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Monotonic and Cyclic Behavior of Ultrafine Grain Metals:Overview

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Abstract:

The available to date experimental results are reviewed with regard to the common aspects and features of monotonic and cyclic stress-strain behavior of various ultra-fine grain materials produced by severe plastic deformation (SPD). Some possible mechanisms of plastic flow and degradation during monotonic and cyclic testing are discussed from the standpoint of initial SPD structure and its evolution upon loading. The role of two strengthening mechanisms – dislocation accumulation and grain reduction - is highlighted. The key importance of grain boundaries for the mechanical behavior, strain localization and fracture of ultra-fine grain metals is argued and the experimental evidence is presented on the significance of grain boundary sliding in their plastic deformation. The results of phenomenological modeling of the monotonic and cyclic response of ultra-fine grain metals are presented in terms of dislocation kinetics and a satisfactory agreement with experimental data is demonstrated.

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Periodical:

Materials Science Forum (Volumes 503-504)

Pages:

267-274

DOI:

https://doi.org/10.4028/www.scientific.net/MSF.503-504.267

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Online since:

January 2006

Authors:

Alexei Vinogradov

Keywords:

Deformation Mechanism, Grain Boundary, Grain Boundary Sliding (GBS)

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© 2006 Trans Tech Publications Ltd. All Rights Reserved

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References

[1] R.Z. Valiev, R.K. Islamgaliev and I.V. Alexandrov: Progress Mat Sci 45 (2000) 103.

Google Scholar

[2] H. Gleiter: Z. Metallk 86 (1995) 78.

Google Scholar

[3] F. Dalla Torre, R. Lapovok, J. Sandlin, P.F. Thomson, C.H.J. Davies and E.V. Pereloma: Acta mater 52 (2004) 4819.

DOI: 10.1016/j.actamat.2004.06.040

Google Scholar

[4] R.Z. Valiev: Nature Materials, 3 (2004) 511.

Google Scholar

[5] A. Vinogradov and S. Hashimoto: Mater Trans JIM 42 (2001) 74.

Google Scholar

[6] S.R. Agnew, A. Yu. Vinogradov, S. Hashimoto and J.R. Weertman: J. Electr Mater 28 ( 1999) 1038.

Google Scholar

[7] A. Vinogradov, Y. Suzuki, V.I. Kopylov, V. Patlan and K. Kitagawa: Acta metal 2002, 50, 1636.

Google Scholar

[8] A. Vinogradov, T. Ishida, K. Kitagawa and V.I. Kopylov: Acta metal (in press).

Google Scholar

[9] T. Suzuki, A. Vinogradov and S. Hashimoto: Mater Trans 45 (2004) 2200.

Google Scholar

[10] V. Patlan, A. Vinogradov, K. Higashi and K. Kitagawa: Mater Sci Eng A300 (2001) 171.

Google Scholar

[11] Vinogradov, A., V. Kopylov and S. Hashimoto: Mater Sci Eng A355 (2003) 277.

Google Scholar

[12] A. Vinogradov, V.V. Stolyarov, S. Hashimoto and R.Z. Valiev: Mater Sci Eng A318 (2001) 163.

Google Scholar

[13] Z.G. Wang, S.D. Wu, C.B. Jiang, S.M. Liu and I.V. Alexandrov: In Proc. of the 8th Int. Fatigue Congress, June 2002, Stockholm, Sweden; Blom, A.F., Ed.; EMAS, Sweden, Vol. 3 (2002) 1541.

Google Scholar

[14] S.D. Terhune, D.L. Swisher, K. Oh-Ishi, Z. Horita, T.G. Langdon and T.R. McNelley: Metal Mater Trans A 33 (2002) 2173.

DOI: 10.1007/s11661-002-0049-x

Google Scholar

[15] J.D. Morrow: in Internal Friction, Damping and Cyclic Plasticity, ASTM STP 378; 1965: 45.

Google Scholar

[16] S. Asano: J. Phys. Soc. Japan, 29 (1970) 952.

Google Scholar

[17] R.P. Skelton, H.J. Maier and H. -J. Christ: Mat. Sci. Eng. A238 91997) 377.

Google Scholar

[18] A. Vinogradov, Y. Kaneko, K. Kitagawa, S. Hashimoto, V. Stolyarov and R. Valiev: Scripta mater 36 ( 1997) 1345.

DOI: 10.1016/s1359-6462(97)00023-7

Google Scholar

[19] U. Essmann and H. Mughrabi: Phil. Mag. A, 40 (1979) 731.

Google Scholar

[20] H. Mughrabi: Revue Phys. Appl. 23 (1988) 367.

Google Scholar

[21] Y. Estrin and H. Mecking: Acta metal 32 (1984) 57.

Google Scholar

[22] H. Mughrabi and H.W. Höppel: in: MRS Proceedings, Vol. 634 (2001) B2. 1.

Google Scholar

[23] Y.M. Wang and E. Ma, Appl. Phys. Lett. 83 (2003) 3165.

Google Scholar

[24] A. Vinogradov and S.R. Agnew: Encyclopedia of Nanoscience and Nanotechnology, ed. by J.A. Schwarz, C. Contescu and K. Putyera, Marcel Dekker, Inc., USA, (2004) 2269.

Google Scholar

[25] P.E. Donovan and W.M. Stobbs: Acta metal 29 (1981) 1419.

Google Scholar