流体静力平衡
推力轴承
工作台
变形(气象学)
粘度
推力
润滑
材料科学
机械工程
机械
液压油
金属加工
方位(导航)
岩土工程
地质学
工程类
复合材料
计算机科学
机油压力
物理
量子力学
可视化
人工智能
作者
Xiaodong Yu,Haixin Liu,Feihu Zhao,Ruichao Li,Kaixuan Sun,Yihan Wang,Libo Guan,Ruichun Dai,Wentao Jia,Junfeng Wang,Hui Jiang,Jianhua Jiao
标识
DOI:10.1177/13506501231196436
摘要
When the hydrostatic thrust bearings operate under conditions of high speed and heavy load, the oil film will be strongly sheared and squeezed, which will increase the temperature of the hydrostatic oil film, resulting in uneven deformation of the workbench and tribology in serious cases. The deformation of the friction pair greatly affects the stability of the workbench during operation, and then affects the machining accuracy. Taking the hydrostatic thrust bearings as the research object, the model of hydrostatic thrust bearings was established based on the fluid–thermosolid coupling theory, and the influencing factors of the deformation of the hydrostatic thrust bearings are analyzed using ANSYS Workbench software, and the influencing laws are discussed. Finally, the correctness of the simulation method is verified by experiments. The results show that the larger the lubricating oil viscosity, the greater the deformation of the guide surface and the oil pad. With the increase in the rotation rate, the deformation of the guide surface and the oil pad increases continuously. With the increase in the inlet flow rate, the deformation of the guide surface and the oil pad is continuously reduced. In engineering practice, on the premise of ensuring the bearings capacity, low-viscosity lubricating oil should be used as much as possible, the rotation rate should be lower, or the inlet flow rate should be increased.
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