Phenolic extract of Libidibia ferrea inhibits dentin endogenous enzymatic activity depending on the adhesive system strategy

This study evaluated the influence of Libidibia ferrea (Lf) extract used as dentin pretreatment on the resin–dentin bond strength stability and dentin endogenous enzymatic activity. The phytochemical profile (PP) of the Lf extract was evaluated by liquid chromatography; particle size, polydispersity...

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Veröffentlicht in:Microscopy research and technique 2022-01, Vol.85 (1), p.270-282
Hauptverfasser: Venâncio, Gisely Naura, Bridi, Enrico Coser, Teixeira, Lucas Novaes, Basting, Rosanna Tarkany, Sousa, Ilza Maria de Oliveira, França, Fabiana Mantovani Gomes, Amaral, Flávia Lucisano Botelho, Turssi, Cecilia Pedroso, Basting, Roberta Tarkany
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container_title Microscopy research and technique
container_volume 85
creator Venâncio, Gisely Naura
Bridi, Enrico Coser
Teixeira, Lucas Novaes
Basting, Rosanna Tarkany
Sousa, Ilza Maria de Oliveira
França, Fabiana Mantovani Gomes
Amaral, Flávia Lucisano Botelho
Turssi, Cecilia Pedroso
Basting, Roberta Tarkany
description This study evaluated the influence of Libidibia ferrea (Lf) extract used as dentin pretreatment on the resin–dentin bond strength stability and dentin endogenous enzymatic activity. The phytochemical profile (PP) of the Lf extract was evaluated by liquid chromatography; particle size, polydispersity index (PdI), and zeta potential (ZP) were evaluated by dynamic light scattering. The tested groups were ER—Scotchbond Universal (SBU) in the etch‐and‐rinse (ER) mode; ERLf—SBU in the ER mode + Lf after etching; SE— SBU in the self‐etch (SE) mode; and LfSE—Lf before SBU in the SE mode. Sticks were obtained for microtensile bond strength tests and failure mode (24 hr and 12 months). The hybrid layer was evaluated using scanning electron microscopy. The endogenous enzymatic activity of the underlying dentin was analyzed by in situ zymography with the same treatments. The PP showed the presence of quercetin (2.6% w/w). Lf particles were considered large after the analysis of the PdI. The ZP remained stable over time. The ER and ERLf groups had lower bond strength after 12 months, but SE and LfSE remained stable. The predominant failure mode was adhesive for both times. ER and ERLf had longer resin tags and a thicker hybrid layer. The ER and LfSE groups showed higher enzymatic activity than the ERLf and SE groups after 12 months. The Lf extract may contribute to inhibit the dentin endogenous enzymatic activity when associated with an adhesive system in the ER mode. Research highlights Lf extract did not influence bond strength regardless of the adhesive system strategy. Lf extract can inhibit the endogenous enzymatic activity of dentin. Depending on the bonding strategy, Lf extract influenced the enzymatic activity of dentin.
doi_str_mv 10.1002/jemt.23902
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The phytochemical profile (PP) of the Lf extract was evaluated by liquid chromatography; particle size, polydispersity index (PdI), and zeta potential (ZP) were evaluated by dynamic light scattering. The tested groups were ER—Scotchbond Universal (SBU) in the etch‐and‐rinse (ER) mode; ERLf—SBU in the ER mode + Lf after etching; SE— SBU in the self‐etch (SE) mode; and LfSE—Lf before SBU in the SE mode. Sticks were obtained for microtensile bond strength tests and failure mode (24 hr and 12 months). The hybrid layer was evaluated using scanning electron microscopy. The endogenous enzymatic activity of the underlying dentin was analyzed by in situ zymography with the same treatments. The PP showed the presence of quercetin (2.6% w/w). Lf particles were considered large after the analysis of the PdI. The ZP remained stable over time. The ER and ERLf groups had lower bond strength after 12 months, but SE and LfSE remained stable. The predominant failure mode was adhesive for both times. ER and ERLf had longer resin tags and a thicker hybrid layer. The ER and LfSE groups showed higher enzymatic activity than the ERLf and SE groups after 12 months. The Lf extract may contribute to inhibit the dentin endogenous enzymatic activity when associated with an adhesive system in the ER mode. Research highlights Lf extract did not influence bond strength regardless of the adhesive system strategy. Lf extract can inhibit the endogenous enzymatic activity of dentin. 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The phytochemical profile (PP) of the Lf extract was evaluated by liquid chromatography; particle size, polydispersity index (PdI), and zeta potential (ZP) were evaluated by dynamic light scattering. The tested groups were ER—Scotchbond Universal (SBU) in the etch‐and‐rinse (ER) mode; ERLf—SBU in the ER mode + Lf after etching; SE— SBU in the self‐etch (SE) mode; and LfSE—Lf before SBU in the SE mode. Sticks were obtained for microtensile bond strength tests and failure mode (24 hr and 12 months). The hybrid layer was evaluated using scanning electron microscopy. The endogenous enzymatic activity of the underlying dentin was analyzed by in situ zymography with the same treatments. The PP showed the presence of quercetin (2.6% w/w). Lf particles were considered large after the analysis of the PdI. The ZP remained stable over time. The ER and ERLf groups had lower bond strength after 12 months, but SE and LfSE remained stable. The predominant failure mode was adhesive for both times. ER and ERLf had longer resin tags and a thicker hybrid layer. The ER and LfSE groups showed higher enzymatic activity than the ERLf and SE groups after 12 months. The Lf extract may contribute to inhibit the dentin endogenous enzymatic activity when associated with an adhesive system in the ER mode. Research highlights Lf extract did not influence bond strength regardless of the adhesive system strategy. Lf extract can inhibit the endogenous enzymatic activity of dentin. 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The phytochemical profile (PP) of the Lf extract was evaluated by liquid chromatography; particle size, polydispersity index (PdI), and zeta potential (ZP) were evaluated by dynamic light scattering. The tested groups were ER—Scotchbond Universal (SBU) in the etch‐and‐rinse (ER) mode; ERLf—SBU in the ER mode + Lf after etching; SE— SBU in the self‐etch (SE) mode; and LfSE—Lf before SBU in the SE mode. Sticks were obtained for microtensile bond strength tests and failure mode (24 hr and 12 months). The hybrid layer was evaluated using scanning electron microscopy. The endogenous enzymatic activity of the underlying dentin was analyzed by in situ zymography with the same treatments. The PP showed the presence of quercetin (2.6% w/w). Lf particles were considered large after the analysis of the PdI. The ZP remained stable over time. The ER and ERLf groups had lower bond strength after 12 months, but SE and LfSE remained stable. The predominant failure mode was adhesive for both times. ER and ERLf had longer resin tags and a thicker hybrid layer. The ER and LfSE groups showed higher enzymatic activity than the ERLf and SE groups after 12 months. The Lf extract may contribute to inhibit the dentin endogenous enzymatic activity when associated with an adhesive system in the ER mode. Research highlights Lf extract did not influence bond strength regardless of the adhesive system strategy. Lf extract can inhibit the endogenous enzymatic activity of dentin. 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subjects adhesive system
Adhesives
bonding
Bonding strength
Composite Resins
Dental Bonding
Dental Cements
Dentin
Dentin-Bonding Agents
Enzymatic activity
Etching
Failure modes
Libidibia ferrea
Light scattering
Liquid chromatography
Materials Testing
matrix metalloproteinases
Phenolic compounds
Phenols
Photon correlation spectroscopy
Plant Extracts - pharmacology
Polydispersity
Quercetin
Resin Cements
Resins
Scanning electron microscopy
Tensile Strength
Zeta potential
title Phenolic extract of Libidibia ferrea inhibits dentin endogenous enzymatic activity depending on the adhesive system strategy
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