Litcius/Paper detail

Collaborative multi-interface engineering and dynamic iron exchange boost robust bifunctional water electrolysis at 2 A cm<sup>−2</sup>

Dongyang Li, Yong Zhang, Weiqiang Xie, Qian Zhou, Yu Fang, Ying Qi, Ziyi Lian, Long Zhang, Hui Wang, Dongsheng Tang, Haiqing Zhou

2024Energy & Environmental Science55 citationsDOI

Abstract

An efficient and stable catalyst is developed by in-situ growing Fe particles onto a MoNi 4 /MoO 2 nanorod surface, which presents superb bifunctional activities for water electrolysis due to collaborative multi-interfaces and dynamic iron exchange.

Topics & Concepts

BifunctionalElectrolysisInterface (matter)Computer scienceChemical engineeringMaterials scienceEnvironmental scienceChemistryEngineeringElectrodeCatalysisPhysical chemistryElectrolytePulmonary surfactantBiochemistryGibbs isothermHydrogen Storage and MaterialsFuel Cells and Related MaterialsElectrocatalysts for Energy Conversion