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April 10, 2026Advanced Science0 citationsOpen Access

Advanced Dental Composite Technology via Bisilanized Dual‐Action Nanofillers for Biofilm Control

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CYChenmin YaoWuhan UniversityLELine EtiennotKU LeuvenNZNaiera ZayedGhent University

Key Points

  • The aim is to develop durable resin-based composites with effective antibiofilm properties and mechanical strength.
  • Created bisilanized dual-action nanofillers using mesoporous silica nanoparticles and antibacterial agents.
  • Incorporated various weight percentages (0-20 wt%) of nanofillers into resin-based composites.
  • Evaluated antibiofilm activities against diverse oral bacteria and assessed mechanical performance.
  • The 20 wt% bisilanized nanofiller formulation displayed exceptional antibiofilm capabilities against 14 bacterial species.
  • Achieved mechanical performance with high flexural strength (> 80 MPa) and low water sorption (< 40 µg/mm³) over 3 months.
  • Demonstrated a dual antibacterial mechanism involving antibacterial agent release and bacterial metabolism disruption.

Abstract

Achieving durable tooth restorations in the complex oral environment demands resin-based composites (RBCs) with long-lasting antibiofilm properties, superior mechanical performance, and biosafety. This study introduces a duomodal strategy to create functional nanofillers for advanced RBC formulations. Mesoporous silica nanoparticles are loaded with the antibacterial agent cetylpyridinium chloride (CPC) and bisilanized using the antibacterial dimethyloctadecyl3- (trimethoxysilyl) propylammonium chloride (DTSACl) along with 3- (trimethoxysilyl) propyl methacrylate. The resulting bisilanized nanofillers, SCM, are incorporated into RBCs at various weight percentages (0-20 wt%). The 20 wt% SCM-RBC formulation showcases exceptional antibiofilm capabilities against 14 oral species, including cariogenic, periopathogenic, and commensal bacteria, leveraging a dual antibacterial mechanism: CPC release and anchored DTSACl action. Additionally, SCM nanofillers can disrupt bacterial fatty acid metabolism and ATP/nucleotide metabolism. Enhanced mechanical performance is achieved through superior filler-matrix coupling enabled by bisilanization. The formulation demonstrates low water sorption (- 3) over 3 months and high flexural strength (> 80 MPa). Antibiofilm activity and biosafety are further confirmed in an in vivo rat tooth-restoration model. This dual-antibacterial, bisilanized RBC offers promising clinical opportunities to durably restore teeth by effectively controlling biofilm, preventing caries recurrence, and reducing the risk of periodontal infections. The technology holds great potential for advancing restorative dentistry and promoting oral health.

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Cite This Study

Yao et al. (2026) studied this question.

synapsesocial.com/papers/69d894326c1944d70ce0521fhttps://doi.org/10.1002/advs.75146
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