模板电合成纳米电极增强碱性水电解槽的性能

F. Ganci, V. Cusumano, C. Sunseri, R. Inguanta
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引用次数: 3

摘要

可再生能源发电量的增加给电网管理带来了问题。为了有利于从现有能源生产向可再生能源的过渡,有必要制定战略,开发合适的储能系统。当然,电化学制氢可以被认为是最有前途的储氢技术之一。在这项工作中,提出了一种创新的碱性电解槽,从基于纳米结构电极的设计到模拟实际操作的测试结果。采用模板电合成方法制备纳米结构电极,这是一种简单、廉价的方法。实验室规模的电化学反应器是由3D打印机制造的。在30% w/w的KOH水溶液中电解的结果与在其他相同条件下使用平面电极的传统电池的结果进行了比较。
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Performance Enhancement of Alkaline Water Electrolyzer Using Nanostructured Electrodes Synthetized by Template Electrosynthesis
The increase of power generation by renewable sources is causing problems in the management of the electricity grid. In order to favor the transition from the current energy production towards renewable energy sources, it is necessary to plan strategy to develop suitable energy storage systems. Certainly, the electrochemical hydrogen production can be considered as one of the most promising storage technologies. In this work, an innovative alkaline electrolyzer is presented from its design based on the use of nanostructured electrodes up to its implementation suggested by the results of tests simulating real operation. The nanostructured electrodes were fabricated by template electrosynthesis that is a simple and inexpensive process. The lab-scale electrochemical reactor was made by a 3D printer. The electrolysis results from the innovative cell operated in 30% w/w KOH aqueous solution were compared with those from a conventional one employing planar electrodes in otherwise identical conditions.
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