An energy conserved hydrodynamic journal bearing by the boundary slippage technology

Recent Patents on Mechanical Engineering

Volumn 9, Issue 1, 2016, Pages 63-70

  Zhang, Yongbin ^a  

^a CHANGZHOU UNIVERSITY   (China)

Author keywords

Bearing; Boundary slippage; Energy; Friction; Hydrodynamics; Load

Indexed keywords

ENERGY CONSERVATION; HYDRODYNAMICS; JOURNAL BEARINGS; PATENTS AND INVENTIONS; TRIBOLOGY;

% REDUCTIONS; BEARING; BOUNDARY SLIPPAGE; ECCENTRICITY RATIOS; ENERGY; FRICTION COEFFICIENTS; HYDRODYNAMIC JOURNAL BEARINGS; LOAD; OPERATING CONDITION;

FRICTION;

EID: 84960107995     PISSN: 22127976     EISSN: 1874477X     Source Type: Journal    
DOI: 10.2174/2212797609666160118234638     Document Type: Article

References (28)

1. Pinkus O, Sternlicht B. Theory of hydrodynamic lubrication. McGraw-Hill, New York, 1961.
2. Rondonuwu CC, Winoto SH. Pressure distributions along vertical hydrodynamic herringbone-grooved journal bearings. Trib Trans 2006; 49: 174-81.
3. Kango S, Sharma RK, Pandey RK. Comparative analysis of textured and grooved hydrodynamic journal bearing. Proc Instn Mech Engrs Part J: J Eng Trib 2014; 228: 82-95.
4. Rozeanu L, Snarsky L. Effect of solid surface lubricant interaction on the load carrying capacity of sliding bearings. ASME J Lubr Tech 1978; 100: 167-75.
5. Zhang YB. Shear strength of liquids at low pressures. J Balkan Trib Assoc 2014; 20: 424-8.
6. Zhang YB. Review of hydrodynamic lubrication with interfacial slippage. J Balkan Trib Assoc 2014; 20: 522-38.
7. Fortier AE, Salant RF. Numerical analysis of a journal bearing with a heterogeneous slip/no-slip surface. ASME J Trib 2005; 127: 820-5.
8. Zhang YB. An improved hydrodynamic journal bearing with the boundary slippage. Meccanica 2015; 50: 25-38.
9. Joroen, B. Lubricant thickened with oleophilic fibers. US20130296206 (2013).
10. Jeroen, B., De, V. A., Lugt, P., Meijer, D., Muller, D., Pasaribu, R., Sanz, A., Schaake, R. Dry lubricant containing fibers and method of using the same. WO2012055827 (2012).
11. Zhuang, J. S., Zhuang, D. L., Qiao, J. R. A type of super energy conserved lubricating oil with added nano particles. CN104152216 (2014).
12. Zhang, G. P. A type of energy conserved lubricating oil with a good anti-wear ability. CN201210257394 (2012).
13. Etsion I. Improving tribological performance of mechanical components by laser surface texturing. Trib Lett 2004; 17: 733-7.
14. Chai, Z. B., Lin, Y. W. A type of long longevity roller bearing with special surface texturings on the race. CN20140693903 (2014).
15. Wu, B., Cong, Q., Xi, P. A type of piston ring with textured surface. CN103410626 (2013).
16. Yu, G., Zeng, L. C., Mao, Y., Lu, Y., Jiang, J. A type of hydraulic chamber with textured surface. CN201520055327 (2015).
17. Hsu, S. M., Jing, Y., Mo, Y., Hua, D., Chen, M. Friction reduction for engine components. US20140170377 (2014).
18. Ioannides, E., Spikes, H. A., Brajdic-Mitidieri, P., Gosman, A. D. Sliding bearing with improved surface topography. US7682081 (2010).
19. Kaminski, J., Wittmeyer, H. Method for manufacturing rolling contact surfaces. US7543385 (2009).
20. Jan Carel De, V. A., Lugt, P. M., Olschewski, A. H. E. A., Tripp, J. H. Rolling element bearing with improved rolling contact surfaces. EP1012488 (2002).
21. Kirby, M. G. B. Reduced friction piston rings. WO2014043666 (2014).
22. Hu, D. Y. A type of energy conserved bearing. CN204371953 (2014).
23. Zhang, Y. B., Yuan, H. D. A thrust slider bearing by applying the boundary slippage technology. CN200810025059. 0 (2008).
24. Zhang, Y. B. Novel energy-saving tilting-pad thrust slide bearing. CN102606618 (2012).
25. Zhang, Y. B., Yuan, H. D., Jiang, X. D., Ding, J., Zhu, Y. A method to improve hydrodynamic lubrication in line contacts under small slide-roll ratios. CN201210231070. 9 (2012).
26. Zhang, Y. B., Yuan, H. D. A method to improve hydrodynamic lubrication in line contacts under large slide-roll ratios. CN201210231076. 6 (2012).
27. Zhang, Y. B. A new type of energy conserved hydrodynamic journal bearing. CN201410563019. 7 (2014).
28. Zhang YB. Boundary slippage for generating hydrodynamic loadcarrying capacity. Appl Math Mech 2008; 29: 1155-64.