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Via-less electromagnetic band-gap-enabled antenna based on textile material for wearable applications

A compact fabric antenna structure integrated with electromagnetic bandgap structures (EBGs) covering the desired frequency spectrum between 2.36 GHz and 2.40 GHz for Medical Body-Area Networks (MBANs), is introduced. The needs of flexible system applications, the antenna is preferably low-profile,...

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Detalles Bibliográficos
Autores principales: Ashyap, Adel Y. I., Elamin, N. I. M., Dahlan, S. H., Abidin, Z. Z., See, Chan Hwang, Majid, H. A., AL-Fadhali, Najib, Mukred, Jameel A. A., Saleh, Gameel, Esmail, B. A. F.
Formato: Online Artículo Texto
Lenguaje:English
Publicado: Public Library of Science 2021
Materias:
Acceso en línea:https://www.ncbi.nlm.nih.gov/pmc/articles/PMC7843018/
https://www.ncbi.nlm.nih.gov/pubmed/33508025
http://dx.doi.org/10.1371/journal.pone.0246057
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author Ashyap, Adel Y. I.
Elamin, N. I. M.
Dahlan, S. H.
Abidin, Z. Z.
See, Chan Hwang
Majid, H. A.
AL-Fadhali, Najib
Mukred, Jameel A. A.
Saleh, Gameel
Esmail, B. A. F.
author_facet Ashyap, Adel Y. I.
Elamin, N. I. M.
Dahlan, S. H.
Abidin, Z. Z.
See, Chan Hwang
Majid, H. A.
AL-Fadhali, Najib
Mukred, Jameel A. A.
Saleh, Gameel
Esmail, B. A. F.
author_sort Ashyap, Adel Y. I.
collection PubMed
description A compact fabric antenna structure integrated with electromagnetic bandgap structures (EBGs) covering the desired frequency spectrum between 2.36 GHz and 2.40 GHz for Medical Body-Area Networks (MBANs), is introduced. The needs of flexible system applications, the antenna is preferably low-profile, compact, directive, and robust to the human body's loading effect have to be satisfied. The EBGs are attractive solutions for such requirements and provide efficient performance. In contrast to earlier documented EBG backed antenna designs, the proposed EBG behaved as shielding from the antenna to the human body, reduced the size, and acted as a radiator. The EBGs reduce the frequency detuning due to the human body and decrease the back radiation, improving the antenna efficiency. The proposed antenna system has an overall dimension of 46×46×2.4 mm(3). The computed and experimental results achieved a gain of 7.2 dBi, a Front to Back Ratio (FBR) of 12.2 dB, and an efficiency of 74.8%, respectively. The Specific Absorption Rate (SAR) demonstrates a reduction of more than 95% compared to the antenna without EBGs. Moreover, the antenna performance robustness to human body loading and bending is also studied experimentally. Hence, the integrated antenna-EBG is a suitable candidate for many wearable applications, including healthcare devices and related applications.
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spelling pubmed-78430182021-02-04 Via-less electromagnetic band-gap-enabled antenna based on textile material for wearable applications Ashyap, Adel Y. I. Elamin, N. I. M. Dahlan, S. H. Abidin, Z. Z. See, Chan Hwang Majid, H. A. AL-Fadhali, Najib Mukred, Jameel A. A. Saleh, Gameel Esmail, B. A. F. PLoS One Research Article A compact fabric antenna structure integrated with electromagnetic bandgap structures (EBGs) covering the desired frequency spectrum between 2.36 GHz and 2.40 GHz for Medical Body-Area Networks (MBANs), is introduced. The needs of flexible system applications, the antenna is preferably low-profile, compact, directive, and robust to the human body's loading effect have to be satisfied. The EBGs are attractive solutions for such requirements and provide efficient performance. In contrast to earlier documented EBG backed antenna designs, the proposed EBG behaved as shielding from the antenna to the human body, reduced the size, and acted as a radiator. The EBGs reduce the frequency detuning due to the human body and decrease the back radiation, improving the antenna efficiency. The proposed antenna system has an overall dimension of 46×46×2.4 mm(3). The computed and experimental results achieved a gain of 7.2 dBi, a Front to Back Ratio (FBR) of 12.2 dB, and an efficiency of 74.8%, respectively. The Specific Absorption Rate (SAR) demonstrates a reduction of more than 95% compared to the antenna without EBGs. Moreover, the antenna performance robustness to human body loading and bending is also studied experimentally. Hence, the integrated antenna-EBG is a suitable candidate for many wearable applications, including healthcare devices and related applications. Public Library of Science 2021-01-28 /pmc/articles/PMC7843018/ /pubmed/33508025 http://dx.doi.org/10.1371/journal.pone.0246057 Text en © 2021 Ashyap et al http://creativecommons.org/licenses/by/4.0/ This is an open access article distributed under the terms of the Creative Commons Attribution License (http://creativecommons.org/licenses/by/4.0/) , which permits unrestricted use, distribution, and reproduction in any medium, provided the original author and source are credited.
spellingShingle Research Article
Ashyap, Adel Y. I.
Elamin, N. I. M.
Dahlan, S. H.
Abidin, Z. Z.
See, Chan Hwang
Majid, H. A.
AL-Fadhali, Najib
Mukred, Jameel A. A.
Saleh, Gameel
Esmail, B. A. F.
Via-less electromagnetic band-gap-enabled antenna based on textile material for wearable applications
title Via-less electromagnetic band-gap-enabled antenna based on textile material for wearable applications
title_full Via-less electromagnetic band-gap-enabled antenna based on textile material for wearable applications
title_fullStr Via-less electromagnetic band-gap-enabled antenna based on textile material for wearable applications
title_full_unstemmed Via-less electromagnetic band-gap-enabled antenna based on textile material for wearable applications
title_short Via-less electromagnetic band-gap-enabled antenna based on textile material for wearable applications
title_sort via-less electromagnetic band-gap-enabled antenna based on textile material for wearable applications
topic Research Article
url https://www.ncbi.nlm.nih.gov/pmc/articles/PMC7843018/
https://www.ncbi.nlm.nih.gov/pubmed/33508025
http://dx.doi.org/10.1371/journal.pone.0246057
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