Influence of nano-titanium dioxide (TiO2) on electrical tree characteristics in silicone rubber based nanocomposite

M. Musa, Y. Arief, Z. Abdul-Malek, M. H. Ahmad, A. Jamil
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引用次数: 15

Abstract

Electrical tree is recognized as one of the pre-breakdown phenomena that occurs in high voltage insulation material. In addition, under high divergent field, the electrical tree grows rapidly and severely which may cause the breakdown of insulation to occur. In view of foregoing, nano-filler was added into the base insulating materials to enhance their properties against the growth of electrical tree. Thus in this study, nano-titanium dioxide was chosen as filler in order to improve the characteristics of silicone rubber which in turn inhibits the growth of electrical tree. The test samples were prepared in the form of leaf-like specimen. Nano-titanium dioxide was chosen as filler in order to improve the characteristics of silicone rubber. The number of partial discharge occurrence, partial discharge magnitude and breakdown time of the nanocomposites were investigated under different percentage of nano-titanium dioxide. The applied voltage and frequency were fixed at 10 kVrms AC and 50 Hz respectively. Treeing growth was recorded and partial discharge was observed at the constant applied voltage. The findings in this research showed that under high concentration of nano titanium dioxide, the treeing propagation were reduced and partial discharge number increased. The function of nano titanium dioxide as obstacle for the tree path in the silicone rubber samples was successfully tested. The results have shown that physical bonding between nano-titanium dioxide and silicone rubber matrix was improved, the tree propagation speed decreased, and this resulted in the increment of partial discharge magnitude. However, further experimentation is required to give more clarifications regarding to this finding.
纳米二氧化钛(TiO2)对硅橡胶基纳米复合材料电树特性的影响
电气树是在高压绝缘材料中发生的预击穿现象之一。此外,在高发散场下,电气树生长迅速而严重,可能导致绝缘击穿。鉴于此,在基材绝缘材料中加入纳米填料以增强其抗电树生长的性能。因此,本研究选择纳米二氧化钛作为填料,以改善硅橡胶的特性,从而抑制电树的生长。试验样品以叶状试样的形式制备。为了改善硅橡胶的性能,选用纳米二氧化钛作为填料。研究了不同浓度的纳米二氧化钛对复合材料局部放电次数、局部放电强度和击穿时间的影响。施加的电压和频率分别固定在10 kVrms AC和50 Hz。记录了树木的生长情况,并在恒定电压下观察到局部放电。研究结果表明:高浓度纳米二氧化钛处理降低了树苗的繁殖速度,增加了局部放电次数;成功地测试了纳米二氧化钛在硅橡胶样品中作为树木路径障碍物的功能。结果表明:纳米二氧化钛与硅橡胶基体之间的物理结合增强,树形繁殖速度减慢,导致局部放电幅度增大;然而,需要进一步的实验来进一步澄清这一发现。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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