Influence of Sulfur on the Recrystallization and {100}〈001〉 Cube Texture Formation in Fe48%Ni Alloys Tapes

Hyper textured substrate tapes were prepared by cold rolling and annealing of a Fe48%Ni alloys in order to obtain Cube oriented substrate for photovoltaic thin films and superconductor cables in particular. In the present work, the effect of sulfur on recrystallization and sharp Cube texture formati...

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Veröffentlicht in:Advanced engineering materials 2014-07, Vol.16 (7), p.933-939
Hauptverfasser: Betanda, Yanick Ateba, Helbert, Anne-Laure, Brisset, François, Wehbi, Mickael, Mathon, Marie-Hélène, Waeckerlé, Thierry, Baudin, Thierry
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Sprache:eng
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Zusammenfassung:Hyper textured substrate tapes were prepared by cold rolling and annealing of a Fe48%Ni alloys in order to obtain Cube oriented substrate for photovoltaic thin films and superconductor cables in particular. In the present work, the effect of sulfur on recrystallization and sharp Cube texture formation has been investigated. Results show that the formation of Cube texture is favored by the addition of sulfur in the Fe48%Ni alloy. In order to explain this result, the development of Cube texture during recrystallization has been investigated by EBSD, furthermore, the stored energy has been measured using neutron diffraction on the deformed states. It appeared that MnS precipitates are at the origin of hardening that increases the stored energy gap between the Cube component and the other ones. This difference favors the Cube development. The addition of sulfur in the Fe48%Ni alloys favors the formation of Cube texture. In the Fe48%Ni alloys tapes, the fraction of Cube grains {100}〈001〉 increases in the recrystallized states when the sulfur content increases (a–e). In the deformed states, the stored energy of the main cold‐rolled components that are S {132}〈6–43〉, C {112}〈11–1〉, and B {110}〈1–12〉, remains quasi constant with sulfur content (f). Thus, the stored energy difference between the Cube and other orientations (ΔECube/Other) increases when sulfur is added (g). This stored energy difference is the driving force of the Cube grains formation. Therefore, the increase of ΔEOther/Cube promotes the Cube grains formation and growth during the recrystallization.
ISSN:1438-1656
1527-2648
DOI:10.1002/adem.201300419