author_facet Dhinwal, Satyaveer Singh
Toth, Laszlo S
Dhinwal, Satyaveer Singh
Toth, Laszlo S
author Dhinwal, Satyaveer Singh
Toth, Laszlo S
spellingShingle Dhinwal, Satyaveer Singh
Toth, Laszlo S
Materials
Unlocking Deformation Path in Asymmetric Rolling by Texture Simulation
General Materials Science
author_sort dhinwal, satyaveer singh
spelling Dhinwal, Satyaveer Singh Toth, Laszlo S 1996-1944 MDPI AG General Materials Science http://dx.doi.org/10.3390/ma13010101 <jats:p>The texture evolution is wearing the signature of the deformation path in plastic deformation. In asymmetric rolling, plain strain compression and shear are the main components of the imposed strain. In this work, viscoplastic self-consistent (VPSC) simulations of the texture evolution were used to determine the combination and sequence of the two deformation components. It has been found that the deformation path is composed of two parts in asymmetric rolling: it is first essentially rolling, followed by the simple shear process. Simultaneous rolling and shear process cannot produce the observed textures, while the decomposed simulation can reproduce it faithfully.</jats:p> Unlocking Deformation Path in Asymmetric Rolling by Texture Simulation Materials
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title Unlocking Deformation Path in Asymmetric Rolling by Texture Simulation
title_unstemmed Unlocking Deformation Path in Asymmetric Rolling by Texture Simulation
title_full Unlocking Deformation Path in Asymmetric Rolling by Texture Simulation
title_fullStr Unlocking Deformation Path in Asymmetric Rolling by Texture Simulation
title_full_unstemmed Unlocking Deformation Path in Asymmetric Rolling by Texture Simulation
title_short Unlocking Deformation Path in Asymmetric Rolling by Texture Simulation
title_sort unlocking deformation path in asymmetric rolling by texture simulation
topic General Materials Science
url http://dx.doi.org/10.3390/ma13010101
publishDate 2019
physical 101
description <jats:p>The texture evolution is wearing the signature of the deformation path in plastic deformation. In asymmetric rolling, plain strain compression and shear are the main components of the imposed strain. In this work, viscoplastic self-consistent (VPSC) simulations of the texture evolution were used to determine the combination and sequence of the two deformation components. It has been found that the deformation path is composed of two parts in asymmetric rolling: it is first essentially rolling, followed by the simple shear process. Simultaneous rolling and shear process cannot produce the observed textures, while the decomposed simulation can reproduce it faithfully.</jats:p>
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author Dhinwal, Satyaveer Singh, Toth, Laszlo S
author_facet Dhinwal, Satyaveer Singh, Toth, Laszlo S, Dhinwal, Satyaveer Singh, Toth, Laszlo S
author_sort dhinwal, satyaveer singh
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description <jats:p>The texture evolution is wearing the signature of the deformation path in plastic deformation. In asymmetric rolling, plain strain compression and shear are the main components of the imposed strain. In this work, viscoplastic self-consistent (VPSC) simulations of the texture evolution were used to determine the combination and sequence of the two deformation components. It has been found that the deformation path is composed of two parts in asymmetric rolling: it is first essentially rolling, followed by the simple shear process. Simultaneous rolling and shear process cannot produce the observed textures, while the decomposed simulation can reproduce it faithfully.</jats:p>
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spelling Dhinwal, Satyaveer Singh Toth, Laszlo S 1996-1944 MDPI AG General Materials Science http://dx.doi.org/10.3390/ma13010101 <jats:p>The texture evolution is wearing the signature of the deformation path in plastic deformation. In asymmetric rolling, plain strain compression and shear are the main components of the imposed strain. In this work, viscoplastic self-consistent (VPSC) simulations of the texture evolution were used to determine the combination and sequence of the two deformation components. It has been found that the deformation path is composed of two parts in asymmetric rolling: it is first essentially rolling, followed by the simple shear process. Simultaneous rolling and shear process cannot produce the observed textures, while the decomposed simulation can reproduce it faithfully.</jats:p> Unlocking Deformation Path in Asymmetric Rolling by Texture Simulation Materials
spellingShingle Dhinwal, Satyaveer Singh, Toth, Laszlo S, Materials, Unlocking Deformation Path in Asymmetric Rolling by Texture Simulation, General Materials Science
title Unlocking Deformation Path in Asymmetric Rolling by Texture Simulation
title_full Unlocking Deformation Path in Asymmetric Rolling by Texture Simulation
title_fullStr Unlocking Deformation Path in Asymmetric Rolling by Texture Simulation
title_full_unstemmed Unlocking Deformation Path in Asymmetric Rolling by Texture Simulation
title_short Unlocking Deformation Path in Asymmetric Rolling by Texture Simulation
title_sort unlocking deformation path in asymmetric rolling by texture simulation
title_unstemmed Unlocking Deformation Path in Asymmetric Rolling by Texture Simulation
topic General Materials Science
url http://dx.doi.org/10.3390/ma13010101