Dynamic Modeling in a Switched Reluctance Motor SRM using Finite Elements
Abstract
This paper study the dynamic modeling of three phases, 6/4 Switched reluctance motor (SRM). We have studied the models of electromagnetic field using the finite element method (FEM) for calculation flux linkage and static torque. From the modeling have found a nonlinear of dynamic model, the SRM model has been then tested in a matlab/simulink environment, using nonlinear 2D look-up tables created from its calculated flux linkage and static torque data. The simulation studies for hysteresis and voltage control strategies.References
[1] Hao C., Constantin P.: Large power analysis of switched reluctance machine system for coal mine. Mining Science and Technology 19, 2009, s. 0657–0659.
[2] Hasanien H.M., Muyeen S.M.: Tamura J., Torque ripple minimization of axial laminations switched reluctance motor provided with digital lead controller. Energy Conversion and Management 51, 2010, s. 2402–2406.
[3] Chen H., Trifa V.: Design of 2000kW switched reluctance machine system. Procedia Earth and Planetary Science 1, 2009, s. 1380–1384.
[4] Ding W., Liang D., Tang R.: A fast nonlinear variable structure equivalent magnetic circuit modeling for dual-channel switched reluctance machine. Energy Conversion and Management 52, 2011, s. 308–320.
[5] Balaji M., Kamaraj V.: Evolutionary computation based multi-objective pole shape optimization of switched reluctance machine. Electrical Power and Energy Systems 43, 2012, s. 63–69.
[6] Song Q., Wang X., Guo L., Cheng L.: Double switched reluctance motors parallel drive based on dual89C52 single chip microprocessors. Procedia Earth and Planetary Science 1, 2009, s. 1435–1439.
[7] Chuang T.S.: Acoustic noise reduction of a 6/4 SRM drive based on third harmonic real power cancellation and mutual coupling flux enhancement, Energy Conversion and Management 51, 2010, s. 546–552.
[8] Shoujun S., Weiguo L., Peitsch D., Schaefer U.: Detailed Design of a High Speed Switched Reluctance Starter/Generator for More/All Electric Aircraft. Chinese Journal of Aeronautics 23, 2010, s. 216-226.
[9] Liu S., Tan G., Luo G., Zhang X., Ma Z.: Magnetic Performance of Shearer Switched Reluctance Motors Drive. Procedia Earth and Planetary Science 2, 2011, s. 98 – 103.
[10] Zarchi H.A., Markadeh G.R.A., Soltani J.: Direct torque and flux regulation of synchronous reluctance motor drives based on input–output feedback linearization. Energy Conversion and Management 51, 2010, s. 71–80.
[11] dos Reis L.L.N., Coelho A.A.R., Almeida O.M., Campos J.C.T.: Modeling and controller performance assessment for a switched reluctance motor drive based on setpoint relay, ISA Transactions 48, 2009, s. 206–212.
[12] Chen H.J., Lu S.L., Shi L.X.: Development and validation of a general-purpose ASIC chip for the control of switched reluctance machines. Energy Conversion and Management 50, 2009, s. 592–599.
[13] Wang S.C.: An fully-automated measurement system for identifying magnetization characteristics of switched reluctance motors. Measurement 45, 2012, s. 1226–1238.
[2] Hasanien H.M., Muyeen S.M.: Tamura J., Torque ripple minimization of axial laminations switched reluctance motor provided with digital lead controller. Energy Conversion and Management 51, 2010, s. 2402–2406.
[3] Chen H., Trifa V.: Design of 2000kW switched reluctance machine system. Procedia Earth and Planetary Science 1, 2009, s. 1380–1384.
[4] Ding W., Liang D., Tang R.: A fast nonlinear variable structure equivalent magnetic circuit modeling for dual-channel switched reluctance machine. Energy Conversion and Management 52, 2011, s. 308–320.
[5] Balaji M., Kamaraj V.: Evolutionary computation based multi-objective pole shape optimization of switched reluctance machine. Electrical Power and Energy Systems 43, 2012, s. 63–69.
[6] Song Q., Wang X., Guo L., Cheng L.: Double switched reluctance motors parallel drive based on dual89C52 single chip microprocessors. Procedia Earth and Planetary Science 1, 2009, s. 1435–1439.
[7] Chuang T.S.: Acoustic noise reduction of a 6/4 SRM drive based on third harmonic real power cancellation and mutual coupling flux enhancement, Energy Conversion and Management 51, 2010, s. 546–552.
[8] Shoujun S., Weiguo L., Peitsch D., Schaefer U.: Detailed Design of a High Speed Switched Reluctance Starter/Generator for More/All Electric Aircraft. Chinese Journal of Aeronautics 23, 2010, s. 216-226.
[9] Liu S., Tan G., Luo G., Zhang X., Ma Z.: Magnetic Performance of Shearer Switched Reluctance Motors Drive. Procedia Earth and Planetary Science 2, 2011, s. 98 – 103.
[10] Zarchi H.A., Markadeh G.R.A., Soltani J.: Direct torque and flux regulation of synchronous reluctance motor drives based on input–output feedback linearization. Energy Conversion and Management 51, 2010, s. 71–80.
[11] dos Reis L.L.N., Coelho A.A.R., Almeida O.M., Campos J.C.T.: Modeling and controller performance assessment for a switched reluctance motor drive based on setpoint relay, ISA Transactions 48, 2009, s. 206–212.
[12] Chen H.J., Lu S.L., Shi L.X.: Development and validation of a general-purpose ASIC chip for the control of switched reluctance machines. Energy Conversion and Management 50, 2009, s. 592–599.
[13] Wang S.C.: An fully-automated measurement system for identifying magnetization characteristics of switched reluctance motors. Measurement 45, 2012, s. 1226–1238.
Published
2013-05-28
How to Cite
GUETTAF, Abderrazak et al.
Dynamic Modeling in a Switched Reluctance Motor SRM using Finite Elements.
Journal of Power Technologies, [S.l.], v. 93, n. 3, p. 149--153, may 2013.
ISSN 2083-4195.
Available at: <https://papers.itc.pw.edu.pl/index.php/JPT/article/view/442>. Date accessed: 19 apr. 2024.
Issue
Section
Energy Conversion and Storage
Keywords
Switched reluctance motor; static converter; control; finite element; analysis.
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