The well‐established proton exchange membrane (PEM)‐based water electrolysis, which
operates under acidic conditions, possesses many advantages compared to alkaline water …

The oxygen evolution reaction (OER) is the efficiency-determining half-reaction process of
high-demand, electricity-driven water splitting due to its sluggish four-electron transfer …

Oxygen electrochemistry plays a critical role in clean energy technologies such as fuel cells
and electrolyzers, but the oxygen evolution reaction (OER) severely restricts the efficiency of …

Understanding the fundamentals of iridium degradation during the oxygen evolution
reaction is of importance for the development of efficient and durable water electrolysis …

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 oxygen evolution reaction (OER) is crucial to future energy systems based on water
electrolysis. Iridium oxides are promising catalysts due to their resistance to corrosion under …

Iridium–nickel (Ir–Ni) and iridium–cobalt (Ir–Co) nanowires have been synthesized by
galvanic displacement and studied for their potential to increase the performance and …

Advanced materials are needed to meet the requirements of devices designed for
harvesting and storing renewable electricity. In particular, polymer electrolyte membrane …

The balance of catalyst loading, activity and stability remains a challenge for the anode of
proton exchange membrane (PEM) water electrolyzers. Here we report a nano-size …

The topmost atomic layers of electrocatalysts determine the mechanism and kinetics of
reactions in many important industrial processes, such as water splitting, chlor-electrolysis or …