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A linear programming approach to optimise the management of water in dammed river systems for meeting demands and preventing floods

Abstract Water in sufficient quantity and quality is indispensable for multiple purposes like domestic and industrial use, irrigated agriculture, hydropower generation and ecosystem functioning. In many regions of the world, water availability is limited and even declining. Moreover, water availability is variable in space and time and often does not match with the spatio-temporal demand pattern. To overcome the temporal discrepancy between availability and consumption, reservoirs are constructed. Monitoring and predicting the water available in the reservoirs, the needs of the consumers and the losses throughout the river and water distribution system are necessary requirements to fairly allocate the available water to the different users, prevent floods and ensure sufficient water flow in the river. In this paper, this surface water allocation problem is considered a Network Flow Optimisation Problem (NFOP) solved by spatio-temporal optimisation using linear programming techniques.
- Katholieke Universiteit Leuven Belgium
- University of Copenhagen Faculty of Science Denmark
- Flemish Institute for Technological Research Belgium
- KU Leuven Belgium
- University of Copenhagen Faculty of Science Denmark
Optimization, Water Demand, Allocation, Environmental engineering, Optimal Operation of Water Resources Systems, Ocean Engineering, Environmental science, Engineering, Surface Water, Linear programming, Hydro-Economic Models, Biology, Water Supply Network, Civil and Structural Engineering, Water Science and Technology, Ecology, Design and Management of Water Distribution Networks, FOS: Environmental engineering, Agriculture, Computer science, Water resource management, Algorithm, Integrated Management of Water, Energy, and Food Resources, Water quality, Robust Decision Making, FOS: Biological sciences, Electrical engineering, Strategic Water Supply, Physical Sciences, Environmental Science, Water flow, Water Distribution Networks, Hydropower, Water use
Optimization, Water Demand, Allocation, Environmental engineering, Optimal Operation of Water Resources Systems, Ocean Engineering, Environmental science, Engineering, Surface Water, Linear programming, Hydro-Economic Models, Biology, Water Supply Network, Civil and Structural Engineering, Water Science and Technology, Ecology, Design and Management of Water Distribution Networks, FOS: Environmental engineering, Agriculture, Computer science, Water resource management, Algorithm, Integrated Management of Water, Energy, and Food Resources, Water quality, Robust Decision Making, FOS: Biological sciences, Electrical engineering, Strategic Water Supply, Physical Sciences, Environmental Science, Water flow, Water Distribution Networks, Hydropower, Water use
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