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Effects of tensile elastic pre-deformation at different strain rates on the high-cycle fatigue behavior of SAE 1050 steel and fatigue life prediction

Published online by Cambridge University Press:  30 August 2016

Zhenyu Zhu ,
Guangze Dai ,
Junwen Zhao ,
Hechuan Zhang ,
Lei Xu  and
Qingsong Zhang
Zhenyu Zhu
Affiliation:
School of Materials Science and Engineering, Southwest Jiaotong University, Chengdu, Sichuan 610031, People's Republic of China
Guangze Dai*
Affiliation:
School of Materials Science and Engineering, Southwest Jiaotong University, Chengdu, Sichuan 610031, People's Republic of China
Junwen Zhao
Affiliation:
School of Materials Science and Engineering, Southwest Jiaotong University, Chengdu, Sichuan 610031, People's Republic of China
Hechuan Zhang
Affiliation:
First Geological Environment Survey Institute of Bureau of Geological and Mineral Resource Prospecting & Development of Henan Province, Zhengzhou, Henan 450001, People's Republic of China
Lei Xu
Affiliation:
School of Materials Science and Engineering, Xihua University, Chengdu, Sichuan 610039, People's Republic of China
Qingsong Zhang
Affiliation:
School of Materials Science and Engineering, Southwest Jiaotong University, Chengdu, Sichuan 610031, People's Republic of China
*
a) Address all correspondence to this author. e-mail: [email protected]
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Abstract

A series of characterization tests were performed to elucidate the high-cycle fatigue (HCF) behavior in SAE 1050 steel subjected to tensile elastic pre-deformation at different strain rates. In the pre-strained stage, the deformation was maintained constant at 0.16%, which was close to the low yield point at strain rates ranging from 10−5 s−1 to 10−2 s−1. Although pre-deformation occurred entirely in the elastic regime, using different pre-straining rates resulted in the occurrence of heterogeneous microscopic strain at different sites and locations during subsequent fatigue tests. It was found that the effect of pre-straining rate on crack initiation and crack propagation was not monotonous and was influenced by the homogeneity of deformation within grain boundaries, the integrity of the boundary structure, and the fracture toughness. In addition, the rough set theory model was introduced for the attribute reduction of characteristic parameters and provided a scientific basis to establish the fatigue model. The model was able to effectively predict the lifetime of the process of HCF in pre-strained steel. Hence, the pre-straining rate should be an important boundary condition in further studies.

Keywords

pre-straining ratehigh-cycle fatiguemicroscopic plastic strainrough setsfatigue model
Type
Articles
Information
Journal of Materials Research , Volume 31 , Issue 18: Focus Section: Reinventing Boron Chemistry for the 21st Century , 28 September 2016 , pp. 2825 - 2837
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Copyright
Copyright © Materials Research Society 2016 

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References

REFERENCES

Hamada, A.S., Karjalainen, L.P., and Puustinen, J.: Fatigue behavior of high-Mn TWIP steels. Mater. Sci. Eng., A 517, 68 (2009).Google Scholar
Schilke, M., Ahlström, J., and Karlsson, B.: Low cycle fatigue and deformation behaviour of austenitic manganese steel in rolled and in as-cast conditions. Procedia Eng. 2, 623 (2010).CrossRefGoogle Scholar
Pérez-Mora, R., Palin-Luc, T., Bathias, C., and Paris, P.C.: Very high cycle fatigue of a high strength steel under sea water corrosion: A strong corrosion and mechanical damage coupling. Int. J. Fatigue 74, 156 (2015).Google Scholar
Makita, T. and Brhwiler, E.: Damage models for UHPFRC and R-UHPFRC tensile fatigue behavior. Eng. Struct. 90, 61 (2015).Google Scholar
Gaier, C., Unger, B., and Dannbauer, H.: Multiaxial fatigue analysis of orthotropic materials. Rev. Metall. 107, 369 (2010).CrossRefGoogle Scholar
Umezawa, O. and Nagai, K.: Subsurface crack generation in high-cycle fatigue for high strength alloys. ISIJ Int. 37, 1170 (1997).Google Scholar
Šmida, T. and Bošanský, J.: Deformation twinning and its possible influence on the ductile brittle transition temperature of ferritic steels. Mater. Sci. Eng., A 287, 107 (2000).Google Scholar
Zener, C.: Fracturing of Metals (ASM, Metals Park, OH, 1948); p. 3.Google Scholar
Biggs, W.D. and Pratt, P.L.: The deformation and fracture of alpha-iron at low temperatures. Acta Metall. 6, 694 (1958).CrossRefGoogle Scholar
Hull, D.: Twinning and fracture of single crystals of 3% silicon iron. Acta Metall. 8, 11 (1960).Google Scholar
Hull, D.: Effect of grain size and temperature on slip, twinning and fracture in 3% silicon iron. Acta Metall. 9, 191 (1961).CrossRefGoogle Scholar
Ogawa, K.: Edge dislocations dissociated in {112} planes and twinning mechanism of b.c.c. metals. Philos. Mag. 11, 217 (1965).Google Scholar
Griffiths, J.R. and Owen, D.R.J.: An elastic-plastic stress analysis for a notched bar in plane strain bending. J. Mech. Phys. Solids 19, 419 (1971).CrossRefGoogle Scholar
Hahn, G.T.: On influence of microstructure on brittle fracture toughness. Metall. Trans. A 15A, 947 (1984).Google Scholar
Chen, J.H., Wang, G.Z., and Ma, H.: Fracture behavior of C-Mn steel and weld metal in notched and precracked specimens: Part II. Micromechanism of fracture. Metall. Trans. A 21A, 321 (1990).Google Scholar
Moćko, W.: Application of austenitic steels in energy absorbing structures. J. KONES 19, 305 (2012).Google Scholar
Moćko, W. and Kowalewski, Z.L.: Application of FEM in assessments of phenomena associated with dynamic investigations on miniaturised DICT. Kovove Mater. 51, 71 (2013).CrossRefGoogle Scholar
Moćko, W. and Kowalewski, Z.L.: Dynamic Compression tests-current achievements and future development. Eng. Trans. 59, 235 (2011).Google Scholar
Moćko, W., Rodriguez-Martinez, J.A., Kowalewski, Z.L., and Rusinek, A.: Compressive viscoplastic response of 6082-T6 and 7075-T6 aluminium alloys under wide range of strain rate at room temperature: Experiments and modelling. Strain 48, 498 (2012).Google Scholar
Al-Rubaie, K.S., Del-Grande, M.A., Travessa, D.N., and Cardoso, K.R.: Effect of pre-strain on the fatigue life of 7050-T7451 aluminium alloy. Mater. Sci. Eng., A 464, 141 (2007).Google Scholar
Lanning, D.B., Nicholas, T., and Haritos, G.: Effect of plastic prestrain on high cycle fatigue of Ti-6Al-4V. Mech. Mater. 34, 127 (2002).Google Scholar
Uemura, T.: A fatigue life estimation of specimens excessively prestrained in tension. Fatigue Fract. Eng. Mater. Struct. 21, 151 (1998).Google Scholar
Gustavwn, A. and Melander, A.: Fatigue of a highly prestrained dualphase sheet steel. Fatigue Fract. Eng. Mater. Struct. 18, 201 (1995).CrossRefGoogle Scholar
Wang, G.S.: Effect of local plastic stretch on total fatigue life evaluation. In Proceedings of the 15th European Conference of Fracture (Ecf15 Stockholm, Stockholm, 2004).Google Scholar
Arora, P. and Raghavan, M.: Effect of tensile prestrain on fatigue strength of aluminium alloy in high cycle fatigue. J. Eng. Mater. Technol. 95, 76 (1973).CrossRefGoogle Scholar
Froustey, C. and Lataillade, J.L.: Influence of large pre-straining of aluminium alloys on their residual fatigue resistance. Int. J. Fatigue 30, 908 (2008).Google Scholar
Ghammouri, M., Abbadi, M., and Mendez, J.: The effect of cyclic prestraining on the fatigue life and the microstructural evolution of fatigued copper polycrystals. Int. J. Fatigue 56, 130 (2013).Google Scholar
Biermann, H., Beyer, G., and Mughrabi, H.: Low-cycle fatigue of a metal-matrix composite: Influence of pre-straining on the fatigue life. Mater. Sci. Eng., A 234–236, 198 (1997).Google Scholar
An, X.H., Wu, S.D., Wang, Z.G., and Zhang, Z.F.: Enhanced cyclic deformation responses of ultrafine-grained Cu and nanocrystalline Cu-Al alloys. Acta Mater. 74, 200 (2014).Google Scholar
An, X.H., Lin, Q.Y., Wu, S.D., and Zhang, Z.F.: Improved fatigue strengths of nanocrystalline Cu and Cu-Al alloys. Mater. Res. Lett. 3, 135 (2015).Google Scholar
Gelmedin, D. and Lang, K.: Fatigue behaviour of the superalloy IN 713C under LCF-, HCF- and superimposed LCF/HCF-loading. Procedia Eng. 2, 1343 (2010).Google Scholar
Wu, H., Hamada, S., and Noguchi, H.: Pre-strain effect on fatigue strength characteristics of SUH660 plain specimens. Int. J. Fatigue 55, 291 (2013).CrossRefGoogle Scholar
Wang, B., Zhang, Z.J., Shao, C.W., Duan, Q.Q., Pang, J.C., Yang, H.J., Li, X.W., and Zhang, Z.F.: Improving the high-cycle fatigue lives of Fe–30Mn–0.9C twinning-induced plasticity steel through pre-straining. Metall. Mater. Trans. A 46, 3317 (2015).CrossRefGoogle Scholar
Pawlak, Z.: Rough sets. Int. J. Comput. Inf. Sci. 11, 341 (1982).Google Scholar
Tsuchida, N., Masuda, H., Harada, Y., Fukaura, K., Tomota, Y., and Nagai, K.: Effect of ferrite grain size on tensile deformation of a ferrite–cementite low carbon steel. Mater. Sci. Eng., A 488, 446 (2008).Google Scholar
Lee, W.S. and Liu, C.Y.: The effect of temperature and strain rate on the dynamic flow behaviour of different steels. Mater. Sci. Eng., A 426, 101 (2006).Google Scholar
Itabashi, M. and Kawata, K.: Carbon content on high-strain-rate tensile properties for carbon steels. Int. J. Impact Eng. 24, 117 (2000).Google Scholar
Polak, J.: Models of fatigue crack initiation. Kovové Materiály 36, 171 (1998).Google Scholar
Srinivasan, V.S., Sandhya, R., Bhanu Sankara Rao, K., Mannan, S.L., and Raghavan, K.S.: Effects of temperature on the low cycle fatigue behaviour of nitrogen alloyed type 316L stainless steel. Int. J. Fatigue 13, 471 (1991).Google Scholar
Bendstra, J.P., Koss, D.A., Geltmacher, A., Matic, P., and Everett, R.K.: Modeling void coalescence during ductile fracture of a steel. Mater. Sci. Eng., A 366, 269 (2004).Google Scholar
Van Stone, R.H., Cox, T.B., Low, J.R., and Psioda, J.A.: Microstructural aspects of fracture by dimpled rupture. Int. Mater. Rev. 30, 157 (1985).Google Scholar
Luo, Y.R., Huang, C.X., Tian, R.H., and Wang, Q.Y.: Effects of strain rate on low cycle fatigue behaviors of high-strength structural steel. J. Iron Steel Res. Int. 20, 50 (2013).CrossRefGoogle Scholar
Zhang, P., Zhu, Q., Hu, C., Wang, C.J., Chen, G., and Qin, H.Y.: Cyclic deformation behavior of a nickel-base superalloy under fatigue loading. Mater. Des. 69, 12 (2015).CrossRefGoogle Scholar
Ye, D.Y., Xu, Y.D., Xiao, L., and Cha, H.B.: Effects of low-cycle fatigue on static mechanical properties, microstructures and fracture behavior of 304 stainless steel. Mater. Sci. Eng., A 527, 4092 (2010).Google Scholar
Sandor, B.I.: Fundamentals of Cyclic Stress and Strain (The University of Wisconsin Press, Ltd, Madison, 1972).Google Scholar
Cheng, S., Zhao, Y., Wang, Y., Li, Y., Wang, X.L., Liaw, P.K., and Lavernia, E.J.: Structure modulation driven by cyclic deformation in nanocrystalline NiFe. Phys. Rev. Lett. 104, 255501 (2010).Google Scholar
Guo, Q., Chun, Y.S., Lee, J.H., Heo, Y.U., and Lee, C.S.: Enhanced low-cycle fatigue life by pre-straining in an Fe–17Mn–0.8C twinning induced plasticity steel. Met. Mater. Int. 20, 1043 (2014).Google Scholar
Liu, R., Zhang, Z.J., Zhang, P., and Zhang, Z.F.: Extremely-low-cycle fatigue behaviors of Cu and Cu-Al alloys: Damage mechanisms and life prediction. Acta Mater. 83, 341 (2015).Google Scholar
Huang, J.Y., Zhu, Y.T., Jiang, H., and Lowe, T.C.: Microstructures and dislocation configurations in nanostructured Cu processed by repetitive corrugation and straightening. Acta Mater. 49, 1497 (2001).Google Scholar
Tucker, G.J. and McDowell, D.L.: Non-equilibrium grain boundary structure and inelastic deformation using atomistic simulations. Int. J. Plast. 27, 841 (2011).Google Scholar
An, X.H., Lin, Q.Y., Wu, S.D., and Zhang, Z.F.: Mechanically driven annealing twinning induced by cyclic deformation in nanocrystalline Cu. Scr. Mater. 68, 988 (2013).Google Scholar
Lage, Y., Cachão, H., Reis, L., Fonte, M., De Freitas, M., and Ribeiro, A.: A damage parameter for HCF and VHCF based on hysteretic damping. Int. J. Fatigue 62, 2 (2014).Google Scholar
Firstov, S.A., Danilenko, N.I., Kopylov, V.I., and Podrezov, Y.N.: Structural changes in iron upon large plastic deformations and their influence on the complex of its mechanical properties. Russ. Phys. J. 45, 251 (2002).Google Scholar
Danylenko, M., Podrezov, Yu., and Firstov, S.: Effect of dislocation structure on fracture toughness of strained BCC-metals. Theor. Appl. Fract. Mech. 32, 9 (1999).Google Scholar
Li, Y., Aubin, V., Rey, C., and Bompard, P.: Microstructural modeling of fatigue crack initiation in austenitic steel 304L. Procedia Eng. 31, 541 (2012).Google Scholar
Degrieck, J. and Paepegem, W.V.: Fatigue damage modelling of fiber-reinforced composite materials: Review. Appl. Mech. Rev. 54, 279 (2001).CrossRefGoogle Scholar