采用单晶电解质的紧凑型全固态锂二次电池的研制

Q4 Social Sciences Synthesiology Pub Date : 2019-01-01 DOI:10.5571/SYNTHENG.12.1_29
K. Kataoka, Tadayoshi Akao, H. Nagata, H. Nagai, J. Akimoto, J. Akedo
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引用次数: 5

摘要

−29−Synthesiology英文版Vol.12 No.1 pp.29-40 (august 2019)二次电池。根据日本“NEDO 2013财年发展蓝图”,全固态电池被定位为完全覆盖下一代电池潜力的产品,并将于2030年实现实用化。传统的锂二次电池大致由正极、负极、电解液和分离正负极的分离器四部分组成。另一方面,全固态锂二次电池由正极、负极和锂固体电解质(锂离子导体)三部分组成,其中锂固体电解质既起到了电解质的作用,又起到了隔膜的作用。图1为常规液态锂二次电池和全固态锂二次电池的示意图。而传统液态锂二次电池的正负极材料可以全固态使用
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Development of a compact all-solid-state lithium secondary battery using single-crystal electrolyte
−29− Synthesiology English edition Vol.12 No.1 pp.29–40 (Aug. 2019) secondary battery. According to the NEDO roadmap for FY 2013 in Japan, an all-solid-state battery is positioned as a product that fully covers the potential of a next-generation battery, and is set for practical utilization in 2030. The conventional lithium secondary battery is roughly composed of four parts: a positive electrode, a negative electrode, an electrolyte, and a separator that separates the positive and negative electrodes. On the other hand, an all-solidstate lithium secondary battery is composed of three parts: a positive electrode, a negative electrode, and a lithium solid electrolyte (a lithium ion conductor), and the lithium solid electrolyte plays the roles of both an electrolyte and a separator. Figure 1 shows a schematic diagram of a conventional liquid-state lithium secondary battery and an all-solid-state lithium secondary battery. While the materials for positive and negative electrodes in conventional liquidstate lithium secondary batteries can be used in all-solid
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Synthesiology
Synthesiology Social Sciences-Social Sciences (all)
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