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缺陷工程推动热电材料发展。

Defect Engineering Advances Thermoelectric Materials.

作者信息

Wu Chunlu, Shi Xiao-Lei, Wang Lijun, Lyu Wanyu, Yuan Pei, Cheng Lina, Chen Zhi-Gang, Yao Xiangdong

机构信息

State Key Laboratory of Inorganic Synthesis and Preparative Chemistry, College of Chemistry, Jilin University, Changchun 130012, China.

School of Chemistry and Physics, ARC Research Hub in Zero-emission Power Generation for Carbon Neutrality, and Centre for Materials Science, Queensland University of Technology, Brisbane, Queensland 4000, Australia.

出版信息

ACS Nano. 2024 Nov 19;18(46):31660-31712. doi: 10.1021/acsnano.4c11732. Epub 2024 Nov 5.

Abstract

Defect engineering is an effective method for tuning the performance of thermoelectric materials and shows significant promise in advancing thermoelectric performance. Given the rapid progress in this research field, this Review summarizes recent advances in the application of defect engineering in thermoelectric materials, offering insights into how defect engineering can enhance thermoelectric performance. By manipulating the micro/nanostructure and chemical composition to introduce defects at various scales, the physical impacts of diverse types of defects on band structure, carrier and phonon transport behaviors, and the improvement of mechanical stability are comprehensively discussed. These findings provide more reliable and efficient solutions for practical applications of thermoelectric materials. Additionally, the development of relevant defect characterization techniques and theoretical models are explored to help identify the optimal types and densities of defects for a given thermoelectric material. Finally, the challenges faced in the conversion efficiency and stability of thermoelectric materials are highlighted and a look ahead to the prospects of defect engineering strategies in this field is presented.

摘要

缺陷工程是调节热电材料性能的有效方法,在提升热电性能方面展现出巨大潜力。鉴于该研究领域的快速发展,本综述总结了缺陷工程在热电材料应用中的最新进展,深入探讨了缺陷工程如何提高热电性能。通过操控微/纳米结构和化学成分以在不同尺度引入缺陷,全面讨论了各类缺陷对能带结构、载流子和声子输运行为的物理影响,以及机械稳定性的改善。这些研究结果为热电材料的实际应用提供了更可靠、高效的解决方案。此外,还探讨了相关缺陷表征技术和理论模型的发展,以帮助确定给定热电材料的最佳缺陷类型和密度。最后,强调了热电材料在转换效率和稳定性方面面临的挑战,并展望了该领域缺陷工程策略的前景。

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