Electron Self-Energy and Generalized Drude Formula for Infrared Conductivity of Metals
arXiv:cond-mat/0407777 · doi:10.1103/PhysRevB.92.054305
Abstract
Goetze and Woelfle (GW) wrote the conductivity in terms of a memory function M as (ine2/m)/(omega+M(omega)), where M=i/tau in the Drude limit. The analytic properties of -M are the same as those of the self-energy of a retarded Green's function. In the approximate treatment of GW, -M closely resembles a self-energy, with differences, e.g., the imaginary part is twice too large. The correct relation between -M and the self-energy is known for the electron-phonon case and is conjectured to be similar for other perturbations. When vertex corrections are ignored there is a known relation. A derivation using Matsubara temperature Green's functions is given.
The original version (arXiv:cond-mat/0407777v1) of July 2004 has been slightly improved. It is now (July 2015) belatedly "in production" at Phys. Rev. B. This new version is the one which will appear in print. The referees made useful suggestions, and some more recent papers are now cited. There are 4 pages, 0 figures
References in corpus (4)
- High-transition-temperature superconductivity in the absence of the magnetic-resonance mode
- Non-Drude universal scaling laws for the optical response of local Fermi liquids
- Electron Self-Energy and Generalized Drude Formula for Infrared Conductivity of Metals
- Optical response of high- cuprates: possible role of scattering rate saturation and in-plane anisotropy
Cited by in corpus (15)
- Predicting charge transport in the presence of polarons: The beyond-quasiparticle regime in SrTiO
- Conductivity spectrum of ultracold atoms in an optical lattice
- Electron Self-Energy and Generalized Drude Formula for Infrared Conductivity of Metals
- Reconciling scaling of the optical conductivity of cuprate superconductors with Planckian resistivity and specific heat
- Strange metal behaviour from charge density fluctuations in cuprates
- Band Structure and Terahertz Optical Conductivity of Transition Metal Oxides: Theory and Application to CaRuO
- Instantaneous response and quantum geometry of insulators
- Enhanced optical conductivity and many-body effects in strongly-driven photo-excited semi-metallic graphite
- Strong Particle-Hole Symmetry Breaking in a 200 kelvin Superconductor
- Intrinsic temperature-dependent evolutions in the electron-boson spectral density obtained from optical data
- Signatures of Hund Metal and finite-frequency nesting in SrRuO Revealed by Electronic Raman Scattering
- Orbital dichotomy of Fermi liquid properties in SrRuO revealed by Raman spectroscopy
- Electron-mediated anharmonicity and its role in the Raman spectrum of graphene
- Memory Function Representation for the Electrical Conductivity of Solids
- Resistivity of high pressure phosphorus phases