Investigation on the performances of thrust ball bearing with a novel oil self-transportation biomimetic composite guiding surface

Improving the lubrication condition of oil-starved rolling bearings is a proven method to improve their reliability and service life. In this study, a composite surface texture was designed inspired by the microscopic structure of cactus spine, pitcher plant and blood clam. Superhydrophobic surface coating technology was also employed. An oil self-transportation biomimetic composite surface was developed on the guiding surface of a thrust ball bearing. Experimental results show that the biomimetic composite surface effectively drives oil for high-speed directional transport. The biomimetic composite guiding surface bearing demonstrated excellent best vibration and friction torque performance. Compared to conventional bearing, it has an overall vibration performance improvement of 37.4 %, as well as a significant reduction in friction torque of 43.3 % and wear of 72.2 %. We conclude that oil self-transportation biomimetic composite surfaces on rolling bearings can significantly improve the lubrication condition. • A bionic self-transport coated composite surface was proposed. • The composite guiding surfaces replenish oil back into the bearing raceway. • The composite guiding surface bearing have superior vibration and friction properties.

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Publication Details

Journal
Alexandria Engineering Journal
Published
2024-10-17
DOI
https://doi.org/10.1016/j.aej.2024.10.052
Citations
5
Primary Topic
Tribology and Lubrication Engineering
Type
article
Field-Weighted Citation Impact
1.06
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article

Investigation on the performances of thrust ball bearing with a novel oil self-transportation biomimetic composite guiding surface

Jing Xu, Xinglin Li, Paul D. Teal, Yuan Han et al.
5 citations
Alexandria Engineering Journal
Tribology and Lubrication Engineering
1.06
article

Investigation on the performances of thrust ball bearing with a novel oil self-transportation biomimetic composite guiding surface

Jing Xu, Xinglin Li, Paul D. Teal, Yuan Han, Zheng Chen, Can Wu
article en
5 citations

Abstract

Improving the lubrication condition of oil-starved rolling bearings is a proven method to improve their reliability and service life. In this study, a composite surface texture was designed inspired by the microscopic structure of cactus spine, pitcher plant and blood clam. Superhydrophobic surface coating technology was also employed. An oil self-transportation biomimetic composite surface was developed on the guiding surface of a thrust ball bearing. Experimental results show that the biomimetic composite surface effectively drives oil for high-speed directional transport. The biomimetic composite guiding surface bearing demonstrated excellent best vibration and friction torque performance. Compared to conventional bearing, it has an overall vibration performance improvement of 37.4 %, as well as a significant reduction in friction torque of 43.3 % and wear of 72.2 %. We conclude that oil self-transportation biomimetic composite surfaces on rolling bearings can significantly improve the lubrication condition. • A bionic self-transport coated composite surface was proposed. • The composite guiding surfaces replenish oil back into the bearing raceway. • The composite guiding surface bearing have superior vibration and friction properties.

Alexandria Engineering JournalVol. 110
Victoria University of Wellington (NZ), Hangzhou Quality and Technical Supervision and Testing Institute (CN), Hangzhou Dianzi University (CN)
Openalex Percentile: Top 26%
Tribology and Lubrication Engineering
1.06
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