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Specifications for machining the bovine cortical bone in relation to its microstructure
Abstract Until date, many devices have been developed for cutting human bones during orthopedic surgeries. However, bones are anisotropic material, and their machining characteristics depend on the tool feed direction. In this study, microcutting of the bovine cortical bone is performed and its stru...
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Published in: | Journal of biomechanics 2009-12, Vol.42 (16), p.2826-2829 |
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creator | Sugita, Naohiko Mitsuishi, Mamoru |
description | Abstract Until date, many devices have been developed for cutting human bones during orthopedic surgeries. However, bones are anisotropic material, and their machining characteristics depend on the tool feed direction. In this study, microcutting of the bovine cortical bone is performed and its structure observed under a microscope. Furthermore, the formation of cutting chips and measurement of the cutting force during bone machining are dynamically observed while considering the anisotropy of bone tissue. In particular, the fracture of secondary osteons and crack propagation in bones are observed and analyzed. The results indicate that when the cut depth exceeds 20 μm and is greater than the interval of concentric lamellae, cracks are formed together with chips. A new method for bone machining is proposed. This method is based on the characteristics of crack propagation in bones and is expected to produce low mechanical stress and realize highly efficient and precise machining of living tissues such as bones. |
doi_str_mv | 10.1016/j.jbiomech.2009.08.017 |
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However, bones are anisotropic material, and their machining characteristics depend on the tool feed direction. In this study, microcutting of the bovine cortical bone is performed and its structure observed under a microscope. Furthermore, the formation of cutting chips and measurement of the cutting force during bone machining are dynamically observed while considering the anisotropy of bone tissue. In particular, the fracture of secondary osteons and crack propagation in bones are observed and analyzed. The results indicate that when the cut depth exceeds 20 μm and is greater than the interval of concentric lamellae, cracks are formed together with chips. A new method for bone machining is proposed. 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subjects | Accuracy Animals Biomedical material cutting Bone density Canals Cattle Crack initiation Crack propagation Cutting forces Cutting tools Femur - cytology Femur - surgery Fracture analysis In Vitro Techniques Machinability Microstructure Osteotomy - methods Physical Medicine and Rehabilitation Secondary osteon Studies |
title | Specifications for machining the bovine cortical bone in relation to its microstructure |
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