MATRIX STRUCTURE OF UNIFIED MATHEMATICAL MODEL OF ELECTRIC AC MACHINES AT CONTROL

Расписание выступлений еще не составлено
20m
Main conference hall of MESI SB RAS (Irkutsk (Russia) / Иркутск)

Main conference hall of MESI SB RAS

Irkutsk (Russia) / Иркутск

Lermontov str., 130, Irkutsk, Russia, 664033

Докладчик

Prof. Nurali Yusifbayli (Azerbaijan State Oil and Industry University)

Тезисы доклада

The matrix structure of the equations of a generalized electric alternating current machine is proposed, which, based on the Parke equations, is written in the coordinate axes of the machines rotating with the rotor speed. In the matrix structure, the column matrices of the derivatives of the stator, excitation and rotor windings are equal to the product of diagonal matrices consisting of the machine parameters and the column matrices of the flux links themselves and the sum of the matrix columns of the control parameters which are the matrix columns of the stator voltage, excitation voltage, androtorvoltage.
It is shown that the matrix structure of a generalized controlled AC machine is transformed into mathematical models of almost all encountered AC electric machines, namely, into a synchronous machine with two excitation windings - a longitudinal and a transverse one; in a synchronous machine with a longitudinal field winding (classic); in an asynchronous machine with a squirrel-cage rotor; into an asynchronous machine with a phase rotor.Ithasbeenshown that the matrix structure includes the controls of these machines both from the stator and from the rotor. On the stator side for synchronous machines, it is a frequency control that regulates both the amplitude and frequency of the applied voltage, and on the rotor side, a constant voltage control is supplied to the longitudinalandtransversewindings.
For asynchronous machines, the stator and rotor are frequency-controlled. The following are examples of frequency control of an asynchronous machine both from the stator andfromtherotor
.

Literature

  1. Boldea I., Tutelea L.“Electric Machines. Steady State, Transients and Design with MATLAB”, CRC Press, Boca Raton, USA, 2010
    2.Botvinnik M.M., Shakaryan Y.G.“AC controlling machine. Sciences”, Moscow, 1969
  2. Bhiasson J.“Modeling and High-Performance Control of Electrical Machines”, IEEE Press, Wiley Interscience, Hoboken, USA, 2005
  3. Kazovskiy E.Y. “Transients in AC electric machines”, Publ. Academy of Sciences SSSR, Moscow, 1962
  4. Kopylov I.P. Mathematical modeling of electric machines. Head School, Moscow, 1987
  5. Kovach K.P., Rats I.“Transients in AC machines”, Trans. from German. Publ. Gosenergoizdat, Moscow, Leningrad, 1963
  6. Mustafayev R.I., Hasanova L.H.“Modeling and research of operating modes of synchronous wind turbine generators with frequency control”, Electricity, 2010, No. 7, p. 34-40
  7. Ong M.C.“Dynamic Simulation of Electric Machinery using Matlab”, Simulink,Prentice Hall, Jersey, USA, 1998
  8. Parviainen A., Niemela M., Pyrhonen J.“Modeling of axial flux permanent-magnet machines” IEEE Transactions on Industry Applications, 2004, v.40, No. 5, pp. 1333-1340
  9. Simion A., Livadaru L., Munteanu A. Mathematical Model of the Three-Phase Induction Machine for the Study of Steady-State and Transient Duty Under Balanced and Unbalanced States, 2012
  10. Sokolov N.I. Use of analogue computers in energy systems. Publ. Energy, Moscow, Leningrad,m1964
  11. Sul K.S. Control of Electric Machine Drive Systems. IEEE Press, Wiley Interscience, Hoboken, USA, 2011

Основные авторы

Prof. Rauf Mustafayev (Azerbaijan Scientific-Research & Designed-Prospecting Institute of Energetics) Prof. Nurali Yusifbayli (Azerbaijan State Oil and Industry University) Laman Hasanova (Azerbaijan Scientific-Research & Designed-Prospecting Institute of Energetics)

Материалы для выступления

Peer reviewing

Paper