Anatomy of electric vehicle fast charging: Peak shaving through a battery energy storage—A case study from Oslo

Abstract The number of electric vehicle (EV) users is strongly increasing so that today roughly every second registered vehicle in Norway is an EV. To increase the EV utilization, politics, industry and the EV users strongly promote the integration of fast charging infrastructure. While the future d...

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Main Authors: Antti Rautiainen, Kalle Rauma, Lena Rohde, Antti Supponen, Fabian Raulf, Christian Rehtanz, Pertti Järventausta
Format: Article
Language:English
Published: Wiley 2021-03-01
Series:IET Electrical Systems in Transportation
Online Access:https://doi.org/10.1049/els2.12005
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author Antti Rautiainen
Kalle Rauma
Lena Rohde
Antti Supponen
Fabian Raulf
Christian Rehtanz
Pertti Järventausta
author_facet Antti Rautiainen
Kalle Rauma
Lena Rohde
Antti Supponen
Fabian Raulf
Christian Rehtanz
Pertti Järventausta
author_sort Antti Rautiainen
collection DOAJ
description Abstract The number of electric vehicle (EV) users is strongly increasing so that today roughly every second registered vehicle in Norway is an EV. To increase the EV utilization, politics, industry and the EV users strongly promote the integration of fast charging infrastructure. While the future demand of fast charging sites is a well‐studied topic, not much is known about the utilization of the existing charging sites and daily load curves. To fill this knowledge gap, usage data of a charging site in Oslo is analysed. Further on, the impact of a battery energy storage (BES) as well as a photovoltaic generator on peak load reduction is studied. The analysis shows variations and trends in the daily and weekly charging behaviour depending on the degree of utilization of the charging station. On average, a single EV user charges around 10 kWh in 19 min. Furthermore, the evidence indicates that EV users may have adapted fast charging as a part of their daily travels and it is not used only during long distance journeys. The results suggest that a BES can reduce the peak load by up to 55%. By adding a photovoltaic generator, a minor additional reduction of peak load is seen.
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institution Kabale University
issn 2042-9738
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language English
publishDate 2021-03-01
publisher Wiley
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series IET Electrical Systems in Transportation
spelling doaj-art-dd991a38c99546ed8e4639f81782c1582025-02-03T06:47:28ZengWileyIET Electrical Systems in Transportation2042-97382042-97462021-03-01111698010.1049/els2.12005Anatomy of electric vehicle fast charging: Peak shaving through a battery energy storage—A case study from OsloAntti Rautiainen0Kalle Rauma1Lena Rohde2Antti Supponen3Fabian Raulf4Christian Rehtanz5Pertti Järventausta6Unit of Electrical Engineering Tampere University Tampere FinlandInstitute of Energy Systems, Energy Efficiency and Energy Economics TU Dortmund University Dortmund GermanyInstitute of Energy Systems, Energy Efficiency and Energy Economics TU Dortmund University Dortmund GermanyUnit of Electrical Engineering Tampere University Tampere FinlandInstitute of Energy Systems, Energy Efficiency and Energy Economics TU Dortmund University Dortmund GermanyInstitute of Energy Systems, Energy Efficiency and Energy Economics TU Dortmund University Dortmund GermanyUnit of Electrical Engineering Tampere University Tampere FinlandAbstract The number of electric vehicle (EV) users is strongly increasing so that today roughly every second registered vehicle in Norway is an EV. To increase the EV utilization, politics, industry and the EV users strongly promote the integration of fast charging infrastructure. While the future demand of fast charging sites is a well‐studied topic, not much is known about the utilization of the existing charging sites and daily load curves. To fill this knowledge gap, usage data of a charging site in Oslo is analysed. Further on, the impact of a battery energy storage (BES) as well as a photovoltaic generator on peak load reduction is studied. The analysis shows variations and trends in the daily and weekly charging behaviour depending on the degree of utilization of the charging station. On average, a single EV user charges around 10 kWh in 19 min. Furthermore, the evidence indicates that EV users may have adapted fast charging as a part of their daily travels and it is not used only during long distance journeys. The results suggest that a BES can reduce the peak load by up to 55%. By adding a photovoltaic generator, a minor additional reduction of peak load is seen.https://doi.org/10.1049/els2.12005
spellingShingle Antti Rautiainen
Kalle Rauma
Lena Rohde
Antti Supponen
Fabian Raulf
Christian Rehtanz
Pertti Järventausta
Anatomy of electric vehicle fast charging: Peak shaving through a battery energy storage—A case study from Oslo
IET Electrical Systems in Transportation
title Anatomy of electric vehicle fast charging: Peak shaving through a battery energy storage—A case study from Oslo
title_full Anatomy of electric vehicle fast charging: Peak shaving through a battery energy storage—A case study from Oslo
title_fullStr Anatomy of electric vehicle fast charging: Peak shaving through a battery energy storage—A case study from Oslo
title_full_unstemmed Anatomy of electric vehicle fast charging: Peak shaving through a battery energy storage—A case study from Oslo
title_short Anatomy of electric vehicle fast charging: Peak shaving through a battery energy storage—A case study from Oslo
title_sort anatomy of electric vehicle fast charging peak shaving through a battery energy storage a case study from oslo
url https://doi.org/10.1049/els2.12005
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