Performance Analysis of Metamaterial-Based Designs for 5G and Beyond Communication Systems

This study presents a performance analysis of a compact patch antenna that utilizes metamaterial (MTM) design techniques. The study also analyses the return loss parameters of the patch antenna to demonstrate improved antenna performance. The miniaturization of patch antennas is achieved by utilizing an MTM-based technique. Patch antennas are predominant in wireless communication systems but tend to occupy a lot of space. This technique requires combining MTM-inspired elements such as split-ring resonators (SRRs), fractal structures, or loaded inductive loops into the structure of the patch antenna. These elements are fabricated sensitively to communicate with the electromagnetic (EM) waves to decrease the antenna’s size whilst preserving its performance attributes. The proposed MTM-based technique promises several advantages, such as compact antenna designs, enhanced efficiency, radiation pattern characteristics, and bandwidth. In summary, the size miniaturization of patch antennas utilizing the MTM-based approach investigates the combination of metamaterial structures in the design of patch antennas. The technique seeks to achieve miniaturization while maintaining good antenna performance. Furthermore, this approach holds significant prospects for enabling the deployment of compact, efficient, and high-performance antennas in various wireless communication applications.

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Publication Details

Published
2024-12-06
DOI
https://doi.org/10.1109/c2i663243.2024.10895299
Primary Topic
Antenna Design and Analysis
Type
article
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article

Performance Analysis of Metamaterial-Based Designs for 5G and Beyond Communication Systems

Peter Nnabugwu Chuku, Albert A. Lysko, Thomas O. Olwal
Antenna Design and Analysis
article

Performance Analysis of Metamaterial-Based Designs for 5G and Beyond Communication Systems

Peter Nnabugwu Chuku, Albert A. Lysko, Thomas O. Olwal
article en

Abstract

This study presents a performance analysis of a compact patch antenna that utilizes metamaterial (MTM) design techniques. The study also analyses the return loss parameters of the patch antenna to demonstrate improved antenna performance. The miniaturization of patch antennas is achieved by utilizing an MTM-based technique. Patch antennas are predominant in wireless communication systems but tend to occupy a lot of space. This technique requires combining MTM-inspired elements such as split-ring resonators (SRRs), fractal structures, or loaded inductive loops into the structure of the patch antenna. These elements are fabricated sensitively to communicate with the electromagnetic (EM) waves to decrease the antenna’s size whilst preserving its performance attributes. The proposed MTM-based technique promises several advantages, such as compact antenna designs, enhanced efficiency, radiation pattern characteristics, and bandwidth. In summary, the size miniaturization of patch antennas utilizing the MTM-based approach investigates the combination of metamaterial structures in the design of patch antennas. The technique seeks to achieve miniaturization while maintaining good antenna performance. Furthermore, this approach holds significant prospects for enabling the deployment of compact, efficient, and high-performance antennas in various wireless communication applications.

Tshwane University of Technology (ZA), Council for Scientific and Industrial Research (ZA)
Openalex Percentile: Top 54%
Antenna Design and Analysis
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