Title of article :
Core–shell alum‑borneol fiber for high bioavailability
Author/Authors :
Lv ، Yarong Beijing Key Laboratory of Advanced Functional Polymer Composites - College of Material Science and Engineering - Beijing University of Chemical Technology , Han ، Yufen Beijing Key Laboratory of Advanced Functional Polymer Composites - College of Material Science and Engineering - Beijing University of Chemical Technology , Yu ، Zhongxun Beijing Key Laboratory of Advanced Functional Polymer Composites - College of Material Science and Engineering - Beijing University of Chemical Technology , Chen ، Jia Beijing Key Laboratory of Advanced Functional Polymer Composites - College of Material Science and Engineering - Beijing University of Chemical Technology , Li ، Chenxi Beijing Key Laboratory of Advanced Functional Polymer Composites - College of Material Science and Engineering - Beijing University of Chemical Technology , Wang ، Ce Alan G. MacDiarmid Institute - Jilin University , Hu ، Ping Department of Chemical Engineering - Tsinghua University , Liu ، Yong Beijing Key Laboratory of Advanced Functional Polymer Composites - College of Material Science and Engineering - Beijing University of Chemical Technology
From page :
253
To page :
261
Abstract :
Currently, the treatment of burns poses a significant challenge to clinical surgical. The use of nanofibers combined with drugs provides an entirely new option for treating burns. Alum-borneol combination has been shown as a promising alter- native in clinical burn treatment. However, the utilization of the alum-borneol combination is not optimistic due to the low solubility of borneol. In this study, alum-borneol incorporated polyvinyl pyrrolidone fibers with a core–shell structure were fabricated through coaxial electrospinning. In vitro Borneol release behavior of fibers with different ratios of alum to borneol was explored. Scanning electron microscopy, transmission electron microscope, Fourier transform infrared spectroscopy, X-ray diffraction, differential scanning calorimeter, in vitro drug release, and in vitro release mechanism were evaluated. The results showed that the fiber membranes maintained an integrated morphology. In vitro dissolution data showed an improved solubility of borneol, which reached more than 82% at 240 min in alum-borneol fibers. It was 4.8 times higher than borneol powder, and the ratio of alum to borneol was 2:1 for the best results. Therefore, alum-borneol incorporated polyvinyl pyrrolidone fibers can significantly improve the dissolution rate of borneol, which opens up a new way for the combined application of the alum and borneol.
Keywords :
Alum , borneol , Coaxial electrospinning , Bioavailability , Combined application
Journal title :
Progress in Biomaterials
Journal title :
Progress in Biomaterials
Record number :
2754822
Link To Document :
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