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Analysis of wheel pairs slip control of electric freight locomotive with asynchronous traction motors

https://doi.org/10.21780/2223-9731-2022-81-3-230-239

Abstract

Introduction. Every year, the amount of electric rolling stock with asynchronous traction motors is continuously increasing on the Russian railway network, since such traction drives have a number of advantages over drives with DC motors. One of the problems associated with the introduction of asynchronous motors and an increase in the mass of trains is the implementation of the maximum traction force by an electric locomotive at the threshold in terms of wheel – rail adhesion. Timely recognition of excessive slip of wheel pairs is the most important indicator of the efficiency of the traction drive in realising the maximum traction properties of the electric locomotive at all axles.

Materials and methods. The article reflects the results of the study of slip of electric locomotive wheel pairs with asynchronous traction motors and axial control of the traction force, obtained during experimental runs on a railway section under various adhesion conditions. The article presents a technique for studying the wheel pair adhesion failure of electric locomotives with asynchronous traction motors.

Results. During the comparison of the obtained experimental results with the calculated parameters by the O. Polach mathematical model, an updated range of the relative slip of wheel pairs is given, in which the electric locomotive control system could realise the maximum tractive effort. Exceeding this range will lead to increased wear of wheel pairs without increasing traction properties.

Discussion and conclusion. It is advisable to use the results of the study in the future when developing systems for controlling the tractive effort at the limit of adhesion and systems for controlling the slip of wheel pairs of electric freight locomotives with asynchronous traction motors.

About the Authors

A. N. Savos’kin
Russian University of Transport
Russian Federation

Anatoliy N. SAVOS’KIN, Dr. of Sci. (Engineering), Professor, Department of Electric Trains and Locomotives

127994, Moscow, 9, bldg. 9, Obraztsova St.



N. D. Shilin
Railway Research Institute
Russian Federation

Nikita D. SHILIN, Junior Researcher, Train Traction Research Center

129626, Moscow, 10, 3rd Mytishchinskaya St.



References

1. Luzhnov Yu. M. Nanotribologiya stsepleniya koles s rel'sami [Nanotribology of wheel – rail adhesion]. Moscow: Intext Publ.; 2009. 176 p. (In Russ.).

2. Menshutin N. N. Issledovanie skol'zheniya kolesnoy pary elektrovoza pri realizatsii sily tyagi [Investigation of the slipping of an electric locomotive wheel pair in the implementation of traction force]. Cand. Sci. thesis synopsis: 05.00.00. Moscow; 1961. 18 p. (In Russ.).

3. Samme G. V. Friktsionnoe vzaimodeystvie kolesnykh par lokomotiva s rel'sami. Teoriya i praktika stsepleniya lokomotiva [Frictional interaction of wheel pairs of a locomotive with rails. Theory and practice of locomotive adhesion]. Moscow: Ucheb.-metod. tsentr po obrazovaniyu na zh.-d. transporte Publ.; 2014. 104 p. (In Russ.).

4. Logston C. F., Jr., Itami G. S. Locomotive friction-creep studies. ASME J. Eng. Ind. 1980;(102):275-281.

5. Buscher M. Regulirovanie proskal'zyvaniya koles na elektrovozakh s asinkhronnym tyagovym privodom [Regulation of wheel slip on electric locomotives with asynchronous traction drive]. Zheleznye dorogi mira = Rail International (Russian edition). 1994;(4):30-45. (In Russ.).

6. Polach O. Creep forces in simulations of traction vehicle running on adhesion limit. Wear. 2005;(258):992-1000.

7. Polach O. SBB 460 Adhäsionsverhalten, Techn. Report No. 401 [SBB 460 Adhesion Behaviour, Technical Report No. 401]. SLM Winterhur. [S. l.]; 1992.

8. Polach O. Optimierung modern Lok-Drehgestelle durch fahrzeug-dynamische Systemanalyse [Optimization of modern locomotive bogies through vehicle dynamic system analysis]. Eisenbahningenieur. 2002;53(7):50-57.

9. Rozenfel'd V. E., Isaev I. P., Sidorov N. N. Teoriya elektricheskoy tyagi [Theory of electric traction]. 2nd ed. Moscow: Transport Publ.; 1983. 328 p. (In Russ.).

10. Osintsev I. A., Loginov A. A. Ustroystvo i ekspluatatsiya elektrovoza 2ES10 [Design and operation of an electric locomotive 2ES10]. Moscow: Russian Railways Publ.; 2015. 332 p. (In Russ.).

11. Labview. Rukovodstvo pol'zovatelya [LabView. User manual]. Translated from engl. by V. Nikolaev. Taganrog: TTI YuFU Publ.; 2008. 410 p. (In Russ.).

12. Burchak G. P., Vasil'ev A. P., Lyapushkin N. N., Savos'kin A. N. Model' vzaimodeystviya kolesa i rel'sa s uchetom diskretnogo stroeniya metalla kontaktiruyushchikh tel [Model of wheel and rail interaction taking into account the discrete structure of the metal of contacting bodies]. Vestnik mashinostroeniya = Instrumentation Herald. 2019;(2):21-28. (In Russ.).

13. Lyapushkin N. N. Prognozirovanie stsepnykh svoystv lokomotivov s razlichnymi tipami tyagovykh elektrodvigateley [Prediction of the adhesion properties of locomotives with different types of traction motors]. Dr. of Sci. thesis synopsis: 05.22.07. Moscow; 2013. 46 p. (In Russ.).

14. Shilin N. D., Prokof'ev S. N. Poosnoye pereraspredeleniye sil tyagi dlya elektrovozov s asinkhronnymi tyagovymi elektrodvigatelyami [Redistribution of tractive force per axle for electric locomotives with asynchronous traction motors]. Vestnik Nauchno-is sle dovatel'skogo instituta zheleznodorozhnogo transporta (Vestnik VNIIZhT) = Russian Railway Scientific Journal. 2022;81(2):148-156. https://doi.org/10.21780/2223-9731-2022-81-2-148-156. (In Russ.).


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For citations:


Savos’kin A.N., Shilin N.D. Analysis of wheel pairs slip control of electric freight locomotive with asynchronous traction motors. RUSSIAN RAILWAY SCIENCE JOURNAL. 2022;81(3):230-239. (In Russ.) https://doi.org/10.21780/2223-9731-2022-81-3-230-239

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ISSN 2223-9731 (Print)
ISSN 2713-2560 (Online)