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Stefan cel Mare
University of Suceava
Faculty of Electrical Engineering and
Computer Science
13, Universitatii Street
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ROMANIA

Print ISSN: 1582-7445
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WorldCat: 643243560
doi: 10.4316/AECE


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  2/2014 - 15

Impact of Neutral Point Current Control on Copper Loss Distribution of Five Phase PM Generators Used in Wind Power Plants

ARASHLOO, R. S. See more information about ARASHLOO, R. S. on SCOPUS See more information about ARASHLOO, R. S. on IEEExplore See more information about ARASHLOO, R. S. on Web of Science, ROMERAL MARTINEZ, J. L. See more information about  ROMERAL MARTINEZ, J. L. on SCOPUS See more information about  ROMERAL MARTINEZ, J. L. on SCOPUS See more information about ROMERAL MARTINEZ, J. L. on Web of Science, SALEHIFAR, M. See more information about  SALEHIFAR, M. on SCOPUS See more information about  SALEHIFAR, M. on SCOPUS See more information about SALEHIFAR, M. on Web of Science, SALA, V. See more information about SALA, V. on SCOPUS See more information about SALA, V. on SCOPUS See more information about SALA, V. on Web of Science
 
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Download PDF pdficon (1,140 KB) | Citation | Downloads: 593 | Views: 4,374

Author keywords
brushless motors, permanent magnet motors, variable speed drives, energy conservation, motor drives

References keywords
phase(13), magnet(12), tolerant(11), permanent(11), fault(11), control(9), motor(8), motors(7), parsa(6), synchronous(4)
Blue keywords are present in both the references section and the paper title.

About this article
Date of Publication: 2014-05-31
Volume 14, Issue 2, Year 2014, On page(s): 89 - 96
ISSN: 1582-7445, e-ISSN: 1844-7600
Digital Object Identifier: 10.4316/AECE.2014.02015
Web of Science Accession Number: 000340868100015
SCOPUS ID: 84901839828

Abstract
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Efficiency improvement under faulty conditions is one of the main objectives of fault tolerant PM drives. This goal can be achieved by increasing the output power while reducing the losses. Stator copper loss not only directly affects the total efficiency, but also plays an important role in thermal stress generations of iron core. In this paper, the effect of having control on neutral point current is studied on the efficiency of five-phase permanent magnet machines. Open circuit fault is considered for both one and two phases, and the distribution of copper loss along the windings are evaluated in each case. It is shown that only by having access to neutral point, it is possible to generate less stator thermal stress and more mechanical power in five-phase permanent magnet generators. Wind power generation and their applications are kept in mind, and the results are verified via simulations and experimental tests on an outer-rotor type of five-phase PM machine.


References | Cited By  «-- Click to see who has cited this paper

[1] A. Nasiri, "Full digital current control of permanent magnet synchronous motors for vehicular applications", IEEE Trans. Vehicular Tech., vol. 56, no. 4, pp. 1531-1537, Jul. 2007.
[CrossRef] [Web of Science Times Cited 31] [SCOPUS Times Cited 47]


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[CrossRef] [Web of Science Times Cited 135] [SCOPUS Times Cited 166]


[3] A. M. S. Mendes, A. J. M. Cardoso, "Fault-tolerant operating strategies applied to three-phase induction-motor drives", IEEE Trans. Ind. Elect., vol. 53, no. 6, pp. 1807-1817, Dec. 2006.
[CrossRef] [Web of Science Times Cited 112] [SCOPUS Times Cited 138]


[4] L. Romeral, J. C. Urresty, J. R. R. Ruiz, A. G. Espinosa, "Modeling of surface-mounted permanent magnet synchronous motors with stator winding interturn faults", IEEE Trans. Ind. Elect., vol. 58, no. 5, pp. 1576-1585, May 2011.
[CrossRef] [Web of Science Times Cited 161] [SCOPUS Times Cited 186]


[5] A. Mohammadpour, L. Parsa, "A unified fault-tolerant current control approach for five-phase PM motors with trapezoidal back EMF under different stator winding connections", IEEE Trans. Power Elect., vol. 28, no. 7, pp. 3517-3527, Jul. 2013.
[CrossRef] [Web of Science Times Cited 113] [SCOPUS Times Cited 130]


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[CrossRef] [Web of Science Times Cited 231] [SCOPUS Times Cited 318]


[7] Y. Fujimoto, T. Sekiguchi, "Fault-tolerant configuration of distributed discrete controllers," IEEE Trans. Ind. Elect., vol. 50, no. 1, pp. 86-93, Feb. 2003.
[CrossRef] [Web of Science Times Cited 21] [SCOPUS Times Cited 23]


[8] M. S. Islam, R. Islam, T. Sebastian, "Experimental verification of design techniques of permanent-magnet synchronous motors for low-torque-ripple applications", IEEE Trans. Ind. App., vol. 47, no. 1, pp. 214-219, Jan./Feb. 2011.
[CrossRef] [Web of Science Times Cited 32] [SCOPUS Times Cited 46]


[9] L. Parsa, H. A. Toliyat, "Five-phase permanent-magnet motor drives", IEEE Trans. on Ind. App., vol. 41, no. 1, pp. 30-37, Jan./Feb. 2005.
[CrossRef] [Web of Science Times Cited 299] [SCOPUS Times Cited 385]


[10] L. Parsa, A. Goodarzi, H. A. Toliyat, "Five-phase interior permanent magnet motor for hybrid electric vehicle application", IEEE Con. Vehicle Power and Propulsion, pp. 631-637, 2005.
[CrossRef] [Web of Science Record] [SCOPUS Times Cited 14]


[11] A. Jack, B. Mecrow, J. Haylock, "A comparative study of permanent magnet and switched reluctance motors for high-performance fault tolerant applications," IEEE Trans. Ind. App., vol. 32, no. 4, pp. 889-895, Jul./Aug. 1996.
[CrossRef] [Web of Science Times Cited 262] [SCOPUS Times Cited 361]


[12] N. Bianchi, S. Bolognani, M. Dai Pré, "Impact of stator winding of a five-phase permanent-magnet motor on postfault operations", IEEE Trans. Ind. Elect., vol. 55, no. 5, pp. 1978-1987, May 2008.
[CrossRef] [Web of Science Times Cited 90] [SCOPUS Times Cited 116]


[13] T. Elch-Heb, J. P. Hautier, "Remedial strategy for inverter-induction machine system faults using two-phase operation", 5th Euopean Conference, Power Elect. and App., vol. 5, pp. 151-156, 1993.

[14] J. Wang, K. Atallah, D. Howe, "Optimal torque control of fault-tolerant permanent magnet brushless machines," IEEE Trans. Magn., vol. 39, no. 5, Sep. 2003.
[CrossRef] [Web of Science Times Cited 109] [SCOPUS Times Cited 148]


[15] S. Dwari, L. Parsa, "An optimal control technique for multiphase PM machines under open-circuit faults", IEEE Trans. Ind. Elect., vol. 55, no. 5, pp. 1988-1995, May 2008.
[CrossRef] [Web of Science Times Cited 145] [SCOPUS Times Cited 190]


[16] S. Dwari, L. Parsa, "Fault-tolerant control of five-phase permanent magnet motors with trapezoidal back EMF," IEEE Trans. Ind. Elect., vol. 58, no. 2, pp. 476-485, Feb. 2011.
[CrossRef] [Web of Science Times Cited 208] [SCOPUS Times Cited 254]


[17] N. Bianchi, S. Bolognani, M. D. Pre, "Strategies for the fault-tolerant current control of a five-phase permanent-magnet motor," IEEE Trans. Ind. App., vol. 43, no. 4, pp. 960-970, Jul./Aug. 2007.
[CrossRef] [Web of Science Times Cited 176] [SCOPUS Times Cited 233]


[18] J. Wang, K. Alallah, D. Howe, "Optimal torque control of fault tolerant pennanent magnet brushless machines," IEEE Trans. Magn. vol. 39, no. 5, pp. 2962-2964, Sep. 2003.
[CrossRef] [Web of Science Times Cited 109] [SCOPUS Times Cited 148]


[19] S. Dwari and L. Parsa, "Open-circuit fault tolerant control of five-phase permanent magnet motors with third-harmonic back-EMF" 34th Annual Conference of IEEE, Ind. Electron. IECON 2008.
[CrossRef] [SCOPUS Times Cited 32]


[20] E. Chiricozzi, M. Villani, "Analysis of fault-tolerant five-phase IPM synchronous motor", IEEE Symposium, Ind. Electron. ISIE 2008.
[CrossRef] [SCOPUS Times Cited 14]


[21] H. M. Ryu, J.W. Kim, S.K. Sul, "Analysis of multi-phase space vector pulse width modulation based on multiple d-q spaces concept," IEEE Trans. Power Elect., vol. 20, no. 6, pp. 1364-1371, Nov. 2005.
[CrossRef] [Web of Science Times Cited 181] [SCOPUS Times Cited 229]


[22] J. Prieto, M. Jones, F. Barrero, E. Levi, S. Toral, "Comparative analysis of discontinuous and continuous PWM techniques in VSI-fed five-phase induction motor," IEEE Trans. Ind. Elect., vol. 58, no. 12, pp. 5324-5335, 2011.
[CrossRef] [Web of Science Times Cited 82] [SCOPUS Times Cited 96]




References Weight

Web of Science® Citations for all references: 2,497 TCR
SCOPUS® Citations for all references: 3,274 TCR

Web of Science® Average Citations per reference: 109 ACR
SCOPUS® Average Citations per reference: 142 ACR

TCR = Total Citations for References / ACR = Average Citations per Reference

We introduced in 2010 - for the first time in scientific publishing, the term "References Weight", as a quantitative indication of the quality ... Read more

Citations for references updated on 2022-06-29 13:53 in 127 seconds.




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Stefan cel Mare University of Suceava, Romania


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