A Study on Anti-Sticking of Protein after Atmospheric Pen-Like Plasma Surface Treatment of Silicone Graft Polymerization

碩士 === 龍華科技大學 === 化工與材料工程系碩士班 === 105 === Silicone is a chemically stable, resistant to high temperature and non-toxic materials. It always get much attention when it comes to the storage and transport of blood, drugs and other implantable medical devices. However the surface properties of polymer m...

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Main Authors: Chen, Yu-Ching, 陳幼晴
Other Authors: Weng, Wen-Pin
Format: Others
Language:zh-TW
Published: 2017
Online Access:http://ndltd.ncl.edu.tw/handle/48198848771924653710
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spelling ndltd-TW-105LHU000630042017-10-03T04:19:13Z http://ndltd.ncl.edu.tw/handle/48198848771924653710 A Study on Anti-Sticking of Protein after Atmospheric Pen-Like Plasma Surface Treatment of Silicone Graft Polymerization 常壓筆式電漿表面處理矽膠接枝聚合抗蛋白沾黏之研究 Chen, Yu-Ching 陳幼晴 碩士 龍華科技大學 化工與材料工程系碩士班 105 Silicone is a chemically stable, resistant to high temperature and non-toxic materials. It always get much attention when it comes to the storage and transport of blood, drugs and other implantable medical devices. However the surface properties of polymer materials and human structure are incompatible, its implantation to human body always lead to rejection, tissue infection, inflammation, and necrosis. In this study, we tried to modify the silicone surface and improve its hydrophilic properties and adhesion resistance of protein to get optimum process parameters. Two kinds of material, sulfobetaine methacrylate (SBMA) and polyethylene glycol (PEG), were used to proceed two kinds of graft polymerization: thermal polymerization and plasma polymerization. Improvements on hydrophilicity, resistance to protein adhesion on the surface of silicone and the medical applicability were discussed. Experimental result show that the hydrophilic angle of silicone can be reduced to as low as 7.7 ° after its surface modification under the conditions: 90 W of plasma power; 15 liters per minute of gas flow rate; and 15 seconds of surface treatment. Thermal polymerization is far better than plasma polymerization. The amount of protein sticking to the modified silicone can be largely reduced when we control the concentration of SBMA and PEG at 0.1M before graft polymerization.    Weng, Wen-Pin 翁文彬 2017 學位論文 ; thesis 67 zh-TW
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description 碩士 === 龍華科技大學 === 化工與材料工程系碩士班 === 105 === Silicone is a chemically stable, resistant to high temperature and non-toxic materials. It always get much attention when it comes to the storage and transport of blood, drugs and other implantable medical devices. However the surface properties of polymer materials and human structure are incompatible, its implantation to human body always lead to rejection, tissue infection, inflammation, and necrosis. In this study, we tried to modify the silicone surface and improve its hydrophilic properties and adhesion resistance of protein to get optimum process parameters. Two kinds of material, sulfobetaine methacrylate (SBMA) and polyethylene glycol (PEG), were used to proceed two kinds of graft polymerization: thermal polymerization and plasma polymerization. Improvements on hydrophilicity, resistance to protein adhesion on the surface of silicone and the medical applicability were discussed. Experimental result show that the hydrophilic angle of silicone can be reduced to as low as 7.7 ° after its surface modification under the conditions: 90 W of plasma power; 15 liters per minute of gas flow rate; and 15 seconds of surface treatment. Thermal polymerization is far better than plasma polymerization. The amount of protein sticking to the modified silicone can be largely reduced when we control the concentration of SBMA and PEG at 0.1M before graft polymerization.   
author2 Weng, Wen-Pin
author_facet Weng, Wen-Pin
Chen, Yu-Ching
陳幼晴
author Chen, Yu-Ching
陳幼晴
spellingShingle Chen, Yu-Ching
陳幼晴
A Study on Anti-Sticking of Protein after Atmospheric Pen-Like Plasma Surface Treatment of Silicone Graft Polymerization
author_sort Chen, Yu-Ching
title A Study on Anti-Sticking of Protein after Atmospheric Pen-Like Plasma Surface Treatment of Silicone Graft Polymerization
title_short A Study on Anti-Sticking of Protein after Atmospheric Pen-Like Plasma Surface Treatment of Silicone Graft Polymerization
title_full A Study on Anti-Sticking of Protein after Atmospheric Pen-Like Plasma Surface Treatment of Silicone Graft Polymerization
title_fullStr A Study on Anti-Sticking of Protein after Atmospheric Pen-Like Plasma Surface Treatment of Silicone Graft Polymerization
title_full_unstemmed A Study on Anti-Sticking of Protein after Atmospheric Pen-Like Plasma Surface Treatment of Silicone Graft Polymerization
title_sort study on anti-sticking of protein after atmospheric pen-like plasma surface treatment of silicone graft polymerization
publishDate 2017
url http://ndltd.ncl.edu.tw/handle/48198848771924653710
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