Mass-selected Au clusters consisting of 5 8 atoms deposited on silica were treated with water and aqueous NaOH solution, and the change of their chemical properties upon these treatments was studied. With water, no change was observed, indicating that the clusters survive as individual entities under such realistic conditions. After immersing the samples into the NaOH solution, a change of the oxidation behaviors of the Au clusters was found to occur; the originally oxidation resistant Au5 and Au7 become more reactive than the other clusters towards oxidation. Non-scalable chemical behaviors can be obtained from the small clusters even under realistic conditions
Nanoclusters, aggregates of typically a few to a few thousand atoms represent a distinct form of mat...
Gold and silver clusters with sizes up to ∼100 atoms have unique properties, such as luminescence, t...
Experimental evidences for the non-dissociative chemisorption of O2 are presented on even-numbered f...
Mass-selected Au clusters consisting of 5 8 atoms deposited on silica were treated with water and aq...
This study examined the oxidation and reduction behavior of mass-selected Au clusters consisting of ...
Mass-selected Au clusters consisting of less than 10 atoms were deposited on sputter-damaged HOPG su...
Au cluster anions consisting of 2-13 atoms were soft-landed on native-oxide-covered Si wafers. React...
The reactivity of small metallic clusters, nanoparticles composed of a countable number of atoms (ty...
Gold nanoparticles ranging in diameter from 1 to 8 nanometers were prepared on top of silicon wafers...
Ligand-stabilized gold clusters may serve as model catalysts, and the packing of their gold atoms is...
For many applications of well-defined gold nanoclusters, it is desirable to understand their structu...
We report the instantaneous decomposition of the small molecular gold cluster, Au25SG18 (SG-glutathi...
The aim of the present work was to determine reactivity patterns and general concepts that are impor...
This thesis is comprised of studies in the characterisation of monolayer-protected and metal cluster...
Gold has supreme cultural and financial value and, in form of nanoparticles smaller than 10 nm, is a...
Nanoclusters, aggregates of typically a few to a few thousand atoms represent a distinct form of mat...
Gold and silver clusters with sizes up to ∼100 atoms have unique properties, such as luminescence, t...
Experimental evidences for the non-dissociative chemisorption of O2 are presented on even-numbered f...
Mass-selected Au clusters consisting of 5 8 atoms deposited on silica were treated with water and aq...
This study examined the oxidation and reduction behavior of mass-selected Au clusters consisting of ...
Mass-selected Au clusters consisting of less than 10 atoms were deposited on sputter-damaged HOPG su...
Au cluster anions consisting of 2-13 atoms were soft-landed on native-oxide-covered Si wafers. React...
The reactivity of small metallic clusters, nanoparticles composed of a countable number of atoms (ty...
Gold nanoparticles ranging in diameter from 1 to 8 nanometers were prepared on top of silicon wafers...
Ligand-stabilized gold clusters may serve as model catalysts, and the packing of their gold atoms is...
For many applications of well-defined gold nanoclusters, it is desirable to understand their structu...
We report the instantaneous decomposition of the small molecular gold cluster, Au25SG18 (SG-glutathi...
The aim of the present work was to determine reactivity patterns and general concepts that are impor...
This thesis is comprised of studies in the characterisation of monolayer-protected and metal cluster...
Gold has supreme cultural and financial value and, in form of nanoparticles smaller than 10 nm, is a...
Nanoclusters, aggregates of typically a few to a few thousand atoms represent a distinct form of mat...
Gold and silver clusters with sizes up to ∼100 atoms have unique properties, such as luminescence, t...
Experimental evidences for the non-dissociative chemisorption of O2 are presented on even-numbered f...