矿物油基氧化锌纳米复合材料在电力变压器中的介电性能研究

P. Muangpratoom, A. Kunakorn, N. Pattanadech, W. Vittayakorn, K. Thungsook
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引用次数: 6

摘要

在标准矿物油中加入氧化锌(ZnO)粉末(平均直径小于100nm),并添加表面活性剂山梨醇单油酸酯(Span 80)来修饰除对照样品外的所有纳米颗粒的表面,从而制备出矿物油基纳米流体,该实验旨在研究(在一系列预先确定的测试温度和%水分含量下)矿物油基纳米流体的介电性能。五个不同nanofluid测试样品(一个控制样品和四个修改样品)基于标准矿物油生产测试:1)控制样本包含没有跨越80年,氧化锌,2)与跨度80年修改后的样品,和氧化锌的体积分数为0.01%,3)修改样本没有跨越80年,和氧化锌的体积分数为0.01%,4)与跨度80年修改后的样品,和氧化锌的体积分数为0.03%,和5)修改样本没有跨越80年,和氧化锌的体积分数为0.03%。此外,对上述五种液体样品进行了测试,以确定在35°C至90°C范围内七种不同温度下的交流击穿电压。测试电路按照IEC 60156的要求建立,采用间隙为2.5 mm的球-球电极结构。从调查中获得了几个重要的结果。首先,ZnO纳米粒子对所有使用它们的测试溶液都有积极的影响。其次,击穿电压与温升之间存在正相关关系。ZnO纳米粒子浓度越高,击穿电压越高。第四,表面活性剂的使用对击穿电压有正负两方面的影响。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Dielectric Properties of Mineral Oil-based Nanofluids using Zinc Oxide Nano-composites for Power Transformer Application
This research paper describes and analyzes various experiments designed to investigate the dielectric properties (at a series of pre-determined test temperatures and % moisture content) of mineral oil-based nanofluids produced by the incorporation of zinc oxide (ZnO) powder (of mean diameter less than 100nm) into a standard mineral oil, with the surfactant sorbitan mono-oleate (Span 80) added to modify the surface of the nanoparticles in all but the control sample. Five different nanofluid test samples (one control sample and four modified samples) based on the standard mineral oil were produced for testing: 1) a control sample containing no Span 80 and no ZnO, 2) a modified sample with Span 80, and ZnO volume fraction of 0.01 %, 3) a modified sample without Span 80, and ZnO volume fraction of 0.01 %, 4) a modified sample with Span 80, and ZnO volume fraction of 0.03%, and 5) a modified sample without Span 80, and ZnO volume fraction of 0.03 %. In addition, the five liquid samples above were tested to determine AC breakdown voltage at seven different temperatures in the range of 35°C to 90°C. The test circuit was set up in accordance with IEC 60156 using a sphere-sphere electrode configuration with gap spacing of 2.5 mm. Several significant results were obtained from the investigation. Firstly, ZnO nanoparticles had a positive effect on all the test solutions in which they were used. Second, a positive relationship was confirmed between breakdown voltages, temperature rise. Third, a negative correlation was established between higher concentration of ZnO nanoparticles and breakdown voltage. Fourth, the use of surfactant proved to have both positive and negative effects on breakdown voltages.
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