DFT+U calculations of the structure of CeO<sub>2</sub>(111)-supported Au-based bimetallic nanoclusters (NCs) show that a strong support–metal interaction induces a preferential segregation of the more reactive element to the NC–CeO<sub>2</sub> perimeter, generating an interface with the Au component. We studied several Au -based bimetallic NCs (Au-X, X: Ag, Cu, Pd, Pt, Rh, and Ru) and found that (Au–Cu)/CeO<sub>2</sub> is optimal for catalyzing CO oxidation via a bifunctional mechanism. O<sub>2</sub> preferentially binds to the Cu-rich sites, whereas CO binds to the Au-rich sites. Engineering a two-component system in which the reactants do not compete for binding sites is the key to the high catalytic activity at the interface between the ...
ABSTRACT: DFT+U calculations of CO oxidation by Au13 nanoclusters (NCs) supported on either CeO2 or ...
Understanding the nature of active sites and the catalytic properties of oxide-supported bimetallic ...
ABSTRACT: DFT+U calculations of CO oxidation by Au12 nanoclusters supported on a stepped-CeO2(111) s...
ABSTRACT: DFT+U calculations of the structure of CeO2(111)-supported Au-based bimetallic nanocluster...
Engineering a bimetallic system with complementary chemical properties can be an effective way of tu...
DFT+U calculations of CO oxidation by Au<sub>13</sub> nanoclusters (NCs) supported on either CeO<sub...
Gold nanoparticles (NPs) have attracted attention due to their superior catalytic performance in CO ...
Understanding the structure-activity relationship over silica-supported Au-based bimetallic nanocata...
Gold nanoparticles (NPs) have attracted attention due to their superior catalytic performance in CO ...
Understanding the structure-activity relationship over silica-supported Au-based bimetallic nanocata...
Understanding the reaction mechanism and the nature of the reactive species of heterogeneous catalys...
Catalysts based on atomically precise gold nanoclusters serve as an ideal model to relate the cataly...
To reveal the richer chemistry of CO oxidation by CeO2 supported Au Nanoclusters(NCs)/Nanoparticles,...
To reveal the richer chemistry of CO oxidation by CeO2 supported Au Nanoclusters NCs)/Nanoparticles,...
Understanding the nature of active sites and the catalytic properties of oxide-supported bimetallic ...
ABSTRACT: DFT+U calculations of CO oxidation by Au13 nanoclusters (NCs) supported on either CeO2 or ...
Understanding the nature of active sites and the catalytic properties of oxide-supported bimetallic ...
ABSTRACT: DFT+U calculations of CO oxidation by Au12 nanoclusters supported on a stepped-CeO2(111) s...
ABSTRACT: DFT+U calculations of the structure of CeO2(111)-supported Au-based bimetallic nanocluster...
Engineering a bimetallic system with complementary chemical properties can be an effective way of tu...
DFT+U calculations of CO oxidation by Au<sub>13</sub> nanoclusters (NCs) supported on either CeO<sub...
Gold nanoparticles (NPs) have attracted attention due to their superior catalytic performance in CO ...
Understanding the structure-activity relationship over silica-supported Au-based bimetallic nanocata...
Gold nanoparticles (NPs) have attracted attention due to their superior catalytic performance in CO ...
Understanding the structure-activity relationship over silica-supported Au-based bimetallic nanocata...
Understanding the reaction mechanism and the nature of the reactive species of heterogeneous catalys...
Catalysts based on atomically precise gold nanoclusters serve as an ideal model to relate the cataly...
To reveal the richer chemistry of CO oxidation by CeO2 supported Au Nanoclusters(NCs)/Nanoparticles,...
To reveal the richer chemistry of CO oxidation by CeO2 supported Au Nanoclusters NCs)/Nanoparticles,...
Understanding the nature of active sites and the catalytic properties of oxide-supported bimetallic ...
ABSTRACT: DFT+U calculations of CO oxidation by Au13 nanoclusters (NCs) supported on either CeO2 or ...
Understanding the nature of active sites and the catalytic properties of oxide-supported bimetallic ...
ABSTRACT: DFT+U calculations of CO oxidation by Au12 nanoclusters supported on a stepped-CeO2(111) s...