在自酸蚀粘合剂中加入生物活性玻璃陶瓷的影响

Fernanda de Carvalho Panzeri Pires-de-Souza, Rafaella Tonani-Torrieri, Rocio Geng Vivanco, Carolina Noronha Ferraz de Arruda, Saulo Geraldeli, Mário Alexandre Coelho Sinhoreti, Jean-Francois Roulet
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引用次数: 0

摘要

目的:本研究评估了在实验性自酸蚀粘合剂(SE)中加入不同浓度生物硅酸盐的效果:将生物硅酸盐微粒(0、2、5 和 10 wt%)加入引物中,测试转化度 (DC) 和润湿性(单因素方差分析,Tukey's 检验,P < 0.05)。选择了两个最佳浓度(2% 和 5%)进行 µTBS 评估。将健全的人类臼齿(n=20)切成四分之一,随机分配到 4 个实验组:1.实验 SE + 0% 生物硅酸盐(Exp0%;阴性对照);2.实验 SE + 2% 生物硅酸盐(Exp2%);3.实验 SE + 5% 生物硅酸盐(Exp5%);4.AdheSE(Ivoclar Vivadent,阳性对照)。涂抹粘合剂后,将 Filtek Z350(3M 口腔护理产品)复合材料逐步增加到 5 毫米。将每四分之一颗牙齿切成小块(0.9 平方毫米),在蒸馏水(37°C)中保存 24 小时、6 个月或 1 年。保存后,将木棒置于 µTBS 中(0.75 mm/min)。使用扫描电子显微镜(SEM)和能量色散 X 射线光谱(EDS)分析钙磷比。数据采用双向方差分析,并进行 Bonferroni 校正,统计显著性设定为 p <0.05。在数码显微镜下观察断裂形态,在透射电子显微镜(TEM)下观察粘合界面:结果:Exp2%的DC最高(p < 0.05),Exp5%的µTBS最低(p < 0.05),所有组别均以粘接失败为主。TEM显示Exp2%有再矿化区域,Exp5%的再矿化程度较低。Exp2%和Exp5%在老化后显示出更高的Ca:P比率(P < 0.05):结论:加入生物硅酸盐微粒可改善自酸蚀粘合剂的性能。它提高了实验粘合剂的直流电以及矿物沉积。然而,粘合剂的性能与浓度有关,因为微颗粒的浓度越高,粘合剂的机械性能就越差。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Effect of Incorporation of Bioactive Glass-Ceramic into Self-etch Adhesives.

Purpose: This study evaluated the effect of incorporating different concentrations of biosilicate in an experimental self-etch adhesive (SE).

Materials and methods: Biosilicate microparticles (0, 2, 5, and 10 wt%) were incorporated into the primer, and degree of conversion (DC) and wettability were tested (one-way ANOVA, Tukey's test, p < 0.05). The two best concentrations were selected (2% and 5%) for µTBS evaluation. Sound human molars (n=20) were sectioned into quarters and randomly assigned to 4 experimental groups: 1. experimental SE + 0% biosilicate (Exp0%; negative control); 2. experimental SE + 2% biosilicate (Exp2%); 3. experimental SE + 5% biosilicate (Exp5%); 4. AdheSE (Ivoclar Vivadent, positive control). After adhesive application, Filtek Z350 (3M Oral Care) composite was built up incrementally to 5 mm. Each quarter tooth was sectioned into sticks (0.9 mm2) and stored in distilled water (37°C) for 24 h, 6 months, or 1 year. After storage, sticks were submitted to µTBS (0.75 mm/min). The Ca:P ratio was analyzed using scanning electron microscopy (SEM) and energy-dispersive x-ray spectroscopy (EDS). Data were analyzed using two-way ANOVA with Bonferroni's correction, with statistical siginificance set at p < 0.05. Fracture patterns were observed under a digital microscope and adhesive interfaces with transmission electron microscopy (TEM).

Results: Exp2% presented the highest DC (p < 0.05), Exp5% exhibited the lowest µTBS (p < 0.05), and adhesive failures were predominant in all groups. TEM suggested remineralized areas in Exp2% and to a lesser degree in Exp5%. Exp2% and Exp5% showed a higher Ca:P ratio after aging (p < 0.05).

Conclusion: The incorporation of biosilicate microparticles can improve the properties of self-etch adhesives. It increased the DC of the experimental adhesive as well as mineral deposition. However, the adhesive properties are concentration dependent, as a higher concentration of microparticles can adversely affect the mechanical properties of an adhesive.

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