prototybrace®:一种使用CAD/CAM技术定制间接粘接程序的新技术

Ciuffolo Fabio
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Advantages and disadvantages of the CAD/ CAM technology for the indirect bonding technique are discussed to help clinician use the indirect digital system routinely. *Correspondence to: Ciuffolo Fabio, viale Matrino 124, 65013, Città Sant’Angelo, Pescara, Italy, Tel/Fax +39(0)854454385; +393391431761; E-mail: fabio@studiociuffoloferritto.it Received: October 12, 2019; Accepted: October 30, 2019; Published: November 05, 2019 Introduction Recently, a modified indirect bonding technique for a standardized and effective indirect bonding procedure has been described [1] to help orthodontists in bracket positioning accuracy and to exploit full potential of pre-adjusted appliance [2], saving time at chair and giving comfort to the patients [3]. This technique consisted in making bracket-positioning guide on the cast manually by using McLaughlin method [2], with the aim to align, leveling teeth and marginal ridges [1]. It also allowed to control the procedural variables (e.g. tray stability, flushes, curing time, etc.), standardizing indirect bonding technique for the routine and effective use of indirect bonding procedure. Despite the described advantages of this technique, the accuracy in bracket positioning was influenced by manual skills of clinicians in tracing the bracket-positioning guide on the cast, and by the ability of the trained technician in positioning the brackets on the cast precisely. The advent of digital orthodontics, in particular digital impression, simplified the process to have a digital model by dedicated CAD software, allowing analysis, measurements, virtual setup, and digital bracket positioning. Since the first paper on prototyped transfer tray published in 2006 [4], several digital systems allowed to transfer virtual bracket position by using a prototyped gig/tray, in which the real brackets were inserted, then transferred on the teeth by using lightcuring bonding with some limitation in the clinical stage (eg. Flushes, light curing process). On the contrary, as reported in 2012 [1], the use of customized bracket base, by pre-dosed light-cured adhesive, showed two main clinical advantages: (1) The customised bracket base respected the surface anatomy reducing the errors related to adhesive excess and flushes; (2) Self-curing indirect bonding used in the clinical stage took just 4 minutes and needed no attention from the operator, whereas the indirect light-curing and bonding took 30 seconds for each bracket from first molar to last molar, requiring also active attention all the time. As reported in the previous paper [1], one advantage of that technique was the possibility to be integrated with CAD/CAM procedure; since, to our knowledge, there are no papers showing CADCAM system able to transfer the virtual bracket position with a predosed customized bracket base. The aim of this paper is to describe a new method to transfer the digital bracket positioning by an effective indirect bonding technique. The method in ten steps 1. Scan both arches by an intraoral scanner (Trios, 3Shape, Copenhagen, Denmark) and occlusal registration. 2. Prepare digital model by a CAD software (Ortho Analyzer, 3Shape, Copenhagen, Denmark). 3. Separate the teeth in order to perform virtual setup. 4. Using a virtual library, select the bracket system together with the type of arch form in order to align and level both arches. Fix the brackets adjusting the ideal position of each tooth using 3D setup (Figure 1). Then the achievement of six key of normal occlusion5 can be checked (Figures 2-4). 5. Prototype the model of malocclusion with and without positioned brackets by 3D printing machine (form 2, Formlab, Somerville, Massachusetts, USA). 6. Vacuum-form a 0.3mm bracket-template (Erkodent Erich Kopp GmbH, Pfalzarafenweiler, Germany) on the 3D model with bracket printed on, then cut and mark single gauges for each tooth. 7. Put separating agent on the model (Unifol, Perident Dental Products, Florence, Italy) and adhesive on the bracket base. 8. Positioning brackets on the model, remove all flushes. Desired position is obtained by using the gauges described above. 9. Light-cure the adhesive of all brackets by using light-cure machine (Fotolab UV, Tissi Dental, Milan, Italy). When all the braces were positioned, the adhesive were light-cured. From this point Fabio C (2019) Prototybraces®: A new technique for a customized indirect bonding procedure by using CAD/CAM technology Dent Oral Maxillofac Res, 2019 doi: 10.15761/DOMR.1000305 Volume 5: 2-3 tray on for 3 minutes more, to complete the self-curing process. Remove the tray with a scaler, silicone layer and any residual primer with utility tool; the arch wire can be engaged.","PeriodicalId":10996,"journal":{"name":"Dental, Oral and Maxillofacial Research","volume":"11 1","pages":""},"PeriodicalIF":0.0000,"publicationDate":"2019-01-01","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"","citationCount":"0","resultStr":"{\"title\":\"Prototybraces®: A new technique for a customized indirect bonding procedure by using CAD/CAM technology\",\"authors\":\"Ciuffolo Fabio\",\"doi\":\"10.15761/domr.1000305\",\"DOIUrl\":null,\"url\":null,\"abstract\":\"This article describes a new technique to transfer the 3D bracket positioning by an effective indirect bonding procedure. Advantages and disadvantages of the CAD/ CAM technology for the indirect bonding technique are discussed to help clinician use the indirect digital system routinely. *Correspondence to: Ciuffolo Fabio, viale Matrino 124, 65013, Città Sant’Angelo, Pescara, Italy, Tel/Fax +39(0)854454385; +393391431761; E-mail: fabio@studiociuffoloferritto.it Received: October 12, 2019; Accepted: October 30, 2019; Published: November 05, 2019 Introduction Recently, a modified indirect bonding technique for a standardized and effective indirect bonding procedure has been described [1] to help orthodontists in bracket positioning accuracy and to exploit full potential of pre-adjusted appliance [2], saving time at chair and giving comfort to the patients [3]. This technique consisted in making bracket-positioning guide on the cast manually by using McLaughlin method [2], with the aim to align, leveling teeth and marginal ridges [1]. It also allowed to control the procedural variables (e.g. tray stability, flushes, curing time, etc.), standardizing indirect bonding technique for the routine and effective use of indirect bonding procedure. Despite the described advantages of this technique, the accuracy in bracket positioning was influenced by manual skills of clinicians in tracing the bracket-positioning guide on the cast, and by the ability of the trained technician in positioning the brackets on the cast precisely. The advent of digital orthodontics, in particular digital impression, simplified the process to have a digital model by dedicated CAD software, allowing analysis, measurements, virtual setup, and digital bracket positioning. Since the first paper on prototyped transfer tray published in 2006 [4], several digital systems allowed to transfer virtual bracket position by using a prototyped gig/tray, in which the real brackets were inserted, then transferred on the teeth by using lightcuring bonding with some limitation in the clinical stage (eg. Flushes, light curing process). On the contrary, as reported in 2012 [1], the use of customized bracket base, by pre-dosed light-cured adhesive, showed two main clinical advantages: (1) The customised bracket base respected the surface anatomy reducing the errors related to adhesive excess and flushes; (2) Self-curing indirect bonding used in the clinical stage took just 4 minutes and needed no attention from the operator, whereas the indirect light-curing and bonding took 30 seconds for each bracket from first molar to last molar, requiring also active attention all the time. As reported in the previous paper [1], one advantage of that technique was the possibility to be integrated with CAD/CAM procedure; since, to our knowledge, there are no papers showing CADCAM system able to transfer the virtual bracket position with a predosed customized bracket base. The aim of this paper is to describe a new method to transfer the digital bracket positioning by an effective indirect bonding technique. The method in ten steps 1. Scan both arches by an intraoral scanner (Trios, 3Shape, Copenhagen, Denmark) and occlusal registration. 2. Prepare digital model by a CAD software (Ortho Analyzer, 3Shape, Copenhagen, Denmark). 3. Separate the teeth in order to perform virtual setup. 4. Using a virtual library, select the bracket system together with the type of arch form in order to align and level both arches. Fix the brackets adjusting the ideal position of each tooth using 3D setup (Figure 1). Then the achievement of six key of normal occlusion5 can be checked (Figures 2-4). 5. Prototype the model of malocclusion with and without positioned brackets by 3D printing machine (form 2, Formlab, Somerville, Massachusetts, USA). 6. Vacuum-form a 0.3mm bracket-template (Erkodent Erich Kopp GmbH, Pfalzarafenweiler, Germany) on the 3D model with bracket printed on, then cut and mark single gauges for each tooth. 7. Put separating agent on the model (Unifol, Perident Dental Products, Florence, Italy) and adhesive on the bracket base. 8. Positioning brackets on the model, remove all flushes. Desired position is obtained by using the gauges described above. 9. Light-cure the adhesive of all brackets by using light-cure machine (Fotolab UV, Tissi Dental, Milan, Italy). When all the braces were positioned, the adhesive were light-cured. From this point Fabio C (2019) Prototybraces®: A new technique for a customized indirect bonding procedure by using CAD/CAM technology Dent Oral Maxillofac Res, 2019 doi: 10.15761/DOMR.1000305 Volume 5: 2-3 tray on for 3 minutes more, to complete the self-curing process. 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引用次数: 0

摘要

本文描述了一种通过有效的间接粘接程序转移三维支架定位的新技术。讨论了间接连接CAD/ CAM技术的优缺点,以帮助临床医生常规使用间接数字系统。*通信:Ciuffolo Fabio, viale matino 124, 65013, cittous Sant’angelo, Pescara,意大利,电话/传真+39(0)854454385;+ 393391431761;邮箱:fabio@studiociuffoloferritto.it收稿日期:2019年10月12日;录用日期:2019年10月30日;最近,一种改进的间接粘接技术被描述为标准化和有效的间接粘接程序[1],以帮助正畸医生准确定位支架并充分利用预调节矫治器的潜力[2],节省坐在椅子上的时间并给患者带来舒适[3]。该技术是采用McLaughlin方法[2]在铸造体上手工制作支架定位导轨,目的是对准、矫直牙齿和边缘脊[1]。它还允许控制程序变量(例如托盘稳定性,冲洗,固化时间等),标准化间接粘接技术,以实现间接粘接程序的常规和有效使用。尽管该技术具有上述优点,但支架定位的准确性受到临床医生在石膏上追踪支架定位指南的手工技能以及训练有素的技术人员在石膏上精确定位支架的能力的影响。数字正畸的出现,特别是数字印模,通过专用的CAD软件简化了具有数字模型的过程,允许分析,测量,虚拟设置和数字支架定位。自从2006年发表了第一篇关于转移托架原型的论文以来[4],一些数字系统允许通过使用原型gig/tray来转移虚拟托架位置,其中插入真实的托架,然后通过光固化粘接转移到牙齿上,但在临床阶段有一些限制(例如。冲洗、光固化工艺)。相反,据2012年的报道[1],使用预先剂量光固化胶粘剂的定制支架底座显示出两个主要的临床优势:(1)定制支架底座尊重表面解剖,减少了与粘合剂过量和冲水相关的误差;(2)临床阶段使用的自固化间接粘接只需4分钟,无需操作人员注意,而间接光固化和粘接从第一磨牙到最后磨牙每个托槽需要30秒,也需要一直积极关注。正如之前的论文[1]所报道的那样,该技术的一个优点是可以与CAD/CAM程序集成;因为,据我们所知,没有论文显示CADCAM系统能够转移虚拟支架位置与预先定制的支架底座。本文的目的是描述一种利用有效的间接粘接技术转移数字支架定位的新方法。该方法分十个步骤。用口腔内扫描仪(Trios, 3Shape, Copenhagen, Denmark)扫描双牙弓并进行咬合配准。2. 用CAD软件(Ortho Analyzer, 3Shape, Copenhagen, Denmark)制作数字模型。3.分开牙齿,以便进行虚拟设置。4. 使用虚拟库,选择支架系统和拱门形式的类型,以便对齐和水平两个拱门。使用3D设置固定支架,调整每颗牙齿的理想位置(图1),然后检查正常咬合的六键是否达到5(图2-4)。5. 用3D打印机制作有和没有定位支架的错颌模型原型(form 2, Formlab, Somerville, Massachusetts, USA)。6. 真空成型一个0.3mm支架模板(Erkodent Erich Kopp GmbH, Pfalzarafenweiler, Germany)在3D模型上打印支架,然后切割并标记每个牙齿的单个量具。7. 在模型上涂上分离剂(Unifol, Perident Dental Products, Florence, Italy),在支架底座上涂上粘合剂。8. 定位模型上的支架,拆卸所有冲水装置。通过使用上面描述的量规获得所需的位置。9. 使用光固化机(Fotolab UV, Tissi Dental, Milan, Italy)光固化所有托架的粘合剂。所有牙套就位后,光固化胶粘剂。从这一点看,Fabio C (2019) Prototybraces®:一种基于CAD/CAM技术的定制间接粘接新技术。Dent Oral maxilloface, 2019 doi: 10.15761/DOMR.1000305卷5:2-3盘上多放3分钟,完成自固化过程。用除垢器、硅胶层和任何残留底漆清除托盘;拱丝可以接合。
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Prototybraces®: A new technique for a customized indirect bonding procedure by using CAD/CAM technology
This article describes a new technique to transfer the 3D bracket positioning by an effective indirect bonding procedure. Advantages and disadvantages of the CAD/ CAM technology for the indirect bonding technique are discussed to help clinician use the indirect digital system routinely. *Correspondence to: Ciuffolo Fabio, viale Matrino 124, 65013, Città Sant’Angelo, Pescara, Italy, Tel/Fax +39(0)854454385; +393391431761; E-mail: fabio@studiociuffoloferritto.it Received: October 12, 2019; Accepted: October 30, 2019; Published: November 05, 2019 Introduction Recently, a modified indirect bonding technique for a standardized and effective indirect bonding procedure has been described [1] to help orthodontists in bracket positioning accuracy and to exploit full potential of pre-adjusted appliance [2], saving time at chair and giving comfort to the patients [3]. This technique consisted in making bracket-positioning guide on the cast manually by using McLaughlin method [2], with the aim to align, leveling teeth and marginal ridges [1]. It also allowed to control the procedural variables (e.g. tray stability, flushes, curing time, etc.), standardizing indirect bonding technique for the routine and effective use of indirect bonding procedure. Despite the described advantages of this technique, the accuracy in bracket positioning was influenced by manual skills of clinicians in tracing the bracket-positioning guide on the cast, and by the ability of the trained technician in positioning the brackets on the cast precisely. The advent of digital orthodontics, in particular digital impression, simplified the process to have a digital model by dedicated CAD software, allowing analysis, measurements, virtual setup, and digital bracket positioning. Since the first paper on prototyped transfer tray published in 2006 [4], several digital systems allowed to transfer virtual bracket position by using a prototyped gig/tray, in which the real brackets were inserted, then transferred on the teeth by using lightcuring bonding with some limitation in the clinical stage (eg. Flushes, light curing process). On the contrary, as reported in 2012 [1], the use of customized bracket base, by pre-dosed light-cured adhesive, showed two main clinical advantages: (1) The customised bracket base respected the surface anatomy reducing the errors related to adhesive excess and flushes; (2) Self-curing indirect bonding used in the clinical stage took just 4 minutes and needed no attention from the operator, whereas the indirect light-curing and bonding took 30 seconds for each bracket from first molar to last molar, requiring also active attention all the time. As reported in the previous paper [1], one advantage of that technique was the possibility to be integrated with CAD/CAM procedure; since, to our knowledge, there are no papers showing CADCAM system able to transfer the virtual bracket position with a predosed customized bracket base. The aim of this paper is to describe a new method to transfer the digital bracket positioning by an effective indirect bonding technique. The method in ten steps 1. Scan both arches by an intraoral scanner (Trios, 3Shape, Copenhagen, Denmark) and occlusal registration. 2. Prepare digital model by a CAD software (Ortho Analyzer, 3Shape, Copenhagen, Denmark). 3. Separate the teeth in order to perform virtual setup. 4. Using a virtual library, select the bracket system together with the type of arch form in order to align and level both arches. Fix the brackets adjusting the ideal position of each tooth using 3D setup (Figure 1). Then the achievement of six key of normal occlusion5 can be checked (Figures 2-4). 5. Prototype the model of malocclusion with and without positioned brackets by 3D printing machine (form 2, Formlab, Somerville, Massachusetts, USA). 6. Vacuum-form a 0.3mm bracket-template (Erkodent Erich Kopp GmbH, Pfalzarafenweiler, Germany) on the 3D model with bracket printed on, then cut and mark single gauges for each tooth. 7. Put separating agent on the model (Unifol, Perident Dental Products, Florence, Italy) and adhesive on the bracket base. 8. Positioning brackets on the model, remove all flushes. Desired position is obtained by using the gauges described above. 9. Light-cure the adhesive of all brackets by using light-cure machine (Fotolab UV, Tissi Dental, Milan, Italy). When all the braces were positioned, the adhesive were light-cured. From this point Fabio C (2019) Prototybraces®: A new technique for a customized indirect bonding procedure by using CAD/CAM technology Dent Oral Maxillofac Res, 2019 doi: 10.15761/DOMR.1000305 Volume 5: 2-3 tray on for 3 minutes more, to complete the self-curing process. Remove the tray with a scaler, silicone layer and any residual primer with utility tool; the arch wire can be engaged.
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