Modification of Membrane Based on Gamma-Ray Irradiation Method: Preparation of PVDF-g-PMAM Membrane and Its Anti-Fouling Performance

IF 0.9 4区 化学 Q4 CHEMISTRY, PHYSICAL High Energy Chemistry Pub Date : 2024-05-13 DOI:10.1134/s0018143924700048
Kai Fan, Jinshen Lei, Chuanyang Gao, Junwei Zhou, Yugang Yuan, Xiaoying Liu
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Abstract

Polyvinylidene fluoride (PVDF) membranes were created utilizing the non-solvent-induced phase separation (NIPS) approach in this study, then gamma-ray irradiation was applied to form the PVDF-g-PMAM membrane. FTIR and XPS were used to examine the chemical structure of the membrane before and after irradiation. The DSC curves of membranes showed that grafting poly methylacrylamide (PMAM) caused a drop in the melting point of the modified PVDF-g-PMAM membrane. The SEM characterization showed that gamma-ray irradiation did not damage the microstructure of the membrane cross-section, and the distribution of micropores on the membrane surface was more dense and uniform. The insertion of hydrophilic PMAM greatly accelerates the initial contact angle and contact angle decline rate of the PVDF-g-PMAM membrane, illustrating that the membrane’s hydrophilicity has been effectively improved. Finally, after testing of permeability and rejection of different membranes, the result demonstrated good anti-fouling performance.

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基于伽马射线辐照法的膜改性:PVDF-g-PMAM 膜的制备及其防污性能
摘要 本研究采用非溶剂诱导相分离(NIPS)方法制备了聚偏二氟乙烯(PVDF)膜,然后用伽马射线辐照形成了PVDF-g-PMAM膜。傅立叶变换红外光谱和 XPS 被用来检测辐照前后膜的化学结构。膜的 DSC 曲线显示,接枝聚甲基丙烯酰胺(PMAM)导致改性 PVDF-g-PMAM 膜的熔点下降。扫描电镜表征表明,伽马射线辐照没有破坏膜横截面的微观结构,膜表面的微孔分布更加致密均匀。亲水性 PMAM 的加入大大加快了 PVDF-g-PMAM 膜的初始接触角和接触角下降速度,说明膜的亲水性得到了有效改善。最后,经过对不同膜的渗透性和排斥性的测试,结果表明该膜具有良好的防污性能。
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来源期刊
High Energy Chemistry
High Energy Chemistry 化学-物理化学
CiteScore
1.50
自引率
28.60%
发文量
62
审稿时长
6-12 weeks
期刊介绍: High Energy Chemistry publishes original articles, reviews, and short communications on molecular and supramolecular photochemistry, photobiology, radiation chemistry, plasma chemistry, chemistry of nanosized systems, chemistry of new atoms, processes and materials for optical information systems and other areas of high energy chemistry. It publishes theoretical and experimental studies in all areas of high energy chemistry, such as the interaction of high-energy particles with matter, the nature and reactivity of short-lived species induced by the action of particle and electromagnetic radiation or hot atoms on substances in their gaseous and condensed states, and chemical processes initiated in organic and inorganic systems by high-energy radiation.
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