Advanced Control and Mechatronics for Automotive Systems (AUTOTRONICS)

A special issue of Electronics (ISSN 2079-9292). This special issue belongs to the section "Systems & Control Engineering".

Deadline for manuscript submissions: 15 September 2026 | Viewed by 463

Editors


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Guest Editor
WMG, The University of Warwick, Coventry CV4 7AL, UK
Interests: control engineering; electric vehicles; modeling and simulation of dynamic systems

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Guest Editor
Department of Mechatronics and Control Engineering, Harper Adams University, Newport TF10 8NB, UK
Interests: unmanned aerial systems; intelligent ground vehicles; embedded control systems

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Guest Editor
School of Mechanical Engineering, University of Leeds, Leeds LS2 9JT, UK
Interests: vehicle dynamics; mechatronics; control engineering; vibration analysis; autonomous vehicle; multibody simulation
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Special Issue Information

Dear Colleagues,

Over the past twenty years, the automotive sector has undergone rapid and significant change. What was once a predominantly mechanical discipline has gradually evolved through the integration of control engineering, electronics, and embedded software. As a result, modern vehicles now demonstrate levels of intelligence, autonomy, and connectivity that have fundamentally altered the way they are designed, operated, and understood.

This transformation has been driven by the growing convergence of mechanical subsystems with sensing, computation, and communication technologies. Vehicles are no longer isolated mechanical products; instead, they operate within a wider connected environment, exchanging data with infrastructure, other vehicles, and cloud-based services through vehicle-to-everything (V2X) communication. While this connectivity brings clear benefits in terms of functionality, efficiency, and safety, it also introduces additional layers of complexity, placing considerable demands on control and mechatronic system design.

The four widely recognised pillars of contemporary automotive development including autonomy, connectivity, electrification, and shared mobility are all strongly underpinned by advances in control and mechatronics. This reliance is particularly evident in the ongoing shift towards software-intensive and software-defined vehicle architectures, which has led to vehicles increasingly being described as “computers on wheels”. Within such architectures, control systems are no longer organised as strictly hierarchical, upper–lower level structures operating in isolation across different layers. Instead, they are tightly integrated, often executed on shared computing platforms, and play a central role in determining overall vehicle performance, robustness, and reliability.

In this context, controller design has become a critical enabling technology. Modern automotive applications demand a broad range of control approaches, spanning classical and robust techniques, as well as adaptive, learning-based, and data-driven methods. Controllers are increasingly required to operate across multiple domains including powertrain, chassis, energy management, and driver assistance while addressing strong coupling between subsystems, uncertainty, and real-time implementation constraints.

Equally important is the mechatronic framework within which these controllers are developed and deployed. Issues such as integrated control architectures, hardware–software co-design, real-time implementation, compliance with automotive standards, and validation within established development processes, including the V-model, play a decisive role in successful system realisation. Bridging the gap between modelling, control design, and experimental validation therefore remains a persistent challenge for both academic research and industrial practice.

This Special Issue on Advanced Control and Mechatronics for Automotive Systems aims to bring together recent advances in modelling, control, estimation, and mechatronic system design for automotive applications. Contributions addressing electrified powertrains including electric propulsion and battery management systems, autonomous driving functions, vehicle dynamics and motion control, integrated multi-domain control solutions, and experimental or real-time validation are particularly encouraged. The objective is to provide a focused forum for sharing practical insights and high-quality research that will help shape the next generation of automotive control and mechatronic systems and further establish the emerging concept of automotive mechatronics (Autotronics) within the automotive engineering community.

Dr. Kamyar Nikzadfar
Dr. James Pickering
Dr. Saikat Dutta
Guest Editors

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Keywords

  • automotive control
  • control engineering
  • mechatronics
  • electric vehicles
  • autonomous vehicles
  • automotive mechatronics
  • autotronics
  • software defined vehicles

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Published Papers (1 paper)

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Research

23 pages, 6567 KB  
Article
Reinforcement Learning-Enhanced Adaptive NMPC for Safe Autonomous Driving
by Sheng Jin and Joel Yi Yang Loh
Electronics 2026, 15(12), 2577; https://doi.org/10.3390/electronics15122577 - 11 Jun 2026
Viewed by 243
Abstract
Nonlinear Model Predictive Control (NMPC) has garnered significant attention in autonomous systems due to its ability to predict future states and manage complex vehicle dynamics. However, the adaptability of existing NMPC methods is constrained by having to manually set the weight coefficients in [...] Read more.
Nonlinear Model Predictive Control (NMPC) has garnered significant attention in autonomous systems due to its ability to predict future states and manage complex vehicle dynamics. However, the adaptability of existing NMPC methods is constrained by having to manually set the weight coefficients in the NMPC cost function. This study aims to explore a novel approach that integrates NMPC with Reinforcement Learning (RL), specifically employing Proximal Policy Optimization (PPO), to dynamically adjust NMPC weight matrices. The investigation begins by establishing a physics-based model for a two wheeled differential drive vehicle. A PPO model is then trained and deployed in real time to adapt to the NMPC weight matrices, achieving a 71% reduction in tracking error compared with the NMPC baseline. Importantly, the performance gain arises from PPO’s ability to reshape the NMPC cost function in real time, amplifying both orientation and lateral penalties in curves while relaxing them on straights, thereby enabling adaptive trade-offs between accuracy and control effort that static-weight NMPC cannot achieve. To enhance safety, the controller is integrated with a Control Barrier Function (CBF) layer for real-time obstacle avoidance, while PPO’s real-time weight adaptation contributes to improved tracking performance relative to NMPC+CBF. Finally, robustness evaluations under friction uncertainty, sensor noise, and path disturbances demonstrate that the PPO+NMPC+CBF method maintains reliable tracking accuracy and safety margins. Full article
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