Author page: Evgeny Grabchak

Digital Platform for Managing Scientific and Technological Development within Economic Cooperation Framework

DOI: 10.33917/es-1.187.2023.56-69

In the circumstances of sanctions-related economic and scientific-technical blockade, the need to build digital mechanisms for managing import substitution processes on the basis of planning and coordinating competencies, similar to the competencies that the USSR State Committee for Science and Technology had, has sharply actualized. It is proposed to use intelligent digital platforms to control the development of science and technology based on the principles of the Soviet information network OGAS and EGSVC projects. The authors of the article substantiate necessity to apply digital information and communication technologies and computing services at various levels of management for innovative agents of any form of ownership through creating and configurating multilayer information-management fields.

References:

1. Ageev A.I., Loginov E.L. Mirovoe soobshchestvo v usloviyakh sverkhkriticheskoi bifurkatsii [The World Community in the Conditions of Supercritical Bifurcation]. Upravlenie slozhnymi organizatsionnymi i tekhnicheskimi sistemami v usloviyakh sverkhkriticheskikh situatsii: Materialy mezhdunarodnoi nauchno-prakticheskoi konferentsii. Moskva, MNIIPU, 21–22 aprelya 2022 g. [Management of Complex Organizational and Technical Systems in Conditions of Supercritical Situations: Proceedings of the International Scientific and Practical Conference. Moscow, MNIIPU, April 21–22, 2022]. Moscow, INES, 2022, pp. 9–12.

2. Ageev A.I., Loginov E.L. Rossiya v novoi ekonomicheskoi real’nosti [Russia in a New Economic Reality]. Moscow, Institut ekonomicheskikh strategii, Assotsiatsiya “Analitika”, 2016, 460 p.

3. Grabchak E.P. Importozameshchenie v energetike Rossii v usloviyakh sanktsii [Import Substitution in the Russian Energy Sector in the Context of Sanctions]. Upravlenie slozhnymi organizatsionnymi i tekhnicheskimi sistemami v usloviyakh sverkhkriticheskikh situatsii: Materialy mezhdunarodnoi nauchno-prakticheskoi konferentsii. Moskva, MNIIPU, 21–22 aprelya 2022 g. [Management of complex organizational and technical systems in conditions of supercritical situations: Proceedings of the international scientific and practical conference. Moscow, MNIIPU, April 21–22, 2022]. Moscow, MNIIPU, 2022, pp. 16–18.

4. Grabchak E.P., Loginov E.L., Chinaliev V.U., Epishkin I.I. Upravlenie razvitiem slozhnykh nauchno-tekhnicheskikh kompleksov na osnove intellektual’nykh tsifrovykh platform (realizatsiya kompetentsii Goskomiteta SSSR po nauke i tekhnike v usloviyakh tsifrovoi ekonomiki) [Managing the Development of Complex Scientific-technical Systems Based on Intelligent Digital Platforms (Implementation of the Competencies of the USSR State Committee for Science and Technology in Conditions of Digital Economy)]. Moscow, INES, 2023, 504 p.

5. Chinaliev V.U. Razvitie politiki importozameshcheniya v promyshlennosti Rossii [Developing Import Substitution Policy in the Russian industry]. Upravlenie slozhnymi organizatsionnymi i tekhnicheskimi sistemami v usloviyakh sverkhkriticheskikh situatsii: Materialy mezhdunarodnoi nauchno-prakticheskoi konferentsii. Moskva, MNIIPU, 21–22 aprelya 2022 g. [Management of Complex Organizational and Technical Systems in Conditions of Supercritical Situations: Proceedings of the International Scientific and Practical Conference. Moscow, MNIIPU, April 21–22, 2022]. Moscow, MNIIPU, 2022.S. 50–53.

Modeling the Consequences of a Nuclear Strike

DOI: https://doi.org/10.33917/es-4.184.2022.6-16

The risks of increasing international tension have sharply exacerbated the possibility of a nuclear conflict. The main geopolitical players in the international arena have actually recognized the possibility and even expediency of using nuclear weapons. In this context, the need to simulate the consequences of a nuclear strike in order to prepare for emergencies of a critical nature has become extremely urgent. The present article analyzes foreign experience of using digital simulators to this end. The authors outline Russian views on applying agent-based simulation methods for this purpose in the analysis of non-military (civilian) aspects of a nuclear blow effects.

Источники:

 

1. Grabchak E.P., Loginov E.L. Podgotovka sistemy gosudarstvennogo upravleniya Rossii k sverkhkriticheskim situatsiyam prirodnogo i tekhnogennogo kharaktera [Preparing the Public Administration System of Russia for Supercritical Situations of Natural and Man-made Nature]. Problemy upravleniya bezopasnost’yu slozhnykh sistem: Materialy XXIX Mezhdunarodnoi nauchno-prakticheskoi konferentsii. Moskva, 15 dekabrya 2021 g. [Problems of Safety Management of Complex Systems: Proceedings of the XXIX International Scientific-practical Conference. Moscow, December 15, 2021]. Moscow, Institut problem upravleniya im. V.A. Trapeznikova RAN, pp. 99–103.

2. Ageev A.I., Bochkarev O.I., Grabchak E.P., Loginov E.L. Setetsentricheskaya sistema povyshennoi zhivuchesti upravleniya energetikoi Rossii v slozhnoprognoziruemykh kriticheskikh usloviyakh [Net-Centric System of Elevated Survivability of Energy Management in Russia Under Difficult-to-predict Critical Conditions]. Ekonomicheskie strategii, 2021, vol. 23, no 3 (177), pp. 6–17, available at: DOI: https://doi.org/10.33917/es-3.177.2021.6-17.

3. Moiseev N.N., Aleksandrov V.V., Tarko A.M. Chelovek i biosfera: Opyt sistemnogo analiza i eksperimenty s modelyami [Man and the Biosphere: The Experience of System Analysis and Experiments with Models]. Moscow, Nauka, 1985, 271 p.

4. Yadernaya zima i ee komp’yuternoe modelirovanie v 80-kh [Nuclear Winter and Its Computer Simulation in the 80s]. Khabr, 2022, May, 28, available at: https://habr.com/ru/company/ruvds/blog/668256/

5. Turco R.P., Toon O.B., Ackerman T.P., Pollack J.B., Sagan C. Nuclear winter: Global consequences of multiple nuclear explosions, 1984.

6. Kokoshin A.A., Arbatov A.G., Vasil’ev A.A. Yadernoe oruzhie i strategicheskaya stabil’nost’ (stat’ya pervaya) [Nuclear Weapons and Strategic Stability (Article One)]. SShA: Ekonomika, politika, ideologiya, 1987, no 9, p. 3.

7. John M. Gates. The U.S. Army and Irregular Warfare. The College of Wooster Wooster, Ohio, available at: https://discover.wooster.edu/jgates/files/2011/11/fullbook.pdf.

8. Starr S. Deadly Climate Change From Nuclear War: A threat to human existence, available at: https://www.armscontrol.ru/pubs/en/deadly-climate-changefromnuclear-war.pdf.

9. Velikhov E., Kokoshin A. Yadernoe oruzhie i dilemmy mezhdunarodnoi bezopasnosti [Nuclear Weapons and International Security Dilemmas]. Mirovaya ekonomika i mezhdunarodnye otnosheniya, 1985, no 4, p. 20.

Russia in Supercritical Situation: Managing Restoration of Life-Support Functions to Overcome the Consequences of a Natural Macro Catastrophe

DOI: https://doi.org/10.33917/es-5.179.2021.28-35

Supercritical fluid is a state of matter when its temperature and pressure are above the critical point. Supercritical situation is a state of the economy in its cumulative manifestations and mutual influence, whereby the state of key life-support profiles is below the critical point of controllability. Various forecasts are increasingly actualizing the probability of a natural (and man-made) macro-catastrophe (a large meteorite fall, an earthquake of 10–12 points and others, as well as a pandemic similar to COVID–19, but with more severe consequences). As the coronavirus pandemic has shown, modern civilization is becoming ever more vulnerable to such disasters. To overcome the destabilizing trends of a natural (and man-made) macro-catastrophe, it is necessary to adopt proactively a set of measures in Russia that will drastically increase the efficiency of public administration in relation to the list of regulated resource,  economic, technical, social and other parameters incorporating mechanisms and procedures of public administration into market mechanisms and the budgeting structure with regard to external and internal factors of the supersystem’s vital activities

Net-Centric System of Elevated Stability (Survivability) of Energy Management in Russia Under Difficult-to-predict Critical Conditions

DOI: https://doi.org/10.33917/es-3.177.2021.6-17

Energy sector, like the defence complex, is one of the key industries that serve as a basis for the life support processes of the country and the resulting stability of the state political structure. World practice has clearly demonstrated the key dependence of domestic political and social stability on reliability and sustainability of energy supply. Multifactorial survivability of the energy supersystem under normal and critical conditions of natural and anthropogenic origin can be provided through forming a net-centric system of elevated management stability, based on a distributed network of inter-corporate disaster-resistant data centers for processing and storing extremely large data sets. It is proposed to use data centers as bases for digital “twins” of energy facilities and processes in order to finally achieve a new quality of control based on digital topology within a single digital model of the energy supersystem with the possibility of secure collection, storage, processing and exchange of data, necessary for managing power facilities of various sectoral subsystems of the Russian fuel and energy complex, as well as for regional and municipal authorities. Application of digital topology makes it possible, during local interactions, to search for and implement solutions for moving towards local, network and polycentric resource-operational optima in order to minimize costs (price burden on the consumer) of separate companies and the entire industry with the aim of maintaining reliability and sustainability of energy supply, including security costs of the critical information infrastructure systems

Package Sectoral Order as an Effective Tool for Managing Import Substitution, Development of New Technologies and Energy Modernization

DOI: 10.33917/es-3.169.2020.6-17

Import substitution in the energy sector requires development in Russia of a group of new industries and modernization of existing capacities. That calls for integrating the structures of fundamental and applied science, education, power engineering production, energy generation and electricity transport in the framework of a complete innovation cycle. The key to the problem solution is forming an integrated mechanism for planning and management of scientific-research, power engineering and electric power segments as parts of a single technological chain of work and procurement from basic research to equipment disposal. The R&D result should be a package sectoral order for equipment and technologies — a new planning and coordination tool in the market environment of Russian energy and power engineering. It is proposed to build a new information control loop in the energy sector of Russia to form the basis of a package order within the industry in order to establish medium- and long-term scientific and technical planning for replacing retiring equipment, tracking contracts and monitoring results of their implementation

Global Asian Energy Ring: Contours of Energy System of the XXI Century

#1. Minds Confusion
Global Asian Energy Ring: Contours of Energy System of the XXI Century

Macroeconomic problems and political games of our Western “partners” have mainstreamed the task of diversifying the routes and simultaneously expanding the volumes of Russian and transit electricity exports abroad. Given constantly increasing energy consumption in Asian countries, it is the Asian export vector of Russian fuel and energy resources that seems most promising, updating the development of fuel and energy infrastructure for integrating the energy system of Russia and the energy systems of a group of key countries in Eastern, Southern and Western Asia. This vector from the viewpoint of considering the fuel and energy infrastructure as a metasystem is expedient to realize through forming the Global Asian Energy Ring, taking into account the unique experience of the UES of the USSR and the Mir energy system. A unified energy supply system and mechanisms for resource and financial coordination within the framework of the Global Asian Energy Ring can form the basis for ensuring political and economic competitiveness of a group of key countries in Eastern, Southern and Western Asia, based on a key energy partner, being also the main guarantor of energy supplies (collective energy security) — Russia.