Integration of CLUE-S and ANN models for geospatial prediction of soil fertility dynamics (on the example of Cherkasy region)

Digital technologies for Agricultural and Spatial Territory Planning

Authors

First and Last Name Academic degree E-mail Affiliation
Dmytro Sopov Ph.D. odau.sopov [at] gmail.com Odesa State Agrarian University
Odesa, Ukraine
Nadiia Sopova Ph.D. lnau.sopova [at] gmail.com State Вiotechnological University
Kharkiv, Ukraine
Oksana Malashchuk Ph.D. osmalashcuk [at] gmail.com Odesa State Agrarian University
Odesa, Ukraine
Viacheslav Fomenko Ph.D. ph.d.fomenko [at] gmail.com Odesa State Agrarian University
Odesa, Ukraine
Yana Tarakanova No tarakanova.2906 [at] gmail.com Odesa State Agrarian University
Odesa, Ukraine

I and my co-authors (if any) authorize the use of the Paper in accordance with the Creative Commons CC BY license

First published on this website: 01.08.2026 - 10:29
Abstract 

The subject of this research is the changes in soil fertility within the Cherkasy region caused by natural, anthropogenic, and socio-economic factors. The objective of the study was to develop a scientifically grounded model for forecasting soil fertility, considering the spatial dynamics of land use, agrochemical parameters, and economic factors.

The study developed an integrated model combining the spatially explicit dynamic model CLUE-S (Conversion of Land Use and its Effects at Small regional extent) for analyzing land-use changes and an ANN (Artificial Neural Network) for predicting the agrochemical characteristics of soils. The findings indicate that humus content and soil pH are the key indicators of long-term soil productivity. Modeling results showed that, under a business-as-usual scenario preserving current land-use trends, humus content may decrease by 8–12 % by 2050, soil pH may decline to 5.7, and overall soil fertility may decrease by 15–20 %. In contrast, the sustainable management scenario predicts the maintenance of humus content at approximately 4 % and the stabilization of soil pH within the range of 6.3–6.5 through the optimization of crop rotations and the preservation of soil organic matter.

A distinctive feature of the proposed model is its incorporation of socio-economic factors, particularly government support for the agricultural sector and prevailing market conditions. The obtained results can be applied to agro-landscape planning, the development of sustainable land-use strategies, and the effective management of land resources.

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