利用三维有限元方法计算非同心绕组电抗器的电抗

E. D. Paula, J. C. Mendes, W. Calil
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引用次数: 2

摘要

本文介绍了一种计算准线性电抗器饱和和非饱和电抗的现代方法。所研究的电抗器是一个单相装置,有两个非同心绕组,没有磁芯,但有磁屏蔽和储罐。这种几何形状需要三维计算。为了达到最高的精度,采用了三维有限元程序和时间谐波求解器来计算系统的无功能量。利用无功能计算电抗。模拟计算了总电抗和自抗。通过磁路理论和单独模拟两种方法计算了互抗。计算的电抗与实际制造的全尺寸电抗器的测量电抗进行了比较。计算电抗与测量电抗之间的偏差可以忽略不计。因此,采用的计算方法大大提高了满足保证电抗值和公差的设计可靠性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Reactance calculation of a reactor with non-concentric windings by utilizing a finite element method (FEM) based 3-D program
This paper describes a modern method to calculate the saturated and non-saturated reactances of quasi-linear reactors. The reactor studied is a single-phase unit with two non-concentric windings without magnetic core, but with magnetic shields and tank. This geometry requires 3-D calculations. To achieve the highest accuracy, a FEM based 3-D program with a time harmonic solver was utilized to calculate the reactive energy in the system. With the reactive energy, the reactance is calculated. Simulations were made to calculate the total and the self reactances. The mutual reactance was calculated by two means, with aid of magnetic circuit theory and by making a separate simulation. The calculated reactances were compared to the measured reactances of an actual full-size manufactured reactor. The deviation between calculated and measured reactances was negligible. Hence, the design reliability to meet the guaranteed reactance value and tolerance was significantly enhanced, thanks to the calculation method utilized.
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