Vibration and noise reduction method of friction system based on interface regulation

WANG Quan1,2, WANG Anyu2,3, WU Yuanke1,2, YIN Jiabao1,2, XIANG Zaiyu1,2, MO Jiliang1,2

Journal of Vibration and Shock ›› 2022, Vol. 41 ›› Issue (15) : 146-152.

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PDF(3632 KB)
Journal of Vibration and Shock ›› 2022, Vol. 41 ›› Issue (15) : 146-152.

Vibration and noise reduction method of friction system based on interface regulation

  • WANG Quan1,2, WANG Anyu2,3, WU Yuanke1,2, YIN Jiabao1,2, XIANG Zaiyu1,2, MO Jiliang1,2
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Abstract

In order to seek new methods for suppressing friction-induced vibration and noise, the control methods through adding the damping component on the back of the friction pair and cutting groove texture on the surface of the friction pair is discussed respectively. And a new approach is proposed based on the combination of these two different interface control methods. Then the friction noise experiment is carried out on the friction system with different interface control methods, the finite element (FE) and the pressure test analysis of contact interface are performed to reveal the regulation mechanism. Results show that the damping component installed on the back of the friction pair or the groove texture processed on the surface of the friction pair both can increase the contact degree of friction interface, then improve the stability of friction system and suppress the friction-induced vibration and noise. The contact degree of friction interface further increases when combine above two interface control methods. Therefore, it has greater potential in reducing friction-induced vibration and noise. In addition, the damping component installed on the back of the friction pair can improve the stability of the friction contact interface.
Key words: interface control; friction-induced vibration and noise; damping component; groove texture; interface contact

Key words

interface control / friction-induced vibration and noise / damping component / groove texture / interface contact

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WANG Quan1,2, WANG Anyu2,3, WU Yuanke1,2, YIN Jiabao1,2, XIANG Zaiyu1,2, MO Jiliang1,2. Vibration and noise reduction method of friction system based on interface regulation[J]. Journal of Vibration and Shock, 2022, 41(15): 146-152

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