Purpose: The aim of this study was to evaluate the bond strength between Biodentine, modified with polymethyl methacrylate/Montmorillonite nanoclay, and resin composite at different stages of Biodentine's setting time.
Materials and Methods: Nanoclay was prepared and organo-modified with polymethyl methacrylate. The characterization of polymethyl methacrylate/Montmorillonite nanoclay, Biodentine, and modified Biodentine was assessed by X-ray diffraction analysis, Fourier-transform infrared spectroscopy, and scanning electron microscopy coupled with energy-dispersive X-ray spectroscopy. A total of sixty acrylic molds were constructed; thirty specimens were filled with Biodentine, and the other thirty with nanoclay-modified Biodentine. Each group was subdivided according to different stages of Biodentine's setting time: 12 minutes, 2 hours, and 2 weeks. Universal adhesive, followed by flowable resin composite, was applied. The micro shear bond strength was tested using a universal testing machine. Data were analyzed using one-way ANOVA followed by Tukey’s post hoc test, in addition to two-way ANOVA. The significance level was set at p ≤ 0.05.
Results: The characterization results revealed the successful preparation of polymethyl methacrylate/Montmorillonite nanoclay and modified Biodentine. The micro-shear bond strength results showed that modified Biodentine had significantly higher micro-shear bond strength than unmodified Biodentine at 12 minutes. However, no statistically significant difference was found between the unmodified and modified Biodentine groups at 2 hours and 2 weeks.
Conclusion: The incorporation of 10% modified nanoclay by weight into Biodentine could enhance the bond strength with resin composite when placed after 12 minutes of Biodentine's setting time.
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Mustafa RM, Al-Nasrawi SJ, Aljdaimi AI. The effect of biodentine maturation time on resin bond strength when aged in artificial saliva. Int J Dent, 2020;22. google scholar
Bula KA, Palatynska-Ulatowska A, Klimek L. Biodentine management and setting time with Vicat and Vickers evaluation; a survey-based study on clinicians' experience. Arch Mater Sci Eng, 2020;103. google scholar
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Elmergawy FH, Nassif MS, El-Borady OM, Mabrouk M, El-Korashy DI. Physical and mechanical evaluation of dental resin composite after modification with two different types of Montmorillonite nanoclay. J Dent, 2021;112:103731. google scholar
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Marsh A, Heath A, Patureau P, Evernden M, Walker P. Alkali activation behaviour of un-calcined montmorillonite and illite clay minerals. Appl Clay Sci,2018;166:250-61. google scholar
Li Q, Hurt AP, Coleman NJ. The application of 29Si NMR spectroscopy to the analysis of calcium silicate-based cement using Biodentine as an example. J Funct Biomater, 2019;10:25. google scholar
Kaur M, Singh H, Dhillon JS, Batra M, Saini M. MTA versus Biodentine: review of literature with a comparative analysis. JCDR, 2017;11:ZG01. google scholar
Carretero V, Giner-Tarrida L, Penate L, Arregui M. Shear bond strength of nanohybrid composite to biodentine with three different adhesives. Coat, 2019; 9:783. google scholar
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Zhong H, Zhou XG, Cai Q, Yang XP. Poly (methyl methacrylate) Grafted Silica Nanoparitcles Via ATRP for Bis-GMA/TEGDMA Dental Restorative Composite Resins. Adv Mat Res, 2013;647:46-52 google scholar
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Cervantes-Uc JM, Cauich-Rodriguez JV, Vâzquez-Torres H, Garfias-Mes^as LF, Paul DR. Thermal degradation of commercially available organoclays studied by TGA-FTIR. Thermochim Acta, 2007;457:92-102. google scholar
Damian G, Damian F, Szakâcs Z, lepure G, Aştefanei D. Mineralogical and Physico-Chemical Characterization of the Oraşu-Nou (Romania) Bentonite Resources. Minerals, 2021; 11:938. google scholar
Mayya A, George AM, Mayya A, D’souza SP, Mayya SS. Impact of maturation time on the shear bond strength of an alkasite restorative material to pure tricalcium silicate based cement: An in-vitro experimental study. J Int Oral Health, 2022;14:494. google scholar
Çolak H, Tokay U, Uzgur R, Uzgur Z, Ercan E, Hamidi MM. The effect of different adhesives and setting times on bond strength between Biodentine and composite. J Appl Biomater Funct Mater, 2016;14:217-22. google scholar
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İsmail AM, Bourauel C, ElBanna A, Salah Eldin T. Micro versus macro shear bond strength testing of dentin-composite interface using chisel and wireloop loading techniques. Dent J, 2021;9:140. google scholar
Chan M-l, Lau K-t, Wong T-t, Ho M-p, Hui D. Mechanism of reinforcement in a nanoclay/polymer composite. Compos B: Eng, 2011;42:1708-12. google scholar
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Year 2025,
Volume: 59 Issue: 1, 19 - 26, 29.01.2025
Nie E, Yu J, Jiang R, Liu X, Li X, Islam R. Effectiveness of direct pulp capping bioactive materials in dentin regeneration: a systematic review. Mater, 2021;14:1-14. google scholar
Kaul S, Kumar A, Jasrotia A, Gorkha K, Kumari S, Jeri SY. Comparative analysis of biodentine, calcium hydroxide, and 2% chlorhexidine with resin-modified glass ionomer cement as indirect pulp capping materials in young permanent molars. J Contemp Dent Pract, 2021;22:511-6. google scholar
Singla MG, Wahi P. Comparative evaluation of shear bond strength of Biodentine, Endocem mineral trioxide aggregate, and TheraCal LC to resin composite using a universal adhesive: an in vitro study. Endodontology, 2020;32:14-9. google scholar
Camilleri J, Laurent P, About I. Hydration of biodentine, theracal lc, and a prototype tricalcium silicate-based dentin replacement material after pulp capping in entire tooth cultures. J Endod, 2014;40:1846-54. google scholar
Kadali NS, Alla RK, AV R, MC S S, Mantena SR, RV R. An overview of composition, properties, and applications of Biodentine. IJDM, 2021;3:120-6. google scholar
Arandi NZ and Thabet M. Minimal intervention in dentistry: A literature review on Biodentine as a bioactive pulp capping material. Biomed Res Int, 2021;2021:1-13. google scholar
Mustafa RM, Al-Nasrawi SJ, Aljdaimi AI. The effect of biodentine maturation time on resin bond strength when aged in artificial saliva. Int J Dent, 2020;22. google scholar
Bula KA, Palatynska-Ulatowska A, Klimek L. Biodentine management and setting time with Vicat and Vickers evaluation; a survey-based study on clinicians' experience. Arch Mater Sci Eng, 2020;103. google scholar
Calabria-Holley J, Papatzani S, Naden B, Mitchels J, Paine K. Tailored montmorillonite nanoparticles and their behaviour in the alkaline cement environment. Appl Clay Sci, 2017;143:67-75. google scholar
Elmergawy FH, Nassif MS, El-Borady OM, Mabrouk M, El-Korashy DI. Physical and mechanical evaluation of dental resin composite after modification with two different types of Montmorillonite nanoclay. J Dent, 2021;112:103731. google scholar
Atai M, Solhi L, Nodehi A, Mirabedini SM, Kasraei S, Akbari K. PMMA-grafted nanoclay as novel filler for dental adhesives. Dent Mater, 2009;25:339-47. google scholar
Solhi L, Atai M, Nodehi A, Imani M, Ghaemi A, Khosravi K. Poly(acrylic acid) grafted montmorillonite as novel fillers for dental adhesives: synthesis, characterization and properties of the adhesive. Dent Mater, 2012;28:369-77. google scholar
Sample-Lord KM, Shackelford CD. Dialysis Method to Control Exchangeable Sodium and Remove Excess Salts From Bentonite. GTJ, 2016;39:206-16. google scholar
Madejova J, Komadel P. Baseline studies of the clay minerals society source clays: infrared methods. Clays Clay Miner, 2001;49:410-32. google scholar
Krupskaya VV, Zakusin SV, Tyupina EA, Dorzhieva OV, Zhukhlistov AP, Belousov PE. Experimental study of montmorillonite structure and transformation of its properties under treatment with inorganic acid solutions. Minerals, 2017;7:49. google scholar
Bishop JL, Pieters CM, Edwards JO. İnfrared spectroscopic analyses on the nature of water in montmorillonite. Clays Clay Miner, 1994;42:702-16. google scholar
Yusoh K, Kumaran SV, Ismail FS. Surface Modification of Nanoclay for the Synthesis of Polycaprolactone (PCL)-Clay Nanocomposite. MATEC Web Conf, 2018;150:1-6. google scholar
Abdullah M, Afzaal M, İsmail Z, Ahmad A, Nazir M, Bhat A. Comparative study on structural modification of Ceiba pentandra for oil sorption and palm oil mill effluent treatment. Desalin Water Treat, 2015;54:3044-53. google scholar
Abdallah W, Yilmazer U. Novel thermally stable organo-montmorillonites from phosphonium and imidazolium surfactants. Thermochim Acta, 2011;525:129-40. google scholar
Zandsalimi K, Akbari B, Mehrnejad F, Bagheri R. Compatibilization of clays and hydrophobic polymers: the case of montmorillonite and polyetheretherketone. Polym Bull, 2019;1: 1-23. google scholar
Günister E, Pestreli D, Ünlü CH, Atıcı O, Güngör N. Synthesis and characterization of chitosan-MMT biocomposite systems. Carbohydr Polym, 2007;67:358-65. google scholar
Thakur G, Singh A, Singh I. Chitosan-montmorillonite polymer composites: Formulation and evaluation of sustained release tablets of aceclofenac. Sci Pharm, 2016;84:603-17. google scholar
Tommasini FJ, Ferreira LdC, Tienne LGP, Aguiar VdO, Silva MHPd, Rocha LFdM. Poly (methyl methacrylate)-SiC nanocomposites prepared through in situ polymerization. Mater Res, 2018;21. google scholar
Kleczewska J, Bielinski D, Nowak J, Sokotowski J, Lukomska-Szymanska M. Dental composites based on dimethacrylate resins reinforced by nanoparticulate silica. Polym Polym Compos, 2016;24:411-8. google scholar
Alotaibi J, Saji S, Swain M. FTIR characterization of the setting reaction of biodentine. Dent Mater J, 2018;34:1645-51. google scholar
Chuayjuljit S, Thongraar R, Saravari O. Preparation and properties of PVC/EVA/organomodified montmorillonite nanocomposites. J Reinf Plast Compos, 2008;27:431-42. google scholar
Marsh A, Heath A, Patureau P, Evernden M, Walker P. Alkali activation behaviour of un-calcined montmorillonite and illite clay minerals. Appl Clay Sci,2018;166:250-61. google scholar
Li Q, Hurt AP, Coleman NJ. The application of 29Si NMR spectroscopy to the analysis of calcium silicate-based cement using Biodentine as an example. J Funct Biomater, 2019;10:25. google scholar
Kaur M, Singh H, Dhillon JS, Batra M, Saini M. MTA versus Biodentine: review of literature with a comparative analysis. JCDR, 2017;11:ZG01. google scholar
Carretero V, Giner-Tarrida L, Penate L, Arregui M. Shear bond strength of nanohybrid composite to biodentine with three different adhesives. Coat, 2019; 9:783. google scholar
Malkondu Ö, Kazandağ MK, Kazazoğlu E. A review on biodentine, a contemporary dentine replacement and repair material. Biomed Res Int, 2014;2014. google scholar
Zhong H, Zhou XG, Cai Q, Yang XP. Poly (methyl methacrylate) Grafted Silica Nanoparitcles Via ATRP for Bis-GMA/TEGDMA Dental Restorative Composite Resins. Adv Mat Res, 2013;647:46-52 google scholar
Ulatowska-Jarza A, Andrzejewski D, Maruszewski K, Podbielska H, Strek W. Advantages of sol-gel technologies for biomedical applications. Optical and Imaging Techniques for Biomonitoring IV 1999, SPIE, p. 50-8 google scholar
Carter CB, Norton MG. Sols, gels, and organic chemistry. Ceramic Materials: Science and Engineering 2007, Springer, p. 400-11. google scholar
Jawaid M, Qaiss A, Bouhfid R. Nanoclay reinforced polymer composites 2016, Springer, p. 3-8 google scholar
Malas A. Rubber nanocomposites with graphene as the nanofiller. Progress in Rubber Nanocomposites 2017, Woodhead publishing, p. 179-229. google scholar
Gartfa-Padilla A, KarianaMoreno-Sader MA-M, Realpe-Jimenez A, Soares JB. Synthesis and Characterization of Starch/Na-MMT Nanocomposites. Contemp Eng Sci, 2018;11:1633-41. google scholar
Alshabanat M, Al-Arrash A, Mekhamer W. Polystyrene/montmorillonite nanocomposites: study of the morphology and effects of sonication time on thermal stability. J Nanomater, 2013;2013:1-13. google scholar
Cervantes-Uc JM, Cauich-Rodriguez JV, Vâzquez-Torres H, Garfias-Mes^as LF, Paul DR. Thermal degradation of commercially available organoclays studied by TGA-FTIR. Thermochim Acta, 2007;457:92-102. google scholar
Damian G, Damian F, Szakâcs Z, lepure G, Aştefanei D. Mineralogical and Physico-Chemical Characterization of the Oraşu-Nou (Romania) Bentonite Resources. Minerals, 2021; 11:938. google scholar
Mayya A, George AM, Mayya A, D’souza SP, Mayya SS. Impact of maturation time on the shear bond strength of an alkasite restorative material to pure tricalcium silicate based cement: An in-vitro experimental study. J Int Oral Health, 2022;14:494. google scholar
Çolak H, Tokay U, Uzgur R, Uzgur Z, Ercan E, Hamidi MM. The effect of different adhesives and setting times on bond strength between Biodentine and composite. J Appl Biomater Funct Mater, 2016;14:217-22. google scholar
Palma PJ, Marques JA, Falacho RI, Vinagre A, Santos JM, Ramos JC. Does delayed restoration improve shear bond strength of different restorative protocols to calcium silicate-based cements?. Mater, 2018;11:2216. google scholar
Palma PJ, Marques JA, Antunes M, Falacho RI, Sequeira D, Roseiro L. Effect of restorative timing on shear bond strength of composite resin/calcium silicate-based cements adhesive interfaces. Clin Oral Investig, 2021;25:3131-9. google scholar
Carretero V, Giner-Tarrida L, Penate L, Arregui M. Shear bond strength of nanohybrid composite to biodentine with three different adhesives. Coat, 2019;9:783. google scholar
Ha H-T. The effect of the maturation time of calcium silicate-based cement (Biodentine™) on resin bonding: an in vitro study. Appl Adhes Sci, 2019;7:1-13. google scholar
Singla MG, Wahi P. Comparative evaluation of shear bond strength of Biodentine, Endocem mineral trioxide aggregate, and TheraCal LC to resin composite using a universal adhesive: An: in vitro: study. Endodontology, 2020;32:14-9. google scholar
Meraji N, Camilleri J. Bonding over dentin replacement materials. J Endod, 2017;43:1343-9. google scholar
Cengiz E, Ulusoy N. Microshear bond strength of tri-calcium silicate-based cements to different restorative materials. J Adhes Dent, 2016;18:231-7. google scholar
Aksoy S, Ünal M. Shear bond strength of universal adhesive systems to a bioactive dentin substitute (Biodentine) at different time intervals. SDS, 2017;1:116-22. google scholar
Hashem DF, Foxton R, Manoharan A, Watson TF, Baneıjee A. The physical characteristics of resin composite-calcium silicate interface as part of a layered/laminate adhesive restoration. Dent Mater, 2014;30:343-9. google scholar
Odabaş ME, Bani M, Tirali RE. Shear bond strengths of different adhesive systems to biodentine. Sci. World J, 2013;2013:1-5 google scholar
Kudva A, Raghunath A, Nair PM, Shetty HK, D’Costa VF, Jayaprakash K. Comparative evaluation of shear bond strength of a bioactive material to composite resin using three different universal bonding agents: An in vitro study. J Conserv Dent, 2022;25:54. google scholar
İsmail AM, Bourauel C, ElBanna A, Salah Eldin T. Micro versus macro shear bond strength testing of dentin-composite interface using chisel and wireloop loading techniques. Dent J, 2021;9:140. google scholar
Chan M-l, Lau K-t, Wong T-t, Ho M-p, Hui D. Mechanism of reinforcement in a nanoclay/polymer composite. Compos B: Eng, 2011;42:1708-12. google scholar
Nekoofar MH, Motevasselian F, Mirzaei M, Yassini E, Pouyanfar H, Dummer PM. The micro-shear bond strength of various resinous restorative materials to aged biodentine. Iran Endod J, 2018;13:356. google scholar
Deepa VL, Dhamaraju B, Bollu IP, Balaji TS. Shear bond strength evaluation of resin composite bonded to three different liners: TheraCal LC, Biodentine, and resin-modified glass ionomer cement using universal adhesive: An in vitro study. J Conserv Dent, 2016;19:166. google scholar
Elmergawy FH, Elborady OM, Wahied D (January 1, 2025) In vitro evaluation of shear bond strength of polymethyl methacrylate/montmorillonite modified Biodentine with dental resin composite. European Oral Research 59 1 19–26.