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Orthogonal decomposition of core loss along rolling and transverse directions of non-grain oriented silicon steels
Author(s) -
Xuezhi Wan,
Yongjian Li,
Jingsong Li,
Chengcheng Liu,
Jianguo Zhu
Publication year - 2017
Publication title -
aip advances
Language(s) - English
Resource type - Journals
SCImago Journal Rank - 0.421
H-Index - 58
ISSN - 2158-3226
DOI - 10.1063/1.4976000
Subject(s) - electrical steel , transverse plane , materials science , core (optical fiber) , silicon , excitation , plane (geometry) , condensed matter physics , nuclear magnetic resonance , computational physics , composite material , physics , geometry , metallurgy , structural engineering , mathematics , engineering , quantum mechanics
Rotational core loss of the silicon steel laminations are measured under elliptical rotating excitation. The core loss decomposition model is very important in magnetic core design, in which the decomposition coefficients are calculated through the measurement data. By using the transformation of trigonometric function, the elliptical rotational magnetic flux can be decomposed into two parts along two directions. It is assumed that the rotating core loss is the sum of alternating core losses along rolling and transverse directions. The magnetic strength vector H of non-grain oriented (NGO) silicon steel 35WW270 along rolling and transverse directions is measured by a novel designed 3-D magnetic properties tester. Alternating core loss along the rolling, transverse directions and rotating core loss in the xoy-plane of this specimen in different frequencies such as 50 Hz, 100 Hz, and 200 Hz. Experimental results show that the core loss model is more accurate and useful to predict the total core loss

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