Experimental Energetic Balance Associated to the Deformation of an Aluminum Multicrystal and Monocrystal Sheet

Herve Louche; Laurent Tabourot

doi:10.4028/www.scientific.net/MSF.467-470.1395

Paper Titles

3DXRD – Mapping Grains and Their Dynamics in 3 Dimensions
p.1363

Three-Dimensional Micron-Resolution X-Ray Laue Diffraction Measurement of Thermal Grain-Evolution in Aluminum
p.1373

Recrystallization Texture and Microstructure in Ni and AlMg1Mn1 Determined with High-Energy Synchrotron Radiation
p.1379

A Technique for Real-Time, In-Situ SEM Observation of Grain Growth at Elevated Temperatures
p.1385

In-Situ Observation of Subgrain Evolution during Static Recovery of Cold-Rolled Aluminium
p.1389

Experimental Energetic Balance Associated to the Deformation of an Aluminum Multicrystal and Monocrystal Sheet
p.1395

In-Situ EBSD Investigation of Recrystallization in ECAE Processed Copper
p.1401

The Potential of Combined In-Situ Heating Experiments and Detailed EBSD Analysis in the Investigation of Grain Scale Processes such as Recrystallization and Phase Transformation
p.1407

Application of the Repere Diffraction to Study Special Grain Boundaries in Recrystallized Metal
p.1413

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Experimental Energetic Balance Associated to the Deformation of an Aluminum Multicrystal and Monocrystal Sheet

Abstract:

This paper presents a method to estimate the stored energy during the tensile deformation of an aluminum multicrystal and polycrystal sheet sample. The method is based on thermo mechanical macroscopic fields analysis, like strains and temperature, obtained by a visible and an infrared cameras. Preliminary experimental results are presented. On an Al multicrystal sheet, heterogeneous thermo mechanical fields associated to the localized movement of dislocations at a microscopic scale are presented. Furthermore, the energetic balance established during the tensile deformation of an Al polycristal show a decreasing ratio of stored energy on anelastic energy and a non constant fraction of total work converted into heat.