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May 6, 2026Open Life Sciences0 citationsOpen Access

Functionalized chitosan–graphene magnetic nanocomposites enhance collagen synthesis in scleral fibroblasts

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XHXiaojie HuangWenzhou Vocational College of Science and TechnologyZWZijian WangWenzhou Medical UniversityMZMin ZhangWenzhou Vocational College of Science and Technology

Key Points

  • The primary aim is to investigate the effect of magnetic stimulation on scleral fibroblast proliferation and collagen synthesis using MNP/G nanocomposites.
  • Synthesized magnetic/graphene composites via covalent co-precipitation.
  • Co-cultured human scleral fibroblasts with 30 μg/mL MNP/G while applying static magnetic stimulation at 20 mT.
  • Assessed cell proliferation through CCK-8 assay and quantified collagen synthesis via hydroxyproline content measurement.
  • Magnetic stimulation significantly increased HFSF proliferation compared to controls, with improved cell morphology.
  • Measured collagen synthesis was markedly higher following magnetic stimulation and the combined application of MNP/G nanomaterials.
  • This strategy shows potential for strengthening scleral biomechanical properties and counteracting myopia progression.

Abstract

To investigate the effects of magnetic stimulation mediated by magnetic/graphene (MNP/G) composite nanomaterials on human scleral fibroblast (HFSF) proliferation and collagen synthesis, exploring its potential for myopia prevention. MNP/G nanomaterials were synthesized via covalent co-precipitation and introduced into HFSF cultures. Cells were co-cultured with 30 μg/mL MNP/G and exposed to static magnetic stimulation (20 mT intensity). Proliferation was assessed via CCK-8 assay, morphology was observed using inverted phase-contrast microscopy, and hydroxyproline content was measured to quantify collagen synthesis. Magnetic stimulation significantly enhanced HFSF proliferation compared to non-stimulated controls, with no observed cytotoxicity. Microscopic analysis revealed improved cell density and spindle-like morphology in stimulated groups. Hydroxyproline assays demonstrated a marked increase in collagen synthesis following magnetic stimulation, suggesting enhanced extracellular matrix production. Notably, the combined application of MNP/G nanomaterials and magnetic stimulation yielded the highest collagen content among all experimental conditions. Magnetic stimulation using MNP/G nanomaterials promotes HFSF proliferation and collagen production, potentially strengthening scleral biomechanical properties. This approach may counteract scleral remodeling in myopia progression, offering a novel strategy for non-invasive myopia intervention.

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Cite This Study

Huang et al. (2026) studied this question.

synapsesocial.com/papers/69fada7f03f892aec9b1e47dhttps://doi.org/10.1515/biol-2025-1316
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