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Biomechanical Behavior of Bioactive Material in Dental Implant: A Three-Dimensional Finite Element Analysis

机译:牙科植入物中生物活性材料的生物力学行为:三维有限元分析

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摘要

Dental implants are widely accepted for the rehabilitation of missing teeth due to their aesthetic compliance, functional ability, and great survival rate. The various components in implant design like thread design, thread angle, pitch, and material used for manufacturing play a critical role in its success. Understanding these influencing factors and implementing them properly in implant design can reduce cases of potential implant failure. Recently, finite element analysis (FEA) is being widely used in the field of health sciences to solve problems in designing medical devices. It provides valid and accurate assessment in the clinical and in vitro analysis. Hence, this study was conducted to evaluate the impact of thread design of the implant and 3 different bioactive materials, titanium alloy, graphene, and reduced graphene oxide (rGO) on stress, strain, and deformation in the implant system using FEA. In this study, the FEA model of the bones and the tissues are modeled as homogeneous, isotropic, and linearly elastic material with a titanium implant system with an assumption of it 100% osseointegrated into the bone. The titanium was functionalized with graphene and graphene oxide. A modeling software tool Catia? and Ansys Workbench? is used to perform the analysis and evaluate the von Mises stress distribution, strain, and deformation at the implant and implant-cortical bone interface. The results showed that the titanium implant with a surface coating of graphene oxide exhibited better mechanical behavior than graphene, with mean von Mises stress of 39.64?MPa in pitch 1, 23.65?MPa in pitch 2, and 37.23?MPa in pitch 3. It also revealed that functionalizing the titanium implant will help in reducing the stress at the implant system. Overall, the study emphasizes the use of FEA analysis methods in solving various biomechanical issues about medical and dental devices, which can further open up for invivo study and their practical uses.
机译:由于其审美合规性,功能能力和巨大的生存率,牙科植入物被广泛接受缺失牙齿的康复。植入物设计中的各种部件如螺纹设计,螺纹角度,沥青和用于制造的材料在其成功中发挥着关键作用。了解这些影响因素并在植入设计中适当地实施它们可以减少潜在的植入失败的情况。最近,有限元分析(FEA)被广泛用于健康科学领域,以解决设计医疗设备的问题。它在临床和体外分析中提供有效和准确的评估。因此,进行该研究以评估植入物和3种不同的生物活性物质,钛合金,石墨烯和还原氧化物(RGO)对使用FEA的植入系统中的应力,菌株和变形的影响的影响。在该研究中,骨骼和组织的FEA模型用均匀的,各向同性和线性弹性材料建模,其具有钛植入系统,其假设是100%骨整合到骨中。用石墨烯和氧化石墨烯官能化钛。一个建模软件工具CATIA?和ansys工作台?用于执行分析并评估植入物和植入式骨界面处的von误导应力分布,菌株和变形。结果表明,与石墨烯表面涂层的钛植入物呈现出比石墨烯更好的机械行为,平均von误判39.64℃的应力为39.64μm,在间距2中的间距2,23.65℃,37.23℃。它还透露,钛植入官能化将有助于降低植入系统的应力。总体而言,该研究强调了使用FEA分析方法在解决医疗和牙科设备的各种生物力学问题方面,可以进一步开放Invivo研究及其实际用途。

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