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Unraveling the impact of the electronic structure of LaFeO3(112) on oxygen evolution reaction.

Created on 09 Jul 2026

Authors

Ebrahim Tayyebi, Markus Lanzinger, Iman Sohrabnejad-Eskan, Kai S Exner

Published in

Physical chemistry chemical physics : PCCP. Jul 09, 2026. Epub Jul 09, 2026.

Abstract

Self-consistent density functional theory calculations including a Hubbard U correction (DFT+UHub) were performed to investigate the oxygen evolution reaction (OER) on the LaFeO3(112) surface, considering reaction mechanisms with and without lattice oxygen participation. First, the DFT+UHub approach was used to evaluate bulk properties of LaFeO3, including the lattice parameters, magnetic moments, and band gap. Subsequently, the effect of the UHub parameter on the binding energies of key reaction intermediates and its influence on the catalytic activity were examined. The results highlight the critical role of electronic structure in governing OER activity and demonstrate that systematic variation of the UHub parameter provides a robust strategy for probing qualitative reaction trends in complex transition metal oxides, rather than relying on a single UHub value for quantitative predictions of activity. Based on the present level of theory and the adopted model system, the results also suggest that the most favorable OER pathway on surface Fe sites likely involves lattice oxygen participation.

PMID:
42423013
Bibliographic data and abstract were imported from PubMed on 09 Jul 2026.

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