Oxygen evolution reaction (OER) is the most critical step in water splitting, still limiting the development of efficient alkaline water electrolyzers. Here we investigate the OER activity of Au-Fe nanoalloys obtained by laser-ablation synthesis in solution. This method allows a high amount of iron (up to 11 at\u2009%) to be incorporated into the gold lattice, which is not possible in Au-Fe alloys synthesized by other routes, due to thermodynamic constraints. The Au0.89 Fe0.11 nanoalloys exhibit strongly enhanced OER in comparison to the individual pure metal nanoparticles, lowering the onset of OER and increasing up to 20 times the current density in alkaline aqueous solutions. Such a remarkable electrocatalytic activity is associated to n...
Ni- and Co-based catalysts with added Fe demonstrate promising activity in the oxygen evolution reac...
International audienceCarbon-supported bimetallic AuCo and AuNi electrocatalysts were prepared from ...
In electrochemical energy conversion and storage, existing catalysts often contain a high percentag...
Oxygen evolution reaction (OER) is the most critical step in water splitting, still limiting the dev...
Oxygen evolution reaction (OER) is the most critical step in water splitting, still limiting the dev...
Addition of Fe to Ni- and Co-based (oxy)hydroxides has been shown to enhance the activity of these m...
Au–FexOy nanocomposites with a variable gold-to-iron ratio were stabilized with l-tryptophan. The sy...
Metastable alloy nanoparticles are investigated for their variety of appealing properties exploitabl...
The physical nature (e.g. crystal size or surface atomic arrangement) of an electrocatalyst is centr...
International audienceWe report a drastic enhancement of electrocatalytic activity toward glucose ox...
Defect engineering is a prevailing strategy for enhancing the oxygen evolution reaction activity for...
Ni- and Co-based catalysts with added Fe demonstrate promising activity in the oxygen evolution reac...
International audienceCarbon-supported bimetallic AuCo and AuNi electrocatalysts were prepared from ...
In electrochemical energy conversion and storage, existing catalysts often contain a high percentag...
Oxygen evolution reaction (OER) is the most critical step in water splitting, still limiting the dev...
Oxygen evolution reaction (OER) is the most critical step in water splitting, still limiting the dev...
Addition of Fe to Ni- and Co-based (oxy)hydroxides has been shown to enhance the activity of these m...
Au–FexOy nanocomposites with a variable gold-to-iron ratio were stabilized with l-tryptophan. The sy...
Metastable alloy nanoparticles are investigated for their variety of appealing properties exploitabl...
The physical nature (e.g. crystal size or surface atomic arrangement) of an electrocatalyst is centr...
International audienceWe report a drastic enhancement of electrocatalytic activity toward glucose ox...
Defect engineering is a prevailing strategy for enhancing the oxygen evolution reaction activity for...
Ni- and Co-based catalysts with added Fe demonstrate promising activity in the oxygen evolution reac...
International audienceCarbon-supported bimetallic AuCo and AuNi electrocatalysts were prepared from ...
In electrochemical energy conversion and storage, existing catalysts often contain a high percentag...