Sign in
Author
|
Conference
|
Journal
|
Organization
|
Year
|
DOI
Look for results that meet for the following criteria:
since
equal to
before
between
and
Search in all fields of study
Limit my searches in the following fields of study
Agriculture Science
Arts & Humanities
Biology
Chemistry
Computer Science
Economics & Business
Engineering
Environmental Sciences
Geosciences
Material Science
Mathematics
Medicine
Physics
Social Science
Multidisciplinary
Keywords
(7)
Density Function Theory
Iron
Magnetic Moment
Magnetic Properties
Structural Properties
Thermodynamic Formalism
Atomic Oxygen
Subscribe
Academic
Publications
Theoretical study of oxygen adsorption at the Fe(1 1 0) and (1 0 0) surfaces
Theoretical study of oxygen adsorption at the Fe(1 1 0) and (1 0 0) surfaces,10.1016/j.susc.2005.06.011,Surface Science,P. Blonski,A. Kiejna,J. Hafner
Edit
Theoretical study of oxygen adsorption at the Fe(1 1 0) and (1 0 0) surfaces
BibTex
|
RIS
|
RefWorks
Download
P. Blonski
,
A. Kiejna
,
J. Hafner
Electronic, magnetic and
structural properties
of
atomic oxygen
adsorbed in on-surface and subsurface sites at the two most densely packed
iron
surfaces are investigated using
density functional
theory combined with a
thermodynamics
formalism. Oxygen coverages varying from a quarter to two monolayers (MLs) are considered. At a 1/4ML coverage, the most stable on-surface adsorption sites are the twofold long bridge sites on the (110), and the fourfold-hollow sites on the (100) surface. The presence of on-surface oxygen atoms enhances the magnetic moments of the atoms of the two topmost Fe layers. Detailed results on the surface magnetic properties, due to O incorporation, are presented as well. Subsurface adsorption is found unfavored. The most stable subsurface O, in tetrahedral positions at the (100) and octahedral ones at the (110) surface, are characterized by substantially lower binding than that in the on-surface sites. Subsurface oxygen increases the interplanar distance between the uppermost Fe layers. The preadsorbed oxygen overlayer enhances binding of subsurface O atoms, particularly for tetrahedral sites beneath the (110) surface.
Journal:
Surface Science - SURFACE SCI
, vol. 590, no. 1, pp. 88-100, 2005
DOI:
10.1016/j.susc.2005.06.011
Cumulative
Annual
View Publication
The following links allow you to view full publications. These links are maintained by other sources not affiliated with Microsoft Academic Search.
(
www.sciencedirect.com
)
(
adsabs.harvard.edu
)
(
linkinghub.elsevier.com
)