Y. Sergeev, A. Dolgalev, D. Choniashvili, V. Avanisyan
{"title":"THE USAGE OF THE FINITE ELEMENT ANALYSIS IN THE DESIGN OF NEW DENTAL IMPLANT SYSTEMS","authors":"Y. Sergeev, A. Dolgalev, D. Choniashvili, V. Avanisyan","doi":"10.33667/2782-4101-2023-1-19-23","DOIUrl":null,"url":null,"abstract":"Introduction. The development of new dental implants in the context of the booming domestic industry makes it possible to find alternative options in the treatment of clinically difficult situations, to select the necessary individual solution during dental implant surgery and consequently to perform the surgery in an error-free manner and achieve the desired results. The development of a dental implant is a multistep process, and the characteristics of the implant material and its biophysical characteristics must be studied in detail until the implant is integrated into the bone tissue.The aim of the study: to estimate the opportunities and prospects of applying the finite elements method by developing the new systems of dental implants according to the literature data.Materials and methods. A search was carried out in the national digital libraries e-library, CyberLeninka, as well as PubMed, Medline, Web of Science and Google Scholar using the following keywords: dental implant, finiteelement analysis, mathematical model. Sixty-nine papers were selected and analysed.Results. The finite element method is an accurate method to analyse the implant being developed, but it has certain limitations, because in the finite element mesh, the implant-bone interface is a continuous relationship. The absence of micro-movement at the implant-bone interface during loading is different from the actual clinical situation. The expected 100 % osseointegration based on 3D-modelling can’t be an ideal option and never corresponds to the reality in the clinical situation. However, the use of the finite element method makes it possible to test single loads and inclination angles, which in the clinical situation is very rare","PeriodicalId":91707,"journal":{"name":"International journal of innovative medicine and health science","volume":"15 2 1","pages":""},"PeriodicalIF":0.0000,"publicationDate":"2023-08-08","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"","citationCount":"0","resultStr":null,"platform":"Semanticscholar","paperid":null,"PeriodicalName":"International journal of innovative medicine and health science","FirstCategoryId":"1085","ListUrlMain":"https://doi.org/10.33667/2782-4101-2023-1-19-23","RegionNum":0,"RegionCategory":null,"ArticlePicture":[],"TitleCN":null,"AbstractTextCN":null,"PMCID":null,"EPubDate":"","PubModel":"","JCR":"","JCRName":"","Score":null,"Total":0}
引用次数: 0
Abstract
Introduction. The development of new dental implants in the context of the booming domestic industry makes it possible to find alternative options in the treatment of clinically difficult situations, to select the necessary individual solution during dental implant surgery and consequently to perform the surgery in an error-free manner and achieve the desired results. The development of a dental implant is a multistep process, and the characteristics of the implant material and its biophysical characteristics must be studied in detail until the implant is integrated into the bone tissue.The aim of the study: to estimate the opportunities and prospects of applying the finite elements method by developing the new systems of dental implants according to the literature data.Materials and methods. A search was carried out in the national digital libraries e-library, CyberLeninka, as well as PubMed, Medline, Web of Science and Google Scholar using the following keywords: dental implant, finiteelement analysis, mathematical model. Sixty-nine papers were selected and analysed.Results. The finite element method is an accurate method to analyse the implant being developed, but it has certain limitations, because in the finite element mesh, the implant-bone interface is a continuous relationship. The absence of micro-movement at the implant-bone interface during loading is different from the actual clinical situation. The expected 100 % osseointegration based on 3D-modelling can’t be an ideal option and never corresponds to the reality in the clinical situation. However, the use of the finite element method makes it possible to test single loads and inclination angles, which in the clinical situation is very rare
介绍。在国内产业蓬勃发展的背景下,新型种植牙的发展使得在治疗临床困难的情况下找到替代方案成为可能,在种植牙手术中选择必要的个性化解决方案,从而以无差错的方式进行手术并达到预期的结果。牙科种植体的发育是一个多步骤的过程,必须详细研究种植材料的特性及其生物物理特性,直到种植体与骨组织融为一体。本研究的目的是:根据文献资料,评估有限元方法在开发新型种植体系统中的应用机会和前景。材料和方法。在国家数字图书馆(e-library)、CyberLeninka以及PubMed、Medline、Web of Science和Google Scholar中进行了检索,关键词为:牙种植体、有限元分析、数学模型。选取69篇论文进行分析。有限元法是对正在研制的种植体进行准确分析的一种方法,但由于在有限元网格中,种植体-骨界面是连续关系,因此存在一定的局限性。加载过程中种植体-骨界面无微运动与临床实际情况不同。期望的基于3d建模的100%骨整合不是一个理想的选择,也不符合临床情况的现实。然而,使用有限元方法可以测试单一载荷和倾角,这在临床情况下是非常罕见的