| Citation: | LI Ling, XUE Yingchao, MIAO Donghao, et al. Fretting wear behavior considering the contact of third body particles[J]. Journal of Aerospace Power, 2024, 39（X）：20230322 doi: 10.13224/j.cnki.jasp.20230322
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Based on the finite element method, a ball-plane three-dimensional simulation model with the contact of the third body particles was established. The influence of the third body on fretting wear under partial slip condition was mainly studied. The contact behavior between the third body and the joint surface under the action of linear elastic material and elastic-plastic material was analyzed. The influences of different sizes on the contact behavior of the third body particles were studied. Finally, the effect of third body particles on fretting wear under different loading conditions was studied. The results showed that the elastic-plastic material can better reflect the contact characteristics of the third body. The third body particles were plastically deformed by the larger contact pressure, which reduced the contact pressure between the contact surfaces. The contact pressure of the third body particles with a diameter of 0.8 μm was the largest, and the contact pressure was the smallest at 0.2 μm, and the plastic deformation increased with the increase of diameter. In the initial stage of fretting, the existence of the third body particles could reduce the wear. For partial slip fretting wear, a smaller contact width or a larger displacement amplitude could lead to a decrease in the contact pressure of the third body particles, and an increase in friction dissipation energy and wear.
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