Application of a new Tight-Binding method for transition metals: Manganese
Michael J. Mehl, Dimitrios A. Papaconstantopoulos
Abstract
A new tight-binding total energy method, which has been shown to accurately predict ground state properties of transition and noble metals, is applied to Manganese, the element with the most complex ground state structure among the d metals. We show that the tight-binding method correctly predicts the ground state structure of Mn, and offers some insight into the magnetic properties of this state.
Create a lesson
Related papers
Theory of Alkali Induced Reconstruction of the Cu(100) Surface
S. Quassowski, K. Hermann
A Model for the Thermal Expansion of Ag(111) and other Metal Surfaces
Shobhana Narasimhan, Matthias Scheffler
Ab initio molecular dynamics study of the desorption of D2 from Si(100)
Axel Gross, Michel Bockstedte, Matthias Scheffler
Diffusivity of Ga and Al adatoms on GaAs(001)
A. Kley, M. Scheffler
Steering and isotope effects in the dissociative adsorption of H2/Pd(100)
Axel Gross, Matthias Scheffler
Strained tetragonal states and Bain paths in metals
P. Alippi, P. M. Marcus, M. Scheffler