Polyvinylidene fluoride (PVDF) Nanofiber Modified Current Collector in Anode-Free Lithium Battery

H. Widiyandari, Adama DinaPanuntun, Hanaiyah Parasdila, Iqbal Firdaus, Agus Purwanto
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Abstract

In order to coat the layer of the Cu for an anode-free lithium battery (AFLB) and examine AFLB performance, PVDF nanofiber with electrospinning is used. The fabrication time and molecular weight of the nanofiber can be modified. In comparison to conventional models, the AFLB is one of the new model options that provides great energy density at the same battery size. The disadvantages of this new model battery include its limited electrochemical performance and the fact that it is still in its initial stages of manufacturing. Low Coulombic efficiency and uncontrolled dendritic growth are challenges in the growth of AFLB. For the fabrication of nanofiber membranes were synthesized with different types of PVDF Mw 1.300.000 and 534.000, PVDF Nanofibers were made using electrospinning with time variations of 5 hours, 7 hours, and 9 hours, and their thermal, mechanical, and porosity properties were examined. The PVDF Mw 1.300.000 sample had the greatest porosity percentage value which is 47.031% during a 9-hour time. The PVDF Mw 534.000 sample had the highest tensile strength results, with a variation of 2.33 MPa during a 9-hour time. The PVDF Mw 1.300.000 sample had the highest percentage elongation results, 39.7%. The average nanofiber size varies with processing time, with the PVDF Mw 1.300.000 sample having the smallest size at 167.9 nm.
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聚偏二氟乙烯(PVDF)纳米纤维改性集流体在无阳极锂电池中的应用
为了涂覆无阳极锂电池(AFLB)的铜层并检验 AFLB 的性能,使用了电纺丝的 PVDF 纳米纤维。纳米纤维的制造时间和分子量可以改变。与传统电池相比,AFLB 是一种新型电池,它能在电池尺寸不变的情况下提供高能量密度。这种新型电池的缺点是电化学性能有限,而且仍处于制造的初始阶段。库仑效率低和树枝状生长不可控是 AFLB 生长过程中面临的挑战。为了制造纳米纤维膜,我们合成了不同类型的 PVDF(分子量分别为 1.300.000 和 534.000),用电纺丝法制造 PVDF 纳米纤维,时间分别为 5 小时、7 小时和 9 小时,并考察了它们的热性能、机械性能和孔隙率。在 9 小时的时间内,PVDF Mw 1.300.000 样品的孔隙率百分比值最大,为 47.031%。PVDF Mw 534.000 样品的拉伸强度最高,在 9 小时内的变化幅度为 2.33 兆帕。PVDF Mw 1.300.000 样品的伸长率最高,为 39.7%。纳米纤维的平均尺寸随加工时间而变化,PVDF Mw 1.300.000 样品的尺寸最小,为 167.9 nm。
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