B. Bairwa, K. Pareek, Mrinal Sarvagya, U. Yaragatti
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引用次数: 11
摘要
本文对超级电容器自放电时的漏电流进行了计算。建立了三支路等效电路模型(ECM),对市售2.7 V 350F (BCAP350)双层电容器(DLC)的电压响应和漏电流进行了估计。实验工作采用0.25安培和0.5安培两个恒流充电段进行。仿真数据与电化学工作站CH760e的实验结果吻合较好,在0.25安培和0.5安培充电电流下,RMSE和MAE误差分别为0.0633、0.05715和0.0759、0.04173。结果证实了ECM模型能够模拟超级电容器的复杂终端行为,为研究其作为储能器件的应用提供了手段。
Analysis of Leakage Current Mechanism in Supercapacitor with Experimental Approach
In this paper, we evaluated the leakage current of super capacitor during self-discharge. A three branch electrical equivalent circuit model (ECM) is constructed to estimate voltage response and leakage current of commercially available 2.7 V 350F (BCAP350) double-layer capacitor (DLC). Experimental work carried out with two constant current charging segments 0.25 ampere, and 0.5 amperes. Simulated data shows good agreement with experimental results obtained at electro-chemical workstation CH760e with RMSE and MAE error up to 0.0633, 0.05715, and 0.0759, 0.04173 for 0.25 ampere and 0.5 amperes charging current, respectively. The results confirm that the ECM model is capable to simulate the complex terminal behavior of the super capacitor and provides the means to study its application as an energy storage device.