Stored Energy of Plastic and Elastic Origin and Recrystallization

Krzysztof Wierzbanowski; Andrzej Baczmanski; Jacek Tarasiuk; Paul Lipiński; Alain Lodini

doi:10.4028/www.scientific.net/MSF.571-572.143

Paper Titles

Investigation of the Stress Fields Around a Fatigue Crack in Aluminium Alloy 5091
p.119

Study of Elasto-Plastic Anisotropic Response of Stainless Steel Weld Metal Using Neutron Diffraction
p.125

Neutron Diffraction Analysis of Stresses in an In-Plane Biaxially-Fatigued Stainless Steel Sample of Cruciform Geometry
p.131

Neutron Diffraction Measurement and Finite Element Modelling of Residual Strains Due to Bath and Spray Quenching of AISI 316L Stainless Steel Cylinders
p.137

Stored Energy of Plastic and Elastic Origin and Recrystallization
p.143

Development of Intergranular Stresses during In Situ Compression Tests in Zircaloy-4
p.149

Monte Carlo Simulation to Macro Stress Evaluation and Micro Strain Analysis by Neutron and Synchrotron Radiation Diffraction
p.157

Neutron Diffraction Study of a New Generation of Implants
p.163

Investigation of Retained Strains and Microstructures for a Hot Deformed Stainless Steel
p.169

HomeMaterials Science ForumMaterials Science Forum Vols. 571-572Stored Energy of Plastic and Elastic Origin and...

Stored Energy of Plastic and Elastic Origin and Recrystallization

Abstract:

Stored energy is generally considered as a main driving force of recrystallization process. After plastic deformation a high dislocation density and residual stress field remain in a material. Both quantities are at the origin of the stored energy and we call them as the “plastic” and “elastic” parts of this energy. Their orientation distributions can be determined using diffraction and deformation models. Both components of the stored energy are studied in the present work. Their distributions and characteristics are studied for f.c.c. and b.c.c. materials.