Design and analysis of a two-phase brushless DC motor with hybrid permanent magnet material for only-pull drive technique
被引:1
作者:
Tanveer Yazdan
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机构:The University of Lahore,Department of Electrical Engineering
Tanveer Yazdan
Muhammad Humza
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机构:The University of Lahore,Department of Electrical Engineering
Muhammad Humza
Qasim Ali
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机构:The University of Lahore,Department of Electrical Engineering
Qasim Ali
Asif Hussain
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机构:The University of Lahore,Department of Electrical Engineering
Asif Hussain
Byung-il Kwon
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机构:The University of Lahore,Department of Electrical Engineering
Byung-il Kwon
机构:
[1] The University of Lahore,Department of Electrical Engineering
[2] Institute of Southern Punjab,Department of Electrical Engineering
[3] IBA Sukkur University,Department of Electrical Engineering
[4] University of Management and Technology,Department of Electrical Engineering
[5] Hanyang University,Department of Electronic Systems Engineering
来源:
Electrical Engineering
|
2021年
/
103卷
关键词:
Demagnetization;
Finite element analysis;
Hybrid PM material;
Permanent magnet motor;
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摘要:
This paper proposes a two-phase radial flux brushless DC motor comprising a rotor decorated with hybrid permanent magnet (PM) material, i.e., rare-earth NdFeB magnets combined with ferrite magnets. The rare-earth NdFeB magnets are used on the surface, and ferrite magnets in the spoke-type configuration. The combined surface and spoke-type topology are used to improve the output torque as well as to protect magnets of different grades against irreversible demagnetization. The motor is operated using the only-pull drive technique, which allows the use of thin magnets in the motor without the effect of irreversible demagnetization. The electromagnetic performance of the proposed motor is compared with those of a two-phase surface-type PM motor and the spoke-type motor, all driven by the only-pull drive technique. Furthermore, the operating point of the ferrite magnets is analyzed using finite element analysis to confirm the demagnetization endurance of the proposed motor.