[1. Eurelectric. (2019). Short Paper on the 2050 Objective. Available at https://www.eurelectric.org [08.07.2019]]Search in Google Scholar
[2. 2030 Climate and Energy Framework (n.d.). Available at https://ec.europa.eu/clima/policies/strategies/2030_en [08.07.2019]]Search in Google Scholar
[3. Kauliņš, D. (2019). Presentation “Nacionālais enerģētikas un klimata plāns 2021. – 2030. gadam” materials.]Search in Google Scholar
[4. Eurelectric. (2018). Decarbonisation Pathways. Full study results. Part 1 – European Economy. Part 2 – European Power Sector. Available at https://cdn.eurelectric.org/media/3558/decarbonisation-pathways-all-slideslinks-29112018-h-4484BB0C.pdf [08.07.2019]]Search in Google Scholar
[5. Sovacool, B. K. (2017). Contestation, Contingency, and Justice in the Nordic Low-Carbon Energy Transition. Energy policy. 102, 569–582.10.1016/j.enpol.2016.12.045]Search in Google Scholar
[6. IEA. (2016). Nordic Energy Technology Perspectives 2016. Cities, Flexibility and Pathways to Carbon-Neutrality. France: OECD/IEA. Available at https://www.nordicenergy.org/wp-content/uploads/2015/12/Nordic-Energy-Technology-Perspectives-2016.pdf [02.07.2019]]Search in Google Scholar
[7. Balodis, M., Krickis, O., Gavrilovs, G., Sarma, U., Salcevičs, J., Lūsis, G., ---amp--- Linkevičs, O. (2018). VFB kongress un IERE seminārs Minhenē. Enerģija un Pasaule, 5(112), 20–25.]Search in Google Scholar
[8. Artelys. (2018). Investigation on the interlinkage between gas and electricity scenarios and infrastructure projects assessment, pp. 1–43.]Search in Google Scholar
[9. What are Europe’s Biggest Sources of Carbon Emissions? (n.d.) Available at https://www.weforum.org/agenda/2015/11/what-are-europes-biggest-sources-of-carbon-emissions/ [02.07.2019]]Search in Google Scholar
[10. Balodis, M. (2016). Optimisation model for securing energy supply towards sustainable economic development of Latvia. Riga: RTU.]Search in Google Scholar
[11. Ivanova, P. (2018). The improvement of flexibility and efficiency of thermal power plants under variable operation conditions. Riga: RTU.]Search in Google Scholar
[12. Kunickis, M., Balodis, M., Sarma, U., Cers, A., ---amp--- Linkevics, O. (2015). Efficient Use of Cogeneration and Fuel Diversification. Latvian Journal of Physics and Technical Sciences, 52(6), 38–47.10.1515/lpts-2015-0034]Search in Google Scholar
[13. Ludge, S. (2017). The Value of Flexibility for Fossil-Fired Power Plants under the Conditions of the Strommarkt 2.0. VGB Powertech. 3, 21–24.]Search in Google Scholar
[14. WEC 6th “Baltic Sea Round Table” (2019). Riga.]Search in Google Scholar
[15. International Energy Agency. (2014). Energy Technology Perspectives 2014. Harnessing Electricity’s Potential. France: OECD/IEA]Search in Google Scholar
[16. Lund, H., Ostergaard, P., A., Connolly, D., ---amp--- Mathiesen, B., V. (2017). Smart Energy and Smart Energy Systems. Energy, 10.10.1016/j.energy.2017.05.123]Search in Google Scholar
[17. International Atomic Energy Agency. (1995). Wien Automatic System Planning (WASP) Package. Vienna: IAEA.]Search in Google Scholar
[18. E3MLab/ICCS. (n.d.). Primes Model 2013-2014. Athens: E3MLab.]Search in Google Scholar
[19. AS “Sadales tīkls” izpilddirektora Sanda Jansona intervija ar aģentūru “LETA”, 13.06.2019. Available at https://www.sadalestikls.lv/sandis-jansons-jau-sobrid-jasakvertet-mazo-elektribas-razotaju-ietekmi-uz-elektrotiklu-un-izmaksam/ [11.07.2019]]Search in Google Scholar
[20. Wie der Strom zu den Hamburgern kommt (n.d.). Available at https://www.stromnetz-hamburg.de/ueber-uns/auftrag/das-stromnetz/ [11.07.2019]]Search in Google Scholar