ADAMS-Based Double Wishbone Suspension Motion Simulation and Optimization

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Abstract:

It uses ADAMS software to establish the double wishbone suspension kinematics analysis model to analyze the rules of front wheel alignment parameter changing with wheel run-out and evaluate the rationality of the suspension system data. For the problem of too much side slippage and serious abrasion of front wheel of suspension, it carries out optimization computing for the suspension based on the target of minimizing the front wheel side slippage during wheel run-out. And the optimization result improves the suspension system performance in a certain extent.

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34-37

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October 2011

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© 2012 Trans Tech Publications Ltd. All Rights Reserved

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[1] ZHANG Liangliang, PEI Yongsheng and WU Dandan, in: Simulation Analysis and Optimization Design of Double Wishbone Suspension Based on ADAMS, Modern Machinery, 2010, (4): 27-29.

Google Scholar

[2] LI Yu-ting, ZHAO Zhiguo etc, in: The ADAMS-based Multi-Objects Optimization of Double Beams Vehicle Suspension, Manufacture Information Engineering of China, 2009, 38(17): 30-34.

Google Scholar

[3] ZHANG Jingjun, SUN Yang etc, in: Parametric optimization design of automobile suspended-frame of flexible multi-body model based on ADAMS software and improved genetic algorithm, Journal of Machine Design, 2006, 23(8): 33-36.

Google Scholar

[4] SU Jiancheng, ZHU Hua, PENG Sheng-hui, in: Simulation and optimization of double wishbone suspension based on ADAMS, Machinery Design & Manufacture, 2009, 5: 137-139.

Google Scholar

[5] Zhou Jing, Liu Haoxue etc, in: Simulation Contrast Analysis of Macpherson Suspension and Double Wishbone Suspension Based on ADAMS/Car, Automobile Technology, 2009, 6: 40-47.

Google Scholar

[6] I. Esat, in: Genetic algorithm-based optimization of a vehicle suspension system, Int. J. Vehicle Des. 1999: 148-160.

Google Scholar