Routing of Electric Vehicles With Intermediary Charging Stations: A Reinforcement Learning Approach

In the past few years, the importance of electric mobility has increased in response to growing concerns about climate change. However, limited cruising range and sparse charging infrastructure could restrain a massive deployment of electric vehicles (EVs). To mitigate the problem, the need for opti...

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Main Authors: Marina Dorokhova, Christophe Ballif, Nicolas Wyrsch
Format: Article
Language:English
Published: Frontiers Media S.A. 2021-05-01
Series:Frontiers in Big Data
Subjects:
Online Access:https://www.frontiersin.org/articles/10.3389/fdata.2021.586481/full
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spelling doaj-a796e342c5c64bf4a0ac58a97ad2c7252021-05-26T06:26:23ZengFrontiers Media S.A.Frontiers in Big Data2624-909X2021-05-01410.3389/fdata.2021.586481586481Routing of Electric Vehicles With Intermediary Charging Stations: A Reinforcement Learning ApproachMarina DorokhovaChristophe BallifNicolas WyrschIn the past few years, the importance of electric mobility has increased in response to growing concerns about climate change. However, limited cruising range and sparse charging infrastructure could restrain a massive deployment of electric vehicles (EVs). To mitigate the problem, the need for optimal route planning algorithms emerged. In this paper, we propose a mathematical formulation of the EV-specific routing problem in a graph-theoretical context, which incorporates the ability of EVs to recuperate energy. Furthermore, we consider a possibility to recharge on the way using intermediary charging stations. As a possible solution method, we present an off-policy model-free reinforcement learning approach that aims to generate energy feasible paths for EV from source to target. The algorithm was implemented and tested on a case study of a road network in Switzerland. The training procedure requires low computing and memory demands and is suitable for online applications. The results achieved demonstrate the algorithm’s capability to take recharging decisions and produce desired energy feasible paths.https://www.frontiersin.org/articles/10.3389/fdata.2021.586481/fullelectric vehicleenergy managementQ-learningreinforcement learningvehicle routing
collection DOAJ
language English
format Article
sources DOAJ
author Marina Dorokhova
Christophe Ballif
Nicolas Wyrsch
spellingShingle Marina Dorokhova
Christophe Ballif
Nicolas Wyrsch
Routing of Electric Vehicles With Intermediary Charging Stations: A Reinforcement Learning Approach
Frontiers in Big Data
electric vehicle
energy management
Q-learning
reinforcement learning
vehicle routing
author_facet Marina Dorokhova
Christophe Ballif
Nicolas Wyrsch
author_sort Marina Dorokhova
title Routing of Electric Vehicles With Intermediary Charging Stations: A Reinforcement Learning Approach
title_short Routing of Electric Vehicles With Intermediary Charging Stations: A Reinforcement Learning Approach
title_full Routing of Electric Vehicles With Intermediary Charging Stations: A Reinforcement Learning Approach
title_fullStr Routing of Electric Vehicles With Intermediary Charging Stations: A Reinforcement Learning Approach
title_full_unstemmed Routing of Electric Vehicles With Intermediary Charging Stations: A Reinforcement Learning Approach
title_sort routing of electric vehicles with intermediary charging stations: a reinforcement learning approach
publisher Frontiers Media S.A.
series Frontiers in Big Data
issn 2624-909X
publishDate 2021-05-01
description In the past few years, the importance of electric mobility has increased in response to growing concerns about climate change. However, limited cruising range and sparse charging infrastructure could restrain a massive deployment of electric vehicles (EVs). To mitigate the problem, the need for optimal route planning algorithms emerged. In this paper, we propose a mathematical formulation of the EV-specific routing problem in a graph-theoretical context, which incorporates the ability of EVs to recuperate energy. Furthermore, we consider a possibility to recharge on the way using intermediary charging stations. As a possible solution method, we present an off-policy model-free reinforcement learning approach that aims to generate energy feasible paths for EV from source to target. The algorithm was implemented and tested on a case study of a road network in Switzerland. The training procedure requires low computing and memory demands and is suitable for online applications. The results achieved demonstrate the algorithm’s capability to take recharging decisions and produce desired energy feasible paths.
topic electric vehicle
energy management
Q-learning
reinforcement learning
vehicle routing
url https://www.frontiersin.org/articles/10.3389/fdata.2021.586481/full
work_keys_str_mv AT marinadorokhova routingofelectricvehicleswithintermediarychargingstationsareinforcementlearningapproach
AT christopheballif routingofelectricvehicleswithintermediarychargingstationsareinforcementlearningapproach
AT nicolaswyrsch routingofelectricvehicleswithintermediarychargingstationsareinforcementlearningapproach
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