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<rdf:RDF xmlns:rdf="http://www.w3.org/1999/02/22-rdf-syntax-ns#" xmlns:dc="http://purl.org/dc/elements/1.1/"><rdf:Description rdf:about="https://repozitorij.uni-lj.si/IzpisGradiva.php?id=173660"><dc:title>Temperature-adaptive torque allocation for all wheel drive electric trucks</dc:title><dc:creator>Ghazali,	Mohammad	(Avtor)
	</dc:creator><dc:creator>Vukotić,	Mario	(Avtor)
	</dc:creator><dc:creator>Miljavec,	Damijan	(Avtor)
	</dc:creator><dc:creator>Hartavi,	Ahu Ece	(Avtor)
	</dc:creator><dc:subject>electric machine</dc:subject><dc:subject>thermal model</dc:subject><dc:subject>energy optimization</dc:subject><dc:subject>electrification</dc:subject><dc:subject>heavy duty trucks</dc:subject><dc:subject>torque allocation</dc:subject><dc:description>Electrification of heavy-duty trucks is of great interest since it would bring substantial benefits in terms of reduce emissions (&gt;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.</dc:description><dc:date>2025</dc:date><dc:date>2025-09-19 12:50:10</dc:date><dc:type>Članek v reviji</dc:type><dc:identifier>173660</dc:identifier><dc:language>sl</dc:language></rdf:Description></rdf:RDF>
