Mapping the Landscape of the Digital Workflow of Esthetic Veneers from Design to Cementation: A Systematic Review
Abstract
:1. Introduction
2. Materials and Methods
2.1. Protocol and Registration
2.2. Eligibility Criteria
2.3. Search Strategy
2.4. Selection Process
2.5. Certainty of Evidence
3. Results
4. Discussion
5. Conclusions
Author Contributions
Funding
Data Availability Statement
Acknowledgments
Conflicts of Interest
References
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Study | Aim | Design | Description | Outcome | Quality Assessment | Limitation | |
---|---|---|---|---|---|---|---|
[21] | Workflow | To elucidate a cutting-edge methodology for achieving a smile transformation through the utilization of a completely digitized process. | Case report | This clinical report outlines a methodology for achieving a smile makeover through the utilization of a comprehensive digital veneer workflow. This process involves the creation of 3D-printed smile design models, which are subsequently employed in the clinical setting to guide veneer preparation and provisionalization procedures. | Implementing a digital workflow in the management of esthetic situations improves the ability to predict treatment outcomes and boosts the longevity and effectiveness of restorations by preserving tooth structure. | High | No cementation guide. No mention ofrubber dam isolation during cementation. |
[22] | This case report describes an ultraconservative approach that involves the use of only two ceramic laminate veneers for the maxillary central incisors. The purpose of this approach is to improve the patient’s smile. | Case report | The procedure employed adhered to a meticulously designed sequence, which encompassed a diagnostic mock-up, limited tooth reduction guided by a reduction guide, the creation of esthetically pleasing hand-crafted veneers, and the application of rubber dam isolation during the bonding process. | The findings indicate that employing this highly conservative method can greatly improve the appearance of smiles while maintaining the integrity of the original tooth structure. This therapy option is a superior alternative to more intrusive procedures and typically leads to a high level of patient contentment. | High | No cementation guide. | |
[23] | Workflow | To introduce a predictable digital workflow for minimally invasive anterior-esthetic tooth rehabilitation based on the global diagnosis principle. | Case report | Extra/intraoral photos + intraoral scan → approved 3D smile design. Intraoral scanning was used to record the final preparations. Smile design was superimposed on the preparation to design the final prosthesis. | The digital technique enabled predictive treatment for esthetic rehabilitation by generating a virtual digital patient using the principles of global diagnosis. The treatment is characterized by its minimal invasiveness, which facilitates diagnosis, improves communication, reduces the processing time, and enhances the predictability of outcomes. Additionally, it provides a high comfort level and achieves esthetically pleasing results. | Moderate | Quantitative measurements after superimposition are missing. |
[24] | Smile design/Mockup | To outline a systematic treatment process for the restoration of anterior teeth using PLVs, encompassing both traditional and digital techniques. | Case report | This clinical report described the utilization and comparison of two digital smile design software tools, GPS, and Nemo DSD 3D, with the conventional workflow. | The digital smile design programs demonstrated an effective and predictable workflow, resulting in satisfactory esthetic outcomes. Nevertheless, the conventional workflow yielded conservative and esthetically superior results. Feldspathic veneers were chosen for their superior optical properties as compared to CAD/CAM lithium disilicate. | Moderate | No cementation guide used. |
[25] | To propose a method for implementing guided tooth preparation in which the tooth is virtually prepared in a laboratory setting, and then preparation templates are developed for use during chairside procedures. | Case report | An intra-oral scanner was used to obtain patient records, digital photos were taken, and both stump and final shades were selected. To prepare the teeth virtually, these digital records were combined with digital laboratory tools, which then served as chairside templates for guided tooth preparation. | The conventional method relies heavily on the proficiency of the operator to attain an ideal outcome and frequently leads to more destruction of tooth structure. Nevertheless, CAD/CAM technology currently provides a directed method for tooth preparation that minimizes the amount of tooth structure that needs to be removed. | High | Missing clinical data related to the procedures. | |
[2] | Preparation | To evaluate the accuracy of three digital trial restorations fabricated from digital waxing for ceramic veneers. | In vitro study | Thirty maxillary central incisors were digitally waxed using a standardized technique in a software application. The trial restorations were created using autopolymerizing acrylic resin on typodont teeth. The 30 maxillary central incisors were divided into three groups: the depth cutter group, the round bur group, and the specially designed, calibrated depth-bur group. The three groups were randomly prepared. The aim was to produce an even facial clearance of 0.5 mm. | The trial restoration had a notably greater thickness compared to its equivalent waxing. The DC approach gave the best accurate reduction result among the three protocols studied. | Moderate | No randomization. |
[11] | Preparation | To assess the survival of PLVs made with a recently developed, polymer-infiltrated ceramic network material, employing the esthetic pre-evaluative temporary (APT) technique for tooth preparation, and comparing it to the standard technique. | Randomized clinical trial | The study involved 54 laminate veneers administered to six patients in two equal groups: group T, which used the traditional method, and group A, which used the esthetic pre-evaluative temporary procedure. The veneers were evaluated using modified USPHS criteria. | Throughout the study period, veneers were effectively fabricated in both study groups without any instances of secondary caries, endodontic problems, cracks, or loss of retention. No significant fractures were found in any group. Nevertheless, the color-matching standards exhibited a substantial decline in both groups, suggesting a decline in the quality of the veneer. Patients expressed high levels of satisfaction with their veneers. The DC approach yielded the most precise reduction result compared to the other two protocols analyzed. | Moderate | N/A |
[5] | Preparation | To assess the accuracy of reduction depths in guided veneer preparation facilitated by four tooth preparation guides. | In vitro study | A total of fifty artificial teeth made of resin were randomly allocated into five distinct groups: a group using freehand technique, a group using a silicone guide, a group using a thermoplastic guide, a group using a 3D-printed guide with uniform stops, and a group using a 3D-printed guide with automatic stopping mechanism. A preparation was done for a window veneer on the upper right central incisor, and the depths of the surfaces that were prepared were measured. Depth maps were generated to assess the accuracy of the decrease depths at each third, employing both veracity and precision measurements. | Tooth preparation guides offer more accuracy for guided veneer preparation as compared to freehand preparation. Out of the four guides, the 3D-printed auto-stop guide had the smallest absolute difference (0.05 mm), whereas the silicone guide had the biggest absolute variation in preparation (0.12–0.16 mm). | High | No cementation guide used. |
[1] | Adaptation | To compare between crenelated veneer preparation and conventional preparation in terms of marginal and internal gaps to the prepared tooth surface. | In vitro study | Optical microscopy and micro-CT were employed to assess the marginal and internal gaps in bonded veneers prepared using two methods: crenelated and conventional veneer preparation. Porosity assessments were also conducted. | The novel veneers design produces better marginal and internal adaptation of the restorations to the prepared tooth surface. | High | N/A |
[6] | Cementation guide | To describe a digitally designed and 3D-printed cementation guide | Case report | A 3D-printed guide was designed for preparing teeth. This one-piece device can securely hold all veneers together individually, enhancing the stability and precision of the bonding process as compared to using individual holders for each veneer. | This technique offers the ability to precondition and cement multiple veneers simultaneously with increased accuracy, thanks to the application of even and controlled pressure by using flexible resin material during the bonding. It allowed for the use of a rubber dam, resulting in time savings. | High | N/A |
[26] | Smile design/Mockup | To investigate the trueness of the mock-ups obtained with milling and 3D-printing technology and a full digital workflow system. | In vivo Study | The study population comprised 10 adult individuals who had DSD (Digital Smile Design) and digital wax-up treatments to improve the esthetic appearance of their upper front teeth. A total of twenty mock-ups were produced, consisting of ten milled mock-ups and ten prototyped mock-ups. STL files were created, and a digital analysis was conducted on the digital wax-up using the surface-to-surface matching approach to evaluate its accuracy. The dimensional parameters of the actual products, the 3D project, and the scanned mock-ups were investigated and compared using specific linear measurements. | Both the prototype and milled mock-ups exhibited a small increase in dimensions compared to the original 3D project. However, the milled mock-ups shown a lower level of fitting after clinical tests. It is important to exercise caution while evaluating the accuracy of scanned manufacturing, because a built-in inaccuracy in the system can result in the underestimation of the thing’s actual dimensions. | Moderate | No randomization |
[8] | Preparation | To present a novel digital technology that can be utilized to tackle this difficulty, highlighting its benefits and drawbacks. | Case report | The First Fit system offers a one-step procedure using 3D-printed guides and a custom handpiece for veneer preparation. This method involves creating final restorations and preparing teeth using reduction guides. The veneers are bonded on the same day, while a two-step method involves a preparatory phase using reduction guides and freehand techniques. The process of cementation is then finalized during a second visit. | The suggested technique of guided restorative dentistry employs digital CAD-CAM technology to obtain precise and reliable outcomes in a minimally invasive and efficient manner. The First Fit method utilizes a minimally invasive approach to control and guide veneer preparation. Occasionally, it enables the creation of veneers prior to tooth preparation, thereby eliminating the necessity of temporary restorations. | High | Cannot be generalized to all veneer cases |
[4] | Cementation guide | To present a (CAD-CAM) guiding device to facilitate the simultaneous preconditioning and cementation of multiunit porcelain laminate veneers (PLVs). | Technique paper | An intraoral scan was taken preoperatively. The teeth were prepared for veneers and scanned to digitally design the definitive veneers. The veneers were CAD/CAM fabricated and tried in the 3D-printed master model. The veneers and model were desktop-scanned to design the cementation guide digitally. The cementation guide was milled using PMMA. The veneers were preconditioned and loaded using appropriate amount of resin cement using the cementation device. | In contrast with the conventional method, this technique provides a predictable, accurate, and effective way of preconditioning and cementing PLVs. | High | N/A |
[27] | Workflow | To describe the clinical protocols for producing PLVs using CAD/CAM technology in a single session, utilizing a digital workflow that includes a facilitating step. Additionally, this report aims to present the clinical outcomes observed over the course of one year. | Case report | Conventional impression → wax-up model → PVS index → Chair-side mockups. Scan of the clinical mock-up + the patient photo → approved 3D smile design and virtual mock-up. Guided tooth preparations were performed based on the approved chair-side mock-up. A 3D smile design was used to create the final veneer designs. | PLV restorations, using CAD/CAM technology, have been efficiently produced, resulting in rapid esthetic rehabilitation and patient satisfaction. This technology ensures precise tooth matching with a minimal margin of error, enhancing the interaction between dentist and patient. | Moderate | No rubber dam isolation or cementation guide used |
[28] | Smile design/Mockup | The study compared traditional mock-up production methods to digital workflows, comparing their accuracy to specific designs and diagnostic wax-ups. | In vitro study | The project entailed the fabrication of 52 resin models and the production of a digital depiction of a grin. Both analog and digital wax-ups were acquired, with the analog wax-up utilized for matrices and the digital wax-up employed for PMMA mock-ups. The STL files of the milled prototypes were compared with 3D CAD wax models that were created using a specialized software, while the STL files of the analog-printed prototypes were compared with the conventional wax model design. | The study found that the digital method offers greater accuracy than traditional molded and milled mock-ups, despite the higher risk of errors. This suggests that a fully digital workflow is more reliable for creating esthetic mock-ups, despite the limitations of the study. | Moderate | N/A |
[29] | Smile design/Mockup | To demonstrate a methodical approach to diagnose, plan, and stage treatment for a smile makeover by combining DSD with clear aligner therapy. This method successfully accomplishes the intended esthetic design while minimizing the amount of tooth reduction required. | Case report | Phase 1: Digital System Design and Motivational Mockup Phase 2: A digital scan of the inside of the mouth was performed. A treatment plan model was established. Aligners were employed to rectify the front cross-bite, reduce the extraction of healthy tooth tissue, and generate bilateral space around the peg lateral incisors. The photos from each source were overlaid using three reference lines. The therapist subsequently adjusted the software treatment plan to fit with these three guidelines and recorded the Invisalign view for future reference. Phase 3: After aligning the ClinCheck photograph with the DSD, the image of the anticipated Invisalign outcome was overlaid onto the DSD shot. Phase 4: The Invisalign treatment was completed in 8 weeks using a total of 14 aligners. Phase 5: The final restorations were fabricated with e.max. | The integration of Invisalign and DSD facilitated the dentist in repositioning the teeth to optimal locations for veneer restorations, hence attaining the desired aesthetic outcomes with the utilization of less invasive dental procedures. The newly applied veneers seamlessly matched the contours of the face and lower lip, and the gaps were flawlessly sealed. The implementation of the additive technique in this instance reduced the amount of tooth preparation and enhanced the visibility of the teeth in the patient’s smile. The patient expressed satisfaction not only with the exceptional esthetics but also with the little amount of tooth structure that was removed. | Moderate | |
[30] | Smile design/Mockup | To describe a digital workflow that employs the virtual smile design approach, augmented with a 3D virtual patient, to restore maxillary central incisors using CAD-CAM fabricated monolithic lithium disilicate ceramic veneers. | Case Report | The 3D facial soft tissue profile of the patient was recorded. The dental laboratory received and imported all digital diagnostic data into CAD software. The 2D and 3D digital data were merged using consistent anatomical landmarks in the soft tissue. A virtual model of facial soft tissue was generated. The STL file containing the 3D intraoral scan was subsequently aligned with the digital representation of the patient. The bespoke 2D virtual grin design served as a visual guide to generate the virtual diagnostic waxing. The abutment teeth were created under the guidance of the vacuum-formed matrix. The creation of definitive veneers involved the use of a machinable lithium disilicate ceramic block. | This clinical report showed that the definitive veneers were fabricated with machinable lithium disilicate ceramic block. No complications were observed during the 6 months after insertion. With the 2D virtual smile design approach, perspective distortion may cause inaccuracy or errors in the conversion process from 2D design to 3D diagnostic waxing, and the use of a 3D virtual patient can overcome this limitation. | Moderate | N/A |
[31] | Workflow | To demonstrate the digital process for designing and creating several laminate veneers for a patient’s maxillary anterior teeth, with the aim of improving their aesthetic appearance. | Clinical Report | This clinical report described a cast-free digital workflow for multiple ceramic veneers. Wax-up was performed conventionally. Traditional veneer preparation was performed without using mock-up. Preparation was scanned and margins were defined digitally. Provisional splinted veneers were designed digitally and milled using PMMA. | This procedure improves esthetics by utilizing milled-acrylic temporary restorations and IPS e.max permanent restorations. These restorations meet the clinical standards regarding their fit, form, contour, and esthetics. The utilization of digital dentistry and virtual design has the potential to enhance communication between patients, physicians, and dental laboratories. | High | No rubber dam isolation nore cementation guide |
[32] | Preparation | To assess an automated robotic tooth preparation system for PLVs for accuracy and precision compared with conventional freehand tooth preparation | In vitro study | Twenty maxillary central incisor tooth models were divided into two groups: 10 for veneer preparation using a robotic arm and 10 for conventional tooth preparation. All models were scanned, and preoperative design images were superimposed on postoperative preparation images. The dimensional differences between the two images were then measured. The robotic arm was used for veneer preparation in the experimental group. | For data from all sites, the experimental procedure prepared the tooth model with accuracy levels comparable to the control. However, the control procedure demonstrated better precision in tooth model preparation. The experimental group exhibited superior accuracy and precision at the finish line. | Moderate | N/A |
[7] | Workflow | To demonstrate the fabrication of an in-office, one-visit CAD/CAM porcelain laminate veneer. | Case report | A porcelain laminate veneer with a fracture was restored in a single visit using CAD/CAM technology. The fractured tooth was first treated with a composite restoration and then scanned. Following the tooth’s preparation, the scanned composite was utilized to design the laminate veneer. The restoration was then milled and cemented. | A single-visit protocol allows clinicians to save time by controlling the color and contour of the porcelain veneer restorations, resulting in a total chair time of 1 h and 45 min. | Low | Missing clinical data of the procedure |
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Ahmed, W.M.; Azhari, A.A.; Sedayo, L.; Alhaid, A.; Alhandar, R.; Almalki, A.; Jahlan, A.; Almutairi, A.; Kheder, W. Mapping the Landscape of the Digital Workflow of Esthetic Veneers from Design to Cementation: A Systematic Review. Dent. J. 2024, 12, 28. https://doi.org/10.3390/dj12020028
Ahmed WM, Azhari AA, Sedayo L, Alhaid A, Alhandar R, Almalki A, Jahlan A, Almutairi A, Kheder W. Mapping the Landscape of the Digital Workflow of Esthetic Veneers from Design to Cementation: A Systematic Review. Dentistry Journal. 2024; 12(2):28. https://doi.org/10.3390/dj12020028
Chicago/Turabian StyleAhmed, Walaa Magdy, Amr Ahmed Azhari, Lamer Sedayo, Alanod Alhaid, Reem Alhandar, Amirah Almalki, Aishah Jahlan, Afnan Almutairi, and Waad Kheder. 2024. "Mapping the Landscape of the Digital Workflow of Esthetic Veneers from Design to Cementation: A Systematic Review" Dentistry Journal 12, no. 2: 28. https://doi.org/10.3390/dj12020028
APA StyleAhmed, W. M., Azhari, A. A., Sedayo, L., Alhaid, A., Alhandar, R., Almalki, A., Jahlan, A., Almutairi, A., & Kheder, W. (2024). Mapping the Landscape of the Digital Workflow of Esthetic Veneers from Design to Cementation: A Systematic Review. Dentistry Journal, 12(2), 28. https://doi.org/10.3390/dj12020028