The description of interacting many-electron systems in external magnetic fields is considered in the framework of the optimized effective potential method extended to current-spin-density functional theory. As a case study, a two-dimensional quantum dot in external magnetic fields is investigated. Excellent agreement with the quantum Monte Carlo results is obtained when self-interaction corrected correlation energies from the standard local spin-density approximation are added to exact-exchange results. Full self-consistency within the complete current-spin-density-functional framework is found to be of minor importance
Ground-state calculations based on current spin density-functional theory for circular parabolic qua...
The performance of density-functional theory to solve the exact, nonrelativistic, many-electron prob...
Based on exact limits and quantum Monte Carlo simulations, we obtain, at any density and spin polari...
We study a model quantum dot system in an external magnetic field by using both spin-density-functio...
URL:http://link.aps.org/doi/10.1103/PhysRevB.50.14722 DOI:10.1103/PhysRevB.50.14722We present a stu...
Using quantum dot artificial atoms as a simple toy model, we reflect on the question of whether spin...
Using quantum dot artificial atoms as a simple toy model, we reflect on the question of whether spin...
Using quantum dot artificial atoms as a simple toy model, we reflect on the question of whether spin...
A density-functional self-consistent calculation of the ground-state electronic density of quantum d...
We have computed electronic structures and total energies of circularly confined two-dimensional qua...
Local effective potential theory, both stationary-state and time-dependent, constitutes the mapping ...
Electron correlations in a two-electron two-dimensional ‘artificial atom’ or quantum dot (with harmo...
The description of systems of interacting electrons in the presence of magnetic fields within densit...
We study the magnetic coupling in artificial molecules composed of two and four laterally coupled q...
Density functional theory (DFT) has grown to become by far the most widely applied method in the mod...
Ground-state calculations based on current spin density-functional theory for circular parabolic qua...
The performance of density-functional theory to solve the exact, nonrelativistic, many-electron prob...
Based on exact limits and quantum Monte Carlo simulations, we obtain, at any density and spin polari...
We study a model quantum dot system in an external magnetic field by using both spin-density-functio...
URL:http://link.aps.org/doi/10.1103/PhysRevB.50.14722 DOI:10.1103/PhysRevB.50.14722We present a stu...
Using quantum dot artificial atoms as a simple toy model, we reflect on the question of whether spin...
Using quantum dot artificial atoms as a simple toy model, we reflect on the question of whether spin...
Using quantum dot artificial atoms as a simple toy model, we reflect on the question of whether spin...
A density-functional self-consistent calculation of the ground-state electronic density of quantum d...
We have computed electronic structures and total energies of circularly confined two-dimensional qua...
Local effective potential theory, both stationary-state and time-dependent, constitutes the mapping ...
Electron correlations in a two-electron two-dimensional ‘artificial atom’ or quantum dot (with harmo...
The description of systems of interacting electrons in the presence of magnetic fields within densit...
We study the magnetic coupling in artificial molecules composed of two and four laterally coupled q...
Density functional theory (DFT) has grown to become by far the most widely applied method in the mod...
Ground-state calculations based on current spin density-functional theory for circular parabolic qua...
The performance of density-functional theory to solve the exact, nonrelativistic, many-electron prob...
Based on exact limits and quantum Monte Carlo simulations, we obtain, at any density and spin polari...