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  5. Vibration analysis on compact car shock absorber
 
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Vibration analysis on compact car shock absorber

Journal
Journal of Physics: Conference Series
ISSN
17426588
Date Issued
2017-10-29
Author(s)
Tan W.H.
Cheah J.X.
Lam C.K.
Lim E.A.
Chuah H.G.
Khor C.Y.
DOI
10.1088/1742-6596/908/1/012025
Handle (URI)
https://hdl.handle.net/20.500.14170/12253
Abstract
Shock absorber is a part of the suspension system which provides comfort experience while driving. Resonance, a phenomenon where forced frequency is coinciding with the natural frequency has significant effect on the shock absorber itself. Thus, in this study, natural frequencies of the shock absorber in a 2 degree-of-freedom system were investigated using Wolfram Mathematica 11, CATIA, and ANSYS. Both theoretical and simulation study how will the resonance affect the car shock absorber. The parametric study on the performance of shock absorber also had been conducted. It is found that the failure tends to occur on coil sprung of the shock absorber before the body of the shock absorber is fail. From mathematical modelling, it can also be seen that higher vibration level occurred on un-sprung mass compare to spring mass. This is due to the weight of sprung mass which could stabilize as compared with the weight of un-sprung mass. Besides that, two natural frequencies had been obtained which are 1.0 Hz and 9.1 Hz for sprung mass and un-sprung mass respectively where the acceleration is recorded as maximum. In conclusion, ANSYS can be used to validate with theoretical results with complete model in order to match with mathematical modelling.
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