International Journal of Vehicle Design · 2015 · 13 citations · 12 references
EngineeringAutomotive EngineeringSystems EngineeringBrake SystemsVehicle DynamicsVehicle Safety EngineeringAnti-lock Braking SystemsBrake DesignBraking DynamicsVehicle ControlVehicle Control SystemsYaw DynamicsBrake Control AlgorithmsBraking PerformanceControl AlgorithmsDirectional StabilityEmergency Braking PerformanceFrictionTire-road FrictionYaw Moment Control
Braking control on a μ-split road is not an easy task. An integrated control (ITC) algorithm is proposed by combining antilock braking system (ABS), direct yaw-moment control (DYC) and active front steering (AFS). The algorithm is intended for maximising the utilisation of road friction while maintaining directional stability of a vehicle during emergency braking on a μ-split road. A three-layer hierarchical control architecture is developed for the ITC. The upper-layer controller is used for DYC to generate a desired yaw moment, allocation of the moment to ABS and AFS is handled by the intermediate-layer controller, and two control algorithms are designed at the lower-layer for ABS and AFS, respectively. The performance of the ITC is compared with a modified independent control (MIC) algorithm via hardware-in-the-loop (HIL) simulations. The results show that the braking performance and stability of the vehicle are improved by employing the ITC algorithm.
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Coordination of active steering, driveline, and braking for integrated vehicle dynamics control
Junjie He, D.A. Crolla, Martin Levesley et al. · Proceedings of the Institution of Mechanical Engineers Part D Journal of Automobile Engineering · 2006 · 191 citations
Engineering, Automotive Engineering, Systems Engineering +17
Safety and Performance Enhancement: The Bosch Electronic Stability Control (ESP)
E. K. Liebemann, K. Meder, Jürgen Schuh et al. · 2005 · 139 citations
Engineering, Automotive Engineering, Systems Engineering +17