Multi-functional dual-layer nanofibrous membrane for prevention of postoperative pancreatic leakage
- Abstract
- Postoperative pancreatic leakage due to pancreatitis in patients is a life-threatening surgical complication. The majority of commercial barriers are unable to meet the demands for pancreatic leakage due to poor adhesiveness, toxicity, and inability to degrade. In this study, we fabricated mitomycin-c and thrombin-loaded multifunctional dual-layer nanofibrous membrane with a combination of alginate, PCL, and gelatin to resolve the leakage due to suture line disruption, promote hemostasis, wound healing, and prevent postoperative tissue adhesion. Electrospinning was used to fabricate the dual-layer system. The study results demonstrated that high gelatin and alginate content in the inner layer decreased the fiber diameter and water contact angle, and crosslinking allowed the membrane to be more hydrophilic, making it highly biodegradable, and adhering firmly to the tissue surfaces. The results of in vitro biocompatibility and hemostatic assay revealed that the dual-layer had a higher cell proliferation and showed effective hemostatic properties. Moreover, the in vivo studies and in silico molecular simulation indicated that the dual layer was covered at the wound site, prevented suture disruption and leakage, inhibited hemorrhage, and reduced postoperative tissue adhesion. Finally, the study results proved that dual-layer multifunctional nanofibrous membrane has a promising therapeutic potential in preventing postoperative pancreatic leakage.
- All Author(s)
- Prayas Chakma Shanto
; Md Abdullah Al Fahad
; Hae Il Jung
; Myeongki Park
; Hyeyoung Kim
; Sang Ho Bae
; Byong-Taek Lee
- Intsitutional Author(s)
- 정해일; 김혜영; 배상호
- Issued Date
- 2024
- Type
- Article
- Keyword
- Alginate-gelatin-thrombin; Electrospun dual membrane; Molecular simulations; PCL-Gelatin-mitomycin-c; Pancreatic leakage
- Publisher
- Biological Engineering Society
- ISSN
- 0142-9612
; 1878-5905
- Citation Title
- Biomaterials
- Citation Volume
- 307
- Citation Start Page
- 122508
- Citation End Page
- 122508
- Language(ISO)
- eng
- DOI
- 10.1016/j.biomaterials.2024.122508
- URI
- http://schca-ir.schmc.ac.kr/handle/2022.oak/3497
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