Designing future nanomaterials for electromagnetic wave absorption and shielding

The rapid development of wireless technologies has transformed the applications of electromagnetic (EM) materials from traditional military stealth to broader application in civilian fields. This progress has expanded their frequency range, diversified usage scenarios, and fostered a transition toward nanomaterial-based solutions. Despite these advancements, significant scientific and technical challenges remain, such as the elusive interaction mechanism between nanomaterials and EM waves, overheating caused by EM attenuation, limited attenuation performance of conductive polymers, high EM-wave power consumption, and precise dynamic control of material properties. In this Voices article, we seek answers to the above challenges from a panel of experts.

Authors

Publication Details

Journal
Cell Reports Physical Science
Published
2025-03-01
DOI
https://doi.org/10.1016/j.xcrp.2025.102502
Citations
19
Primary Topic
Electromagnetic wave absorption materials
Type
article
Field-Weighted Citation Impact
8.12
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article

Designing future nanomaterials for electromagnetic wave absorption and shielding

Junwei Gu, Jie Kong, Xiaosi Qi, Renchao Che et al.
19 citations
Cell Reports Physical Science
Electromagnetic wave absorption materials
8.12
article

Designing future nanomaterials for electromagnetic wave absorption and shielding

Junwei Gu, Jie Kong, Xiaosi Qi, Renchao Che, Yi Huang, Guanglei Wu, Hongjing Wu, Wei Lü, Xiaofang Liu, Hualiang Lv
article en
19 citations

Abstract

The rapid development of wireless technologies has transformed the applications of electromagnetic (EM) materials from traditional military stealth to broader application in civilian fields. This progress has expanded their frequency range, diversified usage scenarios, and fostered a transition toward nanomaterial-based solutions. Despite these advancements, significant scientific and technical challenges remain, such as the elusive interaction mechanism between nanomaterials and EM waves, overheating caused by EM attenuation, limited attenuation performance of conductive polymers, high EM-wave power consumption, and precise dynamic control of material properties. In this Voices article, we seek answers to the above challenges from a panel of experts.

Cell Reports Physical ScienceVol. 6(3)
Openalex Percentile: Top 2%
Electromagnetic wave absorption materials
8.12
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