Concept for an Electromechanical Connection and Steering Joint for a Small Off-Road Electric Vehicle

Electrification and modularity are emerging as key trends in off-road vehicle development, prompting the need for innovative solutions in steering and modular coupling. This study presents an electromechanical connection and steering joint, conceived to replace traditional hydraulic systems and offer enhanced steering precision, modular adaptability, and system efficiency. By eliminating hydraulic components, the design reduces fluid leakage risks, lowers maintenance requirements, and improves energy integration with the vehicle’s electric drivetrain. The joint enables independent module articulation, including steering and controlled tilting, to optimize vehicle stability across diverse terrains. A prototype was built and tested under real-world conditions, assessing functional reliability, ease of integration, and operational performance. The findings demonstrate that electromechanical steering substantially boosts system flexibility compared to conventional hydraulic setups.

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Publication Details

Journal
Vehicles
Published
2025-03-27
DOI
https://doi.org/10.3390/vehicles7020030
Primary Topic
Mechanical Engineering and Vibrations Research
Type
article
Field-Weighted Citation Impact
0.00

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article

Concept for an Electromechanical Connection and Steering Joint for a Small Off-Road Electric Vehicle

Igor Gajdáč, Tomáš Gajdošík, Matúš Vereš, Rudolf Mádaj
Vehicles
Mechanical Engineering and Vibrations Research
article

Concept for an Electromechanical Connection and Steering Joint for a Small Off-Road Electric Vehicle

Igor Gajdáč, Tomáš Gajdošík, Matúš Vereš, Rudolf Mádaj
article en

Abstract

Electrification and modularity are emerging as key trends in off-road vehicle development, prompting the need for innovative solutions in steering and modular coupling. This study presents an electromechanical connection and steering joint, conceived to replace traditional hydraulic systems and offer enhanced steering precision, modular adaptability, and system efficiency. By eliminating hydraulic components, the design reduces fluid leakage risks, lowers maintenance requirements, and improves energy integration with the vehicle’s electric drivetrain. The joint enables independent module articulation, including steering and controlled tilting, to optimize vehicle stability across diverse terrains. A prototype was built and tested under real-world conditions, assessing functional reliability, ease of integration, and operational performance. The findings demonstrate that electromechanical steering substantially boosts system flexibility compared to conventional hydraulic setups.

VehiclesVol. 7(2)
University of Žilina (SK)
Agentúra na Podporu Výskumu a Vývoja
Openalex Percentile: Top 94%
Mechanical Engineering and Vibrations Research
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Concept for an Electromechanical Connection and Steering Joint for a Small Off-Road Electric Vehicle — Igor Gajdáč, Tomáš Gajdošík, et al. · Vehicles (2025) | TGRS Research Map | TGRS