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Volumn 90, Issue 1, 2014, Pages

Alternative representation of the Kubo formula for the optical conductivity: A shortcut to transport properties

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EID: 84905395962     PISSN: 10980121     EISSN: 1550235X     Source Type: Journal    
DOI: 10.1103/PhysRevB.90.014310     Document Type: Article
Times cited : (17)

References (44)
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    • In particular, Boltzmann equations have been reproduced through a perturbative treatment of the Kubo formula to leading order in the Migdal expansion (Equation presented), where (Equation presented) (Equation presented) is the electron (ion) mass. Then, in the metals, the phenomenological theory works well even if the parameter giving the mass enhancement is not small, provided the states near the Fermi level are propagating quasiparticle states. In any case, the Fermi energy has to be much larger than other energies such as (Equation presented) or (Equation presented), where (Equation presented) is the Debye frequency.
    • In particular, Boltzmann equations have been reproduced through a perturbative treatment of the Kubo formula to leading order in the Migdal expansion (Equation presented), where (Equation presented) (Equation presented) is the electron (ion) mass. Then, in the metals, the phenomenological theory works well even if the parameter giving the mass enhancement is not small, provided the states near the Fermi level are propagating quasiparticle states. In any case, the Fermi energy has to be much larger than other energies such as (Equation presented) or (Equation presented), where (Equation presented) is the Debye frequency.
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    • We note that within this reference, the equations determining the transport scattering time coincide with Eqs.
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    • Note the strange fact that in the FHIP [28] treatment, mobility is dominated by phonon emission processes [21].
    • Note the strange fact that in the FHIP [28] treatment, mobility is dominated by phonon emission processes [21].
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    • We emphasize that within the SKF, the second vertex correction provides a further factor in Eq. (27) of the order of (Equation presented) [7], in agreement, apart from a numerical factor, with the prediction of WBFOC (we note that WBFOC obtains this result at the lowest order).
    • We emphasize that within the SKF, the second vertex correction provides a further factor in Eq. (27) of the order of (Equation presented) [7], in agreement, apart from a numerical factor, with the prediction of WBFOC (we note that WBFOC obtains this result at the lowest order).
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