High-resolution soil erodibility K-factor estimation using machine learning generated soil dataset and soil pH levels

Soil Erodibility Factor (K-factor) is a crucial component of a widely used equation for soil erosion assessment known as the USLE (Universal Soil Loss Equation) or its revised version – RUSLE. It reflects the potential of the soil of being detached due to rainfalls or runoffs. So far, an extensive n...

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Main Authors: Nurlan Mammadli, Magsad Gojamanov
Format: Article
Language:English
Published: Polish Academy of Sciences 2021-07-01
Series:Geodesy and Cartography
Subjects:
Online Access:https://journals.pan.pl/Content/120363/PDF/04_Mammadli_Gojamanov.pdf
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author Nurlan Mammadli
Magsad Gojamanov
author_facet Nurlan Mammadli
Magsad Gojamanov
author_sort Nurlan Mammadli
collection DOAJ
description Soil Erodibility Factor (K-factor) is a crucial component of a widely used equation for soil erosion assessment known as the USLE (Universal Soil Loss Equation) or its revised version – RUSLE. It reflects the potential of the soil of being detached due to rainfalls or runoffs. So far, an extensive number of researches provide different approaches and techniques in the evaluation of K-factor. This study applies soil erodibility estimation in the soils of the South Caucasian region using soil data prepared by the International Soil Reference and Information Centre (ISRIC) with 250 m resolution, whereas the recent K-factor estimation implemented in the EU scale was with 500 m resolution. Soil erodibility was assessed using an equation involving soil pH levels. The study utilises Trapesoidal equation of soil data processing and preparation, as suggested by ISRIC, for various layers of surface soil data with up to 0-30 cm depth. Both usage of SoilGrids data and its processing as well as estimation of K-factor applying soil pH levels have demonstrated sufficient capacity and accuracy in soil erodibility assessment. The final output result has revealed the K-factor values varying from 0.037 and more than 0.060 t ha h/MJ mm within the study area.
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spelling doaj.art-cbe7ead1ebad43fcb866c78a5ed5253a2022-12-22T04:00:23ZengPolish Academy of SciencesGeodesy and Cartography2300-25812021-07-01vol. 70No 1https://doi.org/10.24425/gac.2021.136679High-resolution soil erodibility K-factor estimation using machine learning generated soil dataset and soil pH levelsNurlan Mammadli0https://orcid.org/0000-0002-8594-5702Magsad Gojamanov1Azerbaijan National Academy Sciences, Baku, AzerbaijanBaku State University, Baku, AzerbaijanSoil Erodibility Factor (K-factor) is a crucial component of a widely used equation for soil erosion assessment known as the USLE (Universal Soil Loss Equation) or its revised version – RUSLE. It reflects the potential of the soil of being detached due to rainfalls or runoffs. So far, an extensive number of researches provide different approaches and techniques in the evaluation of K-factor. This study applies soil erodibility estimation in the soils of the South Caucasian region using soil data prepared by the International Soil Reference and Information Centre (ISRIC) with 250 m resolution, whereas the recent K-factor estimation implemented in the EU scale was with 500 m resolution. Soil erodibility was assessed using an equation involving soil pH levels. The study utilises Trapesoidal equation of soil data processing and preparation, as suggested by ISRIC, for various layers of surface soil data with up to 0-30 cm depth. Both usage of SoilGrids data and its processing as well as estimation of K-factor applying soil pH levels have demonstrated sufficient capacity and accuracy in soil erodibility assessment. The final output result has revealed the K-factor values varying from 0.037 and more than 0.060 t ha h/MJ mm within the study area.https://journals.pan.pl/Content/120363/PDF/04_Mammadli_Gojamanov.pdfsoil erodibilityruslesoilgridsk factorsoil ph
spellingShingle Nurlan Mammadli
Magsad Gojamanov
High-resolution soil erodibility K-factor estimation using machine learning generated soil dataset and soil pH levels
Geodesy and Cartography
soil erodibility
rusle
soilgrids
k factor
soil ph
title High-resolution soil erodibility K-factor estimation using machine learning generated soil dataset and soil pH levels
title_full High-resolution soil erodibility K-factor estimation using machine learning generated soil dataset and soil pH levels
title_fullStr High-resolution soil erodibility K-factor estimation using machine learning generated soil dataset and soil pH levels
title_full_unstemmed High-resolution soil erodibility K-factor estimation using machine learning generated soil dataset and soil pH levels
title_short High-resolution soil erodibility K-factor estimation using machine learning generated soil dataset and soil pH levels
title_sort high resolution soil erodibility k factor estimation using machine learning generated soil dataset and soil ph levels
topic soil erodibility
rusle
soilgrids
k factor
soil ph
url https://journals.pan.pl/Content/120363/PDF/04_Mammadli_Gojamanov.pdf
work_keys_str_mv AT nurlanmammadli highresolutionsoilerodibilitykfactorestimationusingmachinelearninggeneratedsoildatasetandsoilphlevels
AT magsadgojamanov highresolutionsoilerodibilitykfactorestimationusingmachinelearninggeneratedsoildatasetandsoilphlevels