Static Softening in a Ni-30Fe Austenitic Model Alloy After Hot Deformation: Microstructure and Texture Evolution

被引:0
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作者
Hossein Beladi
Pavel Cizek
Adam S. Taylor
Gregory S. Rohrer
Peter D. Hodgson
机构
[1] Deakin University,Institute for Frontier Materials
[2] Carnegie Mellon University,Department of Materials Science and Engineering
关键词
Stack Fault Energy; Crystallographic Texture; Coincident Site Lattice; Coincident Site Lattice Boundary; Softening Fraction;
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学科分类号
摘要
In the current study, the microstructure and texture characteristics of a model Ni-30Fe austenitic alloy were investigated during hot deformation and subsequent isothermal holding. The deformation led to the formation of self-screening arrays of microbands within a majority of grains. The microbands characteristics underwent rather modest changes during the post-deformation annealing, which suggests that limited dislocation annihilation occurs within the corresponding dislocation walls. The fraction of statically recrystallized (SRX) grains progressively increased with the holding time and closely matched the softening fraction measured from the offset flow stress approach. The corresponding texture was weak and preserved its character with the holding time. There was no pronounced temperature effect on the grain boundary character distribution after the completion of SRX. The Σ3 and Σ9 coincidence site lattice boundaries were characterized as (111) pure twist and (1−14) symmetric tilt types, respectively. Nonetheless, the recrystallization temperature slightly affected the grain boundary network.
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页码:855 / 867
页数:12
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