A Lubrication Deviation From the Classical EHL Theory by the Lubricant Viscoplasticity: Part I — Film Thickness Dependence

REFERENCES

• Kannel , J. W. and Bell , J. C. , “ Interpretations of the Thickness of Lubricant Films in Rolling Contact: Part I — Examination of Measurements Obtained by X-Rays ,” ASME Jour. of Lubr. Tech. , pp 478 – 484 ( 1971 ).
   Google Scholar
• Salomon , G. , “ Results of the 2nd Meeting of the International Research Group (I. R. G.) on Wear of Engineering Materials ,” Lubr. Eng. , 28 , p 403 , ( 1972 ).
   Google Scholar
• Christensen , H. , “ Failure by Collapse of Hydrodynamic Oil Films ,” Wear , 22 , pp 359 – 366 ( 1972 ).
   Web of Science ®Google Scholar
• Czichos , H. , “ Failure Criteria in Thin Film Lubrication: Investigation of the Different Stages of Film Failure ,” Wear , 36 , pp 13 – 17 ( 1976 ).
   Web of Science ®Google Scholar
• Czichos , H. , “ Failure Modes of Sliding Lubricated Concentrated Contacts ,” Wear , 28 , pp 95 – 101 ( 1974 ).
   Web of Science ®Google Scholar
• Bailey , M. W. and Cameron , A. , “ The Effects of Temperature and Metal Pairs On Scuffing ,” ASLE Trans. , 16 , p 121 , ( 1973 ).
   Google Scholar
• Czichos , H. and Kirschke , K. , “ Investigations Into Film Failure (Transition Point) of Lubricated Concentrated Contacts ,” Wear , 22 , pp 321 – 336 ( 1972 ).
   Web of Science ®Google Scholar
• Shizhu , W. and Yongbin , Z. , “ Elastohydrodynamics of the Lubricant with Limiting Shear Stress: Part I — Algorithm and Solutions ,” ASME Jour. of Trib. , paper no. 185 P/al ( 1999 ).
   Google Scholar
• Shizhu , W. and Yongbin , Z. , “ Prevention of Film Slippage in Isothermal Pure Rolling Line Contact Elastohydrodynamic Lubrication Under Heavy Load ,” ASME Jour. of Trib. , paper no. 1060 P/al ( 1998 ).
   Google Scholar
• Yongbin , Z. and Shizhu , W. , “ Film Thickness Limitation in Pure Rolling Line Contact EHL Due to the Lubricant Rheology ,” ASME Jour. of Trib. , paper no. 258 P/al ( 1999 ).
   Google Scholar
• Smith , F. W. , “ Lubricant Behavior in Concentrated Contacts — Some Rheological Problems ,” ASLE Trans. , 3 , pp 18 – 25 ( 1960 ).
   Google Scholar
• Paul , G. R. and Cameron , A. , “ The Ultimate Shear Stress of Fluids at High Pressures Measured By a Modified Impact Microviscometer ,” in Proc. Roy. Soc. Lond. , A. 365 , pp 31 – 41 ( 1979 ).
   Google Scholar
• Bair , S. and Winer , W. O. , “ The High Pressure High Shear Stress Rheology of Liquid Lubricants ,” ASME Jour. of Trib. , 114 , p 1 , ( 1992 ).
   Web of Science ®Google Scholar
• Evans , C. R. and Johnson , K. L. , “ The Rheological Properties of Elastohydrodynamic Lubricants ,” in Proc. Inst. Med. Engrs. , 200 , pp 303 – 312 ( 1986 ).
   Web of Science ®Google Scholar
• Bair , S. and Winer , W. O. , “ A Rheological Model of Elastohydrodynamic Contacts Based On Primary Laboratory Data ,” ASME Jour. of Lubr. Tech. , 101 , pp 258 – 265 ( 1979 ).
   Web of Science ®Google Scholar
• Greenwood , J. A. and Kauzlarich , J. J. , “ Elastohydrodynamic Film Thickness for Shear-Thinning Lubricants ,” in Proc. Inst. Mech. Engrs. , 212 , pp 179 – 191 ( 1998 ).
   Web of Science ®Google Scholar
• Gecim , B. and Winer , W. O. , “ Lubricant Limiting Shear Stress Effect on EHL Film Thickness ,” ASME Jour. of Lubr. Tech. , 102 , pp 213 – 221 ( 1980 ).
   Google Scholar
• Hoglund , E. and Jacobson , B. , “ Experimental Investigation of the Shear Strength of Lubricants Subjected to High Pressure and Temperature ,” ASME Jour. of Trib. , 108 , pp 571 – 578 ( 1986 ).
   Web of Science ®Google Scholar
• Patching , M. J. , Kweh , C. C. , Evans , H. P. and Snidle , R. W. , “ Conditions for Scuffing Failure of Ground an Superfinished Steel Disks at High Sliding Speeds Using a Gas Turbine Engine Oil ,” ASME Jour. of Trib. , 117 , pp 482 – 489 ( 1995 ).
   Web of Science ®Google Scholar
• Wu , C. W. , et al., “ Parametric Variational Principle of Viscoplastic Lubrication Model ,” ASME Jour. of Trib. , 114 , pp 731 – 735 ( 1992 ).
   Web of Science ®Google Scholar
• Huang , X. B. and Wilson , W. R. D. , “ Theory of Viscoplastic Lubrication: Part I — Basic Relationships ,” ASME Jour. of Trib. , 114 , pp 469 – 483 ( 1992 ).
   Web of Science ®Google Scholar
• Bair , S. and Winer , W. O. , “ The High Shear Stress Rheology of Liquid Lubricants at Pressures of 2 to 200 MPa ,” ASME Jour. of Trib. , 112 , pp 246 – 253 ( 1990 ).
   Web of Science ®Google Scholar
• Evans , C. R. and Johnson , K. L. , “ The Rheological Properties of Elastohydrodynamic Lubricants ,” in Proc. Instn. Mech. Engrs. , 200 , pp 303 – 312 ( 1986 ).
   Web of Science ®Google Scholar
• Jacobson , B. O. , “ On the Lubrication of Heavily Loaded Cylindrical Surfaces Considering Surface Deformations and Solidification of the Lubricant ,” ASME Jour. of Lubr. Tech. , 95 , pp 321 – 329 ( 1973 ).
   Google Scholar
• Lee , R. T. and Hamrock , B. J. , “ A Circular Non-Newtonian Fluid Model: Part 1 — Used in EHL ,” ASME Jour. of Trib. , 112 , p 486 , ( 1990 ).
   Web of Science ®Google Scholar
• Yongbin , Z. , Shizhu , W. and Damping , W. , “ About the Load-Carrying Capacity of Elastohydrodynamic Lubrication Film ,” Trib. Trans. , 44 , pp 1 – 10 ( 2001 ).
   Web of Science ®Google Scholar
• Johnson , K. L. and Tevaarwerk , J. L. , “ Shear Behavior of Elastohydrodynamic Oil Films ,” in Proc. Roy. Soc. London , 356 , Ser. A, pp 215 – 236 ( 1977 ).
   Google Scholar
• Conry , T. F. , Wang , S. and Cusano , C. , “ A Reynolds-Eyring Equation for Elastohydrodynamic Lubrication in Line Contacts ,” ASME Jour. of Trib. , 109 , pp 648 – 658 ( 1987 ).
   Web of Science ®Google Scholar
• Shizhu , W. and Peiran , Y. , Elastohydrodynamic Lubrication , Tsinghua University Press , Beijing , ( 1990 ) (in English).
   Google Scholar
• Greenwood , J. A. and Kauzlarich , J. J. , “ Inlet Shear Heating in Elastohydrodynamic Lubrication ,” ASME Jour. of Lubr. Tech. , 95 , pp 417 – 425 ( 1973 ).
   Google Scholar
• Chiu , V. P. , “ An Analysis and Prediction of Lubricant Film Starvation in Rolling Contact Systems ,” ASLE Trans. , 17 , pp 22 – 35 ( 1974 ).
   Web of Science ®Google Scholar
• Chang , L. , Jackson , A. and Webster , M. N. , “ Effects of 3-D Surface Topography on the EHL Film Thickness and Film Breakdown ,” Trib. Trans. , 37 , pp 435 – 444 ( 1994 ).
   Web of Science ®Google Scholar
• Murch , L. F. and Wilson , W. R. D. , “ A Thermal Elastohydrodynamic Inlet Zone Analysis ,” ASME Jour. of Lubr. Tech. , pp 212 – 216 ( 1975 ).
   Google Scholar
• Parker , R. J. and Kannel , J. W. , NASA TND-6411 , ( 1971 ).
   Google Scholar
• Spikes , H. A. and Cameron , A. , “ Scuffing as a Desorption Process — An Explanation of the Borsoff Effect ,” ASLE Trans. , 17 , pp 92 – 96 ( 1974 ).
   Google Scholar
• Dyson , A. and Wilson , A. R. , “ Film Thickness in Elastohydrodynamic Lubrication by Silicone Fluids ,” in Proc. Inst. Mech. Engrs. , 180 , Part 3, K, p 119 , ( 1965–1966 ).
   Google Scholar
• Coy , J. J. and Zaretsky , E. V. , “ Some Limitations in Applying Classical EHD Film Thickness Formula to High-Speed Bearing ,” ASME Jour. of Lubr. Tech. , 103 , p 295 , ( 1981 ).
   Google Scholar
• Chang , L. and Zhao , V. , “ Fundamental Differences Between Newtonian and Non-Newtonian Micro-EHL Results ,” ASME Jour. of Trib. , 117 , pp 29 – 35 ( 1995 ).
   Web of Science ®Google Scholar