Influence of simulated bone quality and cortical bone thickness on implant stability detection using resonance frequency and damping factor analysis.

Sheng-Wei Feng, C.T. Lin, W.J. Chang, S.Y. Lee, C.H. Cheng, H.M. Huang

Research output: Contribution to journalArticle

6 Citations (Scopus)

Abstract

The aim of this study was to test whether damping factor is an adequate parameter for monitoring the status of the trabecular bone-implant interface. Implants were placed in epoxy resin with elastic moduli of 2,900, 210, and 1.4 MPa to simulate cortical bone, cancellous bone, and connective tissue, respectively. Resonance frequency and damping factor (DF) values of the tested implants were measured using vibration analysis. An impulse force was used to induce vibration within implants. The DF values of the tested implants were calculated from the obtained frequency spectrum using a half-power method. The resulting data were analyzed to test the statistical effects of the cortical height and trabecular status on the DF values of the sample implants. When the simulated tissue at the implant-bone interface changed from connective tissue to bone, the detected DF value decreased markedly. In addition, the mean DF value of the tested implants increased significantly (P
Original languageEnglish
Pages (from-to)105-112
Number of pages8
JournalInternational Journal of Oral and Maxillofacial Implants
Volume29
Issue number1
Publication statusPublished - 2014

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Vibration
Connective Tissue
Statistical Factor Analysis
Epoxy Resins
Bone and Bones
Elastic Modulus
Bone-Implant Interface
Cortical Bone
Cancellous Bone

Keywords

  • article
  • bone
  • bone density
  • bone regeneration
  • connective tissue
  • dental procedure
  • equipment
  • factorial analysis
  • histology
  • human
  • implant
  • methodology
  • tooth implant
  • tooth implantation
  • tooth prosthesis
  • vibration
  • Young modulus
  • Bone and Bones
  • Bone Density
  • Connective Tissue
  • Dental Implantation, Endosseous
  • Dental Implants
  • Dental Prosthesis Retention
  • Dental Stress Analysis
  • Elastic Modulus
  • Factor Analysis, Statistical
  • Humans
  • Implants, Experimental
  • Osseointegration
  • Vibration

Cite this

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title = "Influence of simulated bone quality and cortical bone thickness on implant stability detection using resonance frequency and damping factor analysis.",
abstract = "The aim of this study was to test whether damping factor is an adequate parameter for monitoring the status of the trabecular bone-implant interface. Implants were placed in epoxy resin with elastic moduli of 2,900, 210, and 1.4 MPa to simulate cortical bone, cancellous bone, and connective tissue, respectively. Resonance frequency and damping factor (DF) values of the tested implants were measured using vibration analysis. An impulse force was used to induce vibration within implants. The DF values of the tested implants were calculated from the obtained frequency spectrum using a half-power method. The resulting data were analyzed to test the statistical effects of the cortical height and trabecular status on the DF values of the sample implants. When the simulated tissue at the implant-bone interface changed from connective tissue to bone, the detected DF value decreased markedly. In addition, the mean DF value of the tested implants increased significantly (P",
keywords = "article, bone, bone density, bone regeneration, connective tissue, dental procedure, equipment, factorial analysis, histology, human, implant, methodology, tooth implant, tooth implantation, tooth prosthesis, vibration, Young modulus, Bone and Bones, Bone Density, Connective Tissue, Dental Implantation, Endosseous, Dental Implants, Dental Prosthesis Retention, Dental Stress Analysis, Elastic Modulus, Factor Analysis, Statistical, Humans, Implants, Experimental, Osseointegration, Vibration",
author = "Sheng-Wei Feng and C.T. Lin and W.J. Chang and S.Y. Lee and C.H. Cheng and H.M. Huang",
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T1 - Influence of simulated bone quality and cortical bone thickness on implant stability detection using resonance frequency and damping factor analysis.

AU - Feng, Sheng-Wei

AU - Lin, C.T.

AU - Chang, W.J.

AU - Lee, S.Y.

AU - Cheng, C.H.

AU - Huang, H.M.

N1 - 被引用次數:1 Export Date: 9 August 2016 通訊地址: Feng, S.W.

PY - 2014

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N2 - The aim of this study was to test whether damping factor is an adequate parameter for monitoring the status of the trabecular bone-implant interface. Implants were placed in epoxy resin with elastic moduli of 2,900, 210, and 1.4 MPa to simulate cortical bone, cancellous bone, and connective tissue, respectively. Resonance frequency and damping factor (DF) values of the tested implants were measured using vibration analysis. An impulse force was used to induce vibration within implants. The DF values of the tested implants were calculated from the obtained frequency spectrum using a half-power method. The resulting data were analyzed to test the statistical effects of the cortical height and trabecular status on the DF values of the sample implants. When the simulated tissue at the implant-bone interface changed from connective tissue to bone, the detected DF value decreased markedly. In addition, the mean DF value of the tested implants increased significantly (P

AB - The aim of this study was to test whether damping factor is an adequate parameter for monitoring the status of the trabecular bone-implant interface. Implants were placed in epoxy resin with elastic moduli of 2,900, 210, and 1.4 MPa to simulate cortical bone, cancellous bone, and connective tissue, respectively. Resonance frequency and damping factor (DF) values of the tested implants were measured using vibration analysis. An impulse force was used to induce vibration within implants. The DF values of the tested implants were calculated from the obtained frequency spectrum using a half-power method. The resulting data were analyzed to test the statistical effects of the cortical height and trabecular status on the DF values of the sample implants. When the simulated tissue at the implant-bone interface changed from connective tissue to bone, the detected DF value decreased markedly. In addition, the mean DF value of the tested implants increased significantly (P

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