Static Recrystallization of Austenite in a Medium-Carbon Vanadium Microalloyed Steel and Inhibition by Strain-Induced Precipitates


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The austenite static recrystallization kinetics at several temperatures and the recrystallization-precipitation-time- temperature (RPTT) diagrams of a medium-carbon vanadium microalloyed steel have been determined for a strain ε = 0.35. Unlike many other studies carried out previously on V microalloyed steels, the recrystallized fraction against time curves showed the formation of a double plateau that indicates two stages of inhibition of recrystallization due to the formation of different types of strain induced precipitates. This work makes use of transmission electron microscopy to study the nature and size distribution of these precipitates capable of inhibiting recrystallization. The values of driving and pinning forces for static recrystallization are calculated and an analysis of the relationship between the net balance of these forces, the precipitation state and the progress or inhibition of the recrystallization is accomplished. A value of driving force that decreases as recrystallized fraction grows during isothermal holding time is estimated and helps to interpret the behavior of austenite after deformation.



Edited by:

P. B. Prangnell and P. S. Bate




M. Gómez et al., "Static Recrystallization of Austenite in a Medium-Carbon Vanadium Microalloyed Steel and Inhibition by Strain-Induced Precipitates", Materials Science Forum, Vol. 550, pp. 417-422, 2007

Online since:

July 2007




[1] F. H. Samuel. S. Yue, J. J. Jonas and B. A. Zbinden: ISIJ Int., Vol. 29 (1989), p.878.

[2] S. F. Medina, A. Quispe. ISIJ Int., Vol. 41 (2001), p.774.

[3] S. F. Medina, A. Quispe, P. Valles and J. L. Baños. ISIJ Int. Vol. 39 (1999), 9, p.913.

[4] A. Quispe, S. F. Medina, P. Valles. ISIJ Int. Vol. 37 (1997), 8, p.783.

[5] M. Gómez, S.F. Medina. Mater. Sci. Forum Vol. 500-501 (2005) p.147.

[6] A. Beck and P.R. Sperry: Journal of Applied Physics, Vol. 25 (1950), p.150.

[7] A.S. Keh: Direct Observations of Imperfections in Crystals (J.B. Newkirk and J.H. Wernick, eds. Wiley-Interscience, New York, 1962), p.213.

[8] C.S. Smith: Trans. AIME Vol. 175 (1948), p.15. (Ref. 24).

[9] T. Gladman: Proc. Royal Society Vol. 294 (1966), p.298.

[10] . M. Arribas, B. López, J.M. Rodriguez-Ibabe. Mater. Sci. Forum Vol. 500-501 (2005) p.131.

[11] M.F. Ashby, R. Ebeling: Trans. AIME, Vol. 236 (1966), p.1396.

[12] H.L. Andrade, M.G. Akben and J.J. Jonas: Metall. Trans. Vol. 14A (1983), p. (1967).

[13] A. Faessel: Rev. Metall. CIT Vol. 33 (1976), p.875.

[14] E.T. Turkdogan: Trans. ISS Vol. 3 (1989), p.61.

[15] M. Gómez, S.F. Medina, P. Valles and A. Quispe. Mater. Sci. Forum Vol. 480-481 (2005) p.489.

[16] S. G. Hong, K. B. Kang and C. G. Park. Scripta Materialia Vol. 46 (2002), 2, p.163.

[17] H.S. Zurob, C.R. Hutchinson, Y. Brechet, G.R. Purdy. Mater. Sci. Eng. Vol. 382A (2004) p.64.

[18] W. B. Pearson. A Handbook of lattice spacings and structures of metals and alloys (Pergamon Press 1958).

[19] E. J. Palmiere, C. I. Garcia, A. J. DeArdo. ISS of A.I.M.E., Warrendale, PA (1992) p.113.

[20] B. Dutta, E.J. Palmiere and C.M. Sellars: Acta Mater. Vol. 49 (2001), p.785.