Enhancing Current Density and Specific Capacitance through Tensile TEMPO, Bacterial Cellulose and Polypirrole Nanocomposites

S. Yunus, Muhammad Fajar Ruhud Manurung, Aulia Aulia, Y. Arief
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Abstract

The researchers developed a bio-composite film material that serves as a substitute for metal. The materials used are TEMPO ((2,2,6,6-tetramethylpiperidine-1-oxyl)), Bacterial Cellulose, and Polypyrrole (Ppy). This research aimed to increase the material's current density and specific capacitance values using the drawing method. Composite nanomaterials are made by oxidizing BC (Bacterial Cellulose) with TEMPO. The resulting TOBC (TEMPO Bacterial Cellulose) material was mixed with Ppy using the in situ method. The mixture is then drawn wet—measurement of current density and capacitance using Cyclic Voltammetry (CV) Testing. The current density and specific capacitance results increased by 542.74% and 754.79% after drawing the nanocomposite material. It is directly proportional to the effects of characteristic testing, which includes SEM, XRD, and FTIR. As a result of the withdrawal of the polypyrrole, it will be more evenly distributed in the composite material, absorbing and coating the nata de coco. The researchers concluded that when the TOBC/Ppy fibers are straighter and denser, they achieve higher current density and capacitance values.
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通过拉伸 TEMPO、细菌纤维素和聚吡咯纳米复合材料增强电流密度和比电容
研究人员开发出一种生物复合薄膜材料,可作为金属的替代品。使用的材料是 TEMPO((2,2,6,6-四甲基哌啶-1-氧))、细菌纤维素和聚吡咯(Ppy)。这项研究旨在利用拉丝法提高材料的电流密度和比电容值。复合纳米材料是用 TEMPO 氧化 BC(细菌纤维素)制成的。用原位法将得到的 TOBC(TEMPO 细菌纤维素)材料与 Ppy 混合。然后使用循环伏安法 (CV) 测试对混合物进行湿法电流密度和电容测量。拉伸纳米复合材料后,电流密度和比电容结果分别增加了 542.74% 和 754.79%。这与包括 SEM、XRD 和 FTIR 在内的特征测试的效果成正比。由于聚吡咯的退出,它将更均匀地分布在复合材料中,吸收并包裹椰奶。研究人员得出结论,当 TOBC/Ppy 纤维更直、更密时,它们能获得更高的电流密度和电容值。
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