Soil erosion assessment in the rainy mountainous areas of the eastern Mediterranean. A case study of the El-Sarout watershed

Abstract This study provides a comprehensive assessment of soil erosion dynamics in the El-Sarout River Watershed, encompassing 598.15 km 2 within the humid mountainous ecosystems of the eastern Mediterranean. Using the Coordination of Information on the Environment (CORINE) model, integrated with Geographic Information Systems and remote sensing, the research evaluates soil erosion susceptibility across varied landscapes. The CORINE model facilitates the creation of thematic maps essential for understanding soil erosion dynamics, including the Potential Soil Erosion Risk (PSER) and Actual Soil Erosion Risk (ASER) maps. PSER, derived from the Soil Erodibility Index, Erosivity Index, and Slope Index, identifies areas at risk under natural conditions. ASER refines this assessment by incorporating the Land Cover Index, which reflects current land use and management practices. Findings reveal that 18.56% (111.01 km 2 ) of the watershed, particularly in the complex terrain of the southwest and north, faces high erosion risk. Another 11.7% (70.0 km 2 ) exhibits moderate risk, while the majority, 69.74% (417.14 km 2 ), experiences low risk. These results align with field observations of erosion features such as rills and gullies. The study emphasizes the complexity of soil erosion processes, highlighting the interaction between rainfall intensity, vegetation cover, and topography. Contrary to common assumptions, areas with dense vegetation may still be highly susceptible to erosion, particularly in steep regions subject to intense rainfall. The study calls the need for further research to establish negative thresholds for influencing factors and to incorporate rainfall intensity indicators into erosion models, aiming to enhance the precision and efficacy of soil conservation strategies.

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Publication Details

Journal
Environment Development and Sustainability
Published
2024-11-28
DOI
https://doi.org/10.1007/s10668-024-05744-6
Citations
6
Primary Topic
Soil erosion and sediment transport
Type
article
Field-Weighted Citation Impact
2.00

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article

Soil erosion assessment in the rainy mountainous areas of the eastern Mediterranean. A case study of the El-Sarout watershed

Mouhiddin Kalkha, Rupert Bäumler, Bernhard Lücke, Hussam Hag Husein et al.
6 citations
Environment Development and Sustainability
Soil erosion and sediment transport
2.00
article

Soil erosion assessment in the rainy mountainous areas of the eastern Mediterranean. A case study of the El-Sarout watershed

Mouhiddin Kalkha, Rupert Bäumler, Bernhard Lücke, Hussam Hag Husein, Wahib Sahwan, R. Baladia, A. Al-Sarem
article en
6 citations

Abstract

Abstract This study provides a comprehensive assessment of soil erosion dynamics in the El-Sarout River Watershed, encompassing 598.15 km 2 within the humid mountainous ecosystems of the eastern Mediterranean. Using the Coordination of Information on the Environment (CORINE) model, integrated with Geographic Information Systems and remote sensing, the research evaluates soil erosion susceptibility across varied landscapes. The CORINE model facilitates the creation of thematic maps essential for understanding soil erosion dynamics, including the Potential Soil Erosion Risk (PSER) and Actual Soil Erosion Risk (ASER) maps. PSER, derived from the Soil Erodibility Index, Erosivity Index, and Slope Index, identifies areas at risk under natural conditions. ASER refines this assessment by incorporating the Land Cover Index, which reflects current land use and management practices. Findings reveal that 18.56% (111.01 km 2 ) of the watershed, particularly in the complex terrain of the southwest and north, faces high erosion risk. Another 11.7% (70.0 km 2 ) exhibits moderate risk, while the majority, 69.74% (417.14 km 2 ), experiences low risk. These results align with field observations of erosion features such as rills and gullies. The study emphasizes the complexity of soil erosion processes, highlighting the interaction between rainfall intensity, vegetation cover, and topography. Contrary to common assumptions, areas with dense vegetation may still be highly susceptible to erosion, particularly in steep regions subject to intense rainfall. The study calls the need for further research to establish negative thresholds for influencing factors and to incorporate rainfall intensity indicators into erosion models, aiming to enhance the precision and efficacy of soil conservation strategies.

Environment Development and Sustainability
Friedrich-Alexander-Universität Erlangen-Nürnberg (DE), General Commission for Scientific Agricultural Research (SY), Freie Universität Berlin (DE), Damascus University (SY)
Friedrich-Alexander-Universität Erlangen-Nürnberg
Life in Land
Openalex Percentile: Top 13%
Soil erosion and sediment transport
2.00
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