Modal Analysis and Optimal Design of High-Speed Turning Center’s Spindle Box

Zhi Wei Zhang; Wei Zhang; Jin Chun Song; Song Li

doi:10.4028/www.scientific.net/AMM.52-54.723

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HomeApplied Mechanics and MaterialsApplied Mechanics and Materials Vols. 52-54Modal Analysis and Optimal Design of High-Speed...

Modal Analysis and Optimal Design of High-Speed Turning Center’s Spindle Box

Abstract:

This article is to provide a method to make the structure of machine tools lightened and improve its anti-vibration capacity. Modal analysis with pre-stress of High-speed Turning Center’s spindle box was performed using ANSYS Workbench; based on the above results, we optimized the spindle box using topological optimization and dimensional optimization methods. Finally, we make the spindle box’s weight reduce by 4.44%, its first order frequency increase by 15.82%, its first mode maximum amplitude decrease by 9.18%.

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Periodical:

Applied Mechanics and Materials (Volumes 52-54)

Pages:

723-728

DOI:

https://doi.org/10.4028/www.scientific.net/AMM.52-54.723

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Online since:

March 2011

Authors:

Zhi Wei Zhang, Wei Zhang, Jin Chun Song, Song Li

Keywords:

ANSYS Workbench , Anti-Vibration Capacity, Light-Weight Design, Modal Analysis, Spindle Box

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References

[1] Wen Bangchun, Liu Shuying, Chen Zhaobo: Theory of mechanical vibration and its applications. (Higher Education Express, Beijing, 2009), p.86–102.

Google Scholar

[2] Yang Yongliang: The structural optimization of lathe bed based on finite element. Dalian University of Technology (2006), p.8–10.

Google Scholar

[3] Chang Degong, Fan Zhimin, Meng Zhaoming: Design handbook for belt drive and chain drive. (Chemical Industry Press, Beijing, 2006), pp.8-10.

Google Scholar

[4] Wang Chong: Research on structural design method of complex parts of CNC turning center. Dalian University of Technology (2009), pp.29-32.

Google Scholar

[5] Liu Wei, Gao Weicheng, Yu Guangbin: ANSYS 12. 0 treasure. (Publishing House of Electronics Industry, Beijing, 2010), pp.495-501.

Google Scholar

[6] Yuan Anfu, Chen Jun: Application of Ansys in modal analysis. Manufacture Information Engineering of China, 36(11) (2007), pp.42-44.

Google Scholar

[7] Feng Zhen, Yu Tao, Zeng Qifu: Application and attempt of topology optimization in product design. Machinery Design and Manufacture (2007), pp.138-139.

Google Scholar

[8] Fang Minggang, Zhao Han, Cao Wengang, Dong Yinghui: The lightweight design and improvement of a hydraulic press's workbench based on ANSYS. Machine Tool & Hydraulics, 38(6) (2010), pp.9-12.

Google Scholar

[9] Wang Yu, Wang Dongfang: Finite element analysis and structure optimization for the body of vertical machining center base on Ansys workbench. Manufacture Information Engineering of China. 31 (9) (2009), pp.129-131.

Google Scholar