Poster Session 1.F - Pharmaceutical Sciences and Health Technologies
Dr. Nochta-Kazsoki, Adrienn
R5CDJV
University Pharmacy Department of Pharmacy Administration, Semmelweis Univeristy, Budapest, Hungary
06302060093
kazsoki.adrienn@semmelweis.hu
Modified PVA-Based Nanofibrous Systems as Dual-Functional Wound Dressings for Controlled Drug Delivery in Burn Injury Management
Dr. Adrienn Nochta-Kazsoki1, Dorka Simon1, Romána Zelkó1
1: University Pharmacy Department of Pharmacy Administration, Semmelweis Univeristy, Budapest, Hungary
Poszter
Poster Session 1.F - Pharmaceutical Sciences and Health Technologies
Hungarian
Pharmaceutical Sciences and Health Technologies
Introduction: Burn wound management remains a major clinical challenge, particularly when rapid regeneration and scar-free healing are desired. Prolonged inflammation and infection impair healing and increase the risk of pathological scar formation, including hypertrophic scarring and keloid formation.
Aims: This study aimed to develop a nanofiber-based wound dressing system combining arginine and chlorhexidine to support different phases of burn wound healing.
Methods: Nanofibrous mats were produced by electrospinning using poly(vinyl alcohol) (PVA)-based systems, including TEOS-modified PVA and PVA–chitosan blends. Precursor composition and process parameters were optimized. Morphology was characterized by scanning electron microscopy, while physicochemical properties were analyzed using FTIR and X-ray diffraction. In vitro drug release profiles were evaluated.
Results: The developed nanofibrous systems exhibited uniform, bead-free morphology with appropriate fiber diameter distribution. FTIR analysis confirmed the successful incorporation of the active agents and suggested intermolecular interactions within the modified PVA-based matrices. X-ray diffraction patterns indicated the formation of an amorphous solid dispersion. In vitro release studies demonstrated controlled release behavior, supporting the suitability of the system for sustained drug delivery.
Conclusion: Modified PVA-based nanofibrous systems incorporating arginine and chlorhexidine represent a promising approach for supporting burn wound healing by providing controlled drug delivery and a favorable wound environment.
Funding: This project is supported by the 202-2.1.1.-EKÖP-2025-00014 University Research Scholarship Programme of the Ministry for Culture and Innovation, funded by the National Research, Development and Innovation Fund.
Semmelweis University
Romána Zelkó
I do not give consent to the publication of my abstract on the website of the congress.
after finishing doctoral studies with absolutorium (PhD)
Szabad
elfogadva
poszter
nem rendelkezett róla
8016
17:12
17:15