We study two-dimensional quantum dots using the variational quantum Monte Carlo technique in the weak-confinement limit where the system approaches the Wigner molecule, i.e., the classical solution of point charges in an external potential. We observe the spin-polarization of electrons followed by a smooth transition to a Wigner-molecule-like state as the confining potential is made weaker.Peer reviewe
The influence of the direct and exchange Coulomb interaction on Landau level formation in strain ind...
An unprecedentedly well resolved Zeeman effect has been observed when confined carriers moving along...
We use density-functional methods to study the effects of an external magnetic field on two-dimensio...
We study two-dimensional quantum dots using the variational quantum Monte Carlo technique in the wea...
We investigate the properties of many-electron systems in two-dimensional polygonal (triangle, squar...
We study the ground-state properties of rectangular quantum dots by using the spin-density-functiona...
We study the possible lowest energy states for spin-polarized electrons in a parabolic quantum dot i...
We study effects of electron–electron interactions and confinement potential on the magneto-optical ...
We study the effects of electron-electron correlations and confinement potential on the far-infrared...
The ground states of parabolically confined electrons in a quantum dot are studied by both direct nu...
We have studied the single-electron transport spectrum of a quantum dot in GaAs/AlGaAs resonant tunn...
The transport properties of quantum dots with up to N = 7 electrons ranging from a weak to a strong ...
Laterally coupled quantum dot molecules are studied using exact diagonalization techniques. We exami...
We study a two-electron quantum dot molecule in a magnetic field by the direct diagonalization of th...
We use the path integral Monte Carlo method to investigate the interplay between shell effects and e...
The influence of the direct and exchange Coulomb interaction on Landau level formation in strain ind...
An unprecedentedly well resolved Zeeman effect has been observed when confined carriers moving along...
We use density-functional methods to study the effects of an external magnetic field on two-dimensio...
We study two-dimensional quantum dots using the variational quantum Monte Carlo technique in the wea...
We investigate the properties of many-electron systems in two-dimensional polygonal (triangle, squar...
We study the ground-state properties of rectangular quantum dots by using the spin-density-functiona...
We study the possible lowest energy states for spin-polarized electrons in a parabolic quantum dot i...
We study effects of electron–electron interactions and confinement potential on the magneto-optical ...
We study the effects of electron-electron correlations and confinement potential on the far-infrared...
The ground states of parabolically confined electrons in a quantum dot are studied by both direct nu...
We have studied the single-electron transport spectrum of a quantum dot in GaAs/AlGaAs resonant tunn...
The transport properties of quantum dots with up to N = 7 electrons ranging from a weak to a strong ...
Laterally coupled quantum dot molecules are studied using exact diagonalization techniques. We exami...
We study a two-electron quantum dot molecule in a magnetic field by the direct diagonalization of th...
We use the path integral Monte Carlo method to investigate the interplay between shell effects and e...
The influence of the direct and exchange Coulomb interaction on Landau level formation in strain ind...
An unprecedentedly well resolved Zeeman effect has been observed when confined carriers moving along...
We use density-functional methods to study the effects of an external magnetic field on two-dimensio...