Effect of Stacking Fault Energy on Evolution of Recrystallization Textures in Drawn Wires and Rolled Sheets

Dong Nyung Lee

doi:10.4028/www.scientific.net/MSF.495-497.1243

Paper Titles

Calculation of the Parent hcp Grain Orientation from Inherited Variants in the hcp to t and in the hcp to cc Phase Transformations Application to the α-γ Transformation in TiAl-Based Alloys
p.1219

Micromechanisms Involved in Grain Boundary Engineering
p.1225

Effect of Hexagonal Crystal Structure Anisotropy on the Selective Grain Boundary Mobility during Texture Formation and Secondary Recrystallization in Zn
p.1231

Prediction of Earing in IF Steels by Using Crystal Plasticity Finite Element Method
p.1237

Effect of Stacking Fault Energy on Evolution of Recrystallization Textures in Drawn Wires and Rolled Sheets
p.1243

Mechanisms of New Orientation Formation during Recrystallization of Old Deformed Aluminium Bicrystals
p.1249

Grain Boundary Energy and Grain Growth in Highly-Textured Al Films and Foils: Experiment and Simulation
p.1255

The Effects of a High Magnetic Field on Microstructure, Grain Boundary Structures and Texture in a Medium Carbon Steel under Different Cooling Rates
p.1261

α→γ→α Transformation Texture Formation at Cold-Rolled Ultra Low Carbon Steel Surfaces
p.1267

HomeMaterials Science ForumMaterials Science Forum Vols. 495-497Effect of Stacking Fault Energy on Evolution of...

Effect of Stacking Fault Energy on Evolution of Recrystallization Textures in Drawn Wires and Rolled Sheets

Abstract:

The drawing textures of aluminum, copper, gold, silver, and Cu-7.3% Al bronze wires are approximated by major <111>+minor <100>, except silver wire, which can have the <100> texture at extremely high reductions. The <111> component in the drawing textures of aluminum, copper, gold, and silver transform to the <100> component after recrystallization. On the other hand, the <111> deformation texture of the Cu-7.3% Al bronze wire, which has very low stackingfault- energy, remains unchanged after recrystallization. The Brass component {110}<112> in rolling textures of high stacking-fault-energy metals such as aluminum and copper alloys changes to the Goss orientation {110}<001> after recrystallization. However, the Brass orientation in rolling textures of low stacking-fault-energy fcc metals such as brass appears to change to the {236}<385> orientation after recrystallization. These results seem to be related to the stability of dislocations during annealing.