Electrochemical Evaluation of Lithium-Ion Battery with Anode of Layer-Reduced Biocarbon and Cathode of LiFePO4

N. Syarif, D. Rohendi, Nyimas Febrika Sya’baniah
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Abstract

The application of reduced carbon anode layer and LiFePO4 cathode was conducted in laboratory-scale battery. Both electrodes were fabricated into lithium - ion battery with LiCl electrolyte in both gel and liquid based. The carbon was prepared by using Hummer method and solvent sonification to exfoliate the carbon layer from biocarbon. The battery performance tests were carried out in potentiostat for Cyclic Voltammetry (CV) and galvanostatic measurements. The highest current of CV measurement can be obtained in the battery with reduced carbon layer anode and 20% of liquid electrolyte. It was calculated that the same battery produced the highest energy and power. Current - Voltage profile is relatively stable in CV of batteries with 40% electrolytes in both gel and liquid media. All batteries have two peaks in both anodic and cathodic. The reduction peaks show in around 0.5 and 1.5 volts. The cathodics show in around –0.5 and –1.5 volts. The best power and energy values are given by battery with rCNSO anode and 20% liquid electrolyte. Galvanostatic profiles show that the 40% electrolytes in the batteries produces a slower discharging process. It was revealed that applying anode of layer reduced biocarbon as the battery electrode caused the discharging to run faster. The highest slope value of the galvanostatic curve can be found in the battery with the electrode of oxidized starting material and 40% of gel electrolyte, while the lowest can be found in 20% gel electrolyte with the same electrode.
负极为层还原生物碳、负极为LiFePO4的锂离子电池的电化学评价
在实验室规模的电池中进行了还原碳阳极层和LiFePO4阴极的应用。两种电极分别以凝胶和液体两种电解质制备锂离子电池。采用Hummer法和溶剂超声法将生物炭中的碳层剥离。电池性能测试在恒电位器中进行循环伏安法(CV)和恒流测量。当电池负极为还原碳层、电解液含量为20%时,CV测量电流最高。据计算,同样的电池产生最高的能量和功率。在凝胶和液体介质中,当电解质含量为40%时,电池的CV中电流-电压分布相对稳定。所有电池在阳极和阴极都有两个峰值。还原峰出现在0.5和1.5伏左右。阴极显示在-0.5和-1.5伏左右。采用rCNSO阳极和20%液体电解质的电池功率和能量值最佳。恒流剖面显示,电池中40%的电解质产生较慢的放电过程。结果表明,采用层状还原性生物碳阳极作为电池电极,可使放电速度更快。以氧化起始材料为电极,凝胶电解质含量为40%时,恒流曲线斜率值最高,以凝胶电解质含量为20%时,恒流曲线斜率值最低。
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