Department of Oral and Maxillofacial Surgery, School and Hospital of Stomatology, China Medical University, Shenyang 110022, China.
School and Hospital of Stomatology, China Medical University, Shenyang 110002, China.
Molecules. 2023 Aug 31;28(17):6373. doi: 10.3390/molecules28176373.
Dental caries is the most prevalent chronic disease globally, significantly impacting individuals' quality of life. A key reason behind the failure of implanted restorations is their biological inactivity, meaning they are unable to form crosslinks with the surrounding tooth structures, thus making patients susceptible to implant loss and recurrent tooth decay. For the treatment of caries, antibacterial medicine and remineralization are effective means of treating the recurrence of caries. Owing to the rapid progression in the biomaterials field, several biomaterials have been reported to display antimicrobial properties and aid in dentin remineralization. Bioactive materials hold considerable potential in diminishing biofilm accumulation, inhibiting the process of demineralization, enabling dentin remineralization, and combating bacteria related to caries. Bioactive materials, such as fluoride, amorphous calcium phosphate, bioactive glass, collagen, and resin-based materials, have demonstrated their effectiveness in promoting dentin remineralization and exerting antibacterial effects on dental caries. However, the concentration of fluoride needs to be strictly controlled. Although amorphous calcium phosphate can provide the necessary calcium and phosphorus ions for remineralization, it falls short in delivering the mechanical strength required for oral mastication. Resin-based materials also offer different advantages due to the complexity of their design. In this review, we delve into the application of advanced bioactive materials for enhancing dentin remineralization and antibacterial properties. We eagerly anticipate future developments in bioactive materials for the treatment of dental caries.
龋齿是全球最普遍的慢性疾病,极大地影响了人们的生活质量。种植体修复失败的一个主要原因是其生物惰性,也就是说它们无法与周围的牙齿结构形成交联,从而使患者容易发生种植体丧失和龋齿复发。对于龋齿的治疗,抗菌药物和再矿化是治疗龋齿复发的有效手段。由于生物材料领域的快速发展,已经有几种生物材料被报道具有抗菌性能,并有助于牙本质再矿化。生物活性材料在减少生物膜积累、抑制脱矿过程、实现牙本质再矿化以及对抗与龋齿相关的细菌方面具有巨大的潜力。生物活性材料,如氟化物、无定形磷酸钙、生物活性玻璃、胶原蛋白和树脂基材料,已被证明在促进牙本质再矿化和对龋齿发挥抗菌作用方面具有有效性。然而,氟化物的浓度需要严格控制。尽管无定形磷酸钙可以提供再矿化所需的钙和磷离子,但它在提供口腔咀嚼所需的机械强度方面存在不足。树脂基材料也因其设计的复杂性而具有不同的优势。在这篇综述中,我们深入探讨了先进的生物活性材料在增强牙本质再矿化和抗菌性能方面的应用。我们期待未来生物活性材料在治疗龋齿方面的发展。