QUALITY MANAGEMENT
p. 3-10
See part 1 in No. 3(35) 2022
A.Ya. Dmitriev, Ph.D., associate professor; Samara National Research University named after academician S.P. Korolev; Samara
e-mail: dmitriev57@rambler.ru
T.S. Filippova, postgraduate student, Samara National Research University named after academician S.P. Korolev; Samara
The article in the second part is devoted to further ontological analysis of quality engineer-ing. The relationship between quality engineering and disciplines such as quality management and robust quality engineering is defined, and an overview of quality engineering methods and tools is provided. Creative problems that arise in the process of quality engineering can be solved using the theory of inventive problem solving, with the use of which the further development of quality engineering methodology is associated. Examples of the application of quality engineering and the key aspects arising from this are given.
Keywords: quality, engineering, ontology of quality engineering, quality management, quality design, robust design, Taguchi methods, QFD, FMEA, TRIZ, GTE, UAV.
References:
1. Dmitriev A.Y., Filippova T.S. Introduction to the ontology of quality engineering Part 1. Basic terms and concepts. Quality and life. 2022. No. 3(35). pp. 3–9. DOI 10.34214/2312-5209-2022-35-3-03-09. EDN ZYLSMP.
2. Dmitriev A.Y., Mitroshkina T.A. Designing product quality based on parametric identification of models, customer requirements, knowledge: ontological paradigm. Ontology of Designing. 2015. V. 5. No. 3(17). pp. 313–327. DOI: 10.18287/2223-9537-2015-5-3-3-313-327 [In Russian].
3. ASQ. Quality Glossary [Electronic resource]. Available at: http://asq.org/glossary/q.html (accessed 12.11.2019).
4. Lisenkov A.N. Engineering approaches in modern quality management [Electronic resource]. Available at: http://library.miit.ru/methodics/200217/17-81.pdf (accessed September 29, 2019).
[In Russian].5. Taguchi G., Chowdhury S., Wu Yu. Taguchi’s Quality Engineering Handbook. Wiley, 2004. 1662 p.
6. Chernova Y.K., Shchipanov V.V. The first steps of robust design in the domestic auto-motive industry. News of the Tomsk Polytechnic University. 2006. V. 309 No. 5. pp. 193–197.
[In Russian].7. Grodzensky S.Ya. Quality control. Prospect. Moscow. 2017. 224 p. [In Russian].
8. Cambridge Dictionary [Electronic resource]. Available at: https://dictionary.cambridge.org/dictionary/english/robust (accessed 12.11.2019).
9. Taguchi G., Jugulum R., Taguchi Sh. Computer-Based Robust Engineering. American Society for Quality. Quality Press. Milwaukee 53203. 2005. 217 p.
10. Adler Yu. P. No matter how you deploy it, you still have to structure it. Methods of quality management. 2002. No. 4. pp. 11–13.
[In Russian].11. Dmitriev A.Ya., Vashukov Yu.A., Mitroshkina T. A. Robust design and technological preparation for the production of aircraft products. Samara State Aerospace University named after academician S.P. Korolev. Samara. 2016. 6 p. [In Russian].
12. Vysotskaya M.V., Dmitriev A.Ya. Robust design: a method for improving the production processes of testing products on stands to control the radial and end runout of rotation bodies. Effective management systems: quality, innovations, sustainable development: Proceedings of the VI International Scientific and Practical Forum. Kazan. February 16–18, 2017.Kazan: Publishing house «Knowledge», 2017. pp. 122–126. EDN ZIIZMV.
13. MIL-STD-1629A Military standard procedures for performing a failure mode, effects and criticality analysis. Enter. 1980-11-24. Department of Defense. 1980. 80 p.
14. GOST R 51814.2-2001 Quality systems in the automotive industry. Method of analysis of types and consequences of potential defects. In. 2002-01-01. Standartinform. Moscow. 2001. 40 p.
15. Dessauer F. Dispute on technology. Publishing House of the Samara Humani-tarian Academy. Samara. 2017. 266 p.
16. Altshuller Genrih Saulovich. Available at: https://www.altshuller.ru/triz/. [In Russian].
17. Tursch P, Goldmann Ch, Woll R Integration of TRIZ into quality function deployment. Management and Production Engineering Review. 2015. V. 6. No. 2. pp. 56–62.
18. Caligiana G., Liverani A., Francia D., Frizziero L. and Donnici G. Integrating QFD and TRIZ for innovative design. Journal of Advanced Mechanical Design, Systems, and Manufacturing. 2017. V. 11. No 2. 15 p.
19. Vysotskaya M.V. Improve the integrity testing process based on QFD, FMEA and TRIZ. IOP Conference Series: Materials Science and Engineering: 3rd Inter-national Scientific-Practical Conference on Quality Management and Reliability of Technical Sys-tems, St. Petersburg, 27–29.08.2020. BRISTOL. IOP Publishing Ltd, 2021. pp. 012051. DOI: 10.1088/1757-899X/986/1/012051. EDN WCGLDR.
20. Petrov V.M. Fundamentals of the theory of solving inventive problems. [Electronic resource]. Available at: http://www.triz.natm.ru/articles/petrov/00.htm (accessed 01.03.2020).
21. Filippova T.S., Dmitriev A.Ya., Zagidullin R.S. Quality engineering of agricultural un-manned aircraft. News of the Tula State University. Technical science. 2021. No. 5. pp. 543–548. [In Russian].
22. Filippova T.S. Quality engineering of a gas turbine engine as a key stage in the design of an unmanned aerial vehicle. Collection of abstracts of the international youth scientific conference XLVII Gagarin Readings 2021. Moscow. Pero. 2021. pp. 1191–1193.
[In Russian].23. Filippova T.S., Dmitriev A.Ya. Quality engineering of a gas turbine engine on the base of QFD and FMEA integrated method. Problems and prospects for the development of engine building. Samara State Aerospace University named after academician S.P. Korolev. Samara. 2021. pp. 55–56 [In Russian].
24. Radionov V.N., Popova T.V., Dmitriev A.Ya., Mitroshkina T.A. Method for developing innovations taking into account risks in the production of automotive wires. Cables and wires. 2011. No. 1(326). pp. 10–14. EDN NXBEFN.
25. Zagidullin R., Antipov D., Dmitriev A., Zezin N. Development of a methodology for eliminating failures of an FDM 3D printer using a «failure tree» and FMEA analysis. Journal of Physics: Conference Series : 19, Moscow, 23–27 november 2020. Moscow. 2021. pp. 012085. DOI: 10.1088/1742-6596/1925/1/012085. EDN FLPOQW.
26. Zagidullin R., Mitroshkina T., Dmitriev A. Quality Function Deployment and Design Risk Analysis for the Selection and Im-provement of FDM 3D Printer IOP Conference Series: Earth and Environmental Science. Vladivostok. 06–09 october 2020. Vladivostok. 2021. pp. 062123. DOI: 10.1088/1755-1315/666/6/062123. EDN ORRHGX.
27. Zagidullin R.S., Zezin N.I., Rodionov N.V. Improving the quality of FDM 3D printing of UAV and aircraft parts and assemblies by parametric software changes. IOP Conference Series: Materials Science and Engineering. Moscow. 16–17 october 2020. Moscow. 2021. P. 012031. DOI: 10.1088/1757-899X/1027/1/012031. EDN IOTNWD.
DOI: 10.34214/2312-5209-2022-36-4-03-10
p. 11-15
A.V. Mayakova, Candidate of Philosophical Sciences, Associate Professor, Department of International Relations and Public Administration, Southwest State University; Kursk
e-mail: i@amajakova.ru
This work contains a study of the social quality of life from the perspective of dialectical-synergetic and interdisciplinary approaches, namely, it suggests the notion of a concept of social quality of life, its features are determined in the context of current trends in modern science, the possibility of applying dialectical-synergetic methodology and criteria for interdisciplinary studies of the reproduction of social quality of life through a complex system of qualities (human quality, quality of education, quality of life).
Keywords: quality, social quality of life, dialectical-synergetic approach, interdisciplinary research, complexity theory, system.
The publication was prepared with the support of the Grant of the President of the Russian Federation for state support of young Russian scientists No. MK-261.2022.2 "Social quality management in the era of digital transformations"
References:
1. Serikov G.N., Serikov S.G. The quality of education as a value. Bulletin of SUSU. Series: Education, Healthcare, Physical Training. 2008. No. 29(129). Issue. 17. pp. 14–33.
2. Subetto A.I. Social quality of life in the theoretical system of modern qualitivism. Science and social quality. 2014. No. 2(2). pp. 21–40.
3. Marx K., Engels F. Essays. V. 3. 1955. 652 p.
4. Kuzmin V. P. The principle of consistency in the theory and methodology of K. Marx. Moscow. Politizdat. 1980. 312 p.
5. Budanov V.G. Methodology of synergy in post-nonclassic science and education. Moscow. LKI Publishing House. 2009. 240 p.
6. Arshinov V.I., Budanov V.G. Quantum complexity paradigm. Interdisciplinary context. Kursk. University Book. 2015. 121 p.
7. Mainzer K. Thinking in Complexity: The Complex Dynamics of Matter, Mind, and Mankind. Translated from English by A.V. Berkov. Moscow. URSS. 2008. 463 p.
8. Mayakova A.V. Theory of complexity as the highest stage of synergy. Postgraduate Bulletin of the Volga Region. 2016. No. 3–4. pp. 106–112.
9. Aseyeva I.A., Mayakova A.V. Philosophical foundations and methodological resources of the new paradigm of complexity. Philosophy and Culture. 2015. No. 8(92). pp. 1117–1125.
10. Gerasimova O.Y. Dialectical-synergetic method of social reality research. Historical, philosophical, political and legal sciences, cultural studies and art criticism. Issues of Theory and Practice. 2014. No. 7(45): in 2 parts, Part I. pp. 30–32.
11. Stankevich L.P. The principle of integrity in understanding social reality (axiological aspect). Lipetsk. Publishing House of the Lipetsk State Technical University. 2010. 108 p.
12. Afanasyeva V.V. Nonlinear dialectics. Saratov University Proceedings. New Series. Philosophy. Psychology. Pedagogy. 2014. V. 14. Issue. 3. p. 8.
Imyanitov N.S. Quantity, quality and opposites: yesterday, today, tomorrow. Philosophy and Society. 2009. 1(53). p. 52.
Stepin V.S., Kiyashchenko L.P., Arshinov V.I. Post-nonclassic science, philosophy, science, culture: a collective monograph. Russian Academy of Sciences, Institute of Philosophy, National Academy of Sciences of Ukraine, Center for Humanities Education. St. Petersburg. Mir. 2009. 672 p.
15. Mayakova A.V. Complexity quality as an actual category of post-nonclassic philosophy and science. Philosophy of Science and Technology. 2018. V. 23. No. 1. pp. 116–127.
16. Aseeva I.A., Budanov V.G., Mayakova A.V. From digital technologies to a society of total control? Bulletin of Tomsk State University. Philosophy. Sociology. Political science. 2021. No. 59. pp. 51–59.
17. Arshinov V.I., Svirsky Y.I. The complex world and its observer. Part I. Philosophy of Science and Technology. 2015. V. 20. No. 2. pp. 70–84.
18. Arshinov V.I., Svirsky Y.I. The complex world and its observer. Part II. Philosophy of Science and Technology. 2016. V. 21. No. 1. pp. 78–91.
19. Stepin V.S. Theoretical knowledge. Moscow. Progress-Tradition. 2000. 744 p.
DOI: 10.34214/2312-5209-2022-36-4-11-15
p. 16-26
V.M. Sobol, consultant-programmer of the Scientific and Thematic Center of Joint-Stock Company «Research Institute for Automated Apparatus named after Academician V.S. Semenikhin»; Moscow
e-mail: sobolvm@yandex.ru
E.I. Mitrushkin, Doctor of Technical Sciences, Professor, Scientific Secretary of Joint-Stock Company «Research Institute for Automated Apparatus named after Academician V.S. Semenikhin»; Moscow
S.Y. Baladin, Candidate of Technical Sciences. The Head of the Scientific and Thematic Center of Joint-Stock Company «Research Institute for Automated Apparatus named after Academician V.S. Semenikhin»; Moscow
V.B. Korotayev, Candidate of Technical Sciences, the Senior Researcher. Consultant to the Head of the Scientific and Thematic Center of Joint-Stock Company «Research Institute for Automated Apparatus named after Academician V.S. Semenikhin»; Moscow
The article presents the elements of a multi-level model of the telecommunication complex, formalized in the notations of the pictorial capabilities of extended Petri networks. The methodology of creating an automated document interchange system based on the use of a specialized transport network is considered. A model of addressing the documentary messages is proposed, which is one of the foundations of information interaction of subscribers in spatially distributed systems. The functional structure of tasks of a number of components and subsystems of telecommunication complexes is formalized. A formal description of the organization of the transmission of documentary messages is provided. The paradigm of priority servicing of messages of various categories of urgency is stated.
Keywords: telecommunication complex, addressing system, addressing architecture, data exchange system, documentary exchange, priority maintenance, modeling of systems, Petri networks.
References:
1. Zatsarinnyy A.A., Korotayev V.B., Ivanov V.N., Ionenkov Y.S. The data network as the basis for integrating the perspective of an automated system of public administration bodies. The Quality and Life. No. 3(11). Spec. issue. 2016. pp. 16–18.
2. Sokolov I.А., Оganjan G.А. Stages of formation of a forward-looking architecture of Process Control System of the RF Armed Forces. Weapons at the turn of the century Russia. Vol. 2. Moscow. 2012. pp. 20–31.
3. Korotayev V.B., Mashin V.P., Nesterov B.I., Sobol V.M. Standard series of document interchange complexes. Proceedings of the XII Russian conference on «New information technologies in communication and management». Kaluga. 2013. pp. 65–67.
4. Korotayev V.B., Mashin V.P., Sobol V.M. Telecommunication complex for processing documentary messages. Industrial process control and controllers. «Nauctehclitizdat». Мoscow. 2021. No. 3. pp. 40–51.
5. Mitrushkin E.I. Methodology for addressing messages in automated control systems. The Quality and Life. No. 3(11). Spec. issue. 2016. pp. 27–34.
6. Mitrushkin E.I., Sobol V.M. Addressing Infology in an Automated System. Information technologies in design and production, FSUE «STC of the defense complex «Compass». 2019. No. 3(175). pp. 60–68.
7. Lomazova I.A. Simulation of multi-agent dynamic systems with embedded Petri nets. Software Systems: Theoretical Foundations and Applications: Science. Fizmatlit. 1999. pp. 143–156.
8. Lomazova I.A. Some Analysis Algorithms for Multilevel Embedded Petri Nets. Proceedings of the Russian Academy of Sciences. Theory and Control Systems. No. 6. pp. 965–974.
9. Kotov V.E. Petri Nets. Moscow. Nauka. 1984. pp. 157.
10. Sobol V.M. Documentary Exchange. Aspects of program implementation. Moscow. MIREA. 2010. pp. 230.
11. Sovetov B.Y. etc. The application of microprocessor in systems of information transfer. Moscow. Highest School. 1987. 253 p.
12. Sobol V.M. Strategy for priority service of documentary exchange. Proc. of the XII Russian conference on «New information technologies in communication and management». Kaluga. 2015. pp. 95–98.
DOI: 10.34214/2312-5209-2022-36-4-16-26
p. 27-34
N.L. Solovieva, Head of Education Quality Department, Baltic State Technical University «Voenmeh» D.F. Ustinov; St. Petersburg
e-mail: soloveva_nl@voenmeh.ru
G.N. Ivanova, Candidate of Economic Sciences, Associate Professor, Department of Innovation Studies and Integrated Quality Systems, St. Petersburg State University of Aerospace Instrumentation (SUAI); St. Petersburg
I.V. Chudinoskikh, Plenipotentiary Representative of FBI «Test-St. Petersburg» in TC 115 «Sustainable Development»; St. Petersburg
The article describes the development of an overall assessment and evaluation of management efficiency, allowing to judge whether the path (trajectory of movement) of the company’s development has been chosen correctly.
Keywords: management, sustainable development of the company, strategic objectives, external and internal environmental factors.
References:
1. Sustainable development goals. Available at: https://www.un.org/sustainabledevelopment/en/sustainable-development-goals/ (accessed on: 02.02.2022).
2. Resolution adopted by the UN General Assembly on September 25, 2015 70/1. Transforming our World: The 2030 Agenda for Sustainable Development.
3. Bobylev S.N., Grigoriev L.M. Human Development Report of the Russian Federation 2016. Moscow. Analytical Center under the Government of the Russian Federation. 2016. 298 p.
4. Okrepilov V.V. Sustainable Development of Territories and Quality of Life on the Basis of Quality Economy. Management Consulting. 2015. No. 7. pp. 65–75.
5. United Nations. Transforming our World: The 2030 Agenda for Sustainable Development. Resolution adopted by the general assembly on 25 September 2015 (A/RES/70/L.1). United Nations. New York. p. 1. Access mode: https://www.un.org/en/development/desa/population/migration/generalassem... (accessed on: 13.02.2022).
6. Russian business and sustainable development goals. Collection of corporate practices. Мoscow. Russian Union of Industrialists and Entrepreneurs. 2018. p. 200
7. Proceedings of the conference of Roskachestvo Academy «The model of sustainable development of enterprises and organizations: Roskachestvo approaches». May 27, 2022. Available at: https://kachestvo.pro/events/ustoychivaya-pyatnitsa-model-ustoychivogo-r... (accessed on: 27.05.2022).
8. Korshunov Р., Sarayev A. ESG-banking for the 1st half of 2021: Green Paper. Chapter 1. Available at: https://raexpert.ru/docbank/c38/9e2/2c4/c84ea92d990609a5d7390c9.pdf (accessed on: 30.03.2022).
9. AK&M’s ESG reporting rating in 2021. Available at: https://akmrating.ru/reytingotchetnostiesg/ (accessed on: 02.04.2022).
10. ESG-ranking of Russian companies RAEX-Europe in 2021. Available at: https://raex-a.ru/rankings/ESG_raitings_RUS_companies/2021 (accessed on: 02.04.2022).
11. M. Dmitriyev ESG in Russia: Sustainable development leaders and pseudo green players. Black Terminal. Available at: https://blackterminal.com/articles/esg-v-rossii-lidery-ustojcivogo-razvi... (accessed on: 03.04.2022).
12. Sustainable Development Report 2019. Commitment. Responsibility. Result. Available at: file:///C:/Users/A952/Downloads/Polymetal_Sustainability_Report_web_2019_eng.pdf (accessed on: 03.04.2022).
13. AK&M Reporting Rating ESG. Available at: https://akmrating.ru/reytingotchetnostiesg/ (accessed on: 04.04.2022).
14. RAEX analytics. Available at: https://raex-a.ru/rankings/ESG_raitings_RUS_companies/2021 (accessed on: 04.04.2022).
15. Key facts of Sberbank’s ESG and Sustainable Development Policy. 2021.
16. Masina O.N. Stability analysis of predicate control systems based on soft Lyapunov functions. Bulletin of Mordovian University. 2012. No. 2. pp. 53–60.
17. Belobragin V., Salimova T., Biryukova L. Standardization in achieving the UN Sustainable Development Goals. Standards and Quality. 2019. No. 7. pp. 32–38.
18. Solovieva N.L., Chudinovskikh I.V. Standardization as a tool for achieving sustainable development of organizations of social services. Quality and Life. 2020. No. 1(25). pp. 35–41.
19. Zvorykina T.I. Rationale of the model of the national system of normalization and standardization of sustainable development of administrative-territorial entities and its elements. Bulletin of the Russian New University. Series «Man and Society». 2019. No. 1/2019. pp. 95–101
20. Saburova M.M. Diversification as a factor of sustainable development of the enterprise: the thesis abstract of Candidate of Economic Sciences. Ulyanovsk. 2006.
. Ilyin I.V., Los V.A., Ursul A.D. Sustainable development and global processes. Moscow. Moscow University Press. 2015. 445 p.
22. Chernykh Y.V., Ivanova G.N. Standardization in sustainable enterprise development. Moscow. Scientific Consultant Publishing House. 2020. 178 p.
DOI: 10.34214/2312-5209-2022-36-4-27-34
p. 35-41
E.E. Galkina, Candidate of Economic Sciences, Associate Professor, Moscow Aviation Institute (NRU); Moscow
e-mail: mai503@yandex.ru
A.E. Sorokin, Candidate of Economic Sciences, Associate Professor, head of the department «Ecology, Life Support Systems and Life Safety», Moscow Aviation Institute (NRU); Moscow
M.I. Dainov, Candidate of Sciences in Engineering, Professor, Moscow Aviation Institute (NRU); Moscow
M.A. Kovtun, postgraduate student, Moscow Aviation Institute (NRU); Moscow
In 2021, in Russia, against the background of increased funding for the occupational safety measures, an increase in occupational injuries with severe consequences for the health of workers was recorded. Among the reasons that led to accidents, the organizational reasons prevail. In order to change the current situation, all Russian enterprises should develop occupational safety management systems and switch to a risk-based approach in occupational safety management involving the most individual assessment and consideration of the existing and projected risks at each workplace, and the formation of action plans to eliminate them, taking into account the specifics of workplaces. The development of occupational health and safety management systems, taking into account the recommendations of GOST R ISO 45001-2020, will allow the enterprises to fulfill the legal requirements, implement a system approach to the organization of work on occupational safety, effectively work to eliminate occupational risks, and further certify the occupational health and safety management system.
Keywords: occupational injuries, occupational safety management system, risk-oriented approach to occupational safety management, corporate safety culture, personnel responsibility.
References:
1. Results of occupational safety and health monitoring in the Russian Federation in 2020. Moscow. Ministry of Labor and Social Protection of the Russian Federation. 2021.2
2. Report on State supervision of compliance with labor legislation and other laws and regulations containing labor law norms for 2020. Moscow. Rostrud. 2021.3
3. Federal Law No. 311-FZ of 02.07.2021 «On Amendments to the Labor Code of the Russian Federation».
4. Order of the Ministry of Labor of Russia of 29.10.2021 No. 776n «On approval of the approximate regulation on the system of occupational safety management».
5. GOST R ISO 45001-2020 «Occupational safety and health management systems. Requirements and guidance for use». Moscow. Standard Information. 2020.6
6. Galkina E.E., Sorokin A.E., Daynov M.I. Ways to reduce production risks in aerospace enterprises. Quality and Life. 2018. No. 4. pp. 22–27.
7. ISO 45001:2018 Occupational health and safety management systems. A practical guide for small organizations. Geneva. ISO/TC 283. 2021.
8. Galkina E.E., Sorokin A.E., Kabanov A.S., Khanetsky A.S. Development of industry recommendations for the implementation of ISO 45001:2018 in the aviation industry. Innovation and Investment. 2019. No. 10. pp. 327–332.
9. Resolution of the Government of the Russian Federation of 24.12.2021 No. 2464 «Rules for the training of workers in occupational safety».
10. Federal Law No. 197-FZ dated 30.12.2001 «Labor Code of the Russian Federation» (revision as of 25.07.2022).
DOI: 10.34214/2312-5209-2022-36-4-35-41
p. 42-45
М.А. Nikitenkova, Doctor of Economic Sciences, member of the Russian Society of Sociology, Senior Research Fellow, The Institute of USA and Canada Studies under the Russian Academy of Sciences; Moscow
e-mail: maria.nikitenkova@mail.ru
The article deals with assessing the contribution of the information and communication sector (ICS) to the middle and long-term development of the Russian economy. It analyses digitalization of economic processes in the conditions of geo-economic shift, target strategies of the growing national ICT companies.
Keywords: economic growth, information and communication technologies (ICT), information and communication sector (ICS), digitalization, markets, ecosystem.
References:
1. The program «Digital Economy of the Russian Federation». Approved by the Decree of the Government of the Russian Federation No. 1632-r dated 28.07.2017. Available at: http://static.government.ru/media/files/9gFM4FHj4PsB 79I5v7yLVuPgu4bvR 7M0.pdf.
2. «Passport of the national program «Digital Economy of the Russian Federation» (approved by the Presidium of the Presidential Council for Strategic Development and National Projects, Protocol No. 16 dated 24.12.2018). Available at: https://legalacts.ru/doc/pasport-natsionalnoi-programmy-tsifrovaja-ekono....
3. Development of the digital economy in Russia. Program until 2035. Available at: http://2035.media/2018/04/27/strategy2024/.
4. The ICT Development Index (IDI): Conceptual Framework and Methodology. Available at: https://www.itu.int/en/ITU-D/Statistics/Pages/publications/mis/methodolo....
5. Belousov D.R., Penukhina E.A. On the Construction of a Qualitative Model of the Russian ICT Ecosystem. Studies on Russian Economic Development. 2018. Vol. 29. No. 3. pp. 295–302.
6. Klaus Schwab. The Global Competitiveness Report 2017–2018. World Economic Forum Insight Report, 2017. Available at: http://www3.weforum.org/docs/GCR2017-2018/05FullReport/TheGl obalCompetitivenessReport2017%E2%80%932018.pdf.
7. Aptekman A. et al. Company. Digital Russia: a new reality. 2017. Available at: http://www.tadviser.ru/images/c/c2/ Digital-Russia-report.pdf.
8. Glazyev S.Y. Strategy of advanced development of Russia in the conditions of the global crisis. Moscow. Ekonomika. 2010
9. Glazyev S.Y., Dementiev V.E., Yelkin S.V. Nanotechnology as a key factor of a new technological order. Moscow. Trovant. 2009.
10. Kazun A.D. Why are Russians not afraid of economic sanctions? Monitoring public opinion: Economic and social changes. 2019. No. 1. pp. 256–271.
11. Koroleva S.I., Malyshkov V.I., Gorelova T.P. The role of digital economy in modern trade. Bulletin of the Academy. 2017. No. 3. pp. 5–11.
DOI: 10.34214/2312-5209-2022-36-4-42-45
ORGANIZATION OF PRODUCTION
p. 46-51
R.D. Farisov, Candidate of Sciences in Engineering, KAMAZ PTC; Republic of Tatarstan, Naberezhnye Chelny
M.A. Ioffe, Doctor of Sciences in Engineering, Professor, Peter the Great Saint Petersburg Polytechnic University, Litye-Servis LLC; St. Petersburg
V.N. Kozlovsky, Doctor of Sciences in Engineering, Professor, Head of the Department of Theoretical and General Electrical Engineering, Samara State Technical University; Samara
e-mail: Kozlovskiy-76@mail.ru
The main goal of casting is exclusion of foundry defects in castings. The efficiency of mass foundry production of castings depends on a combination of a large number of heterogeneous factors. The justification for the expediency of a synergy approach to a quality management system (QMS) in mass foundry production is illustrated by an example of a casting with numerous defects. The foundry synergy is interaction of all operations aimed at producing a high-quality casting, characterized by the fact that the total effect of the interaction of production operations exceeds the effect of all individual operations in the form of their simple sum.
The synergy approach in the QMS of mass foundry production contributed to the improvement of the quality of castings.
Keywords: foundry, casting, quality, defect, technological process, synergy, effect.
References:
1. Voronin Y.V., Kamayev V.A. Atlas of foundry defects. Black alloys. Moscow. Mechanical Engineering. 2005. 328 p.
2. GOST 19200-80. Castings from cast iron and steel.
3. Ioffe M.A., Farisov R.D. On the reserves of improving the efficiency of foundries from the position of energy. Steel Worker of Russia. 2019. No. 2. pp. 29–31.
4. Sadovnikov I.V. Qualimetry. Chita. Chita State University. 2009. 150 p.
5. Henry Ford. My life, my achievements. Moscow. Bombora. 2020. 352 p.
6. Geizer Y.V. et al. Experience of development and application of quality system in foundry production of Petrozavodskmash. Foundry Production. 2001. No. 3.
7. Haken G. Mysteries of Nature. Synergy: The Teaching of Interaction. Moscow–Izhevsk. Computer Research Institute. 2003. 320 p.
8. Kuznetsov B.L. Synergy management in mechanical engineering. Naberezhnye Chelny. Publishing house of the Kama State Polytechnic Institute. 2003. 400 p.
9. Haken G. Synergy. Moscow. Mir. 1980. 405 p.
10. Farisov R.D., Ioffe M.A. Model of continuous improvement of the efficiency of mass iron foundry production on Deming cycle. Caster of Russia. 2020. No. 10. pp. 15–18.
11. Ioffe M.A., Farisov R.D. Method for assessing the efficiency of the continuous improvement of the quality of castings from the perspective of synergy. Foundry production today and tomorrow: Proceedings of the International Scientific and Practical Conference. St.-Peterburg. Kult Inform Process Publishing House. 2020. 267 p.
12. Farisov R.D. et al. Improving the efficiency of mass iron foundry production based on the synthesis of modern management systems. Tula. Tula State University Press. 2022. 122 p.
DOI: 10.34214/2312-5209-2022-36-4-46-51
p. 51-56
Beginning. Ending at No. 1(37) 2023
B.V. Boytsov, Ph.D., Professor, Moscow Aviation Institute (NRU); Moscow
G.N. Kravchenko, Candidate of Sciences in Engineering, Associate Professor, Moscow Aviation Institute (NRU); Moscow
e-mail: gnkrav@mail.ru
Y.V. Petukhov, Candidate of Sciences in Engineering, Associate Professor, Moscow Aviation Institute (NRU); Moscow
K.G. Kravchenko, Lead Engineer, Moscow Aviation Institute (NRU); Moscow
The analytical-experimental assessment of the crack development kinetics under variable loading in smooth zones of power parts of machines toughened by various methods of surface plastic deformation is provided and justified. These methods can be used in engineering calculations in predicting the effectiveness of design and technology decisions to provide critical quality indicators of components and parts that determine their survivability and reliability in operation, as well as in the appropriation and design of reinforcing technologies.
Keywords: performance quality, crack resistance, fatigue strength, surface hardening, high strength steel, forecasting.
References:
1. Kravchenko G.N., Kravchenko K.G. Selection of technological parameters of shot-impact hardening of power parts of aircraft structures. Moscow. Polet. 2018. No. 4. pp. 37–44.
2. Boytsov B.V., Kravchenko G.N. Study of the influence of hardening by surface plastic deformation on the development of fatigue cracks in steel 30HSGN2A. Strength problems. 1983. No. 7. pp. 24–27.
3. Boytsov B.V., Kravchenko G.N. Some patterns of fatigue fractures of samples hardened by surface plastic deformation. Mechanical Engineering Bulletin. 1983. No. 4. pp. 10–13.
4. Boytsov B.V., Kravchenko G.N., Petuhov J.V. Effect of residual stress and overloading on initiation and fatigue crack propagation mechanism. Mechanical behavior of material. V. ISM 5. Pergamon press. Oxford. V. 1. 1986. pp. 749–756.
5. Cherepanov G.P. Mechanics of fragile destruction. Moscow. Nauka. 1974. 640 p.
DOI: 10.34214/2312-5209-2022-36-4-51-56
AIR TRANSPORT
p. 57-61
E.A. Basharov, Candidate of Science in Engineering, Associate Professor of Helicopter Design Department, Moscow Aviation Institute (NRU); Moscow
A.I. Resinets, Doctor of Military Sciences, Associate Professor of Helicopter Design Department, Moscow Aviation Institute (NRU); Moscow
e-mail: resinetsAI@mai.ru
A.A. Resinets, Assistant at the Aircraft Design and Certification and Helicopter Design departments at the Moscow Aviation Institute (NRU); Moscow
S.A. Tkachenko, Senior Lecturer, Helicopter Design Department, Moscow Aviation Institute (NRU); Moscow
The article focuses on the study of the use of unmanned aerial vehicles in agriculture, as one of the most promising fields for which the demand is actively growing. Different drones of airplane, helicopter and copter type are considered and analyzed. It was concluded that the development of the unmanned aviation market in Russia requires improvements in the regulatory framework.
Keywords: unmanned aerial vehicles, unmanned helicopters, drones, agriculture.
References:
1. Svishchev G.P. Aviation: Encyclopedia. Moscow. Grand Russian Encyclopedia. 1994. 736 p.
2. Drones in agriculture: types, advantages, applications. Available at: geomir.ru.
3. Russian Helicopters unveiled its first multifunctional BAS-750 drone. Engineering Technology. Dzen. Available at: dzen.ru.
4. Legal regulation of the use of drones in agriculture. Agrodrone market and technical prerequisites for its development in Kemerovo. Available at: profi-cpr.ru.
5. Order of the Ministry of Transport of the Russian Federation of September 29, 2015 No. 289 «On approval of the Federal Aviation Rules «Requirements for educational organizations and organizations providing training of specialists of the relevant level according to the lists of specialists of aviation personnel. The form and procedure for issuing a document confirming the compliance of educational organizations and organizations engaged in training according to the lists of aviation personnel specialists with the requirements of federal aviation regulations», as amended and supplemented on August 12, 2020».
6. Order of the Ministry of Transport of the Russian Federation dated 19 November 2020 N 494 «On Approval of the Federal Aviation Regulations «Requirements for legal entities, individual entrepreneurs performing aviation works included in the list of aviation works providing for a document confirming the compliance with federal aviation regulations of a legal entity, individual entrepreneur. The form and procedure for issuing a document (operator’s certificate) confirming a legal entity’s or individual entrepreneur’s compliance with federal aviation regulations. The procedure for the suspension, restriction of validity and cancellation of an operator’s certificate».
7. Federal Law of December 29, 2012 No. 273-FZ «On Education in the Russian Federation». Available at: Consultant.ru›document/cons_doc_LAW_140174.
DOI: 10.34214/2312-5209-2022-36-4-57-61
p. 62-66
E.A. Basharov, Candidate of Science in Engineering, Associate Professor of Helicopter Design Department, Moscow Aviation Institute (National Research University); Moscow
A.I. Resinets, Doctor of Military Sciences, Associate Professor of Helicopter Design Department, Moscow Aviation Institute (National Research University); Moscow
e-mail: resinetsAI@mai.ru
A.A. Resinets, Assistant at the Aircraft Design and Certification and Helicopter Design departments at the Moscow Aviation Institute (NRU); Moscow
S.A. Tkachenko, Senior Lecturer of Helicopter Design Department, Moscow Aviation Institute (NRU); Moscow
The article analyzes unmanned helicopters of the midi and mini classes and makes a comparative analysis of their characteristics. The selection of the effective payload and take-off mass of agricultural unmanned helicopters should be based on an analysis of the ongoing agricultural work of the future operator.
Keywords: unmanned helicopters, drones, agriculture, on-board electronic equipment, piston engine, turbo-propeller engine, radar.
References:
1. Bondarev A.N., Kirichek R.V. Review of public drones and regulation of air traffic of drones in different countries. See articles Information technology and telecommunications. V. 4. No. 4. 2016.
2. Zavalov O.A., Maslov A.D. Modern propeller-wing unmanned aerial vehicles. Moscow. Published in MAI. 2008. 196 p.
3. Unmanned «Helicopters of Russia». Vzlet. No. 6. 2010.
4. «Helicopters of Russia» to take on drones. Vzlet. No. 3. 2009.
5. Beard R.W., McLain T.W. Small Unmanned Aircraft Theory and Practice. Moscow. Technosphere. 2015. 312 p.
6. Izmailov A.Y., Gozhaev Z.A. Project «Creation of a complex of unmanned aerial systems for agricultural purposes». All-Union Research Institute of Agricultural Mechanization, LLC «Geoskan» together with LLC «GIROPLAN RUS». 2016.7
7. Unmanned aircraft. Collection of articles. Avaliable at: UAV.ru.
DOI: 10.34214/2312-5209-2022-36-4-62-66
p. 67-73
A.I. Resinets, Doctor of Military Sciences, Associate Professor of Helicopter Design Department, Moscow Aviation Institute (National Research University); Moscow
e-mail: resinetsAI@mai.ru
A.A. Resinsets, Assistant at the Aircraft Design and Certification and Helicopter Design departments at the Moscow Aviation Institute (NRU); Moscow
E.A. Basharov, Candidate of Science in Engineering, Associate Professor of Helicopter Design Department, Moscow Aviation Institute (NRU); Moscow
The article analyzes the aviation accidents involving helicopters for the period 2010–2021. It has been concluded that human factors are the proximate causes of aviation accidents. In the five main groups of aviation accidents causes, there is a human being who is prone to error. The number of erroneous actions is directly related to the level of theoretical, simulator and flight training of aviation personnel; theoretical and practical training of airline engineering personnel and the low demands of managerial personnel
Keywords: helicopter, aircraft, aviation safety, aircraft accident, aviation incident.
References:
1. Decision of the Government of the Russian Federation of 2 December 1999 No. 1329 «On approval of the Rules for the investigation of aviation accidents and incidents involving state aircraft in the Russian Federation».
2. Extended meeting with civil aviation organizations. State of aviation safety, analysis of aviation accidents due to Controlled Flight Into Terrain. 30.09.2021, Federal Agency of Air Transport of the Ministry of Transport of the Russian Federation. Available at: favt.gov.ru/83c69ba0ea4d81ffc957e264ef41d854.pdf
3. GOST 18675 – 2012. Documentation operational and repair on aircraft equipment and purchased products for it. Moscow. StandardInform. 2013. 225 p.
4. Novozhilov G.V., Neimark M.S.,Tsesarsky L.G. Aircraft safety: Concept and technology. Мoscow. MAI Publishing House. 2007. 196 p.
5. Resinets A.I. Maintainability of helicopters. MAI Publishing House. 2018. 96 p.
6. Resinets A.I. Operational reliability and safety of helicopters. MAI Publishing House. 2019. 96 p.
7. Resinets A.I., Resinets A.A., Gusev A.S. Multifactorial Analysis of Flight Safety Assessment of the Aviation Transport System in the Unified Airspace of Jointly Based Airfields. Quality and Life. No. 1. 2022.
8. Danilov V.A., Zanko V.M., Kalinin N.P., Krivko A.I. Helicopter Mi-8 MTV. Moscow. Transport. 1995. 295 p.
9. GOST R 57242– 2016. Air transport. Aviation safety management system. Database. Aviation risks arising frоm design of aircrafts. Applicable frоm 01.07.2017. 10 p.
10. ICAO Doc 9859 AN/474 Safety Management Manual (SMM). Edition 3. 2013. 300 p.
DOI: 10.34214/2312-5209-2022-36-4-67-73
p. 74-76
A.R. Aliyev, postgraduate student of the Department of "Air Traffic Control" of Moscow State Technical University of Civil Aviation; Moscow
e-mail: fresh-hockey@mail.ru
The article considers the importance of the dependence of the education quality on timely updating of the information related to the civil aviation safety. It proposes options for the implementation and use of modern documentation related to the aviation safety management system of the aircraft in the educational environment.
Keywords: aviation safety, civil aviation, educational environment, aviation safety management system.
References:
1. M. Zieja, H. Smoliński, P. Gołda. Proactive methods – new quality in aircraft flight safety management. Journal of KONBiN. 2015. Vol. 4. No. 36. pp. 105–114.
2. Aircraft runway overrun: prevention and treatment: a compilation of scientific papers. Editorial board: L.N. Yelisov. Editor-in-chief A.I. Pleshakov. Moscow. Publishing house of the State Research and Development Institute of Civil Aviation. 2019. 146 p. Available at: http://gosniiga.ru/wp-content/uploads/2019/10/Nauchnyj-vestnik-GosNII-GA... (accessed on: 10.04.2022). Access mode: Scientific Bulletin of the State Research and Development Institute of Civil Aviation.
3. Jesús Álvarez-Santos, Liliana Herrera, Mariano Nieto. Safety Management System in TQM environments. Safety Science. 2018. Vol. 101. pp. 135–143.
4. ICAO Doc 9859. Safety Management Manual (SMM). Edition 4. Montreal: ICAO, 2018. 218 p.
DOI: 10.34214/2312-5209-2022-36-4-74-76
p. 76-80
A.V. Rumakina, Senior Lecturer of the Department 301 «Automatic and Intelligent Control Systems» of the Moscow Aviation Institute (NRU); Moscow
e-mail: rav@mai.ru
The article considers the problem of quality management for grouped operations planning in the organization of air traffic in the process of changing its intensity by selecting the necessary service discipline. Several criteria for quality assessment using the penalty functions are considered, depending on the indicators that need to be minimized – first of all, the waiting time in the service of each application and the downtime of aircraft at times when there are no applications, as well as the total cost of the flight. The purpose of the study is to improve the quality of planning grouped operations of the unmanned and small aircraft.
Keywords: management, quality, grouped operations, aircraft, «air taxi».
The study was carried out with the financial support of RFBR grant No. 20-08-00652
References:
1. Evdokimenkov V.N., Krasilshchikov M.N., Kozorez D.A. Development of pre-flight planning algorithms for the functional-program prototype of a distributed intellectual control system of unmanned flying vehicle groups. INCAS Bulletin. 2019. V. 11. No. 1. рр. 75–88. DOI: 10.13111 / 2066-8201.2019.11.S.8.
2. Goncharenko V.I., Lebedev G.N., Martynkevich D.S., Rumakina A.V. Formulation of the problem of planning the routes of aircraft when servicing a random flow of incoming requests in flight. Bulletin of computer and information technologies. 2021. V. 18. No. 1. pp. 17–27. DOI: 10.14489 / vkit.2021.01.pp.017-027.
3. Goncharenko V.I., Lebedev G.N., Martynkevich D.S., Rumakina A.V. Operational planning of aircraft routes when servicing a random stream of requests arriving during the flight. Journal of Physics: Conference Series. 2021. V. 1958. No. 1. pp. 012016. DOI (CrossRef): 10.1088/1742-6596/1958/1/012016.
4. Melekhin V.B., Khachumov M.V. Effective routes planning by autonomous unmanned aerial vehicle of targets overflights. Aviakosmicheskoe priborostroenie. 2020. No. 4. рр. 3–14. DOI: 10.25791 / aviakosmos.04.2020.1150. (in Russian).
DOI: 10.34214/2312-5209-2022-36-4-76-80
p. 81-83
G.N. Lebedev, Doctor of Engineering Sciences, Professor of the Department 301 «Automatic and Intelligent Control Systems» of the Moscow Aviation Institute (NRU); Moscow
V.I. Goncharenko, Doctor of Engineering Sciences, Associate Professor, Moscow Aviation Institute (NRU); Moscow
A.V. Rumakina, Senior Lecturer of the Department 301 «Automatic and Intelligent Control Systems» of the Moscow Aviation Institute (NRU); Moscow
e-mail: rav@mai.ru
This article discusses the problem of quality management of planning grouped operation of the unmanned and small aircraft serving a random flow of applications. This problem is solved by choosing the optimal amount of aircraft. This indicator affects the downtime of aircraft while waiting for the applications, as well as the waiting time for the service of applications.
Keywords: management, quality, aircraft, «air taxi».
The study was carried out with the financial support of RFBR grant No. 20-08-00652
References:
1. Goncharenko V.I., Lebedev G.N., Martynkevich D.S., Rumakina A.V. Operational planning of aircraft routes when servicing a random stream of requests arriving during the flight. Journal of Physics: Conference Series. 2021. V. 18. No. 1. pp. 17–27. DOI: 10.14489/ vkit.2021.01.pp.17–27.
2. Sebryakov G.G., Krasilshchikov M.N., Evdokimenkov V.N. Algorithmic and software-mathematical support for pre-flight planning of the unmanned aerial vehicles grouped operations. Fundamental problems of group interaction of robots: materials of the RFBR reporting event for the «ofi-m» competition (topic 604) within the framework of an international scientific and practical conference. Volgograd. 2018. pp. 30–32.
3. Saati T.L. Elements of Queuing Theory and Its Applications. Translation frоm English by E.G. Kovalenko; ed. I.N. Kovalenko and R.D. Kogan. Moscow. Soviet Radio. 1965. 510 p.
4. Mefedov A.V. Algorithm for optimal target allocation of an autonomous attack of the unmanned aerial vehicles group. Information and Space. 2018. No. 3. pp. 167–171.
DOI: 10.34214/2312-5209-2022-36-4-81-83
COMPOSITE MATERIALS
p. 84-88
E.A. Basharov, Candidate of Science in Engineering, Associate Professor of Helicopter Design Department, Moscow Aviation Institute (NRU); Moscow
A.I. Resinets, Doctor of Military Sciences, Associate Professor of Helicopter Design Department, Moscow Aviation Institute (National Research University); Moscow
e-mail: resinetsAI@mai.ru
A.A. Resinets, Assistant at the Aircraft Design and Certification and Helicopter Design departments at the Moscow Aviation Institute (NRU); Moscow
S.A. Tkachenko, Senior Lecturer, Helicopter Design Department, Moscow Aviation Institute (NRU); Moscow
The introduction of integral structures frоm polymer composite materials in the airframe of advanced rotary-wing aircrafts received a new impetus at the beginning of the 21st century.
Keywords: helicopter, polymer composite materials.
References:
1. Basharov E.A., Vagin A.Y. Application of composite materials in helicopter airframe design. History and contemporary state. Collection of works of the 14th Forum of the Russian Helicopter Society. MAI Publishing House. 2015. pp. 31–76.
2. Michael LeGault for High Performance Composites magazine. May 2013.
3. Bruce F. Kay Sikorsky S-75 ACAP Helicopter, March 7, 2013. © Copyright 2011. Sikorsky Archives.
4. Marianne Heffernan. Sikorsky S-97 RAIDER™ Helicopter Achieves Successful First Flight. Sikorsky. 2015.
DOI: 10.34214/2312-5209-2022-36-4-84-88
p. 89-95
E.A. Basharov, Candidate of Science in Engineering, Associate Professor of Helicopter Design Department, Moscow Aviation Institute (NRU); Moscow
A.I. Resinets, Doctor of Military Sciences, Associate Professor of Helicopter Design Department, Moscow Aviation Institute (NRU); Moscow
e-mail: resinetsAI@mai.ru
A.A. Resinets, Assistant at the Aircraft Design and Certification and Helicopter Design departments at the Moscow Aviation Institute (NRU); Moscow
The main purpose of the study is to analyze the experience of using the integrated structures made of polymer composite materials in helicopter airframes.
Keywords: helicopter, polymer composites, airframe design.
References:
1. Basharov E.A., Vagin A.Y. Application of composite materials in helicopter airframe design. History and state of the art. Collection of works of the 14th Forum of the Russian Helicopter Society. MAI Publishing House. 2015. pp. 31–76.
2. Vagin A.Y., Golovin V.V. Composites in frame structures. Helicopter. 1998. No. 4. pp. 12–15.
3. Vagin A.Y., Shchetinin Y.S. Application of polymer composite materials in helicopter designs of Kamov company. Abstracts of the reports of the interdisciplinary scientific and technical conference «Composite materials in aerospace materials science». Moscow. VIAM. 2009. p. 20.
4. Michael LeGault for High Performance Composites magazine. May 2013.
5. Bruce F. Kay Sikorsky S-75 ACAP Helicopter, March 7, 2013. © Copyright 2011. Sikorsky Archives.
6. Marianne Heffernan. Sikorsky S-97 RAIDER™ Helicopter Achieves Successful First Flight. Sikorsky. 2015.
7. Avaliable at: http://www.airwar.ru/enc/ah/rah66.html; http://www.airwar.ru/enc/uh/ec145.html; http://www.aviastar.org/helicopters_rus/nato-90-r.html
DOI: 10.34214/2312-5209-2022-36-4-89-95
