Evaluation of the early effects of peptide-containing agents in sensitivity treatment regarding their structural, morphological, and elemental changes in dentin tissue and their penetration efficacy
DOI:
https://doi.org/10.1590/1678-7765-2026-0127Keywords:
Dentin hypersensitivity, Biofunctional materials, Self-assembling peptides, SPRGAbstract
Purpose This study aimed to evaluate the effects of various therapeutic agents on dentin tissue in the management of dentin hypersensitivity. Methodology Overall, 30 caries-free human third molars were sectioned into dentin specimens (n=120) and randomly assigned to control or treatment groups (Curodont™ D’Senz, PRG Barrier Coat, and Curodont™ Repair). After 24 h of artificial saliva storage, dentin microhardness, surface morphology, open dentin tubule count, elemental composition, and penetration depth were evaluated using Vickers microhardness testing, SEM/EDS, and CLSM. Statistical analyses were conducted with a 0.05 significance level. Results The microhardness measurements showed a statistically significant increase in all groups in comparison with the control group (p<0.05), with no significant differences between the treated groups (p>0.05). EDS analysis showed statistically significant differences between the groups, with the highest calcium and phosphorus levels observed in the PRG Barrier Coat group (p<0.05). SEM analysis showed that the PRG Barrier Coat treatment resulted in the most extensive tubule occlusion and the smallest open tubule diameters (p<0.05). Curodont™ D'Senz and PRG Barrier Coat showed the most significant tubule penetration depths and the highest laser fluorescence values, as per CLSM analyses (p<0.001). Conclusion The findings suggested that the tested materials may occlude dentinal tubules and penetrate dentin to varying extents, with PRG Barrier Coat showing the most pronounced effect. Self-assembling peptide-based agents show limited short-term efficacy but offer potential for biomimetic remineralization.
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