第十一章。制造业的进步

E. Kendrick
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引用次数: 6

摘要

锂离子电池(LIB)制造由索尼公司于20世纪90年代建立;然而,这些过程的进展以及对这些过程对最终细胞性能的科学理解仍有待了解。LIB制造的标准流程包括:油墨混合,涂层和干燥,电池结构和设计,以及形成和调理步骤。材料特性决定了混合方法,从而决定了颗粒在混合物或浆料中的分散。在大尺度上,混合技术的进步是一个连续的过程,但在小尺度上,高能和高扭矩混合仍然是主要的混合方法。厚电极锂离子电池的主要涂层技术是槽模或逗号条技术;替代技术,如静电喷涂和电泳涂层仍然主要用于较薄的电极涂层。静电干燥涂层和激光技术也取得了进展。最昂贵的制造过程之一是形成和调理步骤,这一过程可以通过短的高压循环而不是完整的循环来缩短。由于每个过程对锂离子电池的最终设计,结构和性能的复杂相互作用,当一个参数改变时,它可以影响电池的最终性能。在制造和测试细胞之前,参数变化的连锁效应还不能完全理解。本章讨论了锂和钠离子电池的制造方面以及最近的技术进展。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
CHAPTER 11. Advancements in Manufacturing
Lithium ion battery (LIB) manufacturing was established in the 1990s by Sony; however, advancements in the processes and the scientific understanding of those processes upon the final cell performances are still being understood. A standard process for LIB manufacturing includes: ink mixing, coating and drying, cell construction and design, and the formation and conditioning steps. The material properties determine the mixing methodologies, and hence the dispersion of the particles in a mix or a slurry. Advancements in mixing technologies have been observed at large scale with a continuous process, however at small scale high energy and high torque mixing are still the main mixing methods. The main coating technology for thick electrode lithium ion cells is the slot die or comma bar techniques; alternative techniques such as electrostatic sprayings, and electrophoretic coatings are still mainly used for thinner electrode coatings. Advancements are being made in electrostatic dry coating and laser technologies. One of the most costly manufacturing procedures is the formation and conditioning step, and this process can be shortened by short high voltage cycling rather than complete cycles. Due to the complex interplay of each process upon the final design, structure and hence properties of the lithium ion battery, when one parameter is changed, it can affect the final performance of the cell. The knock-on effects of the parameter changes are not completely understood until a cell has been manufactured and tested. This chapter discusses the manufacturing aspects of lithium and sodium ion batteries and the recent advancements in technology.
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