The poor stability of RuO 2 electrocatalysts has been the primary obstacles for their practical
application in polymer electrolyte membrane electrolyzers. To dramatically enhance the …

The electrocatalysis of oxygen evolution reaction (OER) plays a key role in clean energy
storage and transfer. Nonetheless, the sluggish kinetics and poor durability under acidic and …

Designing highly durable and active electrocatalysts applied in polymer electrolyte
membrane (PEM) electrolyzer for the oxygen evolution reaction remains a grand challenge …

Electrochemical acidic oxygen evolution reaction (OER) is an important part for water
electrolysis utilizing a proton exchange membrane (PEM) apparatus for industrial H2 …

Ruthenium (Ru) and its compounds with abundant d-orbital electrons are considered as
potential candidates to replace commercial iridium-based catalysts for proton exchange …

Electrocatalysts capable of working efficiently in acidic media for the oxygen evolution
reaction (OER) are highly demanded for the large-scale utilization of proton exchange …

RuO2 belongs to the most active electrode materials for the anodic oxygen evolution
reaction (OER) within the electrochemical water splitting, such as those encountered in …

Hydrogen production from water electrolysis is important for the sustainable development of
hydrogen energy. Nevertheless, the naturally torpid property of anodic oxygen evolution …

Exquisite design of RuO2‐based catalysts to simultaneously improve activity and stability
under harsh conditions and reduce the Ru dosage is crucial for advancing energy …

RuO2 is the most efficient material reported so far for acidic oxygen evolution reaction
(OER), yet suffering from insufficient stability in practical water-splitting operations. Targeting …