Machining of bone: Analysis of cutting force and surface roughness by turning process

There are millions of orthopedic surgeries and dental implantation procedures performed every year globally. Most of them involve machining of bones and cartilage. However, theoretical and analytical study on bone machining is lagging behind its practice and implementation. This study views bone mac...

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Main Authors: Noordin, M. Y., Jiawkok, N., Ndaruhadi, P. Y. M. W., Kurniawan, D.
Format: Article
Published: SAGE Publications Ltd. 2015
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Online Access:http://eprints.utm.my/id/eprint/58492/
http://dx.doi.org/10.1177/0954411915606169
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spelling my.utm.584922021-11-24T08:47:33Z http://eprints.utm.my/id/eprint/58492/ Machining of bone: Analysis of cutting force and surface roughness by turning process Noordin, M. Y. Jiawkok, N. Ndaruhadi, P. Y. M. W. Kurniawan, D. TJ Mechanical engineering and machinery There are millions of orthopedic surgeries and dental implantation procedures performed every year globally. Most of them involve machining of bones and cartilage. However, theoretical and analytical study on bone machining is lagging behind its practice and implementation. This study views bone machining as a machining process with bovine bone as the workpiece material. Turning process which makes the basis of the actually used drilling process was experimented. The focus is on evaluating the effects of three machining parameters, that is, cutting speed, feed, and depth of cut, to machining responses, that is, cutting forces and surface roughness resulted by the turning process. Response surface methodology was used to quantify the relation between the machining parameters and the machining responses. The turning process was done at various cutting speeds (29-156 m/min), depths of cut (0.03 -0.37 mm), and feeds (0.023-0.11 mm/rev). Empirical models of the resulted cutting force and surface roughness as the functions of cutting speed, depth of cut, and feed were developed. Observation using the developed empirical models found that within the range of machining parameters evaluated, the most influential machining parameter to the cutting force is depth of cut, followed by feed and cutting speed. The lowest cutting force was obtained at the lowest cutting speed, lowest depth of cut, and highest feed setting. For surface roughness, feed is the most significant machining condition, followed by cutting speed, and with depth of cut showed no effect. The finest surface finish was obtained at the lowest cutting speed and feed setting. SAGE Publications Ltd. 2015 Article PeerReviewed Noordin, M. Y. and Jiawkok, N. and Ndaruhadi, P. Y. M. W. and Kurniawan, D. (2015) Machining of bone: Analysis of cutting force and surface roughness by turning process. Proceedings Of The Institution Of Mechanical Engineers, Part H: Jourl Of Engineering In Medicine, 229 (11). pp. 761-768. ISSN 0954-4070 http://dx.doi.org/10.1177/0954411915606169 DOI: 10.1177/0954411915606169
institution Universiti Teknologi Malaysia
building UTM Library
collection Institutional Repository
continent Asia
country Malaysia
content_provider Universiti Teknologi Malaysia
content_source UTM Institutional Repository
url_provider http://eprints.utm.my/
topic TJ Mechanical engineering and machinery
spellingShingle TJ Mechanical engineering and machinery
Noordin, M. Y.
Jiawkok, N.
Ndaruhadi, P. Y. M. W.
Kurniawan, D.
Machining of bone: Analysis of cutting force and surface roughness by turning process
description There are millions of orthopedic surgeries and dental implantation procedures performed every year globally. Most of them involve machining of bones and cartilage. However, theoretical and analytical study on bone machining is lagging behind its practice and implementation. This study views bone machining as a machining process with bovine bone as the workpiece material. Turning process which makes the basis of the actually used drilling process was experimented. The focus is on evaluating the effects of three machining parameters, that is, cutting speed, feed, and depth of cut, to machining responses, that is, cutting forces and surface roughness resulted by the turning process. Response surface methodology was used to quantify the relation between the machining parameters and the machining responses. The turning process was done at various cutting speeds (29-156 m/min), depths of cut (0.03 -0.37 mm), and feeds (0.023-0.11 mm/rev). Empirical models of the resulted cutting force and surface roughness as the functions of cutting speed, depth of cut, and feed were developed. Observation using the developed empirical models found that within the range of machining parameters evaluated, the most influential machining parameter to the cutting force is depth of cut, followed by feed and cutting speed. The lowest cutting force was obtained at the lowest cutting speed, lowest depth of cut, and highest feed setting. For surface roughness, feed is the most significant machining condition, followed by cutting speed, and with depth of cut showed no effect. The finest surface finish was obtained at the lowest cutting speed and feed setting.
format Article
author Noordin, M. Y.
Jiawkok, N.
Ndaruhadi, P. Y. M. W.
Kurniawan, D.
author_facet Noordin, M. Y.
Jiawkok, N.
Ndaruhadi, P. Y. M. W.
Kurniawan, D.
author_sort Noordin, M. Y.
title Machining of bone: Analysis of cutting force and surface roughness by turning process
title_short Machining of bone: Analysis of cutting force and surface roughness by turning process
title_full Machining of bone: Analysis of cutting force and surface roughness by turning process
title_fullStr Machining of bone: Analysis of cutting force and surface roughness by turning process
title_full_unstemmed Machining of bone: Analysis of cutting force and surface roughness by turning process
title_sort machining of bone: analysis of cutting force and surface roughness by turning process
publisher SAGE Publications Ltd.
publishDate 2015
url http://eprints.utm.my/id/eprint/58492/
http://dx.doi.org/10.1177/0954411915606169
_version_ 1718926029569916928
score 13.149126