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Temperature-adaptive torque allocation for all wheel drive electric trucks
ID
Ghazali, Mohammad
(
Author
),
ID
Vukotić, Mario
(
Author
),
ID
Miljavec, Damijan
(
Author
),
ID
Hartavi, Ahu Ece
(
Author
)
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MD5: B0A332C4FDBD5A5AA19865A6DFAAB25A
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https://www.sciencedirect.com/science/article/pii/S1359431125014383
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Abstract
Electrification of heavy-duty trucks is of great interest since it would bring substantial benefits in terms of reduce emissions (>80%) of road transport) and noise pollution. This study investigates energy-optimized torque allocation for a 370 kW all-wheel-drive electric truck under variable temperatures. The novel approach incorporates electric machine temperature dynamics into the modelling process, recognizing that the electric machine temperature varies with load and speed. A high-fidelity, multi-physical model of the permanent magnet synchronous machine is developed enabling analysis of electric, magnetic, mechanical, and thermal phenomena, including their cross-influence. The model dynamically updates electric machines’ characteristics and component loss rates as a function of temperature and integrates this information into a control strategy that adaptively allocates torque between axles. To the best of the authors’ knowledge, this temperature-adaptive torque control represents a novel contribution. Therefore, the novel strategy optimally distributed torque between axles based on the temperature-dependent loss characteristics of each motor to minimize overall energy consumption. The result is compared with two conventional techniques: (1) fixed torque ratio distribution, and (2) fixed-temperature optimal torque allocation using efficiency maps generated at −20℃ and +50℃. For the Eskisehir cycle, the proposed method reduces power consumption by up to 2% and 3%, respectively, within operating temperature range of −20℃ to 180℃. Further analysis of a hypothetical cycle indicates that energy savings may increase to 3% and 7%, demonstrating the drive cycle’s decisive effect. This work advances the integration of thermal dynamics into vehicle level control, offering practical pathways to improve efficiency up to 7%, in electric heavy duty vehicles.
Language:
English
Keywords:
electric machine
,
thermal model
,
energy optimization
,
electrification
,
heavy duty trucks
,
torque allocation
Work type:
Article
Typology:
1.01 - Original Scientific Article
Organization:
FE - Faculty of Electrical Engineering
Publication status:
Published
Publication version:
Version of Record
Year:
2025
Number of pages:
15 str.
Numbering:
Vol. 276, art.126846
PID:
20.500.12556/RUL-173660
UDC:
621.313/.314
ISSN on article:
1873-5606
DOI:
10.1016/j.applthermaleng.2025.126846
COBISS.SI-ID:
236302339
Publication date in RUL:
19.09.2025
Views:
645
Downloads:
294
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Record is a part of a journal
Title:
Applied thermal engineering
Publisher:
Elsevier
ISSN:
1873-5606
COBISS.SI-ID:
23195397
Licences
License:
CC BY 4.0, Creative Commons Attribution 4.0 International
Link:
http://creativecommons.org/licenses/by/4.0/
Description:
This is the standard Creative Commons license that gives others maximum freedom to do what they want with the work as long as they credit the author.
Secondary language
Language:
Slovenian
Keywords:
električni stroj
,
termičn model
,
energijska optimizacija
,
elektrifikacija
,
težki tovornjaki
,
porazdeljevanje navora
Projects
Funder:
EC - European Commission
Project number:
769506
Name:
Optimization of scalaBle rEaltime modeLs and functIonal testing for e-drive ConceptS
Acronym:
OBELICS
Funder:
EC - European Commission
Project number:
101096598
Name:
Powering EU Net Zero Future by Escalating Zero Emission HDVs and Logistic Intelligence
Acronym:
ESCALATE
Funder:
UKRI - UK Research and Innovation
Project number:
10063997
Name:
ESCALATE - Powering European Union Net Zero Future by Escalating Zero Emission HDVs and Logistic Intelligence
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