A virtual electric machine laboratory for effect of saturation of the asynchronous machine application

Computer Applications in Engineering Education

Volumn 17, Issue 4, 2009, Pages 422-428

  Tanyildizi, E ^a   Orhan, A ^a  

^a FIRAT UNIVERSITY   (Turkey)

Author keywords

Asynchronous motor; Distant education; Magnetic saturation; Virtual laboratory

Indexed keywords

ASYNCHRONOUS MACHINE; ASYNCHRONOUS MOTOR; CONSTANT PARAMETERS; EDUCATION PROGRAMS; EDUCATIONAL APPROACH; ELECTRIC MACHINES; FUNCTIONAL INTERFACE; LABORATORY PRACTICES; MAGNETIC SATURATION; MAGNETIC SATURATION EFFECTS; PRACTICAL EXPERIENCE; PRACTICAL SKILL; PROFESSIONAL LIFE; REAL TIME; REFERENCE FRAME; RUNNING-IN; SATURATION REGION; SUPPORTIVE TOOLS; VIRTUAL APPLICATION; VIRTUAL LAB; VIRTUAL LABORATORIES;

ELECTRIC MACHINERY; ELECTRICAL ENGINEERING; ENGINEERING EDUCATION; LABORATORIES; MOTORS; POWER CONVERTERS; SATURATION MAGNETIZATION; TEACHING; TRANSIENT ANALYSIS;

DISTANCE EDUCATION;

EID: 70450034607     PISSN: 10613773     EISSN: 10990542     Source Type: Journal    
DOI: 10.1002/cae.20229     Document Type: Article

References (16)

1. E. Tanyildizi, and A. Orhan, Development of a virtual electric machinery laboratory for electric engineering education, EPVET'2007, International Conference on E-Portfolio Process in Vocational Education; Present and Future, Bucharest, Romania, 2007.
2. E. Tanyildizi, and A. Orhan, Sanal Elektrik Makinalarl Için F1rçaslz Doǧru Aklm Motoru Uygulamasl, Elektrik-Elektronik- Bilgisayar Mühendisliǧi Sempo-zyumu, ELECO 2004.
3. E. Tanyildizi, and A. Orhan, Sanal, Eǧitim ve Uzaktan Ö ǧrenme, Elektrik-Elektronik-Bilgisayar Mühendisl-kleri 2, Ulusal Sempozyumu 2005.
4. A. Keyhani, M. N. Marwalli, L. E. Higuera, G. Athalye, and G. Baumgartner, An integrated virtual learning system for the development of motor drive systems, IEEE Trans Power Syst 17 (2002), 1-6.
5. L. Hsifeng, Q. Wenlong, and H. Bin, Nonlinear modeling and simulation of induction machine, IEEE 3 (2004), 504-507.
6. M. Gokbulut, C. Bal, and B. Dandll, A virtual electrical drive control laboratory: Neuro-fuzzy control of induction motors, Comput Appl Eng Educ 14 (2006), 211-221.
7. M. Dal, Asenkron Motorun Vektör Kontrolü ve Dayanlkl l Akl Gözlemleyici Tasarlml, Doktora Tezi, Kocaeli Üniversitesi Fen Bilimleri Enstitüsü, Kocaeli, 2001.
8. S. Peresada, A. Tilli, and A. Tonielli, Theoretical and experimental comparison of indirect field-oriented controllers for induction motors, IEEE Trans Power Elect 18 (2003), 151-163.
9. C. M. Ong, Dynamic simulation of electric machinery, Prentice Hall Ptr., New Jersey, 1998.
10. K. B. Bose, Modern power electronics and AC drivers, Prentice Hall, New Jersey, 2002.
11. E. Mendesand and A. Razek, A simple model for core losses and magnetic saturation in induction machines adapted for direct stator flux orientation control, Power Electronics and Variable-Speed Drives, 26-28 October 1994, Conference Publication No. 1339, IEE, 1994, pp 192-197.
12. G. R. Slemon, Modeling of induction machines for electric drives, IEEE Trans Ind Appl 25 (1989), 1126-1131.
13. C. R. Sullivan and S. R. Sanders, Models for induction machines with magnetic saturation of the main flux path, IEEE Trans Ind Appl 31 (1995), 907-917.
14. T. A. Lipoand and A. Consoli, Modeling and simulation of induction motors with saturable leakage reactance, IEEE Trans Ind Appl IA-20, (1984). 180-189.
15. J. Jung and K. Nam, A vector control scheme for EV induction motors with a series iron loss model, IEEE Trans Ind Electron 45 (1998), 617-624.
16. J. Faiz, M. B. Bannae Sharifian, H. Maddadi Khogabadi, and G. Gubiao, Simulation of induction motor with mechanical losses and saturation, Journal of Advanced Technology of Electrical Engineering and Energy 1 (1994), 55-61.