Orbital magnetization in semiconductors

This paper theoretically investigates the orbital magnetization of electron-doped (n-type) semiconductor het-erostructures and of hole-doped (p-type) bulk semiconductors, which are respectively described by a two-dimensional electron/hole Hamiltonian with both the included Rashba spin-orbit coupling...

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Published inChinese physics B Vol. 18; no. 12; pp. 5431 - 5436
Main Author 方诚 王志刚 李树深 张平
Format Journal Article
LanguageEnglish
Published IOP Publishing 01.12.2009
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ISSN1674-1056
2058-3834
DOI10.1088/1674-1056/18/12/050

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Abstract This paper theoretically investigates the orbital magnetization of electron-doped (n-type) semiconductor het-erostructures and of hole-doped (p-type) bulk semiconductors, which are respectively described by a two-dimensional electron/hole Hamiltonian with both the included Rashba spin-orbit coupling and Zeeman splitting terms. It is the Zeeman splitting, rather than the Rashba spin-orbit coupling, that destroys the time-reversal symmetry of the semiconductor systems and results in nontrivial orbital magnetization. The results show that the magnitude of the orbital magnetization per hole and the Hall conductance in the p-type bulk semiconductors are about 10^-2-10^-1 effective Bohr magneton and 10^-1-1 e^2/h, respectively. However, the orbital magnetization per electron and the Hall conductance in the n-type semiconductor heterostructures are too small to be easily observed in experiment.
AbstractList This paper theoretically investigates the orbital magnetization of electron-doped (n-type) semiconductor het-erostructures and of hole-doped (p-type) bulk semiconductors, which are respectively described by a two-dimensional electron/hole Hamiltonian with both the included Rashba spin-orbit coupling and Zeeman splitting terms. It is the Zeeman splitting, rather than the Rashba spin-orbit coupling, that destroys the time-reversal symmetry of the semiconductor systems and results in nontrivial orbital magnetization. The results show that the magnitude of the orbital magnetization per hole and the Hall conductance in the p-type bulk semiconductors are about 10^-2-10^-1 effective Bohr magneton and 10^-1-1 e^2/h, respectively. However, the orbital magnetization per electron and the Hall conductance in the n-type semiconductor heterostructures are too small to be easily observed in experiment.
This paper theoretically investigates the orbital magnetization of electron-doped (n-type) semiconductor heterostructures and of hole-doped (p-type) bulk semiconductors, which are respectively described by a two-dimensional electron/hole Hamiltonian with both the included Rashba spin-orbit coupling and Zeeman splitting terms. It is the Zeeman splitting, rather than the Rashba spin-orbit coupling, that destroys the time-reversal symmetry of the semiconductor systems and results in nontrivial orbital magnetization. The results show that the magnitude of the orbital magnetization per hole and the Hall conductance in the p-type bulk semiconductors are about 10-2-10-1 effective Bohr magneton and 10-1-1 e2/h, respectively. However, the orbital magnetization per electron and the Hall conductance in the n-type semiconductor heterostructures are too small to be easily observed in experiment.
Author 方诚 王志刚 李树深 张平
AuthorAffiliation Laboratory for Superlattiees and Microstructures, Institute of Semiconductors, Chinese Academy of Sciences, Beijing 100083, China Physics Department, East China Institute of Technology, Fuzhou 344000, Jiangxi Province, China Institute of Applied Physics and Computational Mathematics, Beijing 100088, China Center for Applied Physics and Technology, Peking University, Beijing 100871, China
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orbital magnetization, Zeeman splitting, Berry phase effect, semiconductor
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Snippet This paper theoretically investigates the orbital magnetization of electron-doped (n-type) semiconductor het-erostructures and of hole-doped (p-type) bulk...
This paper theoretically investigates the orbital magnetization of electron-doped (n-type) semiconductor heterostructures and of hole-doped (p-type) bulk...
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SubjectTerms Bohr magneton
Conductance
Halls
Heterostructures
Joining
Magnetization
N-type semiconductors
Orbitals
P-type semiconductors
Semiconductors
Splitting
Symmetry
二维电子
半导体异质结构
哈密顿描述
塞曼分裂
玻尔磁子
电子掺杂
自旋轨道耦合
Title Orbital magnetization in semiconductors
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