Effect of a finite oxide layer on the Faraday rotation and ellipticity in a metal-oxide-semiconductor system

Khandker, A.; O’Connell, R. F.; Wallace, G.

doi:10.1103/physrevb.31.5208

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D+1 System: Faraday Effect and Rotation Faraday Angle1

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2013

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Cited by 3 publications

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“…Let us suppose that the graphene plate is located at x 3 = 0 and the incoming electromagnetic wave is linearly polarized along the x 1 direction, and travels in the positive x 3 direction. Due to the optical Faraday rotation of the polarization vector when the wave crosses the graphene sheet, both the reflected and transmitted component acquire a component along the x 2 direction ( [13], [14], [26]). …”

Section: D+1 System: Faraday Effect and Rotation Faraday Anglementioning

confidence: 99%

Quantized Faraday effect in (3+1)-dimensional and (2+1)-dimensional systems

Rodríguez¹,

Martı́nez²,

Rojas³

et al. 2013

Phys. Rev. A

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We study Faraday rotation in the quantum relativistic limit. Starting from the photon selfenergy in the presence of a constant magnetic field the rotation of the polarization vector of a plane electromagnetic wave which travel along the fermion-antifermion gas is studied. The connection between Faraday Effect and Quantum Hall Effect (QHE) is discussed. The Faraday Effect is also investigated for a massless relativistic (2D+1)-dimensional fermion system which is derived by using the compactification along the dimension parallel to the magnetic field. The Faraday angle shows a quantized behavior as Hall conductivity in two and three dimensions.

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Section: D+1 System: Faraday Effect and Rotation Faraday Anglementioning

confidence: 99%