2011
DOI: 10.1103/physreve.83.057401
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Electromagnetic surface modes in a magnetized quantum electron-hole plasma

Abstract: This is the published version of a paper published in Physical Review E. Statistical, Nonlinear, and Soft Matter Physics. Citation for the original published paper (version of record):Electromagnetic surface modes in a magnetized quantum electron-hole plasma.Physical Review E. Statistical, Nonlinear, and Soft Matter Physics, 83(5) The propagation of surface electromagnetic waves along a uniform magnetic field is studied in a quantum electron-hole semiconductor plasma. A forward propagating mode is foun… Show more

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Cited by 38 publications
(34 citation statements)
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“…Furthermore, the density dependency of the plasma frequency in massless Dirac plasmas is different from that in Fermi plasmas, i.e., ω pD ∼ n 1/3 0 and ω pF ∼ n 1/2 0 . Out of several possible plasma modes [38,52,57], we are interested in the solutions of Eqs. (12) and (13) that have the following forms…”
Section: Dispersion Relation Of Surface Plasmonsmentioning
confidence: 99%
“…Furthermore, the density dependency of the plasma frequency in massless Dirac plasmas is different from that in Fermi plasmas, i.e., ω pD ∼ n 1/3 0 and ω pF ∼ n 1/2 0 . Out of several possible plasma modes [38,52,57], we are interested in the solutions of Eqs. (12) and (13) that have the following forms…”
Section: Dispersion Relation Of Surface Plasmonsmentioning
confidence: 99%
“…Furthermore, the dispersion relation for the propagation of surface waves in a magnetized spin 1/2 quantum plasma is derived through the elimination of integration constants C i 's using the boundary conditions [33] : (a) tangential component of the electric field is continuous at the interface, (b) normal component of the displacement vector is continuous at the interface, and (c) normal component of the electrons velocity is equal to zero at the boundary. Furthermore, the dispersion relation for the propagation of surface waves in a magnetized spin 1/2 quantum plasma is derived through the elimination of integration constants C i 's using the boundary conditions [33] : (a) tangential component of the electric field is continuous at the interface, (b) normal component of the displacement vector is continuous at the interface, and (c) normal component of the electrons velocity is equal to zero at the boundary.…”
Section: Methods Of Characteristic Equationmentioning
confidence: 99%
“…Electric field components can be calculated by substituting Equations 20-22 into Equations 9 and 10. Furthermore, the dispersion relation for the propagation of surface waves in a magnetized spin 1/2 quantum plasma is derived through the elimination of integration constants C i 's using the boundary conditions [33] : (a) tangential component of the electric field is continuous at the interface, (b) normal component of the displacement vector is continuous at the interface, and (c) normal component of the electrons velocity is equal to zero at the boundary. The dispersion relation is as follows:…”
Section: Methods Of Characteristic Equationmentioning
confidence: 99%
“…These quantum effects can produce new interesting physical phenomena ol electrostatic and electromagnetic waves in semiconductor quantum plasmas [3,4], which can be investigated by quantum hydrodynamic (QHD) equations, of which the Bohm potential stands for the quantum tunneling effect [5]. More recently, the two-stream instability in a quantum semiconductor plasma was studied using the QHD model [6], The instability in an electron beam pumped GaAs semiconductor can arise due to the excitation of electron-hole pairs [7], The longitudinal waves and electromagnetic surface waves were all modified by the quantum corrections [8,9]. The quantum effects would also reduce the threshold electric field for the onset of parametric amplification [10].…”
Section: Introductionmentioning
confidence: 99%