Design , Development and Characterization of Asiaticoside loaded nanofibers.
DOI:
https://doi.org/10.63682/jns.v14i14S.9749Keywords:
Asiaticoside, centrifugal spinning, nanofibers, PVA, wound healing, modified release, entrapment efficiencyAbstract
Asiaticoside, a triterpenoid derived from Centella asiatica, has significant antibacterial, collagen-stimulating, and wound-healing effects, its low skin penetration and poor solubility restrict its clinical use. This study used centrifugal spinning to create and assess Asiaticoside-loaded nanofibers as a modified-release wound dressing. Using a cotton-candy-style spinneret (2000–2400 rpm), polyvinyl alcohol (8–12% w/w) was mixed with secondary polymers (sodium alginate or chitosan) and propylene glycol to create nanofibers. TLC, UV, FTIR, and DSC were used to screen nine formulations (F1–F9) for morphology, thickness and weight homogeneity, entrapment efficiency, and physicochemical compatibility. The improved formulation (NF5) showed high drug entrapment (≈89%), sustained release (>85% over 24 h), and smooth, bead-free fibers with diameters of 217–558 nm. Stability tests validated the preservation of physicochemical characteristics over 90 days, and antimicrobial testing against Staphylococcus aureus showed higher effectiveness compared to similar medication gel. These findings suggest that centrifugal-spun Asiaticoside nanofibers are a viable approach for enhanced wound healing applications and provide a feasible, solvent-effective platform for localized, controlled drug administration, improving therapeutic efficacy and antibacterial activity
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