The Role of Small Business in the Context of the Use of Non-Traditional Renewables Primary Energy Sources
https://doi.org/10.33293/1609-1442-2022-4(99)-103-125
Abstract
Due to the uneven location of fossil fuel deposits, many countries around the world are forced to import oil, natural gas, and coal to support economic growth and the development of electricity and heat supply, the chemical industry, and transport infrastructure. Global and intercountry trade in such vital energy resources as oil and natural gas largely depends on the economic behavior of major oil and natural gas producers, which, as practice has shown, when their own fields are depleted, from time to time hinders the economic growth of oil and gas-importing countries. The desire of technologically advanced importing countries to free themselves from energy imports has led to the fact that they have now managed to reduce the cost of power generation by solar and wind power plants, so that in some cases they have proven to be cost-effective and can replace some of the oil and/or gas imports. The main economic agents using solar and wind energy are large companies. However, N. E. Egorova and S. A. Nekrasov, based on the fact that both sunlight and wind are sources of primary energy, whose spatial density is lower than that of organic fuels, apparently for the first time in the world scientific literature, investigated the question: whether small and medium businesses could be involved to expand the range and scale of solar and wind energy for electricity generation. To answer this question, N. E. Egorova and S. A. Nekrasov used tectology, a theory proposed by A. A. Bogdanov in the early 1920s. With its help they got a positive answer. It was supported by taking into account the vertical location of sunlight receivers, which expanded the area of localization of solar power plants. This article is devoted to the same question. The analysis showed that the prospect of participation of small and medium-sized businesses (SMB) is niche in nature and attracting investors in this area of human activity is possible if the economic characteristics of localized solar and wind power plant projects are acceptable to investors.
About the Author
Sergey Ya. ChernavskiiRussian Federation
References
1. Andronov A. A., Pontryagin G. S. (1937). Rough Systems. Papers of the Academy of Sciences of the USSR, vol. 14, no. 5, pp. 247–250. Moscow: Nauka (in Russian).
2. Anikeev V. A., Zhiboedov V. G. (1995). Ecological aspects of energy. New Energy Policy of Russia. Ed. by Y. K. Shafranik. Moscow: Energoatomizdat (in Russian).
3. Belyaev L. S. (2009). Problems of the Electric Power Market. Ed. by N. I. Voropay. Novosibirsk: Nauka (in Russian).
4. Bogdanov A. A. (1989). Tectology. The universal organizational science. Moscow: Ekonomika (in Russian).
5. Vilensky P. L., Livshits V. N., Smolyak S. A. (2015). Evaluation of investment projects. Theory and Practice. Moscow: Kraft (in Russian).
6. Renewable Energy Sources (2020). Moscow: Institute of Energy, National Research University “Higher School of Economics”. Moscow: HSE University (in Russian). URL: https//energy.hse.ru/Wiie
7. Vorobiev V. K., Voskresensky Yu.K., Goncharov Yu.A. (1987). USSR energy industry in 1986–1990. Moscow: Energoatomizdat (in Russian).
8. Egorova N. E., Nekrasov S. A. (2022). Renewable energy and small business: Synergies and sustainability strategies. Economics of Contemporary Russia, no. 4 (99), p. 89–103 (in Russian). DOI: 10.33293/1609-1442-2022-4(99)-89-103
9. Katok A. B., Hasselblat B. (1999). Introduction to the modern theory of dynamical systems. Translated from English by A. Kononenko with contributions by A. Ferleger. Moscow: Factorial (in Russian).
10. Keeney R. (1983). Placement of Power Facilities: Choice of Solutions. Transl. from English, ed. by Yu. I. Koryakin. Moscow: Energoatomizdat (in Russian).
11. Koryakin Yu.I. (2002). The environment of nuclear energy in Russia: the new challenges. Moscow: NIKIET B. A. Dollegal (in Russian).
12. Lakomova O. V. (1988). Application of the decision analysis method for optimizing NPP location at the regional level. Nuclear Power Engineering: Development Prospects, Problems of Forecasting. Compiled by S.Ya. Chernavskii, ed. by M. A. Stirikovich. Moscow: International Center for Scientific and Technical Information, Working Group under the President of the USSR Academy of Sciences for the Development of New Long-Term Prospects for Power Engineering (in Russian).
13. World Energy (1980). World Energy Industry: Development Forecast for 2020. Translated from English, ed. by Yu. N. Starshinov. Moscow: Energiya (in Russian).
14. IPCC. (2011a). IPCC Special Report on Renewable Energy Sources and Climate Change Mitigation. Summary for Policymakers. Working Group III of the Intergovernmental Panel on Climate Change (IPCC). Ed. by O. Edenhofer, R. Peaches-Madruga, J. Sokona et al. Cambridge (UK); New York (USA) (in Russian). URL: https://archive.ipcc.ch/pdf/special-reports/srren/srren_report_ru.pdf
15. IPCC (2011b). IPCC Special Report on Renewable Energy Sources and Climate Change Mitigation. Technical Summary. Ed. by O. Edenhofer, R. Peaches-Madruga, J. Sokona et al. Cambridge (UK); New York (USA) (in Russian). URL: https://www.ipcc.ch/site/assets/uploads/2018/03/srren_report_ru‑1.pdf
16. Reichenbach G. (1962). The direction of time. Translated from English by Yu. B. Molchanov, Yu. V. Sachkov, ed. by M. E. Omelyanovsky. Moscow: Foreign Lang. Publ. (in Russian).
17. Handbook on Renewable Energy in the European Union (2016). Moscow: Institute of Energy. National Research University Higher School of Economics (in Russian). URL: https://energy.hse.ru/data/2017/10/04/1159483435/Справочник%20ВИЭ%20в%20ЕС.pdf
18. Styrikovich M. A. (1980). Preface to the Russian edition. World Energy Industry: Development Forecast for 2020. Translated from English, ed. by Yu. N. Starshinov. Moscow: Energiya (in Russian).
19. Chernavskii S.Ya. (1980). System Forecasting of Nuclear Power Engineering. Theory and Methods. Moscow: Nauka (in Russian).
20. Chernavskii S.Ya. (1988). Nuclear Power Engineering: Development Prospects, Problems of Forecasting. Nuclear Power Engineering: Development Prospects, Problems of Forecasting. Compiled by S.Ya. Chernavsky, ed. by M. A. Stirikovich. Moscow: International Center for Scientific and Technical Information, Working Group under the President of the USSR Academy of Sciences for the Development of New Long-Term Prospects for Power Engineering (in Russian).
21. Chernavskii S.Ya. (2013). Reforms in the Regulated Industries of the Russian Power Industry. Moscow: St. Petersburg, Nestor-Istoria (in Russian).
22. Economics and Management…, (2009). Economics and Management in Russia's Modern Electric Power Industry: A Manual for Managers of Electric Power Companies. Ed. by A. B. Chubais. Moscow: NPO KONTS UES (in Russian).
23. BP Statistical Review (2019). BP Statistical Review of World Energy.
24. Christensen L. R., Green W. H. (1976). Economics of Scale in the U. S. Electric Power Generation. Journal of Political Economy. August. P. 655–676.
25. Mattessich R. (1978). Instrumental Reasoning and Systems Methodology: An Epistemology of the Applied and Social Sciences. Boston: Springer Science & Business Media.
26. Renewables (2022). Global Status Report. Paris: Renewable Energy Policy Network for the 21st Century. URL: https://www.ren21.net/wp-content/uploads/2019/05/GSR2022_Full_Report.pdf
27. REN21’s Renewables (2022). Global Status Report. Record growth in renewables, but world missed historic chance for a clean energy recovery. URL: https://www.ren21.net/gsr‑2022/pages/keymessages/keymessages/#key-power
Review
For citations:
Chernavskii S.Ya. The Role of Small Business in the Context of the Use of Non-Traditional Renewables Primary Energy Sources. Economics of Contemporary Russia. 2022;(4):103-125. (In Russ.) https://doi.org/10.33293/1609-1442-2022-4(99)-103-125