Hierarchical structure Fe@<scp>CNFs</scp>@Co/C elastic aerogels with intelligent electromagnetic wave absorption

Abstract Developing intelligent electromagnetic wave (EMW) absorption materials with real‐time response‐ability is of great significance in complex application environments. Herein, highly compressible Fe@CNFs@Co/C elastic aerogels were assembled through the electrospinning method, achieving EMW absorption through pressure changes. By varying the pressure, the effective absorption bandwidth (EAB) of Fe@CNFs@Co/C elastic aerogels shows continuous changes from low frequency to high frequency. The EAB of Fe@CNFs@Co/C elastic aerogels is 14.4 GHz (3.36–17.76 GHz), which covers 90% of the range of S/C/X/Ku bands. The theoretical simulation indicates that the external pressure prompts a reduction in the spacing between the fiber layers in the aerogels and facilitates the formation of a 3D conductive network with enhanced attenuation ability of EMW. The uniform distribution of metal particles and appropriate layer spacing can effectively optimize the impedance matching to achieve the best EMW absorption performance. This work state clearly that the hierarchically assembled elastic aerogels composed of metal–organic frameworks (MOFs) derivatives and carbon fibers are ideal dynamic EMW absorption materials for intelligent EMW response. image

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Publication Details

Journal
InfoMat
Published
2024-10-26
DOI
https://doi.org/10.1002/inf2.12630
Citations
71
Primary Topic
Electromagnetic wave absorption materials
Type
article
Field-Weighted Citation Impact
8.37

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article

Hierarchical structure Fe@CNFs@Co/C elastic aerogels with intelligent electromagnetic wave absorption

Ying Lin, Yongzhen Ma, Haibo Yang, Zhixin Cai et al.
71 citations
InfoMat
Electromagnetic wave absorption materials
8.37
article

Hierarchical structure Fe@CNFs@Co/C elastic aerogels with intelligent electromagnetic wave absorption

Ying Lin, Yongzhen Ma, Haibo Yang, Zhixin Cai, Yan Cheng, Qibin Yuan, Wenhuan Huang, Renchao Che, Luyao Han, Hong Zhou
article en
71 citations

Abstract

Abstract Developing intelligent electromagnetic wave (EMW) absorption materials with real‐time response‐ability is of great significance in complex application environments. Herein, highly compressible Fe@CNFs@Co/C elastic aerogels were assembled through the electrospinning method, achieving EMW absorption through pressure changes. By varying the pressure, the effective absorption bandwidth (EAB) of Fe@CNFs@Co/C elastic aerogels shows continuous changes from low frequency to high frequency. The EAB of Fe@CNFs@Co/C elastic aerogels is 14.4 GHz (3.36–17.76 GHz), which covers 90% of the range of S/C/X/Ku bands. The theoretical simulation indicates that the external pressure prompts a reduction in the spacing between the fiber layers in the aerogels and facilitates the formation of a 3D conductive network with enhanced attenuation ability of EMW. The uniform distribution of metal particles and appropriate layer spacing can effectively optimize the impedance matching to achieve the best EMW absorption performance. This work state clearly that the hierarchically assembled elastic aerogels composed of metal–organic frameworks (MOFs) derivatives and carbon fibers are ideal dynamic EMW absorption materials for intelligent EMW response. image

InfoMatVol. 7(1)
Fudan University (CN), Collaborative Innovation Center of Chemistry for Energy Materials (CN), Shaanxi University of Science and Technology (CN)
National Natural Science Foundation of China, Key Research and Development Projects of Shaanxi Province
Openalex Percentile: Top 1%
Electromagnetic wave absorption materials
8.37
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