journal article·2018-04-01Open access

Comparison between measured and computed magnetic flux density distribution of simulated transformer core joints assembled from grain-oriented and non-oriented electrical steel

Hamid Shahrouzi, Anthony J. Moses, Philip I. Anderson, Guobao Li, Zhuochao Hu

AIP Advances· Volume 8· Issue 4

Abstract

The flux distribution in an overlapped linear joint constructed in the central region of an Epstein Square was studied experimentally and results compared with those obtained using a computational magnetic field solver. High permeability grain-oriented (GO) and low permeability non-oriented (NO) electrical steels were compared at a nominal core flux density of 1.60 T at 50 Hz. It was found that the experimental results only agreed well at flux densities at which the reluctance of different paths of the flux are similar. Also it was revealed that the flux becomes more uniform when the working point of the electrical steel is close to the knee point of the B-H curve of the steel.
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Research context

OpenAlex topics: Magnetic Properties and Applications · Microstructure and Mechanical Properties of Steels · Power Transformer Diagnostics and Insulation

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Affiliations

Wolfson Centre for Magnetics, Institute of Energy, Cardiff University 1 , Cardiff, UK , CF 24 3AA

Institute of Silicon Steel, R&D Center of Baosteel Group Corporation 2 , Shanghai, China , 200122

Funding

Baoshon Iron & Steel Co. Ltd. · The National Major Research and Development Program of China

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