Abstract
Dental caries poses significant therapeutic challenges due to resilient biofilms and uncontrolled demineralization. To address these challenges, by leveraging the broad antimicrobial activity and strong phosphate-binding capability of arginine peptides, we developed dental adhesive nanonets to effectively capture and kill S. mutans strain for caries management. FmocFFRRR was selected from a two-round structural screening, and was co-assembled with sodium monofluorophosphate (MFP) to construct multifunctional nanonets (F@MFP). Specifically, F@MFP nanonets adhere robustly to tooth enamel, capture S. mutans via electrostatic interactions, and kill S. mutans by disrupting bacterial membrane integrity, inducing oxidative stress, and suppressing metabolic activities. F@MFP nanonets not only inhibit biofilm formation but also effectively dismantle mature biofilms by downregulating biofilm-associated virulence genes. Furthermore, F@MFP nanonets also serve as a fluoride reservoir to inhibit demineralization and promote enamel remineralization. In vivo experiments reveal that F@MFP exhibits superior caries-inhibiting efficacy. This multifunctional platform integrates dental adhesion, a capture-and-kill antibacterial mechanism, anti-biofilm properties, and enamel repair capacity, offering a novel paradigm for targeted caries therapy.
| Original language | English |
|---|---|
| Article number | e03597 |
| Journal | Advanced Healthcare Materials |
| Volume | 15 |
| Issue number | 14 |
| DOIs | |
| State | Published - 10 Apr 2026 |
Keywords
- biofilm
- dental caries
- molecular assembly
- peptide nanonets
- remineralization
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