Gas bubbles generated by the hydrogen evolution reaction and oxygen evolution reaction
during water electrolysis influence the energy conversion efficiency of hydrogen production …

In electrochemical hydrogen evolution reaction (HER), the produced hydrogen gas bubbles
often adhered to the electrode surface and blocked the active catalytic site. While different …

Electrochemical reactions involving gaseous chemicals as reactants or products have the
potential to play a critical role in transitioning to a sustainable, carbon-neutral society. Such …

Development of cost-effective catalysts providing low overpotentials and enhanced
efficiency is a critical goal of contemporary research on electrochemical water splitting and …

Many oxygen evolution reaction electrocatalysts lose their ability to transfer mass at high
current densities, leading to the adoption of renewable power to make “green” hydrogen a …

The existence of interfacial nanobubbles on electrode surfaces is thought to block the active
area, leading to a considerable decrease in the energy conversion efficiency. Gaining …

Gas‐evolving electrodes often suffer from the blocking of catalytic active sites—due to
unwanted and unavoidable adhesion of generated gas bubbles, which elevates the …

In the process of electrocatalytic water splitting, managing gaseous products is crucial.
Rapid gas diffusion on the electrode surface can accelerate mass transfer, thereby …

Crystallization fouling, a process where mineral scales form on surfaces, is of broad
importance in nature and technology, negatively impacting water treatment and electricity …

Realization of scalable technologies for key processes like electrochemical water splitting
requires the development of sustainable, efficient and cost‐effective catalytic electrodes. The …