Finite element stress analysis on the influence of cuspal angle and superstructure materials in an implant-supported prosthesis

Purpose: To investigate the effect of superstructure materials and cuspal angle in an implant-supported fixed partial denture. Materials and Methods: This finite element analysis study was carried out with varying cuspal angulations of 0°, 20° and 33° and superstructure materials. The simulated mod...

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Main Authors: G Lambodaran, N Gopi Chander, M Vasantakumar
Format: Article
Language:English
Published: Wolters Kluwer Medknow Publications 2013-01-01
Series:Indian Journal of Dental Research
Subjects:
Online Access:http://www.ijdr.in/article.asp?issn=0970-9290;year=2013;volume=24;issue=4;spage=423;epage=427;aulast=Lambodaran
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spelling doaj-b94ad6e576604eddb55bcf4c529ef3922020-11-25T01:50:48ZengWolters Kluwer Medknow PublicationsIndian Journal of Dental Research0970-92901998-36032013-01-0124442342710.4103/0970-9290.118384Finite element stress analysis on the influence of cuspal angle and superstructure materials in an implant-supported prosthesisG LambodaranN Gopi ChanderM VasantakumarPurpose: To investigate the effect of superstructure materials and cuspal angle in an implant-supported fixed partial denture. Materials and Methods: This finite element analysis study was carried out with varying cuspal angulations of 0°, 20° and 33° and superstructure materials. The simulated models were loaded with 300N forces under different axial and non-axial angulations. The graphical and numerical stresses were investigated. Results: The results demonstrated that the maximum stress occurred in the metal framework in all the materials except acrylic, for which it occurred in the coronal part of the implant. In the acrylic, the maximum stress recorded was 78 MPa with the 20° angulation. Ni Cr recorded a maximum stress of 111 MPa with the 33° angulation. Conclusion: The cuspal morphology and type of superstructure material plays a pivotal role in controlling the stress transferred to the implant and the supporting bone.http://www.ijdr.in/article.asp?issn=0970-9290;year=2013;volume=24;issue=4;spage=423;epage=427;aulast=LambodaranCuspal anglefinite element analysisimplant prosthesis material
collection DOAJ
language English
format Article
sources DOAJ
author G Lambodaran
N Gopi Chander
M Vasantakumar
spellingShingle G Lambodaran
N Gopi Chander
M Vasantakumar
Finite element stress analysis on the influence of cuspal angle and superstructure materials in an implant-supported prosthesis
Indian Journal of Dental Research
Cuspal angle
finite element analysis
implant prosthesis material
author_facet G Lambodaran
N Gopi Chander
M Vasantakumar
author_sort G Lambodaran
title Finite element stress analysis on the influence of cuspal angle and superstructure materials in an implant-supported prosthesis
title_short Finite element stress analysis on the influence of cuspal angle and superstructure materials in an implant-supported prosthesis
title_full Finite element stress analysis on the influence of cuspal angle and superstructure materials in an implant-supported prosthesis
title_fullStr Finite element stress analysis on the influence of cuspal angle and superstructure materials in an implant-supported prosthesis
title_full_unstemmed Finite element stress analysis on the influence of cuspal angle and superstructure materials in an implant-supported prosthesis
title_sort finite element stress analysis on the influence of cuspal angle and superstructure materials in an implant-supported prosthesis
publisher Wolters Kluwer Medknow Publications
series Indian Journal of Dental Research
issn 0970-9290
1998-3603
publishDate 2013-01-01
description Purpose: To investigate the effect of superstructure materials and cuspal angle in an implant-supported fixed partial denture. Materials and Methods: This finite element analysis study was carried out with varying cuspal angulations of 0°, 20° and 33° and superstructure materials. The simulated models were loaded with 300N forces under different axial and non-axial angulations. The graphical and numerical stresses were investigated. Results: The results demonstrated that the maximum stress occurred in the metal framework in all the materials except acrylic, for which it occurred in the coronal part of the implant. In the acrylic, the maximum stress recorded was 78 MPa with the 20° angulation. Ni Cr recorded a maximum stress of 111 MPa with the 33° angulation. Conclusion: The cuspal morphology and type of superstructure material plays a pivotal role in controlling the stress transferred to the implant and the supporting bone.
topic Cuspal angle
finite element analysis
implant prosthesis material
url http://www.ijdr.in/article.asp?issn=0970-9290;year=2013;volume=24;issue=4;spage=423;epage=427;aulast=Lambodaran
work_keys_str_mv AT glambodaran finiteelementstressanalysisontheinfluenceofcuspalangleandsuperstructurematerialsinanimplantsupportedprosthesis
AT ngopichander finiteelementstressanalysisontheinfluenceofcuspalangleandsuperstructurematerialsinanimplantsupportedprosthesis
AT mvasantakumar finiteelementstressanalysisontheinfluenceofcuspalangleandsuperstructurematerialsinanimplantsupportedprosthesis
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