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Simulation of the Kinematic Condition of Radial Shear Rolling and Estimation of Its Influence on a Titanium Billet Microstructure

The finite element method (FEM) computer simulation of the three-high radial shear rolling of Ti-6Al-4V alloy round billets was conducted using QForm software. The simulation was performed for the MISIS-100T rolling mill’s three passes according to the following rolling route: 76 mm (the initial bil...

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Autores principales: Skripalenko, Mikhail M., Karpov, Boris V., Rogachev, Stanislav O., Kaputkina, Liudmila M., Romantsev, Boris A., Skripalenko, Mikhail N., Huy, Tran Ba, Fadeev, Viktor A., Danilin, Andrei V., Gladkov, Yuri A.
Formato: Online Artículo Texto
Lenguaje:English
Publicado: MDPI 2022
Materias:
Acceso en línea:https://www.ncbi.nlm.nih.gov/pmc/articles/PMC9697717/
https://www.ncbi.nlm.nih.gov/pubmed/36431464
http://dx.doi.org/10.3390/ma15227980
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author Skripalenko, Mikhail M.
Karpov, Boris V.
Rogachev, Stanislav O.
Kaputkina, Liudmila M.
Romantsev, Boris A.
Skripalenko, Mikhail N.
Huy, Tran Ba
Fadeev, Viktor A.
Danilin, Andrei V.
Gladkov, Yuri A.
author_facet Skripalenko, Mikhail M.
Karpov, Boris V.
Rogachev, Stanislav O.
Kaputkina, Liudmila M.
Romantsev, Boris A.
Skripalenko, Mikhail N.
Huy, Tran Ba
Fadeev, Viktor A.
Danilin, Andrei V.
Gladkov, Yuri A.
author_sort Skripalenko, Mikhail M.
collection PubMed
description The finite element method (FEM) computer simulation of the three-high radial shear rolling of Ti-6Al-4V alloy round billets was conducted using QForm software. The simulation was performed for the MISIS-100T rolling mill’s three passes according to the following rolling route: 76 mm (the initial billet diameter) →65 mm→55 mm→48 mm (the final billet diameter). The change in the total velocity values for the points on the radius of the 48 mm diameter billet was estimated while passing the rolls’ draft. The relative increase in the accumulated strain was estimated for the same points. Then, experimental shear rolling was performed. Grain sizes of the α- and β-phases were estimated in the cross section of the final billet at the stationary stage of rolling. The grain size distribution histograms for different phases were plotted. An area was found in the billet’s cross section in which the trend of change in the total velocity of the points changed. This area represented a neutral layer between the slowing peripheral segments of the billet and the accelerating central segments of the billet. Inside this neutral layer, the limits of the cylindrical surface radius value were estimated. Experimental radial shear rolling was performed to compare the experimental rolling results (the billet microstructure investigation) with the computer simulation results. The computer simulation obtained two estimations of the radius limits: 8–16 mm (based on the analysis of the total velocity change) and 12–16 mm (based on the accumulated strain’s relative increment change). The experimental rolling obtained two more estimations of the radius limits: 8.4–19.5 mm and 11.3–19.7 mm—based on the results of the microstructure investigation. It was confirmed that varying the kinematic and deformation parameters of radial shear rolling allows regulation of the thickness of the peripheral fine-grain layer and the diameter of the central coarse-grain layer of the rolled billets.
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spelling pubmed-96977172022-11-26 Simulation of the Kinematic Condition of Radial Shear Rolling and Estimation of Its Influence on a Titanium Billet Microstructure Skripalenko, Mikhail M. Karpov, Boris V. Rogachev, Stanislav O. Kaputkina, Liudmila M. Romantsev, Boris A. Skripalenko, Mikhail N. Huy, Tran Ba Fadeev, Viktor A. Danilin, Andrei V. Gladkov, Yuri A. Materials (Basel) Article The finite element method (FEM) computer simulation of the three-high radial shear rolling of Ti-6Al-4V alloy round billets was conducted using QForm software. The simulation was performed for the MISIS-100T rolling mill’s three passes according to the following rolling route: 76 mm (the initial billet diameter) →65 mm→55 mm→48 mm (the final billet diameter). The change in the total velocity values for the points on the radius of the 48 mm diameter billet was estimated while passing the rolls’ draft. The relative increase in the accumulated strain was estimated for the same points. Then, experimental shear rolling was performed. Grain sizes of the α- and β-phases were estimated in the cross section of the final billet at the stationary stage of rolling. The grain size distribution histograms for different phases were plotted. An area was found in the billet’s cross section in which the trend of change in the total velocity of the points changed. This area represented a neutral layer between the slowing peripheral segments of the billet and the accelerating central segments of the billet. Inside this neutral layer, the limits of the cylindrical surface radius value were estimated. Experimental radial shear rolling was performed to compare the experimental rolling results (the billet microstructure investigation) with the computer simulation results. The computer simulation obtained two estimations of the radius limits: 8–16 mm (based on the analysis of the total velocity change) and 12–16 mm (based on the accumulated strain’s relative increment change). The experimental rolling obtained two more estimations of the radius limits: 8.4–19.5 mm and 11.3–19.7 mm—based on the results of the microstructure investigation. It was confirmed that varying the kinematic and deformation parameters of radial shear rolling allows regulation of the thickness of the peripheral fine-grain layer and the diameter of the central coarse-grain layer of the rolled billets. MDPI 2022-11-11 /pmc/articles/PMC9697717/ /pubmed/36431464 http://dx.doi.org/10.3390/ma15227980 Text en © 2022 by the authors. https://creativecommons.org/licenses/by/4.0/Licensee MDPI, Basel, Switzerland. This article is an open access article distributed under the terms and conditions of the Creative Commons Attribution (CC BY) license (https://creativecommons.org/licenses/by/4.0/).
spellingShingle Article
Skripalenko, Mikhail M.
Karpov, Boris V.
Rogachev, Stanislav O.
Kaputkina, Liudmila M.
Romantsev, Boris A.
Skripalenko, Mikhail N.
Huy, Tran Ba
Fadeev, Viktor A.
Danilin, Andrei V.
Gladkov, Yuri A.
Simulation of the Kinematic Condition of Radial Shear Rolling and Estimation of Its Influence on a Titanium Billet Microstructure
title Simulation of the Kinematic Condition of Radial Shear Rolling and Estimation of Its Influence on a Titanium Billet Microstructure
title_full Simulation of the Kinematic Condition of Radial Shear Rolling and Estimation of Its Influence on a Titanium Billet Microstructure
title_fullStr Simulation of the Kinematic Condition of Radial Shear Rolling and Estimation of Its Influence on a Titanium Billet Microstructure
title_full_unstemmed Simulation of the Kinematic Condition of Radial Shear Rolling and Estimation of Its Influence on a Titanium Billet Microstructure
title_short Simulation of the Kinematic Condition of Radial Shear Rolling and Estimation of Its Influence on a Titanium Billet Microstructure
title_sort simulation of the kinematic condition of radial shear rolling and estimation of its influence on a titanium billet microstructure
topic Article
url https://www.ncbi.nlm.nih.gov/pmc/articles/PMC9697717/
https://www.ncbi.nlm.nih.gov/pubmed/36431464
http://dx.doi.org/10.3390/ma15227980
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