A comparative mechanical and bone remodelling study of all-ceramic posterior inlay and onlay fixed partial dentures

Field, Clarice; Li, Qing; Li, Wei; Thompson, Mark C.; Swain, Michael V.

doi:10.1016/j.jdent.2011.10.003

Cited by 32 publications

(19 citation statements)

References 37 publications

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“…The chosen loading forces represented moderate chewing occurring in daily life (Schindler et al, 1998). This sequence allowed for the calculation of increasing load cycles (first and third) and the repetition of a load cycle with the same force magnitude 1913;Field et al, 2012), which reduced the strain tensor to the equivalent strain. The applied loads for calculation of micro-gaps were 120 N, representing the upper boundary of chewing forces (Schindler et al, 1998).…”

Section: Introductionmentioning

confidence: 99%

Non-linear 3D Evaluation of Different Oral Implant-Abutment Connections

Streckbein

Streckbein²,

Wilbrand

et al. 2012

J Dent Res

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Micro-gaps and osseous overload in the implant-abutment connection are the most common causes of peri-implant bone resorption and implant failure. These undesirable events can be visualized on standardized three-dimensional finite element models and by radiographic methods. The present study investigated the influence of 7 available implant systems (Ankylos, Astra, Bego, Brånemark, Camlog, Straumann, and Xive) with different implant-abutment connections on bone overload and the appearance of micro-gaps in vitro. The individual geometries of the implants were transferred to three-dimensional finite element models. In a non-linear analysis considering the pre-loading of the occlusion screw, friction between the implant and abutment, the influence of the cone angle on bone strain, and the appearance of micro-gaps were determined. Increased bone strains were correlated with small (< 15°) cone angles. Conical implant-abutment connections efficiently avoided micro-gaps but had a negative effect on peri-implant bone strain. Bone strain was reduced in implants with greater wall thickness (Ankylos) or a smaller cone angle (Bego). The results of our in silico study provide a solid basis for the reduction of peri-implant bone strain and micro-gaps in the implant-abutment connection to improve long-term stability.

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Section: Introductionmentioning

confidence: 99%

Non-linear 3D Evaluation of Different Oral Implant-Abutment Connections

Streckbein

Streckbein²,

Wilbrand

et al. 2012

J Dent Res

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“…All the materials involved in this study were considered to be isotropic, homogeneous, and linearly elastic. [46][47][48] The Young's modulus E, Poisson's ratio υ, and density ρ were defined for teeth, bones, ceramics (bridge), PDL, and titanium (implants), as summarized in Table 1. 48,49…”

Section: Materials Propertiesmentioning

confidence: 99%

Identification of dynamic load for prosthetic structures

Zhang

Han

Zhang

et al. 2017

Numer Methods Biomed Eng

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Dynamic load exists in numerous biomechanical systems, and its identification signifies a critical issue for characterizing dynamic behaviors and studying biomechanical consequence of the systems. This study aims to identify dynamic load in the dental prosthetic structures, namely, 3-unit implant-supported fixed partial denture (I-FPD) and teeth-supported fixed partial denture. The 3-dimensional finite element models were constructed through specific patient's computerized tomography images. A forward algorithm and regularization technique were developed for identifying dynamic load. To verify the effectiveness of the identification method proposed, the I-FPD and teeth-supported fixed partial denture structures were investigated to determine the dynamic loads. For validating the results of inverse identification, an experimental force-measuring system was developed by using a 3-dimensional piezoelectric transducer to measure the dynamic load in the I-FPD structure in vivo. The computationally identified loads were presented with different noise levels to determine their influence on the identification accuracy. The errors between the measured load and identified counterpart were calculated for evaluating the practical applicability of the proposed procedure in biomechanical engineering. This study is expected to serve as a demonstrative role in identifying dynamic loading in biomedical systems, where a direct in vivo measurement may be rather demanding in some areas of interest clinically.

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“…Seramik inleyler, bukkal ve lingual duvarların sağlam olduğu Class II restorasyon gereken kavitelerde ve direkt posterior kompozit restorasyon yapıla-mayan durumlarda amalgam veya döküm metal restorasyonlara geçerli bir tedavi alternatifi sunmaktadır 5,10 . Düşük plak kontrolü ve çürük aktivitesi yüksek olan hastalarda seramik inley yapımı uygun değildir.…”

Section: Seramikunclassified

Serami̇k İnley Restorasyonlar

Öztürk¹

2015

Atatürk Üniversitesi Diş Hekimliği Fakültesi Dergisi

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The use of ceramic restorations in the posterior region has become widespread due to the development of physical properties of dental ceramics and ceramic-resin cement bonding. Ceramic inlays when used with adhesive technique protect the remaining tooth structure and offer an aesthetics alternative treatment. The aim of this review was to provide general information about indications, contraindications, advantages, disadvantages and factors of affecting the success of the ceramic inlays.

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A comparative mechanical and bone remodelling study of all-ceramic posterior inlay and onlay fixed partial dentures

Cited by 32 publications

References 37 publications

Non-linear 3D Evaluation of Different Oral Implant-Abutment Connections

Non-linear 3D Evaluation of Different Oral Implant-Abutment Connections

Identification of dynamic load for prosthetic structures

Serami̇k İnley Restorasyonlar

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