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Research demonstrates high current operation of anion exchange membrane water electrolyzer, suggesting enhanced catalytic performance.
One of challenges for industrial water electrolysis is to achieve large-sized electrodes with high structural uniformity and reaction stability. Here, catalyst electrodes of water electrolyzer with delicate nanostructures are fabricated through a facile corrosion engineering and ion regulation co-strategy. Herein the corrosion engineering is an energy efficient (60 ℃, 10 min) and scalable route to transforming the commercial nickel foam into catalytic active materials, while the introduction of suitable anions in solutions induces the formation of ordered V-RuNi and W-NiFe nanostructures available to catalyze hydrogen/oxygen evolution reactions. The ion doping effect is proposed to elaborate the enhanced catalytic activity. Then an anion exchange membrane (AEM) water electrolyzer (electrode area: 19×19 cm 2 ) is assembled and operates stably for 200 h at a high current of 10 A with a negligible degradation. This work provides a research paradigm to realize the large-area fabrication of low-cost catalyst electrodes for industrial hydrogen generation via water electrolysis.
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Lei et al. (2026) studied this question.
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