材料科学
电磁学
电磁辐射
导电体
光电子学
MXenes公司
弯曲
灵活性(工程)
电导率
电磁干扰
工程物理
电磁场
无线
异质结
传输(电信)
压电
电磁干扰
电气工程
电子工程
纳米技术
传导电磁干扰
载流子
电子
计算机科学
电磁兼容性
静电感应
电磁学
变形(气象学)
电磁频谱
传感器
无线电频率
作者
Feifei Lin,Shuang Qian,Lingbin Xie,Changxiao Zhou,S S Liu,Weiwei Zhao,Qiang Zhao
出处
期刊:Nano Letters
[American Chemical Society]
日期:2026-06-25
卷期号:26 (26): 8443-8456
被引量:1
标识
DOI:10.1021/acs.nanolett.6c02011
摘要
With the advancement of the Internet of Everything (IoE), flexible electromagnetics has emerged to enable adjustable electromagnetic performance under mechanical deformation. As key electromagnetic devices, flexible radio-frequency (RF) antennas enable reliable wireless communication, which requires conductive materials that combine mechanical flexibility with high electrical conductivity to minimize electromagnetic loss. However, maintaining efficient electron transport while accommodating deformation remains a major challenge. MXene emerges as a promising electromagnetic material because its atomic-thin layers can slide under bending to reduce strain, and its high in-plane conductivity enables efficient electron transport. Nevertheless, the monolayer defects or inefficient interlayer charge transport in MXene films increases the effective skin depth and weakens surface current confinement, thereby increasing electromagnetic transmission loss with reduced radiation efficiency. This review summarizes recent advances in high-conductivity (≥10,000 S cm –1 ) MXene electromagnetic films and outlines the challenges and prospects for their application in flexible RF antennas.
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