Multi-Objective Dispatch of the Power System with Large-Scale Wind Power and Cascade Hydropower


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Abstract


This paper presents a multi-objective dispatch model of the power system with large-scale wind farms and cascade hydropower stations. Besides the objective of economic dispatch, considering the system operators’ requirement that the deviation of the daily actual thermal power generation from scheduled generation should be as small as possible, a new objective to minimize this deviation is very essential. Therefore, this paper formulates a multi-objective model that aims at minimizing both the total generation cost and daily deviation of thermal power generations, and achieves the maximum consumption of wind power by rationally arranging the operation of cascade hydropower stations. This model takes into account of the capacity constraint of transmission lines, operation constraints of cascade hydropower stations, constraint of boundary flows, and contract generation constraint on tie-lines. This model has a good accordance with the practical operation of the power system operation, and the security and reliability of the power system can be improved. The effectiveness of the proposed model has been verified on the IEEE-RTS 24 system
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Keywords


Multi-Objective Dispatch; Cascade Hydropower Stations; Wind Farm; Contract Generation; Boundary Flows

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References


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