Electrochemical water splitting is regarded as the most auspicious technology for renewable
sources, transport, and storage of hydrogen energy. Currently, noble Pt metal and noble …

As a potential energy carrier, hydrogen has surged up the priority list as part of broader
decarbonization efforts and strategies to build or acquire clean energy economies. Driven by …

Develo** robust and highly active non‐precious electrocatalysts for the hydrogen/oxygen
evolution reaction (HER/OER) is crucial for the industrialization of hydrogen energy. In this …

Realizing efficient electrocatalysts is a step** stone toward achieving high‐performance
alkaline water/seawater electrolysis, but remains a crucial challenge. Herein …

Rational design of the catalysts is impressive for sustainable energy conversion. However,
there is a grand challenge to engineer active sites at the interface. Herein, hierarchical …

Simultaneous highly efficient production of hydrogen and conversion of biomass into value‐
added products is meaningful but challenging. Herein, a porous nanospindle composed of …

Rational design and construction of bifunctional electrocatalysts with excellent activity and
durability is imperative for water splitting. Herein, a novel top‐down strategy to realize a …

Electrospinning is used to fabricate microscale to nanoscale materials from polymeric
solutions based on electrohydrodynamics. Material modifications are achieved through …

Exploring earth‐abundant and highly efficient electrocatalysts is critical for further
development of water electrolyzer systems. Integrating bifunctional catalytically active sites …

Electrocatalytic water splitting is an appealing method for generating renewable hydrogen.
In acidic media, noble metals are commonly used as electrocatalysts, whereas in alkaline …