Methodology for calculating the consequences of breakthroughs (destruction) of hydraulic structures of critical infrastructure

Keywords: emergency situation, man-made disaster, natural disaster, man-made danger, hydrotechnical structure, hydrodynamic accident, critical infrastructure objects, use of defense forces

Abstract

Purpose: to improve the method of forecasting the consequences of emergency situations at hydrotechnical structures of a terrorist nature.

Method: the main methods of research are methods of: analysis and synthesis

Theoretical implications:8 dangerous factors that arise as a result of the destruction (damage) of hydraulic units and can cause losses and affect the performance of a combat mission have been identified.

Practical implications: The proposed technique is of significant importance for the theory of civil protection and can be used not only for calculations when forecasting the scale and volume of the negative impact of the consequences of the destruction of hydrotechnical structures, but also for conducting further scientific research.

Value: the developed method takes into account the decrease in the patency of the area, the heterogeneity of the density of the built-up area in the urbanized area and the population density of the emergency situations within the flood zones

Papertype: practical.

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References

The government portal Denys Shmyhal called on international partners to put pressure on Russia to restore the hydraulic facilities of the Kakhovskaya HPP. URL: https://www.kmu.gov.ua/news/.

Stefanyshyn D. V. (2023). Experience and prospects of probabilistic reliability and safety analysis of hydrotechnical structures of hydroelectric power plants and gas power plants. Bulletin of the National University of Water Management and Nature Management. 2013. Issue 2(62). P. 108–122.

Localization and liquidation of emergency situations at hydrotechnical structures: training. manual / O.Y. Matsko, Y.N. Ubaidulaev, V.V. Barbashyn, I.O. Tolkunov. Kharkiv: NUTZU, 2012. 112 p.

Murasov, R., & Tertyshnyy, B. (2022). Method of calculating the consequences of breaking (destruction) of hydrotechnical structures of critical infrastructure. Social Development and Security, 12(6), 140-152. https://doi.org/10.33445/sds.2022.12.6.12

Murasov R., Nikitin A., Meshcheryakov I., Pidhorodetskyi M., Poplavets S. Methodology for assessing threats and risks for critical infrastructure objects according to scenarios of the development of emergency situations. Modern Information Technologies in the Sphere of Security and Defense. 2023. No. 3(48). P. 35–43.

Proshchyn, І. (2023). Аnalysis of factors and physical and geographical conditions that influence the causes of accidents at hydrotechnical structures. Social Development and Security, 13(3), 196-205. https://doi.org/10.33445/sds.2023.13.3.13

Proshchyn I. V., V.I. Kotsyuruba, D. V. Mykhaylovskyi. Modeling of flooding of the area as a result of the destruction of hydraulic structures. 2023. Resistance of materials and theory of structures: science and technology collection. Kyiv: KNUBA. Vol. 111. P. 87-101.

Proshchyn I. V., Kotsyruba V. I. An improved method of determining the parameters of the movement of the breakthrough wave and flooding during the destruction of hydrotechnical structures: Scientific journal Modern information technologies in the field of security and defense. 2024. Volume 49. No. 1. P. 69–77.

Zheleznyak M., Kivva S., Pylypenko O., Sorokin M. Modeling of Behavior of Fukushima-Derived Radionuclides in Freshwater Systems. Behavior of Radionuclides in the Environment III. Springer, Singapore. 2022, R. 199–252.

Sorokin, M.V. Parallelization of numerical solutions of shallow water equations using the finite volume method for implementation on multiprocessor systems graphics processors. Ecological safety and environmental management, 2023. No. 46(2). P. 163–193.

Hydrologic Engineering Center. HEC-RAS 2D Modeling User's Manual, U.S. Army Corps of Engineers, Davis CA., April 2021.

Boyko V.M., Yevdin E.O., Zheleznyak M.Y., Kolomiets P.S., Ishchuk O.O. (2012). Peculiarities of the formation of the spring flow of the Dnipro and modeling of flooding zones within the city of Kyiv based on a modern hydrologic-hydraulic model. Hydrology, Hydrochemistry, Hydroecology. No. 1(26). P. 55–63.

Zheleznyak M.J., Demchenko R.I., Khursin S.L., Kuzmenko Y.I., Tkalich P.V, Vitiuk N.Y. (1992). Mathematical modeling of radionuclide dispersion in the Pripyat-Dnieper aquatic system after the Chernobyl accident. Science of the Total Environment. 1992. No. 112(1) P. 89–114.

Zheleznyak M., Dykyi R., Kivva S., Pylypenko O., Sorokin M., Aoyama M., Tsumune D. Modeling of Cs-137 transport in the nearshore zone of Fukushima-Daiichi NPP under the combined action of waves, currents and fluxes of sediments // EGU General Assembly Conference Abstracts. 2018/4.


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Published
2024-12-31
How to Cite
Kotsyuruba, V., & ProshchynІ. (2024). Methodology for calculating the consequences of breakthroughs (destruction) of hydraulic structures of critical infrastructure. Social Development and Security, 14(6), 127-137. https://doi.org/10.33445/sds.2024.14.6.13
Section
Civil Security