Evaluаting the Role of Mutual Induction between the Track Coils in a High?Speed Train’s Electrodynamic Suspension System

  • Sergey N. ZAIKIN
Keywords: high-speed ground transportation, magnetic electrodynamic suspension, maglev, linear synchronous motor

Abstract

A high-speed train with an electrodynamic suspension with discrete track coils, a superconducting excitation winding and a null-flux connection scheme of the suspension coils is considered. The influence of the individual coefficients of mutual inductance in the system of track coils on the average lift forces, lateral stabilization, electrodynamic resistance to motion and the amplitude of their pulsations as a function of speed is estimated. The change in the levitation quality parameter is analyzed depending on the mutual inductance of the suspension coils at all speeds of motion. For a given car mass m = 20 tons, the balance vertical offset (when the lift force compensates the car’s weight) is obtained from the speed of movement.
The dependence of the lateral and vertical stiffness of the system on speed is demonstrated. The dependence of the required lateral deviation of the train on the radius of the curve to be overcome is obtained.

Author Biography

Sergey N. ZAIKIN

ZAIKIN Sergey N. (Traction control of JSC «Russian Railways», Ekaterinburg, Russia) — 1st category Engineer

References

1. Дзензерский В.А., Омельяненко В.И. Высокоскоростной магнитный транспорт с электродинамической левитацией. Киев: Наукова думка, 2001, 479 с.
2. Railway Technical Research Institute [Электрон. ресурс] URL: http://www.rtri.or.jp/eng/ (дата обращения 12.12.2919).
3. Ким K.K. Системы электродвижения с использованием магнитного подвеса и сверхпроводимости. М.: ГОУ «Учеб­но-методический центр по образованию на железнодорожном транспорте», 2007, 360 с.
4. Бахвалов Ю.А., Бочаров В.И., Винокуров В.А. Транспорт с магнитным подвесом/Под общ. ред. В.И. Бочарова, В.Д. Нагорского. М.: Машиностроение, 1991, 316 с.
5. Заикин С.Н., Соколов О.Б. Математическое моделирова­ние стационарных режимов работы линейного синхронного двигателя для поезда с электродинамическим подвесом. — Транспорт Урала, 2014, № 4 (43), с. 76—82.
6. Заикин С.Н., Соколов О.Б. Исследование устойчивости стационарного режима работы линейного синхронного электропривода вагона на электродинамическом подвесе. — Транс­порт Урала, 2015, № 2 (45), с. 71-79.
#
1. Dzenzerskiy V.A., Omel’yanenko V.I. Vysokoskorostnoy magnitnyy transport s elektrodinamicheskoy levitatsiyey (High-speed magnetic transport with electrodynamic levitation). Kiyev: Naukova Dumka, 2001, 479 p.
2. Railway Technical Research Institute [Electron. Resourse] URL: http://www.rtri.or.jp/eng/ (Data of apple 12.12.2019).
3. Kim K.K. Sistemy elektrodvizheniya s ispol’zovaniyem magnitnogo podvesa i sverkhprovodimosti (Electric propulsion systems using magnetic suspension and superconductivity). M.: GOU «Uchebno?metodicheskiy tsentr po obrazovaniyu na zheleznodorozhnom transporte, 2007, 360 p.
4. Bakhvalov Yu.A., Bocharov V.I., Vinokurov V.A. Transport s magnitnym podvesom/Pod obshch. red. V.I. Bocharova, V.D. Nagorskogo (Transport with magnetic suspension/ Under the total. ed. Bocharov, V.D. Nagorsky). M.: Mashinostroyeniye, 1991, 316 p.
5. Zaikin S.N., Sokolov O.B. Transport Urala – in Russ. (Ural Transport), 2014, No. 4 (43), pp. 76 — 82.
6. Zaikin S.N., Sokolov O.B. Transport Urala – in Russ. (Ural Transport), 2015, № 2 (45), pp. 71–79.
Published
2020-07-01
Section
Article