P4MCL/PLLA嵌段共聚物在医用塑料中替代PVC的研究

Tyler J Gathman, J. Schoephoerster, R. Vasdev, Stephanie Liffland, Derek C. Batiste
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引用次数: 0

摘要

脂肪族聚酯是PVC的潜在可持续替代品,可用于医疗设备,如静脉输液袋。我们的候选pvc基IV袋替代品使用P4MCL,一种可持续聚合物,在机械坚固的材料中得到了证明。我们项目的目标是比较P4MCL/PLLA星形嵌段共聚物TPEs与商用pvc基IV袋的机械和生物相容性特性。P4MCL/PLLA TPEs根据先前报道的方法合成。在高压灭菌前后分别进行了单轴拉伸试验。根据ASTM标准对非蒸压试样进行抗冲击和抗撕裂试验。使用NIH 3T3成纤维细胞用AlamarBlue检测细胞毒性。比较结果采用学生t检验,P < 0.05有统计学意义。PVC趋于刚性,而P4MCL/PLLA具有更强的可扩展性。高压灭菌后,p4mcl基材料的拉伸性能没有变化。与pvc基IV袋相比,P4MCL/PLLA TPE表现出更低的峰值力和平均力,但断裂伸长率和总吸收能量更高(P<0.05)。与使用DEHP增塑剂的pvc基材料不同,P4MCL/PLLA没有细胞毒性。总之,与PVC相比,P4MCL/PLLA具有理想的机械和生物相容性优势,使该材料成为医疗级塑料的潜在可持续替代品。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Evaluation of Sustainable P4MCL/PLLA Block Copolymers as PVC Replacement in Medical Plastics
Aliphatic polyesters are potential sustainable alternatives to PVC for use in medical devices, such as IV bags. Our candidate replacement of PVC-based IV bags use P4MCL, a sustainable polymer with demonstrated uses in mechanically robust materials. The goal of our project was to compare the mechanical and biocompatibility characteristics of P4MCL/PLLA star block copolymer TPEs with commercial PVC-based IV bags. P4MCL/PLLA TPEs were synthesized according to previously reported methods. Uniaxial tensile testing was conducted pre- and post-autoclave. Impact and tear resistance testing was performed on non-autoclaved specimens according to ASTM standards. Cytotoxicity was examined using NIH 3T3 Fibroblasts with an AlamarBlue assay. A student’s t-test was used to compare results with statistical significance of P < 0.05. PVC tended to be stiffer but P4MCL/PLLA was more extensible. The tensile properties for the P4MCL-based material did not change after autoclaving. When compared to PVC-based IV bags, the P4MCL/PLLA TPE demonstrated a lower peak force and average force but a greater elongation at break and total absorbed energy (P<0.05). P4MCL/PLLA, unlike PVC-based materials with DEHP plasticizer, was non-cytotoxic. In summary, P4MCL/PLLA has desirable mechanical and biocompatibility advantages compared to PVC making the material a potential sustainable alternative for medical grade plastics.
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