Understanding metal surface reconstruction during operation is of the uttermost importance in heterogeneous catalysis as it directly affects the available active sites. However, surface reconstruction is notoriously difficult to study because of the dynamic nature of the phenomena behind it. Here, we report on the intermediates, which drive the rearrangement of copper catalysts during the electrochemical CO2 reduction reaction (CO2RR). In-situ methods, including mass spectrometry and fluorescence spectroscopy, evidence a dissolution – redeposition process mediated by transient species containing copper in +1 oxidation state. Density functional theory simulations identify copper-adsorbate complexes which form in solution under operating cond...
Redox-active copper catalysts with accurately prepared oxidation states (Cu0, Cu+ and Cu2+) and high...
Copper (Cu) remains the most important metal catalyst for the carbon dioxide reduction reaction (CO2...
The carbon–carbon (C–C) bond formation is essential for the electroconversion of CO2 into high-energ...
The effective abatement of atmospheric carbon through its conversion via electrochemical reduction t...
The effective abatement of atmospheric carbon through its conversion via electrochemical reduction t...
The effective abatement of atmospheric carbon through its conversion via electrochemical reduction t...
The electrochemical CO2 reduction reaction (CO2RR) using Cu-based catalysts holds great potential fo...
This work describes several studies into the electroreduction of carbon dioxide (CO2RR), both regard...
The increasing atmospheric carbon dioxide (CO2) level is calling for more efficient CO2 fixation sys...
The urgency of climate change demands the simultaneous removal of carbon dioxide from the atmosphere...
Copper (Cu) remains the most important metal catalyst for the carbon dioxide reduction reaction (CO2...
Understanding the changes that a catalyst may experience on its surface during a reaction is crucial...
The increasing atmospheric carbon dioxide (CO2) level is calling for more efficient CO2 fixation sys...
Copper (Cu) remains the most important metal catalyst for the carbon dioxide reduction reaction (CO2...
Polycrystalline copper electrocatalysts have been experimentally shown to be capable of reducing CO{...
Redox-active copper catalysts with accurately prepared oxidation states (Cu0, Cu+ and Cu2+) and high...
Copper (Cu) remains the most important metal catalyst for the carbon dioxide reduction reaction (CO2...
The carbon–carbon (C–C) bond formation is essential for the electroconversion of CO2 into high-energ...
The effective abatement of atmospheric carbon through its conversion via electrochemical reduction t...
The effective abatement of atmospheric carbon through its conversion via electrochemical reduction t...
The effective abatement of atmospheric carbon through its conversion via electrochemical reduction t...
The electrochemical CO2 reduction reaction (CO2RR) using Cu-based catalysts holds great potential fo...
This work describes several studies into the electroreduction of carbon dioxide (CO2RR), both regard...
The increasing atmospheric carbon dioxide (CO2) level is calling for more efficient CO2 fixation sys...
The urgency of climate change demands the simultaneous removal of carbon dioxide from the atmosphere...
Copper (Cu) remains the most important metal catalyst for the carbon dioxide reduction reaction (CO2...
Understanding the changes that a catalyst may experience on its surface during a reaction is crucial...
The increasing atmospheric carbon dioxide (CO2) level is calling for more efficient CO2 fixation sys...
Copper (Cu) remains the most important metal catalyst for the carbon dioxide reduction reaction (CO2...
Polycrystalline copper electrocatalysts have been experimentally shown to be capable of reducing CO{...
Redox-active copper catalysts with accurately prepared oxidation states (Cu0, Cu+ and Cu2+) and high...
Copper (Cu) remains the most important metal catalyst for the carbon dioxide reduction reaction (CO2...
The carbon–carbon (C–C) bond formation is essential for the electroconversion of CO2 into high-energ...