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Delay Model for a Cycling Transport Through Porous Medium

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Abstract

A solute transport through a porous medium is examined provided that the fluid leaving the porous sample returns back in a continuous way. The porous medium is thus included into a closed hydrodynamic circuit. This cycling process is suggested as an experimental tool to determine porous medium parameters describing transport. In the present paper the mathematical theory of this method is developed. For the advective type of transport with solute retention and degradation in porous medium, the system of transport equations in a closed circuit is transformed to a delay differential equation. The exact analytical solution to this equation is obtained. The solute concentration manifests both the oscillatory and monotonous behaviors depending on system parameters. The number of oscillation splashes is shown to be always finite. The maximum/minimum points are determined as solutions of a polynomial equation whose degree depends on the unknown solution itself. The cyclic methods to determine porous medium parameters as porosity and retention rate are developed.

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Buès, M., Panfilov, M. Delay Model for a Cycling Transport Through Porous Medium. Transport in Porous Media 55, 215–241 (2004). https://doi.org/10.1023/B:TIPM.0000010674.93676.de

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  • DOI: https://doi.org/10.1023/B:TIPM.0000010674.93676.de

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