We present high-pressure x-ray photoelectron spectroscopy (HP-XPS) and first-principles kinetic Monte Carlo study addressing the nature of the active surface in CO oxidation over Pd(100). Simultaneously measuring the chemical composition at the surface and in the near-surface gas phase, we reveal both O-covered pristine Pd(100) and a surface oxide as stable, highly active phases in the near-ambient regime accessible to HP-XPS. Surprisingly, no adsorbed CO can be detected during high CO2 production rates, which can be explained by a combination of a remarkably short residence time of the CO molecule on the surface and mass-transfer limitations in the present setup
Using in situ high-pressure x-ray photoelectron spectroscopy, we have followed the oxidation and the...
In light of accumulating evidence highlighting the major effect of operational conditions (gas compo...
The CO oxidation reaction on the Pd(111) model catalyst at various temperatures (200-400 degrees C) ...
We present high-pressure x-ray photoelectron spectroscopy (HP-XPS) and first-principles kinetic Mont...
Performing fundamental operando catalysis studies under realistic conditions is a key to further dev...
Performing fundamental operando catalysis studies under realistic conditions is a key to further dev...
Performing fundamental operando catalysis studies under realistic conditions is a key to further dev...
ConspectusMotivated mainly by catalysis, gas-surface interaction between single crystal surfaces and...
The possible significance of oxide formation for the catalytic activity of transition metals in hete...
AbstractWe have performed a quantitative structure determination of the 5×5R27° surface oxide, forme...
The possible significance of oxide formation for the catalytic activity of transition metals in hete...
The possible significance of oxide formation for the catalytic activity of transition metals in hete...
The possible formation of oxides or thin oxide films (surface oxides) on late transition-metal surfa...
We employ a multiscale modeling approach to study the surface structure and composition of a Pd(100)...
Catalytic CO oxidation reaction on a Pd(100) single-crystal surface under several hundred mTorr pres...
Using in situ high-pressure x-ray photoelectron spectroscopy, we have followed the oxidation and the...
In light of accumulating evidence highlighting the major effect of operational conditions (gas compo...
The CO oxidation reaction on the Pd(111) model catalyst at various temperatures (200-400 degrees C) ...
We present high-pressure x-ray photoelectron spectroscopy (HP-XPS) and first-principles kinetic Mont...
Performing fundamental operando catalysis studies under realistic conditions is a key to further dev...
Performing fundamental operando catalysis studies under realistic conditions is a key to further dev...
Performing fundamental operando catalysis studies under realistic conditions is a key to further dev...
ConspectusMotivated mainly by catalysis, gas-surface interaction between single crystal surfaces and...
The possible significance of oxide formation for the catalytic activity of transition metals in hete...
AbstractWe have performed a quantitative structure determination of the 5×5R27° surface oxide, forme...
The possible significance of oxide formation for the catalytic activity of transition metals in hete...
The possible significance of oxide formation for the catalytic activity of transition metals in hete...
The possible formation of oxides or thin oxide films (surface oxides) on late transition-metal surfa...
We employ a multiscale modeling approach to study the surface structure and composition of a Pd(100)...
Catalytic CO oxidation reaction on a Pd(100) single-crystal surface under several hundred mTorr pres...
Using in situ high-pressure x-ray photoelectron spectroscopy, we have followed the oxidation and the...
In light of accumulating evidence highlighting the major effect of operational conditions (gas compo...
The CO oxidation reaction on the Pd(111) model catalyst at various temperatures (200-400 degrees C) ...