电解水
电解
电力转天然气
聚合物电解质膜电解
质子交换膜燃料电池
碱性水电解
膜
离子交换
废物管理
氢氧化物
水运
电解质
分解水
化学
化学工程
工艺工程
材料科学
环境科学
燃料电池
离子
催化作用
环境工程
工程类
电极
有机化学
物理化学
生物化学
光催化
水流
作者
Dirk Henkensmeier,Malikah Najibah,Corinna Harms,Jan Žitka,Jaromír Hnát,Karel Bouzek
摘要
Abstract One promising way to store and distribute large amounts of renewable energy is water electrolysis, coupled with transport of hydrogen in the gas grid and storage in tanks and caverns. The intermittent availability of renewal energy makes it difficult to integrate it with established alkaline water electrolysis technology. Proton exchange membrane (PEM) water electrolysis (PEMEC) is promising, but limited by the necessity to use expensive platinum and iridium catalysts. The expected solution is anion exchange membrane (AEM) water electrolysis, which combines the use of cheap and abundant catalyst materials with the advantages of PEM water electrolysis, namely, a low foot print, large operational capacity, and fast response to changing operating conditions. The key component for AEM water electrolysis is a cheap, stable, gas tight and highly hydroxide conductive polymeric AEM. Here, we present target values and technical requirements for AEMs, discuss the chemical structures involved and the related degradation pathways, give an overview over the most prominent and promising commercial AEMs (Fumatech Fumasep® FAA3, Tokuyama A201, Ionomr Aemion™, Dioxide materials Sustainion®, and membranes commercialized by Orion Polymer), and review their properties and performances of water electrolyzers using these membranes.
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