Modeling Recrystallization in Al Alloys: Investigation of Nucleation at Cube Bands

Olga Sukhopar; Günter Gottstein

doi:10.4028/www.scientific.net/MSF.715-716.455

Paper Titles

A Hybrid Modelling Approach Applied to the Evolution of Microstructure during Plane Strain Deformation
p.416

Derivation of Statistical Model of Grain Growth Based on 3-D Von Neumann Equation
p.427

Simulation of Line Annealing of Type 430 Ferritic Stainless Steel
p.437

In Situ Observation of Recovery and Grain Growth in High Purity Aluminum
p.447

Modeling Recrystallization in Al Alloys: Investigation of Nucleation at Cube Bands
p.455

The Application of In Situ 3D X-Ray Diffraction in Annealing Experiments: First Interpretation of Substructure Development in Deformed NaCl
p.461

In Situ Measurements of Magnetically Driven Grain Boundary Migration in Zn Bicrystals
p.467

Grain Growth and the Puzzle of its Stagnation in Thin Films a Detailed Comparison of Experiments and Simulations
p.473

Combined Physical Modeling and Monte Carlo Simulation of Recrystallization of Hot Deformed AA7020 Aluminum Alloy
p.480

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Modeling Recrystallization in Al Alloys: Investigation of Nucleation at Cube Bands

Abstract:

In the present study, a modified cellular automaton CORe (Cellular Operator for Recrystallization) was used to predict the recrystallization (RX) texture and microstructure of 70% cold rolled commercial AA8079L alloy at 300°C. The nucleation of the Cube orientation is of considerable scientific interest since the Cube texture component influences significantly the anisotropy of material properties. Experimental data collected during this investigation were used for subsequent modeling. By studying the annealed material by EBSD, an average nucleation rate at Cube bands was established and used in the model. The simulated microstructure reveals, in general, good agreement with experiment. The texture prediction shows the right tendency, but the modeled intensity of the Cube texture is about 2 times smaller than in experiment.