We performed a series of density functional theory calculations of dissociative oxygen adsorption on fcc metals and their corresponding rocksalt monoxides to elucidate the relationship between the oxide electronic structure and its corresponding reactivity. We decomposed the dissociative adsorption energy of oxygen on an oxide surface into a sum of the adsorption energy on the metal and a change in adsorption energy caused by both expanding and oxidizing the lattice. We were able to identify the key features of the electronic structure that explains the trends in adsorption energies on 3d transition metal monoxide surfaces
The Cr2O3(0001) surface is assumed to terminate by chromium atoms, chromyl groups, and oxygen atoms....
We address the nature of the bond between water molecules and metal surfaces through a systematic de...
<p>The development of active and inexpensive catalysts is vital for progress in technologies related...
A new model of bonding between radical adsorbates and lattice oxygens is proposed that considers bot...
The surface of metal oxides comprises an important and extremely interesting area of surface science...
We report extensive density functional theory calculations, using pseudopotentials with a plane-wave...
The most commonly used catalysts in FT synthesis are transition metals, which involves iron, cobalt,...
Results of investigations on the adsorption of CO and O2 on transition metal surfaces by employinguv...
In this work we present results of a periodic density-functional theory study of the adsorption of c...
In this work we present results of a periodic density-functional theory study of the adsorption of c...
In this work we present results of a periodic density-functional theory study of the adsorption of c...
In this work we present results of a periodic density-functional theory study of the adsorption of c...
Density functional theory was used to investigate the chemical reactivity of oxygen vacancies on the...
The electronic structure and bonding at different oxygen sites of MoO3(0 1 0) and (1 0 0) surfaces i...
Funding Information: This work was supported by Business Finland through project Molecular Modelling...
The Cr2O3(0001) surface is assumed to terminate by chromium atoms, chromyl groups, and oxygen atoms....
We address the nature of the bond between water molecules and metal surfaces through a systematic de...
<p>The development of active and inexpensive catalysts is vital for progress in technologies related...
A new model of bonding between radical adsorbates and lattice oxygens is proposed that considers bot...
The surface of metal oxides comprises an important and extremely interesting area of surface science...
We report extensive density functional theory calculations, using pseudopotentials with a plane-wave...
The most commonly used catalysts in FT synthesis are transition metals, which involves iron, cobalt,...
Results of investigations on the adsorption of CO and O2 on transition metal surfaces by employinguv...
In this work we present results of a periodic density-functional theory study of the adsorption of c...
In this work we present results of a periodic density-functional theory study of the adsorption of c...
In this work we present results of a periodic density-functional theory study of the adsorption of c...
In this work we present results of a periodic density-functional theory study of the adsorption of c...
Density functional theory was used to investigate the chemical reactivity of oxygen vacancies on the...
The electronic structure and bonding at different oxygen sites of MoO3(0 1 0) and (1 0 0) surfaces i...
Funding Information: This work was supported by Business Finland through project Molecular Modelling...
The Cr2O3(0001) surface is assumed to terminate by chromium atoms, chromyl groups, and oxygen atoms....
We address the nature of the bond between water molecules and metal surfaces through a systematic de...
<p>The development of active and inexpensive catalysts is vital for progress in technologies related...