Seawater electrolysis emerges as a viable solution for sustainable hydrogen production,
leveraging areas abundant in renewable energy but scarce in freshwater. However, the …

Owing to the presence of a substantial concentration of chlorine in seawater, the anode still
faces severe chlorine corrosion, especially the water splitting operated at high current …

Renewable energy technologies have been continuously improved as a result of the
pressing need for sustainable energy. Among these, hydrogen energy has received …

The utilization of seawater for hydrogen production via water splitting is increasingly
recognized as a promising avenue for the future. The key dilemma for seawater electrolysis …

The construction of efficient and durable multifunctional electrodes for industrial‐scale
hydrogen production presents a main challenge. Herein, molybdenum‐modulated …

NiFe‐based hydroxides are well‐established as efficient electrocatalysts for the oxygen
evolution reaction (OER) in alkaline purified water. However, they usually degrade rapidly in …

With the development of renewable energy technologies, electrochemical water splitting has
been proven to be an effective strategy for energy conversion. Especially, exploring a …

Nickel-iron layered double hydroxides (NiFe-LDH) with tunable catalytic properties have
shown promise as an outstanding alternative to ruthenium iridium oxide for the oxygen …

Sustainable water electrolysis powered by renewable energy requires cost-efficient,
effective, and robust catalysts. This study utilizes NiMoFeO and its nitrogen-doped carbon …

Rational design of heterostructure catalysts through phase engineering strategy plays a
critical role in heightening the electrocatalytic performance of catalysts. Herein, a novel …