A Metamaterial-Inspired Approach to Mitigating Radio Frequency Blackout When a Plasma Forms Around a Reentry Vehicle

Radio frequency (RF) blackout and attenuation have been observed during atmospheric reentry since the advent of space exploration. The effects range from severe attenuation to complete loss of communications and can last from 90 s to 10 min depending on the vehicle’s trajectory. This paper examines...

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Main Authors: Bruce A. Webb, Richard W. Ziolkowski
Format: Article
Language:English
Published: MDPI AG 2020-10-01
Series:Photonics
Subjects:
Online Access:https://www.mdpi.com/2304-6732/7/4/88
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spelling doaj-55850fbbac104151b6de8134a7b420902020-11-25T03:35:48ZengMDPI AGPhotonics2304-67322020-10-017888810.3390/photonics7040088A Metamaterial-Inspired Approach to Mitigating Radio Frequency Blackout When a Plasma Forms Around a Reentry VehicleBruce A. Webb0Richard W. Ziolkowski1Radio Frequency (RF) Technologies Department, Lockheed Martin, Dallas, TX 75051, USADepartment of Electrical and Computer Engineering, University of Arizona, Tucson, AZ 85719, USARadio frequency (RF) blackout and attenuation have been observed during atmospheric reentry since the advent of space exploration. The effects range from severe attenuation to complete loss of communications and can last from 90 s to 10 min depending on the vehicle’s trajectory. This paper examines a way of using a metasurface to improve the performance of communications during reentry. The technique is viable at low plasma densities and matches a split-ring resonator (SRR)-based mu-negative (MNG) sheet to the epsilon-negative (ENG) plasma region. Considering the MNG metasurface as a window to the exterior of a reentry vehicle, its matched design yields high transmission of an electromagnetic plane wave through the resulting MNG-ENG metastructure into the region beyond it. A varactor-based SRR design facilitates tuning the MNG layer to ENG layers with different plasma densities. Both simple and Huygens dipole antennas beneath a matched metastructure are then employed to demonstrate the consequent realization of significant signal transmission through it into free space beyond the exterior ENG plasma layer.https://www.mdpi.com/2304-6732/7/4/88antennascommunicationsmetamaterialsplasmaspropagationreentry vehicles
collection DOAJ
language English
format Article
sources DOAJ
author Bruce A. Webb
Richard W. Ziolkowski
spellingShingle Bruce A. Webb
Richard W. Ziolkowski
A Metamaterial-Inspired Approach to Mitigating Radio Frequency Blackout When a Plasma Forms Around a Reentry Vehicle
Photonics
antennas
communications
metamaterials
plasmas
propagation
reentry vehicles
author_facet Bruce A. Webb
Richard W. Ziolkowski
author_sort Bruce A. Webb
title A Metamaterial-Inspired Approach to Mitigating Radio Frequency Blackout When a Plasma Forms Around a Reentry Vehicle
title_short A Metamaterial-Inspired Approach to Mitigating Radio Frequency Blackout When a Plasma Forms Around a Reentry Vehicle
title_full A Metamaterial-Inspired Approach to Mitigating Radio Frequency Blackout When a Plasma Forms Around a Reentry Vehicle
title_fullStr A Metamaterial-Inspired Approach to Mitigating Radio Frequency Blackout When a Plasma Forms Around a Reentry Vehicle
title_full_unstemmed A Metamaterial-Inspired Approach to Mitigating Radio Frequency Blackout When a Plasma Forms Around a Reentry Vehicle
title_sort metamaterial-inspired approach to mitigating radio frequency blackout when a plasma forms around a reentry vehicle
publisher MDPI AG
series Photonics
issn 2304-6732
publishDate 2020-10-01
description Radio frequency (RF) blackout and attenuation have been observed during atmospheric reentry since the advent of space exploration. The effects range from severe attenuation to complete loss of communications and can last from 90 s to 10 min depending on the vehicle’s trajectory. This paper examines a way of using a metasurface to improve the performance of communications during reentry. The technique is viable at low plasma densities and matches a split-ring resonator (SRR)-based mu-negative (MNG) sheet to the epsilon-negative (ENG) plasma region. Considering the MNG metasurface as a window to the exterior of a reentry vehicle, its matched design yields high transmission of an electromagnetic plane wave through the resulting MNG-ENG metastructure into the region beyond it. A varactor-based SRR design facilitates tuning the MNG layer to ENG layers with different plasma densities. Both simple and Huygens dipole antennas beneath a matched metastructure are then employed to demonstrate the consequent realization of significant signal transmission through it into free space beyond the exterior ENG plasma layer.
topic antennas
communications
metamaterials
plasmas
propagation
reentry vehicles
url https://www.mdpi.com/2304-6732/7/4/88
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