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新型单质酸陶材料及其相应的不同抗剂的双体磨损

Bogna Stawarczyk¹, John Meinen¹, Sabina Noreen Wuersching²

¹Department of Prosthetic Dentistry, University Hospital, LMU Munich, Goethestraße 70, 80336 Munich, Germany.

Journal of dentistry

|March 20, 2024

概括

酸陶 (LISI) 对各种对抗剂具有出色的磨损耐受性. LISI和IPS e.max CAD (EMA) 的磨损程度相似,而LISI的磨损性更高.

科学领域:

牙科材料科学牙科材料科学
生物材料工程是生物材料的工程.
陶修复器的使用陶修复器的使用

背景情况:

酸陶由于其有利的机械性能,在牙科修复中被广泛使用.
了解它们对不同抗体的磨损行为对于预测长期临床性能至关重要.
对比磨损分析为耐用和功能性牙假肢的材料选择提供了信息.

研究的目的:

为了评估-酸盐陶对各种对手的双体磨损.
为了比较酸陶的耐磨性与直接树脂复合材料和人类牙.
评估对抗材料对牙科陶磨损的影响.

主要方法:

三种酸陶材料 (初始的LiSi块[LISI],IPS e.max CAD[EMA],CEREC Tessera[TESE]) 进行了测试.
使用模拟器对石,陶和人类质对手进行了磨损评估.
使用GOM分析软件量化了物质损失,统计分析包括Kolmogorov-Smirnov,Kruskal-Wallis H,Mann-Whitney-U和Spearman-rho测试.

主要成果:

在CEREC Tessera [TESE]中,与酸盐或陶对手相比,对质的磨损较低.
酸陶 (LISI) 呈现出较低的材料损失,相对于酸对抗剂.
针对陶对手,LISI的磨损程度低于直接树脂复合材料[FILL]和IPS e.max CAD[EMA].

结论:

对LISI和EMA的物质损失在不同抗剂中是可比的,尽管LISI显示出更高的抗磨度的趋势.
完全结晶的-酸陶LISI,无论对手材料如何,都提供强大的抗磨性能.
这些发现支持临床使用LISI用于持久的牙科修复.

关键词:

在CAD/CAM材料.动态测试是指动态测试.疲劳疲劳疲劳疲劳疲劳 -酸盐-陶的使用方法两体穿着可以穿着.

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