GEOMETRIC AND ELECTROPHYSICAL PARAMETERS OF ARMATURE WINDING OF ELECTROMECHANICAL CONVERTER OF INERTIAL ENERGY STORAGE FOR SUBURBAN TRAINS
DOI:
https://doi.org/10.20998/2074-272X.2020.1.11Keywords:
inertial electromechanical energy storage, electromechanical converter, armature winding, machine constants, active resistance, inductive resistanceAbstract
Purpose. To establish analytical expressions of machine constant and electromagnetic parameters for a specific circuit of the armature winding of an electromechanical converter of an inertial energy storage device, which is a DC electric machine with a semiconductor switch and excitation from permanent magnets. Methodology. For research the theory of electrical circuits is used to create a mathematical model of the processes of electromechanical energy conversion in an inertial storage device. The plots method is used to find the mutual inductance of the armature winding coils, which are presented in the form of infinitely thin single-turn contours of rectangular shape, located in three-dimensional space. Results. Mathematical models of the processes of electromechanical energy conversion in an inertial storage device are obtained reflecting the relationship between the exchange energy and drive power with geometric and electrophysical parameters of both the energy accumulator and the system of its electromechanical converter. A connection of the parameters of machine constant, active and inductive resistances with the configuration, wiring diagram and the geometric dimensions of the armature winding has been established. The wiring of sections in the phase of the armature winding depends on the required value of the voltage and current of the machine. The possibility of regulating the voltage of the drive by switching on and off the working phases of the system of electromechanical converter, as well as by changing the angle of the load is shown. Originality. Mathematical models are obtained that relate the indicators of the energy of exchange and the power of the drive to the geometrical and electro physical parameters of both the energy accumulator and the system of its electromechanical converter. A feature of these models is operating with an average value of induction and machine constants when determining the electromotive force and electromagnetic moment. Practical value. Recommendations are developed for determining the machine constant and electromagnetic parameters of electromechanical inertial energy storage devices. This allows to evaluate the properties of devices of this type in the modes of storage and delivery of energy during their operation on board the rolling stock.References
Doki T., Takahara E., Yamada J. A study for electric double layer capacitor series connection for railway traction. Proc. of IEE 2003 Japan Industry Appl. Soc. Conf., 2003, vol. 3, pp. 179-182.
Sameshima H., Ogasa M., Yamamoto T. On-board characteristics of rechargeable lithium ion batteries for improving energy regenerative efficiency. Quarterly Report of RTRI, 2004, vol. 45, no. 2, pp. 45-52. doi: 10.2219/rtriqr.45.45.
Witthuhn M. Schwungradspeicher in Diesel triebfahrzeugen. Elektrische bahnen, 2002, no. 3, pp. 110-113. (Ger).
Lenhard D., Engel B., Langwost J., Söffker C. Elektrische Ausüstung des Triebyuges LIREX Baureihe 618/619 für DB Regio. Elektrische Bahnen, 2000, no. 8, pp. 279-289. (Ger).
Omelianenko V.I., Omelianenko G.V. Electromechanical energy converter of inertial storage for traction power supply networks. Russian Electromechanics, 2001, no. 4-5, pp. 67-74. (Rus).
Omelyanenko V.I., Ryabov E.S., Overyanova L.V. Local train with electromechanical inertial energy storage unit. Vestnik VELNII, 2014, no. 2(68), pp. 89-102. (Rus).
Dzenzerskii V.A., Omelianenko V.I., Vasiliev V.I., Matin V.I., Sergeev S.A.Vysokoskorostnoi magnitnyi transport s elektrodinamicheskoi levitatsiei [High-speed magnetic transport with electrodynamic levitation]. Kyiv, Fiz.-mat. i tekh. lit. Publ., 2001. 479 p. (Rus).
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Copyright (c) 2020 H. V. Omelianenko, L. V. Overianova, A. S. Maslii

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