Local immobilization of particles in mass transfer described by the equation of the Jeffreys type

We consider the equation of the Jeffreys type as the basic one in three different models of mass transfer, namely, the Jeffreys type and two-phase models, and the \(D_1\) approximation to the linear Boltzmann equation. We study two classic 1 + 1D problems in the framework of each model. The first pr...

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Published in:arXiv.org 2013-12
Main Authors: Rukolaine, Sergey A, Samsonov, Alexander M
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Boltzmann transport equation
Brownian motion
Mass transfer
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description We consider the equation of the Jeffreys type as the basic one in three different models of mass transfer, namely, the Jeffreys type and two-phase models, and the \(D_1\) approximation to the linear Boltzmann equation. We study two classic 1 + 1D problems in the framework of each model. The first problem is the transfer of a substance initially confined in a point. The second problem is the transfer of a substance from a stationary point source. We calculate the mean-square displacement (MSD) for the solutions of the first problem. The temporal behaviour of the MSD in the framework of the first and third models is found to be the same as that in the Brownian motion described by the standard Langevin equation. Besides, we find a remarkable phenomenon when a portion of the substance does not move.
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subjects Boltzmann transport equation
Brownian motion
Mass transfer
title Local immobilization of particles in mass transfer described by the equation of the Jeffreys type
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