Electrochemical water splitting technology for producing “green hydrogen” is important for
the global mission of carbon neutrality. Electrocatalysts with decent performance at high …

The electrochemical hydrogen evolution reaction (HER) that converts renewable electricity
into storable hydrogen, a sustainable and clean energy carrier, provides a promising …

Green hydrogen is obtained by electrochemical water splitting using electricity converted
from renewable energy sources. When green hydrogen undergoes combustion, it produces …

Given the abundant reserves of seawater and the scarcity of freshwater, real seawater
electrolysis is a more economically appealing technology for hydrogen production relative to …

Developing efficient bifunctional electrocatalysts toward oxygen/hydrogen evolution
reactions is crucial for electrochemical water splitting toward hydrogen production. The high …

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 …

The key dilemma for green hydrogen production via electrocatalytic water splitting is the
high overpotential required for anodic oxygen evolution reaction (OER). Co/Fe‐based …

Developing robust nonprecious-metal electrocatalysts with high activity towards sluggish
oxygen-evolution reaction is paramount for large-scale hydrogen production via …

Alkaline water electrolysis is a commercially viable technology for green H2 production
using renewable electricity from intermittent solar or wind energy, but very few non‐noble …

The slow kinetics of oxygen evolution reaction (OER) causes high power consumption for
electrochemical water splitting. Various strategies have been attempted to accelerate the …