Resistance to dynamic and static loading of the implant mounts on its respective implant

Daniela Blanco-Gonzalez, Francisco Villalobos-Ramirez, Ottón Fernández-López, D. Chavarría-Bolaños, Tatiana Vargas-Koudriavtsev
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引用次数: 1

Abstract

Introduction: Implant restorations should endure a variable range of forces over a long period of time. Some commercial brands offer the implant together with an accessory called “implant mount” or “implant holder,” which might be used as a temporary abutment. However, scientific literature in the use of implant holders as abutments for restorations is scarce. Objectives: The purpose of this in vitro study was to compare the load at which implant holders of Implant Direct® and Zimmer® fail under static compression after being subjected to fatigue, and to compare the gap produced between the implant–holder complexes after dynamic loading. Materials and Methods: The test protocol was based on the recommendation of ISO 14801. Five implant–implant holder assemblies of each brand were subjected to dynamic loading. A load of 250 N was applied at 5 × 106 cycles and at 15 Hz stress frequency (Eden Prairie, MN, USA). The gap (μm) at the interface was measured postfatigue using scanning electron microscopy (S-3700N, HITACHI, Japan), and afterward, static loading was applied and the maximum load (N) after the point of failure was established. Implant–definitive abutment complexes were used as controls. Data were analyzed by means of a central tendency measurement test Mann–Whitney U-test (nonparametric). Results: There was no difference between both the implant holder groups (P ≤ 0.05); however, a slight trend of greater resistance was observed for the Zimmer® group. The gap in the interface was greater for Implant Direct® implants, but the difference was not statistically significant. Conclusion: No significant differences were found in terms of the maximum load under compression or the interface gap after the dynamic loading in the two experimental groups.
种植体在其各自的种植体上承受动态和静态载荷
种植体修复体在长时间内应承受不同范围的力。一些商业品牌提供种植体和一个称为“种植体支架”或“种植体支架”的配件,可以用作临时基台。然而,使用种植体支架作为修复基台的科学文献很少。目的:本体外研究的目的是比较implant Direct®和Zimmer®的种植支架在受到疲劳后的静态压缩下失效的载荷,以及比较动态加载后种植支架复合物之间产生的间隙。材料和方法:测试方案基于ISO 14801的推荐。每个品牌的五个种植体-种植体支架组件承受动态载荷。在5 × 106次循环和15 Hz应力频率下施加250 N的载荷(Eden Prairie, MN, USA)。使用扫描电镜(S-3700N, HITACHI, Japan)测量疲劳后界面间隙(μm),然后施加静载荷并确定失效点后的最大载荷(N)。种植体-确定基台复合物作为对照。数据分析采用集中趋势测量检验Mann-Whitney u检验(非参数)。结果:两组间差异无统计学意义(P≤0.05);然而,在Zimmer®组观察到轻微的更大的耐药趋势。Implant Direct®种植体的界面间隙更大,但差异无统计学意义。结论:两实验组在最大压缩载荷和动加载后的界面间隙方面均无显著差异。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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