Origin paper
CAD/CAM splints for the functional and esthetic evaluation of newly defined occlusal dimensions.
Dimensional stability of occlusal splints.
Polishability and wear resistance of splint material for oral appliances produced with conventional, subtractive, and additive manufacturing.
A new computer-assisted method for design and fabrication of occlusal splints.
Fracture resistance and 2-body wear of 3-dimensional-printed occlusal devices.
The anisotropicity of the flexural properties of an occlusal device material processed by stereolithography.
Digital Michigan splint - from intraoral scanning to plasterless manufacturing.
Occlusal splint fabrication.
A study of the flexural strength and surface hardness of different materials and technologies for occlusal device fabrication.
Clinical comparison of conventional and additive manufactured stabilization splints
A simplified technique for fabrication of night guards
Evaluation of wear behaviour of various occlusal splint materials and manufacturing processes.
Evaluation of the mechanical properties and degree of conversion of 3D printed splint material.
Comparing the mechanical properties of pressed, milled, and 3D-printed resins for occlusal devices.
Surface roughness and wear behavior of occlusal splint materials made of contemporary and high-performance polymers
A comparative study of the fit and retention of interocclusal splints constructed from heat-cured and autopolymerized polymethylmethacrylate.
In vitro study on the influence of postpolymerization and aging on the Martens parameters of 3D-printed occlusal devices.
Comparison of wear between occlusal splint materials and resin composite materials
CAD/CAM-generated high-density polymer restorations for the pretreatment of complex cases: a case report.
Polymers for conventional, subtractive, and additive manufacturing of occlusal devices differ in hardness and flexural properties but not in wear resistance.
Characterization of occlusal splint materials: CAD-CAM versus conventional resins.
Accuracy of CAD/CAM-fabricated bite splints: milling vs 3D printing
Accuracy and its impact on fit of injection molded, milled and additively manufactured occlusal splints.
A simplified technique for occlusal splint fabrication.
Protecting esthetic restorations with mouthguards and other appliances.
Comparison of hardness and polishability of various occlusal splint materials.
Constructing occlusal splints
Two-body wear of occlusal splint materials.
Two-body wear of occlusal splint materials from subtractive computer-aided manufacturing and three-dimensional printing
Occlusal splint fabrication.
Fabrication of a maxillary occlusal treatment splint.
A digital process for additive manufacturing of occlusal splints: a clinical pilot study
Effect of Nitrogen Gas Post-Curing and Printer Type on the Mechanical Properties of 3D-Printed Hard Occlusal Splint Material
Wear Behaviour of Occlusal Splint Materials Manufactured By Various Methods: A Systematic Review.
Two-body wear and surface hardness of occlusal splint materials.
Influence of Different Postpolymerization Strategies and Artificial Aging on Hardness of 3D-Printed Resin Materials: An In Vitro Study.
Two-body wear of occlusal splint materials against different antagonists
Dimensional changes of processed denture bases after relining with three resins.
Effect of 3D Printer Type and Use of Protection Gas during Post-Curing on Some Physical Properties of Soft Occlusal Splint Material
Objects build orientation, positioning, and curing influence dimensional accuracy and flexural properties of stereolithographically printed resin.
An alternative technique for fabrication of an occlusal device.
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19742022
Objects build orientation, positioning, and curing influence dimensional accuracy and flexural properties of stereolithographically printed resin.Comparing the mechanical properties of pressed, milled, and 3D-printed resins for occlusal devices.A digital process for additive manufacturing of occlusal splints: a clinical pilot studyCAD/CAM-generated high-density polymer restorations for the pretreatment of complex cases: a case report.The anisotropicity of the flexural properties of an occlusal device material processed by stereolithography.A new computer-assisted method for design and fabrication of occlusal splints.Evaluation of the mechanical properties and degree of conversion of 3D printed splint material.Fracture resistance and 2-body wear of 3-dimensional-printed occlusal devices.Accuracy of CAD/CAM-fabricated bite splints: milling vs 3D printingPolishability and wear resistance of splint material for oral appliances produced with conventional, subtractive, and additive manufacturing.In vitro study on the influence of postpolymerization and aging on the Martens parameters of 3D-printed occlusal devices.Digital Michigan splint - from intraoral scanning to plasterless manufacturing.A study of the flexural strength and surface hardness of different materials and technologies for occlusal device fabrication.Surface roughness and wear behavior of occlusal splint materials made of contemporary and high-performance polymersCAD/CAM splints for the functional and esthetic evaluation of newly defined occlusal dimensions.Clinical comparison of conventional and additive manufactured stabilization splintsComparison of wear between occlusal splint materials and resin composite materialsPolymers for conventional, subtractive, and additive manufacturing of occlusal devices differ in hardness and flexural properties but not in wear resistance.Comparison of hardness and polishability of various occlusal splint materials.Occlusal splint fabrication.Evaluation of wear behaviour of various occlusal splint materials and manufacturing processes.Effect of Nitrogen Gas Post-Curing and Printer Type on the Mechanical Properties of 3D-Printed Hard Occlusal Splint MaterialTwo-body wear of occlusal splint materials.Characterization of occlusal splint materials: CAD-CAM versus conventional resins.A simplified technique for fabrication of night guardsDimensional changes of processed denture bases after relining with three resins.Accuracy and its impact on fit of injection molded, milled and additively manufactured occlusal splints.Dimensional stability of occlusal splints.Influence of Different Postpolymerization Strategies and Artificial Aging on Hardness of 3D-Printed Resin Materials: An In Vitro Study.Occlusal splint fabrication.Wear Behaviour of Occlusal Splint Materials Manufactured By Various Methods: A Systematic Review.Two-body wear and surface hardness of occlusal splint materials.Two-body wear of occlusal splint materials against different antagonistsTwo-body wear of occlusal splint materials from subtractive computer-aided manufacturing and three-dimensional printingEffect of 3D Printer Type and Use of Protection Gas during Post-Curing on Some Physical Properties of Soft Occlusal Splint MaterialA comparative study of the fit and retention of interocclusal splints constructed from heat-cured and autopolymerized polymethylmethacrylate.A simplified technique for occlusal splint fabrication.Fabrication of a maxillary occlusal treatment splint.Constructing occlusal splintsProtecting esthetic restorations with mouthguards and other appliances.An alternative technique for fabrication of an occlusal device.Unkovskiy, 2018Berli, 2020Salmi, 2013Edelhoff, 2012Väyrynen, 2016Lauren, 2008Perea-Lowery, 2020Lutz, 2019Marcel, 2020Huettig, 2017Reymus, 2020Dedem, 2016Prpić, 2019Benli, 2019Edelhoff, 2017Berntsen, 2018Reyes-Sevilla, 2018Wesemann, 2020Grymak, 2020Kass, 1978Grymak, 2022Wada, 2022Kurt, 2012Gibreel, 2021Becker, 1974Breeding, 1991Wesemann, 2020Bohnenkamp, 1996Reymus, 2020Lundeen, 1979Grymak, 2021Gibreel, 2022Domanic, 2020Schmeiser, 2022Wada, 2022Steele, 1992Haddix, 1987Adams, 1979RobertovonKrammer, 1979Greenberg, 1995Choi, 2008Unkovskiy, 2018Berli, 2020Salmi, 2013Edelhoff, 2012Väyrynen, 2016Lauren, 2008Perea-Lowery, 2020Lutz, 2019Marcel, 2020Huettig, 2017Reymus, 2020Dedem, 2016Prpić, 2019Benli, 2019Edelhoff, 2017Berntsen, 2018Reyes-Sevilla, 2018Wesemann, 2020Grymak, 2020Kass, 1978Grymak, 2022Wada, 2022Kurt, 2012Gibreel, 2021Becker, 1974Breeding, 1991Wesemann, 2020Bohnenkamp, 1996Reymus, 2020Lundeen, 1979Grymak, 2021Gibreel, 2022Domanic, 2020Schmeiser, 2022Wada, 2022Steele, 1992Haddix, 1987Adams, 1979RobertovonKrammer, 1979Greenberg, 1995Choi, 2008
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Pretreatment with occlusal splints is a crucial step in a structured treatment approach for a complex rehabilitation that changes the vertical dimension of occlusion. Meticulous patient compliance is one of the essential prerequisites for overall treatment success. However, patient compliance is all too often insufficient due to esthetic, phonetic, and functional limitations when using conventional occlusal splints in one arch. Modern production technologies now allow the use of tooth-colored occlusal splints made of polycarbonate, whose quality and material properties are quite distinct from those of conventionally manufactured splints made of transparent polymethyl methacrylate (PMMA). These materials, produced under standardized polymerization conditions, are extremely homogenous, which provides benefits such as a greater accuracy of fit by eliminating the polymerization shrinkage, greater long-term stability of shapes and shades, better biocompatibility, less wear, and a more favorable esthetic appearance. In addition, tooth-colored polycarbonate splints can be fabricated very thin without significantly increasing the fracture risk, thanks to the flexibility of the material. The improved wearing comfort combined with acceptable esthetics result in significantly improved patient compliance in terms of a "23-hour splint." CONCLUSION By providing separate splints for the maxilla and mandible in the case of major alterations of the vertical dimension of occlusion, the esthetic and functional aspects defined by the wax-up can be completely transferred to the removable splints for a "test drive" by the patient, reversibly, and under realistic conditions. This dual-splint approach additionally facilitates segmental transfer into the definitive restoration.