Effects of inclusion and loading direction on the fatigue behavior of hot rolled low carbon steel

International Journal of Fatigue

Volumn 32, Issue 7, 2010, Pages 1116-1125

  Ma, Jin ^a   Zhang, Bo ^a   Xu, Daokui ^a,b   Han, En Hou ^a   Ke, Wei ^a  

^a INSTITUTE OF METAL RESEARCH   (China)

^b MONASH UNIVERSITY   (Australia)

Author keywords

Fatigue crack initiation; Fatigue limit prediction; Inclusions; Loading direction; Low carbon steel

Indexed keywords

CRACK INITIATION SITES; EMPIRICAL EQUATIONS; FATIGUE BEHAVIOR; FATIGUE CRACK INITIATION; FATIGUE LIFE; FATIGUE LIMIT; FATIGUE LIMIT PREDICTION; FATIGUE STRENGTH; HOT-ROLLED; LINEAR RELATIONSHIPS; LOADING ANGLE; LOADING DIRECTION; LOG-LOG PLOTS; MATRIX; PROJECTED AREA; ROLLING DIRECTION;

ANISOTROPY; CRACK INITIATION; CRACKS; FATIGUE CRACK PROPAGATION; FATIGUE OF MATERIALS; HOT ROLLING; INCLUSIONS; STRESS CORROSION CRACKING; SUPERCONDUCTING WIRE; ZINC PLATING;

LOW CARBON STEEL;

EID: 77949488603     PISSN: 01421123     EISSN: None     Source Type: Journal    
DOI: 10.1016/j.ijfatigue.2009.12.005     Document Type: Article

References (27)

1. Kaynak C., Ankara A., and Baker T.J. Initiation and early growth of short fatigue cracks at inclusions. Mater Sci Technol 12 5 (1996) 421-426
2. Kiessling R. In: IIschner B. (Ed). Nonmetallic inclusions and their effects on the properties of ferrous alloys. Encyclopedia of material: science and technology (2001), Elsevier Science Ltd. 6278-6283
3. Tanaka K., and Mura T. A theory of fatigue crack initiation at inclusions. Metall Trans A 13 (1982) 117-123
4. Lankford J., and Kusenberger F.N. Initiation of fatigue cracks in 4340 steel. Metall Trans A 4 (1973) 553-559
5. Lankford J. Inclusion-matrix debonding and fatigue crack initiation in low alloy steel. Int J Fract 12 (1976) 155-156
6. Chang R., Morris W.L., and Buck O. Fatigue crack nucleation at intermetallic particles in alloys-A dislocation pile-up model. Scripta Metall 13 (1979) 191-194
7. Morris W.L., and James M.R. Statistical aspects of fatigue crack nucleation from particles. Metall Trans A 11 (1980) 850-851
8. Temmel C., Karlsson B., and Ingesten N. Fatigue anisotropy in cross-rolled, hardened medium carbon steel resulting from MnS inclusions. Metall Mater Trans A 37a (2006) 2995-3007
9. Murakami Y. Metal fatigue: effects of small defects and nonmetallic inclusions (2002), Elsevier, Amsterdam & Boston
10. Kawada Y., and Kodama S. A review on the effect of nonmetallic inclusions on the fatigue strength of steels. J Jpn Soc Strength Fract Mater 6 (1971) 1-17
11. Murakami Y., Kodama S., and Konuma S. Quantitative evaluation of effects of nonmetallic inclusions on fatigue strength of high strength steels-parts I and II. Trans JSME 54 (1988) 291-298 p. 299-307
12. Cyril N., and Fatemi A. Experimental evaluation and modeling of sulfur content and anisotropy of sulfide inclusions on fatigue behavior of steels. Int J Fatigue 31 (2009) 526-537
13. Zhang L.F. Inclusion and bubble in steel - a review. J Iron Steel Res Int 13 3 (2006) 1-8
14. Narasaiah N., and Ray K.K. Small crack formation in a low carbon steel with banded ferrite-pearlite structure. Mater Sci Eng A 392 (2005) 269-277
15. Xu D.K., Liu L., Xu Y.B., and Han E.H. The micro-mechanism of fatigue crack propagation for a forged Mg-Zn-Y-Zr alloy in the gigacycle fatigue regime. J Alloys Compd 454 (2008) 123-128
16. Zhang M., Yang P.S., and Tan Y.X. Micromechanisms of fatigue crack nucleation and short crack growth in a low carbon steel under low cycle impact fatigue loading. Int J Fatigue 21 (1999) 823-830
17. Rios E.R., Mohamed H.J., and Miller K.J. A micro-mechanics analysis for short fatigue crack growth. Fatigue Fract Eng Mater Struct 8 (1985) 49-63
18. Brooksbank D. Thermal expansion of calcium-aluminate inclusions and relation to tessellated stresses. J Iron Steel Inst 208 (1970) 495-499
19. McDowell D.L., Gall K., Horstemeyer M.F., and Fan J. Microstructure-based fatigue modeling of cast A356-T6 alloy. Eng Fract Mech 70 (2003) 49-80
20. Hashimoto T.M., and Pereira M.S. Fatigue life studies in carbon dual-phase steels. Int J Fatigue 18 (1996) 529-533
21. Xu D.K., Liu L., Xu Y.B., and Han E.H. The fatigue behavior of I-phase containing as-cast Mg-Zn-Y-Zr alloy. Acta Mater 56 (2008) 985-994
22. Korda A.A., Mutoh Y., Miyashita Y., Sadasue T., and Mannan S.L. In situ observation of fatigue crack retardation in banded ferrite-pearlite microstructure due to crack branching. Scripta Mater 54 (2006) 1835-1840
23. Atkinson H.V., and Shi G. Characterization of inclusions in clean steels: a review including the statistics of extremes methods. Prog Mater Sci 48 (2003) 457-520
24. Shi D.K. In: Jin Z.H. (Ed). Mechanical property of materials (1998), Xi'an Jiaotong University Press 119 (in Chinese)
25. Frost N.E. A relation between the critical alternating propagation stress and crack length for mild steel. Proc Int Mech Eng 173 (1959) 811-827
26. Kobayashi H., and Nakazawa H. The effects of notch depth on the initiation propagation and non-propagation of fatigue cracks. Trans Jpn Soc Mech Eng Ser I 35 (1969) 1856-1863
27. Murakami Y., and Endo M. Effects of hardness and crack geometry on ΔKth of small cracks. J Soc Mater Sci Jpn 35 (1986) 911-917