根管治疗中的微生物挑战和解决方案

Norah Fahad Al Ajmi, May Khalid Alshenaifi, Mada Mohammed Binsalem, Khalid Abdullah Alahmary, Noha Abdullah Al Shahrani, Abdulrahman Mohammed Alasim, Fahad Rashed Alotaibi, Abdulwahab Saleh Ali, Sameeh Mansour Attar, Nourah Mobarek Al Shahrani
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引用次数: 0

摘要

由于根管系统内微生物的入侵和生物膜的形成,根管治疗(RCT)面临着巨大的挑战。根管错综复杂的解剖结构,包括峡部、侧管和根尖三角洲,为病原微生物提供了有利的环境,使有效消毒变得复杂。粪肠球菌和白色念珠菌等主要病原体具有很强的抵抗力,能够形成生物膜,使其免受抗菌剂和宿主防御系统的侵害。目前牙髓治疗中的抗菌策略结合了机械器械和化学消毒。机械清创虽然重要,但往往无法彻底清洁复杂的根管解剖结构。次氯酸钠(NaOCl)是金标准的冲洗剂,具有广谱抗菌特性,但难以完全穿透生物膜和牙本质小管。洗必泰(CHX)和乙二胺四乙酸(EDTA)等辅助溶液可分别通过延长作用时间和去除涂片层来增强 NaOCl 的抗菌功效。龋内药物,如氢氧化钙(Ca(OH)2),可用于在两次治疗之间保持抗菌活性。尽管氢氧化钙的 pH 值高,对多种细菌有效,但对粪肠球菌等生物膜形成菌的疗效有限。灌洗技术的创新,如被动超声灌洗(PUI)和激光激活灌洗(LAI),改善了灌洗剂的输送和激活,提高了其破坏生物膜和渗透根管系统的能力。以纳米粒子为基础的冲洗剂和药物是根管消毒领域的一大进步。它们体积小、表面积大,可以更好地渗透并与细菌细胞相互作用,从而显著减少根管系统中的细菌负荷。要克服现有方法的局限性并提高根管治疗的成功率,必须将传统和先进的抗菌策略结合起来。了解微生物入侵和生物膜形成的机制,并结合新兴技术,可以制定出更有效的消毒方案。这种方法旨在提高治疗效果,并最终确保牙髓治疗后牙齿的寿命。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Microbial challenges and solutions in root canal therapy
Root canal therapy (RCT) faces significant challenges due to microbial invasion and biofilm formation within the root canal system. The intricate anatomy of root canals, including isthmuses, lateral canals, and apical deltas, provides a conducive environment for pathogenic microorganisms, complicating effective disinfection. Key pathogens such as Enterococcus faecalis and Candida albicans are highly resilient, capable of forming biofilms that protect them from antimicrobial agents and host defences. Current antimicrobial strategies in endodontics combine mechanical instrumentation with chemical disinfection. Mechanical debridement, though essential, often falls short of thoroughly cleaning the complex root canal anatomy. Sodium hypochlorite (NaOCl), the gold standard irrigant, exhibits broad-spectrum antimicrobial properties but struggles to penetrate biofilms and dentinal tubules fully. Adjunctive solutions like chlorhexidine (CHX) and ethylenediaminetetraacetic acid (EDTA) enhance the antimicrobial efficacy of NaOCl by providing prolonged action and removing the smear layer, respectively. Intracanal medicaments, such as calcium hydroxide (Ca(OH)2), are utilized to maintain antimicrobial activity between treatment sessions. Despite its high pH and effectiveness against a wide range of bacteria, Ca(OH)2 shows limited efficacy against biofilm-forming bacteria like Enterococcus faecalis. Innovations in irrigation techniques, such as passive ultrasonic irrigation (PUI) and laser-activated irrigation (LAI), have improved the delivery and activation of irrigants, enhancing their ability to disrupt biofilms and penetrate the root canal system. Nanoparticle-based irrigants and medicaments represent a promising advancement in endodontic disinfection. Their small size and large surface area allow for better penetration and interaction with bacterial cells, significantly reducing bacterial load in the root canal system. Combining traditional and advanced antimicrobial strategies is essential for overcoming the limitations of current methods and improving the success rates of endodontic therapy. Understanding the mechanisms of microbial invasion and biofilm formation, along with integrating emerging technologies, can lead to more effective disinfection protocols. This approach aims to enhance treatment outcomes and ultimately ensure the longevity of endodontically treated teeth.
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