Please use this identifier to cite or link to this item: http://hdl.handle.net/2440/62946
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Type: Journal article
Title: A novel closed-loop electromechanical stimulator to enhance osseointegration with immediate loading of dental implant restorations
Author: Meswania, J. M.
Bousdras, V. A.
Ahir, S. P.
Cunningham, J. L.
Blunn, Gordon W.
Goodship, Allen Edward
Citation: Proceedings of the Institution of Mechanical Engineers Part H - Journal of Engineering in Medicine, 2010; 224(10):1221-1232
Publisher: Professional Engineering Publishing Ltd
Issue Date: 2010
ISSN: 0954-4119
School/Discipline: School of Medical Sciences : Pathology
Statement of
Responsibility: 
J M Meswania, V A Bousdras, S P Ahir, J L Cunningham, G W Blunn and A E Goodship
Abstract: The degree of osseomechanical integration of dental implants is acutely sensitive to their mechanical environment. Bone, both as a tissue and structure, adapts its mass and architecture in response to loading conditions. Therefore, application of predefined controlled loads may be considered as a treatment option to promote early maturation of bone/implant interface prior to or in conjunction with crown/prosthesis attachment. Although many studies have established that the magnitude, rate of the applied strain, and frequency have significant effects on the osteogenic response, the actual specific relationships between strain parameters and frequency have not yet been fully defined. The purpose of this study was to develop a stimulator to apply defined mechanical stimuli to individual dental implants in vivo immediately after implantation, exploring the hypothesis that immediate controlled loading could enhance implant integration. An electromechanical device was developed, based on load values obtained using a two-dimensional finite element analysis of the bone/implant interface generating 1000 to 4000 με and operated at 30 and 3 Hz respectively. The device was then tested in a cadaveric pig mandible, and periosteal bone surface strains were recorded for potential future comparison with a three-dimensional finite element model to determine loading regimens to optimize interface strains and iterate the device for clinical use.
Keywords: dental implant; osseointegration; osteogenic stimuli; bone enhancement; biophysical forces
Rights: Copyright ©2010, MetaPress. All Rights Reserved.
RMID: 0020102533
DOI: 10.1243/09544119JEIM686
Appears in Collections:Pathology publications

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