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Electrical Engineering
Erschienen in: Electrical Engineering 2/2022

14.06.2021 | Original Paper

Design and implementation of a high-efficiency low-voltage synchronous reluctance motor

verfasst von: Gullu Boztas, Omur Aydogmus, Hanifi Guldemir

Erschienen in: Electrical Engineering | Ausgabe 2/2022

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Abstract

This paper presents a motor design which can operate directly with a low-voltage output photovoltaic panels or batteries. A high-efficiency synchronous reluctance motor which can operate directly at low voltage level without a boost converter was designed in this study. The motor was optimized for maximum torque and minimum torque ripple by using the multi-objective genetic algorithm. A robust, durable and low-cost motor structure was obtained due to the obtained rotor structure. The optimized motor can generate less than 5% torque ripple with rated torque of 2 Nm. The prototype motor efficiency was obtained as 81.2% in experimental study, while the motor efficiency designed was obtained as 87.9% in theoretical study. For this reason, the designed motor was suitable for the IE5 efficiency class. However, the experimentally produced prototype motor was obtained in the IE4 efficiency class. In addition, the motor drive and control algorithm were developed for the designed motor. The details were analyzed for different load conditions in both simulation and experimental environments.
Vorheriger Artikel Modeling and analysis of a multi-segmented linear permanent-magnet synchronous machine using a parametric magnetic equivalent circuit
Nächster Artikel Stochastic transmission expansion planning in the presence of wind farms considering reliability and N-1 contingency using grey wolf optimization technique

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Literatur
1.
Konghirun M, Xu L (2006) A fast transient-current control strategy in sensorless vector-controlled permanent magnet synchronous motor. IEEE Trans Power Electron 21(5):1508–1512CrossRef
2.
Cho Y, Lee K, Song J, Lee YI (2015) Torque-ripple minimization and fast dynamic scheme for torque predictive control of permanent-magnet synchronous motors. IEEE Trans Power Electron 30(4):2182–2190CrossRef
3.
Shukla S, Singh B (2019) Reduced-sensor-based pv array-fed direct torque control induction motor drive for water pumping. IEEE Trans Power Electron 34(6):5400–5415CrossRef
4.
Wang T, Fang F, Wu X, Jiang X (2013) Novel filter for stator harmonic currents reduction in six-step converter fed multiphase induction motor drives. IEEE Trans Power Electron 28(1):498–506CrossRef
5.
Ziaeinejad S, Sangsefidi Y, Pairodin Nabi H, Shoulaie A (2013) Direct torque control of two-phase induction and synchronous motors. IEEE Trans Power Electron 28(8):4041–4050CrossRef
6.
Tousizadeh M, Che HS, Selvaraj J, Rahim NA, Ooi B (2019) Fault-tolerant field-oriented control of three-phase induction motor based on unified feedforward method. IEEE Trans Power Electron 34(8):7172–7183CrossRef
7.
Jawad F, Sharifian Mohammad BB (2001) Optimal design of three phase induction motors and their comparison with a typical industrial motor. Comput Electr Eng 27(2):133–144CrossRef
8.
Bharadwaj DG, Venkatesan K, Saxena RB (1979) Optimization techniques applied to induction motor design-a comparative study. Comput Electr Eng 6(2):117–122CrossRef
9.
Gonzalez-Gutierrez Carlos A, Juvenal RR, Georgina MV, Rivas-Araiza Edgar A, Mendiola-Santibañez Jorge D, Ricardo Luna-Rubio (2011) A pc-based architecture for parameter analysis of vector-controlled induction motor drive. Comput Electr Eng 37(6):858–868CrossRef
10.
Boglietti A, Cavagnino A, Pastorelli M, Vagati A (2005) Experimental comparison of induction and synchronous reluctance motors performance. In Fourtieth IAS Annual meeting. Conference record of the 2005 industry applications conference, 2005., vo 1, pp. 474–479
11.
Singh B, Sharma U, Kumar S (2018) Standalone photovoltaic water pumping system using induction motor drive with reduced sensors. IEEE Trans Ind Appl 54(4):3645–3655CrossRef
12.
Vitorino MA, de Rossiter Correa MB, Jacobina CB, Lima AMN (2011) An effective induction motor control for photovoltaic pumping. IEEE Trans Industr Electron 58(4):1162–1170CrossRef
13.
Mohsen Ebadpour, Bannae Sharifian Mohammad Bagher, Ebrahim Babaei (2018) Modeling and synchronized control of dual parallel brushless direct current motors with single inverter. Comput Electr Eng 70:229–242CrossRef
14.
Kumar R, Singh B (2016) Bldc motor-driven solar pv array-fed water pumping system employing zeta converter. IEEE Trans Ind Appl 52(3):2315–2322CrossRef
15.
Kumar R, Singh B (2017) Single stage solar pv fed brushless dc motor driven water pump. IEEE J Emerg Sel Top Power Electr 5(3):1377–1385CrossRef
16.
Kostko JK (1923) Polyphase reaction synchronous motors. J Am Inst Electr Eng 42(11):1162–1168CrossRef
17.
Yoshifumi O, Reona H, Shinji W, Tomonori T (2018) Improvement of torque characteristics for a synchronous reluctance motor using mma-based topology optimization method. IEEE Trans Magn 54(3):1–4CrossRef
18.
Ming-Yen W, Tian-Hua L (2013) Design and implementation of an online tuning adaptive controller for synchronous reluctance motor drives. IEEE Trans Industr Electron 60(9):3644–3657CrossRef
19.
Vagati A, Pastorelli M, Francheschini G, Petrache SC (1998) Design of low-torque-ripple synchronous reluctance motors. IEEE Trans Ind Appl 34(4):758–765CrossRef
20.
Jurca FN, Inte R, Martis C (2020) Optimal rotor design of novel outer rotor reluctance synchronous machine. Electr Eng 102(1):107–116CrossRef
21.
de Pancorbo SM, Ugalde G, Poza J, Egea A (2015) Comparative study between induction motor and synchronous reluctance motor for electrical railway traction applications. In 2015 5th international electric drives production conference (EDPC), pp. 1–5
22.
Felipe Oliveira, Abhisek Ukil (2019) Comparative performance analysis of induction and synchronous reluctance motors in chiller systems for energy efficient buildings. IEEE Trans Industr Inf 15(8):4384–4393CrossRef
23.
Boglietti A, Cavagnino A, Pastorelli M, Staton D, Vagati A (2006) Thermal analysis of induction and synchronous reluctance motors. IEEE Trans Ind Appl 42(3):675–680CrossRef
24.
Dziechciarz A, Martis C (2017) Simplified model of synchronous reluctance machine with optimized flux barriers. Electr Eng 99(4):1207–1216CrossRef
25.
Boldea I (1996) Reluctance synchronous machines and drives. Clarendon Press
26.
Fernandez-Bernal F, Garcia-Cerrada A, Faure R (1998) Efficient control of reluctance synchronous machines. In IECON ’98. Proceedings of the 24th annual conference of the IEEE industrial electronics society (Cat. No.98CH36200), vol 2, pp. 923–928
27.
Betz RE (1992) Theoretical aspects of control of synchronous reluctance machines. IEE Proceedings B electric power applications
28.
Xu L, Xu X, Lipo TA, Novotny DW (1991) Vector control of a synchronous reluctance motor including saturation and iron loss. IEEE Trans Ind Appl 27(5):977–985CrossRef
29.
Ozturk SB, Toliyat HA (2011) Direct torque and indirect flux control of brushless dc motor. IEEE/ASME Trans Mechatron 16(2):351–360CrossRef
30.
Aarniovuori L, Laurila LIE, Niemela M, Pyrhonen JJ (2012) Measurements and simulations of dtc voltage source converter and induction motor losses. IEEE Trans Industr Electron 59(5):2277–2287CrossRef
31.
Holakooie MH, Ojaghi M, Taheri A (2019) Modified dtc of a six-phase induction motor with a second-order sliding-mode mras-based speed estimator. IEEE Trans Power Electron 34(1):600–611CrossRef
32.
Shiva G, Hamed M, Mehdi S, Majid V, Farshad M, Reza FM (2018) Regenerative braking of electric vehicle using a modified direct torque control and adaptive control theory. Comput Electr Eng 69:85–97CrossRef
33.
Morales-Caporal R, Pacas M (2007) A predictive torque control for the synchronous reluctance machine taking into account the magnetic cross saturation. IEEE Trans Industr Electron 54(2):1161–1167CrossRef
34.
Hyeoun-Dong Lee, Seog-Joo Kang, Seung-Ki Sul (1999) Efficiency-optimized direct torque control of synchronous reluctance motor using feedback linearization. IEEE Trans Industr Electron 46(1):192–198CrossRef
35.
Saroka V, Autsou S (2018) Use foc vector control to optimize the control of a galvanic robot manipulator. In: 2018 open conference of electrical, electronic and information sciences (eStream), pp. 1–4
36.
Marufuzzaman M, Reaz MBI, Ali MAM (2010) Fpga implementation of an intelligent current dq pi controller for foc pmsm drive. In: 2010 international conference on computer applications and industrial electronics, pp. 602–605
37.
Tian B, An Q, Duan J, Semenov D, Sun D, Sun L (2017) Cancellation of torque ripples with foc strategy under two-phase failures of the five-phase pm motor. IEEE Trans Power Electron 32(7):5459–5472CrossRef
38.
Kerdsup B, Fuengwarodsakul NH (2017) Performance and cost comparison of reluctance motors used for electric bicycles. Electr Eng 99(2):475–486CrossRef
39.
Blaabjerg F, Boldea I, Jánosi L (2000) A modified direct torque control (dtc) of reluctance synchronous motor sensorless drive. Electr Mach Power Syst 28(1):115–128
40.
Daryabeigi E, Abootorabi Zarchi H, Arab Markadeh GR, Soltani J, Blaabjerg F (2015) Online mtpa control approach for synchronous reluctance motor drives based on emotional controller. IEEE Trans Power Electron 30(4):2157–2166CrossRef
41.
Haataja J (2003) A comparative performance study of four-pole induction motors and synchronous reluctance motors in variable speed drives
42.
Hrabovcová V, Makyš P, Rafajdus P, Šebest M (2017) Improved barriers rotor of the reluctance synchronous motor. Electr Eng 99(4):1325–1335CrossRef
43.
Pyrhonen J, Hrabovcova V, Semken RS (2016) Electrical machine drives control: an introduction. Wiley, New JerseyCrossRef
44.
Kamper MJ, Van der Merwe FS, Williamson S (1996) Direct finite element design optimisation of the cageless reluctance synchronous machine. IEEE Trans Energy Convers 11(3):547–555CrossRef
45.
Moghaddam RR (2007) Synchronous reluctance machine (SynRM) design. PhD thesis, Royal Institute of Technology Department of Electrical Engineering
46.
Boztas G, Aydogmus O, Caner M, Guldemir H (2019) Design, optimisation and implementation of low-voltage synchronous reluctance motor for solar-powered systems. IET Power Electr 12(1):1679–1685CrossRef
Metadaten
Titel
Design and implementation of a high-efficiency low-voltage synchronous reluctance motor
verfasst von
Gullu Boztas
Omur Aydogmus
Hanifi Guldemir
Publikationsdatum
14.06.2021
Verlag
Springer Berlin Heidelberg
Erschienen in
Electrical Engineering / Ausgabe 2/2022
Print ISSN: 0948-7921
Elektronische ISSN: 1432-0487
DOI
https://doi.org/10.1007/s00202-021-01336-z

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