Electrical properties analysis of nano-filled epoxy by space charge characterization

J. Castellon, S. Agnel, A. Toureille, M. Frechette, K. Cole, D. Desgagnes
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引用次数: 5

Abstract

Numerous studies have shown that the presence and/or development of electric charges within polymers affect their properties with a significant order. These charges, intrinsic or extrinsic, that are called space charges, have been first observed for polymers used for electrotechnical applications, thus, at high electric fields. In many other studies, it has been observed that space charges are present into the polymers, even if these polymers were not exposed to additional stresses other than those associated with their synthesis and making. Moreover, the increase of the space charges seems directly linked with the deterioration of the physical properties of these materials since charge trapping is mainly associated with structure defects. These defects may have several origins, namely fabrication, interfaces, and stresses applied to the material. In this work, electrical properties of epoxy microcomposites with and without nanoclay are investigated under different conditions: without initial stress, and with subsequent electrical and thermal stresses. Correlating space charge measurements obtained by the Thermal Step Method with results observed in thermally stimulated-current experiments, the nature of the observed electric charges and the influence of the nanostructures can be discussed. Results and their scattering for cases including samples with and without nanoclay point certainly at the importance of the quality of the fabrication process.
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利用空间电荷表征分析纳米填充环氧树脂的电性能
大量研究表明,聚合物中电荷的存在和/或发展以显著的顺序影响其性能。这些电荷,无论是内在的还是外在的,都被称为空间电荷,首次在用于电工应用的聚合物中被观察到,因此,在高电场下。在许多其他的研究中,已经观察到空间电荷存在于聚合物中,即使这些聚合物除了与它们的合成和制造有关的应力外,没有暴露在额外的应力下。此外,空间电荷的增加似乎与这些材料的物理性能的恶化直接相关,因为电荷捕获主要与结构缺陷有关。这些缺陷可能有几个原因,即制造、界面和施加在材料上的应力。在这项工作中,研究了添加和不添加纳米粘土的环氧微复合材料在不同条件下的电学性能:没有初始应力,以及随后的电和热应力。将热步进法得到的空间电荷测量结果与热激电流实验结果相结合,可以讨论观察到的电荷的性质以及纳米结构的影响。实验结果及其散射对含和不含纳米粘土样品的影响,说明了纳米粘土制备工艺质量的重要性。
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