Exploring an alternative anodic reaction to produce value‐added chemicals with high
selectivity, especially integrated with promoted hydrogen generation, is desirable. Herein, a …

Different from the previous study that biomass derivatives replace water oxidation for
enhancing hydrogen production, we found that mild oxidation was more conductive to …

Clean hydrogen evolution through electrochemical water splitting underpins various
innovative approaches to the pursuit of sustainable energy conversion technologies, but it is …

For electrocatalytic water splitting, the sluggish anodic oxygen evolution reaction (OER)
restricts the cathodic hydrogen evolution reaction (HER). Therefore, developing an …

As an environmentally friendly approach to generate H2, electrocatalytic water splitting has
attracted worldwide interest. However, its broad employment has been inhibited by costly …

Electrocatalytic water splitting powered by renewable energy is a sustainable approach for
hydrogen production. However, conventional water electrolysis may suffer from gas mixing …

It is critical to design bifunctional nonprecious electrocatalysts with low costs and high
efficiency for hydrogen production. Conventional electrocatalysts, on the other hand …

The electrochemical oxidation of small molecules to generate value‐added products has
gained enormous interest in recent years because of the advantages of benign operation …

Generation of clean energy in a viable manner demands efficient and sustainable catalysts.
One prospective method of clean energy generation is the electrochemical hydrogen …

Electrochemical water splitting for H2 production is limited by the sluggish anode oxygen
evolution reaction (OER), thus using hydrazine oxidation reaction (HzOR) to replace OER …