GULLY MODELING FOR FOREST RECLAMATION PURPOSES
- Land Reclamation, Recultivation, and Land Protection
Purpose: to study the performance of hydraulic structures of engineering protection of the Lower Kuban, based on the technical condition assessment using non-destructive gauges.
Materials and methods. The studies were carried out on various structures, taking into account the conditions for the formation of environment improving potential in the territory of southern Russia, using the example of Krasnodar Territory. Field studies and field tests were carried out according to the methods of Kuban State Agrarian University. The studies of the engineering protection system using a complex of non-destructive gauges which made it possible to get the most complete and accurate information about a spatial object, have been carried out, the physical-mechanical and filtration properties of soils were determined in individual reference sections by traditional methods.
Results. It has been determined that on engineering protection embankments, the filtration properties of composed ground depend on the degree of their compaction, the composition of bulk soils and the formation of drying cracks. The survey with non-destructive gauges was carried out using a georadar. The steel reinforcement by the hodographs of high-amplitude refracted waves was determined. The dimensions of the cracks by the violation of the amplitude reflection tracking were determined. When carrying out electrical exploration work on an earth low-pressure levee, the method of vertical electrical sounding was used. As a result of data processing and interpretation, the geoelectric sections of specific soil resistance were obtained.
Conclusions. The main reasons for the flood damage increase are socio-economic reasons, manifested in the active and at the same time irrational use of flood-prone areas. Results of the study confirm the effectiveness, productivity and information value of applicable geophysical methods at relatively low cost.
doi: 10.31774/2712-9357-2022-12-4-317-332
floods, levee synodic, low-pressure earth dam, climate change, irrigation water deficit
Prikhodko I. A., Bandurin M. A., Volosukhin V. A., Rudenko A. A. Critical analysis of the engineering protection of the Lower Kuban under the conditions of ir-rigation water increasing shortage due to climate change. Land Reclamation and Hydraulic Engineering. 2022;12(4):317–332. (In Russ.). https://doi.org/10.31774/2712-9357-2022-12-4-317-332.
1. Shchedrin V.N., Kosichenko Yu.M., 2011. O problemakh bezopasnosti gidrotekhnicheskikh sooruzheniy meliorativnogo naznacheniya [On the safety problems of hydraulic structures for reclamation purposes]. Gidrotekhnicheskoe stroitel'stvo [Hydrotechnical Construction], no. 5, pp. 33-38. (In Russian).
2. Yurchenko I.F., 2022. Bezopasnost' avtomatizirovannykh tekhnologiy regulirovaniya meliorativnogo rezhima agroekosistemy [Safety of automated technologies for regulating the reclamation regime of the agroecosystem]. Inzhenernye tekhnologii i sistemy [Engineering Technologies and Systems], vol. 32, no. 1, pp. 28-40, DOI: 10.15507/2658-4123.032.202201.028-040. (In Russian).
3. Senchukov G.A., Kapustyan A.S., KosichenkoYu.M., 2011. [Safety status and security features of hydraulic structures for land reclamation appointments]. Nauchnyy zhurnal Rossiyskogo NII problem melioratsii, no. 3(3), 6 p., available: http:www.rosniipm-sm.ru/article?n=459 [assessed 01.08.2022]. (In Russian).
4. Kosichenko Yu.M., Baev O.A., 2021. Osobennosti gidravlicheskikh i fil'tratsionnykh raschetov osushitel'no-orositel'noy sistemy [Features of hydraulic and filtration calculations of the drainage and irrigation system]. Prirodoobustroystvo [Nature Engineering], no. 4, pp. 90-98, DOI: 10.26897/1997-6011-2021-4-90-98. (In Russian).
5. Baev O., Kosichenko Yu., Silchenko V., 2022. Effect of subsoil moisture on filtration through a screen defect. Magazine of Civil Engineering, no. 3(111), 11109, DOI: 10.34910/MCE.111.9.
6. Kosichenko Yu.M., Baklanova D.V., 2012. [Determination of the probable emergency risk of large-scale canal due to the seepage deformations]. Nauchnyy zhurnal Rossiyskogo NII problem melioratsii, no. 1(5), pp. 145-156, available: http:www.rosniipm-sm.ru/article?n=561 [assessed 01.08.2022]. (In Russian).
7. Abdrazakov F.K., Lazareva A.A., 2012. Narushenie nadezhnosti raboty oblitsovannykh orositelnykh kanalov [Violation of reliability of the revetted irrigation canals]. Vestnik Kyrgyzsko-Rossiyskogo slavyanskogo universiteta [Bulletin of Kyrgyz-Russian Slavic University], vol. 12, no. 6, pp. 52-54. (In Russian).
8. Bandurin M.A., 2013. [Improving the methods of carrying out operational monitoring and determining the residual resource of water supply facilities]. Nauchnyy zhurnal Rossiyskogo NII problem melioratsii, no. 1(09), pp. 68-79, available: http:www.rosniipm-sm.ru/article?n=625 [assessed 01.08.2022]. (In Russian).
9. Volosukhin V.A., Bandurin M.A., Vanzha V.V., Mikheev A.V., Volosukhin Y.V., 2018. Numerical analysis of static strength for different damages of hydraulic structures when changing stressed and strained state. Journal of Physics: Conference Series, vol. 1015, iss. 3, 032146, DOI: 10.1088/1742-6596/1015/3/032146.
10. Yurchenko I.F., 2018. Information support system designed for technical operation planning of reclamative facilities. Journal of Theoretical and Applied Information Technology, vol. 96, no. 5, pp. 1253-1265.
11. Chesnokov B.P., Abdrazakov F.K., Naumova O.V., Krivoschapov D.S., Strelnikov V.A., 2017. The use of ionizing radiation for the tungsten preparation. J. of Industrial Pollution Control, 33(1), pp. 809-815.
12. Ashour E.H., Elsayed S.M., Ahemd S.E., Basiouny M.E., Abdelhaleem F.S., 2021. Integrating geographic information system, remote sensing, and modeling to enhance reliability of irrigation network. Water and Energy International, vol. 64r, no. 1, pp. 6-13.
13. Zhuravleva L.A., Fedyunina T.V., Evsyukova L.Yu., Rusinov A.V., Kolganov D.A., Pototskaya L.N., 2020. Features of investing in reconstruction of reclamation objects by the example of irrigation systems of the Saratov region. Revista Turismo Estudos & Práticas, no. S4, p. 19.
14. Tishchenko A.I., 2019. [Calculation of fastening plates in tailwater pool of land reclamation hydrotechnical structures for increasing their operational reliability]. Nauchnyy zhurnal Rossiyskogo NII problem melioratsii, no. 2(34), pp. 165-184, available: http:www.rosniipm-sm.ru/article?n=977 [assessed 01.08.2022], DOI: 10.31774/2222-1816-2019-2-165-184. (In Russian).
15. Degtyareva O.G., Degtyarev G.V., Lavrov N.P., Aliev D.U., 2018. Constructive-technological decisions in regulating the flow of atmospheric precipitation. Magazine of Civil Engineering, no. 6(82), pp. 32-48, DOI: 10.18720/MCE.82.4.
16. Beglyarov D.S., Sukharev Yu.I., Ali M.S., Nazarkin E.E., 2021. Osobennosti raboty nasosnykh stantsiy na zakrytykh orositel'nykh sistemakh [Features of operation of pumping stations on closed irrigation systems]. Nauchnaya zhizn’ [Scientific Life], vol. 16, no. 5(117), pp. 538-553. (In Russian).
17. Fishman R.M., Lall U., Siegfried T., Raj P., Modi V., 2011. Over-extraction from shallow bedrock versus deep alluvial aquifers: reliability versus sustainability considerations for India's groundwater irrigation. Water Resources Research, vol. 47, no. 12, W00L05, https:doi.org/10.1029/2011WR010617.
18. Sultanov K.S., Khusanov B., Loginov P.V., Normatov Sh., 2020. Method for assessing the reliability of earth dams in irrigation systems. Construction of Unique Buildings and Structures, no. 4(89), 8901, DOI: 10.18720/CUBS.89.1.