Two-Dimensional Time Fractional River-Pollution Model and Its Remediation by Unsteady Aeration

This study contains a mathematical model for river pollution and its remediation for an unsteady state and investigates the effect of aeration on the degradation of pollutants. The governing equation is a pair of nonlinear time-fractional two-dimensional advection-diffusion equations for pollutant and dissolved oxygen (DO) concentration. The coupling of these equations arises due to the chemical interactions between oxygen and pollutants, forming harmless chemicals. The Fractional Reduced Differential Transform Method (FRDTM) is applied to provide approximate solutions for the given model. Also, the convergence of solutions is checked for efficacy and accuracy. The effect of longitudinal and transverse diffusion coefficients of pollutant and DO on the concentration of pollutant and DO is analyzed numerically and graphically. Also, we checked the effect of change in the river’s longitudinal and transverse seepage velocity on pollutant and DO concentration numerically and graphically. We analyzed the comparison of change in the value of half-saturated oxygen demand concentration for pollutant decay on pollutant and DO concentration numerically and graphically. Also, numerical and graphical analysis examined the effect of fractional parameters on pollution levels.

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Publication Details

Journal
Axioms
Published
2024-09-23
DOI
https://doi.org/10.3390/axioms13090654
Citations
3
Primary Topic
Groundwater flow and contamination studies
Type
article
Field-Weighted Citation Impact
0.62

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article

Two-Dimensional Time Fractional River-Pollution Model and Its Remediation by Unsteady Aeration

Trushit Patel, Priti V. Tandel, Manan A. Maisuria
3 citations
Axioms
Groundwater flow and contamination studies
0.62
article

Two-Dimensional Time Fractional River-Pollution Model and Its Remediation by Unsteady Aeration

Trushit Patel, Priti V. Tandel, Manan A. Maisuria
article en
3 citations

Abstract

This study contains a mathematical model for river pollution and its remediation for an unsteady state and investigates the effect of aeration on the degradation of pollutants. The governing equation is a pair of nonlinear time-fractional two-dimensional advection-diffusion equations for pollutant and dissolved oxygen (DO) concentration. The coupling of these equations arises due to the chemical interactions between oxygen and pollutants, forming harmless chemicals. The Fractional Reduced Differential Transform Method (FRDTM) is applied to provide approximate solutions for the given model. Also, the convergence of solutions is checked for efficacy and accuracy. The effect of longitudinal and transverse diffusion coefficients of pollutant and DO on the concentration of pollutant and DO is analyzed numerically and graphically. Also, we checked the effect of change in the river’s longitudinal and transverse seepage velocity on pollutant and DO concentration numerically and graphically. We analyzed the comparison of change in the value of half-saturated oxygen demand concentration for pollutant decay on pollutant and DO concentration numerically and graphically. Also, numerical and graphical analysis examined the effect of fractional parameters on pollution levels.

AxiomsVol. 13(9)
Veer Narmad South Gujarat University (IN), University of the People (US)
Council of Scientific and Industrial Research, India
Clean water and sanitation
Openalex Percentile: Top 35%
Groundwater flow and contamination studies
0.62
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