Surface and subsurface cracks in rolling contact fatigue of hardened components

Tribology Transactions

Volumn 45, Issue 3, 2002, Pages 274-283

  Bormetti, E ^a   Donzella, G ^a   Mazzu A ^a  

^a UNIVERSITY OF BRESCIA   (Italy)

Author keywords

Crack propagation; Hardened components; Inclusions; Rolling contact fatigue

Indexed keywords

CRACK PROPAGATION; FATIGUE OF MATERIALS; HARDENING; HARDNESS; LUBRICATION; RHEOLOGY; STRESSES; LUBRICANTS; STRESS INTENSITY FACTORS;

HARDENED COMPONENTS; HARDNESS PROFILE; ROLLING CONTACT FATIGUE (RCF); THRESHOLD STRESS INTENSITY FACTOR;

MACHINE COMPONENTS; CRACK PROPAGATION;

SURFACE CRACKS;

CRACK PROPAGATION; CRACKING; ROLLING CONTACT; SURFACE FATIGUE; WEAR;

EID: 0036665691     PISSN: 10402004     EISSN: 1547397X     Source Type: Journal    
DOI: 10.1080/10402000208982550     Document Type: Article

References (38)

1. Adamini, R., Donzella, G. and La Vecchia, M. G., (2001), "Fatica da Coniallo di Camme Cemenlate e Nitrurate," in Proc. of 18th Convegno sui Trattanienti Termici, Rimini
2. Auclair, G., (1997), "Cleanliness Assessment: a Critical Review and a Real need to Predict Rolling Contact Fatigure Behaviour," in Proc. of S'h Int. Symp. on Bearing Steels. ASTM STP 978, New Orleans
3. Beghini, M., Bertini, L. and Montanari, V., (1999), "Weight Function for an Inclined Edge Crack in a Semiplane," Int. Jour, of Fracture, 00, pp 1-12
4. Benedetti, M., Fontanari, V., Osier, P. and Tobie, T. (2001)," Influence of Residual Stresses on Fatigue Behaviour of Surface Treated Gears," in Proc. of the XXX AIAS Conf., Atghero, pp 263-272
5. Benuzli, D., Bormetti, E. and Donzella, G. (2001). "Modelli Numerici per lo Studio della Propagazione di Cricche Superficiali da Rolling Contact Fatigue in Presenza di Fluido," in Proc. of the XXX AIAS Conf., Alghero, pp 293-303
6. Beretta, S., Clerici, P. and Guagliano, M. (1998), "Propagazione a fatica di microcricche in acciai cementati," XXVII Convegno Nazionalc AIAS, Perugia, pp 249-258
7. Bucher, E., Knothe, K. and Thelier, A. (2000), "Normal and Tangential Contact Problem of Surfaces with Measured Roughness," in Proc. of the 5th Int. Conf. in Contact Mechanics and Wear of Rail/Wheel Systems, Tokyo, pp 96-103
8. Cheng, W. W. and Cheng, H. S. (1997), "Semi-Analitical Modeling of Crack Initiation Dominant Contact Fatigue Life for Roller Bearings," Jour. Of Trib., 119, pp 233-240
9. Donzella, G., Mazzu, A., Pola, A. and Solazzi, L. (2000), "Una Procedura per il Calcolo della Pressione Limite di Componenti Induriti Superficialmente Soggetti a Fatica per Contatto," in Proc. of the XXIX AIAS Conf, Rimini, pp 407-416
10. Donzella, G., Mazzu, A. and Solazzi, L. (2001a), "Study of the Rolling Contact Fatigue in Lubricated Contacts," in Proc. of 2nd World Tribology Congress. Vienna
11. Donzella, G., Mazzu, A. and Solazzi, L. (2001b), "Subcase Crack Propagation Threshold and Microhardness Profile Influence in Rolling Contact Fatigue of Carburised Components," in Proc. of turb Int. Conf on Fracture, Honolulu USA
12. El Refaie, M. and Hailing, J. (1969),"An Experimental Study of the Apparent Area of Contact Under Nominally Hertzian Contact of Rough Surfaces," in Proc. of Tribology Convention 1969, lnsln. Mech. Eng., 183, pp 116-124
13. Fujita, K. and Yoshida, A., (1981), "Effect of Hardness Difference on the Surface Durability and Surface Failure of Steel Rollers," Wear, 67, pp 187-200
14. Glaeser, W. A. and Shaffer, S. J. (1996), "Contact Fatigue," ASM Handbook, p 19
15. Hellier, A. K., McGirr, M. B. and Corderoy, D. J. H. (1991), "A Finite Element and Fatigue Threshold Study of Shelling in Heavy Haul Rails," Wear, 144, pp 289-306
16. Hyde, R. S. (1996), "Contact Fatigue of Hardened Steel," ASM Handbook, p 19
17. Johnson, K. L. (1989), "The Strength of Surfaces in Rolling Contact" in Proc. Inst. Mech. Engrs., 203, pp 151-163
18. Kato, M., Deng, G., Inoue, K. and Takatsu, N. (1993). "Evaluation of the Strength of Carburized Spur Gear Teeth Based on Fracture Mechanics." JSME Int. Jour., Series C, 36, pp 233-240
19. Lunden, R. (1992). "Cracks in Railway Wheels under Rolling Contact Load," Ini. Wheeiset Congress, Sydney, pp 163-167
20. Melander, A. (1997) "A Finite Element Study of Short Cracks with Different Inclusion Types Under Rolling Contact Fatigue Load," int. Jour, of Fatigue. 19. Nl, pp 13-24
21. Melin, S. (1986), "When Does a Crack Grow under Mode II Conditions?," int. Jour, of Fracture, 30, pp 103-114
22. Miller, G. R., Kcer, L. M. and Cheng, H, S. (1985), "On the Mechanics of Fatigue Crack Growth Due to Contact Loading." in Proc. Roy. Soc. Lond. A. 397. pp 197-289
23. Moyer, C. A. (1996), "Fatigue and Life Prediction of Bearings."
24. Murakami, Y., Kaneta, M. and Yatsuzuka, H. (1983), "Analysis of Surface Crack Propagation in Lubricated Rolling Contact," ASLE Trans., 28, pp 60-68
25. Murakami, Y. and Endo, M. (1994), "Effects of Defects. Inclusions and Inhomogeneities on Fatigue Strength." Fatigue, 16, pp 163-182
26. 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," Trans, of the ASME, p 119
27. Murakami, Y., Sakae C. and Hamada S. (1999), "Mechanism of Rolling Contact Fatigue and Measurement of AK1Ilh for Steels," Engineering Against Fatigue, Beynon, et al. eds., A.A. Balkema Publishers, Rotterdam & Brookfield
28. Ndlias, D., Dumont, M. L., Champiot, F., Vincent, A., Girodin, D., Fougeres, R. and Flamand, L. (1999), "Role of Inclusions, Surface Roughness and Operating Conditions on Rolling Contact Fatigue." Trans of the ASME, 121, pp 240-251
29. Newman, J. C., Phillips, E. P. and Swain, M. H. (1999), "Fatigue-Life Prediction using Small-Crack Theory," int. Jour, of Fatigue, 21, pp 109-119
30. Oisuka, A., Sugawara, H. and Shomura, M. (1996), "A Test Method for Node II Fatigue Crack Growth Relating to a Model for Roiling Contact Fatigue," Fatigue Fract. Eng. Mater. Struct., 19, 10, pp 1265-1275
31. Pedersen, R. and Rice, S. L. (1960), "Case Crushing of Cariburised and Hardened Gears." SAE Trans., 68, pp 187-200
32. Pook, L. P. (1989),"The Significance of Mode 1 Branch Cracks for Mixed Mode Fatigue Crack Growth Threshold Behaviour." Biaxial and Multiaxial Fatigue, EGF3, Brown & Miller ed. Mechanical Engineering Publications
33. Roylance, B. J., Williams, J. A. and Dwyer-Joyce, R. (2000), "Wear Debris and Associated Wear Phenomena - Fundamental Research and Practice," in Proc. Inst. Mech. Engrs. 214. Part J
34. Sakae, C., Ohkomori, Y. and Murakami, Y. (1999), "Mode II Stress Intensity Factors for Spalling Cracks in Backup Roll." Internal Report, Kyushu University
35. Salehizadeh, H. and Saka, N. (1992). "Crack Propagation in Rolling Line Contacts," Jour. Of Trib., 114, pp 690-697
36. Sebara, J. and Berthe, D. (1987), "Influence of Surface Waviness and Roughness on the Normal Pressure Distribution in the Hertzian Contact," Trans, of the ASME, 109, pp 462- 470
37. Tallian, T. E., Chiu, Y. P. and Van Amerongen, E. (1978), "Prediction of Traction and Microgeometry Effects on Rolling Contact Fatigue Life," ASME Trans, 100, pp 156-166
38. Voskamp, P. (1998), "Fatigue and Material Response in Rolling Contact," Bearing Steel: Into the 21s' Century, ASTM 1327, pp 152-166