A metasurface capable of simultaneous stealth across multiple electromagnetic wave bands and its design concept

The investigation of metasurfaces presents an innovative method for attaining multi-band electromagnetic wave concealment. Presently, there exist two primary categories of multi-band stealth metasurfaces : those suitable for infrared and microwave frequencies and those appropriate for terahertz and microwave frequencies . Nonetheless, investigations into metasurfaces that concurrently offer stealth across the infrared, microwave, and terahertz spectra remain insufficient. This article presents a stealth metasurface suitable for infrared, microwave, and terahertz frequencies. The compatible stealth metasurface (CSM) may attain over 90 % cross-band absorption throughout the frequency ranges of 17.1 GHz–20.8 GHz and 2.04 THz-2.89 THz while exhibiting a low infrared emissivity (IE) of 0.46. This CSM uses the gradient principle to make absorption units of different sizes on its surface. To achieve cross-band absorption, it also uses a frequency-selective surface (FSS) as the reflecting layer, which is a first. Furthermore, the CSM's exterior is coated with low-IE materials, facilitating infrared stealth capabilities. The CSM's stealth properties across three electromagnetic wave bands make it very useful for military purposes, and the new way that FSS is used as a reflecting layer opens up a whole new way to make stealth metasurfaces that work with each other. • First proposal of simultaneous stealth metasurface using three band electromagnetic waves. • Frequency selective surface achieves cross band electromagnetic wave absorption. • Explained cross band absorption using ECM theory.

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Publication Details

Journal
Composites Communications
Published
2025-02-26
DOI
https://doi.org/10.1016/j.coco.2025.102328
Citations
7
Primary Topic
Metamaterials and Metasurfaces Applications
Type
article
Field-Weighted Citation Impact
2.99

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article

A metasurface capable of simultaneous stealth across multiple electromagnetic wave bands and its design concept

Zhipeng Xiong, Binbin Song, Xin-Hua Deng, Jiapeng Gao et al.
7 citations
Composites Communications
Metamaterials and Metasurfaces Applications
2.99
article

A metasurface capable of simultaneous stealth across multiple electromagnetic wave bands and its design concept

Zhipeng Xiong, Binbin Song, Xin-Hua Deng, Jiapeng Gao, Jiaqi Geng, Y. S. Lou
article en
7 citations

Abstract

The investigation of metasurfaces presents an innovative method for attaining multi-band electromagnetic wave concealment. Presently, there exist two primary categories of multi-band stealth metasurfaces : those suitable for infrared and microwave frequencies and those appropriate for terahertz and microwave frequencies . Nonetheless, investigations into metasurfaces that concurrently offer stealth across the infrared, microwave, and terahertz spectra remain insufficient. This article presents a stealth metasurface suitable for infrared, microwave, and terahertz frequencies. The compatible stealth metasurface (CSM) may attain over 90 % cross-band absorption throughout the frequency ranges of 17.1 GHz–20.8 GHz and 2.04 THz-2.89 THz while exhibiting a low infrared emissivity (IE) of 0.46. This CSM uses the gradient principle to make absorption units of different sizes on its surface. To achieve cross-band absorption, it also uses a frequency-selective surface (FSS) as the reflecting layer, which is a first. Furthermore, the CSM's exterior is coated with low-IE materials, facilitating infrared stealth capabilities. The CSM's stealth properties across three electromagnetic wave bands make it very useful for military purposes, and the new way that FSS is used as a reflecting layer opens up a whole new way to make stealth metasurfaces that work with each other. • First proposal of simultaneous stealth metasurface using three band electromagnetic waves. • Frequency selective surface achieves cross band electromagnetic wave absorption. • Explained cross band absorption using ECM theory.

Composites CommunicationsVol. 55
Jiangxi University of Water Resources and Electric Power (CN), Nanchang University (CN), Wuhan University of Technology (CN)
National Natural Science Foundation of China, Natural Science Foundation of Chongqing, State Key Laboratory of Advanced Technology for Materials Synthesis and Processing
Openalex Percentile: Top 9%
Metamaterials and Metasurfaces Applications
2.99
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