Abstract: Electrical materials are the basis of electrical equipment, and their characteristics directly determine the limit of electromagnetic parameters of electrical equipment. With the improvement of science, production, and living standards, the requirements for the functions and performance of electrical equipment have increased. Theoretical research and engineering practice show that electrical equipment based on traditional electrical materials cannot fully satisfy the rapidly growing needs of human society. The research of new electrician materials and their applications should allow the future electrician equipment to have the ability to challenge the limit of electromagnetic parameters, Material Genome Engineering provides new technical means for the design and screening of electrical materials in a high-throughput way, reducing the development cycle and cost of electrical materials by more than half. This paper presents examples of material genome engineering applied to the development of electrical materials. These cases show the applicability of material genome engineering techniques in the development of electrical materials. This paper also focuses on the current status of the application of big data technology represented by machine learning in the research and development of electrical materials.
王博, 盛鹏, 徐丽, 李圣驿, 白会涛, 李慧, 薛晴. 材料基因工程技术在电工材料研发中的应用与展望[J]. 材料导报, 2024, 38(13): 23020098-17.
WANG Bo, SHENG Peng, XU Li, LI Shengyi, BAI Huitao, LI Hui, XUE Qing. Material Genome Engineering in Electrical Material Research and Development: Recent Applications and Prospects. Materials Reports, 2024, 38(13): 23020098-17.
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2024, Vol. 38 
