Coulomb-correlation effects on the non-linear optical properties of realistic quantum wires
Fausto Rossi, Elisa Molinari
Abstract
We review recent results on the linear and non-linear optical response of realistic quantum-wire structures. Our theoretical approach is based on a set of generalized semiconductor Bloch equations, and allows a full three-dimensional multisubband description of Coulomb correlation for any shape of the confinement profile, thus permitting a direct comparison with experiments for available state-of-the-art wire structures. Our results show that electron-hole Coulomb correlation removes the one-dimensional band-edge singularities from the absorption spectra, whose shape results to be heavily modified with respect to the ideal free-particle case over the whole range of photoexcited carrier densities.
Create a lesson
Related papers
Thermally enhanced magnon-phonon resonance in van der Waals antiferromagnet FePS3
Kai-Xuan Zhang, Beom Hyun Kim, Seungbok Lee et al.
Orbital Hall effect from the Wannier function approach
Tapesh Gautam, S. Satpathy
greenWTE: Frequency-domain solver for the phonon Wigner Transport Equation with arbitrary heating using Green's functions
Laurenz Kremeyer, Bradley J. Siwick, Samuel Huberman
Multiplicity of elastic wave propagation in random polycrystals
Ming Huang, Stanislav I. Rokhlin, Michael J. S. Lowe
Dynamical Phonon Anharmonicity Drives Charge-Density-Wave Softening and Electronic Quasiparticle Decoherence in Monolayer 1H-NbSe2
Yi Xia
Triboelectric nanogenerators across length scales: linking materials, multiscale modelling and applications
MD Tanzib Ehsan Sanglap, Ans Al Rashid, Abdullah Sayam et al.