Magnetoelectronic properties of graphene dressed by a high-frequency field

Abstract

We solved the Schrödinger problem for electrons in graphene subjected to both a stationary magnetic field and a strong high-frequency electromagnetic wave (dressing field). The found solutions of the problem are used to describe the magnetoelectronic properties of dressed graphene. It follows from the present analysis that both optical characteristics and electronic transport are very sensitive to the dressing field. Particularly, the field strongly changes the spectra of optical absorption and the Shubnikov-de Haas oscillations. As a result, the developed theory opens a way for controlling magnetoelectronic properties of graphene with light.

Published version

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Cited by in corpus (27)

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• Magnetic properties of a two-dimensional electron gas strongly coupled to light
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• Floquet engineering of interlayer couplings: Tuning the magic angle of twisted bilayer graphene at the exit of a waveguide
• Optically induced Lifshitz transition in bilayer graphene
• Floquet-engineering topological transitions in a twisted transition metal dichalcogenide homobilayer
• Periodic array of quantum rings strongly coupled to circularly polarized light as a topological insulator
• Quantum ring with the Rashba spin-orbit interaction in the regime of strong light-matter coupling
• Resonance fluorescence from an asymmetric quantum dot dressed by a bichromatic electromagnetic field
• Dynamical band gap tuning in Weyl semi-metals by intense elliptically polarized normal illumination and its application to $8-Pmmn$ borophene
• Exploring the Optical States for Black Phosphorus: Anisotropy and Bandgap Tuning
• Datta-and-Das spin transistor controlled by a high-frequency electromagnetic field
• Light-induced bound electron states in two-dimensional systems: Contribution to electron transport
• Chiral limits and effect of light on the Hofstadter butterfly in twisted bilayer graphene
• Optically induced topological states on the surface of mercury telluride
• Floquet engineering of the Luttinger Hamiltonian
• Nonlinear magneto-optic effects in doped graphene and gapped graphene: a perturbative treatment
• Quantum Hall edge states under periodic driving: a Floquet induced chirality switch
• Floquet control of dipolaritons in quantum wells
• Floquet spectrum and electronic transitions of tilted anisotropic Dirac materials under electromagnetic radiation: monodromy matrix approach
• Effect of Strain on Band Engineering in Gapped Graphene
• Photoinduced electronic and spin properties of two-dimensional electron gases with Rashba spin-orbit coupling under perpendicular magnetic fields
• Andreev tunnelling and Josephson current in light irradiated graphene
• Nonperturbative model for optical response under intense periodic fields with application to graphene in a strong perpendicular magnetic field
• Chiral anomaly induced magnetoconductances in an irradiated Type-I Weyl Semimetal
• Optical trapping of electrons in graphene
• Floquet engineering and non-equilibrium topological maps in twisted trilayer graphene