Abramova, L. P. (2016). Soil degradation and reclamation. Yekaterinburg. Pp. 36.
Agroclimatic reference book (1967). Agroclimatic reference book on the Volgograd region. Gidrometeoizdat, Leningrad, Russia. 1967. pp.144.
Aparin, B. F., Rusakov A. V. and Bulgakov D. S. (2002). St. Petersburg University Publishing House, St. Petersburg, Russia. pp: 87.
Atlas (2026). Atlas of Soils of the Russian Federation. Solonetzes. https://soil-db.ru/soilatlas/ razdel-3-pochvy-rossiyskoy-federacii/soloncy (accessed 02.04.2026).
Barabanov, A. T., Dronova, T. N., Pavlovsky, E. S. and Stepanov, A. M. (2012). Scientific foundations for developing soil conservation measures in an adaptive-landscape farming system. Bulletin of the Lower Volga Agrarian University Complex: Science and Higher Professional Education. 1 (25): 7–10.
Belyakov, A. M., Koshelev, A. V. and Nazarova, M. V. (2022) Adaptive-landscape farming system of the Volgograd region: problems and prospects. News of the Lower Volga Agrarian University Complex: Science and Higher Professional Education. 3 (67): 530-43.
Bouma, J. (2019). Soil Security in Sustainable Development. Soil Syst. 3: doi:10.3390/ soilsystems3010005.
Bouma, J., de Haan, J. and Dekkers, M. S. (2022). Exploring operational procedures to assess ecosystem services at farm level, including the role of soil health. Soil Syst. 6: doi:10. 3390/soilsystems6020034.
Bouma, J., Pinto-Correia, T. and Veerman, C. (2021). Assessing the role of soils when developing sustainable agricultural production systems focused on achieving the UN-SDGs and the EU green deal. Soil Syst. 5: doi:10.3390/soilsystems5030056.
Daou, L. and Shipley, B. (2019). The measurement and quantification of generalized gradients of soil fertility relevant to plant community ecology. Ecology 100: doi:10.1002/ecy.2549.
Daou, L. and Shipley, B. (2020). Simplifying the protocol for the quantification of generalized soil fertility gradients in grassland community ecology. Plant Soil. 457; 457-68. doi.org/ 10.1007/s11104-020-04729-4.
Daou, L., Shipley, B. (2020). Simplifying the protocol for the quantification of generalized soil fertility gradients in grassland community ecology. Plant Soil 457: 457-68. https://doi.org/10.1007/s11104-020-04729-4.
Degtyareva, E. T. (1981). . Nizhnevolzhskoe knizhnoe izdatelstvo, Volgograd, Russia. pp: 160.
Gao. L., Huang, M., Zhang, W., Qiao, L., Wang, G. and Zhang X. (2021). Comparative study on spatial digital mapping methods of soil nutrients based on different geospatial technologies. Sustainability 13: doi:10.3390/su13063270.
Garshinev, E. A. (1999). Erosion-hydrological process and forest reclamation. Volgograd, VNIALMI, pp: 196.
Gerke, J. (2022). The central role of soil organic matter in soil fertility and carbon storage. Soil Syst. 6: doi:10.3390/ soilsystems6020033.
Goydaragh, M. G., Taghizadeh-Mehrjardi, R., Jafarzadeh. A. A., Triantafilis, J. and Lado. M. (2021). Using environmental variables and Fourier Transform Infrared Spectroscopy to predict soil organic carbon. Catena 202: doi:10.1016/j.catena.2021.105280.
Guo, M. (2021). Soil health assessment and management: recent development in science and practices. Soil Syst. 5: doi:10.3390/soilsystems5040061.
Itichaa, B. and Takeleb, C. (2019). Digital soil mapping for site-specific management of soils. Geoderma 351: 85–91. doi:10.1016/j.geoderma.2019.05.026.
Ivantsova, E. A. and Vodolazko, A. N. (2018). Soil quality of agricultural lands in the dry steppe soil zone of the Volgograd region. Izvestia of the Lower Volga Agro-University Complex. 2: 150 -57.
Kalinichenko, N. P. and Zykov, I. G. (1986). Anti-erosion forest reclamation. Moscow, Agropromizdat, pp: 54–78.
Karmanov, I. I. and Bulgakov, D. S. (2007). Algorithm for assessing the productivity of soil-agroecological conditions for the cultivation of crops. Fertility 5: 37-39.
Kiryushin, V. I. (2019). Management of soil fertility and productivity of agracenoses in adaptive landscape farming systems. Dokuchaev Soil Sci. Institute J. 9: 1130-39. doi:10.1134 / S0032180X19070062.
Kiryushin, V. I. (2020). Methodology for an integrated assessment of agricultural land. Dokuchaev Soil Sci. Institute J. 7: 871-79. doi:10.31857/S0032180X20070060.
Koretskaya, Yu. V., Kolesnichenko, S. S., Trotsenko, I. A. and Popova, V. V. (2017). Gypsum application as a method for improving the melioration state of crusted solonetz. Electronic Scientific and Methodological J. Omsk State Agrarian Univ. 1: 1-5.
Kozmenko, A. S. (1954). Fundamentals of anti-erosion reclamation. Moscow, Selkhozgiz, 1954. pp. 423.
Kulik, K. N. (2020). The Role of Protective Forest Plantations in Optimizing Agricultural Land Use in the Russian Federation. In the collection: Optimization of Agricultural Land Use and Strengthening the Export Potential of the Russian Agro-Industrial Complex Based on Convergent Technologies. Volgograd, pp: 26-31.
Kulik, K. N., Rulev, A. S. and Yuferev, V. G. (2015). Geoinformation analysis of the dynamics of desertification in the Astrakhan region. Arid Ecosyst. 3: 23-32.
Kuzychenko. Yu. A. and Kobozev, A. K. (2019). Evaluation of soil tillage during long-term use of various primary tillage systems in crop rotation for the Central Ciscaucasia zone. Bulletin of the Orenburg State Agrarian Univ. 2: 10-13.
Levykin, S. V., Chibilev, A. A., Kazachkov, G. V. and Petrishchev, V.P. (2017). Application of the soil-ecological multiplicative intex in assessing the arable suitability of the southern chernozems of the Cis-Urals, taking into account economic indicators. Dokuchaev Soil Sci. Institute J. 2: 256-63. doi:10.7868 / S0032180X17020101.
Litvin, L. F., Kiryukhina, Z. P., Krasnov, S. F. and Dobrovolskaya, N. G. (2017). Geography of agricultural erosion dynamics in the European part of Russia. Soil Sci. 11: 1390–400.
Methodological Guidelines (2003). Methodological guidelines for the comprehensive monitoring of soil fertility of agricultural lands. Russian Academy of Agricultural Sciences, Moscow. pp: 240.
Mizuta, K., Grunwald, S. and Reshaping. (2022). How we think about soil security. Soil Syst. 6: doi:10.3390/ soilsystems6040074.
Novikova, A. B. (2009). Studies of saline and solonetzic soils: genesis, melioration, ecology. Selected works, Drukarnya, pp.720.
Parsaie, F., Firouzi, A. F., Mousavi, S. R., Rahmani, A., Sedri M. H. and Homaee M. (2021). Large-scale digital mapping of topsoil total nitrogen using machine learning models and associated uncertainty map. Environ. Monit. Assess. 193: doi:10.1007/s10661-021-08947-w.
Pervaiz, Z. H., Iqbal, J, Zhang, Q., Chen, D., Wei, H. and Saleem, M. (2020). Continuous cropping alters multiple biotic and abiotic indicators of soil health. Soil Syst. 4: doi:10.3390/ soilsystems4040059.
Premasudha, B. G., Panneerselvam, S. and Basavaraja, P. K. (2021). Pedometric mapping for soil fertility management – A case study. H.U. Leena J. Saudi Soc. Agric. Sci. 20: 128–35. doi:10.1016/j.jssas.2020.12.008.
Pronko, V. V., Pronko, N. A., Rukhovich, O. V., Belichenko, M. V., Romanenkov, V. A., Yaroshenko, T. M., Klimova, N. F. and Zhuravlev. D. Yu. (2020). The influence of fertilizers on the fertility of irrigated dark chestnut soils of the Volga region and the productivity of agricultural crops. Agrochemistry 6: 53-63.
Shein, E. V., Kiryushin V. I., Korchagin A. A., Maztrov M. A., Dembovetskiy A. V. and Ilyin L. I. (2017). Assessment of agronomic homogeneity and compatibility of the soil cover of the Vladimir opol'e. Dokuchaev Soil Sci. Institute J. 10: 1208-15.doi:10.7868/S0032180X 17100112.
Shitikov, N. V. and Pigorev, I. Ya. (2022). Snow retention and formation of the water regime of agricultural lands in the central black earth region of Russia. Bull. Kursk State Agric. Acad. 3: 29-46.
Surmach, G. P. (1992). Relief formation, forest-steppe development, modern erosion and anti-erosion reclamation. Volgograd, VNIALMI, pp: 174.
Vinogradov, B. V. (1998). . GEOS, Moscow. Russia. pp: 418.
Vitkovskaya. S. E. (2011). AFI, St. Petersburg, Russia. pp: 52.
Vodolazko, A. N. and Ivantsova, E. I. (2019). Grading of soils of agricultural lands, taking into account pollution by heavy metals (on the example of the Volgograd region). Izvestia KSTU 54: 20-30.
Agroclimatic reference book (1967). Agroclimatic reference book on the Volgograd region. Gidrometeoizdat, Leningrad, Russia. 1967. pp.144.
Aparin, B. F., Rusakov A. V. and Bulgakov D. S. (2002). St. Petersburg University Publishing House, St. Petersburg, Russia. pp: 87.
Atlas (2026). Atlas of Soils of the Russian Federation. Solonetzes. https://soil-db.ru/soilatlas/ razdel-3-pochvy-rossiyskoy-federacii/soloncy (accessed 02.04.2026).
Barabanov, A. T., Dronova, T. N., Pavlovsky, E. S. and Stepanov, A. M. (2012). Scientific foundations for developing soil conservation measures in an adaptive-landscape farming system. Bulletin of the Lower Volga Agrarian University Complex: Science and Higher Professional Education. 1 (25): 7–10.
Belyakov, A. M., Koshelev, A. V. and Nazarova, M. V. (2022) Adaptive-landscape farming system of the Volgograd region: problems and prospects. News of the Lower Volga Agrarian University Complex: Science and Higher Professional Education. 3 (67): 530-43.
Bouma, J. (2019). Soil Security in Sustainable Development. Soil Syst. 3: doi:10.3390/ soilsystems3010005.
Bouma, J., de Haan, J. and Dekkers, M. S. (2022). Exploring operational procedures to assess ecosystem services at farm level, including the role of soil health. Soil Syst. 6: doi:10. 3390/soilsystems6020034.
Bouma, J., Pinto-Correia, T. and Veerman, C. (2021). Assessing the role of soils when developing sustainable agricultural production systems focused on achieving the UN-SDGs and the EU green deal. Soil Syst. 5: doi:10.3390/soilsystems5030056.
Daou, L. and Shipley, B. (2019). The measurement and quantification of generalized gradients of soil fertility relevant to plant community ecology. Ecology 100: doi:10.1002/ecy.2549.
Daou, L. and Shipley, B. (2020). Simplifying the protocol for the quantification of generalized soil fertility gradients in grassland community ecology. Plant Soil. 457; 457-68. doi.org/ 10.1007/s11104-020-04729-4.
Daou, L., Shipley, B. (2020). Simplifying the protocol for the quantification of generalized soil fertility gradients in grassland community ecology. Plant Soil 457: 457-68. https://doi.org/10.1007/s11104-020-04729-4.
Degtyareva, E. T. (1981). . Nizhnevolzhskoe knizhnoe izdatelstvo, Volgograd, Russia. pp: 160.
Gao. L., Huang, M., Zhang, W., Qiao, L., Wang, G. and Zhang X. (2021). Comparative study on spatial digital mapping methods of soil nutrients based on different geospatial technologies. Sustainability 13: doi:10.3390/su13063270.
Garshinev, E. A. (1999). Erosion-hydrological process and forest reclamation. Volgograd, VNIALMI, pp: 196.
Gerke, J. (2022). The central role of soil organic matter in soil fertility and carbon storage. Soil Syst. 6: doi:10.3390/ soilsystems6020033.
Goydaragh, M. G., Taghizadeh-Mehrjardi, R., Jafarzadeh. A. A., Triantafilis, J. and Lado. M. (2021). Using environmental variables and Fourier Transform Infrared Spectroscopy to predict soil organic carbon. Catena 202: doi:10.1016/j.catena.2021.105280.
Guo, M. (2021). Soil health assessment and management: recent development in science and practices. Soil Syst. 5: doi:10.3390/soilsystems5040061.
Itichaa, B. and Takeleb, C. (2019). Digital soil mapping for site-specific management of soils. Geoderma 351: 85–91. doi:10.1016/j.geoderma.2019.05.026.
Ivantsova, E. A. and Vodolazko, A. N. (2018). Soil quality of agricultural lands in the dry steppe soil zone of the Volgograd region. Izvestia of the Lower Volga Agro-University Complex. 2: 150 -57.
Kalinichenko, N. P. and Zykov, I. G. (1986). Anti-erosion forest reclamation. Moscow, Agropromizdat, pp: 54–78.
Karmanov, I. I. and Bulgakov, D. S. (2007). Algorithm for assessing the productivity of soil-agroecological conditions for the cultivation of crops. Fertility 5: 37-39.
Kiryushin, V. I. (2019). Management of soil fertility and productivity of agracenoses in adaptive landscape farming systems. Dokuchaev Soil Sci. Institute J. 9: 1130-39. doi:10.1134 / S0032180X19070062.
Kiryushin, V. I. (2020). Methodology for an integrated assessment of agricultural land. Dokuchaev Soil Sci. Institute J. 7: 871-79. doi:10.31857/S0032180X20070060.
Koretskaya, Yu. V., Kolesnichenko, S. S., Trotsenko, I. A. and Popova, V. V. (2017). Gypsum application as a method for improving the melioration state of crusted solonetz. Electronic Scientific and Methodological J. Omsk State Agrarian Univ. 1: 1-5.
Kozmenko, A. S. (1954). Fundamentals of anti-erosion reclamation. Moscow, Selkhozgiz, 1954. pp. 423.
Kulik, K. N. (2020). The Role of Protective Forest Plantations in Optimizing Agricultural Land Use in the Russian Federation. In the collection: Optimization of Agricultural Land Use and Strengthening the Export Potential of the Russian Agro-Industrial Complex Based on Convergent Technologies. Volgograd, pp: 26-31.
Kulik, K. N., Rulev, A. S. and Yuferev, V. G. (2015). Geoinformation analysis of the dynamics of desertification in the Astrakhan region. Arid Ecosyst. 3: 23-32.
Kuzychenko. Yu. A. and Kobozev, A. K. (2019). Evaluation of soil tillage during long-term use of various primary tillage systems in crop rotation for the Central Ciscaucasia zone. Bulletin of the Orenburg State Agrarian Univ. 2: 10-13.
Levykin, S. V., Chibilev, A. A., Kazachkov, G. V. and Petrishchev, V.P. (2017). Application of the soil-ecological multiplicative intex in assessing the arable suitability of the southern chernozems of the Cis-Urals, taking into account economic indicators. Dokuchaev Soil Sci. Institute J. 2: 256-63. doi:10.7868 / S0032180X17020101.
Litvin, L. F., Kiryukhina, Z. P., Krasnov, S. F. and Dobrovolskaya, N. G. (2017). Geography of agricultural erosion dynamics in the European part of Russia. Soil Sci. 11: 1390–400.
Methodological Guidelines (2003). Methodological guidelines for the comprehensive monitoring of soil fertility of agricultural lands. Russian Academy of Agricultural Sciences, Moscow. pp: 240.
Mizuta, K., Grunwald, S. and Reshaping. (2022). How we think about soil security. Soil Syst. 6: doi:10.3390/ soilsystems6040074.
Novikova, A. B. (2009). Studies of saline and solonetzic soils: genesis, melioration, ecology. Selected works, Drukarnya, pp.720.
Parsaie, F., Firouzi, A. F., Mousavi, S. R., Rahmani, A., Sedri M. H. and Homaee M. (2021). Large-scale digital mapping of topsoil total nitrogen using machine learning models and associated uncertainty map. Environ. Monit. Assess. 193: doi:10.1007/s10661-021-08947-w.
Pervaiz, Z. H., Iqbal, J, Zhang, Q., Chen, D., Wei, H. and Saleem, M. (2020). Continuous cropping alters multiple biotic and abiotic indicators of soil health. Soil Syst. 4: doi:10.3390/ soilsystems4040059.
Premasudha, B. G., Panneerselvam, S. and Basavaraja, P. K. (2021). Pedometric mapping for soil fertility management – A case study. H.U. Leena J. Saudi Soc. Agric. Sci. 20: 128–35. doi:10.1016/j.jssas.2020.12.008.
Pronko, V. V., Pronko, N. A., Rukhovich, O. V., Belichenko, M. V., Romanenkov, V. A., Yaroshenko, T. M., Klimova, N. F. and Zhuravlev. D. Yu. (2020). The influence of fertilizers on the fertility of irrigated dark chestnut soils of the Volga region and the productivity of agricultural crops. Agrochemistry 6: 53-63.
Shein, E. V., Kiryushin V. I., Korchagin A. A., Maztrov M. A., Dembovetskiy A. V. and Ilyin L. I. (2017). Assessment of agronomic homogeneity and compatibility of the soil cover of the Vladimir opol'e. Dokuchaev Soil Sci. Institute J. 10: 1208-15.doi:10.7868/S0032180X 17100112.
Shitikov, N. V. and Pigorev, I. Ya. (2022). Snow retention and formation of the water regime of agricultural lands in the central black earth region of Russia. Bull. Kursk State Agric. Acad. 3: 29-46.
Surmach, G. P. (1992). Relief formation, forest-steppe development, modern erosion and anti-erosion reclamation. Volgograd, VNIALMI, pp: 174.
Vinogradov, B. V. (1998). . GEOS, Moscow. Russia. pp: 418.
Vitkovskaya. S. E. (2011). AFI, St. Petersburg, Russia. pp: 52.
Vodolazko, A. N. and Ivantsova, E. I. (2019). Grading of soils of agricultural lands, taking into account pollution by heavy metals (on the example of the Volgograd region). Izvestia KSTU 54: 20-30.
