Membrane Strategies for Water Electrolysis

Мембранные стратегии для электролиза воды
Hui Xu, Yu Seung Kim, Christopher G. Arges, Eun Joo Park
2022-09-15

bipolar membranesgreen hydrogen productionion-exchange membranesperfluorosulfonic acidswater electrolysis
Hydrogen holds great promise as a clean energy resource to help the global carbon-free energy goal. Green hydrogen production from renewable energy-powered water electrolysis can decarbonize hard-to-abate industries and transport applications. Ion-exchange membranes are an essential component of membrane-based water electrolysis, enabling high hydrogen production efficiency through a zero-gap configuration. While perfluorosulfonic acids are the standard polymer electrolyte membrane material, research efforts for membrane alternatives have increased over the years to drive down the cost of electrolyzers and improve devices’ durability without sacrificing performance and efficiency. Here we present our perspectives on acidic, alkaline, and bipolar membranes for water electrolyzers and discuss future research directions to develop advanced membranes for green hydrogen production technology.
1
Advancing membrane materials and designs is identified as a key research direction for scalable green hydrogen production.
2
Alternative acidic, alkaline, and bipolar membranes are being investigated to reduce electrolyzer costs and improve durability without sacrificing performance or efficiency.
3
Green hydrogen produced by renewable-powered water electrolysis can decarbonize hard-to-abate industrial and transport applications.
4
Ion-exchange membranes enable efficient water electrolysis by supporting zero-gap electrolyzer configurations.
5
Perfluorosulfonic acids remain the standard polymer electrolyte membrane materials for water electrolyzers.

Ion-exchange membranes in water electrolyzers

Membrane strategies and material alternatives for improving the cost, durability, performance, and efficiency of water electrolysis for green hydrogen production

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Publication Date
2022-09-15
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Authors
Hui Xu
Yu Seung Kim
Christopher G. Arges
Eun Joo Park
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