Hot Stamping of Titanium Alloy Sheets into U Shape with Concave Bottom and Joggle Using Resistance Heating

Tomoyoshi Maeno; Yuya Yamashita; Ken-Ichiro Mori

doi:10.4028/www.scientific.net/KEM.716.915

Paper Titles

Deep Drawing of One-Sided, Stiffness Increasing Sheet Metal Composites
p.879

Effect of Plastic Deformation on Elastic and Plastic Recovery in CP-Titanium
p.891

Fabrication of Deep Cup with Flange by In-Plane Stretch Forming Applying Compressive Force in Thickness Direction
p.897

Friction Stir Welding of Copper Alloy CuETP
p.907

Hot Stamping of Titanium Alloy Sheets into U Shape with Concave Bottom and Joggle Using Resistance Heating
p.915

Influence of Geometrical Shapes and Sheet Thicknesses on the Dimensional Accuracy of Single and Assembled Parts
p.923

Stability of a Suppression Method of Dent and Spring-Back in Zigzag Bending of Sheet Metal/Plate
p.931

Studies on the Hot Forming and Cold-Die Quenching of AA6082 Tailor Welded Blanks
p.941

The Influence of Strain Rate and Strain on the Behavior of Stress Relaxation in 980 MPa-Grade Dual Phase Steel Sheets
p.948

HomeKey Engineering MaterialsKey Engineering Materials Vol. 716Hot Stamping of Titanium Alloy Sheets into U Shape...

Hot Stamping of Titanium Alloy Sheets into U Shape with Concave Bottom and Joggle Using Resistance Heating

Abstract:

The hot stamping of α+β titanium alloy sheet into U shape with concave bottom using resistance heating were performed. Since both edges of the sheet in contact with a pair of electrodes were not heated, cracks occurred around the corners of the bottom due to the partially high flow stress. The cracks were prevented by slitting both edges before resistance heating because of the elongation of the edges. In addition, the hot stamping of titanium alloy sheet into joggle using partial resistance heating were performed. The distortion of sheet was reduced by reduction in area of resistance heating

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Periodical:

Key Engineering Materials (Volume 716)

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915-922

DOI:

https://doi.org/10.4028/www.scientific.net/KEM.716.915

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Online since:

October 2016

Authors:

Tomoyoshi Maeno*, Yuya Yamashita, Ken-Ichiro Mori

Keywords:

Bending, Hot Stamping, Titanium Alloy

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