Development of new Hopkinson’s device dedicated to rib’s bone characterisation

This study presents an original approach for the design of adapted Hopkinson device dedicated to the characterisation of human ribs’ cortical bone. The quasi-static study carried out on flat samples coming from this anatomical part highlighted the importance of the critical effect of sample shape an...

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Main Authors: Markiewicz E., Drazetic P., Delille R., Chaâri F., Haugou G., Mayeur O.
Format: Article
Language:English
Published: EDP Sciences 2012-08-01
Series:EPJ Web of Conferences
Online Access:http://dx.doi.org/10.1051/epjconf/20122603005
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spelling doaj-9a696036cace4f6ebda86d134ff74f5d2021-08-02T10:47:33ZengEDP SciencesEPJ Web of Conferences2100-014X2012-08-01260300510.1051/epjconf/20122603005Development of new Hopkinson’s device dedicated to rib’s bone characterisationMarkiewicz E.Drazetic P.Delille R.Chaâri F.Haugou G.Mayeur O.This study presents an original approach for the design of adapted Hopkinson device dedicated to the characterisation of human ribs’ cortical bone. The quasi-static study carried out on flat samples coming from this anatomical part highlighted the importance of the critical effect of sample shape and location on the accuracy of identify mechanical behaviour. The access to higher rates of strains, Hopkinson bars technique are classically required whatever compression or tension loadings. Classical designs of measurement bars are not suitable for this purpose due to the complexity of specimen’s geometry (thickness variation). In this context, a new design of SHTB is studied here on the basis on a Finite Element approach of the set measurement bars/biological coupon. Finite Element simulations have been conducted using Abaqus explicit code by varying the design configuration. The comparison on input and output elastic waves suggests a set of small diameter bars in polyamide 66 for a better signal measurement. http://dx.doi.org/10.1051/epjconf/20122603005
collection DOAJ
language English
format Article
sources DOAJ
author Markiewicz E.
Drazetic P.
Delille R.
Chaâri F.
Haugou G.
Mayeur O.
spellingShingle Markiewicz E.
Drazetic P.
Delille R.
Chaâri F.
Haugou G.
Mayeur O.
Development of new Hopkinson’s device dedicated to rib’s bone characterisation
EPJ Web of Conferences
author_facet Markiewicz E.
Drazetic P.
Delille R.
Chaâri F.
Haugou G.
Mayeur O.
author_sort Markiewicz E.
title Development of new Hopkinson’s device dedicated to rib’s bone characterisation
title_short Development of new Hopkinson’s device dedicated to rib’s bone characterisation
title_full Development of new Hopkinson’s device dedicated to rib’s bone characterisation
title_fullStr Development of new Hopkinson’s device dedicated to rib’s bone characterisation
title_full_unstemmed Development of new Hopkinson’s device dedicated to rib’s bone characterisation
title_sort development of new hopkinson’s device dedicated to rib’s bone characterisation
publisher EDP Sciences
series EPJ Web of Conferences
issn 2100-014X
publishDate 2012-08-01
description This study presents an original approach for the design of adapted Hopkinson device dedicated to the characterisation of human ribs’ cortical bone. The quasi-static study carried out on flat samples coming from this anatomical part highlighted the importance of the critical effect of sample shape and location on the accuracy of identify mechanical behaviour. The access to higher rates of strains, Hopkinson bars technique are classically required whatever compression or tension loadings. Classical designs of measurement bars are not suitable for this purpose due to the complexity of specimen’s geometry (thickness variation). In this context, a new design of SHTB is studied here on the basis on a Finite Element approach of the set measurement bars/biological coupon. Finite Element simulations have been conducted using Abaqus explicit code by varying the design configuration. The comparison on input and output elastic waves suggests a set of small diameter bars in polyamide 66 for a better signal measurement.
url http://dx.doi.org/10.1051/epjconf/20122603005
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