In this study the electronic eigenstructure of an exciton in a parabolic quantum dot (QD) has been calculated with a high accuracy by using Finite element method (FEM). We have converted the coordinates of electron-light-hole system to relative and center of mass coordinate, then placed the Spherical Harmonics into Schrodinger equation analytically and obtained the Schrodinger equation which depends only on the radial variable. Finally we used FEM with only radial variable in order to get the accurate numerical results. We also showed first 21 energy level spectra of exciton depending on confinement and Coulomb interaction parameters
In this work, we propose an efficient method of reducing the computational effort of variational cal...
An exciton in a spherical quantum dot is studied analytically within the effective mass approximatio...
The properties of excitons formed in spherical quantum dots are studied using the k⋅p method within ...
In this study the electronic eigenstructure of an exciton in a parabolic quantum dot (QD) has been c...
In this study, we develop and demonstrate an efficient self-consistent calculation schema that compu...
The problem of exciton states in spherical semiconductor quantum dots is revisited, employing the fi...
Certain classes of semiconductor quantum dots being actually fabricated exhibit a nearly parabolic c...
A calculation of the variations of the energy and oscillator strength of the ground state of an exci...
Abstract: We theoretically investigate the optical properties of the exciton confined in parabolic q...
We investigate the properties of interacting electrons in a parabolic confinement. To this end we nu...
In this work, the effects of quantum confinement on the ground state energy of a correlated electron...
The binding energy of an exciton inside a CdSe/ZnTe core/shell spherical quantum dot was theoretical...
WOS: 000348321700006In this study, we investigate the parabolic potential effects on the ground and ...
Within the framework of effective-mass approximation, the exciton states confined in GaN cylindrical...
A study of variational wave functions for calculation of the ground-state energies of excitons confi...
In this work, we propose an efficient method of reducing the computational effort of variational cal...
An exciton in a spherical quantum dot is studied analytically within the effective mass approximatio...
The properties of excitons formed in spherical quantum dots are studied using the k⋅p method within ...
In this study the electronic eigenstructure of an exciton in a parabolic quantum dot (QD) has been c...
In this study, we develop and demonstrate an efficient self-consistent calculation schema that compu...
The problem of exciton states in spherical semiconductor quantum dots is revisited, employing the fi...
Certain classes of semiconductor quantum dots being actually fabricated exhibit a nearly parabolic c...
A calculation of the variations of the energy and oscillator strength of the ground state of an exci...
Abstract: We theoretically investigate the optical properties of the exciton confined in parabolic q...
We investigate the properties of interacting electrons in a parabolic confinement. To this end we nu...
In this work, the effects of quantum confinement on the ground state energy of a correlated electron...
The binding energy of an exciton inside a CdSe/ZnTe core/shell spherical quantum dot was theoretical...
WOS: 000348321700006In this study, we investigate the parabolic potential effects on the ground and ...
Within the framework of effective-mass approximation, the exciton states confined in GaN cylindrical...
A study of variational wave functions for calculation of the ground-state energies of excitons confi...
In this work, we propose an efficient method of reducing the computational effort of variational cal...
An exciton in a spherical quantum dot is studied analytically within the effective mass approximatio...
The properties of excitons formed in spherical quantum dots are studied using the k⋅p method within ...