Variation of Current-Density as a Function of Electric-Field Intensity in Synthetic Nanoclay-filled Polypropylene

H. Hiziroglu, I. Shkolnik
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Abstract

Within the scope of this study variation of current-density with electric-field intensity is studied in polypropylene filled with 0% (plain polypropylene), 2%, 4% and 8% synthetic nano-clay by weight. While recording the rms voltage and current, the power-frequency voltage (60Hz) was raised across each specimen at a speed of 226 V/s. In order to see the reproducibility of the results, 5 samples, with the same nano-clay concentration, were subjected tests under the same conditions. Each specimen under test revealed that the current-density varied non-linearly with the electric-field intensity. Moreover, some degree of saturation was observed at relatively higher electric fields in all the specimens. The saturation of the synthetic-clay loaded nanocomposite started at higher electric fields than the plain polypropylene. Up to a critical electric field intensity the capacitance of the materials was found to be almost constant, but for the electric fields higher than the critical electric field, the material behaves non-linearly leading to a dramatic reduction in capacitance.
合成纳米粘土填充聚丙烯中电流密度随电场强度的变化
在本研究范围内,研究了按重量计填充0%(普通聚丙烯)、2%、4%和8%合成纳米粘土的聚丙烯中电流密度随电场强度的变化。在记录均方根电压和电流的同时,在每个样品上以226 V/s的速度升高工频电压(60Hz)。为了观察结果的重复性,在相同的条件下,对5个纳米粘土浓度相同的样品进行了测试。各试样的电流密度随电场强度呈非线性变化。此外,在较高的电场下,所有试样都观察到一定程度的饱和。合成粘土负载纳米复合材料的饱和开始于比普通聚丙烯更高的电场。在达到临界电场强度之前,材料的电容几乎是恒定的,但对于高于临界电场的电场,材料的行为呈非线性,导致电容急剧减小。
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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