Study of Petersen Coil Grounding System Inductance Variation on Ferroresonance in 150 kV Transformer

I. G. Ngurah Satriyadi Hernanda, I. M. Yulistya Negara, D. A. Asfani, D. Fahmi, M. Wahyudi, Kadek Suparta Anugrah
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引用次数: 2

Abstract

This study dealt with the effect of inductance variation of Petersen coil grounding system on ferroresonance overvoltage in a power transformer transmission. The study was simulated by using ATPDraw. The switching operations with opened one-phase, two-phase, and three-phases were given as a transient that initiated ferroresonance. The output of ATPDraw performed the voltage responses of transformer on primary and secondary side. The results showed that the given inductance variation of Petersen coil on power transformer resulted in different ferroresonance voltage response on the transformer. Using 5 mH inductance would make the higher overvoltage, while using 95 mH inductance would make the lowest voltage peak response. When one-phase open fault occurred, using inductance in range 20 – 100 mH would make Fundamental mode of ferroresonance in phase R on the primary and secodary side of the power transformer. When two-phase open fault occurred, using inductance 95 mH would make Subharmonic mode of ferroresonance in phase R and Fundamental mode in phase S on primary and secondary side of the power transformer. When three-phase open fault occurred, using inductance in range 15 – 100 mH would make Chaotic mode of ferroresonance in phase R, S, and T on the primary and secondary side of the power transformer.
150kv变压器铁谐振时彼得森线圈接地系统电感变化的研究
研究了电力变压器输电中彼得森线圈接地系统电感变化对铁磁谐振过电压的影响。利用ATPDraw软件对研究过程进行模拟。给出了单相、两相和三相开路的开关操作作为触发铁磁谐振的瞬态。ATPDraw的输出实现了变压器一次侧和二次侧的电压响应。结果表明,给定的电力变压器上彼得森线圈的电感变化会导致变压器上不同的铁谐振电压响应。使用5mh电感会产生较高的过电压,而使用95mh电感会产生最低的电压峰值响应。当发生单相断路故障时,在20 ~ 100mh范围内使用电感,会使电力变压器一次侧和二次侧R相发生铁磁谐振基模。当发生两相断路故障时,使用95 mH电感会在电力变压器主、次侧产生R相铁磁谐振亚谐波模式和S相基频模式。当发生三相开路故障时,在15 ~ 100mh范围内使用电感,会在电力变压器主、次侧产生R、S、T相的铁磁谐振混沌模式。
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