Dimensionality-driven sustainable biocarbon-based microwave absorbers: From bio-waste to functional materials

Muhammad Adnan Aslam , Rabia Ahsen , Zubaida Rukhsana Usha , Obaid Iqbal , Sarmad Ali , Nian Li , Zhenyang Wang
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Abstract

In the quest for a sustainable economy and an electromagnetic pollution-free environment, microwave absorbers have garnered significant interest. Researchers are diligently investigating the use of precursors derived from bio-waste materials, such as agricultural waste, sewage sludge, and animal waste, to promote a greener future. The electromagnetic wave (EMW) absorption characteristics of biocarbon are intricately linked to its morphology, dimensionality, microstructure, and composition, which are influenced by the biocarbon precursor, carbonization technique, and temperature. Herein, we summarized the recent advances in the synthesis approaches of microwave absorption materials. Then, based on EMW absorption theory, the microwave absorption of pure and biocarbon-based composite absorbers has been discussed in detail. Since biocarbon keeps its natural morphology after carbonization we classified the biocarbon-based absorbers into three categories: 1) 1D microstructures, 2) 2D flaky microstructures, and 3) 3D porous microstructures. In addition, the effect of surface modifications and doping of these microstructures with different dielectric/magnetic compounds have been analyzed. By comparative analysis of reported literature on these microstructures, 3D porous biocarbon microstructures and their composites emerge as the most promising candidates as low-cost and efficient EMW absorbers. Finally, we discussed the prospect of low-cost, low-density, highly efficient microwave absorbers obtained from waste-derived biocarbon.
维度驱动的可持续生物碳基微波吸收剂:从生物废物到功能材料
在追求可持续经济和无电磁污染环境的过程中,微波吸收器引起了人们极大的兴趣。研究人员正在努力研究从农业废弃物、污水污泥和动物粪便等生物废弃物中提取前体的用途,以促进更绿色的未来。生物炭的电磁波吸收特性与其形态、尺寸、微观结构和组成有着复杂的联系,而这些又受生物炭前驱体、炭化技术和温度的影响。本文综述了近年来微波吸收材料合成方法的研究进展。然后,基于EMW吸收理论,详细讨论了纯复合吸波剂和生物碳基复合吸波剂的微波吸收特性。由于生物碳在炭化后保持其自然形态,我们将生物碳基吸收剂分为三大类:1)一维微结构、2)二维片状微结构和3)三维多孔微结构。此外,还分析了不同介电/磁性化合物对这些微结构的表面修饰和掺杂的影响。通过对这些微结构的文献报道进行对比分析,三维多孔生物碳微结构及其复合材料成为低成本、高效的EMW吸收剂。最后,对低成本、低密度、高效的生物炭微波吸收剂的研究前景进行了展望。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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