Please use this identifier to cite or link to this item: https://elibrary.tucl.edu.np/handle/123456789/20900
Title: Integrated Planning and Simulation of Multipurpose Reservoir Operation for Basin-Wide Energy Maximization: Exploring the Case of Kaligandaki River Basin in Nepal
Authors: Shrestha, Anusha
Keywords: Reservoir Simulation,;HEC-ResSim,;Rule Curve,
Issue Date: Oct-2023
Publisher: I.O.E. Pulchowk Campus
Institute Name: Institute of Engineering
Level: Masters
Abstract: The Kaligandaki River, a significant tributary in Nepal, is central to various proposed projects for reservoirs and inter-basin transfers, primarily aimed for hydropower generation. These projects have been planned and studied separately without observing the impact of individual projects on each other. To achieve efficient reservoir operation, it is crucial to incorporate key elements such as water resource management, hydropower considerations, and the integration of reservoir projects, supported by simulation techniques. This research undertakes to achieve shared benefits regarding the relationship of the three reservoir projects i.e. Kaligandaki Storage Hydroelectric Project, Adhikhola Storage Hydroelectric Project, Lower Badigad Storage Hydroelectric Project and an inter-basin transfer project i.e. Kaligandaki Diversion Multipurpose Project lying in the study area. HEC-ResSim software has been employed to simulate hydropower under different project development scenarios. The simulation model was applied to operate reservoirs as per the rule curve taken. For each of the three reservoir projects, proposed reservoir operation rule curve assures the maximum annual average energy and the dry energy productions with the best reservoir performance indicators. The integrated operation of these projects aims to maximize energy generation and fulfill the diversion requirements of the Kaligandaki Diversion Multipurpose Project
Description: The system of three planned reservoirs and an inter-basin transfer project of the Kaligandaki River basin has the ability to produce a dry firm power of 466.8 MW. The system has the capacity to produce an average total annual energy output of 8752 GWh per year, along with a dry energy output of 3322.4 GWh/year, by maintaining a constant diversion rate of 82�3/� through the Kaligandaki diversion throughout the year. Results show that undertaking these projects entirely will produce higher benefits in terms of energy generation than planning these projects independently
URI: https://elibrary.tucl.edu.np/handle/123456789/20900
Appears in Collections:Mechanical and Aerospace Engineering



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