Assessing the performances of all-wheel-controlled race cars via trajectory optimisation methodologies

This paper analyzes the lap-time performance of autonomous vehicles equipped with advanced control systems, including independent torque control for each wheel and real-time adjustment of wheel camber and toe angles. A novel multibody vehicle model, integrated into an optimal control framework, is introduced to assess the impact of these control variables. While technologies like active camber, dynamic toe, and torque vectoring have been individually explored, their combined effect on lap times has received little attention so far. Therefore, leveraging a powerful framework for numerical optimal control for large-scale systems that embeds high-fidelity vehicle dynamics simulations, this paper tries to systematically quantify the influence of these systems on lap times and driving styles. Simulation results show that significant improvements are possible, demonstrating the potential of both innovative vehicle architectures and associated control strategies in competitive racing.

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Publication Details

Journal
Vehicle System Dynamics
Published
2025-05-26
DOI
https://doi.org/10.1080/00423114.2025.2509769
Primary Topic
Vehicle Dynamics and Control Systems
Type
article
Field-Weighted Citation Impact
0.00
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article

Assessing the performances of all-wheel-controlled race cars via trajectory optimisation methodologies

Marco Gabiccini, Maria Chiara Masoni, Vincenzo Palermo
1 links
Vehicle System Dynamics
Vehicle Dynamics and Control Systems
article

Assessing the performances of all-wheel-controlled race cars via trajectory optimisation methodologies

Marco Gabiccini, Maria Chiara Masoni, Vincenzo Palermo
article en

Abstract

This paper analyzes the lap-time performance of autonomous vehicles equipped with advanced control systems, including independent torque control for each wheel and real-time adjustment of wheel camber and toe angles. A novel multibody vehicle model, integrated into an optimal control framework, is introduced to assess the impact of these control variables. While technologies like active camber, dynamic toe, and torque vectoring have been individually explored, their combined effect on lap times has received little attention so far. Therefore, leveraging a powerful framework for numerical optimal control for large-scale systems that embeds high-fidelity vehicle dynamics simulations, this paper tries to systematically quantify the influence of these systems on lap times and driving styles. Simulation results show that significant improvements are possible, demonstrating the potential of both innovative vehicle architectures and associated control strategies in competitive racing.

Vehicle System Dynamics
University of Pisa (IT)
Openalex Percentile: Top 89%
Vehicle Dynamics and Control Systems
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Assessing the performances of all-wheel-controlled race cars via trajectory optimisation methodologies — Marco Gabiccini, Maria Chiara Masoni, et al. · Vehicle System Dynamics (2025) | TGRS Research Map | TGRS