Power-law Spatial Dispersion from Fractional Liouville Equation
Vasily E. Tarasov

TL;DR
This paper introduces a fractional kinetic model using the Liouville equation with Caputo derivatives to describe power-law spatial dispersion of permittivity, deriving fractional differential equations for electrostatic potential.
Contribution
It presents a novel microscopic fractional kinetic model and derives fractional differential equations for media with power-law spatial dispersion.
Findings
Power-law dependence of permittivity on wave vector derived
Fractional differential equations for electrostatic potential established
Solutions for point charge potential in such media analyzed
Abstract
A microscopic model in the framework of fractional kinetics to describe spatial dispersion of power-law type is suggested. The Liouville equation with the Caputo fractional derivatives is used to obtain the power-law dependence of the absolute permittivity on the wave vector. The fractional differential equations for electrostatic potential in the media with power-law spatial dispersion are derived. The particular solutions of these equations for the electric potential of point charge in this media are considered.
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