Peterson Brandon W, Tjakkes Geerten-Has, Renkema Anne-Marie, Manton David J, Ren Yijin
Department of Biomaterials and Biomedical Technology, University Medical Center Groningen, University of Groningen, Groningen, The Netherlands.
Centre for Dentistry and Oral Hygiene, University Medical Center Groningen, University of Groningen, Groningen, The Netherlands.
Periodontol 2000. 2024 Jul 19. doi: 10.1111/prd.12594.
The oral microbiota develops within the first 2 years of childhood and becomes distinct from the parents by 4 years-of-age. The oral microbiota plays an important role in the overall health/symbiosis of the individual. Deviations from the state of symbiosis leads to dysbiosis and an increased risk of pathogenicity. Deviations can occur not only from daily life activities but also from orthodontic interventions. Orthodontic appliances are formed from a variety of biomaterials. Once inserted, they serve as a breeding ground for microbial attachment, not only from new surface areas and crevices but also from material physicochemical interactions different than in the symbiotic state. Individuals undergoing orthodontic treatment show, compared with untreated people, qualitative and quantitative differences in activity within the oral microbiota, induced by increased retention of supra- and subgingival microbial plaque throughout the treatment period. These changes are at the root of the main undesirable effects, such as gingivitis, white spot lesions (WSL), and more severe caries lesions. Notably, the oral microbiota profile in the first weeks of orthodontic intervention might be a valuable indicator to predict and identify higher-risk individuals with respect to periodontal health and caries risk within an otherwise healthy population. Antimicrobial coatings have been used to dissuade microbes from adhering to the biomaterial; however, they disrupt the host microbiota, and several bacterial strains have become resistant. Smart biomaterials that can reduce the antimicrobial load preventing microbial adhesion to orthodontic appliances have shown promising results, but their complexity has kept many solutions from reaching the clinic. 3D printing technology provides opportunities for complex chemical syntheses to be performed uniformly, reducing the cost of producing smart biomaterials giving hope that they may reach the clinic in the near future. The purpose of this review is to emphasize the importance of the oral microbiota during orthodontic therapy and to use innovative technologies to better maintain its healthy balance during surgical procedures.
口腔微生物群在儿童期的头两年内形成,并在4岁时与父母的口腔微生物群有所不同。口腔微生物群在个体的整体健康/共生中起着重要作用。与共生状态的偏离会导致生态失调和致病性增加的风险。这种偏离不仅可能源于日常生活活动,也可能源于正畸干预。正畸矫治器由多种生物材料制成。一旦插入,它们就成为微生物附着的滋生地,不仅来自新的表面区域和缝隙,还来自与共生状态不同的材料物理化学相互作用。与未接受治疗的人相比,接受正畸治疗的个体在整个治疗期间由于龈上和龈下微生物菌斑滞留增加,口腔微生物群的活性在定性和定量上都存在差异。这些变化是诸如牙龈炎、白斑病变(WSL)和更严重的龋齿病变等主要不良影响的根源。值得注意的是,正畸干预开始几周内的口腔微生物群特征可能是预测和识别健康人群中牙周健康和龋齿风险较高个体的有价值指标。抗菌涂层已被用于阻止微生物附着在生物材料上;然而,它们会破坏宿主微生物群,并且一些细菌菌株已经产生了抗性。能够减少抗菌负荷以防止微生物附着在正畸矫治器上的智能生物材料已显示出有希望的结果,但它们的复杂性使得许多解决方案无法应用于临床。3D打印技术为均匀地进行复杂化学合成提供了机会,降低了生产智能生物材料的成本,让人看到它们可能在不久的将来应用于临床的希望。这篇综述的目的是强调正畸治疗期间口腔微生物群的重要性,并利用创新技术在手术过程中更好地维持其健康平衡。