Research on loading parameters of roller swaging process of self-lubricating spherical plain bearings

被引:0
作者
Qiang Wang
Jigang Chen
Changxin Liu
Jianhua Zhao
Xiaoqiang Zheng
Zhanqi Hu
机构
[1] Yanshan University,School of Mechanical Engineering
[2] YanShan University,Aviation Key Laboratory of Science and Technology On Generic Technology of Aviation Self
来源
The International Journal of Advanced Manufacturing Technology | 2022年 / 118卷
关键词
Spherical plain bearing; Roller swaging process; Loading parameters; Swaging quality;
D O I
暂无
中图分类号
学科分类号
摘要
The swaging quality of self-lubricating spherical plain bearings (SSPBs) has an important influence on the safety of the aircraft. The roller swaging process has an edge on other swaging processes in low swaging load and high swaging quality. The 3D elastic–plastic finite element model of roller swaging and push-out test were developed, and the influence of the roller swaging process loading parameters, such as the swaging time, the swaging load and the rotation speed of the roller tool on the push-out load, the gap between the flanging lip of the V-groove and the housing chamfer, and the radial displacement (the inner surface of the outer ring) after roller swaging were studied. Finally, the roller swaging test was conducted, and the test results were compared with the simulation results. The research shows that the test results are consistent with the results of the simulation model, and with the increase of the swaging time, swaging load, and rotation speed of the roller tool, the gap will be increased as well, resulting in an increase in the push-out load. However, the excessive swaging load and rotation speed of the roller tool will increase the radial displacement, which will result in a reduction in the rotation flexibility of the bearing. Under the conditions of reasonable swaging time and swaging load, a good swaging quality can be obtained by controlling reasonable rotation speed of the roller tool.
引用
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页码:3737 / 3747
页数:10
相关论文
共 75 条
[11]  
Chen X(2007)An approximate efficient finite element approach to simulating a rotary forming process and its application to a wheel-bearing assembly Finite Elem Anal Des 44 17-23
[12]  
Liu F(2015)Effect of forming parameters on sheet metal stability during a rotary forming process for rim thickening J Mater Process Technol 223 262-273
[13]  
Wei Y(2015)Dry rotary swaging–approaches for lubricant free process design Int J Pr Eng Man-GT 2 325-331
[14]  
Wu H(2013)Past developments and future trends in the Rotary or Orbital Forging Process J Mater Eng Perform 22 2813-2829
[15]  
Li S(2016)A new net-shape plating technology for axisymmetric metallic parts using rotary swaging Int J Adv Manuf Technol 85 2471-2482
[16]  
Wu Z(2009)Comparison between cold rotary forging and conventional forging J Mech Sci Technol 23 2668-129
[17]  
Zhang Q(2014)Effects of weft density on the friction and wear properties of self-lubricating fabric liners for journal bearings under heavy load conditions Wear 318 124-1994
[18]  
Hu Z(2014)Joining by forming-a review on joint mechanisms, applications and future trends J Mater Process Tech 214 1972-193
[19]  
Su W(2012)Slave rotation analysis of miniature inner grooved copper tube through rotary swaging process Int J Adv Manuf Technol 61 185-undefined
[20]  
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