Generalized 3D Model of Crosswind Concentrations and Deposition in the Atmospheric Boundary Layer

In this paper, we introduce a comprehensive solution aimed at enhancing our understanding of three-dimensional atmospheric pollutant dispersion. This innovative solution involves the development of a generalized model that extends previous research and is applicable to all parameterization schemes of these equations, including wind speed profiles and turbulent diffusion coefficients, while incorporating the dry deposition criterion. Our methodology involves subdividing the atmospheric boundary layer into distinct sub-layers, which facilitates a detailed examination of pollutant dispersion dynamics. Extensive validation with data from the Hanford experiment has demonstrated the accuracy of this solution in simulating pollutant concentrations. The results demonstrate that there is a strong correlation between the projected and observed concentrations, underscoring the statistical reliability of our approach. This validation situates the statistical indices of our solution within an acceptable range, confirming its accuracy in predicting atmospheric pollutant dispersion. These findings thus establish our solution as a valid and effective method for studying complex environmental phenomena.

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Publication Details

Journal
Atmosphere
Published
2024-08-31
DOI
https://doi.org/10.3390/atmos15091054
Primary Topic
Wind and Air Flow Studies
Type
article
Field-Weighted Citation Impact
0.00
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article

Generalized 3D Model of Crosswind Concentrations and Deposition in the Atmospheric Boundary Layer

Otmane Souhar, Mehdi Farhane
Atmosphere
Wind and Air Flow Studies
article

Generalized 3D Model of Crosswind Concentrations and Deposition in the Atmospheric Boundary Layer

Otmane Souhar, Mehdi Farhane
article en

Abstract

In this paper, we introduce a comprehensive solution aimed at enhancing our understanding of three-dimensional atmospheric pollutant dispersion. This innovative solution involves the development of a generalized model that extends previous research and is applicable to all parameterization schemes of these equations, including wind speed profiles and turbulent diffusion coefficients, while incorporating the dry deposition criterion. Our methodology involves subdividing the atmospheric boundary layer into distinct sub-layers, which facilitates a detailed examination of pollutant dispersion dynamics. Extensive validation with data from the Hanford experiment has demonstrated the accuracy of this solution in simulating pollutant concentrations. The results demonstrate that there is a strong correlation between the projected and observed concentrations, underscoring the statistical reliability of our approach. This validation situates the statistical indices of our solution within an acceptable range, confirming its accuracy in predicting atmospheric pollutant dispersion. These findings thus establish our solution as a valid and effective method for studying complex environmental phenomena.

AtmosphereVol. 15(9)
Chouaib Doukkali University (MA)
Openalex Percentile: Top 87%
Wind and Air Flow Studies
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