Digital modeling of lateral water flows and caesium-137 at the microlandscape level in semi-hydromorphic soils of the Bryansk region

A significant role in the movement of water in the soil profile belongs to the preferential vertical water flows, while less attention is paid to the study of lateral flows. We propose a method for studying lateral moisture flows at the microlandscape level using 137Cs of “Chernobyl” origin. For GIS modeling of lateral transport, the hydrological attributes of the microrelief were used, based on a digital relief model (DEM) at a scale of 1:200 with a horizontal section of 20 cm. The Catchment Areas, the Overland Flow Distance, the ephemeral Tricle Network (Strahler Order), as well as the topographic humidity index (TWI) qualitatively characterize the intensity of soil moisture, as well as lateral flows at the microlandscape level. The idea of “preferential lateral flows” introduced by analogy with vertical “preferential moisture flows”. Due to the spatial features of the structure of the nano- and microrelief, lateral transfer forms ephemeral patterns with different humidification modes: “finger-like”, filamentous, and others. A weak level of lateral migration of 137Cs was revealed depending on DEM derivatives.

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Publication Details

Journal
Lomonosov Soil Science Journal
Published
2024-11-19
DOI
https://doi.org/10.55959/msu0137-0944-17-2024-79-4-51-62
Primary Topic
Soil and Unsaturated Flow
Type
article
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article

Digital modeling of lateral water flows and caesium-137 at the microlandscape level in semi-hydromorphic soils of the Bryansk region

O. M. Ivanitsky, Anatoly A. Saveliev, Vitaly G. Linnik
Lomonosov Soil Science Journal
Soil and Unsaturated Flow
article

Digital modeling of lateral water flows and caesium-137 at the microlandscape level in semi-hydromorphic soils of the Bryansk region

O. M. Ivanitsky, Anatoly A. Saveliev, Vitaly G. Linnik
article en

Abstract

A significant role in the movement of water in the soil profile belongs to the preferential vertical water flows, while less attention is paid to the study of lateral flows. We propose a method for studying lateral moisture flows at the microlandscape level using 137Cs of “Chernobyl” origin. For GIS modeling of lateral transport, the hydrological attributes of the microrelief were used, based on a digital relief model (DEM) at a scale of 1:200 with a horizontal section of 20 cm. The Catchment Areas, the Overland Flow Distance, the ephemeral Tricle Network (Strahler Order), as well as the topographic humidity index (TWI) qualitatively characterize the intensity of soil moisture, as well as lateral flows at the microlandscape level. The idea of “preferential lateral flows” introduced by analogy with vertical “preferential moisture flows”. Due to the spatial features of the structure of the nano- and microrelief, lateral transfer forms ephemeral patterns with different humidification modes: “finger-like”, filamentous, and others. A weak level of lateral migration of 137Cs was revealed depending on DEM derivatives.

Lomonosov Soil Science JournalVol. 79(№4, 2024)
Kazan Federal University (RU), V.I. Vernadsky Institute of Geochemistry and Analytical Chemistry (RU)
Openalex Percentile: Top 73%
Soil and Unsaturated Flow
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Digital modeling of lateral water flows and caesium-137 at the microlandscape level in semi-hydromorphic soils of the Bryansk region — O. M. Ivanitsky, Anatoly A. Saveliev, et al. · Lomonosov Soil Science Journal (2024) | TGRS Research Map | TGRS