Thermoelectrically Enhanced Nanofluid is a Suitable Replacement for Transformer Oil

Mrutyunjay Maharana, Niharika Baruah, A. Nanda, S. K. Nayak, N. Sahoo
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引用次数: 3

Abstract

This paper reveals the major experimental findings of a new batch of nanofluid (NF), which has all the dominating thermoelectrical properties being a novel transformer oil. Since liquid insulation of the power/distribution transformer carries nearly 80% of the entire insulation weight, so the efficiency of the insulating oil is very much important for the effective transformer efficiency. The investigation is being carried out taking titanium nanoparticle (NP) into consideration. An optimized concentration of 0.01wt% titanium NP is dispersed with mineral oil (MO). Two step method is implemented to prepare the NF, followed by addition of hydrophobic surfactant “Cetrimonium bromide [(C16H33)N(CH3)3]Br” (CTAB) which used to hinder sedimentation. Thermo electrical properties are studied for both MO and titanium NF and compared. It is observed that the addition of 0.01weight% NP to MO causes a significant enhancement in the dielectric strength of the NF. The resistivity increases and the dielectric losses (Tan delta) decreases, respectively for the NF. The kinematic viscosity of the NF is nearly unaffected and the thermal conductivity enhances significantly. The reason for the enhancement of breakdown voltage and thermal conductivity are analyzed numerically and validated experimentally.
热电增强纳米流体是变压器油的合适替代品
介绍了新型变压器油纳米流体(NF)的主要实验结果,它具有所有主要的热电性能。由于电力/配电变压器的液体绝缘承载了整个绝缘重量的近80%,因此绝缘油的效率对变压器的有效效率非常重要。该研究正在考虑纳米钛颗粒(NP)。用矿物油(MO)分散钛NP的最佳浓度为0.01wt%。采用两步法制备纳滤膜,然后加入阻沉降的疏水表面活性剂“西曲溴铵[(C16H33)N(CH3)3]Br”(CTAB)。研究了MO和钛NF的热电性能,并进行了比较。结果表明,在MO中加入0.01 %的NP,可显著提高NF的介电强度。NF的电阻率增大,介质损耗(Tan δ)减小。NF的运动粘度几乎不受影响,导热系数显著提高。对击穿电压和导热系数提高的原因进行了数值分析和实验验证。
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