第三章。质子交换膜式水电解器:材料、结构和性能

T. Bystron, M. Paidar, T. Klicpera, M. Schuster, K. Bouzek
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引用次数: 3

摘要

全氟磺化酸(PFSAs)聚合物电解质膜的发展给电解技术的设计带来了重要的变革。虽然最初针对的是盐水电解工艺,但它已经在许多不同的技术中找到了不可替代的地位,包括利用氢的能量转换技术。尽管基于pfsa的质子交换膜(PEM)燃料电池(fc)已经相当成熟,但PEM在水电解(WE)中的应用是一项新兴技术。本章回顾了目前公认的PEMWE中使用的最先进的材料和组件,并介绍了当前试验中记录的主要挑战和未来解决方案的展望。尽管可以从PEMFC技术中获得关于PEMWE工艺的大量信息,但由于这两种技术的根本差异,仍然存在许多问题。这些包括更极端的电极电位,主要是由缓慢的析氧反应(OER)动力学和使用水作为反应物引起的。这两个方面导致对建筑材料的要求更高,这与PEMFC技术有很大的不同。我们将从催化剂和聚合物电解质开始讨论单个组件,并继续讨论单电极、电池和电池堆结构。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Chapter 3. Proton Exchange Membrane Water Electrolysers: Materials, Construction and Performance
Development of perfluorinated sulphonated acids (PFSAs) polymer electrolyte membranes brought about an important revolution in the design of electrolysis technology. Although originally targeted to the brine electrolysis process, it has found an irreplaceable position in a number of different technologies including energy conversion technologies utilising hydrogen. Although PFSA-based proton exchange membrane (PEM) fuel cells (FCs) are quite well established, the use of PEM in water electrolysis (WE) is an emerging technology. This chapter provides a review on the currently accepted state-of-the-art materials and components used in PEMWE, as well as introducing the main challenges and outlooks to their future solutions documented on selected current trials. Although a significant amount of information on PEMWE process can be derived from PEMFC technology, many questions remain, due to the fundamental differences in these two technologies. These include more extreme electrode potentials, caused predominantly by the sluggish oxygen evolution reaction (OER) kinetics and use of water acting as a reactant. These two aspects result in greater demands on the construction materials, which are significantly different from PEMFC technology. Individual components will be discussed starting from the catalysts and polymer electrolytes used and continuing to the single electrode, to the cell and cell stack construction.
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