H 2 has a sufficiently high energy density and a combustion process that emits no carbon,
therefore being an appealing storable alternative to fossil fuels. With evident advantages of …

Electrocatalytic direct seawater splitting is considered to be one of the most desirable and
necessary approach to produce substantial amount of green hydrogen to meet the energy …

Electrocatalytic water splitting using renewable electricity is widely recognized as a
promising approach toward sustainable green hydrogen production. However, the energy …

In electrochemical energy conversion and storage (EECS) technologies, develo** highly
active electrocatalysts and electrode materials with improved electrochemical and cycling …

Sluggish kinetics of the anodic oxygen evolution reaction (OER) and minor upstream upsets
in feed water quality remain bottlenecks for efficient water electrolysis, which is exacerbated …

Heterogenous electrocatalysis continues to witness propagating interest in a plethora of non‐
limiting electrochemical fields. Of which, water electrolysis has moved from lab‐scale …

Rapid cost reduction of green hydrogen is essential for the large‐scale deployment of
hydrogen‐based energy system. A major component in achieving this is the development of …

Hydrogen generation from water splitting is of great prospect for the sustainable energy
conversion. However, it is still challenging to explore stable and high-performance …

Direct seawater electrolysis (DSWE) has been investigated as a candidate solution for
hydrogen (H 2) production using abundant seawater without the water purification …

Seawater electrolysis is fundamental for the large-scale production of green hydrogen. The
development of durable, highly active oxygen evolution reaction (OER) catalysts represents …