Antibacterial and wound healing stimulant nanofibrous dressing consisting of soluplus and soy protein isolate loaded with mupirocin

• Published in: Scientific reports 2024-11, Vol.14 (1), p.26397-14, Article 26397
• Main Authors: Jahani, Maryam, Asefnejad, Azadeh, Al-Musawi, Mastafa H., Mohammed, Ahmed A., Al-Sudani, Basma Talib, Hameed Al-bahrani, Maha, Kadhim, Nada A., Shahriari-Khalaji, Mina, Valizadeh, Hamideh, Sharifianjazi, Fariborz, Mehrjoo, Morteza, Tavamaishvili, Ketevan, Tavakoli, Mohamadreza
• Format: Article
• Language: English
• Subjects: 631/1647; 631/1647/350/2093; Animals; Anti-Bacterial Agents - administration & dosage; Anti-Bacterial Agents - chemistry; Anti-Bacterial Agents - pharmacology; Bandages; Biocompatibility; Caprolactam - analogs & derivatives; Caprolactam - chemistry; Caprolactam - pharmacology; Degradability; E coli; Escherichia coli - drug effects; Health risks; Humanities and Social Sciences; Humans; Male; Mechanical properties; Microenvironments; multidisciplinary; Mupirocin; Mupirocin - administration & dosage; Mupirocin - chemistry; Mupirocin - pharmacology; Nanofiber; Nanofibers - chemistry; Polyethylene Glycols; Polyvinyls - chemistry; Polyvinyls - pharmacology; Porosity; Rats; Rats, Sprague-Dawley; Science; Science (multidisciplinary); Soluplus; Soy protein isolate; Soybean Proteins - chemistry; Soybean Proteins - pharmacology; Staphylococcus aureus - drug effects; Tensile Strength; Water vapor; Wound dressing; Wound healing; Wound Healing - drug effects; Wound infection
• ISSN: 2045-2322; 2045-2322
• DOI: 10.1038/s41598-024-78161-4

Severe cutaneous injuries may not heal spontaneously and may necessitate the use of supplementary therapeutic methods. Electrospun nanofibers possess high porosity and specific surface area, which provide the necessary microenvironment for wound healing. Here in, the nanofibers of Soluplus-soy protein isolate (Sol-SPI) containing mupirocin (Mp) were fabricated via electrospinning for wound treatment. The fabricated nanofibers exhibited water absorption capacities of about 300.83 ± 29.72% and water vapor permeability values of about 821.8 ± 49.12 g/m 2 day. The Sol/SPI/Mp nanofibers showed an in vitro degradability of 33.73 ± 3.55% after 5 days. The ultimate tensile strength, elastic modulus, and elongation of the Sol/SPI/Mp nanofibers were measured as 3.61 ± 0.29 MPa, 39.15 ± 5.08 MPa, and 59.11 ± 1.94%, respectively. Additionally, 85.90 ± 6.02% of Mp loaded in the nanofibers was released in 5 days in vitro, and by applying the Mp-loaded nanofibers, 93.06 ± 5.40% and 90.40 ± 5.66% of S. aureus and E. coli bacteria were killed, respectively. Human keratinocyte cells (HaCat) demonstrated notable biocompatibility with the prepared nanofibers. Furthermore, compare to other groups, Sol-SPI-Mp nanofibers caused the fastest re-epithelialization and wound healing in a rat model. The findings of this study present a novel nanofiber-based wound dressing that accelerates the healing of severe skin wounds with the risk of infection.