In Vitro Study on the Bond Strength Between 3D-Printed Resin and Resin Cement for Pediatric Crown Restoration
0
조회
0
다운로드
0
인용
0
참고문헌
키워드
초록
A 3D-printed resin crown is a novel option for esthetic crown restoration for primary teeth, which are typically bonded with resin cement. The purpose of this study was to evaluate the bonding ability of a 3D printing resin and compare it with other indirect resin materials for crown fabrication. The shear bond strengths of two 3D printing resin materials, Graphy (GP) and NextDent (NXT), and two indirect resin materials, VIPI Block (VIPI) and MAZIC Duro (MZ), were compared in the study. For all materials, the shear bond strength at the interface between the surface of the resin material and resin cement was measured. The mean shear bond strength values of GP, NXT, MZ, and VIPI were 23.29 ± 3.88, 26.14 ± 4.67, 25.41 ± 4.03, and 18.79 ± 4.26 MPa, respectively. There was no significant difference among the SBSs of GP, NXT and MZ except for VIPI. The result of this study indicates that the 3D printing resin meets the essential requirement for clinical use by showing clinically adequate bond strength.
Abstract
A 3D-printed resin crown is a novel option for esthetic crown restoration for primary teeth, which are typically bonded with resin cement. The purpose of this study was to evaluate the bonding ability of a 3D printing resin and compare it with other indirect resin materials for crown fabrication. The shear bond strengths of two 3D printing resin materials, Graphy (GP) and NextDent (NXT), and two indirect resin materials, VIPI Block (VIPI) and MAZIC Duro (MZ), were compared in the study. For all materials, the shear bond strength at the interface between the surface of the resin material and resin cement was measured. The mean shear bond strength values of GP, NXT, MZ, and VIPI were 23.29 ± 3.88, 26.14 ± 4.67, 25.41 ± 4.03, and 18.79 ± 4.26 MPa, respectively. There was no significant difference among the SBSs of GP, NXT and MZ except for VIPI. The result of this study indicates that the 3D printing resin meets the essential requirement for clinical use by showing clinically adequate bond strength.
참고문헌 (30)
- Kapur A, "An esthetic point of view in very young children", J Clin Pediatr Dent, 30, pp.99~103 (2005)
- Mathew MG, "Evaluation of Clinical Success, Parental and Child Satisfaction of Stainless Steel Crowns and Zirconia Crowns in Primary Molars", J Family Med Prim Care, 9, pp.1418~1423 (2020)
- Walia T, "A randomised controlled trial of three aesthetic full-coronal restorations in primary maxillary teeth", Eur J Paediatr Dent, 15, pp.113~118 (2014)
- Kim D, "Effects of Post-Curing Time on the Mechanical and Color Properties of Three-Dimensional Printed Crown and Bridge Materials", Polymers(Basel), 12, pp.2762~ (2020)
- Della Bona A, "3D printing restorative materials using a stereolithographic technique : a systematic review", Dent Mater, 37, pp.336~350 (2021)
- Corazza PH, "Influence of CAD-CAM diamond bur deterioration on surface roughness and maximum failure load of Y-TZP-based restorations", Am J Dent, 28, pp.95~99 (2015)
- van Noort R, "The future of dental devices is digital", Dent Mater, 28, pp.3~12 (2012)
- Malta DA, "Bond strength and monomer conversion of indirect composite resin restorations, Part 1 : Light vs heat polymerization", J Adhes Dent, 16, pp.517~522 (2014)
- da Veiga AMA, "Longevity of direct and indirect resin composite restorations in permanent posterior teeth : A systematic review and meta-analysis", J Dent, 54, pp.1~12 (2016)
- Spitznagel FA, "Resin bond to indirect composite and new ceramic", polymer materials : a review of the literature, 2014, pp.26, 382~393
- Pfeffer S, "Microtensile bond strength of luting cements to a 3D printable composite-an in vitro study", Zahnärztl J Int, 2, pp.229~239 (2020)
- Holmer L, "Comparison of the shear bond strength of 3D printed temporary bridges materials, on different types of resin cements and surface treatment", J Clin Exp Dent, 11, pp.E367~E372 (2019)
- D’Arcangelo C, "Adhesive Cementation of Indirect Composite Inlays and Onlays : A Literature Review", Compend Contin Educ Dent, 36, pp.570~577 (2015)
- Abad-Coronel C, "Adhesive Systems Used in Indirect Restorations Cementation : Review of the Literature", Dent J(Basel), 7, pp.71~ (2019)
- 이정은, "3종 시멘트로 접착한 소아용 기성 지르코니아 전장관과 유치 상아질의 전단결합강도", 대한소아치과학회지, 45(3), pp.314~323 (2018), 대한소아치과학회[DOI]
- Ishii R, "Influence of surface treatment of contaminated zirconia on surface free energy and resin cement bonding", Dent Mater J, 34, pp.91~97 (2015)
- Reymus M, "Bonding to new CAD", CAM resin composites : influence of air abrasion and conditioning agents as pretreatment strategy, 2019, pp.23, 529~538
- Kirmali O, "Resin cement to indirect composite resin bonding : effect of various surface treatments", Scanning, 37, pp.89~94 (2015)
- Bagis YH, "The effect of post-cure heating on residual, unreacted monomer in a commercial resin composite", Dent Mater, 16, pp.244~247 (2000)
- Connor CO, "Predictable bonding of adhesive indirect restorations : factors for success", Br Dent J, 231, pp.287~293 (2021)
- von Fraunhofer JA, "Adhesion and cohesion", Int J Dent, 2012, pp.951324~ (2012)
- Kameyama A, "Luting of CAD", CAM ceramic inlays : direct composite versus dual-cure luting cement, 2015, pp.25, 279~288
- Kim JE, "Effect of Pressure and Particle Size During Aluminum Oxide Air Abrasion on the Flexural Strength of Disperse-Filled Composite and Polymer-Infiltrated Ceramic Network Materials", Polymers(Basel), 12, pp.1396~ (2020)
- Nagaoka N, "Chemical interaction mechanism of 10-MDP with zirconia", Sci Rep, 7, pp.45563~ (2017)
- Hagino R, "Combination of a silane coupling agent and resin primer reinforces bonding effectiveness to a CAD", CAM indirect resin composite block, 2021, pp.40, 1445~1452
- Matsumura H, "Shear bond strength of resin composite veneering material to gold alloy with varying metal surface preparations", J Prosthet Dent, 86, pp.315~319 (2001)
- Turner CW, "Repair of an aged, contaminated indirect composite resin with a direct, visible-light-cured composite resin", Oper Dent, 18, pp.187~194 (1993)
- Van Ende A, "Bulk-filling of high C-factor posterior cavities : effect on adhesion to cavity-bottom dentin", Dent Mater, 29, pp.269~277 (2013)
- Liebermann A, "Impact of plasma treatment of PMMA-based CAD", CAM blanks on surface properties as well as on adhesion to self-adhesive resin composite cements, 2013, pp.29, 935~944
- Zafar MS, "Prosthodontic Applications of Polymethyl Methacrylate(PMMA) : An Update", Polymers(Basel), 12, pp.2299~ (2020)