High oxygen evolution reaction activity of ruthenium and long term stability of iridium in acidic electrolytes make their mixed oxides attractive candidates for utilization as anodes in water electrolyzers. Indeed, such materials were addressed in numerous previous studies. The application of a scanning flow cell connected to an inductively coupled plasma mass spectrometer allowed us now to examine the stability and activity toward oxygen evolution reaction of such mixed oxides in parallel. The whole composition range of Ir–Ru mixtures has been covered in a thin film material library. In the whole composition range the rate of Ru dissolution is observed to be much higher than that of Ir. Eventually, due to the loss of Ru, the activity of th...
RuO 2 is commercially employed as an anodic catalyst in the chlor-alkali process. It is also one of ...
Owing to their superior electrocatalytic performance, non-stoichiometric mixed oxides are often cons...
Proton exchange membrane water electrolysis is widely used in hydrogen production, but its applicati...
The increasing scarcity of iridium (Ir) and its rutile-type oxide (IrO2), the current state-of-the-a...
A sustainable method for hydrogen production can be achieved with PEM water electrolysers. These are...
The formation processes of RuO2/TiO2, IrO2/TiO2 and IrO2/ZrO2 film electrodes were studied by combin...
International audiencePure crystalline ruthenium-iridium oxide materials were synthesized with high ...
We continue our review of recent research into oxides of platinum group metals (pgms), in particular...
Rutile RuO2 catalysts are the most active pure metal oxides for oxygen evolution; however, they are ...
The anodic oxygen evolution reaction OER has significant importance in many electrochemical techno...
RuO2/Ta2O5 mixed oxide electrodes have been investigated by XPS-AES techniques and X-ray diffractome...
International audiencedecomposition process. The suitable heat treatment of the polymeric precursors...
Oxygen evolution was studied on semiconducting IrxRu1 amp; 8722; xS2 single crystals. Degeneracy wa...
The dissolution behaviors of Ru and ruthenium oxide nanoparticles in acidic media were studied for t...
RuO 2 is commercially employed as an anodic catalyst in the chlor-alkali process. It is also one of ...
Owing to their superior electrocatalytic performance, non-stoichiometric mixed oxides are often cons...
Proton exchange membrane water electrolysis is widely used in hydrogen production, but its applicati...
The increasing scarcity of iridium (Ir) and its rutile-type oxide (IrO2), the current state-of-the-a...
A sustainable method for hydrogen production can be achieved with PEM water electrolysers. These are...
The formation processes of RuO2/TiO2, IrO2/TiO2 and IrO2/ZrO2 film electrodes were studied by combin...
International audiencePure crystalline ruthenium-iridium oxide materials were synthesized with high ...
We continue our review of recent research into oxides of platinum group metals (pgms), in particular...
Rutile RuO2 catalysts are the most active pure metal oxides for oxygen evolution; however, they are ...
The anodic oxygen evolution reaction OER has significant importance in many electrochemical techno...
RuO2/Ta2O5 mixed oxide electrodes have been investigated by XPS-AES techniques and X-ray diffractome...
International audiencedecomposition process. The suitable heat treatment of the polymeric precursors...
Oxygen evolution was studied on semiconducting IrxRu1 amp; 8722; xS2 single crystals. Degeneracy wa...
The dissolution behaviors of Ru and ruthenium oxide nanoparticles in acidic media were studied for t...
RuO 2 is commercially employed as an anodic catalyst in the chlor-alkali process. It is also one of ...
Owing to their superior electrocatalytic performance, non-stoichiometric mixed oxides are often cons...
Proton exchange membrane water electrolysis is widely used in hydrogen production, but its applicati...