Influence of the spin-orbit interaction in the impurity-band states of n-doped semiconductors

We study numerically the effects of an extrinsic spin-orbit interaction on the model of electrons in n-doped semiconductors of Matsubara and Toyozawa (MT). We focus on the analysis of the density of states (DOS) and the inverse participation ratio (IPR) of the spin-orbit perturbed states in the MT s...

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Autores principales: Intronati, G.A., Tamborenea, P.I., Weinmann, D., Jalabert, R.A.
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Acceso en línea:http://hdl.handle.net/20.500.12110/paper_09214526_v407_n16_p3252_Intronati
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spelling todo:paper_09214526_v407_n16_p3252_Intronati2023-10-03T15:45:29Z Influence of the spin-orbit interaction in the impurity-band states of n-doped semiconductors Intronati, G.A. Tamborenea, P.I. Weinmann, D. Jalabert, R.A. Impurity band Metal-insulator transition Semiconductors Spin relaxation Density of state Eigenstates Energy eigenstates Finite size Impurity bands N-doped semiconductor Participation ratios Perturbed state Spin orbit interactions Spin orbits Spin relaxation Spin-orbit couplings Semiconductor insulator boundaries Semiconductor materials Semiconductor doping We study numerically the effects of an extrinsic spin-orbit interaction on the model of electrons in n-doped semiconductors of Matsubara and Toyozawa (MT). We focus on the analysis of the density of states (DOS) and the inverse participation ratio (IPR) of the spin-orbit perturbed states in the MT set of energy eigenstates in order to characterize the eigenstates with respect to their extended or localized nature. The finite sizes that we are able to consider necessitate an enhancement of the spin-orbit coupling strength in order to obtain a meaningful perturbation. The IPR and DOS are then studied as a function of the enhancement parameter. © 2012 Elsevier B.V. Fil:Intronati, G.A. Universidad de Buenos Aires. Facultad de Ciencias Exactas y Naturales; Argentina. Fil:Tamborenea, P.I. Universidad de Buenos Aires. Facultad de Ciencias Exactas y Naturales; Argentina. JOUR info:eu-repo/semantics/openAccess http://creativecommons.org/licenses/by/2.5/ar http://hdl.handle.net/20.500.12110/paper_09214526_v407_n16_p3252_Intronati
institution Universidad de Buenos Aires
institution_str I-28
repository_str R-134
collection Biblioteca Digital - Facultad de Ciencias Exactas y Naturales (UBA)
topic Impurity band
Metal-insulator transition
Semiconductors
Spin relaxation
Density of state
Eigenstates
Energy eigenstates
Finite size
Impurity bands
N-doped semiconductor
Participation ratios
Perturbed state
Spin orbit interactions
Spin orbits
Spin relaxation
Spin-orbit couplings
Semiconductor insulator boundaries
Semiconductor materials
Semiconductor doping
spellingShingle Impurity band
Metal-insulator transition
Semiconductors
Spin relaxation
Density of state
Eigenstates
Energy eigenstates
Finite size
Impurity bands
N-doped semiconductor
Participation ratios
Perturbed state
Spin orbit interactions
Spin orbits
Spin relaxation
Spin-orbit couplings
Semiconductor insulator boundaries
Semiconductor materials
Semiconductor doping
Intronati, G.A.
Tamborenea, P.I.
Weinmann, D.
Jalabert, R.A.
Influence of the spin-orbit interaction in the impurity-band states of n-doped semiconductors
topic_facet Impurity band
Metal-insulator transition
Semiconductors
Spin relaxation
Density of state
Eigenstates
Energy eigenstates
Finite size
Impurity bands
N-doped semiconductor
Participation ratios
Perturbed state
Spin orbit interactions
Spin orbits
Spin relaxation
Spin-orbit couplings
Semiconductor insulator boundaries
Semiconductor materials
Semiconductor doping
description We study numerically the effects of an extrinsic spin-orbit interaction on the model of electrons in n-doped semiconductors of Matsubara and Toyozawa (MT). We focus on the analysis of the density of states (DOS) and the inverse participation ratio (IPR) of the spin-orbit perturbed states in the MT set of energy eigenstates in order to characterize the eigenstates with respect to their extended or localized nature. The finite sizes that we are able to consider necessitate an enhancement of the spin-orbit coupling strength in order to obtain a meaningful perturbation. The IPR and DOS are then studied as a function of the enhancement parameter. © 2012 Elsevier B.V.
format JOUR
author Intronati, G.A.
Tamborenea, P.I.
Weinmann, D.
Jalabert, R.A.
author_facet Intronati, G.A.
Tamborenea, P.I.
Weinmann, D.
Jalabert, R.A.
author_sort Intronati, G.A.
title Influence of the spin-orbit interaction in the impurity-band states of n-doped semiconductors
title_short Influence of the spin-orbit interaction in the impurity-band states of n-doped semiconductors
title_full Influence of the spin-orbit interaction in the impurity-band states of n-doped semiconductors
title_fullStr Influence of the spin-orbit interaction in the impurity-band states of n-doped semiconductors
title_full_unstemmed Influence of the spin-orbit interaction in the impurity-band states of n-doped semiconductors
title_sort influence of the spin-orbit interaction in the impurity-band states of n-doped semiconductors
url http://hdl.handle.net/20.500.12110/paper_09214526_v407_n16_p3252_Intronati
work_keys_str_mv AT intronatiga influenceofthespinorbitinteractionintheimpuritybandstatesofndopedsemiconductors
AT tamboreneapi influenceofthespinorbitinteractionintheimpuritybandstatesofndopedsemiconductors
AT weinmannd influenceofthespinorbitinteractionintheimpuritybandstatesofndopedsemiconductors
AT jalabertra influenceofthespinorbitinteractionintheimpuritybandstatesofndopedsemiconductors
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