含氯己定的蚀刻-冲洗粘合剂对生物负载后牙本质微拉伸粘接强度的影响

IF 2.5 3区 医学 Q2 DENTISTRY, ORAL SURGERY & MEDICINE Journal of Adhesive Dentistry Pub Date : 2023-01-12 DOI:10.3290/j.jad.b3801065
Christina Boutsiouki, Roland Frankenberger, Susanne Lücker, Norbert Krämer
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引用次数: 0

摘要

目的:本研究通过在全自动人工口腔模型中评估生物加载后的牙本质粘接强度,比较了2%-CHX牙本质预处理与三种CHX粘合剂(在底漆或粘接剂中实验性添加0.1%CHX,或在通用粘合剂中工业性添加0.2%CHX):暴露 50 颗刚拔出的人类第三磨牙的咬合面牙本质,根据粘接方案将牙齿随机分配到 5 个组(n = 10):1.对照组,Scotchbond Multipurpose(3M 口腔护理;CTRL);2.2% CHX 牙本质预处理(DENT);3.0.1% CHX 试验性掺入底漆(PRIM);4.0.1% CHX 试验性掺入粘接剂(BOND);5.含 0.2% CHX 的 Peak Universal Bond(Ultradent;PEAK)。牙齿用复合树脂修复。在蒸馏水中存放 24 小时后(基线)或在变异杆菌生物负载 2 天后(脱矿 1 小时/再矿化 5 小时),进行微拉伸粘接强度测试(粘接面积 0.46 mm2 ± 0.04 mm2,十字头速度 1 mm/min)。记录断裂模式,并在扫描电镜下对样品棒进行评估:结果:与 PRIM(p = 0.000)、BOND(p = 0.002)和 PEAK(p = 0.000)相比,CTRL 在基线时显示出明显更高的μTBS。与 DENT(p = 0.000)、PRIM(p = 0.008)和 PEAK(p = 0.000)相比,CTRL 在进行龋齿模型试验后,μTBS 明显降低。BOND 与 DENT(p = 0.000)、PRIM(p = 0.003)和 PEAK(p = 0.001)相比,也观察到了相同的行为。生物负载后,DENT(p = 0.041)、PRIM(p = 0.000)和 BOND(p = 0.000)的粘接断裂明显少于 CTRL:结论:在底漆中添加 CHX 可保护牙本质粘接强度,使其在生物负荷后不会下降。因此,在抑制复合树脂修复体周围的继发龋方面,CHX 可提供一些临床优势。不过,由于在牙本质预处理中使用 2% CHX 时基线粘附力损失较小,因此可以将其作为一种更安全的选择,这样就不会因为 CHX 与粘合剂之间潜在的化学作用而破坏粘结。
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Effect of Chlorhexidine-containing Etch-and-Rinse Adhesives on Dentin Microtensile Bond Strength after Biological Loading.

Purpose: This study compared a 2%-CHX dentin pre-treatment with three CHX adhesives (experimentally admixed 0.1% CHX in primer or bonding agent, or industrially added 0.2% CHX in universal adhesive) by evaluating dentin bond strengths after biological loading in a fully automated artificial mouth model.

Materials and methods: The occlusal dentin of 50 freshly extracted human third molars was exposed, and the teeth were randomly assigned to 5 groups according to the adhesive protocol (n = 10): 1. control, Scotchbond Multipurpose (3M Oral Care; CTRL); 2. 2% CHX dentin pre-treatment (DENT); 3. 0.1% CHX experimentally admixed into the primer (PRIM); 4. 0.1% CHX experimentally admixed into the bonding agent (BOND); 5. Peak Universal Bond containing 0.2% CHX (Ultradent; PEAK). The teeth were restored with composite resin. Microtensile bond strength testing (bonding area 0.46 mm2 ± 0.04 mm2, crosshead speed 1 mm/min) was performed after 24-h storage in distilled water (baseline) or after 2-day biological loading with S. mutans (demineralization 1 h / remineralization 5 h). The mode of fracture was recorded and exemplary sticks were evaluated under SEM.

Results: CTRL exhibited significantly higher μTBS at baseline in comparison to PRIM (p = 0.000), BOND (p = 0.002), and PEAK (p = 0.000). After undergoing the caries model, CTRL demonstrated significantly lower μTBS compared to DENT (p = 0.000), PRIM (p = 0.008), and PEAK (p = 0.000). The same behavior was observed for BOND vs DENT (p = 0.000), PRIM (p = 0.003), and PEAK (p = 0.001). After biological loading, DENT (p = 0.041), PRIM (p = 0.000), and BOND (p = 0.000) exhibited significantly fewer adhesive fractures than CTRL.

Conclusions: CHX addition to the primer protects dentin bond strength from declining after biological loading. Thus, it may offer some clinical advantage in terms of secondary caries inhibition around composite restorations. However, since loss of adhesion at baseline was less when 2% CHX was used as a dentin pre-treatment, it can be suggested as a safer option. so that bonding is not undermined by potential chemical interactions from CHX with the adhesives.

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来源期刊
Journal of Adhesive Dentistry
Journal of Adhesive Dentistry 医学-牙科与口腔外科
CiteScore
5.20
自引率
6.10%
发文量
44
审稿时长
6-12 weeks
期刊介绍: New materials and applications for adhesion are profoundly changing the way dentistry is delivered. Bonding techniques, which have long been restricted to the tooth hard tissues, enamel, and dentin, have obvious applications in operative and preventive dentistry, as well as in esthetic and pediatric dentistry, prosthodontics, and orthodontics. The current development of adhesive techniques for soft tissues and slow-releasing agents will expand applications to include periodontics and oral surgery. Scientifically sound, peer-reviewed articles explore the latest innovations in these emerging fields.
期刊最新文献
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