Research on prediction methods for eccentric wear of the slipper pair in axial piston pumps and lubrication performance analysis

润滑 活塞(光学) 活塞泵 古怪的 材料科学 机械工程 柱塞泵 石油工程 复合材料 工程类 物理 光学 液压泵 柱塞 波前
作者
Zunling Du,Yimin Zhang,Wenjia Lu,Weibo Huang
出处
期刊:Journal of tribology [ASM International]
卷期号:146 (9) 被引量:1
标识
DOI:10.1115/1.4065266
摘要

Abstract The axial piston pump (APP) is the core power component of hydraulic systems. Its friction pair wear can cause the degradation of piston pump performance until the function is completely lost or the service life is terminated. The slipper pair, prone to wear failure, is selected as the research object in this paper. The prediction method for the eccentric wear of the slipper pair is established, and the gradual change rules of the performance with wear accumulation are explored. The micro-surface rough peak contact and the stress state of the slipper pair are analyzed, and the mixed lubrication model of the slipper pair is established based on the elastohydrodynamic lubrication (EHL) model of the slipper pair. Grid discretization of a sealing belt of the slipper pair is carried out based on two-body abrasive wear and Archard adhesive wear models to improve the prediction method for eccentric wear of the slipper pair. The effectiveness of the proposed method is verified by a surface morphology analysis of the worn slipper. The results showed that the wear depth and wear width of the outer edge of the slipper bottom surface are positively correlated with the oil discharge pressure and the inclination angle of the swashplate, and negatively correlated with the rotational speed and the dynamic oil viscosity. The outer edge of the slipper is wedged after eccentric wear, and the hydrodynamic effect of the lubricating oil film of the slipper pair is enhanced. Hence, proper wear can improve the lubrication performance of the slipper pair.
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