STUDYING AN ELECTRIC LOCOMOTIVE DRIVING CYCLE MODEL WITH AN EXPERIMENTAL ELECTRIC ENERGY STORAGE DEVICE FOR SHUNTING OPERATIONS
Abstract and keywords
Abstract (English):
Currently, there has been an active transition to electrified vehicles due to energy cost reduction and increased density of electro-chemical power sources. This has been manifested in the rolling stock electrification in the railway industry, especially in railway stations and depots where the use of diesel engines is limited due to environmental factors. In addition, electric locomotives can operate on non-electrified railway sections and this opens up new prospects for the sustainable development of transport infrastructure. Purpose: To study the technical parameters and energy characteristics of the electric energy storage for efficient use on electric locomotives. Methods: This article considers the key issues of energy of driving cycles and application of electric energy storage on electric locomotives. The experimental data obtained have been compared with the calculated ones. Results: A driving cycle model of a battery locomotive has been developed based on the calculation of the diesel generator (DGS) operating time of a traditional diesel locomotive. The experimental data on the energy storage system (ESS) operation as part of an electric locomotive, as well as the obtained data analysis are presented. The ESS technical parameters necessary for ensuring the electric locomotive efficient operation within the daily cycle of work at the railway station have been identified. Practical significance: The conducted studies have illustrated the energy parameters and operating modes of the contact-battery shunting locomotive during the workday. They allow determining the ESS parameters such as charge and discharge capacity and energy consumption average and maximum values. The study can promote the creation of more efficient mechanisms for the electrical energy accumulation and application, which will reduce the electric locomotive operating costs and increase their energy efficiency. Practical research of electrical energy storage devices can be useful not only for rail transport but also for other areas where efficient energy saving systems are essential

Keywords:
Electrical energy storage device, electric locomotive, driving cycles, lithium-ion battery, rail transport
Text
Text (PDF): Read Download
References

1. Alekov S. F. Increasing the durability of diesel generator engines by using energy storage systems and optimizing operating modes / S. F. Alekov, A. A. Pegachkov // STEEL IN TRANSLATION 2024. — Pp. 220–225.

2. Marius A. G. Electric Drive Solution for Short Distance Passenger Railway Vehicles on Non-Electrified or Mixed Lines / A. G. Marius, P. Gabriel, A. Sorin // Electric Vehicles International Conference (EV) 2019. — 5 p. Problematika transportnyh sistem 101 ISSN 2223-9987. Byulleten' rezul'tatov nauchnyh issledovaniy 2025/1

3. Hoang-Phuong N. CO2 Reduction Potential by Putting Electric Vehicles into Operation in Phu Quoc Island, Viet Nam / N. Hoang-Phuong, V. Viet-Cuong, L. Tan-Dong et al. // IEEE Conference 2019. — 6 p.

4. Schurov N. I. Analiz vliyaniya rezhimov dvizheniya elektromobiley na process stareniya tyagovyh akkumulyatorov na osnove cikla WLTC / N. I. Schurov, A. A. Shtang, S. I. Dedov i dr. // Zhurnal Sibirskogo federal'nogo universiteta. Seriya: Tehnika i tehnologii. — 2020. — T. 13(8). — S. 977–990.

5. Florian D. Modeling Large-Scale Manufacturing of Lithium-Ion Battery Cells: Impact of New Technologies on Production Economics / D. Florian // IEEE Transactions on Engineering Management 2023. — Pp. 6753–6769.

6. Mingyue J. Evaluation on Total Cost of Ownership of Electric Forklifts with lithium-ion battery / J. Mingyue, P. Fengwen, H. Xueqi et al. // IEEE 4th International Electrical and Energy Conference (CIEEC) 2021.

7. Umar S. Comparing the economic value of lithium-ion battery technologies in the nine wholesale electricity markets in North America 2022 / S. Umar, B. Sacha, J. Zekun et al. — Pp. 363–373.

8. GOST R 55364 — 2012. Elektrovozy. Obschie tehnicheskie trebovaniya. — M.: Standartform, 2013. — 36 s.

9. Federal'nyy zakon ot 22.07.2008 №123-FZ «Tehnicheskiy reglament o trebovaniyah pozharnoy bezopasnosti».

10. GOST 34394—2018. Lokomotivy i motorvagonnyy podvizhnoy sostav. Trebovaniya pozharnoy bezopasnosti. M.: Standartform, 2018. — 19 s.

11. Tehnicheskiy reglament Tamozhennogo soyuza TR TS 018/2011 «O bezopasnosti kolesnyh transportnyh sredstv» (redakciya, deystvuyuschaya s 20 maya 2023 goda). — 322 s.

12. Akulichev V. O. Primenenie mobil'nyh sistem nakopleniya elektricheskoy energii dlya elektrosnabzheniya udalennyh potrebiteley maloy i sredney moschnosti / V.O. Akulichev V. V. Mikryukov, A.A. Pacev i dr. // Elektroenergiya. Peredacha i raspredelenie. — 2022. — № 6(75).

13. Ablazov B. G. Tehnologiya bespereboynogo elektrosnabzheniya udalennyh potrebiteley s primeneniem mobil'nyh sistem nakopleniya elektricheskoy energii na baze litiy-ionnyh akkumulyatornyh batarey / B. G. Ablazov, E. V. Ezhov, A. S. Kulikov // Rosnano. — URL: https:// www.rusnano.com/upload/documents/BMSNEE-Article.pdf.

14. Helmut W. Battery powered high efficiency drive systems in practical applications / W. Helmut // Trudy Mezhdunarodnoy shestnadcatoy nauchno-tehnicheskoy konferencii «Elektroprivody peremennogo toka», g. Ekaterinburg, 05–09 oktyabrya 2015 g. — Ekaterinburg: UrFU, 2015. — S. 163–166. — URL: http://elar.urfu.ru/handle/10995/35302 2015.

15. Helmut W. Large lithium-ion battery-powered electric vehicles — from idea to reality / W. Helmut, W. Thomas, Z. Herbert // IEEE Conference 2018. — 5 p.

16. Shtang A. A. Battery-electric shunting locomotive with lithium-polymer storage batteries / A. A. Shtang, M. V. Yaroslavtsev // 11th International Forum on Strategic Technology (IFOST) 2016. — 4 p. 102 Problematika transportnyh sistem 2025/1 Bulletin of Scientific Research Results

17. Yodsaphat W. A Design of Energy Storage System for Electric Locomotive / W. Yodsaphat, R. Tananat, T. Chanchai // IEEE Conference 2021. — 4 p.

18. Sokirka O. P. Daydzhest perspektivnye tehnologii razvitiya otrasli zheleznodorozhnogo transporta / O. P. Sokirka. — ROSZhELDOR Federal'noe gosudarstvennoe byudzhetnoe obrazovatel'noe uchrezhdenie vysshego obrazovaniya «Rostovskiy gosudarstvennyy universitet putey soobscheniya» (FGBOU VO RGUPS), 2023. — 124 c.

19. Alekov S. F. Obzor sistem termostatirovaniya litiy-ionnyh yacheek akkumulyatornoy batarei / S. F. Alekov, T. V. Golubchik // Remont. Vosstanovlenie. Modernizaciya. — 2022. — № 6. — S. 20–25.

20. Golubchik T. V. Rezul'taty eksperimental'nyh ispytaniy litiy-zhelezo-fosfatnogo akkumulyatora proizvodstva kompanii «LIOTEH» v nizkotemperaturnyh usloviyah / T. V. Golubchik, A. S. Kulikov // Elektronika i elektrooborudovanie transporta. 2021. — № 1. — S. 17–20.

21. Miheev V. A. Ocenka ekspluatacionnoy ekonomichnosti dizel'nyh lokomotivov na zadannom uchastke obsluzhivaniya / V. A. Miheev // Vestnik SibADI. — 2015. — Vyp. 1(41). — S. 91–96.

22. Miheev V. A. Raschet vremeni ekspluatacionnoy raboty dizel'-generatornoy ustanovki teplovoza po poziciyam kontrollera mashinista / V. A. Miheev // Vestnik IrGTU. — 2010. — № 2(42). — S. 142–146.

23. Laxman T. Battery Degradation in Electric and Hybrid Electric Vehicles: A Survey Study / T. Laxman, R. Payam, H. Phuong et al. // IEEE 2023. — Pp. 42431–42462.

24. Aramis P. Modelling the degradation process of lithium-ion batteries when operating at erratic state-of-charge swing ranges / P. Aramis, Q. Vanessa, R. Heraldo et al. // IEEE Conference 2017. — 6 p.

25. Ahmed S. A. Battery Energy Management Techniques for an Electric Vehicle Traction System / S. A. Ahmed, M. Shayok, R. Habibur // IEEE Access. 2022. — Vol. 10. — Pp. 84015–84037.

26. Mingyu L. Electric Vehicle Operation Scheduling Optimization Considering Electrochemical Characteristics of Li-ion Batteries / L. Mingyu, H. Bing, L. Shaofeng // 35th Youth Academic Annual Conference of Chinese Association of Automation (YAC). — 2020. — Pp. 89–94.

27. Wang H. The influence of operating conditions on discharge characteristics for traction battery / H. Wang, H. Sun, W. Chen et al. // 5th International Conference on Information Science and Control Engineering. — 2018. — Pp. 1286–1290.

Login or Create
* Forgot password?