Effect of adsorption coefficient and sorption intensity on the spatiotemporal variation of contaminant concentration in saturated porous media using the fractional advection–dispersion equation

This study presents a numerical solution of time and space fractional advection–dispersion equation (FADE) using the explicit Euler method, combined with the standard Grünwald formula and the Caputo fractional time derivative. The research aims to contribute to a better understanding and optimization of pollutant retention in subsurface environments, accounting for Freundlich parameters. The FADE model demonstrated a greater capacity for solute mass retention. Additionally, in a saturated porous medium, solute movement is more effectively influenced by the absorption parameter associated with the retardation factor. In other words, this parameter has a notable impact on pollutant dispersion in porous media. This work emphasizes the importance of accurately characterizing these parameters to optimize pollutant retention and better understand transport mechanisms in complex porous media.

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Publication Details

Journal
Discover Applied Sciences
Published
2025-08-26
DOI
https://doi.org/10.1007/s42452-025-06903-8
Primary Topic
Fractional Differential Equations Solutions
Type
article
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article

Effect of adsorption coefficient and sorption intensity on the spatiotemporal variation of contaminant concentration in saturated porous media using the fractional advection–dispersion equation

Fulbert Togue Kamga, Calvia Yonti Madie, Rodric M. Nonki, Francky Joël Nkili et al.
Discover Applied Sciences
Fractional Differential Equations Solutions
article

Effect of adsorption coefficient and sorption intensity on the spatiotemporal variation of contaminant concentration in saturated porous media using the fractional advection–dispersion equation

Fulbert Togue Kamga, Calvia Yonti Madie, Rodric M. Nonki, Francky Joël Nkili, Denis William Yossa Dansi
article en

Abstract

This study presents a numerical solution of time and space fractional advection–dispersion equation (FADE) using the explicit Euler method, combined with the standard Grünwald formula and the Caputo fractional time derivative. The research aims to contribute to a better understanding and optimization of pollutant retention in subsurface environments, accounting for Freundlich parameters. The FADE model demonstrated a greater capacity for solute mass retention. Additionally, in a saturated porous medium, solute movement is more effectively influenced by the absorption parameter associated with the retardation factor. In other words, this parameter has a notable impact on pollutant dispersion in porous media. This work emphasizes the importance of accurately characterizing these parameters to optimize pollutant retention and better understand transport mechanisms in complex porous media.

Discover Applied SciencesVol. 7(9)
Université de Yaoundé I (CM), University of Douala (CM), University of Kinshasa (CD)
Openalex Percentile: Top 74%
Fractional Differential Equations Solutions
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Effect of adsorption coefficient and sorption intensity on the spatiotemporal variation of contaminant concentration in saturated porous media using the fractional advection–dispersion equation — Fulbert Togue Kamga, Calvia Yonti Madie, et al. · Discover Applied Sciences (2025) | TGRS Research Map | TGRS