This paper proposes the conceptual design of a mechanical stimulator that uses a tissue engineering strategy to develop a diarthrosislike structure in vivo. The adopted design approach is based on a function analysis. The approach has resulted in the design of a stimulator consisting of four components: cages, a compliant four-bar mechanism, a transmission mechanism, and a fixation component. The implanted stimulator is driven by internal body power, particularly by the longitudinal deformation of a skeletal muscle. The compliant mechanism is designed to impose controlled shear and compressive strain to the growing joint construct in order to initiate cartilage formation. The paper emphasizes the conceptual design and its rationale. Evaluation using finite element analysis was performed, which showed that the design meets the technical demands. Titanium prototypes were fabricated for stiffness and endurance testing.
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Design of a Mechanical Stimulator for In Vivo Tissue Engineering of a Diarthrosislike Structure
Sureshan Sivananthan,
Sureshan Sivananthan
South West London Elective Orthopaedic Centre
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Patrick Warnke
Patrick Warnke
University of Kiel
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Jet Human
Delft University of Technology
Eelko May
Delft University of Technology
Just Herder
Delft University of Technology
Jan Herman Kuiper
Keele University
Jill Urban
Oxford University
James Richardson
Keele University
Sureshan Sivananthan
South West London Elective Orthopaedic Centre
Patrick Warnke
University of Kiel
J. Med. Devices. Jun 2010, 4(2): 027538 (1 pages)
Published Online: August 12, 2010
Article history
Published:
August 12, 2010
Citation
Human, J., May, E., Herder, J., Kuiper, J. H., Urban, J., Richardson, J., Sivananthan, S., and Warnke, P. (August 12, 2010). "Design of a Mechanical Stimulator for In Vivo Tissue Engineering of a Diarthrosislike Structure." ASME. J. Med. Devices. June 2010; 4(2): 027538. https://doi.org/10.1115/1.3443776
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