Zhang Haitao, Feng Bo, Yang Suoluosu, Ruan Ruolin, Zhang Rong, Xiong Tongqiang, Xu Biyu, Zheng Zhipeng, Zhou Guopeng, Zhang Yang, Wang Kewei, Zhong Yin, Fan Yanhua, Zuo Xiaoqiong
Institute of Engineering and Technology, Hubei University of Science and Technology, Xianning 437100, China.
School of Mechanical and Electrical Engineering, Wuhan Donghu University, Wuhan 430070, China.
Micromachines (Basel). 2025 Jun 12;16(6):703. doi: 10.3390/mi16060703.
Since 2010, BiCuSeO has emerged as a captivating subject of investigation within the realm of thermoelectric materials. Its allure lies in a remarkable confluence of characteristics: a distinctive natural super-lattice structure, an elevated Seebeck coefficient, and a low thermal conductivity, all of which have collectively piqued the intense interest of scientists worldwide. Over the subsequent eight-year period, an extensive array of research endeavors has been meticulously carried out, delving deep into the multifaceted properties of BiCuSeO and exploring avenues for performance enhancement. In this comprehensive review, we embark on a detailed exploration of the fundamental properties of BiCuSeO, encompassing its preparation methodologies, as well as its thermoelectric and mechanical attributes. A thorough synthesis of diverse strategies for optimizing the composition and structure of BiCuSeO is presented, elucidating how these modifications contribute to the enhancement of its thermoelectric and mechanical performance. Finally, the current state of research on N-type BiCuSeO is systematically summarized, offering a panoramic view of the advancements and challenges in this particular area.
自2010年以来,BiCuSeO已成为热电材料领域中一个引人入胜的研究对象。它的魅力在于一系列显著特性的融合:独特的天然超晶格结构、较高的塞贝克系数和较低的热导率,所有这些共同激发了全球科学家的浓厚兴趣。在随后的八年里,人们开展了广泛的研究工作,深入探究了BiCuSeO的多方面性质,并探索了提高其性能的途径。在这篇全面的综述中,我们详细探讨了BiCuSeO的基本性质,包括其制备方法以及热电和机械属性。本文全面总结了优化BiCuSeO组成和结构的各种策略,阐明了这些改性如何有助于提高其热电和机械性能。最后,系统总结了N型BiCuSeO的研究现状,呈现了这一特定领域的进展和挑战的全景。