Mixed‐integer stochastic evaluation of battery energy storage system integration strategies in distribution systems

Abstract This paper presents a new approach to the problem of defining an investment policy in battery energy storage systems in active distribution networks, taking into account a diversity of uncertainties. The proposed methodology allows the selection of type, capacity, and location of battery en...

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Main Authors: Camilo Alberto Sepúlveda Rangel, Luciane Neves Canha, Mauricio Sperandio, Vladimiro Miranda
Format: Article
Language:English
Published: Wiley 2022-02-01
Series:IET Generation, Transmission & Distribution
Online Access:https://doi.org/10.1049/gtd2.12316
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author Camilo Alberto Sepúlveda Rangel
Luciane Neves Canha
Mauricio Sperandio
Vladimiro Miranda
author_facet Camilo Alberto Sepúlveda Rangel
Luciane Neves Canha
Mauricio Sperandio
Vladimiro Miranda
author_sort Camilo Alberto Sepúlveda Rangel
collection DOAJ
description Abstract This paper presents a new approach to the problem of defining an investment policy in battery energy storage systems in active distribution networks, taking into account a diversity of uncertainties. The proposed methodology allows the selection of type, capacity, and location of battery energy storage systems in distribution networks with distributed generation and electric vehicle charging stations. A mixed‐integer stochastic programming problem is cunningly approached with a metaheuristic, where fitness calculation with stochastic scenarios is performed by introducing an approximation to the operation costs in the form of a polynomial neural network, generated according to the Group Method of Data Handling—GMDH method, with strong computing speeding‐up. The quality of this approximation for heavy Monte Carlo simulations is assessed in a first case study using a 33‐bus distribution test system. The optimization planning model is then validated in the same test system using real data collected from solar and wind sources, demand, prices, and charging stations. Four types of batteries are compared considering degradation impact. The results demonstrate the practicality and advantages of this process.
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spelling doaj.art-c0791765c5a64586b6e4becea6999a792022-12-22T04:14:57ZengWileyIET Generation, Transmission & Distribution1751-86871751-86952022-02-0116464165510.1049/gtd2.12316Mixed‐integer stochastic evaluation of battery energy storage system integration strategies in distribution systemsCamilo Alberto Sepúlveda Rangel0Luciane Neves Canha1Mauricio Sperandio2Vladimiro Miranda3Department of Electrical Engineer Federal University of Santa Maria Rodovia BR 287 1000 Santa Maria Rio Grande do Sul BrazilDepartment of Electrical Engineer Federal University of Santa Maria Rodovia BR 287 1000 Santa Maria Rio Grande do Sul BrazilDepartment of Electrical Engineer Federal University of Santa Maria Rodovia BR 287 1000 Santa Maria Rio Grande do Sul BrazilFEUP – Faculty of Engineering of the University of Porto and INESC TEC ‐ Institute for Systems and Computer Engineering, Technology and Science Portugal, R. Dr. Roberto Frias Porto PortugalAbstract This paper presents a new approach to the problem of defining an investment policy in battery energy storage systems in active distribution networks, taking into account a diversity of uncertainties. The proposed methodology allows the selection of type, capacity, and location of battery energy storage systems in distribution networks with distributed generation and electric vehicle charging stations. A mixed‐integer stochastic programming problem is cunningly approached with a metaheuristic, where fitness calculation with stochastic scenarios is performed by introducing an approximation to the operation costs in the form of a polynomial neural network, generated according to the Group Method of Data Handling—GMDH method, with strong computing speeding‐up. The quality of this approximation for heavy Monte Carlo simulations is assessed in a first case study using a 33‐bus distribution test system. The optimization planning model is then validated in the same test system using real data collected from solar and wind sources, demand, prices, and charging stations. Four types of batteries are compared considering degradation impact. The results demonstrate the practicality and advantages of this process.https://doi.org/10.1049/gtd2.12316
spellingShingle Camilo Alberto Sepúlveda Rangel
Luciane Neves Canha
Mauricio Sperandio
Vladimiro Miranda
Mixed‐integer stochastic evaluation of battery energy storage system integration strategies in distribution systems
IET Generation, Transmission & Distribution
title Mixed‐integer stochastic evaluation of battery energy storage system integration strategies in distribution systems
title_full Mixed‐integer stochastic evaluation of battery energy storage system integration strategies in distribution systems
title_fullStr Mixed‐integer stochastic evaluation of battery energy storage system integration strategies in distribution systems
title_full_unstemmed Mixed‐integer stochastic evaluation of battery energy storage system integration strategies in distribution systems
title_short Mixed‐integer stochastic evaluation of battery energy storage system integration strategies in distribution systems
title_sort mixed integer stochastic evaluation of battery energy storage system integration strategies in distribution systems
url https://doi.org/10.1049/gtd2.12316
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AT mauriciosperandio mixedintegerstochasticevaluationofbatteryenergystoragesystemintegrationstrategiesindistributionsystems
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