Quantum Theory of the Electron Liquid

By G. Giuliani, G. Vignale. 2005

1,639 citations recorded by the source corpus.

Subfields: Electrical and Electronic Engineering

View Paper: https://www.semanticscholar.org/paper/736d1f495c9fdf7490d963d23820ead4e6445d65

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In Electrical and Electronic Engineering

Citations in the corpus

Ab initio simulation of warm dense matter (2019, background): “, noninteracting system) [93], and the local field correction G(q, ω) entails the full frequency- and wave number resolved information about exchange–correlation effects on χ [131].”
Electron-phonon interactions from first principles (2016, background): “[9, 120] for in-depth discussions of the Lindhard function).”
Light control with Weyl semimetals (2022, background): “These phenomena can be understood in the context of linear response theory [100, 179], as we have demonstrated in Sect.”
Colloquium: Graphene spectroscopy (2014, background): “Near the Fermi level one usually finds Z 1 (Giuliani and Vignale, 2005), so that the interactions diminish the DOS.”
Graphene plasmonics for terahertz to mid-infrared applications. (2014, background): “[57] For noble metals (Au and Ag), the plasmon resonances are typically in the visible part of the spectrum, while molecular vibrational mode frequencies are in the mid-infrared.”
Quantum Plasmonics (2016, methodology): “This means we can express out-of-equilibrium properties of an electron gas in terms of its unperturbed properties [50].”
The Properties of Hydrogen and Helium Under Extreme Conditions (2011, methodology): “The electronic response function, the property of the many body electron system that determines the effective proton’s interaction, has been the subject of many investigations: many-body techniques, perturbation theory and diagrammatic theory, and numerical work using DFT and QMC (Giuliani and Vigna”