普鲁兰
生物相容性
静电纺丝
接触角
脚手架
聚己内酯
材料科学
聚氨酯
肿胀 的
生物医学工程
纳米纤维
化学工程
化学
复合材料
聚合物
有机化学
多糖
冶金
工程类
医学
作者
Sonia Fathi‐karkan,Fatemeh Ghavidel-Kenarsari,Reza Maleki-baladi
标识
DOI:10.1177/03913988221125247
摘要
This project's primary purpose was to create engineered vascular scaffolds using polyurethane, polycaprolactone, and pullulan polymers, along with suitable mechanical-dynamic conditions. Therefore, electrospun scaffolds with optimized intrinsic physiological properties and the ability to support endothelial cells were prepared in vitro, and cell viability was studied in PCL-PU and PCL-PU scaffolds containing Pullulan.The electrospinning method has been used to prepare PCL-PU and PCL-PU scaffolds containing Pullulan. The scaffold's surface morphology was evaluated using SEM microscopic imaging. The scaffolds' physicochemical properties were prepared using ATR-FTIR, strain stress, and water contact angle tests, and the biocompatibility of PCL-PU and PU-PCL-Pl nanofibers was evaluated using the MTT test.The test results showed that PCL-PU scaffolds containing Pullulan have more suitable mechanical properties such as stress-strain, water contact angle, swelling rate, biocompatibility, fiber diameter, and pore size compared to PU-PCL. The culture of endothelial cells under static conditions on these scaffolds did not cause cytotoxic effects under static conditions compared to the control group. SEM images confirmed the ability of endothelial cells to attach to the scaffold surface.The results showed that PCL-PU substrate containing pullulan could stimulate endothelial cells' proliferation under static conditions.
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