Helical edge magnetoplasmon in the quantum Hall effect regime
Sanderson Silva, Oleg G. Balev

TL;DR
This paper provides a microscopic analysis of helical edge magnetoplasmons in the quantum Hall regime, revealing their properties under various dissipation conditions and their interaction with Coulomb effects and environmental factors.
Contribution
It introduces a detailed microscopic model of helical edge magnetoplasmons, including their damping, spatial structure, and Coulomb renormalization effects in the quantum Hall regime.
Findings
Identification of a weakly damped helical edge magnetoplasmon mode
Exact damping expression for fundamental mode at weak dissipation
Renormalization of Landau level modes due to Coulomb coupling
Abstract
We present the microscopic treatment of edge magnetoplasmons (EMPs) for the regime of not-too-low temperatures defined by the condition , where is the group velocity of the edge states, is the magnetic length and is the cyclotron frequency. We find a weakly damped symmetric mode, named helical edge magnetoplasmon, which is localized at the edge states region for filling factors and \textit{very strong dissipation} , where the characteristic length with being the ratio of the local transverse conductivity to the local Hall conductivity at the edge states and is the wave vector along the edge; here other EMP modes are strongly…
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