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Hydroxy acids for adhesion to enamel and dentin: Long-term bonding performance and effect on dentin biostability

To test the demineralization potential, bonding performance, and dentin biostability when using hydroxy acids for etching enamel and dentin. Surface microhardness, roughness and depth of demineralization were investigated after etching enamel and dentin with 35 % glycolic acid (Gly), tartaric acid (...

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Published in:Journal of dentistry 2021-04, Vol.107, p.103613-103613, Article 103613
Main Authors: Vidal, Cristina de Mattos Pimenta, LaRoy, Caroline, Chagas Toledo, Daniela, da Mata Almeida, Lais, Qian, Fang, Hilgert, Leandro Augusto, Bedran-Russo, Ana K.
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creator Vidal, Cristina de Mattos Pimenta
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description To test the demineralization potential, bonding performance, and dentin biostability when using hydroxy acids for etching enamel and dentin. Surface microhardness, roughness and depth of demineralization were investigated after etching enamel and dentin with 35 % glycolic acid (Gly), tartaric acid (Ta), gluconic acid (Glu), gluconolactone (Gln), or phosphoric acid (Pa) (n = 5/group). Dentin microtensile bond strength (μTBS) after 24 h or 1 year of bonding (n = 8 teeth/group) and enamel shear bond strength (SBS) after 24 h (n = 10 teeth/group) were obtained. In dentin, failure mode was classified as adhesive, cohesive in dentin/resin, or mixed. Dentin biostability was assessed by loss of dry weight and collagen degradation after 30-day incubation (n = 10 beams/group). Statistical analysis consisted of ANOVA with post-hoc Tukey’s HSD, Tukey-Kramer test, Bonferroni correction, and Fisher’s exact tests (α = 0.05). Gly showed better or similar results than Pa for enamel microhardness and dentin roughness, while no significant differences were observed among Ta, Glu, and Gln (p > .05). Hydroxy acids produced significantly shallower demineralization than Pa (p < .05). Gln resulted in the lowest SBS and μTBS, while Gly, Glu, Ta, and Pa showed no significant difference. There was no significant difference in μTBS between 24 h and 1 year of storage. The association between failure mode and etchant was statistically significant after 24 h only (p < .001). Hydroxy acids resulted in higher dentin biostability than Pa (p < .05). Gly, Glu and Ta resulted in adequate bonding performance and reduced dentin degradation and are potential alternative etchants to improve long-term stability of adhesive restorations. This study supports the potential use of hydroxy acids as alternative etchants when bonding to enamel and dentin and demonstrates that specific acids are more suitable to be used in adhesion since they result in appropriate bond strength and less dentin degradation.
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Surface microhardness, roughness and depth of demineralization were investigated after etching enamel and dentin with 35 % glycolic acid (Gly), tartaric acid (Ta), gluconic acid (Glu), gluconolactone (Gln), or phosphoric acid (Pa) (n = 5/group). Dentin microtensile bond strength (μTBS) after 24 h or 1 year of bonding (n = 8 teeth/group) and enamel shear bond strength (SBS) after 24 h (n = 10 teeth/group) were obtained. In dentin, failure mode was classified as adhesive, cohesive in dentin/resin, or mixed. Dentin biostability was assessed by loss of dry weight and collagen degradation after 30-day incubation (n = 10 beams/group). Statistical analysis consisted of ANOVA with post-hoc Tukey’s HSD, Tukey-Kramer test, Bonferroni correction, and Fisher’s exact tests (α = 0.05). Gly showed better or similar results than Pa for enamel microhardness and dentin roughness, while no significant differences were observed among Ta, Glu, and Gln (p &gt; .05). Hydroxy acids produced significantly shallower demineralization than Pa (p &lt; .05). Gln resulted in the lowest SBS and μTBS, while Gly, Glu, Ta, and Pa showed no significant difference. There was no significant difference in μTBS between 24 h and 1 year of storage. The association between failure mode and etchant was statistically significant after 24 h only (p &lt; .001). Hydroxy acids resulted in higher dentin biostability than Pa (p &lt; .05). Gly, Glu and Ta resulted in adequate bonding performance and reduced dentin degradation and are potential alternative etchants to improve long-term stability of adhesive restorations. 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Surface microhardness, roughness and depth of demineralization were investigated after etching enamel and dentin with 35 % glycolic acid (Gly), tartaric acid (Ta), gluconic acid (Glu), gluconolactone (Gln), or phosphoric acid (Pa) (n = 5/group). Dentin microtensile bond strength (μTBS) after 24 h or 1 year of bonding (n = 8 teeth/group) and enamel shear bond strength (SBS) after 24 h (n = 10 teeth/group) were obtained. In dentin, failure mode was classified as adhesive, cohesive in dentin/resin, or mixed. Dentin biostability was assessed by loss of dry weight and collagen degradation after 30-day incubation (n = 10 beams/group). Statistical analysis consisted of ANOVA with post-hoc Tukey’s HSD, Tukey-Kramer test, Bonferroni correction, and Fisher’s exact tests (α = 0.05). Gly showed better or similar results than Pa for enamel microhardness and dentin roughness, while no significant differences were observed among Ta, Glu, and Gln (p &gt; .05). Hydroxy acids produced significantly shallower demineralization than Pa (p &lt; .05). Gln resulted in the lowest SBS and μTBS, while Gly, Glu, Ta, and Pa showed no significant difference. There was no significant difference in μTBS between 24 h and 1 year of storage. The association between failure mode and etchant was statistically significant after 24 h only (p &lt; .001). Hydroxy acids resulted in higher dentin biostability than Pa (p &lt; .05). Gly, Glu and Ta resulted in adequate bonding performance and reduced dentin degradation and are potential alternative etchants to improve long-term stability of adhesive restorations. This study supports the potential use of hydroxy acids as alternative etchants when bonding to enamel and dentin and demonstrates that specific acids are more suitable to be used in adhesion since they result in appropriate bond strength and less dentin degradation.</abstract><cop>England</cop><pub>Elsevier Ltd</pub><pmid>33617943</pmid><doi>10.1016/j.jdent.2021.103613</doi><tpages>1</tpages><orcidid>https://orcid.org/0000-0003-4289-8317</orcidid><orcidid>https://orcid.org/0000-0003-2456-0996</orcidid><orcidid>https://orcid.org/0000-0003-4345-8487</orcidid></addata></record>
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ispartof Journal of dentistry, 2021-04, Vol.107, p.103613-103613, Article 103613
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subjects Acids
Adhesion
Adhesives
Biocompatibility
Bond strength
Bonding strength
Collagen
Degradation
Demineralization
Demineralizing
Dental Bonding
Dental Enamel
Dentin
Dentin-Bonding Agents
Dentistry
Enamel
Etchants
Etching
Failure modes
Gluconic acid
Gluconolactone
Glycolic acid
Hydroxy Acids
Materials Testing
Microhardness
Phosphoric acid
Resin Cements
Roughness
Shear Strength
Silicon carbide
Statistical analysis
Surface roughness
Tartaric acid
Teeth
Tensile Strength
title Hydroxy acids for adhesion to enamel and dentin: Long-term bonding performance and effect on dentin biostability
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