Multi-Objective Hydrothermal Generation Scheduling and Fuel Dispatch Management considering Liquid Fuel Dispatch Network Modeling

•A unified management of hydrothermal generation scheduling and fuelling dispatch is presented.•A detail fueling network modeling for storable and transportable fuel is demonstrated.•The proposed model is given with considering the fuel market in a day-ahead market framework.•A novel objective funct...

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Veröffentlicht in:Electric power systems research 2020-10, Vol.187, p.106436, Article 106436
Hauptverfasser: Lasemi, Mohammad Ali, Assili, Mohsen, Hajizadeh, Amin
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Sprache:eng
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Zusammenfassung:•A unified management of hydrothermal generation scheduling and fuelling dispatch is presented.•A detail fueling network modeling for storable and transportable fuel is demonstrated.•The proposed model is given with considering the fuel market in a day-ahead market framework.•A novel objective function is presented to reduce the losses of VPF.•Thermal PP-MFO considering VPE and cascaded hydro units have been incorporated into the OPF framework. Nowadays, to achieve sustainability and reliability in the electrical energy production sector, the utilization of flexible technologies, such as the power plants with multiple fuel options, and proper management of hydropower resources are substantial. In this paper, integrated scheduling for fuel dispatching and the generation planning of the power system comprising multi-fuel-fired thermal power plants and hydro units is presented considering a competitive environment of the fuel market. The main focus of this study is on the supply management of the primary energy sources including storable fuel and water resources for the generation of electrical power. The proposed model is given as a multi-objective optimization problem with different objective functions such as fuel consumption cost, fuel transportation cost, penalty cost of hydropower station disposable water, and valve point effect losses. The fuelling network limitations, including natural gas network as well as liquid fuel dispatch network constraints, and power system limitations, including power transmission and power generation constraints, are considered in the proposed model with the aim of achieving appropriate planning for simultaneous fuel dispatching and power generation scheduling. The problem is solved by the augmented e-constraint method and then an analytical hierarchy process technique is employed to select the best possible solution. Finally, the proposed algorithm is performed on the two test systems including the modified IEEE 30-bus system and IEEE 118-bus system integrated with a gas network and a fuelling network for liquid fuel. The obtained results demonstrate the effectiveness and benefits of the proposed scheme. [Display omitted]
ISSN:0378-7796
1873-2046
DOI:10.1016/j.epsr.2020.106436