We show that the addition spectra of semiconductor quantum dots in the presence of magnetic field can be studied through a theoretical scheme that allows an accurate and practical treatment of the single-particle states and electron-electron interaction up to large numbers of electrons. The calculated addition spectra exhibit the typical structures of Hund-like shell filling, and account for recent experimental findings. A full three-dimensional description of Coulomb interaction is found to be essential for predicting the conductance characteristics of few-electron semiconductor structures
Usually, semiconductor quantum dots represent a two-dimensional nanoscale system with few electrons ...
Usually, semiconductor quantum dots represent a two-dimensional nanoscale system with few electrons ...
We study the energy spectra of small three-dimensional (3D) and two-dimensional (2D) semiconductor q...
We show that the addition spectra of semiconductor quantum dots in the presence of magnetic field ca...
We show that the addition spectra of semiconductor quantum dots in the presence of magnetic field ca...
Semiconductor quantum dots represent nanoscale systems with few electrons confined in a semiconducto...
Semiconductor quantum dots represent nanoscale systems with few electrons confined in a semiconducto...
Semiconductor quantum dots represent nanoscale systems with few electrons confined in a semiconducto...
The properties of quasi-two-dimensional semiconductor quantum dots are reviewed. Experimental techni...
We study coupled semiconductor quantum dots theoretically using a generalized Hubbard approach, wher...
We study coupled semiconductor quantum dots theoretically using a generalized Hubbard approach, wher...
Texto completo: acesso restrito. p. 2090–2099The Roothaan and Pople–Nesbet approaches for real atoms...
We consider the magnetic field dependence of the chemical potential for parabolically confined quant...
Usually, semiconductor quantum dots represent a two-dimensional nanoscale system with few electrons ...
We study the energy spectra of small three-dimensional (3D) and two-dimensional (2D) semiconductor q...
Usually, semiconductor quantum dots represent a two-dimensional nanoscale system with few electrons ...
Usually, semiconductor quantum dots represent a two-dimensional nanoscale system with few electrons ...
We study the energy spectra of small three-dimensional (3D) and two-dimensional (2D) semiconductor q...
We show that the addition spectra of semiconductor quantum dots in the presence of magnetic field ca...
We show that the addition spectra of semiconductor quantum dots in the presence of magnetic field ca...
Semiconductor quantum dots represent nanoscale systems with few electrons confined in a semiconducto...
Semiconductor quantum dots represent nanoscale systems with few electrons confined in a semiconducto...
Semiconductor quantum dots represent nanoscale systems with few electrons confined in a semiconducto...
The properties of quasi-two-dimensional semiconductor quantum dots are reviewed. Experimental techni...
We study coupled semiconductor quantum dots theoretically using a generalized Hubbard approach, wher...
We study coupled semiconductor quantum dots theoretically using a generalized Hubbard approach, wher...
Texto completo: acesso restrito. p. 2090–2099The Roothaan and Pople–Nesbet approaches for real atoms...
We consider the magnetic field dependence of the chemical potential for parabolically confined quant...
Usually, semiconductor quantum dots represent a two-dimensional nanoscale system with few electrons ...
We study the energy spectra of small three-dimensional (3D) and two-dimensional (2D) semiconductor q...
Usually, semiconductor quantum dots represent a two-dimensional nanoscale system with few electrons ...
Usually, semiconductor quantum dots represent a two-dimensional nanoscale system with few electrons ...
We study the energy spectra of small three-dimensional (3D) and two-dimensional (2D) semiconductor q...