Pregled bibliografske jedinice broj: 868166
Optimization-based Analysis of Active Suspension Authority within Integrated Vehicle Dynamics Control Systems
Optimization-based Analysis of Active Suspension Authority within Integrated Vehicle Dynamics Control Systems // Advanced Vehicle Control: Proceedings of the 13th International Symposium on Advanced Vehicle Control (AVEC'16), September 13-16, 2016, Munich, Germany / Johannes Edelmann, Manfred Plochl, Peter Pfeffer (ur.).
München, Njemačka: CRC Press, 2016. str. 9-16 (pozvano predavanje, međunarodna recenzija, cjeloviti rad (in extenso), ostalo)
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Naslov
Optimization-based Analysis of Active Suspension Authority within Integrated Vehicle Dynamics Control Systems
Autori
Deur, Joško ; Čorić, Mirko ; Xu, Li ; Tseng, Eric Hongtei ; Hrovat, Davor
Vrsta, podvrsta i kategorija rada
Radovi u zbornicima skupova, cjeloviti rad (in extenso), ostalo
Izvornik
Advanced Vehicle Control: Proceedings of the 13th International Symposium on Advanced Vehicle Control (AVEC'16), September 13-16, 2016, Munich, Germany
/ Johannes Edelmann, Manfred Plochl, Peter Pfeffer - : CRC Press, 2016, 9-16
Skup
13th International Symposium on Advanced Vehicle Control
Mjesto i datum
München, Njemačka, 13.09.2016. - 16.09.2016
Vrsta sudjelovanja
Pozvano predavanje
Vrsta recenzije
Međunarodna recenzija
Ključne riječi
Fully active suspension, optimisation, analysis, anti-lock braking systems, electronic stability control, collocation method
Sažetak
Active suspension is commonly considered under the framework of vertical vehicle dynamics control aimed at improvements in ride comfort. This paper uses a collocation-type control variable optimization method to analyze to which extent the fully active suspension (FAS) application can be broaden to the tasks of vehicle handling/cornering control and braking distance reduction. The emphasis is on integrated control systems, where the FAS control action supports other actuators such as active brakes and active steering. The analysis is extended to the ride control task for the case of emphasized, discrete road disturbances such as high-magnitude bumps and potholes. The main control objective is to provide a favorable trade-off of ride comfort and road holding capability, as well as a robustness against wheel damage, e.g. at the pothole trailing edge. The optimization is based on a nonlinear 10-DOF vehicle dynamics model, including a combined-slip tire model, and it is subject to various, generally nonlinear equality and inequality constraints.
Izvorni jezik
Engleski
Znanstvena područja
Strojarstvo
POVEZANOST RADA
Ustanove:
Fakultet strojarstva i brodogradnje, Zagreb