Scuffing characteristics of sae 50b38 steel under lubricated conditions

Tribology Transactions

Volumn 45, Issue 2, 2002, Pages 246-252

  Yoon, Hyung ^a   Zhang, Jian ^a   Kelley, Frank ^a  

^a CATERPILLAR INC   (United States)

Author keywords

Adhesion; Friction transition; Microscuffing; Plastic shearing; Sae 50b38 steel; Scuffing mechanism; Transformed layer

Indexed keywords

FRICTION TRANSITION; MICROSCUFFING; PLASTIC SHEARING; SAE 50B38 STEEL; SCUFFING MECHANISM; STEEL CONTACTS; TRANSFORMED LAYER; SCUFFING;

ADHESION; FAILURE (MECHANICAL); FRICTION; INTERFACES (MATERIALS); LUBRICATION; SCANNING ELECTRON MICROSCOPY; TRANSMISSION ELECTRON MICROSCOPY; MICROSTRUCTURE; NANOSTRUCTURED MATERIALS; PLASTIC DEFORMATION; SHEARING; STEEL; SURFACE PROPERTIES;

STEEL; TRIBOLOGY;

ADHESION; LUBRICATION; SCUFFING; STEEL;

EID: 0036065696     PISSN: 10402004     EISSN: 1547397X     Source Type: Journal    
DOI: 10.1080/10402000208982547     Document Type: Article

References (26)

1. American Socicty for Testing and Materials Standards D-2714-94, (1994), “Standard Test Method for Calibration and Operation of the Falex Block-on Ring Friction and Wear Testing Machine,” ASTM, Philadelphia. PA.
2. Andcrsson, S. and Salas-Russo, E., (1994), “The Influence of Surface Roughness and Oil Viscosity on the Transition in Mixed Lubricated Sliding Steel Contacts,” Wear, 174, pp 71-79.
3. Askwith, T. C., Cameron, A. and Crouch, R. F., (1966), “Chain Length of Additives in Relation to Lubricants in Thin Film and Boundary Lubrication,” Pro. Roy. Soc., London, A291, pp 500-519.
4. Cameron, A., (1985), “On a Generalized Theory of Scuffing,” in Proc. 12th Leeds-Lyon Symp. on Trib The Institut National des Sciences Appliquées, Lyon, France, pp 3-9.
5. Cuotiongco, E. C. and Chung, Y. W., (1994), “Prediction of Scuffing Failure Based on Competitive Kinetics of Oxide Formation and Removal: Application to Lubricatcd Sliding of AISI 52100 Steel on Steel,” Trib. Trans., 37, 3, pp 622-628.
6. Dyson, A., (1976), “The Failure of Elastohydrodynamic Lubrication of Circumfcrcntially Ground Disks,” in Proc. Inst. Mech. Eng., 190, 1, pp 52-76.
7. Evans, H. P. and Snidle, R. W., (1996), “A Model for Elastohydrodynamic Film Failure in Contacts Between Rough Surfaces Having Transverse Finish,” Trans, of the ASME, Jour, of Trib., 118, 7, pp 847-857.
8. Greenwood, J. A. and Williamson, B. P., (1966), “Contact of Nominally Flat Surfaces,” in Proc. Roy. Soc. London, Ser A, 295, pp 300-319.
9. Hirst, W. and Hollander, A. E., (1974). “Surface Finish and Damage in Sliding,” in Proc. Roy. Soc. London, Ser A, 337, pp 379-394.
10. Houpert, L. G. and Hamrock, B. J., (1985), “Elastohydrodynamic Lubrication Calculations Used as a Tool to Study Scuffing,” in Proc. 12th Leeds-Lyon Symp. on Trib., The Institut National des Sciences Appliquées, Lyon, France, pp 146-155.
11. Johnson, K. L., Greenwood, J. A. and Poon, S. Y., (1972), “A Simple Theory of Asperity Contact in Elastohydrodynamic Lubrication,” Wear, 19, pp 91-108.
12. Kim, K. and Ludcma, K. C. (1995), “A Correlation Between Low Cycle Fatigue Properties and Scuffing Properties of 4340 Steel,” Trans, of the ASME. Jour, of Trib 117, 10, pp 617-621.
13. Lee, S. C. and Cheng, H. S., (1991). “Scuffing Theory Modeling and Experimental Correlations,” Trans, of the ASME, Jour, of Trib., 113, 4, pp 237-334.
14. Lee, S. C. and Cheng, H. S., (1995), “Experimental Validation of the Critical Temperature-Pressure Theory of Scuffing,” Trib. Trans., 38, 3, pp 738-742.
15. Martin, M. J., Alanou, M. P., Evans, H. P. and Snidle, R. W., (2001), “Scuffing Performance of M50 Bearing Steel Lubricated with a Gas Turbine Engine Oil at High Sliding Speeds,” Trib. Trans., 44, 3, pp 465-471.
16. McCool, J. I. and Popgoshev, D., (1985), “Effect of Asperity Interaction on Scuffing,” in Proc. I2th Leeds-Lyon Symp. on Trib., The Institut National des Sciences Appliquées, Lyon, France, pp 135-145.
17. O.E.C.D., (1969), Glossary of Terms and Definitions in the Field of Friction, Wear and Lubrication, pp 52-53.
18. Patching, M., Kweh, C. C., Evans, H. P. and Snidle, R. W., (1995), “Conditions for Scuffing Failure of Ground and Superfinished Steel Disks at High Sliding Speeds Using a Gas Turbine Engine Oil,” Trans, of the ASME, Jour, of Trib., 117, pp 482-489.
19. Park, K. B. and Ludema, K. C., (1994). “Evaluation of the Plasticity Index as a Scuffing Criterion,” Wear, 175, pp 123-131.
20. Somi Reddy, A., Pramila Bai, B. N., Murthy, K. S. S. and Biswas, S. K., (1995), “Mechanism of Seizure of Aluminum-Silicon Alloys Dry Sliding Against Steel,” Wear, 181-183, pp 658-667.
21. Shciretov, T., Yoon, H. and Cusano, C., (1998). “Scuffing Under Dry Sliding Conditions Part I - Experimental Studies,” Trib. Trans., 41, 4, pp 435-446.
22. Somi Reddy, A., Pramila Bai, B. N., Murthy, K. S. S. and Biswas, S. K., (1994), “Wear and Seizure of Binary Al-Si Alloys,” Wear, 171, pp 115-127.
23. Spikes, H. A. and Cameron, A., (1974), “Scuffing as a Desorption Process - an Explanation of the Borsoff Effect,” ASLE Trans., 17, pp 92-96.
24. Tallian, T. E., (1967). “On Competing Failure Modes in Rolling Contact,” ASLE Trans., 10, pp 418-439.
25. Xue, O. J. and Ludema, K. C., (1983), “Plastic Failure Effects in Scuffing of Soft Metals,” Wear of Materials, pp 499-506.
26. Yoon, H., Sheiretov, T. and Cusano, C., (2000), “Scuffing of Area Contacts Under Starved Lubrication Conditions,” Trib. Trans., 43, 4, pp 722-730.