A screen-printing method for manufacturing of current collectors for structural batteries

Q1 Materials Science Multifunctional Materials Pub Date : 2021-01-01 DOI:10.1088/2399-7532/ac2046
Wilhelm Johannisson, D. Carlstedt, Awista Nasiri, Christina Buggisch, P. Linde, D. Zenkert, L. Asp, G. Lindbergh, B. Fiedler
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引用次数: 10

Abstract

Structural carbon fibre composite batteries are a type of multifunctional batteries that combine the energy storage capability of a battery with the load-carrying ability of a structural material. To extract the current from the structural battery cell, current collectors are needed. However, current collectors are expensive, hard to connect to the electrode material and add mass to the system. Further, attaching the current collector to the carbon fibre electrode must not affect the electrochemical properties negatively or requires time-consuming, manual steps. This paper presents a proof-of-concept method for screen-printing of current collectors for structural carbon fibre composite batteries using silver conductive paste. Current collectors are screen-printed directly on spread carbon fibre tows and a polycarbonate carrier film. Experimental results show that the electrochemical performance of carbon fibre vs lithium metal half-cells with the screen-printed collectors is similar to reference half-cells using metal foil and silver adhered metal-foil collectors. The screen-printed current collectors fulfil the requirements for electrical conductivity, adhesion to the fibres and flexible handling of the fibre electrode. The screen-printing process is highly automatable and allows for cost-efficient upscaling to large scale manufacturing of arbitrary and complex current collector shapes. Hence, the screen-printing process shows a promising route to realization of high performing current collectors in structural batteries and potentially in other types of energy storage solutions.
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一种用于制造结构电池集流器的丝网印刷方法
结构碳纤维复合电池是一种将电池的储能能力与结构材料的承载能力相结合的多功能电池。为了从结构电池单元中提取电流,需要集流器。然而,集流器价格昂贵,难以与电极材料连接,并且增加了系统的质量。此外,将集流器连接到碳纤维电极上不能对电化学性能产生负面影响,也不需要耗时的手动步骤。提出了一种利用银导电浆料丝网印刷结构碳纤维复合电池集流器的概念验证方法。电流收集器直接丝网印刷在扩散的碳纤维束和聚碳酸酯载体膜上。实验结果表明,采用丝网印刷集电极的碳纤维与锂金属半电池的电化学性能与采用金属箔和镀银金属箔集电极的参考半电池相似。丝网印刷集流器满足电导率、纤维粘附性和纤维电极柔性处理的要求。丝网印刷过程是高度自动化的,并且允许经济高效地升级到大规模制造任意和复杂的集热器形状。因此,丝网印刷工艺显示了在结构电池和其他类型的能量存储解决方案中实现高性能集流器的有希望的途径。
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来源期刊
Multifunctional Materials
Multifunctional Materials Materials Science-Materials Science (miscellaneous)
CiteScore
12.80
自引率
0.00%
发文量
9
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