纳米颗粒浓度对绝缘纳米流体介电频率响应的影响

S. Rohith, Niharika Baruah, S. K. Nayak
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摘要

为了保证变压器的可靠运行,变压器采用了液体绝缘和固体绝缘。随着时间的推移,变压器绝缘技术不断进步,并探索了许多品种。每一种绝缘材料都有这样或那样的优点和缺点。一种特殊的液体绝缘材料的应用是根据其特性来选择的。在变压器绝缘油的研究中,与基础油相比,纳米流体具有良好的电气和热特性。绝缘油的介电频率响应是一种无损离线分析绝缘油介电性能的方法,它与工频测试不同,可用于评估绝缘油的含水率和电导率。频率响应是在很宽的频率范围内观察到的。低频响应在表征偶极矩时非常重要,因为它在较低频率下很重要。本文通过改变纳米绝缘颗粒在基础油中的浓度,对其在室温下的频率响应、极化和电导率进行了研究。响应是对液体绝缘状况的描述。绘制了电导率、相对介电常数和耗散系数。这些参数的频率范围为1mhz ~ 10khz,是研究液体绝缘的合适范围。
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Influence of Concentration of Nanoparticles on the Dielectric Frequency Response of an Insulating Nanofluid
Liquid insulation is employed in transformers along with the solid insulation for the reliable operation. The transformer insulation has technologically advanced over time and a number of varieties are explored. Every insulation is found to have some or the other advantages and disadvantages. The application of a particular liquid insulation is chosen based on its properties. Among the insulating oils being studied for transformer application, nanofluids are delivering promising electrical and thermal characteristics compared to the base oils. The dielectric frequency response is one of the non-destructive and offline technique to analyze a few dielectric properties of the insulating oil and it is used to estimate the moisture content of pressboard and the conductivity of the insulating oils, unlike the power frequency test which can only be used for estimating the contaminants. The frequency response is observed over a wide range of frequencies. The low frequency response is very much crucial in characterizing the dipole moment as it is significant at lower frequencies. In this paper, the concentration of the insulating nanoparticle in base oil is varied and the frequency response, polarization, and conductivity are studied at room temperature. The response is a depiction of the condition of the liquid insulation. The conductivity, relative permittivity and the dissipation factor are plotted. All these parameters are in the frequency range from 1 mHz to 10 kHz, which is the suitable range to study the liquid insulation.
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