面向微波吸收机理的二硫化钼基复合材料结构优化与设计展望

IF 11.6 2区材料科学 Q1 CHEMISTRY, PHYSICAL

Carbon Pub Date : 2025-03-19 DOI:10.1016/j.carbon.2025.120233

Jinkun Liu , Yuelei Pan , Liyuan Yu , Zhenguo Gao , Siyuan Zhang , Di Lan , Zirui Jia , Guanglei Wu

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引用次数: 0

摘要

电磁波吸收（EMA）材料可以有效地解决随着无线通信的广泛应用而带来的电磁污染问题。其中，二维过渡金属硫化物MoS2因其面积大、导电性好，具有良好的微波吸收电位。然而，纯二硫化钼的损耗机制相对均匀，阻抗匹配有限，吸收电磁波的能力有限。增强二硫化钼微波吸收能力的一种行之有效的方法是将其与其他有损材料相结合。本文综述了基于二硫化钼的EMA材料的最佳组件设计，并介绍了EMA的主要机制。此外，为了为设计和生产更有效的MoS2基EMA材料提供一些方向和见解，本研究解决了MoS2 EMA材料未来可能面临的可能性和障碍。

本文章由计算机程序翻译，如有差异，请以英文原文为准。

MoS2-based composites for microwave absorption mechanism-oriented structural optimization and design perspectives

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MoS2-based composites for microwave absorption mechanism-oriented structural optimization and design perspectives

Electromagnetic wave absorbing (EMA) materials can effectively address the electromagnetic pollution problem associated with the widespread use of wireless communications. Among them, the two-dimensional transition metal sulfide MoS2 has good microwave absorption potential due to its large area and good conductivity. However, pure MoS2 has a relatively homogeneous loss mechanism, limited impedance matching, and limited ability to absorb electromagnetic waves. A tried-and-true method for enhancing MoS₂'s microwave absorption capabilities is to combine it with other lossy materials. This study reviews the best component designs for MoS₂-based EMA materials and presents the main mechanisms of EMA. Additionally, in an effort to offer some direction and insights for the design and production of more effective MoS₂-based EMA materials, this study addresses the possibilities and obstacles that MoS₂ EMA materials may face in the future.

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来源期刊

Carbon 工程技术-材料科学：综合

CiteScore

20.80

自引率

7.30%

发文量

审稿时长

23 days

期刊介绍： The journal Carbon is an international multidisciplinary forum for communicating scientific advances in the field of carbon materials. It reports new findings related to the formation, structure, properties, behaviors, and technological applications of carbons. Carbons are a broad class of ordered or disordered solid phases composed primarily of elemental carbon, including but not limited to carbon black, carbon fibers and filaments, carbon nanotubes, diamond and diamond-like carbon, fullerenes, glassy carbon, graphite, graphene, graphene-oxide, porous carbons, pyrolytic carbon, and other sp2 and non-sp2 hybridized carbon systems. Carbon is the companion title to the open access journal Carbon Trends. Relevant application areas for carbon materials include biology and medicine, catalysis, electronic, optoelectronic, spintronic, high-frequency, and photonic devices, energy storage and conversion systems, environmental applications and water treatment, smart materials and systems, and structural and thermal applications.