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Results for “oxygen evolution”
Search indexed NASA NTRS and DOE OSTI research on propulsion, heat transfer, battery materials and energy systems. Follow report and document links to the original sources.
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Understanding the Effect of Ni-Substitution on the Oxygen Evolution Reaction of (100) IrO[subscript
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Improved Catalyst Performance for the Oxygen Evolution Reaction under a Chiral Bias
Not Available
Correction to “Fe-Doped Ni-Based Catalysts Surpass Ir-Baselines for Oxygen Evolution Due to Optimal Charge-Transfer Characteristics”
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Powdered Mn y Sb 1– y O x Catalysts for Cerium-Mediated Oxygen Evolution in Acidic Environments
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Vacancy Occupation-Driven Polymorphic Transformation in Cobalt Ditelluride for Boosted Oxygen Evolution Reaction
Abstract not provided
Valence Alignment of Mixed Ni-Fe Hydroxide Electrocatalysts through Preferential Templating on Graphene Edges for Enhanced Oxygen Evolution
Abstract not provided
Constant Change: Exploring Dynamic Oxygen Evolution Reaction Catalysis and Material Transformations
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High-Density Cobalt Single-Atom Catalysts for Enhanced Oxygen Evolution Reaction
Not provided.
Iridium Nanocrystals Enriched with Defects and Atomic Steps to Enhance Oxygen Evolution Reaction Performance
The presence of defects can significantly improve catalytic activity and stability, as they influence the binding of the reactants, intermediates, and products to the catalyst. Controlling defects in the structures of nanocrystal catalysts is synthetically challenging. In this study, we demonstrate the ability to control the growth of Ir nanocrystals, enabling the tuning of both structural and surface defects. The Ir nanocrystals have unique structures that range from single crystals of a few nanometers to twinned nanoparticles and multiply twinned crystallites with a high density of atomic steps. Further, this approach of defect engineering enables us to understand their roles in enhancing the performance of the OER and producing an Ir catalyst with both high activity and stability. Our results show the importance of the concept of using synthetic control of structural and surface defects in metal nanoparticles as a strategy to improve catalytic performance.