Optimal Operation of Distribution Networks Considering Renewable Energy Sources Integration and Demand Side Response

This paper demonstrates the effectiveness of Demand Side Response (DSR) with renewable integration by solving the stochastic optimal operation problem (OOP) in the IEEE 118-bus distribution system over 24 h. An Improved Walrus Optimization Algorithm (I-WaOA) is proposed to minimize costs, reduce vol...

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Veröffentlicht in:Sustainability 2023-12, Vol.15 (24), p.16707
Hauptverfasser: Hachemi, Ahmed T, Sadaoui, Fares, Saim, Abdelhakim, Ebeed, Mohamed, Abbou, Hossam E. A, Arif, Salem
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container_issue 24
container_start_page 16707
container_title Sustainability
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creator Hachemi, Ahmed T
Sadaoui, Fares
Saim, Abdelhakim
Ebeed, Mohamed
Abbou, Hossam E. A
Arif, Salem
description This paper demonstrates the effectiveness of Demand Side Response (DSR) with renewable integration by solving the stochastic optimal operation problem (OOP) in the IEEE 118-bus distribution system over 24 h. An Improved Walrus Optimization Algorithm (I-WaOA) is proposed to minimize costs, reduce voltage deviations, and enhance stability under uncertain loads, generation, and pricing. The proposed I-WaOA utilizes three strategies: the fitness-distance balance method, quasi-opposite-based learning, and Cauchy mutation. The I-WaOA optimally locates and sizes photovoltaic (PV) ratings and wind turbine (WT) capacities and determines the optimal power factor of WT with DSR. Using Monte Carlo simulations (MCS) and probability density functions (PDF), the uncertainties in renewable energy generation, load demand, and energy costs are represented. The results show that the proposed I-WaOA approach can significantly reduce costs, improve voltage stability, and mitigate voltage deviations. The total annual costs are reduced by 91%, from 3.8377 × 107 USD to 3.4737 × 106 USD. Voltage deviations are decreased by 63%, from 98.6633 per unit (p.u.) to 36.0990 p.u., and the system stability index is increased by 11%, from 2.444 × 103 p.u. to 2.7245 × 103 p.u., when contrasted with traditional methods.
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subjects Alternative energy sources
Control algorithms
Electric power
Energy consumption
Energy industry
Energy resources
Energy storage
Engineering Sciences
Green technology
Load
Optimization algorithms
Optimization techniques
Renewable resources
Solar energy
title Optimal Operation of Distribution Networks Considering Renewable Energy Sources Integration and Demand Side Response
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