Impact of 5G mmWave radiation on human tissue using skin, cornea (eye) and enamel (tooth) as study candidates

Abstract This paper explores the interaction of 5G mmWave energy, specifically at frequencies above 24 GHz, with human tissues. It examines frequencies essential to 5G, including 24, 30, 35, 40, and 45 GHz, focusing on the skin, cornea, and enamel as candidates for investigation. The eye is particul...

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Main Authors: Sulaiman Adeniyi Adekola, Kamoli Akinwale Amusa, Godday Biowei
Format: Article
Language:English
Published: SpringerOpen 2025-04-01
Series:Journal of Engineering and Applied Science
Subjects:
Online Access:https://doi.org/10.1186/s44147-025-00617-9
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author Sulaiman Adeniyi Adekola
Kamoli Akinwale Amusa
Godday Biowei
author_facet Sulaiman Adeniyi Adekola
Kamoli Akinwale Amusa
Godday Biowei
author_sort Sulaiman Adeniyi Adekola
collection DOAJ
description Abstract This paper explores the interaction of 5G mmWave energy, specifically at frequencies above 24 GHz, with human tissues. It examines frequencies essential to 5G, including 24, 30, 35, 40, and 45 GHz, focusing on the skin, cornea, and enamel as candidates for investigation. The eye is particularly susceptible due to its surface location on the human body. Findings reveal that the penetration depth in the eye decreases from 7.331 µm at 24 GHz to 4.065 µm at 45 GHz, with the percentage of cornea tissue penetrated decreasing from 1.2 to 0.6% with frequencies. This result is unprecedented in existing literature. The results confirm that mmWaves do not penetrate beyond the cornea, emphasizing their surface-level effect on eye tissues. Another novel finding indicates that mmWaves attenuate entirely at the enamel, not affecting deeper dental structures, and significantly diminish at the skin’s epidermis without reaching the dermis, suggesting minimal penetration into deeper tissue layers. These discoveries introduce new, previously unreported data into the current research literature. Computational graphics for relative permittivity and conductivity versus frequency for the skin, cornea, and tooth enamel were generated. The resulting profiles are consistent with existing literature for other tissues, enhancing the reliability of the findings. Additionally, specific absorption rate values, computed using electric field measurements with an SMP2 meter at 900, 1800, and 2100 MHz, comply with the US Federal Communication Commission's SAR specifications of 1.6 W/kg.
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issn 1110-1903
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publishDate 2025-04-01
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spelling doaj-art-e13828e950b343cba0f814158f63624c2025-08-20T02:55:27ZengSpringerOpenJournal of Engineering and Applied Science1110-19032536-95122025-04-0172112510.1186/s44147-025-00617-9Impact of 5G mmWave radiation on human tissue using skin, cornea (eye) and enamel (tooth) as study candidatesSulaiman Adeniyi Adekola0Kamoli Akinwale Amusa1Godday Biowei2Department of Electrical and Electronic Engineering, Niger Delta UniversityDepartment of Electrical and Electronic Engineering, Federal University of AgricultureDepartment of Electrical and Electronic Engineering, Niger Delta UniversityAbstract This paper explores the interaction of 5G mmWave energy, specifically at frequencies above 24 GHz, with human tissues. It examines frequencies essential to 5G, including 24, 30, 35, 40, and 45 GHz, focusing on the skin, cornea, and enamel as candidates for investigation. The eye is particularly susceptible due to its surface location on the human body. Findings reveal that the penetration depth in the eye decreases from 7.331 µm at 24 GHz to 4.065 µm at 45 GHz, with the percentage of cornea tissue penetrated decreasing from 1.2 to 0.6% with frequencies. This result is unprecedented in existing literature. The results confirm that mmWaves do not penetrate beyond the cornea, emphasizing their surface-level effect on eye tissues. Another novel finding indicates that mmWaves attenuate entirely at the enamel, not affecting deeper dental structures, and significantly diminish at the skin’s epidermis without reaching the dermis, suggesting minimal penetration into deeper tissue layers. These discoveries introduce new, previously unreported data into the current research literature. Computational graphics for relative permittivity and conductivity versus frequency for the skin, cornea, and tooth enamel were generated. The resulting profiles are consistent with existing literature for other tissues, enhancing the reliability of the findings. Additionally, specific absorption rate values, computed using electric field measurements with an SMP2 meter at 900, 1800, and 2100 MHz, comply with the US Federal Communication Commission's SAR specifications of 1.6 W/kg.https://doi.org/10.1186/s44147-025-00617-95G mmWaveHuman tissuePenetration depthDamping oscillationsCorneaEnamel
spellingShingle Sulaiman Adeniyi Adekola
Kamoli Akinwale Amusa
Godday Biowei
Impact of 5G mmWave radiation on human tissue using skin, cornea (eye) and enamel (tooth) as study candidates
Journal of Engineering and Applied Science
5G mmWave
Human tissue
Penetration depth
Damping oscillations
Cornea
Enamel
title Impact of 5G mmWave radiation on human tissue using skin, cornea (eye) and enamel (tooth) as study candidates
title_full Impact of 5G mmWave radiation on human tissue using skin, cornea (eye) and enamel (tooth) as study candidates
title_fullStr Impact of 5G mmWave radiation on human tissue using skin, cornea (eye) and enamel (tooth) as study candidates
title_full_unstemmed Impact of 5G mmWave radiation on human tissue using skin, cornea (eye) and enamel (tooth) as study candidates
title_short Impact of 5G mmWave radiation on human tissue using skin, cornea (eye) and enamel (tooth) as study candidates
title_sort impact of 5g mmwave radiation on human tissue using skin cornea eye and enamel tooth as study candidates
topic 5G mmWave
Human tissue
Penetration depth
Damping oscillations
Cornea
Enamel
url https://doi.org/10.1186/s44147-025-00617-9
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AT goddaybiowei impactof5gmmwaveradiationonhumantissueusingskincorneaeyeandenameltoothasstudycandidates