Principals of the theory of light reflection and absorption by low-dimensional semiconductor objects in quantizing magnetic fields at monochromatic and pulse excitations
I. G. Lang, L. I. Korovin, S. T. Pavlov
Abstract
The bases of the theory of light reflection and absorption by low-dimensional semiconductor objects (quantum wells, wires and dots) at both monochromatic and pulse irradiations and at any form of light pulses are developed. The semiconductor object may be placed in a stationary quantizing magnetic field. As an example the case of normal light incidence on a quantum well surface is considered. The width of the quantum well may be comparable to the light wave length and number of energy levels of electronic excitations is arbitrary. For Fourier-components of electric fields the integral equation (similar to the Dyson-equation) and solutions of this equation for some individual cases are obtained.
Create a lesson
Related papers
Dynamical Keldysh model for colored noise and finite relaxation rate
F. Z. Bendjeddou, D. V. Efremov, M. N. Kiselev
When Molecular Dimerization Induces Magnetic Bi-Stability at the Metal-Organic Interface
Rouzhaji Tuerhong, Franck Ngassam, Mebarek Alouani et al.
Anisotropic g-tensor and strong spin-orbit interaction of holes in hexagonal germanium nanowires
Anirban Das, Baksa Kolok, Dániel Varjas et al.
Signature of chiral anomaly in a graphene-based heterostructure
Ivan S. Sokolov, Dmitry V. Averyanov, Oleg E. Parfenov et al.
Nonlinear Interaction and Topological Selection Rules in two Skyrmion Merging: Emergence of Skyrmionium Textures
M. Al Busaidi, T. Hakioglu, R. Sbiaa
Multi-Channel Non-Abelian Edge Pumping via Multi-Degeneracy Encircling
Qingyang Mo, Jiacheng Sun, Zhongfu Li et al.