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標題: 大氣電漿改質聚胺酯表面應用於人工小血管材料之研究
The application of air plasma treatment on polyurethane cardiovascular biomaterials
作者: 林宏道
Lin, Hung-Dau
關鍵字: plasma treatment;電漿改質;polyurethane;CBD-RGD;chitosan;聚胺酯;CBD-RGD;幾丁聚醣
出版社: 化學工程學系所
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本研究分兩部份探討,第一部分為使用大氣電漿對聚胺酯(polyurethane, PU) 表面進行改質,並觀察對牛頸動脈內皮細胞 (bovine carotid artery endothelial cells; BAECs) 生長及貼附的影響,應用於人工小血管之探討。經大氣電漿處理的樣品分為兩類,第一類為單純以大氣電漿處理,第二類為經大氣電漿處理再接枝CBD-RGD。實驗結果發現聚胺酯表面經大氣電漿處理後,表面粗糙度從0.466 nm增加為12.73 nm,且接觸角從95.3度下降為36.0度,這些改變使得牛頸動脈內皮細胞貼附及生長較未電漿改質者佳。利用接觸角測量、原子力顯微鏡與化學分析電子光譜儀結果分析,可證明CBD-RGD已接枝於聚胺酯表面。而細胞測試結果亦顯示,表面接枝CBD-RGD之基材,其細胞貼附與生長均較未改質者為佳。在血液相容性測試結果,接枝CBD-RGD能抗凝血,也降低發炎反應。另一部份為電漿接枝不同分子量的幾丁聚醣,並探討接枝幾丁聚醣分子量大小對血小板活化的影響,由實驗發現,將幾丁聚醣利用酸降解法降解七天後,接枝於聚胺酯表面,能抗凝血,也能降低發炎反應,在細胞相容性部分,也比接枝未降解之幾丁聚醣佳。

This study includes two different modifications of polyurethane (PU). In the first part, PU films were modified by air plasma, and an RGD-containing peptide, CBD-RGD, to enhance the attachment and adhesion of bovine carotid artery endothelial cells (BAECs). Such modification was expected to change the surface properties and improve the cell adhesion of PU substrate. Two procedures were used : (1) PU treated by air plasma only; and (2) PU treated by air plasma and grafted with CBD-RGD afterwards. The untreated PU film was smooth (RMS = 0.466 nm) and highly hydrophobic (contact angle θ = 95.6 o). Air plasma treatment resulted in oxidation of the surface, a slight increase in roughness (RMS = 12.73 nm) and a significant drop in hydrophilicity (contact angle θ = 36.0 o). These changes resulted in enhanced BAEC growth on polyurethane compared to the untreated sample. The CBD-RGD grafted surface also showed better cellular affinity in the cell culture test. In the second part, PU was grafted with chitosan of different molecular weights and the effect on platelet activation was investigated. It was found that the PU grafted with smaller chitosan reduced platelet activation and monocyte inflammation. The cell periferation was also better than that on the PU graft with larger chitosan.
其他識別: U0005-1207200714171200
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