Please use this identifier to cite or link to this item: http://repositorio.unicamp.br/jspui/handle/REPOSIP/320174
Type: Artigo de Periódico
Title: Evaluation Of Bone Remodeling Around Single Dental Implants Of Different Lengths: A Mechanobiological Numerical Simulation And Validation Using Clinical Data
Author: Sotto-Maior
BS; Mercuri
EGF; Senna
PM; Assis
NMSP; Francischone
CE; Cury
AAD
Abstract: Algorithmic models have been proposed to explain adaptive behavior of bone to loading; however, these models have not been applied to explain the biomechanics of short dental implants. Purpose of present study was to simulate bone remodeling around single implants of different lengths using mechanoregulatory tissue differentiation model derived from the Stanford theory, using finite elements analysis (FEA) and to validate the theoretical prediction with the clinical findings of crestal bone loss. Loading cycles were applied on 7-, 10-, or 13-mm-long dental implants to simulate daily mastication and bone remodeling was assessed by changes in the strain energy density of bone after a 3, 6, and 12 months of function. Moreover, clinical findings of marginal bone loss in 45 patients rehabilitated with same implant designs used in the simulation (n = 15) were computed to validate the theoretical results. FEA analysis showed that although the bone density values reduced over time in the cortical bone for all groups, bone remodeling was independent of implant length. Clinical data showed a similar pattern of bone resorption compared with the data generated from mathematical analyses, independent of implant length. The results of this study showed that the mechanoregulatory tissue model could be employed in monitoring the morphological changes in bone that is subjected to biomechanical loads. In addition, the implant length did not influence the bone remodeling around single dental implants during the first year of loading.
Subject: Bone Remodeling
Mechanobiological
Dental Implants
Editor: TAYLOR & FRANCIS LTD
Citation: Computer Methods In Biomechanics And Biomedical Engineering. TAYLOR & FRANCIS LTD, n. 19, n. 7, p. 699 - 706.
Rights: fechado
Identifier DOI: 10.1080/10255842.2015.1052418
Address: http://www.tandfonline.com/doi/abs/10.1080/10255842.2015.1052418?journalCode=gcmb20
Date Issue: 2016
Appears in Collections:Unicamp - Artigos e Outros Documentos

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