Supercapacitor Supported by Nickel, Cobalt and Conducting Polymer Based Materials: Design Techniques and Current Advancement

S. Mardikar, Sagar D. Balgude, S. Uke
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引用次数: 1

Abstract

The recent advanced electronic appliances demand special high power devices with lightweight, flexible, inexpensive, and environment friendly in nature. In addition, for many industrial and automotive applications, we need energy storage systems that can store energy in a short time and deliver an intense pulse of energy for long duration. Till date the Li-ion battery is the only choice for fulfilling all our energy storage demands. However, the high cost, limited availability and non-environmental nature of electrodes and electrolyte material of Li-ion battery limits its applicability. Hence, the world demands an alternative replacement for the Li-ion battery. In this regard, the supercapacitor is one of the most emerging and potential energy storage devices. The electrode plays an important role in supercapacitors. The nickel and cobalt based oxide, hydroxides, and their composites with conducting polymer are promising and highly appreciated electrode materials for supercapacitors. This chapter covers the recent advances in supercapacitors supported by nickel, cobalt and conducting polymer based materials and their applications predominantly described in the recent literature. Recent advances are reviewed including new methods of synthesis, nanostructuring, and self-assembly using surfactant and modifiers. This chapter also covered the applications of supercapacitors in powering the light weight, flexible and wearable electronics.
镍、钴和导电聚合物基材料支撑的超级电容器:设计技术和最新进展
近年来,先进的电子产品要求具有轻便、灵活、廉价和环保性质的特殊大功率器件。此外,对于许多工业和汽车应用,我们需要能够在短时间内存储能量并在长时间内提供强脉冲能量的储能系统。到目前为止,锂离子电池是满足我们所有能量存储需求的唯一选择。然而,锂离子电池电极和电解质材料的高成本、有限的可用性和非环保性限制了其适用性。因此,世界需要一种替代锂离子电池的替代品。在这方面,超级电容器是最新兴和最有潜力的储能器件之一。电极在超级电容器中起着重要的作用。镍钴基氧化物、氢氧化物及其与导电聚合物的复合材料是非常有前途的超级电容器电极材料。本章涵盖了镍、钴和导电聚合物基材料支撑的超级电容器的最新进展及其在最近文献中的主要应用。综述了近年来的研究进展,包括新的合成方法、纳米结构以及表面活性剂和改性剂的自组装。本章还介绍了超级电容器在为轻质、柔性和可穿戴电子产品供电方面的应用。
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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