Resin infiltration is a conservative treatment of initial enamel carious lesions. Only one infiltrant material is available on the market (Icon, DMG), and research is now investigating new chemical compositions so as to further exploit the benefits of the resin infiltration technique. A literature search of the articles testing the effects of different formulations on mechanical properties, resin penetration ability, remineralizing, and antibacterial activities was conducted. Of 238 articles, 29 resulted in being eligible for the literature review. The formulations investigated were all different and consisted in the inclusion of hydrophobic monomers (i.e., BisEMA, UDMA), solvents (ethanol, HEMA), alternative etchants (PAM) or molecules with antibacterial or bioactivity features (i.e., AgNP, YbF3, MTZ, chitosan, DMAMM, HAp, MC-IL, NACP, PUA, CHX) and microfilled resins. Information on the long-term performances of the tested experimental materials were scarce. The combination of TEGDMA with hydrophobic monomers and the inclusion of a solvent alternative to ethanol reinforced mechanical properties of the materials. Hybrid-glass materials demonstrated an enhanced remineralization capacity. Techniques such as tunnelization increased the penetration depth and preserved the recourse to less-conservative treatments. Combining the min-invasive infiltrant approach with remineralizing and bacteriostatic properties would be beneficial for therapeutic and economical aspects, according to the principles of minimally invasive dentistry.

An Insight into Enamel Resin Infiltrants with Experimental Compositions / Mazzitelli, Claudia; Josic, Uros; Maravic, Tatjana; Mancuso, Edoardo; Goracci, Cecilia; Cadenaro, Milena; Mazzoni, Annalisa; Breschi, Lorenzo. - In: POLYMERS. - ISSN 2073-4360. - ELETTRONICO. - 14:24(2022), pp. 5553.1-5553.17. [10.3390/polym14245553]

An Insight into Enamel Resin Infiltrants with Experimental Compositions

Mazzitelli, Claudia;Josic, Uros;Maravic, Tatjana
;
Mancuso, Edoardo;Mazzoni, Annalisa;Breschi, Lorenzo
2022

Abstract

Resin infiltration is a conservative treatment of initial enamel carious lesions. Only one infiltrant material is available on the market (Icon, DMG), and research is now investigating new chemical compositions so as to further exploit the benefits of the resin infiltration technique. A literature search of the articles testing the effects of different formulations on mechanical properties, resin penetration ability, remineralizing, and antibacterial activities was conducted. Of 238 articles, 29 resulted in being eligible for the literature review. The formulations investigated were all different and consisted in the inclusion of hydrophobic monomers (i.e., BisEMA, UDMA), solvents (ethanol, HEMA), alternative etchants (PAM) or molecules with antibacterial or bioactivity features (i.e., AgNP, YbF3, MTZ, chitosan, DMAMM, HAp, MC-IL, NACP, PUA, CHX) and microfilled resins. Information on the long-term performances of the tested experimental materials were scarce. The combination of TEGDMA with hydrophobic monomers and the inclusion of a solvent alternative to ethanol reinforced mechanical properties of the materials. Hybrid-glass materials demonstrated an enhanced remineralization capacity. Techniques such as tunnelization increased the penetration depth and preserved the recourse to less-conservative treatments. Combining the min-invasive infiltrant approach with remineralizing and bacteriostatic properties would be beneficial for therapeutic and economical aspects, according to the principles of minimally invasive dentistry.
2022
An Insight into Enamel Resin Infiltrants with Experimental Compositions / Mazzitelli, Claudia; Josic, Uros; Maravic, Tatjana; Mancuso, Edoardo; Goracci, Cecilia; Cadenaro, Milena; Mazzoni, Annalisa; Breschi, Lorenzo. - In: POLYMERS. - ISSN 2073-4360. - ELETTRONICO. - 14:24(2022), pp. 5553.1-5553.17. [10.3390/polym14245553]
Mazzitelli, Claudia; Josic, Uros; Maravic, Tatjana; Mancuso, Edoardo; Goracci, Cecilia; Cadenaro, Milena; Mazzoni, Annalisa; Breschi, Lorenzo
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Utilizza questo identificativo per citare o creare un link a questo documento: https://hdl.handle.net/11585/913525
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