Modeling of Rolling Force for Thick Plate of Multicomponent Alloys and Its Application on Thickness Prediction

During the rolling process of thick plate, the nonlinear specific plastic power that derived from the non-linear Mises yield criterion is difficult to be integrated, which has restricted the establishment of a rolling force model. To solve this problem, a new yield criterion is firstly established,...

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Main Authors: Shun Hu Zhang, Jia Lin Xin, Li Zhi Che
Format: Article
Language:English
Published: Frontiers Media S.A. 2021-09-01
Series:Frontiers in Materials
Subjects:
Online Access:https://www.frontiersin.org/articles/10.3389/fmats.2021.741144/full
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spelling doaj-e7da5e437fab455a89c1839ba98bd19b2021-09-20T06:36:31ZengFrontiers Media S.A.Frontiers in Materials2296-80162021-09-01810.3389/fmats.2021.741144741144Modeling of Rolling Force for Thick Plate of Multicomponent Alloys and Its Application on Thickness PredictionShun Hu ZhangJia Lin XinLi Zhi CheDuring the rolling process of thick plate, the nonlinear specific plastic power that derived from the non-linear Mises yield criterion is difficult to be integrated, which has restricted the establishment of a rolling force model. To solve this problem, a new yield criterion is firstly established, and then used to derive a linear specific plastic power. Meanwhile, a kinematically admissible velocity field whose horizontal velocity component obeys the Logistic function is proposed to describe the metal flow of the deformed plate. On these bases, the rolling energy items including the internal deformation power of the deformed body, friction power on the contact surface, and shear power on the entry and exit sections are integrated successively, and the rolling force model is established. It is proved that the model can predict the rolling force well when compared with the actual data of multicomponent alloys. Besides, the formula for predicting the outlet thickness is ultimately given upon this derived model, and a good agreement is also found between the predicted values and the actual ones, since the absolute errors between them are within 0.50 mm.https://www.frontiersin.org/articles/10.3389/fmats.2021.741144/fullrolling forceyield criterionspecific plastic powerthickness predictionmulticomponent alloys
collection DOAJ
language English
format Article
sources DOAJ
author Shun Hu Zhang
Jia Lin Xin
Li Zhi Che
spellingShingle Shun Hu Zhang
Jia Lin Xin
Li Zhi Che
Modeling of Rolling Force for Thick Plate of Multicomponent Alloys and Its Application on Thickness Prediction
Frontiers in Materials
rolling force
yield criterion
specific plastic power
thickness prediction
multicomponent alloys
author_facet Shun Hu Zhang
Jia Lin Xin
Li Zhi Che
author_sort Shun Hu Zhang
title Modeling of Rolling Force for Thick Plate of Multicomponent Alloys and Its Application on Thickness Prediction
title_short Modeling of Rolling Force for Thick Plate of Multicomponent Alloys and Its Application on Thickness Prediction
title_full Modeling of Rolling Force for Thick Plate of Multicomponent Alloys and Its Application on Thickness Prediction
title_fullStr Modeling of Rolling Force for Thick Plate of Multicomponent Alloys and Its Application on Thickness Prediction
title_full_unstemmed Modeling of Rolling Force for Thick Plate of Multicomponent Alloys and Its Application on Thickness Prediction
title_sort modeling of rolling force for thick plate of multicomponent alloys and its application on thickness prediction
publisher Frontiers Media S.A.
series Frontiers in Materials
issn 2296-8016
publishDate 2021-09-01
description During the rolling process of thick plate, the nonlinear specific plastic power that derived from the non-linear Mises yield criterion is difficult to be integrated, which has restricted the establishment of a rolling force model. To solve this problem, a new yield criterion is firstly established, and then used to derive a linear specific plastic power. Meanwhile, a kinematically admissible velocity field whose horizontal velocity component obeys the Logistic function is proposed to describe the metal flow of the deformed plate. On these bases, the rolling energy items including the internal deformation power of the deformed body, friction power on the contact surface, and shear power on the entry and exit sections are integrated successively, and the rolling force model is established. It is proved that the model can predict the rolling force well when compared with the actual data of multicomponent alloys. Besides, the formula for predicting the outlet thickness is ultimately given upon this derived model, and a good agreement is also found between the predicted values and the actual ones, since the absolute errors between them are within 0.50 mm.
topic rolling force
yield criterion
specific plastic power
thickness prediction
multicomponent alloys
url https://www.frontiersin.org/articles/10.3389/fmats.2021.741144/full
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AT jialinxin modelingofrollingforceforthickplateofmulticomponentalloysanditsapplicationonthicknessprediction
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