Simulation of physical processes and environmental monitoring at training and research stands

Abstract

In this article, we also consider the results of studying the problems and prospects for the use of educational and research stands of the Department of Hydropower and Hydraulics and information technologies to provide modelling of physical processes and environmental monitoring. This will improve the methodology for the education of energy engineers to implement the program of measures for the further development of energy and renewable energy in Uzbekistan. As an example of such an approach, we can consider as one interconnected System that combines the results of work: Examples of methods for creating a virtual stand based on digital maps for information support of environmental monitoring of hydraulic structures; An example of an experimental stand for research on the operation of structures made of reinforced soil; Examples of stands for the study of hydraulic processes - an example of the development of instruments for hydrometric support. Experimental stands are given. Methods for creating hydrostatic pressure and own weight of the dam. Conclusions and recommendations based on the results of experimental research on educational research stands.

Calculation of Total Erosion in the Lower Reaches of Mezhdurechensk Reservoir Using Empirical Morphometric Dependencies

“…The research used materials from the department of riverbeds of the Central Asian Research Institute of Irrigation (Research Institute of Water Problems and Irrigation) [1,15,22] and the Department of "Water Energy Use and Pumping Stations" of the National Research University of "Tashkent Institute of Irrigation and Agricultural Mechanization Engineers" [4,15,26]. The Department of "Water Energy Use and Pumping Stations" conducts research in the field of hydraulic engineering and hydropower [27,28,29], as well as hydraulics, hydrology, and riverbed processes.…”

“…When calculating the total erosion below the Mezhdurechensk reservoir, we used an improved method for calculating channel deformations in the lower reaches of the GTS, which takes into account several specific features inherent in the Amu Darya River [1,15].…”

“…In the lower reaches of rivers, where the slopes are relatively smaller, siltation will be the predominant type of channel process. The riverbed process is especially intense on rivers composed of easily eroded soils [14,15]. These types of rivers include the Amu Darya River [16,17,18].…”