Effect of Rolling Friction on the Development of {111} Texture in A1050 Aluminium Sheets

Masatoshi Sudo

doi:10.4028/www.scientific.net/MSF.519-521.1551

Paper Titles

A Heat Transfer Model for the Production of Semi-Solid Billets with the SEED Process
p.1525

Analyzing the Cold Rolling of Aluminium Using a New Software (Matroll)
p.1533

Impact and Fatigue Crack Growth Behaviour of a Yield Strength Graded Al-Zn-Mg Alloy
p.1539

Control of Earing in Deep Drawing of Roll-Cast AA3003 Aluminium Sheets
p.1545

Effect of Rolling Friction on the Development of {111} Texture in A1050 Aluminium Sheets
p.1551

Excess Free Volume of High Angle Grain Boundaries in Aluminium
p.1557

Modelling of Microstructure and Texture and the Resulting Properties during the Thermo-Mechanical Processing of Aluminium Sheets
p.1563

Recrystallization of AA1050 Studied by 3DXRD
p.1569

In Situ SEM-EBSP Observations of Recrystallization Texture Formation in Al-3mass%Mg Alloy
p.1579

HomeMaterials Science ForumMaterials Science Forum Vols. 519-521Effect of Rolling Friction on the Development of...

Effect of Rolling Friction on the Development of {111} Texture in A1050 Aluminium Sheets

Abstract:

Commercially pure aluminum (A1050) sheets have been cold- rolled in vacuum, to obtain high friction between rolls and sheet. This cold-rolling in vacuum successfully introduced large shear deformation near the sheet surface. The shear strain is the highest at the sheet surface, and rapidly decreased to zero at the quarter thickness. These high shear strains are sufficient enough to produce {111} and {001} cold- rolling, or shear texture. Conventional cold-rolling texture such as (001) [100], is naturally observed at the mid-thickness. It is confirmed that a high shear strain and probably steep strain gradient through thickness have a sufficient effect on the increase in {111} cold-rolling texture near the sheet surface. {111} cold-rolling texture is proved to be effective in the evolution of {111} recrystallization texture. This development will be discussed based on the cold-rolling texture change.

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Periodical:

Materials Science Forum (Volumes 519-521)

Pages:

1551-1556

DOI:

https://doi.org/10.4028/www.scientific.net/MSF.519-521.1551

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Online since:

July 2006

Authors:

Masatoshi Sudo

Keywords:

{111} Cold-Rolling Texture, {111} Recrystallization Texture, Cold-Rolling in Vacuum, Deep Drawing, Non-Ferrous Metal, Shear Deformation, Strip Rolling, Surface Texture

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