Soft chemical reactions such as ion-exchange and acid–base reactions have been
extensively investigated to synthesize novel metastable layered inorganic solids, to exfoliate …

Exploring new materials is essential in the field of material science. Especially, searching for
optimal materials with utmost atomic utilization, ideal activities and desirable stability for …

Proton exchange membrane water electrolysis is a promising technology to produce green
hydrogen from renewables, as it can efficiently achieve high current densities. Lowering …

Despite the scarcity and cost of iridium oxide, it is still the material of choice in numerous
fields of science and applications, including capacitors, electrochromism, sensors, and …

The electro-oxidation of water to oxygen is expected to play a major role in the development
of future electrochemical energy conversion and storage technologies. However, the slow …

The acidic oxygen evolution reaction underpins several important electrical‐to‐chemical
energy conversions, and this energy‐intensive process relies industrially on iridium‐based …

Metal leaching during water oxidation has been typically observed in conjunction with
surface reconstruction on perovskite oxide catalysts, but the role of metal leaching at each …

Iridium and ruthenium and their oxides/hydroxides are the best candidates for the oxygen
evolution reaction under harsh acidic conditions owing to the low overpotentials observed …

The fabrication of highly active and robust hexagonal ruthenium oxide nanosheets for the
electrocatalytic oxygen evolution reaction (OER) in an acidic environment is reported. The …

Improving catalytic activity of surface iridium sites without compromising catalytic stability is
the core task of designing more efficient electrocatalysts for oxygen evolution reaction (OER) …