文章摘要
刘志刚,许晓静,童浩,张晓宇,杨松,宋丽群.摩擦因数对多接触面轮胎定型硫化机主承载接触面微动行为的影响[J].橡胶科技,2018,16(11):.  
摩擦因数对多接触面轮胎定型硫化机主承载接触面微动行为的影响
Effect of Friction Coefficient on Fretting Behavior of Main Bearing Contact Surface in Tire Shaping and Curing Press with Multi-contact Surfaces
投稿时间:2018-04-28  修订日期:2018-04-28
DOI:
中文关键词: 轮胎定型硫化机  接触面  摩擦因数  微动  有限元分析
英文关键词: tire shaping and curing press  contract surface  friction coefficient  fretting  finite element analysis
基金项目:江苏省科技计划产学研联合创新资金项目(BY2015064-01)
中图分类号:
作者单位E-mail
刘志刚* 江苏大学 先进制造与现代装备技术工程研究院 lzg911209@126.com 
许晓静 江苏大学 先进制造与现代装备技术工程研究院  
童浩 江苏大学 先进制造与现代装备技术工程研究院  
张晓宇 江苏大学 先进制造与现代装备技术工程研究院  
杨松 江苏大学 先进制造与现代装备技术工程研究院  
宋丽群 江苏大学 先进制造与现代装备技术工程研究院  
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中文摘要:
      以多接触面轮胎定型硫化机立柱与夹紧块主承载接触面为研究对象,考察接触表面质量即摩擦因数对主承载接触面之间微动行为的影响,利用有限元分析软件HyperMesh和Ansys对接触面微动情况和应力进行模拟分析。结果表明:当摩擦因数不大于0.15时,硫化机立柱与夹紧块接触面之间的微动位移、接触点应力变化很小;当摩擦因数大于0.3时,随着摩擦因数的增大,微动位移显著增大,但是接触点应力有所下降。硫化机立柱与夹紧块的主承载接触面之间摩擦因数应不大于0.15。
英文摘要:
      For main bearing contact surface between pillar and clamping block in the tire shaping and curing press with multi-contact surfaces,the influence of the quality of contact surface,that is,the friction coefficient on fretting behavior was investigated,and the fretting and contact surface stresses of the curing press were simulated and analyzed by using the general finite element analysis software Ansys.The analysis results showed that the variations of fretting displacement and the contract stress in the interface between pillar and clamping block was small when the friction coefficient was less than 0.15.When the friction coefficient was larger than 0.3,the fretting displacement increased significantly and the contact stress decreased with the increasing of friction coefficient.The friction coefficient of the main bearing contact surface between pillar and clamping block should not be larger than 0.15.
Author NameAffiliationE-mail
Liu Zhigang Engineering Institute of Advanced Manufacturing and Modern Equipment Technology, Jiangsu University lzg911209@126.com 
XU Xiaojing Engineering Institute of Advanced Manufacturing and Modern Equipment Technology, Jiangsu University  
TONG Hao Engineering Institute of Advanced Manufacturing and Modern Equipment Technology, Jiangsu University  
ZHANG Xiaoyu Engineering Institute of Advanced Manufacturing and Modern Equipment Technology, Jiangsu University  
 Engineering Institute of Advanced Manufacturing and Modern Equipment Technology, Jiangsu University  
 Engineering Institute of Advanced Manufacturing and Modern Equipment Technology, Jiangsu University  
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