Design and losses analysis of a high power density machine for flooded pump applications

This paper describes the design process of a 10 kW 19000 rpm high power density surface mounted permanent magnet synchronous machine for a directly coupled pump application. In order to meet the required specifications, a compact machine, with cooling channels inside the slots and flooded airgap, ha...

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Main Authors: Al-Timimy, Ahmed, Giangrande, Paolo, Degano, Michele, Zeyuan, Xu, Galea, Michael, Gerada, C., Lo Calzo, Giovanni, Zhang, He, Xia, Liqun
Format: Article
Language:English
Published: IEEE 2018
Subjects:
Online Access:https://eprints.nottingham.ac.uk/51053/
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author Al-Timimy, Ahmed
Giangrande, Paolo
Degano, Michele
Zeyuan, Xu
Galea, Michael
Gerada, C.
Lo Calzo, Giovanni
Zhang, He
Xia, Liqun
author_facet Al-Timimy, Ahmed
Giangrande, Paolo
Degano, Michele
Zeyuan, Xu
Galea, Michael
Gerada, C.
Lo Calzo, Giovanni
Zhang, He
Xia, Liqun
author_sort Al-Timimy, Ahmed
building Nottingham Research Data Repository
collection Online Access
description This paper describes the design process of a 10 kW 19000 rpm high power density surface mounted permanent magnet synchronous machine for a directly coupled pump application. In order to meet the required specifications, a compact machine, with cooling channels inside the slots and flooded airgap, has been designed through finite element optimization. For high power density, high speed machines, an accurate evaluation of the power losses and the electromechanical performance is always extremely challenging. In this case, the completely flooded application adds to the general complexity. Therefore this paper deals with a detailed losses analysis (copper, core, eddy current and mechanical losses) considering several operating conditions. The experimental measurements of AC copper losses as well as the material properties (BH curve and specific core losses), including the manufacturing process effect on the stator core, are presented. Accurate 3D finite element models and computational fluid dynamics analysis have been used to determine the eddy current losses in the rotor and windage losses respectively. Based on these detailed analysis, the no load and full load performance are evaluated. The experimental results, on the manufactured prototype, are finally presented to validate the machine design.
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spelling nottingham-510532019-04-29T10:23:40Z https://eprints.nottingham.ac.uk/51053/ Design and losses analysis of a high power density machine for flooded pump applications Al-Timimy, Ahmed Giangrande, Paolo Degano, Michele Zeyuan, Xu Galea, Michael Gerada, C. Lo Calzo, Giovanni Zhang, He Xia, Liqun This paper describes the design process of a 10 kW 19000 rpm high power density surface mounted permanent magnet synchronous machine for a directly coupled pump application. In order to meet the required specifications, a compact machine, with cooling channels inside the slots and flooded airgap, has been designed through finite element optimization. For high power density, high speed machines, an accurate evaluation of the power losses and the electromechanical performance is always extremely challenging. In this case, the completely flooded application adds to the general complexity. Therefore this paper deals with a detailed losses analysis (copper, core, eddy current and mechanical losses) considering several operating conditions. The experimental measurements of AC copper losses as well as the material properties (BH curve and specific core losses), including the manufacturing process effect on the stator core, are presented. Accurate 3D finite element models and computational fluid dynamics analysis have been used to determine the eddy current losses in the rotor and windage losses respectively. Based on these detailed analysis, the no load and full load performance are evaluated. The experimental results, on the manufactured prototype, are finally presented to validate the machine design. IEEE 2018-03-30 Article PeerReviewed application/pdf en https://eprints.nottingham.ac.uk/51053/1/Design%20and%20Losses%20Analysis%20of%20a%20High%20Power%20Density%20Machine%20for%20Flooded%20Pump%20Applications.pdf Al-Timimy, Ahmed, Giangrande, Paolo, Degano, Michele, Zeyuan, Xu, Galea, Michael, Gerada, C., Lo Calzo, Giovanni, Zhang, He and Xia, Liqun (2018) Design and losses analysis of a high power density machine for flooded pump applications. IEEE Transactions on Industry Applications, 54 (4). pp. 3260-3270. ISSN 1939-9367 High power density high speed losses calculation performance analysis permanent magnet motors https://ieeexplore.ieee.org/abstract/document/8328844/ doi:10.1109/TIA.2018.2821623 doi:10.1109/TIA.2018.2821623
spellingShingle High power density
high speed
losses calculation
performance analysis
permanent magnet motors
Al-Timimy, Ahmed
Giangrande, Paolo
Degano, Michele
Zeyuan, Xu
Galea, Michael
Gerada, C.
Lo Calzo, Giovanni
Zhang, He
Xia, Liqun
Design and losses analysis of a high power density machine for flooded pump applications
title Design and losses analysis of a high power density machine for flooded pump applications
title_full Design and losses analysis of a high power density machine for flooded pump applications
title_fullStr Design and losses analysis of a high power density machine for flooded pump applications
title_full_unstemmed Design and losses analysis of a high power density machine for flooded pump applications
title_short Design and losses analysis of a high power density machine for flooded pump applications
title_sort design and losses analysis of a high power density machine for flooded pump applications
topic High power density
high speed
losses calculation
performance analysis
permanent magnet motors
url https://eprints.nottingham.ac.uk/51053/
https://eprints.nottingham.ac.uk/51053/
https://eprints.nottingham.ac.uk/51053/