Evaluating The Potential Of Future E-Mobility Use Cases For Providing Grid Ancillary Services

Research output: Chapter in Book/Report/Conference proceedingConference contribution

Standard

Evaluating The Potential Of Future E-Mobility Use Cases For Providing Grid Ancillary Services. / Thormann, Bernd; Purgstaller, Wilfried; Kienberger, Thomas.
CIRED 2021 : The 26th International Conference and Exhibition on Electricity Distribution. 2021. p. 1752 - 1756 .

Research output: Chapter in Book/Report/Conference proceedingConference contribution

Harvard

Thormann, B, Purgstaller, W & Kienberger, T 2021, Evaluating The Potential Of Future E-Mobility Use Cases For Providing Grid Ancillary Services. in CIRED 2021 : The 26th International Conference and Exhibition on Electricity Distribution. pp. 1752 - 1756 , CIRED 2021 - 26th International Conference on Electricity Distribution, Genf, Switzerland, 20/09/21.

APA

Thormann, B., Purgstaller, W., & Kienberger, T. (2021). Evaluating The Potential Of Future E-Mobility Use Cases For Providing Grid Ancillary Services. In CIRED 2021 : The 26th International Conference and Exhibition on Electricity Distribution (pp. 1752 - 1756 )

Vancouver

Thormann B, Purgstaller W, Kienberger T. Evaluating The Potential Of Future E-Mobility Use Cases For Providing Grid Ancillary Services. In CIRED 2021 : The 26th International Conference and Exhibition on Electricity Distribution. 2021. p. 1752 - 1756

Author

Thormann, Bernd ; Purgstaller, Wilfried ; Kienberger, Thomas. / Evaluating The Potential Of Future E-Mobility Use Cases For Providing Grid Ancillary Services. CIRED 2021 : The 26th International Conference and Exhibition on Electricity Distribution. 2021. pp. 1752 - 1756

Bibtex - Download

@inproceedings{b24701da1d9f4eb68f26f67566715683,
title = "Evaluating The Potential Of Future E-Mobility Use Cases For Providing Grid Ancillary Services",
abstract = "The fostered implementation of volatile renewable energy sources will trigger a raising demand of grid ancillary services in the upcoming years. However, future electrified road vehicles provide significant energy storage capacities, since they are unused for most of the time. In this regard, this study analyses for various electric vehicle (EV) use cases the potential for providing grid ancillary services based on the vehicle-to-grid technology. Therefore, we estimate the future demand of ancillary services in 2030 in terms of redispatch measures and control reserve. Real-life EV mobility patterns demonstrate, that EVs are perfectly suitable for the provision of ancillary services, even with low discharging power. Assuming a sufficient EV-penetration, private EVs charging at home or at work may cover a substantial share of required grid ancillary services. Besides EV users' mobility patterns, long-term load flow simulations illustrate the limitation of possible grid ancillary services due to local grid restrictions, especially with high discharging and charging power. Consequently, an increase of charging and discharging power only slightly raises the actual share of provided grid ancillary services compared to a low-power bidirectional power exchange between grid and EV.",
author = "Bernd Thormann and Wilfried Purgstaller and Thomas Kienberger",
year = "2021",
month = sep,
day = "23",
language = "English",
pages = "1752 -- 1756 ",
booktitle = "CIRED 2021",
note = "CIRED 2021 - 26th International Conference on Electricity Distribution ; Conference date: 20-09-2021 Through 23-09-2021",
url = "https://www.cired2021.org/",

}

RIS (suitable for import to EndNote) - Download

TY - GEN

T1 - Evaluating The Potential Of Future E-Mobility Use Cases For Providing Grid Ancillary Services

AU - Thormann, Bernd

AU - Purgstaller, Wilfried

AU - Kienberger, Thomas

PY - 2021/9/23

Y1 - 2021/9/23

N2 - The fostered implementation of volatile renewable energy sources will trigger a raising demand of grid ancillary services in the upcoming years. However, future electrified road vehicles provide significant energy storage capacities, since they are unused for most of the time. In this regard, this study analyses for various electric vehicle (EV) use cases the potential for providing grid ancillary services based on the vehicle-to-grid technology. Therefore, we estimate the future demand of ancillary services in 2030 in terms of redispatch measures and control reserve. Real-life EV mobility patterns demonstrate, that EVs are perfectly suitable for the provision of ancillary services, even with low discharging power. Assuming a sufficient EV-penetration, private EVs charging at home or at work may cover a substantial share of required grid ancillary services. Besides EV users' mobility patterns, long-term load flow simulations illustrate the limitation of possible grid ancillary services due to local grid restrictions, especially with high discharging and charging power. Consequently, an increase of charging and discharging power only slightly raises the actual share of provided grid ancillary services compared to a low-power bidirectional power exchange between grid and EV.

AB - The fostered implementation of volatile renewable energy sources will trigger a raising demand of grid ancillary services in the upcoming years. However, future electrified road vehicles provide significant energy storage capacities, since they are unused for most of the time. In this regard, this study analyses for various electric vehicle (EV) use cases the potential for providing grid ancillary services based on the vehicle-to-grid technology. Therefore, we estimate the future demand of ancillary services in 2030 in terms of redispatch measures and control reserve. Real-life EV mobility patterns demonstrate, that EVs are perfectly suitable for the provision of ancillary services, even with low discharging power. Assuming a sufficient EV-penetration, private EVs charging at home or at work may cover a substantial share of required grid ancillary services. Besides EV users' mobility patterns, long-term load flow simulations illustrate the limitation of possible grid ancillary services due to local grid restrictions, especially with high discharging and charging power. Consequently, an increase of charging and discharging power only slightly raises the actual share of provided grid ancillary services compared to a low-power bidirectional power exchange between grid and EV.

M3 - Conference contribution

SP - 1752

EP - 1756

BT - CIRED 2021

T2 - CIRED 2021 - 26th International Conference on Electricity Distribution

Y2 - 20 September 2021 through 23 September 2021

ER -