Effect of a Multiple Reduction Die on the Residual Stress of Drawn Materials

Residual stress may influence the mechanical behavior and durability of drawn materials. Thus, this study develops a multiple reduction die (MRD) that can reduce residual stress during the drawing process. The MRD set consists of several die tips, die cases, and lubricating equipment. All the die ti...

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Veröffentlicht in:Materials 2021-03, Vol.14 (6), p.1358
Hauptverfasser: Kim, Jeong-Hun, Baek, Chang-Hyun, Lee, Sang-Kon, Kang, Jong-Hun, Park, Joon-Hong, Ko, Dae-Cheol
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container_issue 6
container_start_page 1358
container_title Materials
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creator Kim, Jeong-Hun
Baek, Chang-Hyun
Lee, Sang-Kon
Kang, Jong-Hun
Park, Joon-Hong
Ko, Dae-Cheol
description Residual stress may influence the mechanical behavior and durability of drawn materials. Thus, this study develops a multiple reduction die (MRD) that can reduce residual stress during the drawing process. The MRD set consists of several die tips, die cases, and lubricating equipment. All the die tips of the MRD were disposed of simultaneously. Finite element analysis of the drawing process was performed according to the reduction ratio of each die tip, and the variables in drawing process with the MRD were optimized using a deep neural network to minimize the residual stress. Experiments on the drawing process with the conventional die and MRD were performed to evaluate the residual stress and verify the effectiveness of the MRD. The results of X-ray diffraction measurements indicated that the axial and hoop residual stresses on the surface were dramatically reduced.
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title Effect of a Multiple Reduction Die on the Residual Stress of Drawn Materials
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