This review paper explores into the extensive realm of alkaline water electrolysis (AWE), a
transformative technology for hydrogen production, offering profound insights and future …

The defect engineering at the surface by filling of oxygen vacancies during OER causing
surface reconstruction is considered to be a unique way to boost up intrinsic electrocatalytic …

Developing high‐efficiency and stable bifunctional electrocatalysts for water splitting
remains a great challenge. Herein, NiMoO4 nanowires as sacrificial templates to synthesize …

Hydrogen is a prime candidate for replacing fossil fuels. Electrolyzing water to produce
hydrogen stands out as a particularly clean method, garnering significant attention from …

Cost-effective copper-based materials with their abundant reserves, good electrical
conductivity, and a wide range of redox properties that are promising for the electrochemical …

The oxygen evolution reaction (OER) in electrochemical water electrolysis typically undergo
high overpotentials and slow kinetics, greatly hindering the progress of the electrolytic water …

An available approach to ameliorate the property of electrocatalysts for transition metal
selenides (TMSs) is to transform their structure, morphology, and elemental composition …

The excessive laborious water dissociation and proton deficiency on the active sites are the
major obstruction towards the industrial application of alkaline hydrogen evolution reaction …