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用于50Hz - 5kHz频率范围的0.2S级400/5/1感应式电流互感器的研制。

Development of Inductive Current Transformer 400/5/1 of Class 0.2S for Frequency Range 50 Hz-5 kHz.

作者信息

Kaczmarek Michal, Pacholczyk Blazej

机构信息

Institute of Mechatronics and Information Systems, Lodz University of Technology, 90-537 Lodz, Poland.

出版信息

Sensors (Basel). 2024 Dec 15;24(24):8011. doi: 10.3390/s24248011.

DOI:10.3390/s24248011
PMID:39771747
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC11679527/
Abstract

This paper is devoted to the development of a window-type inductive current transformer (iCT) with a rated primary current equal to 400 A and two secondary windings with rated currents of 5 A and 1 A. Its novelty concerns the presentation of this process in the case of an iCT with a 0.2S accuracy class ensured not only for a sinusoidal current of a frequency of 50 Hz but also for the transformation of distorted current in the harmonic frequency range from 50 Hz to 5 kHz. The maximum permissible values of the current error and phase displacement are equal to ±0.2% and ±0.2°, respectively, and are the same as the limiting values for a 50 Hz sinusoidal current of a rated RMS value. In the design process, three materials were considered for the construction of the developed iCT 400/5/1: electrical steel, permalloy and nanocrystalline (Nano). Their wideband properties were analyzed and the choice of the Nano magnetic core was justified with the already-available data in the literature on the basis of elaborated design assumptions. In order to specify its particular type, four magnetic cores with different initial magnetic permeabilities were tested. It was demonstrated that, as far as more favorable magnetic properties also involved increased active power losses in the magnetic core, it was not an appropriate choice for the construction of the iCT, especially for the transformation of the current with a main frequency equal to 50 Hz or 60 Hz.

摘要

本文致力于开发一种窗口型感应电流互感器(iCT),其额定一次电流为400 A,有两个二次绕组,额定电流分别为5 A和1 A。其新颖之处在于,对于精度等级为0.2S的iCT,不仅要确保在50 Hz正弦电流情况下的转换过程,还要确保在50 Hz至5 kHz谐波频率范围内畸变电流的转换过程。电流误差和相位移的最大允许值分别等于±0.2%和±0.2°,与额定有效值为50 Hz的正弦电流的极限值相同。在设计过程中,考虑了三种材料用于所开发的400/5/1型iCT的构造:电工钢、坡莫合金和纳米晶(Nano)。分析了它们的宽带特性,并根据已有的文献数据,在详细的设计假设基础上,证明了选择纳米晶磁芯的合理性。为了确定其具体类型,测试了四种具有不同初始磁导率的磁芯。结果表明,尽管更优良的磁性能也会导致磁芯中有更大的有功功率损耗,但对于iCT的构造来说,尤其是对于主频率为50 Hz或60 Hz的电流转换,这并不是一个合适的选择。

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