Abstract
Plastic deformation of Fe-27%Co alloy at room temperature was investigated. The present alloy, usually delivered with a low-texture component for the magnetic core in rotating machines, develops a rather high intensity of Goss texture after recrystallization, when a suitable manufacturing process is applied. Thanks to this texture and its magnetic properties, this material can replace the grain-oriented Fe-3%Si alloy in electric transformer application. The intensity of the recrystallization Goss component depends directly on the sharpness of the {111}〈112〉 orientation developed during cold rolling. Thus, the origin of this {111}〈112〉 deformation texture has been studied using visco-plastic self-consistent (VPSC) simulations. This model showed that only the {110}〈111〉 slip systems allow developing the {111}〈112〉 texture. The predominance of this slip system has been effectively identified from slip markings on the deformed sample by EBSD. More, this simulation has shown that a Goss texture at the hot-rolled state favors the {111}〈112〉 development during cold rolling, as observed experimentally.
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Acknowledgments
Authors wish to thank R. Batonnet, from Aperam alloys industry, for providing all the samples of the investigated Fe-27%Co alloy. This work was supported by “La region Ile de France” and in part by the PHC Tassili Program No. 12MDU862 and another part by the PHC Maghreb Program No. 16MAG03. The authors would also like to thank Carlos N. Tomé from Los Alamos National Laboratory, USA (tome@lanl.gov), for providing VPSC7 code.
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Nabi, B., Helbert, AL., Azzeddine, H. et al. Origin of the {111}〈112〉 Cold Rolling Texture Development in a Soft Magnetic Fe-27%Co Alloy. J. of Materi Eng and Perform 28, 3767–3776 (2019). https://doi.org/10.1007/s11665-019-04126-8
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DOI: https://doi.org/10.1007/s11665-019-04126-8