Preview

MGIMO Review of International Relations

Advanced search

Foreign Policy Risks to the Connectivity of Russia's Electric Power System

https://doi.org/10.24833/2071-8160-2025-6-105-124-153

Abstract

This article analyzes the foreign-policy risks arising from the cross-border interconnectedness (inter-system integration) of Russia’s electric power system and the country’s institutional and technological adaptation to these risks. The analysis applies a contemporary conception of energy security as “low vulnerability of vital energy systems,” operationalized through the questions “security for whom, of which values, and from what threats.” Methodologically, the study integrates a multidisciplinary framework with conceptual analysis, qualitative case studies, and elements of network modeling (community detection, betweenness centrality). Empirically, it examines three connectivity vectors: the European (BRELL desynchronization and the islanding of the Kaliningrad subsystem), the Eurasian (Central Asian transformations, the emerging EAEU common electricity market, and North–South projects), and the Eastern (exports to China, technology cooperation, and prospective Caspian and Middle Eastern corridors), alongside cross-cutting risks such as sanctions, cyber threats, and warfare/sabotage. The findings highlight the dual nature of interconnection: while scale and mutual support enhance technical resilience, interties simultaneously create channels of political coercion and cascading failures. Vulnerabilities are differentiated across referent objects (state, regions, sectoral segments) and values (supply reliability, economic efficiency, geopolitical influence). Russia’s adaptation portfolio includes strengthening the autonomy of critical nodes (islanding, redundancy), institutionalizing connectivity within “friendly” formats (EAEU; south- and east-bound interconnections), diversifying partners and reducing import dependence in key technologies, and reinforcing cyber and physical protection of critical infrastructure. The theoretical contribution lies in refining the vulnerability framework for a large multi-node system; the practical contribution is in substantiating a balance between integration and insulation as a principle of connectivity-risk management under geopolitical turbulence.

About the Author

A. A. Sizov
JSC «Leningrad Regional Electric Grid Company»
Russian Federation

Andrey A. Sizov – Candidate of Technical Sciences, General Director

187342, Leningrad Region, Kirovsky District, Kirovsk, Ladozhskaya St., 3a



References

1. Aven T. 2015. Risk Analysis. Chichester: John Wiley & Sons.

2. Belyaev L., Chudinova L., Podkovalnikov S. 2020. Russia’s Electric Power Reintegration with Central Asia and Caucasus and Entering South Asia and Middle East Electricity Markets. E3S Web of Conferences. №209. P. 4001. DOI: 10.1051/e3sconf/202020904001

3. Bhattacharyya S.C., Timilsina G.R. 2010. A Review of Energy System Models. International Journal of Energy Sector Management. 4(4). P. 494–518.

4. Cabeza L.F. et al. 2018. Comparison of Past Projections of Global and Regional Primary and Final Energy Consumption with Historical Data. Renewable and Sustainable Energy Reviews. №82. Р. 681–688.

5. Cherp A., Jewell J. 2014. The Concept of Energy Security: Beyond the Four As. Energy Policy. №75. P. 415–421.

6. Fang S. 2023. Electricity Grids and Geopolitics: A Game-Theoretic Analysis of the Synchronization of the Baltic States’ Electricity Networks with Continental Europe. SSRN. 35 p. DOI: 10.2139/ ssrn.4644564.

7. Fattahi A., Sijm J., Faaij A. 2020. A Systemic Approach to Analyze Integrated Energy System Modeling Tools: A Review of National Models. Renewable and Sustainable Energy Reviews. №133. P. 110–195.

8. Lazarczyk Carlson E. 2022. Can the Baltic States Do Without Russian Electricity? Policy Brief. FREE Network, 2022. URL: https://freepolicybriefs.org/2022/11/30/baltic-states-without-russianelectricity/

9. Moriarty P., Honnery D. 2012. What Is the Global Potential for Renewable Energy? Renewable and Sustainable Energy Reviews. 16(1). P. 244–252.

10. National Research Council et al. 2010. Hidden Costs of Energy: Unpriced Consequences of Energy Production and Use. Washington, DC: National Academies Press.

11. Neal L., Williamson J.G. eds. 2014. The Cambridge History of Capitalism: Vol. 1. The Rise of Capitalism: From Ancient Origins to 1848. Cambridge: Cambridge University Press.

12. Newman M.E.J. 2006. Modularity and Community Structure in Networks. Proceedings of the National Academy of Sciences. 103(23). P. 8577–8596.

13. Newman M.E.J. 2007. Mathematics of Networks. The New Palgrave Encyclopedia of Economics. Basingstoke: Palgrave Macmillan.

14. Paltrinieri N., Comfort L., Reniers G. 2019. Learning about Risk: Machine Learning for Risk Assessment. Safety Science. №118. P. 475–486.

15. Tao Z. et al. 2025. The Dynamic Linkage and Network Connectivity of Renewable Energy and Electricity Markets from a Time-Frequency Perspective. Journal of Renewable and Sustainable Energy. 17(1).

16. Westphal K., Pastukhova M., Pepe J.M. 2022. Geopolitics of Electricity: Grids, Space and (political) Power: research paper Berlin: Stiftung Wissenschaft und Politik. 57 p. DOI: 10.18449/2022RP06.

17. Berdyshev I. et al. 2023. Issledovaniya perspektivy razvitiya gidroenergetiki v Sibiri, na Dal'nem Vostoke i Kamchatke [Research of the Prospects for the Development of Hydropower in Siberia, the Far East and Kamchatka]. Energeticheskaya politika. №6. P. 38–53.

18. Bertalanffy L. 1969. Obshchaya teoriya sistem: kriticheskiy obzor [General Systems Theory: A Critical Review]. Issledovaniya po obshchey teorii sistem. Moscow: Progress. 520 с

19. Bogdanov A.A. 2013. Tektologiya. Vseobshchaya organizatsionnaya nauka [Tectology: Universal Organizational Science]. Directmedia.

20. Kholbaev D.Zh., Sharibaev E.Yu., Tulkinnov M.E. 2020. Analiz ustoychivosti energeticheskoy sistemy v obuchenii predmeta perekhodnye protsessy [Analysis of the Energy System Stability in Teaching the Subject of Transient Processes]. Ekonomika i sotsium. 5-2(72). P. 340–343.

21. Klinova M., Sidorova E. 2014. Ekonomicheskie sanktsii i ikh vliyanie na khozyaystvennye svyazi Rossii s Evropeyskim soyuzom [Economic Sanctions and Their Impact on Russia's Economic Ties with the European Union]. Voprosy ekonomiki. №1. P. 67–79. DOI: 10.32609/0042-87362014-12-67-79

22. Mastepanov A.M. 2019. Vliyanie zapadnykh sanktsiy na razvitie energetiki Rossii [The Impact of Western Sanctions on the Development of Russia's Energy Sector]. Regulirovanie energeticheskoy politiki. Problemy ekonomiki i upravleniya neftegazovym kompleksom. 6(174). P. 5–24. DOI: 10.33285/1999-6942-2019-6(174)-5-24

23. Neuymin V.G., Ostanin A.Yu., Tomalev A.A. 2019. Vnedrenie sistemy monitoringa zapasov ustoychivosti pri planirovanii i upravlenii elektroenergeticheskim rezhimom OES Sibiri [Implementation of a Stability Margin Monitoring System for Planning and Managing the Power Regime of the Siberian Integrated Power System]. Energiya edinoy seti. 6(49).

24. Ostrovskiy A.V. 2011. Rynok energeticheskikh resursov Kitaya: interesy i vozmozhnosti Rossii [China's Energy Resources Market: Interests and Opportunities for Russia]. Moscow: Izdatel'stvo IDV RAN. 254 c.

25. Parsons T. 1996. Ponyatie obshchestva: komponenty i ikh vzaimootnosheniya [The Concept of Society: Components and Their Interrelationships]. Amerikanskaya sotsiologicheskaya mysl'. Moscow: INION RAN.

26. Pavlushko S.A., Opadchiy F.Yu. 2012. O tselesoobraznosti stroitel'stva tranzita 1150 kV Ural – Kazakhstan – Sibir' [On the Feasibility of Constructing the 1150 kV Ural – Kazakhstan – Siberia Transit]. Akademiya energetiki. 6(50). P. 20–27.

27. Sidorova E.A. 2016. Energetika Rossii pod sanktsiyami Zapada [Russia's Energy Sector under Western Sanctions]. Mezhdunarodnye protsessy. 1(44). P. 143–155. DOI: 10.17994/IT.2016.14.1.44.11

28. Sidorovnina I.A. 2015. Energosistema Sibiri: osobennosti i perspektivy razvitiya [The Siberian Energy System: Features and Development Prospects]. Biznes. Obrazovanie. Pravo. 2(31). P. 119–124.

29. Simonov N. 2022. Razvitie elektroenergetiki Rossiyskoy imperii: predystoriya GOELRO [The Development of the Electric Power Industry in the Russian Empire: The Prehistory of GOELRO]. Moscow: Russkiy fond sodeystviya obrazovaniyu i nauke.

30. Simonov N.S. 2017. Energeticheskaya statistika dorevolyutsionnoy Rossii [Energy Statistics of Pre-Revolutionary Russia]. Statistika i ekonomika. 4(14). P. 22–32. DOI: 10.21686/2500-39252017-4-22-32

31. Timofeev I.N. 2022. Politika sanktsiy protiv Rossii: novyy etap [Sanctions Policy against Russia: a New Stage]. Zhurnal Novoy ekonomicheskoy assotsiatsii. 3(55). P. 198–206.

32. Voropay N.I., Stennikov V.A. 2014. Integrirovannye intellektual'nye energeticheskie sistemy [Integrated Intelligent Energy Systems]. Izvestiya Rossiyskoy akademii nauk. Energetika. №1. P. 64–73.

33. Wiener N. 2003. Kibernetika i obshchestvo [Cybernetics and Society]. Moscow: Taideks Ko. 245 р.


Review

For citations:


Sizov A.A. Foreign Policy Risks to the Connectivity of Russia's Electric Power System. MGIMO Review of International Relations. 2025;18(6):124-153. (In Russ.) https://doi.org/10.24833/2071-8160-2025-6-105-124-153

Views: 29


Creative Commons License
This work is licensed under a Creative Commons Attribution 4.0 License.


ISSN 2071-8160 (Print)
ISSN 2541-9099 (Online)