Summary
An efficient industrial development process of customized variable speed drive systems is today preferably assisted by modern and efficient numerical calculation methods. This allows that different electronic circuit versions of the power stack interacting with novel control strategies as well as innovative motor topologies, novel winding schemas and advanced material properties can be investigated with respect to the complete drive system. Fortunately, different case studies on various drive systems can be performed without excessive prototyping in advance, whereby costs are kept as low as possible.
Zusammenfassung
Der industrielle Entwicklungsprozess von kundenspezifischen drehzahlveränderlichen elektrischen Antrieben wird heutzutage vorteilhaft durch moderne, effiziente numerische Rechenverfahren unterstützt. Dies ermöglicht nun, dass einerseits der Einsatz von diversen elektrischen Schaltungsvarianten des Leistungsteils mitsamt neuartigen Regelungsstrategien und andererseits innovative Motortopologien, neue Wicklungsanordnungen und verbesserte Materialeigenschaften im Zusammenwirken mit dem kompletten Antriebssystem untersucht werden können. Unterschiedliche Studien über diverse Ausführungen von elektrischen Antrieben können ohne den Bau von Prototypen durchgeführt werden, wodurch die Entwicklungskosten so gering wie möglich gehalten werden können.
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References
Bastos, J. P. A., Sadowski, N. (2003): Electromagnetic modeling by finite element method. New York, Basel: Marcel Dekker.
Beinhorn, R., Gekeler, M. (1991): Kostengünstiges Positionieren mit bürstenlosen Servoantrieben. Antriebstechnik 30: 84–92.
Bödefeld, T., Sequenz, H. (1942): Elektrische Maschinen. Wien, Heidelberg, New York: Springer.
Brosch, P. F. (1989): Moderne Stromrichterantriebe. Würzburg: Vogel.
Davat, B., Ren, Z., Lajoic-Mazenc, M. (1985): The movement in field modeling. IEEE Transactions on Magnetics 21 (6): 2296–2298.
DeBortoli, M. J. (1992): Extensions to the finite element method for the electromechanical analysis of electrical machines. PhD Thesis. New York: Rensselaer Polytechnic Institute.
Erdman, D. M., Harms, H. B. Oldenkamp, J. L. (1984): Electronically commutated dc motors for the appliance industry. IEEE Transactions on Industry Application IA-84 (48): 1339–1345.
Fouad, F. A., Nehl, T. W., Demerdash, N. A. (1981): Magnetic field modeling of permanent magnet type electronically operated synchronous machines using finite elements. IEEE Transactions on Power Apparatus and Systems PAS-100 (9): 4125–4135.
Green, T. C., Williams, B. W. (1998): Derivation of the motor line current wave forms from the DC-link current of an inverter. IEE Proceeding 136 (4): 196–204.
Hendershot, J. R., Miller, T. J. E. (1994): Design of brushless permanent-magnet motors. Oxford: Oxford University Press.
Heumann, K. (1986): Principles of power electronics. Berlin, Heidelberg, New York: Springer.
Huth, G. (1989): Grenzkennlinien von Drehstrom-Servoantrieben. Etz-Archiv 11, Vol. 12.
Jahns, T. M. (1984): Torque production in permanent-magnet synchronous motor drives with rectangular current excitation. IEEE Transactions on Industry Application IA-20 (4): 803–813.
Jakubowicz, A., Nougaret, M., Perret, R. (1980): Simplified model and closed loop control of a commutatorless dc motor. IEEE Transactions on Industry Applications IA-16 (2): 165–172.
Königshofer, T. (1959): Die praktische Berechnung elektrischer Maschinen. Berlin: Technischer Verlag Herbert Cram.
Lehmann, R. (1989): Technik der bürstenlosen Servoantriebe. Elektronik 21: 96–97.
Leonhard, W. (2001): Control of electrical drives. Berlin, Heidelberg, New York: Springer.
Lipo, T. A., Turnbull, F. G. (1975): Analysis and comparison of square wave inverter drives. IEEE Transactions on Industry Application IA-11 (2): 137–147.
Miller, T. J. E. (1989): Brushless permanent magnet and reluctance motor drive. Clarendon: Clarendon Press.
Nehl, T. W., Fouad, F. A., Demerdash, N. A. (1981): Digital simulation of power conditioner machine interaction for electronically commutated dc permanent magnet machines. IEEE Transactions on Magnetics 17 (6): 3284–3286.
Nehl, T. W., Fouad, F. A., Demerdash, N. A., Maslowski, E. A. (1982): Dynamical simulation of radially oriented permanent magnet type electronically operated synchronous machines with parameters obtained from finite element field solutions. IEEE Transactions on Industry Application IA-18 (2): 172–182.
Pillay, P., Krishnan, R. (1987): Modeling, simulation and analysis of a permanent magnet brushless dc motor drive. IEEE Transactions on Industry Application IAS-1: 7–14.
Pillay, P., Krishnan, R. (1988): An investigation into the torque behavior of a brushless dc drive. IEEE Transactions on Industry Application and Systems IAS-1: 201–208.
Salon, J. S. (1996): Finite element analysis of electrical machines. Cambridge: Cambridge University Press.
Schröder, M. (1980): Einfach anzuwendendes Verfahren zur Unterdrückung der Pendelmomente dauermagneterregter Synchronmaschinen- Etz-Archiv 10, Vol. 1.
Schülting, L., Skudelny, H. C. (1991): A control method for permanent magnet synchronous motors with trapezoidal electromotive force. European Power Electronic Conf. EPE 4: 117–122.
Seguier, G., Labrique, G. (1989): Power electronic converters: dc to ac conversion. Berlin, Heidelberg, New York: Springer.
Stermecki, A., Ticar, I., Biro, O., Preis, K. (2005): Numerical analysis of permanent magnet motor performance considering rotor movement. IEEE Transactions on Magnetics 41 (5): 2004–2007.
Szabo, I. (1972): Technische Mechanik. Berlin, Heidelberg, New York: Springer.
Zimmermann, P. (1982): Electronically commutated dc feed drives for machine tools. Drives and Control 2: 13–20.
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Grabner, C. Development of a novel electronically commutated drive system with modern design tools. Elektrotech. Inftech. 124, 158–165 (2007). https://doi.org/10.1007/s00502-007-0436-5
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DOI: https://doi.org/10.1007/s00502-007-0436-5
Keywords
- Electronically commutated permanent magnet motor
- Finite element method with coupled circuit
- Inverter topology
- Integrated circuit
- Control method