Evidence of Strain-Induced Precipitation on a Nb- and N-Bearing Austenitic Stainless Steel Biomaterial

E.J. Giordani; Alberto Moreira Jorge; O. Balancin

doi:10.4028/www.scientific.net/MSF.500-501.179

Paper Titles

Recrystallisation Driving and Pinning Forces during Hot Rolling of a Low Nb-Microalloyed Steel
p.147

Microstructural Evolution of Two Medium Carbon Microalloyed Steels during Hot Forging Process
p.155

Continuous Casting of Microalloyed Steels. Influence of Composition and Operational Parameters in Billet Surface Cracking
p.163

Mechanism of Microstructural Banding in Hot Rolled Microalloyed Steels
p.171

Evidence of Strain-Induced Precipitation on a Nb- and N-Bearing Austenitic Stainless Steel Biomaterial
p.179

Aspects of Production Hot Rolling of Nb Microalloyed High Al High Strength Steels
p.187

Modeling of the Resistance to Hot Deformation and the Effects of Microalloying in High-Al Steels under Industrial Conditions
p.195

Application of Deformation to Improve Hot Ductility in the Peritectic Steel
p.203

Problems Associated with Modeling Interpass Softening during Industrial Hot Strip Rolling
p.211

HomeMaterials Science ForumMaterials Science Forum Vols. 500-501Evidence of Strain-Induced Precipitation on a Nb-...

Evidence of Strain-Induced Precipitation on a Nb- and N-Bearing Austenitic Stainless Steel Biomaterial

Abstract:

Pilot-scale plate rolling experiments and laboratory thermomechanical processing experiments were carried out to understand the mechanism of microstructural banding in low-carbon microalloyed steels. The microstructural banding originates with large elongated austenite grains, which are present at the roughing stage of rolling. The large austenite grains develop when conditions favour abnormal grain growth during reheat and/or strain induced grain boundary migration (SIBM) in the first few rolling passes. Microstructural banding is eliminated by designing TMP schedules to avoid abnormal grain growth and SIBM.

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Periodical:

Materials Science Forum (Volumes 500-501)

Pages:

179-186

DOI:

https://doi.org/10.4028/www.scientific.net/MSF.500-501.179

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Online since:

November 2005

Authors:

E.J. Giordani, Alberto Moreira Jorge, O. Balancin

Keywords:

Austenitic Stainless Steel, Hot Torsion Test, ISO 5832-9, Metallic Biomaterial, Static Recrystallization

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References

[1] C. Örnhagen, J. -O. Nilsson and H. Vannevik.: Journal of Biomedical Materials Research Vol. 31 (1996), p.97.

Google Scholar

[2] International Organization for Standardization, Switzerland, 5832-9; Implants for surgery - Metallic materials - Part 9: Wrought high nitrogen stainless steel. Switzerland, 1992. 4p.

Google Scholar

[3] E. J. Giordani, V. A. Guimarães, T.B. Pinto and I. Ferreira: International Journal of Fatigue Vol. 26 (2004), p.1129.

Google Scholar

[4] A. N. Hughes, B. A. Jordan and S. Orman: Engineering in Medicine Vol. 7, (1978), p.135.

Google Scholar

[5] D. H. Jack and K. H. Jack: Journal of the Iron and Steel Institute Vol. 210, (1972), p.790.

Google Scholar

[6] M.C. Mataya, C.A. Perkins, S.W. Thompson and D. K. Matlock: Metallurgical and Materials Transactions A Vol. 27A (1996), p.1251.

Google Scholar

[7] A.M. Jorge Jr, W. Regone and O. Balancin: Journal of Materials Processing Technology Vol. 142 (2003), p.415.

Google Scholar

[8] D. Q. Bai, S. Yue, W. P. Sun and J. J. Jonas: Metallurgical Transactions A Vol. 24A (1993), p.2151.

Google Scholar

[9] L. N. Pussegoda and J. J. Jonas: ISIJ International Vol. 31 (1991), p.278.

Google Scholar