Effect of Mn on &lt;100&gt; Texture Evolution in Fe-Si-Mn Alloys

Jin Kyung Sung; Se Min Park; Byoung Yul Shim; Yang Mo Koo

doi:10.4028/www.scientific.net/MSF.702-703.730

Paper Titles

Origin and Role of Σ3 Boundaries during Thermo-Mechanical Processing of a Ti-Modified Austenitic Stainless Steel
p.714

Elemental Distribution Characteristics Across γ-TiAl:TiAlV Diffusion Bond Interface
p.718

Recrystallization Textures of Cross-Rolled 3.3% Si Electrical Steel and 99.99% Copper Sheets
p.722

Correlation between Texture at Primary Recrystallized State and Magnetic Properties in Grain Oriented Electrical Steels
p.726

Effect of Mn on <100> Texture Evolution in Fe-Si-Mn Alloys
p.730

Modeling the Magnetic Properties of Non-Oriented Electrical Steels Based on Microstructural Parameters
p.734

Grrain Orientations and their Influence on Precipitation in Hot Compressed Columnar Grains in Electrical Steel
p.738

Strong Goss Texture in Recrystallized Fe₈₁Ga₁₉ Sheet
p.742

Effect of Cold Rolling Reduction Rate on Secondary Recrystallized Texture in 3%Si-Fe
p.746

HomeMaterials Science ForumMaterials Science Forum Vols. 702-703Effect of Mn on <100> Texture Evolution in...

Effect of Mn on <100> Texture Evolution in Fe-Si-Mn Alloys

Abstract:

The texture can be evolved through the γ to α transformation by cooling in Fe-Si alloy systems. Oxygen in the annealing atmosphere hampers the evolution of the texture. The texture evolution is associated with the fact that the {100} faces are elastically compliant so that the texture can develop in a manner consistent with minimization of strain energy. By alloying Mn to Fe-Si alloys, the texture evolves in relatively high oxygen containing annealing atmosphere. The role of Mn in the texture evolution appears to be preventing formation of surface oxides, which modify the elastic modulus of metal surface, thereby suppress the development of the correct texture.