Self-discharge of Supercapacitor under Different Timeframe for Open Circuit Condition

M. A. Jabbar, M. I. Fahmi, Sb Yaakob, H. F. Liew, Nns Nordin, M. Z. Aihsan
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引用次数: 1

Abstract

Supercapacitors start to become major energy storage for electrical and electronic applications other than batteries. It provides better charging and discharging cycle in terms of time and rate of current which is higher than batteries. The ability to charge and discharge at a high current makes the supercapacitor has a higher power density which made it suitable for various application with high power demand. Supercapacitor is also sustainable material as it has a high charging cycle and longer life span. Self-discharge is the only drawback of the supercapacitor when compared to a battery. Supercapacitor self-discharge is affected by the charge and discharge cycle and the time taken to discharge after charge which will be the focus of this paper. The time where the supercapacitor is let in an open circuit gives effect toward the next self-discharge condition after fully charged to its rated voltage. The same rated supercapacitor will undergo constant current charging and be stored at a different timeframe and measure the self-discharge. The different timeframe to store the supercapacitor even with the same capacitance and rated voltage in an open circuit condition gives an effect on the self-discharge rate where the results show the longer time the supercapacitor is stored after fully charged, the higher the self-discharge rate of the supercapacitor will be.
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超级电容器在不同开路时间下的自放电特性
超级电容器开始成为除电池以外的电气和电子应用的主要能量存储。它提供了更好的充放电周期在时间和电流速率方面,高于电池。大电流充放电的能力使超级电容器具有较高的功率密度,适用于各种高功率需求的应用。超级电容器也是可持续材料,因为它具有高充电周期和更长的寿命。与电池相比,自放电是超级电容器唯一的缺点。超级电容器的自放电受充放电周期和充后放电时间的影响,这将是本文研究的重点。超级电容器处于开路状态的时间对完全充电到额定电压后的下一个自放电条件有影响。相同的额定超级电容器将进行恒流充电,并在不同的时间段存储,并测量自放电。在相同的电容和额定电压条件下,不同的储存时间会对自放电速率产生影响,结果表明,超级电容器在充满电后储存时间越长,其自放电速率越高。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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