A model of the electric power system of an alternating current railway with account of primary power supply system in the southern part of Iraq
https://doi.org/10.37493/2307-907X.2025.2.1
Abstract
Introduction. The electrification of railway transport is the key component in the modernization of national transport infrastructure. With increasing demand for efficient and eco-friendly transportation solutions, it plays a vital role in meeting these needs. The introduction of electric power systems is becoming a key factor for ensuring sustainable development. Alternating current (AC) railways are characterized by high-energy efficiency, which makes them attractive for large infrastructure projects, especially in regions with developing economies.
Goal. This study aims to create a comprehensive model of the AC railway power system in southern Iraq considering the primary power supply system. The model is designed to ensure efficient integration between the railway network and existing energy system in the region with account of such factors as technical specifications of power supply and operational loads.
Materials and methods. The study involves developing an enhanced model of the electrical system using the ETAP software, which considers national electrical grid connections, aids in determining the electric load consumed by trains, and compares it with current electricity production levels in Iraq.
Results and discussion. The studies provide information on the problems associated with a shortage of electricity production compared to consumption and offer solutions to meet energy needs in southern Iraq.
Conclusion. The article centers on securing a reliable power supply for the Baghdad-Basra railway in southern Iraq. Electrification has been a crucial step in modernizing rail transport, promoting regional development, and enhancing the power supply system across vast areas of the country.
About the Authors
M. J.J. AlsultanIraq
Mohammed J. J. Alsultan – Postgraduate Student of the Department of Electric Power Engineering of Transport,
9, building 9, Obraztsova str., Moscow, 127055, Russian Federation
Kerbala
M. V. Shevlyugin
Russian Federation
Maksim V. Shevlyugin – Dr. Sci. (Tech.), Associate Professor, Head of the Department of Electric Power Engineering of Transport,
9, building 9, Obraztsova str., Moscow, 127055, Russian Federation
References
1. Gazafrudi SMM, Langerudy AT, Fuchs EF, Al-Haddad K. Power quality issues in railway electrification: A comprehensive perspective. IEEE transactions on industrial electronics. 2014;62(5):3081-3090. Available from: https://ieeexplore.ieee.org/document/7000530 [Accessed 18 June 2024].
2. Altai HDS, Abed FT, Lazim MH, ALRikabi HTS. Analysis of the problems of electricity in Iraq and recommendations of methods of overcoming them. Periodicals of Engineering and Natural Sciences. 2022;10(1):607-614. [Accessed 12 June 2024].
3. Istepanian HH. Iraq's electricity crisis. The Electricity Journal. 2014;27(4):51-69. Available from: https://www.sciencedirect.com/science/article/abs/pii/S1040619014000827 [Accessed 15 June 2024].
4. Pyshkin AA, Ter-Oganov EV. Electricity supply of railways. Yekaterinburg: UrGUPS; 2014. 432 p. Available from: http://static.scbist.com/scb/uploaded/1_1400426538.pdf [Accessed 15 June 2024]. (In Russ.).
5. Iraqi Republic Railways 2022 (IRR). Available from: http://iraq-jccme.jp/files/railway-projects-Iraqrr25032022.pdf [Accessed 11 June 2024].
6. Ministry of Electric Power Industry of the Republic of Iraq. Available from: http://www.oco.moelc.gov.iq/ [Accessed 6 February 2024].
7. Hussein ATH. Analysis of power and energy losses in Iraq's electrical networks with the development of measures to reduce them: dissertation of cand. tech. sciences. Stavropol; 2022. 159 p. (In Russ).
8. Shevlyugin MV, Shcheglovitova EV. Simulation model of an AC traction power supply system for assessing the quality of electricity at substation inputs. Energy security and energy conservation. 2023;(1):89-92. (In Russ.).
9. Shevlyugin MV, Yarmolenko DV, Korolev AA. Analysis of mutual electromagnetic influences between the traction power supply system and the power system on a single digital model in the ETAP software package. In Actual issues of railway transport development. Materials of the All-Russian Scientific and Practical Conference dedicated to the 75th anniversary of postgraduate studies at the Scientific Research Institute of Railway Transport. 2019. P. 73-81. (In Russ).
10. Shevlyugin MV, Antonov VS, Maksimenko NV. Modern approaches to the design of railway traction network devices using BIM technologies. The world of transport. 2022;1(98):6-12. (In Russ).
11. Klyachko LM, Shevlyugin MV, Belov MN, Golitsyna AE. A model of a combined traction substation of the metro, considering the traction load and consumers of their own needs. Electrical Engineering. 2021;(9):22-25. (In Russ).
12. Tulsky V, Murzintsev A, Zhgun K, Silaev M, et al. Application of ETAP eTraX software Package for Digital Simulation of Distribution Network That Feeds an Ac Traction Power Supply System, E3S Web of Conferences. "ENERGY-21 – Sustainable Development and Smart Management" Series; 2020. P. 07011.
13. Harry HI. Solar Energy in Iraq: From Outset to Offset. Iraq Energy Institute. 2018. P. 25. Available from: https://www.researchgate.net/publication/328345510 [Accessed 13 February 2024].
14. Khazaal HF, Alrikabi HTS, Abed FT, and Kadhm SI. Water desalination and purification using desalination units powered by solar panels, Periodicals of Engineering and Natural Sciences. 2019;7(3):1373-1382.
15. Abass AZ, Pavlyuchenko DA. Southern Iraq gas station conversation to integrated solar combined cycle. E3S Web of Conferences, EDP Sciences; 2019. Vol. 114 (05008).
16. Majhool M, Farhan MS. Design and Implementation of Sunlight Tracking Based on the Internet of Things. IOP Conference Series, Earth and Environmental Science; 2021. Vol. 877 (012026). P. 11.
17. Barth D, Mautor T, de Moissac A, Watel D, et al. Optimisation of electrical network configuration: Complexity and algorithms for ring topologies. Theoretical Computer Science. 2021;(859):162-173.
18. De Groot RJW, Morren J, Slootweg JG. Closed-ring operation of medium voltage distribution grids: theory meets practice. 23rd International Conference and Exhibition on Electricity Distribution (CIRED 2015); 2015. P. 1-5.
19. Simpson-Porco JW, Dörfler F, Bullo F. Voltage collapse in complex power grids. Nature communications. 2016;7(1):10790.
20. Brinkis K, Kreslinsh V, Mutule A, Oleinikova I, et al. Fulfilment of criteria of electricity supply reliability in the Baltic region. Latvian Journal of Physics and Technical Sciences. 2011;48(6):3-14.
21. Shevlyugin MV. Energy-saving technologies in railway transport and subways implemented using energy storage devices: abstract of dissertation of dr. tech. sciences. Moscow; 2013. 48 p. (In Russ.).
22. Al-Rufai FM, Abdali LM, Kuvshinov VV. Electricity in Iraq: crisis and solution, Energy installations and technologies. 2019;5(2):74-79. (In Russ.).
Review
For citations:
Alsultan M.J., Shevlyugin M.V. A model of the electric power system of an alternating current railway with account of primary power supply system in the southern part of Iraq. Newsletter of North-Caucasus Federal University. 2025;(2):9-21. (In Russ.) https://doi.org/10.37493/2307-907X.2025.2.1