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HomeKey Engineering MaterialsKey Engineering Materials Vols. 378-379Fatigue Crack Growth Resistance of Special Nodular...

Fatigue Crack Growth Resistance of Special Nodular Cast Irons

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Abstract:

The strength and fatigue crack growth resistance (FCGR) of ferritic, pearlitic and austenitic nodular cast irons (NCIs), recommended to be used in structural components working at low (up to –60 °C), cryogenic (below –60 °C) and elevated (450 °C) temperatures, are analysed. The influence of the manganese content and the strain-induced martensite transformation on FCGR of the austenitic NCIs is shown. An admissible phosphorus content for the optimum wear resistance and FCGR is determined. The strength and FCGR of the NCIs and corresponding rolled steels are compared.

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Advances in Understanding the Fatigue Behavior of Materials

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Periodical:

Key Engineering Materials (Volumes 378-379)

Pages:

53-64

DOI:

https://doi.org/10.4028/www.scientific.net/KEM.378-379.53

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Online since:

March 2008

Authors:

O.P. Ostash, I.M. Andreiko

Keywords:

Cold-Resistant Alloy, Crack Growth Rate, Cryogenic Behaviour, Fatigue, Nodular Cast Iron, Phosphorous Cast Iron

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© 2008 Trans Tech Publications Ltd. All Rights Reserved

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[1] R.N. Сastillo and T.Y. Baker, in: Advances in Fracture Research, Pergamon Press, New Dehli, Vol. 3 (1984), p. (2057).

[2] O.P. Ostash, Ye.M. Kostyk and I.M. Andreiko: Material Science, Vol. 33, №3 (1997), p.315.

[3] O.P. Ostash and I.M. Andreiko: Materials Science, Vol. 37, №1 (2001), p.65.

[4] T.C. Lindley, C.E. Richards and R.O. Ritchie: Metallurgia and Metal Forming, Vol. 43 (1976), p.268.

[5] W. Elber: Engng. Fract. Mech., Vol. 2 (1970), p.37.

[6] О.N. Romaniv and А. N. Tkach: Soviet Materials Science, Vol. 23, №5 (1987), p.411.

[7] A.G. Fuller: AFS Transactions, Vol. 88 (1980), p.751.

[8] J. K. Ruff and K. Barel: Modern casting, № 7 (1980), p.70.

[9] A. Le Dougron, R. Lafont and D. Poulain in: Adv. Fract. Res. Prep. 5th Int. Conf. Fract., Oxford, Vol. 1 (1981), p.255.

[10] I.M. Andreiko, H.I. Slyn'ko, O.P. Ostash and I.P. Volchok: Materials Science, Vol. 36, №6 (2000), p.849.

[11] О.N. Romaniv, А.N. Tkach, T. Ya. Yusjkiv, V.I. Ovchinnikov and V.A. Sharkov: Soviet Materials Science, Vol. 26, № 3 (1990), p.240.

[12] O.P. Ostash, Ye.M. Kostyk, I.M. Andreiko and M.M. Dronyuk: Materials Science, Vol. 33, №1 (1997), p.51.

[13] A. Ya. Krasovskiy and V. V. Kalayda, in: Strength and Crack Growth Resistance of Cast-irons with a Spherical Graphite, Naukova Dumka, Kyiv (1989), 136 p. (in Russian).

[14] О.N. Romaniv, А.N. Tkach, T. Ya. Yusjkiv, V.I. Ovchinnikov and V.A. Sharkov: Soviet Materials Science, Vol. 25, № 4 (1989), p.387.

[15] Y. Sugiyama, K. Asami and H. Kuroiwa: Trans. Jap. Soc. Mech. Eng., A56 (1990), p.482.

[16] Ji-Liang Doong, Jiun-Ren Hwang and Hsing-Shih Chen: J. Mater. Sci., Vol. 21 (1986), p.871.

[17] Y. Hirose, Z. Yajima and K. Tanaka in: Mech. Behav. Mater., Proc. 5th Int. Conf, Oxford etc., Vol. 1 (1988), p.551.

[18] P. Clement, J. P. Angeli and A. Pineau: Fatigue Fract. Engng. Mater. Struct., Vol. 7 (1984), p.251.

[19] T. Luyendijk and H. Nieswaag in: Solidification Technol. Foundry and Cast House, London, (1983), p.569.

[20] E. Hornbogen: J. Mater. Sci., Vol. 20 (1985), p.3897.

[21] O.P. Ostash, M.M. Dronyuk, I.M. Andreiko and Ye.M. Kostyk: Materials Science, Vol. 32, №6 (1996), p.699.

[22] O.P. Ostash and V.T. Zhmur-Klymenko: Soviet Materials Science, Vol. 23, № 2 (1987), p.127.

[23] O.P. Ostash, V.T. Zhmur-Klymenko, Ye.M. Kostyk and A.B. Kunovskiy: Soviet Materials Science, Vol. 23, № 3 (1987), p.265.

[24] T. Ogawa, H. Kabayashi, T. Keide et al.: Trans. Jap. Soc. Mech. Eng., A51 (1985), p.1660.

[25] D. J. Bulloch and J. H. Bulloch: Int. J. Pressure Vessels and Pip., Vol. 36 (1989), p.289.

[26] O.P. Ostash, I.M. Andreiko, A. A Scheiko and B.G. Zeleniy: Casting Processes, № 2 (1997), p.187.

[27] O.P. Ostash and V.T. Zhmur-Klymenko: Soviet Materials Science, Vol. 21, №1 (1985), p.45.

[28] O.P. Ostash, V.T. Zhmur-Klymenko and L.P. Strok: Soviet Materials Science, Vol. 19, № 2 (1983), p.153.

[29] O.P. Ostash, A.F. Degtyarev and A.B. Kunovskiy: Soviet Materials Science, Vol. 27, №2 (1991), p.157.

[30] Fatigue and Fracture - ASM Handbook. - Materials Information Society (ASM International), USA, Vol. 19 (1996), p.523.