Development of a hybrid flow battery layout based on the derivatives of quinones and anthraquinones in alkaline solutions

Ivan A. Kazarinov, Danila E. Voronkov, Yuliya A. Kiseleva, Vladimir V. Oliskevich, Aleksandr Yu. Abramov, Peter G. Nikonorov
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Abstract

Practical interest in redox flow batteries (RFB) has arisen in recent decades due to the intensive development of alternative energy (such as solar and wind) and the regulation of peak loads in industrial electrical networks. It turns out that large-scale energy storage devices to compensate for fluctuations in solar and wind energy generation and to reduce peak loads in industrial electrical networks and power supply systems for large households are more profitable when redox flow batteries are used. Firstly, they are very easily scalable, and secondly, the energy stored in such batteries is cheaper. In this work, the electrochemical behavior of some promising organic systems based on quinone, anthraquinone and their analogs in alkaline solutions was studied using cyclic voltammetry. The layouts of the flow batteries based on a hybrid redox system (anthraquinone sulfonic acid sodium salt/potassium ferrocyanide and hydroquinone sulfonic acid sodium salt/potassium ferrocyanide) were developed. The operating voltage of such RFBs was about 0.75 and 0.85 V, respectively.
基于醌类和蒽醌类衍生物在碱性溶液中的混合液流电池布局的研究
近几十年来,由于替代能源(如太阳能和风能)的密集发展以及工业电网峰值负荷的调节,对氧化还原液流电池(RFB)的实际兴趣已经兴起。事实证明,当使用氧化还原液流电池时,用于补偿太阳能和风能发电波动以及减少工业电网和大型家庭供电系统峰值负荷的大规模储能设备更有利可图。首先,它们非常容易扩展,其次,储存在这种电池中的能量更便宜。本文采用循环伏安法研究了醌类、蒽醌类及其类似物在碱性溶液中的电化学行为。研究了基于蒽醌磺酸钠盐/亚铁氰化钾和对苯二酚磺酸钠盐/亚铁氰化钾混合氧化还原体系的液流电池布局。这类rfb的工作电压分别约为0.75 V和0.85 V。
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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