Placement of Fast-Charging Infrastructure for Long-Haul Road Freight Based on Spatio-Temporal Evaluation of En-Route Energy Needs
(2025) In IEEE Transactions on Transportation Electrification- Abstract
The rapid progression of the electrification of road transport in many countries urges the need to make informed decisions on the location and size of the required charging infrastructure. This paper’s main contribution is a novel method to position fast-charging stations based on the transportation energy demand and to evaluate the performance of such charging infrastructure. Depending on their range and the availability of charging infrastructure, electric vehicles may need to adjust their route patterns to include en-route charging. Understanding and planning for these adjustments can help assess future charging infrastructure needs more effectively. The proposed method introduces a detailed agent-based simulation procedure to track... (More)
The rapid progression of the electrification of road transport in many countries urges the need to make informed decisions on the location and size of the required charging infrastructure. This paper’s main contribution is a novel method to position fast-charging stations based on the transportation energy demand and to evaluate the performance of such charging infrastructure. Depending on their range and the availability of charging infrastructure, electric vehicles may need to adjust their route patterns to include en-route charging. Understanding and planning for these adjustments can help assess future charging infrastructure needs more effectively. The proposed method introduces a detailed agent-based simulation procedure to track individual trucks assumed to be fully electric. The procedure allows for analyzing each vehicle’s and charging station’s specific power flows. A case study based on a one-to-one representation of Swedish long-haul road freight transport is created based on real-world data. The results demonstrate that using the presented method, 90% of the Swedish long-haul truck fleet can be electrified with 26 carefully placed charging stations. These stations vary in size between 10-60 MW, presenting a utilization of 30-53%. The paper also provides detailed time variations in charging needs, using the best available data.
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- author
- Ingelstrom, Mattias
LU
; Arabani, Hamoun Pourroshanfekr
LU
; Alakula, Mats
LU
and Marquez-Fernandez, Francisco J. LU
- organization
- publishing date
- 2025
- type
- Contribution to journal
- publication status
- epub
- subject
- keywords
- Agent-based modeling, Battery electric trucks, Charging infrastructure, Road transport-power grid interaction, Transport decarbonization, Zero-emission road freight transport
- in
- IEEE Transactions on Transportation Electrification
- publisher
- IEEE - Institute of Electrical and Electronics Engineers Inc.
- external identifiers
-
- scopus:105016531298
- ISSN
- 2332-7782
- DOI
- 10.1109/TTE.2025.3610257
- language
- English
- LU publication?
- yes
- additional info
- Publisher Copyright: © 2015 IEEE.
- id
- ea3fbc7e-38ce-48b8-b178-1048c73e830b
- date added to LUP
- 2025-10-05 09:57:18
- date last changed
- 2025-10-09 11:14:17
@article{ea3fbc7e-38ce-48b8-b178-1048c73e830b, abstract = {{<p>The rapid progression of the electrification of road transport in many countries urges the need to make informed decisions on the location and size of the required charging infrastructure. This paper’s main contribution is a novel method to position fast-charging stations based on the transportation energy demand and to evaluate the performance of such charging infrastructure. Depending on their range and the availability of charging infrastructure, electric vehicles may need to adjust their route patterns to include en-route charging. Understanding and planning for these adjustments can help assess future charging infrastructure needs more effectively. The proposed method introduces a detailed agent-based simulation procedure to track individual trucks assumed to be fully electric. The procedure allows for analyzing each vehicle’s and charging station’s specific power flows. A case study based on a one-to-one representation of Swedish long-haul road freight transport is created based on real-world data. The results demonstrate that using the presented method, 90% of the Swedish long-haul truck fleet can be electrified with 26 carefully placed charging stations. These stations vary in size between 10-60 MW, presenting a utilization of 30-53%. The paper also provides detailed time variations in charging needs, using the best available data.</p>}}, author = {{Ingelstrom, Mattias and Arabani, Hamoun Pourroshanfekr and Alakula, Mats and Marquez-Fernandez, Francisco J.}}, issn = {{2332-7782}}, keywords = {{Agent-based modeling; Battery electric trucks; Charging infrastructure; Road transport-power grid interaction; Transport decarbonization; Zero-emission road freight transport}}, language = {{eng}}, publisher = {{IEEE - Institute of Electrical and Electronics Engineers Inc.}}, series = {{IEEE Transactions on Transportation Electrification}}, title = {{Placement of Fast-Charging Infrastructure for Long-Haul Road Freight Based on Spatio-Temporal Evaluation of En-Route Energy Needs}}, url = {{http://dx.doi.org/10.1109/TTE.2025.3610257}}, doi = {{10.1109/TTE.2025.3610257}}, year = {{2025}}, }