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
We have studied the single-electron transport spectrum of a quantum dot in GaAs/AlGaAs resonant tunn...
We use the path integral Monte Carlo method to investigate the interplay between shell effects and e...
This thesis investigates the use of wave-function methods for the study of quantum-dot systems. It i...
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...
The transport properties of quantum dots with up to N = 7 electrons ranging from a weak to a strong ...
The ground states of parabolically confined electrons in a quantum dot are studied by both direct nu...
We perform Hartree-Fock calculations to show that quantum dots (i.e., two-dimensional systems of up ...
The goal of this project is to study electron correlation in a confined geometry (quantum dots) with...
We study effects of electron–electron interactions and confinement potential on the magneto-optical ...
Laterally coupled quantum dot molecules are studied using exact diagonalization techniques. We exami...
We study the effects of electron-electron correlations and confinement potential on the far-infrared...
We study a two-electron quantum dot molecule in a magnetic field by the direct diagonalization of th...
We have studied the single-electron transport spectrum of a quantum dot in GaAs/AlGaAs resonant tunn...
We use the path integral Monte Carlo method to investigate the interplay between shell effects and e...
This thesis investigates the use of wave-function methods for the study of quantum-dot systems. It i...
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...
The transport properties of quantum dots with up to N = 7 electrons ranging from a weak to a strong ...
The ground states of parabolically confined electrons in a quantum dot are studied by both direct nu...
We perform Hartree-Fock calculations to show that quantum dots (i.e., two-dimensional systems of up ...
The goal of this project is to study electron correlation in a confined geometry (quantum dots) with...
We study effects of electron–electron interactions and confinement potential on the magneto-optical ...
Laterally coupled quantum dot molecules are studied using exact diagonalization techniques. We exami...
We study the effects of electron-electron correlations and confinement potential on the far-infrared...
We study a two-electron quantum dot molecule in a magnetic field by the direct diagonalization of th...
We have studied the single-electron transport spectrum of a quantum dot in GaAs/AlGaAs resonant tunn...
We use the path integral Monte Carlo method to investigate the interplay between shell effects and e...
This thesis investigates the use of wave-function methods for the study of quantum-dot systems. It i...