Analysis of Lightning Impulse Effects on Three Winding Transformer Used in Solar System Based ANSYS Maxwell

Emir Yükselen, I. Iskender
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引用次数: 1

Abstract

Transformers are in more critical applications in the renewable energy world and having a transformer fail in such a cyclical power station can be disastrous. Over voltage or voltage strike is the most important phenomena for the transformers. Thus, the evaluating and estimating the effects and stresses of these sudden high voltages is important during the transformers life time operation and design stage. Accordingly in this paper the electromagnetic field analyses of the lightning impulse on Photovoltaic (PV) transformer are investigated using ANSYS Maxwell software. The 3D and 2D model simulation of the PV transformer is carried out to determine the electric field and voltage distribution on critical regions which can cause breakdown on insulation material and damage transformer windings and affects transformer working. Afterwards according to the simulation result, the subjected transformer was designed considering the relative critical regions and performs the full wave lightning impulse test in factory area to verify the dielectric strength of the transformer. This study provides better understanding of the lightning impulse voltage effects with localization of the critical regions on the PV transformer and helps to improve the withstand capability of the transformer against the lightning impulse voltages during the design and production stage.
基于ANSYS Maxwell的太阳能系统三绕组变压器雷电冲击效应分析
变压器在可再生能源领域的应用更为关键,在这样一个周期性的电站中,变压器发生故障可能是灾难性的。过电压或电压冲击是变压器最重要的现象。因此,在变压器的全寿命运行和设计阶段,对突发性高压的影响和应力进行评估和估计是十分重要的。基于此,本文利用ANSYS Maxwell软件对光伏变压器雷电冲击的电磁场进行了分析。对光伏变压器进行了三维和二维模型仿真,确定了可能导致绝缘材料击穿、损坏变压器绕组、影响变压器工作的关键区域的电场和电压分布。然后根据仿真结果,设计了考虑相对临界区域的变压器,并在厂区进行了全波雷击试验,验证了变压器的介电强度。通过对光伏变压器关键区域的定位,可以更好地了解雷电冲击电压对光伏变压器的影响,有助于提高光伏变压器在设计和生产阶段对雷电冲击电压的承受能力。
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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