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  4/2021 - 15
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Research on Torque Ripple Minimization of Double-stator Switched Reluctance Motor Using Finite Element Method

Das GUPTA, T. See more information about Das GUPTA, T. on SCOPUS See more information about Das GUPTA, T. on IEEExplore See more information about Das GUPTA, T. on Web of Science, CHAUDHARY, K. See more information about CHAUDHARY, K. on SCOPUS See more information about CHAUDHARY, K. on SCOPUS See more information about CHAUDHARY, K. on Web of Science
 
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Download PDF pdficon (2,760 KB) | Citation | Downloads: 491 | Views: 354

Author keywords
electrical engineering, electric motors, electromagnetic analysis, finite element analysis, torque

References keywords
switched(20), reluctance(20), torque(13), motor(11), ripple(8), research(7), progress(6), electromagnetics(6), double(6), design(6)
Blue keywords are present in both the references section and the paper title.

About this article
Date of Publication: 2021-11-30
Volume 21, Issue 4, Year 2021, On page(s): 135 - 144
ISSN: 1582-7445, e-ISSN: 1844-7600
Digital Object Identifier: 10.4316/AECE.2021.04015
Web of Science Accession Number: 000725107100015
SCOPUS ID: 85122266863

Abstract
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Double-stator switched reluctance motors (DSSRMs) possesses high torque/power density. However, these machines have high torque ripples in the commutation region because the outgoing and incoming phase torques reduce significantly in this region. Shifting the stator/rotor surfaces can increase the torque production in this region, subsequently reducing the torque ripples. This paper investigates the angular shift in stator/rotor surfaces to reduce the torque ripples in a 12/10/12 pole DSSRM. A comparative analysis is done with the individual shift of rotor surfaces, stator surfaces and then the simultaneous shift of stator-rotor surfaces. Furthermore, the impact of the different surface shifts on the radial stress of stator poles, radial and tangential forces on rotor segments and the influence on the motor performance are investigated. To predict the behaviour of different surface shifts, finite-element modeling and simulation are performed in ANSYS/MAXWELL software. Simulation results envisage that shifting in stator/rotor surfaces can effectively reduce torque ripples in DSSRM.


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

[1] K. S. Sree Ranjini, S. Murugan, "Design and performance comparison of permanent magnet brushless motors and switched reluctance motors for extended temperature applications," Progress in Electromagnetics Research M, vol. 67, pp. 137-146, 2018.
[CrossRef] [SCOPUS Times Cited 6]


[2] H. Abdelmaksoud, M. Zaky, "Design of an adaptive flux observer for sensorless switched reluctance motors using lyapunov theory," Advances in Electrical and Computer Engineering, vol.20, no.2, pp.123-130, 2020.
[CrossRef] [Full Text] [Web of Science Times Cited 2] [SCOPUS Times Cited 3]


[3] D. Vukadinovic, S. Grbin, M. Basic, "Experimental method of determining the equivalent circuit Parameters of a switched reluctance machine," Advances in Electrical and Computer Engineering, vol.15, no.3, pp.93-98, 2015.
[CrossRef] [Full Text] [Web of Science Times Cited 3] [SCOPUS Times Cited 3]


[4] M. Polat, A. Yildiz, "Influence of different pole head shapes on motor performance in switched reluctance motors," Advances in Electrical and Computer Engineering, vol.20, no.3, pp.75-82, 2020.
[CrossRef] [Full Text] [Web of Science Times Cited 4] [SCOPUS Times Cited 7]


[5] M. Abbasian, M. Moallem, B. Fahimi, "Double-stator switched reluctance machines (DSSRM): Fundamentals and magnetic force analysis," IEEE Trans. Energy Convers., vol. 25, no. 3, pp. 589-597, Sep. 2010.
[CrossRef] [Web of Science Times Cited 123] [SCOPUS Times Cited 139]


[6] E. Cosoroaba, E. Bostanci, Y. Li, W. Wang, B. Fahimi, "Comparison of winding configurations in double-stator switched reluctance machines," IET Electr. Power Appl., vol. 11, no. 8, pp. 1407-1415, 2017.
[CrossRef] [Web of Science Times Cited 9] [SCOPUS Times Cited 9]


[7] E. Bostanci, M. Moallem, A. Parsapour, B. Fahimi, "Opportunities and challenges of switched reluctance motor drives for electric propulsion: A comparative study," IEEE Trans. Transport. Electrific., vol. 3, no. 1, pp. 58-75, Mar. 2017.
[CrossRef] [Web of Science Times Cited 165] [SCOPUS Times Cited 202]


[8] Y. Jin, B. Bilgin, A. Emadi, "An offline torque sharing function for torque ripple reduction in switched reluctance motor drives," IEEE Trans. Energy Convers., vol. 30, no. 2, pp. 726-735, Jun. 2015.
[CrossRef] [Web of Science Times Cited 146] [SCOPUS Times Cited 166]


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[CrossRef] [Web of Science Times Cited 192] [SCOPUS Times Cited 245]


[10] C. Chen, H. Guo, G. Zhang, "SOSM direct torque and direct suspension force control for double stator bearingless switched reluctance motor," Progress in Electromagnetics Research C, vol. 96, pp. 179-192, 2019.
[CrossRef] [SCOPUS Times Cited 2]


[11] Q. Li, A. Xu, L. Zhou, C. Shang, "A deadbeat current control method for switched reluctance motor," Progress in Electromagnetics Research Letters, vol. 91, pp. 123-128, 2020.
[CrossRef] [Web of Science Times Cited 1] [SCOPUS Times Cited 3]


[12] C. Sahin, A. E. Amac, M. Karacor, "Reducing torque ripple of switched reluctance machines by relocation of rotor moulding clinches," IET Electric Power Applications, vol. 6, no. 9, pp. 753-760, Nov. 2012.
[CrossRef] [Web of Science Times Cited 38] [SCOPUS Times Cited 40]


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[CrossRef] [Web of Science Times Cited 83] [SCOPUS Times Cited 103]


[14] Y. Li, S. Ravi, D. C. Aliprantis, "Tooth shape optimization of switched reluctance motors for improved torque profiles," in IEEE International Electric Machines & Drives Conference (IEMDC), 2015, pp. 569-575.
[CrossRef] [SCOPUS Times Cited 6]


[15] M. A. Kabir, I. Husain, "Segmented rotor design of concentrated wound switched reluctance motor (SRM) for torque ripple minimization," in IEEE Energy Conversion Congress and Exposition (ECCE), 2016, pp. 1-6.
[CrossRef] [SCOPUS Times Cited 8]


[16] L. Jing, J. Cheng, "Research on torque ripple optimization of switched reluctance motor based on finite element method," Progress in Electromagnetics Research M, vol. 74, pp. 115-123, 2018.
[CrossRef] [Web of Science Times Cited 4] [SCOPUS Times Cited 5]


[17] M. Aydin, Z. Q. Zhu, T. A. Lipo, D. Howe, "Minimization of cogging torque in axial-flux permanent-magnet machines: Design concepts," IEEE Trans. Magn., vol. 43, no. 9, pp. 3614-3622, 2007.
[CrossRef] [Web of Science Times Cited 130] [SCOPUS Times Cited 161]


[18] R. Madhavan, B. G. Fernandes, "Performance improvement in the axial flux-segmented rotor-switched reluctance motor," IEEE Trans. Energy Convers., vol. 29, no. 3, pp. 641-651, Sep. 2014.
[CrossRef] [Web of Science Times Cited 42] [SCOPUS Times Cited 48]


[19] M. J. Kermanipour, B. Ganji, "Modification in geometric structure of double-sided axial flux switched reluctance motor for mitigating torque ripple,'' Can. J. Electr. Comput. Eng., vol. 38, no. 4, pp. 318-322, Fall 2015.
[CrossRef] [Web of Science Times Cited 21] [SCOPUS Times Cited 26]


[20] T. D. Gupta, K. Chaudhary, R. M. Elavarasan, R. K. Saket, I. Khan, E. Hossain, "Design modification in single-tooth winding double-stator switched reluctance motor for torque ripple mitigation," IEEE Access, vol. 9, pp. 19078-19096, 2021.
[CrossRef] [Web of Science Times Cited 3] [SCOPUS Times Cited 7]


[21] T. D. Gupta, K. Chaudhary, "Finite element method based design and analysis of a low torque ripple double-stator switched reluctance motor," Progress in Electromagnetics Research C, vol. 111, pp. 191-206, 2021.
[CrossRef] [SCOPUS Times Cited 1]


[22] H. Torkaman, E. Afjei, "Radial force characteristic assessment in a novel two-phase dual layer SRG using FEM," Progress in Electromagnetics Research, vol. 125, pp. 185-202, 2012.
[CrossRef] [Web of Science Times Cited 9] [SCOPUS Times Cited 11]


[23] A. Simion, L. Livadaru, S. Mihai, A. Munteanu, C. G. Cantemir, "Induction machine with improved operating performances for electric trucks. A FEM-based analysis," Advances in Electrical and Computer Engineering, vol.10, no.2, pp.71-76, 2010.
[CrossRef] [Full Text] [Web of Science Times Cited 5] [SCOPUS Times Cited 6]




References Weight

Web of Science® Citations for all references: 980 TCR
SCOPUS® Citations for all references: 1,207 TCR

Web of Science® Average Citations per reference: 41 ACR
SCOPUS® Average Citations per reference: 50 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 2022-08-07 07:49 in 133 seconds.




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