A dispatching strategy for electric vehicle aggregator combined price and incentive demand response

Abstract Electric vehicles (EVs) have excellent demand response potential, but a single type of demand response is difficult to fully utilise the dispatching potential of EVs. To improve the utilisation of the demand response potential of EVs, this study proposes two kinds of dispatching strategies...

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Autores principales: Hui Hou, Yifan Wang, Changjun Xie, Binyu Xiong, Qingyong Zhang, Liang Huang
Formato: article
Lenguaje:EN
Publicado: Wiley 2021
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Acceso en línea:https://doaj.org/article/5fe5fba191dc41faa5a24093068065d8
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spelling oai:doaj.org-article:5fe5fba191dc41faa5a24093068065d82021-11-11T13:07:33ZA dispatching strategy for electric vehicle aggregator combined price and incentive demand response2516-840110.1049/esi2.12042https://doaj.org/article/5fe5fba191dc41faa5a24093068065d82021-12-01T00:00:00Zhttps://doi.org/10.1049/esi2.12042https://doaj.org/toc/2516-8401Abstract Electric vehicles (EVs) have excellent demand response potential, but a single type of demand response is difficult to fully utilise the dispatching potential of EVs. To improve the utilisation of the demand response potential of EVs, this study proposes two kinds of dispatching strategies for electric vehicle aggregator (EVA) combined price‐based and incentive‐based demand response: long‐term contract strategy and short‐term contract strategy. The difference of the two strategies depends on the length of time for EV users to sign incentive agreements with EVA. The long‐term contract strategy assumes that some EV users sign a long‐term incentive agreement with the EVA. The short‐term contract strategy takes an EV charging process as the dispatching cycle. The objective of maximising revenues and minimising load fluctuation of EVA is optimised in two strategies. An improved multi‐objective particle swarm optimisation algorithm that combines region selection strategy and grouping strategy is used to solve the problem. The simulation results show that the two dispatching strategies can improve the comprehensive benefits of EVA as well as EV users. The two dispatching strategies can effectively improve the utilisation of dispatching potential of EVs.Hui HouYifan WangChangjun XieBinyu XiongQingyong ZhangLiang HuangWileyarticledemand responseelectric vehicle (EV)electric vehicle aggregator (EVA)long‐term contractshort‐term contractProduction of electric energy or power. Powerplants. Central stationsTK1001-1841Energy industries. Energy policy. Fuel tradeHD9502-9502.5ENIET Energy Systems Integration, Vol 3, Iss 4, Pp 508-519 (2021)
institution DOAJ
collection DOAJ
language EN
topic demand response
electric vehicle (EV)
electric vehicle aggregator (EVA)
long‐term contract
short‐term contract
Production of electric energy or power. Powerplants. Central stations
TK1001-1841
Energy industries. Energy policy. Fuel trade
HD9502-9502.5
spellingShingle demand response
electric vehicle (EV)
electric vehicle aggregator (EVA)
long‐term contract
short‐term contract
Production of electric energy or power. Powerplants. Central stations
TK1001-1841
Energy industries. Energy policy. Fuel trade
HD9502-9502.5
Hui Hou
Yifan Wang
Changjun Xie
Binyu Xiong
Qingyong Zhang
Liang Huang
A dispatching strategy for electric vehicle aggregator combined price and incentive demand response
description Abstract Electric vehicles (EVs) have excellent demand response potential, but a single type of demand response is difficult to fully utilise the dispatching potential of EVs. To improve the utilisation of the demand response potential of EVs, this study proposes two kinds of dispatching strategies for electric vehicle aggregator (EVA) combined price‐based and incentive‐based demand response: long‐term contract strategy and short‐term contract strategy. The difference of the two strategies depends on the length of time for EV users to sign incentive agreements with EVA. The long‐term contract strategy assumes that some EV users sign a long‐term incentive agreement with the EVA. The short‐term contract strategy takes an EV charging process as the dispatching cycle. The objective of maximising revenues and minimising load fluctuation of EVA is optimised in two strategies. An improved multi‐objective particle swarm optimisation algorithm that combines region selection strategy and grouping strategy is used to solve the problem. The simulation results show that the two dispatching strategies can improve the comprehensive benefits of EVA as well as EV users. The two dispatching strategies can effectively improve the utilisation of dispatching potential of EVs.
format article
author Hui Hou
Yifan Wang
Changjun Xie
Binyu Xiong
Qingyong Zhang
Liang Huang
author_facet Hui Hou
Yifan Wang
Changjun Xie
Binyu Xiong
Qingyong Zhang
Liang Huang
author_sort Hui Hou
title A dispatching strategy for electric vehicle aggregator combined price and incentive demand response
title_short A dispatching strategy for electric vehicle aggregator combined price and incentive demand response
title_full A dispatching strategy for electric vehicle aggregator combined price and incentive demand response
title_fullStr A dispatching strategy for electric vehicle aggregator combined price and incentive demand response
title_full_unstemmed A dispatching strategy for electric vehicle aggregator combined price and incentive demand response
title_sort dispatching strategy for electric vehicle aggregator combined price and incentive demand response
publisher Wiley
publishDate 2021
url https://doaj.org/article/5fe5fba191dc41faa5a24093068065d8
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