3D Printing of Micro Electrolyte Film by Using Micro-pen-writing

Yufang Zhao, Jun Luo, Hongcheng Lian, L. Qi
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引用次数: 1

Abstract

Micron-scaled electrolyte film of the PVA- H2SO4 polymer has received substantial attention because of the ability to assemble micro-capacitors, micro batteries, and organic light emitting diodes. However, the suitable thin film is still hardly available because of the high viscosity material, limiting the performance of final products. Herein, a direct writing method based on the micro pen was proposed to prepare an electrolyte film with several microns. First, uniform thin polymer lines were written to test the stability of the propose a method. Then, the relations between those parameters and the film thickness measured by the optical profilometer were obtained. Finally, a film, with the thickness down to 4μm, was printed by utilizing the suitable process parameters (i.e., the substrate speed v, the gap between the nozzle outlet and the substrate H, and the applied pressure p), showing a promising way for printing micro sandwich structures for energy storage.
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利用微笔书写技术3D打印微电解质薄膜
PVA- H2SO4聚合物的微米级电解质膜由于能够组装微型电容器、微型电池和有机发光二极管而受到广泛关注。然而,由于材料的高粘度,仍然很难获得合适的薄膜,限制了最终产品的性能。本文提出了一种基于微型笔的直接书写方法来制备几微米的电解质膜。首先,编写了均匀的细聚合物线来测试所提出方法的稳定性。然后,得到了这些参数与光学轮廓仪测得的膜厚之间的关系。最后,利用合适的工艺参数(即衬底速度v、喷嘴出口与衬底之间的间隙H和施加压力p),打印出厚度降至4μm的薄膜,为打印用于储能的微夹层结构提供了一条有前途的途径。
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