Recrystallization in oxide-dispersion strengthened mechanically alloyed sheet steel

Systematic annealing at temperatures between 1,300 C and 1,380 C was applied to sheets of INCOLOY MA-956, an oxide-dispersion strengthened (ODS), mechanically alloyed, iron-base steel containing (in mass percent) 20.8Cr, 5.0Al, 0.5Y{sub 2}O{sub 3}, and 0.5Ti. The billets, comprised of hot isostatica...

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Veröffentlicht in:Metallurgical Transactions, A A, 1996-07, Vol.27 (7), p.1945-1960
Hauptverfasser: Klug, R. C., Krauss, G., Matlock, D. K.
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container_end_page 1960
container_issue 7
container_start_page 1945
container_title Metallurgical Transactions, A
container_volume 27
creator Klug, R. C.
Krauss, G.
Matlock, D. K.
description Systematic annealing at temperatures between 1,300 C and 1,380 C was applied to sheets of INCOLOY MA-956, an oxide-dispersion strengthened (ODS), mechanically alloyed, iron-base steel containing (in mass percent) 20.8Cr, 5.0Al, 0.5Y{sub 2}O{sub 3}, and 0.5Ti. The billets, comprised of hot isostatically pressed (hipped), mechanically alloyed powder, were hot- and cold-rolled to produce a 0.5-mm-thick sheet with a strong (100) deformation texture. Light and transmission electron microscopy established that recrystallization initiated by nucleation at the sheet centerline. Initial rapid growth of the centerline-nucleated grains, designated stage 1, resulted in plate-shaped grains oriented parallel to the rolling plane at the sheet centerline. Subsequent growth, designated stage 2, was developed by planar growth fronts through the sheet thickness at a slower rate. The final product was a very coarse grain structure, sometimes with only a single grain through the sheet thickness. The recrystallization kinetics were typified by an incubation time, a temperature dependence characterized by an activation energy of 506 kJ/mole, and a decreasing rate of boundary migration with increasing time at temperature. The microstructural evolution is discussed in terms of the influences of deformation texture, residual stress, dislocation substructure, and oxide dispersion on the recrystallization process.
doi_str_mv 10.1007/BF02651944
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subjects ACTIVATION ENERGY
ALUMINIUM ALLOYS
ANNEALING
CHROMIUM ALLOYS
DISLOCATIONS
GRAIN ORIENTATION
HOT PRESSING
IRON BASE ALLOYS
KINETICS
MATERIALS SCIENCE
NUCLEATION
OPTICAL MICROSCOPY
POWDERS
RECRYSTALLIZATION
RESIDUAL STRESSES
SHEETS
TEMPERATURE DEPENDENCE
TEXTURE
TITANIUM ADDITIONS
TRANSMISSION ELECTRON MICROSCOPY
YTTRIUM OXIDES
title Recrystallization in oxide-dispersion strengthened mechanically alloyed sheet steel
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