Pereira Marta M A, de Molon Rafael Scaf, Barão Valentim A R, Shibli Jamil A, Sculean Anton, Pirih Flavia Q, de Avila Erica D
Department of Dental Materials and Prosthodontics, São Paulo State University/UNESP, Araraquara, São Paulo, Brazil.
Department of Periodontology, São Paulo State University/UNESP, Araçatuba, São Paulo, Brazil.
J Periodontol. 2025 Jul 21. doi: 10.1002/JPER.24-0462.
Peri-implantitis, an inflammatory condition occurring in the supportive tissues, is triggered by a dysbiotic biofilm that grows on implant and/or abutment surfaces. Consequently, the entire surface becomes a notorious culprit, fostering bacterial adhesion that might lead to progressive loss of supporting bone. To combat peri-implantitis, research groups worldwide have diligently pursued the development of new antimicrobial coatings. However, for the successful development of coating materials, it is crucial to clarify their intended function. In this review, we propose a clear classification of coating strategies aimed at either preventing or treating peri-implantitis.
We first delve deep within the concepts of prevention and treatment, as well as the physicochemical properties and biological requirements of each dental implant component for interacting with host tissue cells, to unravel and guide materials and technique complexity according to each purpose.
From a preventive standpoint, the goal is to impede disease initiation. This requires coating materials that can withstand the hostile oral environment indefinitely. In the treatment category, where the disease is already established, the coating material should act directly at the infected site. Furthermore, the physicochemical properties of the new antimicrobial coating must respect the properties required by each part of the implant to not compromise the interaction of the bone-biomaterial and soft tissue-biomaterial interfaces.
Despite considerable efforts in designing antimicrobial coatings, commercial success has remained elusive thus far. This underscores the need to consider essential components to facilitate the construction, validation, and eventual clinical potential of antimicrobial coatings for future marketing.
In this review, we have raised an essential point about the importance of considering both biological and chemical challenges in the development of antimicrobial coatings for preventing and treating peri-implantitis. From a preventive perspective, these coatings need to be designed to withstand the complex environment of the oral cavity while maintaining their integrity and functionality. This requires coatings that can resist changes in environmental factors. Conversely, in the treatment category, material coatings need to be responsive to either internal or external stimuli to activate the release of therapeutic agents. These coatings must be capable of switching on or off depending on the intensity of stimuli, allowing for targeted drug delivery to combat infection or inflammation.
种植体周围炎是一种发生在支持组织中的炎症性疾病,由种植体和/或基台表面生长的生态失调生物膜引发。因此,整个表面成为一个臭名昭著的罪魁祸首,促进细菌黏附,这可能导致支持骨的逐渐丧失。为了对抗种植体周围炎,全球的研究团队一直在努力研发新型抗菌涂层。然而,对于涂层材料的成功研发而言,明确其预期功能至关重要。在本综述中,我们针对旨在预防或治疗种植体周围炎的涂层策略提出了清晰的分类。
我们首先深入探讨预防和治疗的概念,以及每个牙种植体组件与宿主组织细胞相互作用的物理化学性质和生物学要求,以便根据每个目的梳理并指导材料和技术的复杂性。
从预防的角度来看,目标是阻止疾病的发生。这需要涂层材料能够无限期地耐受恶劣的口腔环境。在疾病已经发生的治疗类别中,涂层材料应直接作用于感染部位。此外,新型抗菌涂层的物理化学性质必须符合种植体各部分所需的性质,以免损害骨-生物材料和软组织-生物材料界面的相互作用。
尽管在设计抗菌涂层方面付出了巨大努力,但迄今为止商业上的成功仍难以实现。这凸显了考虑关键组件以促进抗菌涂层的构建、验证及其最终临床潜力以便未来推向市场的必要性。
在本综述中,我们提出了一个要点,即在开发用于预防和治疗种植体周围炎的抗菌涂层时,考虑生物学和化学挑战的重要性。从预防的角度来看,这些涂层需要设计成能够耐受口腔的复杂环境,同时保持其完整性和功能。这需要能够抵抗环境因素变化的涂层。相反,在治疗类别中,材料涂层需要对内部或外部刺激做出反应,以激活治疗剂的释放。这些涂层必须能够根据刺激强度开启或关闭,实现靶向药物递送以对抗感染或炎症。