Vehicle Design

Total results returned: 2

The Electric Vehicle Design page hosts a collection of resources aimed at exploring the evolving architecture of electric vehicles. Featuring reports, research papers, and industry insights, this section delves into how EV design is transforming traditional vehicle structures, from battery placement to lightweight materials and aerodynamics. Whether you're focused on the technical or aesthetic aspects of EV design, these materials provide a wealth of knowledge to help shape the future of electric vehicle innovation.

Electric Vehicle Design

European Initiatives for User-Centric Design of Electric Vehicles

E-mobility is revolutionizing the automotive industry by improving energy-efficiency, lowering CO2 and non-exhaust emissions, innovating driving and propulsion technologies, redefining the hardware-software-ratio in the vehicle development, facilitating new business models, and transforming the market circumstances for electric vehicles (EVs) in passenger mobility and freight transportation.
 
Ongoing R&D action is leading to an uptake of affordable and more energy-efficient EVs for the public at large through the development of innovative and user-centric solutions, optimized system concepts and components sizing, and increased passenger safety. Moreover, technological EV optimizations and investigations on thermal and energy management systems as well as the modularization of multiple EV functionalities result in driving range maximization, driving comfort improvement, and greater user-centricity.
 
This paper presents the latest advancements of multiple EU-funded research projects under the Horizon Europe framework and showcases their complementarities to address the European priorities as identified in the 2Zero SRIA, namely EFFEREST, MINDED, and SmartCorners. EFFEREST targets energy efficiency, comfort, safety, and affordability of EVs through considering knowledge from real-fleet behavior and personalization of data. MINDED aims to maximize EV’s driving range by improving the thermal- and energy management of an electric minibus to reduce energy consumption while optimizing thermal comfort, and therefore directly impacting the user acceptance. SmartCorners provides scalable, flexible, and user-centric smart corner systems including e-axles and e-corners based on in-wheel powertrains. SmartCorners aims at introducing smart corner systems based on in-wheel powertrains as underlaying technology toward software-defined vehicles, enabling rightsizing, holistic optimization, innovative fault mitigation and actuator allocation strategies as well as more efficient, adaptive, predictive, and personalized system operation.
Audience:
Academia and Research Institutions, Automotive Component Manufacturers, Electric Vehicle Designers, EV Manufacturers
Electric Vehicle Design

Simulation models of the High-Scape vehicles, PE systems and components

The Horizon Europe HighScape project will explore the feasibility of a family of highly efficient power electronics (PE) components and systems for Battery Electric Vehicles (BEVs), including integrated traction inverters, onboard chargers (OBCs), DC-DC converters, and electric drives for auxiliaries and chassis actuators. 

In the work leading to this deliverable, the HighScape component providers and developers, focusing on the adoption of Wide Bandgap (WBG) based PE devices, have been generating the detailed simulation models of the respective components and systems (i.e., traction motor and traction inverter, OBCs, DC-DC converters, drives for Heating, Ventilation, and Air Conditioning (HVAC), and high voltage levelling suspension systems, and thermal systems for PE components/the whole vehicle), with a coverage of their parametrisation involving a wide range of BEV applications targeted in the project. The models enable model-based component and system design at the electrical, electronic, thermal and control levels. The components and systems models have been assembled into a vehicle simulation toolchain, for the rapid assessment of the implications of component design at the vehicle level, including considerations of thermal aspects. Due to the associated computational effort, the component models have been converted into surrogate models, such as Functional Mock-up Units (FMU) before their inclusion in the BEV simulation model. The definition, benefits and limitations of such surrogate models are discussed in the document. 

Audience:
Automotive Engineers, Automotive Industry Policymakers, Control System Designers, Electric Vehicle Manufacturers, Power Electronics Researchers, Simulation and Modelling Professionals, Thermal Management Researchers