Lubricant-Crack Interaction, Origin of Pitting, and Fatigue of Drivers and Followers

REFERENCES

• Blake , J. W. ( 1989 ), “ A Surface Pitting Life Model for Spur Gears. ” Ph.D. Dissertation, Northwestern University.
   Google Scholar
• Coy , J. J. , Townsend , D. P. and Zaretsky , E. V. ( 1976 ), “ Dynamic Capacity and Surface Fatigue Life for Spur and Helical Gears ,” ASME Jour, of Lubr. Tech. , 98 , pp 267 – 276
   Web of Science ®Google Scholar
• Datsyshyn , O. P. and Panasyuk , V. V. ( 2001 ), “ Pitting of the Rolling Bodies Contact Surface ,” Wear , 251 , pp 1347 – 1355
   Web of Science ®Google Scholar
• Galin , L. A. ( 1980 ), Contact Problems in Elasticity and Visco-Elasticity , “Nauka” Publishing , Moscow , Russia .
   Google Scholar
• Hamrock , B. J. ( 1991 ), Fundamentals of Fluid Film Lubrication , NASA Reference Publication 1225 , Cleveland , Ohio .
   Google Scholar
• Hoeprich , M. ( 2001 ), “ Analysis of Micropilting of Prototype Surface Fatigue Test Gear ,” Tribotest Jour. , 1 , 4 , pp 333 – 347
   Google Scholar
• Ioannides , S. and Harris , T. A. ( 1985 ), “ A New Fatigue Life Model for Rolling Bearings ,” ASME Jour. of Trib. , 107 , pp 367 – 378
   Web of Science ®Google Scholar
• Kaneta , M. , Yatsuzuka , H. and Murakami , Y. ( 1985 ), “ Mechanism of Crack Growth In Lubricated Rolling/Sliding Contact ,” ASLE Trans. , 28 , pp 407 – 414
   Web of Science ®Google Scholar
• Kaneta , M. , Murakami , Y. and Okazaki , T. ( 1986 ). “ Growth Mechanism of a Subsurface Crack Due to Hertzian Contact ,” ASME Jour. of Trib. , 108 , pp 134 – 139
   Google Scholar
• Kudish , I. I. ( 1984 ), “ Elastohydrodynamic Problem of the Lubrication Theory for Elastic Bodies with Cracks ,” Applied Mathematics and Mechanics , 48 , pp 799 – 808
   Google Scholar
• Kudish , I. I. ( 1986 ), “ Contact Problem of the Elasticity Theory for Bodies with Cracks.” Applied Mathematics and Mechanics , 50 , pp 1020 – 1033
   Google Scholar
• Kudish , I. I. ( 1986 ), “ On the Influence of Friction Stresses on the Fatigue Failure of Machine Elements ,” Soviet Jour, of Friction and Wear , 7 , pp 32 – 40
   Google Scholar
• Kudish , I. I. ( 1987 ), “ Contact Problem of the Theory of Elasticity for Prestressed Bodies with Cracks ,” Jour, of Applied Mechanics and Technical Physics , 28 , pp 144 – 152
   Google Scholar
• Kudish , I. I. ( 1990 ), “ Statistical Calculation of Rolling Bearing Wear and Pitting ,” Soviet Jour, of Friction and Wear , 11 , pp 71 – 86
   Google Scholar
• Kudish , I. I. ( 2000 ), “ A New Statistical Model of Contact Fatigue ,” Trib. Trans. , 43 , 711–721 .
   Google Scholar
• Kudish , I. I. and Burns , K. W. ( 2000 ), “ Modern State of Experimentation and Modeling in Contact Fatigue Phenomenon. Part I. Contact Fatigue Versus Normal and Tangential Contact and Residual Stresses. Nonmetallic Inclusions and Lubricant Contamination. Crack Initiation and Crack Propagation. Surface and Subsurface Cracks ,” Trib. Trans. , 43 , pp 187 – 196
   Web of Science ®Google Scholar
• Kudish , I. I. and Burns , K. W. ( 2000 ), “ Modern State of Experimentation and Modeling in Contact Fatigue Phenomenon. Part II. Analysis of the Existing Statistical Mathematical Models of Bearing and Gear Fatigue Life. New Statistical Model of Contact Fatigue. ” Trib. Trans. , 43 , pp 293 – 301
   Web of Science ®Google Scholar
• Kudish , I. I. ( 1985 ), “ Failure Mechanisms of Elastic Bodies with Cracks in the Presence of a Lubricant ,” Strength of Materials , 17 , pp 64 – 70
   Google Scholar
• Kudish , I. I. ( 1995 ), “ Surface and Subsurface Cracks and Pores with Liquid under Action of a Contact Load in the Presence of a Lubricant ,” Fracture Mechanics , 25 , ASTM STP 1220 , Erdogan , F. , ed. ASTM , Philadelphia , pp 606 – 621
   Google Scholar
• Lundberg , G. and Palmgren , A. ( 1947 ),“Dynamic Capacity of Rolling Bearings,” Acta Polytechnica (Mech. Eng. Ser. 1) , Royal Swedish Academy of Engineering Sciences , 7 , pp 5 – 32
   Google Scholar
• Murakami , Y. , Kaneta , M. and Yatsuzuka , H. ( 1985 ), “ Analysis of Surface Crack Propagation in Lubricated Rolling Contact ,” ASLE Trans. , 28 , pp 60 – 68
   Web of Science ®Google Scholar
• Murakami , Y. , Sakae , C. , Ichimaru , K. and Morita , T. ( 1997 ), “ Experimental and Fracture Mechanics Study of the Pit Formation Mechanism Under Repeated Lubricated Rolling-Sliding Contact: Effects of Reversal of Rotation and Change of the Driving Roller ,” ASME Jour. of Trib. , 119 , pp 788 – 796
   Google Scholar
• Nelias , D. , Dumont , M.-L. , Couhier , F. , Dudragne , G. and Flamand , L. ( 1998 ), “ Experimental and Theoretical Investigation on Rolling Contact Fatigue of 52100 and M50 Steels Under EHLand Micro-EHL Conditions ,” ASME Jour, of Trib. , 120 , pp 184 – 190
   Web of Science ®Google Scholar
• Panasyuk , V. V. , Datsyshin , O. P. and Marchenko , H. P. ( 1995 ), “ The Crack Propagation Theory under Rolling Contact ,” Eng. Fract. Mech. , 52 , 1 , pp 179 – 191
   Google Scholar
• Panasyuk , V. V. , Savruk , M. P. and Datsyshin , A. P. ( 1976 ), Stress Distribution Near Cracks in Plates and Shells. “Naukova Dumka” Publishing , Kiev , Ukraine .
   Google Scholar
• Tallinn , T. E. ( 1988 ), “ Rolling Bearing Life Prediction. Corrections for Material and Operating Conditions. Part 1: General Model and Basic Life ,” ASME Jour. of Trib. , 110 , pp 1 – 6
   Google Scholar
• Tallian , T. , Hoeprich , M. and Kudish , I. ( 2001 ), Author's Closure , Trib. Trans. , 44 , 2 , pp 153 – 155
   Web of Science ®Google Scholar
• Xu , Z.-Q. and Hsia , K. J. ( 1997 ), “ A Numerical Solution of a Surface Crack Under Cyclic Hydraulic Pressure Loading. ” ASME Jour. of Trib. , 119 , pp 637 – 645
   Google Scholar
• Yarema , S. Y. ( 1981 ), “ Methodology of Determination of Material Crack Resistance under Cyclic Loading ,” Physico-Chemical Mechanics of Materials , 4 , pp 100 – 111
   Google Scholar