The hydrogen (H) spillover effect on metal/support electrocatalysts plays a significant role in
facilitating the hydrogen evolution reaction (HER). However, the gradual accumulated …

The interface between electrocatalyst and electrolyte is highly dynamic. Even in absence of
major structural changes, the intermediate coverage and interfacial solvent are bias and …

Water is a salient component in catalytic systems and acts as a reactant, product and/or
spectator species in the reaction. Confined water in distinct local environments can display …

Renewable energy storage via water electrolysis strongly depends on the design of
electrified electrode–electrolyte interfaces at which electricity is converted into chemical …

Achieving near-zero overpotential for a large-scale hydrogen evolution reaction (HER) using
multi-principal element alloys is a formidable challenge. These alloys, characterized by their …

Ion (de) solvation at solid–electrolyte interfaces is pivotal for energy and chemical
conversion technology, such as (electro) catalysis, batteries and bipolar membranes. For …

The mixture of CO and H2, known as syngas, is a building block for many substantial
chemicals and fuels. Electrochemical reduction of CO2 and H2O to syngas would be a …

Electrocatalytic hydrogen evolution reaction (HER) in alkaline media was investigated in
comparative relationship to HER in acidic media. Experimentally obtained adsorption free …

Abstract Design of active and stable electrocatalysts for the oxygen evolution reaction (OER)
requires in‐depth understanding of the electrocatalyst properties and interfacial structural …

Synergistic optimization of nitrogen dissociation and hydrogen transfer might be an efficient
strategy to develop a highly efficient ammonia synthesis catalyst. Herein, the Ni‐modified …