Ahmed Mohamed Hassan
Asst. Professor
Performance Enhancement of EV Drive System under Open-Phase Fault Using Reinforcement Learning with MPC
Journal of Engineering Research (JER) • 2025
Publication Information
Authors
Ahmed M. Hassan; mohammed E. Metwally
Keywords
Electric Vehicles; Fault-Tolerant Control;
Reinforcement Learning; Fuzzy Logic Control; Energy Saving;
5-phase IPMSM; European Drive Cycle; Twin-delayed deep
deterministic policy gradient.
Journal
Journal of Engineering Research (JER)
Publisher
Tanta University, Faculty of Engineering
Volume
9
Issue
2
Pages
1-14
publication.type
Local
Paper Link
Open Link
Supplementary Materials
Not Available
Abstract
Improving the operation of electric vehicles (EVs) under
fault is a very important subject because it increases their ability
to operate in case of an emergency. This paper proposes a faulttolerant control methodology for an EV drive system under open
phase fault (OPF). The 5-ph interior permanent magnet
synchronous motor (IPMSM) is employed in the drive system
because it has several merits, such as high efficiency and
reliability. The proposed technique is based on utilizing a
reinforcement learning (RL) control algorithm, based twindelayed deep deterministic policy gradient (TD3) algorithm, to
operate the motor at maximum torque per ampere under OPF.
This technique is compared with the PI-online tuning method that
employs fuzzy logic control (FLC). The torque ripples are
minimized using the model predictive control with a constructed
cost function. The European drive cycle (ECE-15) is used to test
the performance of the proposed technique. This technique is
verified by obtaining simulation results using the MATLAB
Simulink package. The results of the simulation indicate that the
proposed control strategy results in superior performance as it
achieved lower values of mean square error, integral square error,
and percentage overshoot compared with the classical PI online
tuning using FLC.
fault is a very important subject because it increases their ability
to operate in case of an emergency. This paper proposes a faulttolerant control methodology for an EV drive system under open
phase fault (OPF). The 5-ph interior permanent magnet
synchronous motor (IPMSM) is employed in the drive system
because it has several merits, such as high efficiency and
reliability. The proposed technique is based on utilizing a
reinforcement learning (RL) control algorithm, based twindelayed deep deterministic policy gradient (TD3) algorithm, to
operate the motor at maximum torque per ampere under OPF.
This technique is compared with the PI-online tuning method that
employs fuzzy logic control (FLC). The torque ripples are
minimized using the model predictive control with a constructed
cost function. The European drive cycle (ECE-15) is used to test
the performance of the proposed technique. This technique is
verified by obtaining simulation results using the MATLAB
Simulink package. The results of the simulation indicate that the
proposed control strategy results in superior performance as it
achieved lower values of mean square error, integral square error,
and percentage overshoot compared with the classical PI online
tuning using FLC.
