using CST software.The antenna topology occupies an area of 30 × 40 × 0.8 mm 3 or about 0.629λg × 0.839λg × 0.017λg at 3 GHz (the centerresonance frequency). The antenna covers the range of 2.1711 to 4.0531 GHz, which meet the requirements of the wireless local area network (WLAN), worldwide interoperability for microwave access (WiMAX) and LTE (Long Term Evolution) band applications. Good VSWR, return loss and radiation pattern characteristics are obtained in the frequency band of interest. The obtained Simulation results for this antenna depict that it exhibits good radiation behavior within the transmission frequency range.

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Section: Introductionmentioning

confidence: 91%

Design of Compact Monopole Antenna using Double U-DMS Resonators for WLAN, LTE, and WiMAX Applications

Boutejdar¹,

Salamin²,

Bennani³

et al. 2017

TELKOMNIKA

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“…Parasitic patches can be used in microstrip antennas for various purposes. For example, a U‐shaped parasitic strip was used to realize a notch frequency band in , parasitic elements were used to achieve multi‐band operation in , the AR bandwidth of microstrip antennas was increased using parasitic patches in references , and parasitic patches were used to improve the impedance bandwidth of microstrip antennas in references . In the latter case, one or several parasitic patches that had a resonance frequency close to the resonant frequency of the feed patch were placed close to the feed patch.…”

Section: Parasitically Coupled Stack Configurationmentioning

confidence: 99%

Ferrite‐based wideband circularly polarized microstrip antenna design

Mashhadi

Komjani

Rejaei³

et al. 2019

ETRI Journal

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In this paper, a wideband, circularly polarized patch antenna is proposed that leverages the unidirectional resonant modes of a circular patch mounted on top of a grounded dielectric‐ferrite substrate. The proposed antenna is fed via the proximity coupling method and several parasitically coupled patches are placed on a dielectric superstrate to enhance the impedance bandwidth of the antenna. The resonant modes of the structure rotate only in the clockwise or counter clockwise directions. In the frequency range where the effective permeability of the ferrite layer is negative, the resonance frequencies of these modes differ significantly, which produces a large axial ratio (AR) bandwidth. For the proposed antenna, the numerical results show the 10 dB impedance bandwidth to be around 44% and the 3 dB axial ratio bandwidth to be higher than 64%.

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“…Minimize dual band (PIFA) have been reported in [10,11], and are reached using etched slotted radiated element. In [12][13][14][15][16][17], triple band small size composite-resonator monopole antenna designs for wireless communications were presented. Theses antennas are consisting of three resonant topologies.…”

Section: Introductionmentioning

confidence: 99%

Design of Multiband Microstrip Antenna Using Two Parasitic Ring Resonators for WLAN/WiMAX and C/X/Ku-Band Applications

Boutejdar

Halim

2020

American Journal of Electronics & Communication

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In this paper, a new planar monopole antenna for multiband applications is proposed. The antenna structure operates at five operating frequencies at 2.88 GHz, 7.58 GHz, 9.88 GHz, 11.59 GHz and 13.78 GHz which covers different communication frequency ranges. The proposed antenna consists of a quasi-modified rectangular radiating patch with a partial ground plane and two parasitic elements (open-loop-ring resonators) to serve as coupling-bridges. A stepped cut at lower corners of the radiating patch and the partial ground plane are used, to achieve the multiband features. The proposed antenna is manufactured on the Rogers RO 3010 substrate and is simulated and optimized using High Frequency Simulation System (HFSS). The antenna topology possesses an area of 41.04 x 29.98 x 1.6 mm 3. The measured results demonstrate that, the candidate antenna has impedance bandwidths for-10 dB return loss and operates from 2.68-3.03 GHz, 7.33-7.84 GHz, from 9.66-10.03 GHz, from 11.46-11.78 GHz and from 13.69-13.88 which meet the requirements of the wireless local area network (WLAN), worldwide interoperability for microwave access (WiMAX), C-(Uplink), X-(Uplink) band and Ku-(Uplink) band applications. Acceptable agreement is obtained between measurement and simulation results. Experimental results show that the antenna is successfully simulated and measured, and the tri-band antenna can be achieved by adjusting the lengths of the three elements and gives good gains across all the operation bands.

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Design and Fabrication of a Novel Quadruple-Band Monopole Antenna Using a U-DGS and Open-Loop-Ring Resonators

Cited by 19 publications

References 19 publications

Design of Compact Monopole Antenna using Double U-DMS Resonators for WLAN, LTE, and WiMAX Applications

Design of Compact Monopole Antenna using Double U-DMS Resonators for WLAN, LTE, and WiMAX Applications

Ferrite‐based wideband circularly polarized microstrip antenna design

Design of Multiband Microstrip Antenna Using Two Parasitic Ring Resonators for WLAN/WiMAX and C/X/Ku-Band Applications

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