Using a first-principles parameterized lattice-gas Hamiltonian we study the adsorbate ordering behavior at atomic steps of a Pd(100) surface exposed to an oxygen environment. We identify a wide range of gas-phase conditions comprising near atmospheric pressures and elevated temperatures around 900 K, in which the step is decorated by a characteristic O zigzag arrangement. For catalytic processes like the high-temperature combustion of methane that operate under these conditions our approach thus provides first insight into the structure and composition at a prominent defect on the working surface
The possible formation of oxides or thin oxide films (surface oxides) on late transition-metal surfa...
During the last decades, computer simulations have become an important tool for the study of element...
We have developed an atomistic lattice-gas model for the catalytic oxidation of CO on single-crystal...
Using a first-principles parameterized lattice-gas Hamiltonian we study the adsorbate ordering behav...
As prominent defects at solid surfaces atomic steps are commonly perceived as playing some kind of s...
We employ a multiscale modeling approach to study the surface structure and composition of a Pd(100)...
Accomplishing a first-principles modeling of heterogeneous catalysis that allows for a quantitative ...
We employ a first-principles lattice-gas Hamiltonian (LGH) approach to determine the lateral interac...
The catalytic oxidation using transition metals (TM) as the active material is an important technolo...
We present a multi-lattice kinetic Monte Carlo (kMC) approach that efficiently describes the atomist...
A reliable description of surfaces structures in a reactive environment is crucial to understand mat...
We present a density-functional theory study addressing the on-surface adsorption of oxygen at the P...
The catalytic oxidation activity of platinum particles in automobile catalysts is thought to origina...
We describe a first-principles statistical mechanics approach enabling us to simulate the steady-sta...
Using a kinetic Monte Carlo (KMC) approach with parameters derived from first-principles calculation...
The possible formation of oxides or thin oxide films (surface oxides) on late transition-metal surfa...
During the last decades, computer simulations have become an important tool for the study of element...
We have developed an atomistic lattice-gas model for the catalytic oxidation of CO on single-crystal...
Using a first-principles parameterized lattice-gas Hamiltonian we study the adsorbate ordering behav...
As prominent defects at solid surfaces atomic steps are commonly perceived as playing some kind of s...
We employ a multiscale modeling approach to study the surface structure and composition of a Pd(100)...
Accomplishing a first-principles modeling of heterogeneous catalysis that allows for a quantitative ...
We employ a first-principles lattice-gas Hamiltonian (LGH) approach to determine the lateral interac...
The catalytic oxidation using transition metals (TM) as the active material is an important technolo...
We present a multi-lattice kinetic Monte Carlo (kMC) approach that efficiently describes the atomist...
A reliable description of surfaces structures in a reactive environment is crucial to understand mat...
We present a density-functional theory study addressing the on-surface adsorption of oxygen at the P...
The catalytic oxidation activity of platinum particles in automobile catalysts is thought to origina...
We describe a first-principles statistical mechanics approach enabling us to simulate the steady-sta...
Using a kinetic Monte Carlo (KMC) approach with parameters derived from first-principles calculation...
The possible formation of oxides or thin oxide films (surface oxides) on late transition-metal surfa...
During the last decades, computer simulations have become an important tool for the study of element...
We have developed an atomistic lattice-gas model for the catalytic oxidation of CO on single-crystal...