All-solid state batteries for space exploration

A. Beutl, Ningxin Zhang, Marcus Jahn, M. Nestoridi
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引用次数: 2

Abstract

The paper reports the investigations performed in the course of the ESA TRP activity (Contract No. 4000123997/18/NL/HK) on the use of solid polymer electrolytes for safe lithium ion batteries for clean space. The objective is to develop 1Ah prototype pouch cells without using any volatile liquid component. The exchange of conventional, highly flammable electrolytes with solid Li+-conducting polymers significantly improves the electrochemical and thermal stability range of the battery cells. Thereby fragmentation events, and thus propagation of space debris, caused by battery malfunction can be mitigated. In the presented work, filled polymer electrolytes were investigated for potential use in all-solid-state lithium-ion batteries. The polyethylene oxide-based polymer phase was either mixed with a lithium-ion conducting glass-ceramic (active) or BaTiO3 (passive) filler resulting in self-sustaining solid electrolyte membranes. Furthermore, carbon anodes and NMC622 cathodes were optimized to enable the assembly of full cells with enhanced safety properties.
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用于太空探索的全固态电池
本文报告了在欧空局TRP活动(合同号4000123997/18/NL/HK)过程中进行的关于使用固体聚合物电解质用于清洁空间的安全锂离子电池的调查。目标是在不使用任何挥发性液体成分的情况下开发1Ah的袋状电池原型。传统的、高度易燃的电解质与固体Li+导电聚合物的交换显著提高了电池的电化学和热稳定性范围。因此,可以减轻电池故障造成的碎片事件,从而减少空间碎片的传播。在本文中,研究了填充聚合物电解质在全固态锂离子电池中的潜在应用。聚乙烯氧化物基聚合物相与锂离子导电玻璃陶瓷(活性)或BaTiO3(被动)填料混合,形成自持固体电解质膜。此外,对碳阳极和NMC622阴极进行了优化,以实现具有增强安全性能的完整电池的组装。
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