The adsorption of two very different adsorbates, gold and oxygen, induce the formation of a (3 × 1) surface structure on both W(1 1 2) and Mo(1 1 2). In spite of similar adsorbate unit cells, the surface electronic structure, derived from photoemission, exhibits pronounced differences for the two adsorbates. Indeed, both experiment and simulations indicate substantial changes in electronic structures of (1 × 1) and (3 × 1) gold overlayers supported by highly anisotropic (1 1 2) plane. We speculate that (3 × 1) is a favored periodicity in the atomic rearrangement of the (1 1 2) surfaces of molybdenum and tungsten due in part as a result of the initial state band structure of these surfaces
The nobleness of gold surfaces has been appreciated since long before the beginning of recorded hist...
A periodic DFT+U study about the adsorption of Cu, Ag, or Au on the monoclinic and hexagonal (001) s...
The Pt(110) and the Au(110) surfaces are known to reconstruct to a (1 x 2) symmetry, which most stud...
The adsorption of two very different adsorbates, gold and oxygen, induce the formation of a (3 × 1) ...
Both the experimental and theoretical band structure of the W(112) surface are presented, with the t...
Atomic oxygen adsorption on the Mo(112) surface has been investigated by means of first-principles t...
The experimental band structure of Mo(112) and the effects by temperature and adsorbate are presente...
The open trough-and-row Mo(112) surface serves as substrate for the epitaxial growth of MoO2. In the...
Montemore, Matthew/0000-0002-4157-1745WOS: 000529225800041Gold and gold-silver alloys can be active ...
It has been shown recently that while bulk gold is chemically inert, small Au clusters are catalytic...
Inducing the adsorption of oxygen on gold surfaces transforms the inert metal into a surprisingly re...
The Au(110) surface offers unique advantages for atomically-resolved model studies of catalytic oxid...
We report results for the surface band structures of molybdenum and tungsten (001) surfaces by emplo...
textGold used to be regarded as catalytically inert until about 20 years ago when it was shown that ...
Recent photoemission and inverse photoemission results for the Mo(112) surface are discussed in the ...
The nobleness of gold surfaces has been appreciated since long before the beginning of recorded hist...
A periodic DFT+U study about the adsorption of Cu, Ag, or Au on the monoclinic and hexagonal (001) s...
The Pt(110) and the Au(110) surfaces are known to reconstruct to a (1 x 2) symmetry, which most stud...
The adsorption of two very different adsorbates, gold and oxygen, induce the formation of a (3 × 1) ...
Both the experimental and theoretical band structure of the W(112) surface are presented, with the t...
Atomic oxygen adsorption on the Mo(112) surface has been investigated by means of first-principles t...
The experimental band structure of Mo(112) and the effects by temperature and adsorbate are presente...
The open trough-and-row Mo(112) surface serves as substrate for the epitaxial growth of MoO2. In the...
Montemore, Matthew/0000-0002-4157-1745WOS: 000529225800041Gold and gold-silver alloys can be active ...
It has been shown recently that while bulk gold is chemically inert, small Au clusters are catalytic...
Inducing the adsorption of oxygen on gold surfaces transforms the inert metal into a surprisingly re...
The Au(110) surface offers unique advantages for atomically-resolved model studies of catalytic oxid...
We report results for the surface band structures of molybdenum and tungsten (001) surfaces by emplo...
textGold used to be regarded as catalytically inert until about 20 years ago when it was shown that ...
Recent photoemission and inverse photoemission results for the Mo(112) surface are discussed in the ...
The nobleness of gold surfaces has been appreciated since long before the beginning of recorded hist...
A periodic DFT+U study about the adsorption of Cu, Ag, or Au on the monoclinic and hexagonal (001) s...
The Pt(110) and the Au(110) surfaces are known to reconstruct to a (1 x 2) symmetry, which most stud...