Development of a Hip Joint Model for Finite Volume Simulations

Files in This Item:
File Description SizeFormat 
Cardiff - Development of a Hip Joint Model for Finite Volume Simulations.pdf4.54 MBAdobe PDFDownload
Title: Development of a Hip Joint Model for Finite Volume Simulations
Authors: Cardiff, Philip
Karac, Aleksandar
FitzPatrick, David P.
et al.
Permanent link: http://hdl.handle.net/10197/5937
Date: 3-Dec-2013
Abstract: This paper establishes a procedure for numerical analysis of a hip joint using the finite volume method. Patient-specific hip joint geometry is segmented directly from computed tomography and magnetic resonance imaging datasets and the resulting bone surfaces are processed into a form suitable for volume meshing. A high resolution continuum tetrahedral mesh has been generated, where a sandwich model approach is adopted; the bones are represented as a stiffer cortical shells surrounding more flexible cancellous cores. Cartilage is included as a uniform thickness extruded layer and the effect of layer thickness is investigated. To realistically position the bones, gait analysis has been performed giving the 3D positions of the bones for the full gait cycle. Three phases of the gait cycle are examined using a finite volume based custom structural contact solver implemented in open-source software OpenFOAM.
Type of material: Journal Article
Publisher: ASME International
Copyright (published version): 2013 ASME International
Keywords: Hip joint;gait analysis;bone segmentation;volume meshing;Finite volume method;OpenFOAM;Contact stress analysis
DOI: 10.1115/1.4025776
Language: en
Status of Item: Peer reviewed
Appears in Collections:Mechanical & Materials Engineering Research Collection

Show full item record

SCOPUSTM   
Citations 50

7
Last Week
0
Last month
checked on Jun 23, 2018

Google ScholarTM

Check

Altmetric


This item is available under the Attribution-NonCommercial-NoDerivs 3.0 Ireland. No item may be reproduced for commercial purposes. For other possible restrictions on use please refer to the publisher's URL where this is made available, or to notes contained in the item itself. Other terms may apply.