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Abstract
The increasing rate of osteoporosis in an aging population calls for a greater
understanding of the cellular mechanism of bone resorption. We propose a biphasic
mixture model. The solid phase (matrix) is assumed to be elastic and isotropic, and
the fluid phase is assumed to be a linear viscous fluid. We give conservation equations
for each constituent and for the whole mixture, and write new constitutive equations
for the system. The rate of mass supply to constituents, caused by chemical
reactions, is taken from an empirical relation of dissolution kinetics. We derive the
biochemomechanical affinity in terms of biological, chemical, and mechanical
factors. The strain energy density, hydrostatic pressure, and concentration of
different ions present in the mixture are shown to affect the rate of bone
resorption.
Keywords
bone resorption, mixture theory, chemical reactions,
osteoporosis
Milestones
Received: 28 September 2006
Revised: 6 March 2007
Accepted: 3 April 2007
Published: 1 August 2007