Compressive strength of mandibular bone as a function of microstructure and strain rate

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Robertson, Diane Margel¹; Smith, Dennis C.¹

Compressive strength of mandibular bone as a function of microstructure and strain rate

J Biomech. 1978;11(10-12):455-471

©1978 Pergamon Press Ltd.

Affiliations

¹Faculty of Dentistry, University of Toronto, Toronto, Canada M5G 1GC
Abstract

An investigation has been made of the compressive strength of the porcine mandible and its depedence upon microstructure and strain rate. The results are compared with the fracture behavior of bovine femoral bone. Regarding microstructural dependence, it was found that fracture behavior depends upon regularity of structure, morphology of subunits, orientation of lamellae with respect to the stress axis, amount of ground substance, density and mineral content. Fracture mode was found to be a strong function of strain rate. For both porcine mandibular and bovine femoral bone, there is a ductile-to-brittle transition which results in a change of strain rate sensitivity coefficient from 0.1 to 0.0 at the transition region. This is corroborated by a large change in work-to-fracture values at this region. Therefore, the existence of a critical velocity for bone is supported by the present data.
Links

DOI: 10.1016/0021-9290(78)90057-X

PubMed: 730760

WoS: A1978GA25000004
History

Received: 1978-03-9

Revised: 1978-05-19

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Cited By (23)

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1989	Schaffler MB, Radin EL, Burr DB. Mechanical and morphological effects of strain rate on fatigue of compact bone. Bone. 1989;10(3):207-214.
2020	Zioupos P, Kirchner HOK, Peterlik H. Ageing bone fractures: the case of a ductile to brittle transition that shifts with age. Bone. February 2020;131:115176.
1992	Evans GP, Behiri JC, Vaughan LC, Bonfield W. The response of equine cortical bone to loading at strain rates experienced in vivo by the galloping horse. Equine Vet J. March 1992;24(2):125-128.
1997	Burr DB. Bone, exercise, and stress fractures. Exerc Sport Sci Rev. January 1997;25(1):171-194.
1984	Behiri JC, Bonfield W. Fracture mechanics of bone: the effects of density, specimen thickness and crack velocity on longitudinal fracture. J Biomech. 1984;17(1):25-34.
1992	Simske SJ, Guerra KM, Greenberg AR, Luttges MW. The physical and mechanical effects of suspension-induced osteopenia on mouse long bones. J Biomech. May 1992;25(5):489-499.
2008	Zioupos P, Hansen U, Currey JD. Microcracking damage and the fracture process in relation to strain rate in human cortical bone tensile failure. J Biomech. October 20, 2008;41(14):2932-2939.
1982	Williams JL, Lewis JL. Properties and an anisotropic model of cancellous bone from the proximal tibial epiphysis. J Biomech Eng. February 1982;104(1):50-56.
1987	Krause WR. Orthogonal bone cutting: saw design and operating characteristics. J Biomech Eng. August 1987;109(3):263-271.
2008	Hansen U, Zioupos P, Simpson R, Currey JD, Hynd D. The effect of strain rate on the mechanical properties of human cortical bone. J Biomech Eng. February 2008;130(1):011011.
2013	Gilchrist S, Guy P, Cripton PA. Development of an inertia-driven model of sideways fall for detailed study of femur fracture mechanics. J Biomech Eng. December 2013;135(12):121001.
2011	Ural A, Zioupos P, Buchanan D, Vashishth D. The effect of strain rate on fracture toughness of human cortical bone: a finite element study. J Mech Behav Biomed Mater. October 2011;4(7):1021-1032.
2007	Gupta HS, Fratzl P, Kerschnitzki M, Benecke G, Wagermaier W, Kirchner HOK. Evidence for an elementary process in bone plasticity with an activation enthalpy of 1 eV. J R Soc Interface. April 22, 2007;4(3):277-282.
2006	Adharapurapu RR, Jiang F, Vecchio KS. Dynamic fracture of bovine bone. Mater Sci Eng C Mater Biol Appl. September 2006;26(8):1325-1332.
2011	Yu B, Zhao G-F, Lim JI, Lee Y-K. Compressive mechanical properties of bovine cortical bone under varied loading rates. Proc Inst Mech Eng Part H-J Eng Med. October 2011;225(10):941-947.
2011	Storvik SG. Development of an Experimental Model to Quantify Lumbar Spine Kinematics During Military Seat Ejection [Master's thesis]. Marquette University; August 2011.
1998	Robling AG. Histomorphometric Assessment of Mechanical Loading History from Human Skeletal Remains: The Relation Between Micromorphology and Macromorphology At the Femoral Midshaft [PhD thesis]. University of Missouri; December 1998.
2014	Gilchrist SM. Comparison of Proximal Femur Deformations, Failures and Fractures in Quasi-Static and Inertially-Driven Simulations of a Sideways Fall from Standing: An Experimental Study Utilizing Novel Fall Simulation, Digital Image Correlation, and Development of Digital Volume Correlation Techniques [PhD thesis]. Vancouver, BC: University of British Columbia; January 2014.
1994	Jepsen KJ. Characterization of the Hierarchical Composite Properties of Cortical Bone: A Transgenic Approach [PhD thesis]. University of Michigan; 1994.
1996	Beck BR. The Relationship of Streaming Potential Magnitude to Strain and Periosteal Modeling [PhD thesis]. Eugene, OR: University of Oregon; December 1996.
1996	James CR. Effects of Overuse Injury Proneness and Task Difficulty on Joint Kinetic Variability During Landing [PhD thesis]. Eugene, OR: University of Oregon; March 1996.
1985	Schaffler MB. Stiffness and Fatigue of Compact Bone At Physiological Strains and Strain Rates [PhD thesis]. West Virginia University; 1985.