The physicochemical properties of materials are directly related to their size. The ability to understand and eventually tailor the materials' properties over multiple length scales has always been of a primary research goal. Using quantum mechanical calculations and mathematical modeling, we establish a novel theoretical framework capable of predicting the catalytic behavior of bulk metals and alloys and specifically the adsorbate binding energy, using electronic structure information from sub-nanometer cluster models as input. These models demonstrate that bulk-phase concepts can be reproduced from clusters; a first step towards bridging the properties of materials at different length scales. © 2011 Elsevier B.V. All rights reserved
When the size of a reactant molecule is comparable to that of a nanometer catalyst (such as an aroma...
This thesis will focus on DFT for calculations of large metallic nanoparticles. It will show new alg...
The basic question of metal cluster research is the following: How do the macroscopic metallic prope...
There exist a great many varieties of nanoparticles whose catalytic activities can be widely adjuste...
Accurate prediction of adsorption energies on heterogeneous catalyst surfaces is crucial to predicti...
We present an approach to study nanocatalysis using density functional theory (DFT), statistical mec...
With a density functional theory method, we studied computationally the size dependence of adsorptio...
Computational screening for new and improved catalyst materials relies on accurate and low-cost pred...
This study evaluates the finite size effect on the oxygen adsorption energy of coinage metal (Cu, Ag...
Single-atom alloy catalysts combine catalytically active metal atoms, present as dopants, with the s...
Computational screening for new and improved catalyst materials relies on accurate and low-cost pred...
Bond making and breaking are important to heterogenous catalysis. The strength and coordination of t...
During the last decades the specific manipulation of matter on the (sub-) nanometer scale, also know...
Conspectus Single-Atom alloys (SAAs) are an emerging class of materials consisting of a coinage met...
<p>Transition metals represent some of the first catalysts used in industrial processes and are stil...
When the size of a reactant molecule is comparable to that of a nanometer catalyst (such as an aroma...
This thesis will focus on DFT for calculations of large metallic nanoparticles. It will show new alg...
The basic question of metal cluster research is the following: How do the macroscopic metallic prope...
There exist a great many varieties of nanoparticles whose catalytic activities can be widely adjuste...
Accurate prediction of adsorption energies on heterogeneous catalyst surfaces is crucial to predicti...
We present an approach to study nanocatalysis using density functional theory (DFT), statistical mec...
With a density functional theory method, we studied computationally the size dependence of adsorptio...
Computational screening for new and improved catalyst materials relies on accurate and low-cost pred...
This study evaluates the finite size effect on the oxygen adsorption energy of coinage metal (Cu, Ag...
Single-atom alloy catalysts combine catalytically active metal atoms, present as dopants, with the s...
Computational screening for new and improved catalyst materials relies on accurate and low-cost pred...
Bond making and breaking are important to heterogenous catalysis. The strength and coordination of t...
During the last decades the specific manipulation of matter on the (sub-) nanometer scale, also know...
Conspectus Single-Atom alloys (SAAs) are an emerging class of materials consisting of a coinage met...
<p>Transition metals represent some of the first catalysts used in industrial processes and are stil...
When the size of a reactant molecule is comparable to that of a nanometer catalyst (such as an aroma...
This thesis will focus on DFT for calculations of large metallic nanoparticles. It will show new alg...
The basic question of metal cluster research is the following: How do the macroscopic metallic prope...