Maio 2014 vol. 1 num. 1 - 10th World Congress on Computational Mechanics
Full Article - Open Access.
A MATHEMATICAL MODEL OF BONE REMODELING CONSIDERING MECHANOREGULATORY MECHANISMS: THEORETICAL MODEL DEVELOPMENT AND NUMERICAL STUDIES
Scheiner, S. ; Pivonka, P. ; Hellmich, C. ; Smith, D.W. ;
Full Article:
Bone remodeling involves the coordinated removal of bone by osteoclasts and addition of bone by osteoblasts, a process that is modulated by the prevailing mechanical environment. In this paper a fully coupled model of bone remodeling is developed, based on coupling a bone cell population model with a micromechanical homogenization scheme of bone stiffness. While the former model considers biochemical regulatory mechanisms between bone cells such as the RANK-RANKL-OPG pathway and action of TGF-beta, the latter model allows for accurate upscaling of the mechanical properties of bone. Importantly, we consider bone remodeling as being controlled proportionally to the microscopic strain energy density, on the observation scale where the sensing of the mechanical loading takes place, estimated by means of continuum micromechanics-based strain concentration. This approach allows to address two fundamental questions of bone biology: (i) How do biochemical changes influence bone remodeling and so affect the composition and mechanical properties of bone? and (ii) What mechanisms are responsible for mechanoregulation of bone remodeling? Numerical studies highlight the conceptual advantage of this new approach compared to conventional phenomenological models. It is demonstrated that the proposed model is able to simulate changes of the bone constituent volume fractions that are in qualitative agreement with experimental observations for osteoporotic and disuse syndromes.
Full Article:
Palavras-chave: Bone remodeling, Mathematical modeling, Bone cell population dynamics, Continuum micromechanics, Mechanoregulation.,
Palavras-chave:
DOI: 10.5151/meceng-wccm2012-16678
Referências bibliográficas
- [1] J.E. Aubin. Bone stem cells. Journal of Cellular Biochemistry, Supplements 30/31:73– 82, 1998.
- [2] R.B. Martin, D.B. Burr, and N.A. Sharkey. Skeletal Tissue Mechanics. Springer Verlag, 1998.
- [3] V. Lemaire, F.L. Tobin, L.D. Greller, C.R. Cho, and L.J. Suva. Modeling of the interactions between osteoblast and osteoclast activities in bone remodeling. Journal of Theoretical Biology, 229(3):293–309, 2004.
- [4] P. Pivonka, J. Zimak, D.W. Smith, B.S. Gardiner, C.R. Dunstan, N.A. Sims, T.J. Martin, and G.R. Mundy. Model structure and control of bone remodeling: A theoretical study. Bone, 43(2):249–263, 2008.
- [5] P. Pivonka, J. Zimak, D.W. Smith, B.S. Gardiner, C.R. Dunstan, N.A. Sims, T.J. Martin, and G.R. Mundy. Theoretical investigation of the role of the RANK-RANKL-OPG system in bone remodeling. Journal of Theoretical Biology, 262(2):306–316, 2010.
- [6] C.T. Rubin and L.E. Lanyon. Regulation of bone mass by mechanical strain magnitude. Calcified Tissue International, 37(4):411–417, 1985.
- [7] C.H. Turner and F.M. Pavalko. Mechanotransduction and functional response of the skeleton to physical stress: The mechanisms and mechanics of bone adaptation. Journal of Orthopaedic Science, 3(6):346–355, 1998.
- [8] R.B. Martin. Toward a unifying theory of bone remodeling. Bone, 26(1):1–6, 2000.
- [9] L. Geris, J. Vander Sloten, and H. Van Oosterwyck. In silico biology of bone modeling and remodeling: regeneration. Philosophical Transactions of the Royal Society London A, 367(1895):2031–2053, 200
- [10] L.F. Bonewald and M.L. Johnson. Osteocytes, mechanosensing and Wnt signaling. Bone, 42(4):606–615, 2008.
- [11] C.H. Turner and A.G. Robling. Mechanisms by which exercise improves bone strength. Journal of Bone and Mineral Metabolism, 23(S1):16–22, 2005.
- [12] J.-Y. Rho, L. Kuhn-Spearing, and P. Zioupos. Mechanical properties and the hierarchical structure of bone. Medical Engineering and Physics, 20(2):92–102, 1998.
- [13] S.Weiner and H.D.Wagner. Thematerial bone: Structure-mechanical function relations. Annual Review of Materials Science, 28(1):271–298, 1998.
- [14] A. Zaoui. Structural Morphology and Constitutive Behavior of Microheterogeneous Materials, chapter 6, pages 291 – 347. Springer-Verlag, Wien New York, 1997.
- [15] A. Zaoui. Continuum micromechanics: survey. Journal of Engineering Mechanics (ASCE), 128(8):808–816, 2002.
- [16] Ch. Hellmich and F.-J. Ulm. Micromechanical model for ultra-structural stiffness of mineralized tissues. Journal of EngineeringMechanics (ASCE), 128(8):898 – 908, 2002.
- [17] A. Fritsch and C. Hellmich. ‘Universal’ microstructural patterns in cortical and trabecular, extracellular and extravascular bone materials: micromechanics-based prediction of anisotropic elasticity. Journal of Theoretical Biology, 244(4):597–620, 2007.
- [18] J. Vuong and C. Hellmich. Bone fibrillogenesis andmineralization: Quantitative analysis and implications for tissue elasticity. Journal of Theoretical Biology, 287:115 – 130, 2011.
- [19] Ch. Hellmich, J.-F. Barth´el´emy, and L. Dormieux. Mineral-collagen interactions in elasticity of bone ultrastructure - a continuum micromechanics approach. European Journal of Mechanics - A/Solids, 23(5):783 – 810, 2004.
- [20] E. Seeman. Invited review: pathogenesis of osteoporosis. Journal of Applied Physiology, 95(5):2142–2151, 2003.
- [21] D.M.L. Cooper, C.D.L. Thomas, J.G. Clement, A.L. Turinsky, C.W. Sensen, and B. Hallgr´imson. Age-dependent change in the 3D structure of cortical porosity at the human femoral midshaft. Bone, 40(4):957–965, 2007.
- [22] L.F. Bonewald and S.L. Dallas. Role of active and latent transforming growth factor- in bone formation. Journal of Cellular Biochemistry, 55(3):350–357, 1994.
- [23] K. Janssens, P. ten Dijke, S. Janssens, and W. Van Hul. Transforming growth factor- 1 to the bone. Endocrine Reviews, 26(6):743–774, 2005.
- [24] L.C. Hofbauer, C.A. Kühne, and V. Viereck. The OPG/RANKL/RANK system in metabolic bone diseases. Journal of Musculoskeletal Neuronal Interactions, 4(3):268– 275, 2004.
- [25] A.G. Robling, A. Castillo, and C.H. Turner. Biomechanical and molecular regulation of bone remodeling. Annual Review of Biomedical Engineering, 8:455–498, 2006.
- [26] R. Hill. Elastic properties of reinforced solids: some theoretical principles. Journal of Mechanics and Physics of Solids, 11(5):357–372, 1963.
- [27] R. Hill. Continuummicro-mechanics of elastoplastic polycrystals. Journal ofMechanics and Physics of Solids, 13(2):89–101, 1965.
- [28] P.M. Suquet. Continuum Micromechanics, volume 377 of CISM Courses and Lectures. Springer Verlag, Wien New York, 1997.
- [29] J. Eshelby. The determination of the elastic field of an ellipsoidal inclusion, and related problems. Proceedings of the Royal Society London, Series A, 241:376 – 396, 1957.
- [30] N. Laws. The determination of stress and strain concentrations at an ellipsoidal inclusion in an anisotropic material. Journal of Elasticity, 7(1):91 – 97, 1977.
- [31] T. Mori and K. Tanaka. Average stress in matrix and average elastic energy of materials with misfitting inclusions. Acta Metallurgica, 21(5):571 – 574, 1973.
- [32] Y. Benveniste. A new approach to the application of Mori-Tanaka’s theory in composite materials. Mechanics of Materials, 6:147 – 157, 1987.
- [33] A. Fritsch, L. Dormieux, and Ch. Hellmich. Porous polycrystals built up by uniformly and axisymmetrically oriented needles: homogenization of elastic properties. Comptes Rendus M´ecanique, 334(3):151 – 157, 2006.
- [34] C. Hellmich, C. Kober, and B. Erdmann. Micromechanics-based conversion of CT data into anisotropic elasticity tensors, applied to FE simulations of a mandible. Annals of Biomedical Engineering, 36(1):108–122, 2008.
- [35] R.B. Ashman, S.C. Cowin, W.C. Van Buskirk, and J.C. Rice. A continuous wave technique for the measurement of the elastic properties of cortical bone. Journal of Biomechanics, 17(5):349–361, 1984.
- [36] D.P. Fyhrie and D.R. Carter. A unifying principle relating stress to trabecular bone morphology. Journal of Orthopaedic Research, 4(3):304–317, 1986.
- [37] R. Huiskes, H.Weinans, H.J. Grootenboer,M. Dalstra, B. Fudala, and T.J. Slooff. Adaptive bone-remodeling theory applied to prosthetic-design analysis. Journal of Biomechanics, 20(11-12):1135–1150, 1987.
- [38] J.M. Garcia-Aznar, J.H. Kuiper, M.J. Gómez-Benito, M. Doblar´e, and J.B. Richardson. Computational simulation of fracture healing: Influence of interfragmentary movement on the callus growth. Journal of Biomechanics, 40(7):1467–1476, 2007.
- [39] E. Ozcivici, Y.K. Luu, B. Adler, Y.-X. Qin, J. Rubin, S. Judex, and C.T. Rubin. Mechanical signals as anabolic agents in bone. Nature Reviews Rheumatology, 6(1):50–59, 2010.
- [40] L. Vico and C. Alexandre. Microgravity and bone adaption at the tissue level. Journal of Bone and Mineral Research, 7(S2):445–447, 1992.
- [41] L. Vico, P. Collet, A. Guignandon, M.-H. Lafage-Proust, T. Thomas, M. Rehailia, and C. Alexandre. Effects of long-term microgravity exposure on cancellous and cortical weight-bearing bones of cosmonauts. The Lancet, 355(9215):1607–1611, 2000.
Como citar:
Scheiner, S.; Pivonka, P.; Hellmich, C.; Smith, D.W.; "A MATHEMATICAL MODEL OF BONE REMODELING CONSIDERING MECHANOREGULATORY MECHANISMS: THEORETICAL MODEL DEVELOPMENT AND NUMERICAL STUDIES", p. 175-188 . In: In Proceedings of the 10th World Congress on Computational Mechanics [= Blucher Mechanical Engineering Proceedings, v. 1, n. 1].
São Paulo: Blucher,
2014.
ISSN 2358-0828,
DOI 10.5151/meceng-wccm2012-16678
últimos 30 dias | último ano | desde a publicação
downloads
visualizações
indexações