UFR Odontologie, Université Montpellier 1, Montpellier Cedex, France.
Aust Dent J. 2013 Jun;58 Suppl 1:40-59. doi: 10.1111/adj.12049.
Preservation of natural tooth structure requires early detection of the carious lesion and is associated with comprehensive patient dental care. Processes aiming to detect carious lesions in the initial stage with optimum efficiency employ a variety of technologies such as magnifying loupes, transillumination, light and laser fluorescence (QLF® and DIAGNOdent® ) and autofluorescence (Soprolife® and VistaCam®), electric current/impedance (CarieScan(®) ), tomographic imaging and image processing. Most fluorescent caries detection tools can discriminate between healthy and carious dental tissue, demonstrating different levels of sensitivity and specificity. Based on the fluorescence principle, an LED camera (Soprolife® ) was developed (Sopro-Acteon, La Ciotat, France) which combined magnification, fluorescence, picture acquisition and an innovative therapeutic concept called light-induced fluorescence evaluator for diagnosis and treatment (LIFEDT). This article is rounded off by a Soprolife® illustration about minimally or even non-invasive dental techniques, distinguishing those that preserve or reinforce the enamel and enamel-dentine structures without any preparation (MIT1- minimally invasive therapy 1) from those that require minimum preparation of the dental tissues (MIT2 - minimally invasive therapy 2) using several clinical cases as examples. MIT1 encompasses all the dental techniques aimed at disinfection, remineralizing, reversing and sealing the caries process and MIT2 involves a series of specific tools, including microburs, air abrasion devices, sonic and ultrasonic inserts and photo-activated disinfection to achieve minimal preparation of the tooth. With respect to minimally invasive treatment and prevention, the use of lasers is discussed. Furthermore, while most practices operate under a surgical model, Caries Management by Risk Assessment (CaMBRA) encourages a medical model of disease prevention and management to control the manifestation of the disease, or keep the oral environment in a state of balance between pathological and preventive factors. Early detection and diagnosis and prediction of lesion activity are of great interest and may change traditional operative procedures substantially. Fluorescence tools with high levels of magnification and observational capacity should guide clinicians towards a more preventive and minimally invasive treatment strategy.
保留天然牙结构需要早期发现龋齿病变,并与全面的患者牙科护理相关联。旨在以最佳效率在初始阶段检测龋齿病变的过程采用了各种技术,例如放大放大镜、透照、光和激光荧光(QLF®和 DIAGNOdent®)和自发荧光(Soprolife®和 VistaCam®)、电流/阻抗(CarieScan(®))、层析成像和图像处理。大多数荧光龋齿检测工具可区分健康和龋齿牙组织,显示出不同的灵敏度和特异性。基于荧光原理,开发了一种带有 LED 摄像头的仪器(Soprolife®)(Sopro-Acteon,La Ciotat,法国),它结合了放大、荧光、图像采集以及一种称为光诱导荧光评估器的创新治疗概念,用于诊断和治疗(LIFEDT)。本文以 Soprolife®的说明作为结束,涉及到微创甚至无创牙科技术,将那些不预备或不强化牙釉质和牙本质结构的技术(MIT1-微创治疗 1)与那些需要最小化预备牙组织的技术(MIT2-微创治疗 2)区分开来,同时还提供了几个临床病例作为示例。MIT1 涵盖了所有旨在消毒、再矿化、逆转和密封龋齿过程的牙科技术,而 MIT2 涉及一系列特定工具,包括微钻、空气喷砂设备、声和超声插入物以及光激活消毒,以实现牙齿的最小预备。在微创治疗和预防方面,讨论了激光的使用。此外,虽然大多数实践采用手术模式,但风险评估的龋齿管理(CaMBRA)鼓励采用疾病预防和管理的医疗模式,以控制疾病的表现或保持口腔环境在病理性和预防性因素之间的平衡状态。早期检测和诊断以及病变活动性的预测非常重要,可能会大大改变传统的手术程序。具有高水平放大和观察能力的荧光工具应引导临床医生采取更具预防性和微创性的治疗策略。