Three-dimensional finite element model of the drilling process used for fixation of Salter–Harris type-3 fractures by using a K-wire

In this study, the drilling process was performed with Kirschner wire (K-wire) for stabilization after reduction of Salter–Harris (SH) type-3 epiphyseal fractures of distal femur. The study was investigated both experimentally and numerically. The numerical analyses were performed with finite elemen...

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Main Authors: A. Gok, K. Gok, M. B. Bilgin
Format: Article
Language:English
Published: Copernicus Publications 2015-08-01
Series:Mechanical Sciences
Online Access:http://www.mech-sci.net/6/147/2015/ms-6-147-2015.pdf
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spelling doaj-d3f5a6ec9f314a3d82ba701a953207be2020-11-24T22:58:08ZengCopernicus PublicationsMechanical Sciences2191-91512191-916X2015-08-016214715410.5194/ms-6-147-2015Three-dimensional finite element model of the drilling process used for fixation of Salter–Harris type-3 fractures by using a K-wireA. Gok0K. Gok1M. B. Bilgin2Amasya University, Technology Faculty, Department of Mechanical Engineering, 05000 Amasya, TurkeyDumlupınar University, Kütahya Vocational School of Technical Sciences, Germiyan Campus, 43100 Kütahya, TurkeyAmasya University, Technology Faculty, Department of Mechanical Engineering, 05000 Amasya, TurkeyIn this study, the drilling process was performed with Kirschner wire (K-wire) for stabilization after reduction of Salter–Harris (SH) type-3 epiphyseal fractures of distal femur. The study was investigated both experimentally and numerically. The numerical analyses were performed with finite element method (FEM), using DEFORM-3D software. Some conditions such as friction, material model and load and boundary must be identified exactly while using FEM. At the same time, an analytic model and software were developed, which calculate the process parameters such as drilling power and thrust power, heat transfer coefficients and friction coefficient between tool–chip interface in order to identify the temperature distributions occurring in the K-wire and bone model (Keklikoǧlu Plastik San.) material during the drilling process. Experimental results and analysis results have been found as consistent with each other. The main cutting force, thrust force, bone model temperature and K-wire temperature were measured as 80° N, 120° N, 69 °C and 61 °C for 400 rpm in experimental studies. The main cutting force, thrust force, bone model temperature and K-wire temperature were measured as 65° N, 87° N, 91 °C and 82 °C for 800 rpm in experimental studies. The main cutting force, thrust force, bone model temperature and K-wire temperature were measured as 85° N, 127° N, 72 °C and 67 °C for 400 rpm in analysis studies. The main cutting force, thrust force, bone model temperature and K-wire temperature were measured as 69° N, 98° N, 83 °C and 76 °C for 800 rpm in analysis studies. A good consistency was obtained between experimental results and finite element analysis (FEA) results. This proved the validity of the software and finite element model. Thus, this model can be used reliably in such drilling processes.http://www.mech-sci.net/6/147/2015/ms-6-147-2015.pdf
collection DOAJ
language English
format Article
sources DOAJ
author A. Gok
K. Gok
M. B. Bilgin
spellingShingle A. Gok
K. Gok
M. B. Bilgin
Three-dimensional finite element model of the drilling process used for fixation of Salter–Harris type-3 fractures by using a K-wire
Mechanical Sciences
author_facet A. Gok
K. Gok
M. B. Bilgin
author_sort A. Gok
title Three-dimensional finite element model of the drilling process used for fixation of Salter–Harris type-3 fractures by using a K-wire
title_short Three-dimensional finite element model of the drilling process used for fixation of Salter–Harris type-3 fractures by using a K-wire
title_full Three-dimensional finite element model of the drilling process used for fixation of Salter–Harris type-3 fractures by using a K-wire
title_fullStr Three-dimensional finite element model of the drilling process used for fixation of Salter–Harris type-3 fractures by using a K-wire
title_full_unstemmed Three-dimensional finite element model of the drilling process used for fixation of Salter–Harris type-3 fractures by using a K-wire
title_sort three-dimensional finite element model of the drilling process used for fixation of salter–harris type-3 fractures by using a k-wire
publisher Copernicus Publications
series Mechanical Sciences
issn 2191-9151
2191-916X
publishDate 2015-08-01
description In this study, the drilling process was performed with Kirschner wire (K-wire) for stabilization after reduction of Salter–Harris (SH) type-3 epiphyseal fractures of distal femur. The study was investigated both experimentally and numerically. The numerical analyses were performed with finite element method (FEM), using DEFORM-3D software. Some conditions such as friction, material model and load and boundary must be identified exactly while using FEM. At the same time, an analytic model and software were developed, which calculate the process parameters such as drilling power and thrust power, heat transfer coefficients and friction coefficient between tool–chip interface in order to identify the temperature distributions occurring in the K-wire and bone model (Keklikoǧlu Plastik San.) material during the drilling process. Experimental results and analysis results have been found as consistent with each other. The main cutting force, thrust force, bone model temperature and K-wire temperature were measured as 80° N, 120° N, 69 °C and 61 °C for 400 rpm in experimental studies. The main cutting force, thrust force, bone model temperature and K-wire temperature were measured as 65° N, 87° N, 91 °C and 82 °C for 800 rpm in experimental studies. The main cutting force, thrust force, bone model temperature and K-wire temperature were measured as 85° N, 127° N, 72 °C and 67 °C for 400 rpm in analysis studies. The main cutting force, thrust force, bone model temperature and K-wire temperature were measured as 69° N, 98° N, 83 °C and 76 °C for 800 rpm in analysis studies. A good consistency was obtained between experimental results and finite element analysis (FEA) results. This proved the validity of the software and finite element model. Thus, this model can be used reliably in such drilling processes.
url http://www.mech-sci.net/6/147/2015/ms-6-147-2015.pdf
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