Effect of the Degree of Order and the Deformation Microstructure on the Kinetics of Recrystallisation in a Fe3Al Ordered Alloy

Satoru Kobayashi; Stefan Zaefferer; André Schneider; Dierk Raabe; Georg Frommeyer

doi:10.4028/www.scientific.net/MSF.467-470.153

Paper Titles

Investigation of the Primary Recrystallisation Microstructure of Cold Rolled and Annealed Fe 3% Si Single Crystals with Goss Orientation
p.129

Recrystallization Mechanisms in Wire-Drawn Copper
p.135

Determination of the Recovery Kinetics during the Annealing of Cold Rolled Low Carbon Steels
p.141

Recrystallization Kinetics in the Bulk and at the Surface
p.147

Effect of the Degree of Order and the Deformation Microstructure on the Kinetics of Recrystallisation in a Fe₃Al Ordered Alloy
p.153

Micro-Scale OIM Study on the Recrystallization Process of Cold Rolled α-Fiber Single Crystal
p.159

On the Production of Randomly-Oriented Recrystallization Nuclei for Selective Growth Experiments
p.165

Recrystallization Nucleation in Some Channel Die Deformed, High Symmetry Aluminium Bicrystals
p.171

The Formation of New Orientations during Recrystallization of Silver Single Crystals with {112}<111> Initial Orientation
p.177

HomeMaterials Science ForumMaterials Science Forum Vols. 467-470Effect of the Degree of Order and the Deformation...

Effect of the Degree of Order and the Deformation Microstructure on the Kinetics of Recrystallisation in a Fe₃Al Ordered Alloy

Abstract:

A Fe3Al based single phase alloy was rolled at 600 °C and 400 °C and the kinetics of recrystallisation in A2 and B2 phase regions was determined in conjunction with the kinetics of the A2-B2 ordering and recovery. At 700°C and 800°C the recrystallisation kinetics depends strongly on the temperature of rolling while at 900°C only a small influence is visible. These results are attributed to the high stored energy in the sample rolled at 400 °C and its high recovery rate at 900 °C, leading to a similar level in stored energy as for the sample rolled at 600 °C in the beginning of annealing. At lower temperatures, in contrast, the difference in stored energy is conserved over longer times in the annealing process. Almost half the apparent activation energy was observed in the ordered state compared to that in the disordered state.