Densification modeling of titanium alloy powder during hot isostatic pressing

Densification model of titanium alloy (Ti-6Al-4V) are investigated during hot isostatic pressing (Hip). Experimental data was obtained at various pressures and temperatures during hot isostatic pressing (Hip). Experimental data are compared with the finite element calculations by using the hybrid...

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Main Authors: Xue Y., Lang L.H., Bu G.L., Li L.
Format: Article
Language:English
Published: International Institute for the Science of Sintering, Beograd 2011-01-01
Series:Science of Sintering
Subjects:
Online Access:http://www.doiserbia.nb.rs/img/doi/0350-820X/2011/0350-820X1103247X.pdf
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spelling doaj-c78d350d9eda4ba5ab5b5e35e7ffce3c2020-11-24T23:48:08ZengInternational Institute for the Science of Sintering, BeogradScience of Sintering0350-820X2011-01-0143324726010.2298/SOS1103247XDensification modeling of titanium alloy powder during hot isostatic pressingXue Y.Lang L.H.Bu G.L.Li L.Densification model of titanium alloy (Ti-6Al-4V) are investigated during hot isostatic pressing (Hip). Experimental data was obtained at various pressures and temperatures during hot isostatic pressing (Hip). Experimental data are compared with the finite element calculations by using the hybrid model and Abouaf model, respectively. The results show that the finite element calculation results by the hybrid model are in agreement with the experimental data for densification behaviour of the titanium alloy powder under Hip; however, the finite element calculation results by using the Abouaf model are over the experimental data. In addition, in order to obtaining relative density distributions of porous body, the statistical relationships during Poisson’s ratio, Rockwell hardness and the relative density of porous body were formulated, the results show that the statistical relationship between Poisson’s ratio and the relative density of porous body is essential to construct such a constitutive model; the statistical relationship between Rockwell hardness and the relative density of porous body is essential to obtain relative density distributions of porous body.http://www.doiserbia.nb.rs/img/doi/0350-820X/2011/0350-820X1103247X.pdfconstitutive modeldensificationfinite element analysishot isostatic pressingtitanium alloy
collection DOAJ
language English
format Article
sources DOAJ
author Xue Y.
Lang L.H.
Bu G.L.
Li L.
spellingShingle Xue Y.
Lang L.H.
Bu G.L.
Li L.
Densification modeling of titanium alloy powder during hot isostatic pressing
Science of Sintering
constitutive model
densification
finite element analysis
hot isostatic pressing
titanium alloy
author_facet Xue Y.
Lang L.H.
Bu G.L.
Li L.
author_sort Xue Y.
title Densification modeling of titanium alloy powder during hot isostatic pressing
title_short Densification modeling of titanium alloy powder during hot isostatic pressing
title_full Densification modeling of titanium alloy powder during hot isostatic pressing
title_fullStr Densification modeling of titanium alloy powder during hot isostatic pressing
title_full_unstemmed Densification modeling of titanium alloy powder during hot isostatic pressing
title_sort densification modeling of titanium alloy powder during hot isostatic pressing
publisher International Institute for the Science of Sintering, Beograd
series Science of Sintering
issn 0350-820X
publishDate 2011-01-01
description Densification model of titanium alloy (Ti-6Al-4V) are investigated during hot isostatic pressing (Hip). Experimental data was obtained at various pressures and temperatures during hot isostatic pressing (Hip). Experimental data are compared with the finite element calculations by using the hybrid model and Abouaf model, respectively. The results show that the finite element calculation results by the hybrid model are in agreement with the experimental data for densification behaviour of the titanium alloy powder under Hip; however, the finite element calculation results by using the Abouaf model are over the experimental data. In addition, in order to obtaining relative density distributions of porous body, the statistical relationships during Poisson’s ratio, Rockwell hardness and the relative density of porous body were formulated, the results show that the statistical relationship between Poisson’s ratio and the relative density of porous body is essential to construct such a constitutive model; the statistical relationship between Rockwell hardness and the relative density of porous body is essential to obtain relative density distributions of porous body.
topic constitutive model
densification
finite element analysis
hot isostatic pressing
titanium alloy
url http://www.doiserbia.nb.rs/img/doi/0350-820X/2011/0350-820X1103247X.pdf
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AT bugl densificationmodelingoftitaniumalloypowderduringhotisostaticpressing
AT lil densificationmodelingoftitaniumalloypowderduringhotisostaticpressing
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