Design and development of MR damper for two wheeler application and Kwok model parameters tuning for designed damper
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Date
2022
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Publisher
SAGE Publications Ltd
Abstract
Magnetorheological dampers have been the interest of many researchers for a few decades for the reason of being an effective and rapidly progressing technology in the field of semi-active controlled suspension. The dynamic behaviour of these devices with nonlinear hysteresis is quite a complicated phenomenon. Hence, this paper aims at the design, modelling and simulation of a custom-made MR damper for a two-wheeler vehicle. The Kwok model has been chosen to mathematically model the MR damper. The model parameters have been optimised by minimizing the error difference between experimental and model-generated force results. A PID control is designed to control the damper effectively depending on the deflection of the damper. The two-wheeler vehicle modelled with four degrees of freedom is coupled with a mathematical model of MR damper in front and rear suspension. Further, the dynamic analysis has been performed in MATLAB/Simulink considering random road input for different velocities and current input conditions. The improved performance of MR damper was observed in suppressing road irregularities using a PID controller. As an implementation part of the work, the developed damper has been implemented in a two wheeler vehicle for performance evaluation at on-road testing conditions. The results showed significant improvement in damper performance with increment of constant current controlling MR dampers. © IMechE 2021.
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Keywords
Automobile suspensions, Damping, Degrees of freedom (mechanics), MATLAB, Roads and streets, Three term control systems, Controlled suspension, Design and Development, Dynamic behaviours, Four-degrees-of-freedom, Magneto-rheological dampers, Modelling and simulations, Nonlinear hysteresis, Road irregularities, Suspensions (components)
Citation
Proceedings of the Institution of Mechanical Engineers, Part D: Journal of Automobile Engineering, 2022, 236, 7, pp. 1595-1606
