等离子体处理玻璃钢的表面静电性能

J. K. Park, Claire Gu, B. Lee
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引用次数: 0

摘要

本研究通过测量化学和电学变化对表面降解机理进行对比分析,以解释等离子体相互作用和降解过程导致的FRP(纤维增强聚合物)表面降解。经过等离子体处理的大分子表面的化学和电学分析表明,亲水表面是由含有-COO基团的自由基的产生引起的,其表面的静态平衡被迅速破坏而变为正极。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Surface static properties of plasma treated FRP
This study on comparative analysis of the surface degradation mechanism through measurement of chemical and electrical changes was conducted to explain the surface degradation of FRP (fiber reinforced polymer) resulting from a plasma interaction and degradation process. Chemical and electrical analysis of a macromolecular surface subjected to plasma treatment shows that a hydrophilic surface is caused by the generation of radicals containing the -COO group, on the surface of which the static balance is destroyed rapidly to become positive.
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