The transition to sustainable mobility places electric vehicles (EVs) at the heart of industrial strategies. The performance, reliability, and durability of the electric powertrain (EPU), including the electric motor, converters, battery, and auxiliary components, depend heavily on their thermal behavior.
Temperature drifts significantly influence the vehicle's efficiency, range, lifespan, and safety. Furthermore, the prioritization of thermal processes (heating, battery or motor cooling, etc.) can significantly impact the overall efficiency of the EV.
In this context, the work conducted within the Renault–Centrale Nantes Chair (projects E7A, 6AK, HV95, INW) has demonstrated the value of hybrid Physics + AI approaches for online estimation of stator, rotor, and permanent magnet temperatures. These estimations must be robust, fast, inexpensive, and suitable for embedded deployment.
The proposed postdoctoral position aims to optimize an existing hybrid strategy, integrating it into a comprehensive approach to thermal estimation and monitoring of the entire powertrain, including motors, power modules, and battery. The ultimate goal is to improve observer accuracy, reduce computational complexity (CPU), and eliminate the use of sensors (NTC) while maintaining a very high level of reliability.
Prof. Malek GHANES Chairholder – Ampère/Renault–Centrale Nantes, Ecole Centrale Nantes (CN), LS2N, CNRS UMR 6004, Nantes, France Phone: +33 2 40 37 69 13 — Email: Malek.Ghanes@ec-nantes.fr
Salary: Based on experience. Funded by the Ampère/Renault–CN Chair. Duration: 12 months (renewable once). Starting in March 2026.
Please send your application via the link: https://jobs.ec-nantes.fr/o/post-doctorat-physique-ia-estimation-thermique-des-systemes-de-traction-electrique-hf-ref-1069