"Quality and Life" № 3(31) 2021
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Main theme: Quality management as a tool for improvement Release date: 22.09.2021 Только зарегистрированный пользователь может получить доспуп к электронной версии журнала |
QUALITY MANAGEMENT
p. 3-8
Implementation of «Employee Interaction» Principle in University Quality Management System
Mozhayeva T.P., Candidate of Technical Sciences, Associate Professor, Head of the Information Expertise Department of Further Vocational Education at Bryansk State Technical University; Full Member and Scientific Secretary of Bryansk Branch of Academy of Quality Problems; Bryansk
e-mail: goa-bgtu@mail.ru
Simkin A.Z., Candidate of Technical Sciences, Associate Professor, Vice-Principal for Further Vocational Education and International Cooperation, Bryansk State Technical University; Vice-President of Bryansk Branch of Academy of Quality Problems; Bryansk
Proskurin A.S., Leading engineer at the Information Expertise Department of Further Vocational Education at Bryansk State Technical University; Bryansk
An approach to the implementation of the conceptual principle of «Employee interaction» in the quality management system (QMS) of a higher educational institution in the context of international standards ISO 9000:2015 is considered. The analysis of scientific views on the interpretation of this managerial phenomenon, mechanisms and technologies of its identification is carried out. The structure of the parameter «employee interaction» in the interpretation of ISO 9000:2015 is justified, including the procedure for its evaluation. The expediency of applying the proposed approach in integrating the principle of «employee interaction» into the QMS processes of an educational organization is argued.
Keywords: quality management system of the university, ISO 9000:2015, the principle of «employee interaction», the structure of the parameter «employee interaction», the procedure for evaluating the parameter «employee interaction».
References:
1. Kahn W.A. Psychological conditions of personal engagement and disengagement at work. Academy of Management Journal. No. 33(4). pp. 692–724.
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4. Dolzhenko R.A. Personnel involvement: indicators and evaluation methods. Motivation and remuneration. 2014. No. 04(40). pp. 258–267.
5. Tokarev A.A., Baronene S.G. Methodology of research on university employees involvement. University management: practice and analysis. 2019. No. 23(1–2). pp. 11–32.
6. Babaeva Y.D. Implementation of the quality management principle in the practice of enterprise management – «Interaction of employees». In.: The relevant problems of economics and management: Materials of the Interuniversity Scientific and Practical Conference, 15 November 2016, Omsk. 2016. pp. 119–122.
7. Smirnov P.S. Personnel involvement: types, levels of manifestation and links to human resources management practices. Organizational psychology. 2019. Vol. 9. No. 1. pp. 81–95.
8. Cheglakova L.M. Personnel involvement: theoretical approaches, empirical results. Bulletin of the Lobachevsky University of Nizhny Novgorod. Series: Social sciences. 2016. No. 1(41). pp. 121–128.
9. Potapova V., Tkacheva A., Shcherbina A., Zhirnova E. Development of human resources in the quality management system. The role of technical regulation and standardization in the digital economy era. Collection of Articles of the II International Scientific and Practical Conference of Young Scientists. 21 April 2020. Yekaterinburg. 2020. pp. 197–205.
10. Gorlenko O.A., Miroshnikov V.V., Borbats N.M. Quality management of design and technological preparation of the machinery production on the basis of integrated FMEA analysis. Bulletin of the Bryansk State Technical University. 2016. No. 1. pp. 178–187.
DOI: 10.34214/2312-5209-2021-31-3-3-8
p. 8-18
Model of Intelligent Assistance System Using fmea Support System. Part 2
The work was prepared with the support of the grant of the President of the Russian Federation NSH-2515.2020.8
Panyukov D.I., Candidate of Technical Sciences, Associate Professor, at Samara State Technical University; Samara
Kozlovskiy V.N., Doctor of Technical Sciences, Professor, Head of the Department of Theoretical and General Electrical Engineering at Samara State Technical University; Samara
e-mail: Kozlovskiy-76@mail.ru
The article presents the main results of the development and implementation of a corporate information system of an engineering management tool – failure modes and effects analysis (FMEA).
Keywords: quality management; automotive industry; analysis of the types and consequences of failures.
References:
1. Panyukov D.I., Kozlovskiy V.N. Highlights of Russian experience in implementing ISO/TS 16949. Life Science Journal. 2014. No. 11(8s). pp. 439–444.
2. Kozlovskiy V.N., Stroganov V.I., Debelov V.V., Pyanov M.A. System of electronic traffic control systems for a passenger car with a combined power plant. Part 1. Electrotechnical and information complexes and systems. 2014. V. 10. No. 1. pp. 40–49.
3. Kozlovskiy V.N., Stroganov V.I., Kleymenov S.I. Comprehensive assessment of consumer satisfaction with cars quality. Standards and Quality. 2013. No. 5. pp. 94–98.
4. Kozlovskiy V.N., Panyukov D.I., Yunak G.L. Information support of quality management methods. Science for Industry and Service. 2015. No. 9–2. pp. 362–368.
5. Panyukov D.I., Panyukova E.V. Information technologies for support of quality management systems in the car industry. Synergy of natural, technical and socio-economic systems. 2018. No. 15. pp. 192–198.
6. Panyukov D.I., Kozlovskiy V.N., Slistina G.G. Designing new production processes. Standards and Quality. 2014. No. 11(929). pp. 92–95.
7. Nemtsev A.D., Kozlovskiy V.N. Modeling, a product quality management tool. Car Industry. 2003. No. 10. pp. 1.
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DOI: 10.34214/2312-5209-2021-31-3-8-18
p. 19-24
Substantiation of Protective Zones in Specially Protected Natural Areas for Improving their Conditions
Ivanchenkova O.A., Candidate of Agricultural Sciences, Associate Professor, Department of Industrial Ecology and Technosphere Safety, Bryansk State Engineering and Technological University; Bryansk
e-mail: oa-iva79@mail.ru
Levkina G.V., Candidate of Agricultural Sciences, Associate Professor, Department of Industrial Ecology and Technosphere Safety, Bryansk State Engineering and Technological University; Bryansk
Lutsevich A.A., Senior Lecturer, Department of Industrial Ecology and Technosphere Safety, Bryansk State Engineering and Technological University; Bryansk
The purpose of this work was to describe the principles and methods of substantiation of protective zones in specially protected natural areas (hereinafter SPNA) for improving their conditions. In this paper, a specific example is used to analyze the main approaches to comprehensive environmental survey of the territory, and consider the regulatory and legal framework, the basic techniques for establishing the boundaries of the protected area. The paper describes the main stages of a comprehensive environmental survey of the SPNA having natural and historical, aesthetic, recreational value. It identifies the main factors and threats of negative impacts in the territory of natural monuments, which can be grouped as follows: development of landslide and erosion processes, recreational load and littering the territory of the protected areas, violation of the protection regimes established in the territory of natural monuments. The methods of substantiating the protection regimes and calculating the erosion resistance have been improved , the principles for determining the stages of recreational digression have been applied. Based on the calculations of the slopes erosion resistance, the following types of areas were identified: slightly sloping surfaces without conditions for runoff concentration, surfaces of medium steepness, on which, after heavy rains and heavy snow melting, streams may form with an eroding rate, primarily on agricultural lands adjacent to the SPNA, inclined surfaces adjacent to the hollows headwaters or branch valleys.
Recommendations were provided for the preparation of reporting documentation to substantiate the establishment of the protective zones, their width and configuration, as well as cartography data specifying the boundaries and turning points. The described approach to the comprehensive ecological survey of protected areas can be used to substantiate the establishment of protective zones for natural monuments of regional significance.
Keywords: natural monument, ecological survey of the territory, buffer zone, factors of negative impact, erosion resistance.
References:
1. Decree of the Government of the Russian Federation of 19.02.2015 No 138 (revised on 21.12.2018) On Approval of the Rules for the creation of protected areas of certain categories of specially protected natural areas, establishing their boundaries, determining the protection regime and use of land and water. The official Internet portal of legal information (www.pravo.gov.ru) as of February 24, 2015. Available at: http://www.consultant.ru/document/cons_doc_LAW_175574/(accessed: 23.04.2021).
2. Federal Law of December 28, 2013 No. 406-FZ «On Amendments to the Federal Law «On Specially Protected Natural Areas» and Certain Legislative Acts of the Russian Federation». Rossiyskaya gazeta, 30 Dec 2013 N 295 [Electronic Resource]. Available at: http://www.consultant.ru/document/cons_doc_LAW_156527/ (accessed: 04/23/2021).
3. Law of the Bryansk Region dated December 30, 2005 N 121-Z «On Specially Protected Natural Areas in the Bryansk Region» (as amended and supplemented by 04.05.2016). Official Bryanschina. 20.01.2006. Available at: https://base.garant.ru/24305709/ (accessed: 23.04.2021).
4. Stishov M.S. Methodology for assessing the environmental effectiveness of specially protected natural areas and their regional systems. Moscow. WWF Russia. 2012. 284 p.
5. Marchenko D.A. Approaches to generation of parameters of the protective zones of specially protected natural areas (by the example of the Orenburg Region). International scientific-practical conference of students, graduate students and young scientists. Tyumen. Tyumen Industrial University. 2017. pp. 114–117.
6. Red Book of the Bryansk Region. Bryansk. RIO BSU. 2016. 432 p.
7. Nature and natural resources of the Bryansk Region. Bryansk. Kur-siv. 2012.320 p.
8. OST 56-100-95 «Methods and units for measuring recreational loads on forest natural systems». Moscow. VNIITS Forest Resource. 1995. 16 p.
9. SNPA passport. Natural monument of regional significance «Khotylevo» [Electronic resource]. Available at: http://oopt.aari.ru/oopt/Хотылево-Луговой-Луговой-заказник-на-правом-берегу-р-Десны-Луг-на-правом-берегу-р-Десны/( accessed: 16.04.2021).
10. Bastrakov G.V. Erosion relief stability and erosion protection of lands. Interuniversity Scientific-Coordination Council on the Problems of Erosion, Channel and Estuary Processes at Moscow State University. Bryansk. Bryansk State Pedagogical Institute. 1993 (1994). 260 p.
DOI: 10.34214/2312-5209-2021-31-3-19-24
p. 25-30
Managing Changes in Transport Security Quality
Denisov V.V., Candidate of Military Sciences, Associate Professor of the Department «Integrated Security and Special Programs» of RUT (Russian University of Transport); Moscow
Balanovsky V.L., President, Integrated Security Department at the Academy of Quality Problems; Moscow
e-mail: tishkova_l_f@inbox.ru
This article addresses the problems of creating a methodology for building transport security systems for transport infrastructure facilities.
Keywords: integrated security, transport infrastructure facilities, security quality management, security quality change management.
References:
1. Makhutov N.A., Balanovsky V.L., Denisov V.V., Ovchenkov N.I., Avdonov A.Y., Balanovsky L.V. Methodology for the formation of integrated security of transport facilities. Radio Electronic Problems. 2016. No. 5.
2. Balanovsky V.L., Bludova I.Y., Denisov V.V. Quality management of integrated security systems with regard to technological paradigm requirements. Rubezh. 2018.
3. Boytsov B.V., Balanovsky V.L., Bludova I.Y., Denisov V.V. Quality management of personnel training for transport infrastructure security assistance. Quality and Life. 2018. No. 4(20).
4. Boytsov B.V., Balanovsky V.L., Shepitko T.V., Denisov V.V., Lysov D.A. Innovation instruments in transport systems security. Quality and Life. 2018. No. 4(20).
5. Boytsov B.V., Balanovsky V.L., Shepitko T.V., Denisov V.V., Shcherbina V.I. Ensuring security of urban transport infrastructure facilities. Quality and Life. 2018. No. 4(20).
6. Balanovsky V.L., Denisov V.V. Managing security quality changes to enhance transport systems protection. Quality and Life. 2018. No. 4(20).
7. Makhutov N.A., Shepitko T.V., Balanovsky V.L., Podyakonov V.M., Denisov V.V. Security quality management in industrial transport systems. The collected works of the All-Russian Scientific-Technical Conference «Quality Management in Education and Industry» (May 21 – 22, 2020, Sevastopol). Sevastopol. FSAEI HE «Sevastopol State University». 2020.
8. Makhutov N.A., Shepitko T.V., Balanovsky V.L., Podyakonov V.M., Denisov V.V. Quality management of preparation and decision-making in industrial and transport facilities security assistance. The collected works of the All-Russian Scientific-Technical Conference «Quality Management in Education and Industry» (May 21 – 22, 2020, Sevastopol). Sevastopol. FSAEI HE «Sevastopol State University». 2020.
DOI: 10.34214/2312-5209-2021-31-3-25-30
ORGANIZATION OF PRODUCTION
p. 31-34
Proposals to Create a Unified Information Resource on the Titles of Performance Characteristics of the Armaments and Military and special Purpose Equipment
Makitrin A.V., Ph.D.; member of the Presidium of the Academy of Quality Problems; Moscow
e-mail: makitrin46@mail.ru
Zheltukhin P.S., Ph.D.; Corresponding Member of the Academy of Quality Problems; Moscow
The article presents and substantiates proposals to create a unified information resource on the titles of performance characteristics (PC) of the armaments and military and special purpose equipment (AMSPE). Such a single resource will provide for better planning of the armament system development within the information space of interconnected program and planning documents being developed.
Keywords: planning, armament, information resource, regulatory and technical documentation, regulatory legal acts.
References:
1. Gulyaev A.V. Organizational aspect in the development of the state armament program. Army Package. 2018. No. 7.
2. Grachev P.S. Performance characteristics. Military Encyclopedia. – Moscow. Military Publishing House. 2004. V. 8. p. 18. ISBN 5-203-01875-8.
3. Burenok V.M., Kosenko A.A., Lavrinov G.A. Technical equipment of the Armed Forces of the Russian Federation: organizational, economic and methodological aspects. Moscow. Publishing house «Granitsa». 2007.
4. Federal Law of the Russian Federation dated December 29, 2012 No. 275-FZ «On State Defense Order».
5. Buravlev A.I., Gladyshevsky V.L., Pyankov A.A. Technique for forming the aggregate performance indicator of the State Armament Plan implementation. Electronic journal «Armament and Economy». 2013. No. 3(24).
6. Burenok V.M., Lyapunov V.M., Mudrov V.I. Armament Theory. Moscow. Met. 2002. 234 p.
7. Technique for program-based planning of the armament system development at the present stage. In 2 volumes. Granitsa. 2013. 513 p.
DOI: 10.34214/2312-5209-2021-31-3-31-34
p. 34-52
Pandemic and Post-Pandemic Digital Transformation
Azarov V.N., Professor, Russian University of Transport; Moscow
e-mail: vazarov52@gmail.com
Boytsov B.V., Doctor of Engineering, professor, scientific supervisor of Department 104 «Technical Design and Quality Management» of Moscow Aviation Institute (NRU); Moscow
Leokhin Yu.L., Vice Principal for Research, Moscow Technical University of Communications and Informatics; Moscow
Chekmarev A.V., Moscow State Institute of International Relations (MGIMO-University) under the Ministry of Foreign Affairs of the Russian Federation
The paper considers the problems of organizing digital enterprises during the pandemic. The problems identified during the implementation of measures to counteract the pandemic of a new coronavirus infection, in the field of digital transformation and organization of remote operation of various enterprises through remote information and technological services are defined. Approaches to the development of scientific-methodological, organizational, technical and technological basis for the design and functioning of this type of organization are proposed. The approach to the construction of e-learning associated with the development of the university IT-infrastructure, business-architecture and process-service approach is considered. Business processes, services, university IT-infrastructure for e-learning are considered.
Keywords: digitalization, digital transformation, business strategy, IT strategy remote mode, remote service, pandemic, coronavirus infection, distributed enterprise, quality, process, IT, IT services, maturity model, e-university, electronic education (E-learning), LMS, CLMS.
References:
1. 4CDTO Textbook, 4CDTO IT Directors Club. Moscow. Sam poligrafist. 2020.
2. Azarov V.N., Leokhin Yu.L. IT infrastructure at a digital enterprise. Quality. Innovation. Education. No. 6. Moscow. 2020. pp. 104–119.
3. Azarov, V.N., Leokhin, Yu.L. Approaches to building the IT infrastructure of a digital enterprise (2020) Proceedings of the 2020 IEEE International Conference «Quality Management, Transport and Information Security, Information Technologies». 2020. pp. 6–14.
4. Saksonov Ye.A., Leokhin Yu.L., Azarov V.N. 2018 IEEE International Conference «Quality Management, Transport and Information Security, Information Technologies». 2018
5. Chekmarev A.V. Speech technologies: problems and prospects. Computerra. No. 49. 1997.
6. Azarov V.N., Graule A.O., Dobrov G.A., Mizginova M.A. Modern trends in electronic educational environments: classification, requirements, composition. Quality. Innovation. Education. 2016. No. 4. pp. 9–17.
7. Azarov V.N., Gudkov Y. I., Dobrov G.A. Methodology of Creation of Electronic Learning Services and their Integration into IT-infrastructure. 2016 IEEE Conference on Quality Management, Transport and Information Security, Information Technologies (IT&MQ&IS). 2016. pp. 13–15.
8. Graule A.O., Azarov V.N., Mizginova M.A. Process-service approach to e-learning design. 2017 International Conference «Quality Management, Transport and Information Security, Information Technologies» (IT&QM&IS). 2017. pp. 662–665.
9. Azarov V.N., Graule A.O., Mizginova M.A. E-learning Design Principles at the University. 2018 International Conference «Quality Management, Transport and Information Security, Information Technologies» (IT&QM&IS). 2018. pp. 472-476. Graule A.O., Aza- rov V.N., Mizginova M.A. Approaches to process improvement and risk assessment of e-education. Quality. Innovation. Education. 2017. No. 10. pp. 3–12.
10. Azarov V.N. et al. IT-processes and IT-projects Management. Foundation «European Center for Quality». Moscow. 2017. 294 p.
11. Azarov V.N., Gudkov Y.I., Fomin S.S. Approaches to modeling of electronic university IT-infrastructure. Further vocational education in the country and the world. 2016. No 5–6. pp. 76–80.
12. Azarov V.N, Boytsov B.V., Mayboroda V.P. Challenges of the era of digital revolution. Transformation of Management and Quality Management. LAP.LAMBERT. Academic Publishing. pp. 71.
13. Azarov V.N., Saksonov E.A., Leokhin Yu.L. Analysis of Information Structure of the Corporate Network of Enterprise. 2018 International Conference «Quality Management, Transport and Information Security, Information Technologies» (IT&QM&IS). 2018.
DOI: 10.34214/2312-5209-2021-31-3-34-52
p. 53-59
Implementation of the Pugh Matrix for Quality Management in Civil Aircraft Logistics
Akhmatova M-S.S., postgraduate student, Department of Standardization and Product Quality Management, Moscow Aviation Institute (National Research University); Moscow
e-mail: malika_sofi@mail.ru
Deniskina A.R., Candidate of Technical Sciences, Associate Professor, Department of Standardization and Product Quality Management, Moscow Aviation Institute (National Research University); Moscow
Akhmatova D-M.S., Procurement Specialist, Boehringer Ingelheim LLC; Moscow
Petuhov Yu.V., Candidate of Technical Sciences, docent, Department 104 «Technical Design and Quality Management» of Moscow Aviation Institute (NRU); Moscow
The research paper addresses the urgent problem of enhancing the objective and reliable managerial decision making for quality management in civil aircraft logistics processes. The authors propose a Pugh matrix model consistent with the ISO 9000: 2015 and ISO 9001: 2015 quality management principles in order to provide the relevant scientific and practical background for strategic planning.
Keywords: quality management, process approach, Pugh matrix, management decision making, logistics, aviation.
References:
1. Kropiventseva S.A. Management of the aircraft spare parts and components M&RC delivery dates. Nauchnyi Vestnik MGTU GA. 2020. No. 5. pp. 29–38.
2. Shulyumova A.N., Mingazova V.R., Mullayanova О.А., Umarova N.N. The practice of applying the SPC-method to components quality management at JSC «KamAZ». Vestnik of KNRTU. 2017. No. 5. pp. 114–116.
3. Ageev E.V., Shcherbakov A.V. Production management and logistics support in road transport. Moscow. University book. Kursk. 2015. 174 p.
4. Protasova L.G. Procurement Quality Management at an Enterprise. The Manager. 2016. No 2. pp. 84–89.
5. Averyanov A.V., Belaya Т.I., Molchanov О.Е. Using Pareto diagrams to ensure the quality of integrated circuit functioning. Priborostroenie. 2016. No. 7. pp. 558–562.
6. Suárez-Barraza M.F. Rodríguez-González F.G. Cornerstone root causes through the analysis of the Ishikawa diagram, is it possible to find them? A first research approach. International Journal of Q&SS. 2019. No. 2. pp. 302–316.
7. Ivanov P.V. Management. Managerial decision-making techniques. Moscow. Urait. 2020. 276 p.
8. Myagkov I.I., Salimyanova I.G. The risk of decision making in conditions of uncertainty: features of manifestation. Izvestiâ SPGEU. 2020. No. 5. pp. 158–162.
9. ISO 9000:2015 Quality management systems. Fundamentals and vocabulary. ISO. 2015.
10. ISO 9001:2015 Quality management systems. Requirements. ISO. 2015.
11. Lønmo L., Muller G. Concept Selection – Applying Pugh Matrices in the SBD. INCOSE IS. 2014. pp. 1–16.
12. Joshi A.K., Dandekar I.A., Gaikwad M.V., Harge C.G. Pugh Matrix and KM – the significant techniques for customer’s survey. International Journal of ET&AE. 2019. pp. 53–55.
13. Akhmatova M.S., Brotsman Y. Civil aircraft system design based on NASA systems engineering approach. Aerospace Systems. 2018. pp. 39–48.
14. Kosyakov A., Seymur S.D., Sweet U.N. Systems Engineering. Principles and Practice. Moscow. DMK-Press. 2011. 624 p.
15. NASA. NASA Systems Engineering Handbook. National Aeronautics and Space Administration. 2020.
16. White B.E. On Leadership in the Complex Adaptive Systems Engineering of Enterprise Transformation. Journal of ET. 2015. pp. 192–217.
17. Imai M. Kaizen. The Key to Japan’s Competitive Success. Moscow. Alpina Business Book. 2018. 274 p.
18. Solli H., Muller G. Evaluation of illustrative ConOps and Decision Matrix as tools in concept selection. INCOSE IS. 2016. No. 1. pp. 2361–2375.
19. Belova А.А. Selecting a supplier is an important task for the purchasing logistics. Youth Science Forum. 2020. No. 1. pp. 17–22.
DOI: 10.34214/2312-5209-2021-31-3-53-59
TRANSPORT
p. 60-65
Methods for Assessing the Applicability of Seaplanes as an Air Transport Type
Volkova A.A., Senior Lecturer, Department 109b, Moscow Aviation Institute (National Research University); Rostov Region, Taganrog
Ponomarev V.F., Senior Lecturer, Department 109b, Moscow Aviation Institute (National Research University); Rostov Region, Taganrog
e-mail: pvf5491@yandex.ru
Lappa G.E., Senior Lecturer, Department 109b, Moscow Aviation Institute (National Research University); Rostov Region, Taganrog
Khrulenko V.V., Senior Lecturer, Department 109b, Moscow Aviation Institute (National Research University); Rostov Region, Taganrog
The article presents a procedure for determining the weatherability as an indicator of a seaplane operation capability under various unsafe sea conditions. There is a proposal to evaluate the coverage of transport operations of the Earth surface by an integral criterion, which includes the relative values of gross productivity, the surface needed for takeoff and landing and vehicle weatherability.
The seaplane weatherability depends largely on its seaworthiness estimated by the wave height limit for a particular type of aircraft, at which the operation from the water is safe. The proposed methodology for determining the seaplane weatherability is based on the analysis of the probability of waves of different heights (histograms) for different regions of the Earth.
Keywords: Seaplane, seaworthiness, histogram, weatherability.
References:
1. Davidan I.N., Lopatukhin L.I. «Wind and waves in the oceans and seas.» Reference data. Register. S.Peterburg. Transport. 1974.
2. Panatov G.S., Fortinov L.G., Belousov V.S., Some issues of analysis and forecasting of hydroaviation development. Aviation Industry Journal. No. 5–6. Moscow. 1996.
3. Fortinov L.G., Panatov L.G., R.L. Bartini’s ideas in scientific developments of PJSC «Beriev Aircraft». TsAGI National Research Center Publishing House. Moscow. 1997.
4. Panatov G.S., L.G. Fortinov et al. Integral criteria for assessing aircraft transport vehicles (TM). Collection of reports of «Gelendzhik–96» Hydroaviation Scientific Conference. TsAGI National Research Center Publishing House. Moscow. 1996.
DOI: 10.34214/2312-5209-2021-31-3-60-65
p. 65-70
Innovative Methods for Improving the Efficiency of Transport Security Systems
Denisov V.V., Candidate of Military Sciences, Associate Professor of the Department «Integrated Security and Special Programs» of RUT (Russian University of Transport); Moscow
Balanovsky V.L., President, Integrated Security Department at the Academy of Quality Problems; Moscow
e-mail: tishkova_l_f@inbox.ru
This article addresses the innovative methods for improving the transport security systems efficiency for transport infrastructure facilities.
Keywords: transport security, destructive impact, act of unlawful interference, information security, resilience.
References:
1. Klimenko S.V., Balanovsky V.L., Gabur S.P. Comprehensive security of transport infrastructure facilities: from risk management to resilience management. Radio Electronics Problems. 2016. No. 5.
2. Balanovsky V.L., Bludova I.Y., Denisov V.V. Quality management of integrated security systems with regard to technological paradigm requirements. Rubezh. 2018.
3. Boytsov B.V., Balanovsky V.L., Bludova I.Y., Denisov V.V. Quality management of personnel training for transport infrastructure security assistance. Quality and Life. 2018. No. 4(20).
4. Boytsov B.V., Balanovsky V.L., Shepitko T.V., Denisov V.V., Lysov D.A. Innovation instruments in transport systems security. Quality and Life. 2018, No. 4(20).
5. Boytsov B.V., Balanovsky V.L., Shepitko T.V., Denisov V.V., Shcherbina V.I. Ensuring security of urban transport infrastructure facilities. «Quality and Life», 2018, No. 4(20).
6. Balanovsky V.L., Denisov V.V. Managing security quality changes to enhance transport systems protection. Quality and Life. 2018. No. 4 (20).
7. Makhutov N.A., Shepitko T.V., Balanovsky V.L., Podyakonov V.M., Denisov V.V. Security quality management in industrial transport systems. The collected works of the All-Russian Scientific-Technical Conference «Quality Management in Education and Industry» (May 21–22, 2020, Sevastopol). Sevastopol. FSAEI HE «Sevastopol State University». 2020.
8. Makhutov N.A., Shepitko T.V., Balanovsky V.L., Podyakonov V.M., Denisov V.V. Quality management of preparation and decision-making in industrial and transport facilities security assistance. The collected works of the All-Russian Scientific-Technical Conference «Quality Management in Education and Industry» (May 21–22, 2020, Sevastopol). FSAEI HE «Sevastopol State University». Sevastopol. 2020.
DOI: 10.34214/2312-5209-2021-31-3-65-70
p. 70-73
«Controlled Chaos» and Safe Transport Infrastructure Facility
Denisov V.V., Candidate of Military Sciences, Associate Professor of the Department «Integrated Security and Special Programs» of RUT (Russian University of Transport); Moscow
Balanovsky V.L., President, Integrated Security Department at the Academy of Quality Problems; Moscow
e-mail: tishkova_l_f@inbox.ru
This article describes the process of improving the provision of transport security of transport infrastructure facilities in the conditions of «controlled chaos» using innovative technical solutions and artificial intelligence.
Keywords: technological structure, transport security, vulnerability assessment, «soft power», «controlled chaos», artificial intelligence.
References:
1. Boytsov B.V., Balanovsky V.L., Shepitko T.V., Denisov V.V., Shcherbina V.I. Ensuring security of urban transport infrastructure facilities. Quality and Life. 2018. No. 4(20).
2. Balanovsky V.L., Denisov V.V. Managing security quality changes to enhance transport systems protection. Quality and Life. 2018. No. 4(20).
3. Makhutov N.A., Shepitko T.V., Balanovsky V.L., Podyakonov V.M., Denisov V.V. Security quality management in industrial transport systems. The collected works of the All-Russian Scientific-Technical Conference «Quality Management in Education and Industry» (May 21–22, 2020, Sevastopol). Sevastopol. FSAEI HE «Sevastopol State University». 2020.
4. Balanovsky V.L., Podyakonov V.M., Rukavishnikova M.E., Klyanchin A.I., Balanov- sky L.V. Urban environment security under hybrid war conditions. Moral and psychological aspects of quality change management. Security Systems. 2020. No. 4.
5. Balanovsky V.L., Podyakonov V.M., Rukavishnikova M.E., Klyanchin A.I., Balanovsky L.V. Humanitarian aspects of information security under the hybrid war conditions. Security Systems. 2020. No. 5.
6. Balanovsky V.L., Podyakonov V.M. Vulnerability assessment and security provision under threats of «controlled chaos». Security Systems. 2020. No. 6.
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DOI: 10.34214/2312-5209-2021-31-3-70-73
p. 74-77
Transportation Problems in Ensuring the Unity of Measurements in Yakutia
Kuprikov N.M., Candidate of Technical Sciences, Senior Researcher, Moscow Aviation Institute (NRU), Moscow; Associate Professor, D.I. Mendeleyev All-Russian Institute for Metrology FSUE; St.-Petersburg
Litvinov B.Y., Doctor of Technical Sciences, Chief Researcher at D.I. Mendeleyev All-Russian Institute for Metrology FSUE; St.-Petersburg
e-mail: sztul@mail.ru
Nogovitsyn D.D., Director of State Center for Standardization, Metrology and Testing in the Republic of Sakha (Yakutia); Republic of Sakha (Yakutia)
Ponyaev L.P., Associate Professor of the Department 904 of the Moscow Aviation Institute; Moscow
The features of ensuring the measurements uniformity in the Arctic zone of the Russian Federation are analyzed. The transport problem in the values units transfer is identified. Radial and circular systems are considered while ensuring the uniformity of measurements. A line of research based on the creation of unified mobile metrological laboratories that can be moved by road, water and rail transport is proposed.
Keywords: metrological traceability, transportable standard, container unit, transportable metrology laboratory.
References:
1. Okrepilov V.V. Economics of quality as a methodological basis of regional management. Economics and Management. No. 1(87). 2013. pp. 8–14.
2. Strategy for ensuring the uniformity of measurements in the Russian Federation ending 2025. Order of the Government of the Russian Federation dated April 19, 2017 No. 737-r. Available at: http://docs.cntd.ru/document/420397087.
3. Isaev L.K. Features of metrological traceability in Russia. Chief Metrologist. No. 3. 2017. pp. 21–23.
4. Kondratyeva V.I. North Yakutsk support zone of the Arctic zone of Russia in the strategy of spatial development of the Russian Federation. THE ARCTIC. XXI Century. Humanitarian Sciences. Information and scientific publication. No. 1 (11). 2017. pp. 4–12.
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DOI: 10.34214/2312-5209-2021-31-3-74-77
p. 78-88
The Quality of Aviation Personnel Training is a Guarantee of the Reliable Functioning of the Aviation Transport System in Emergency Situations
Resinets A.I., candidate of military sciences, associate professor at Helicopters Design Department of Moscow Aviation Institute; Moscow
e-mail: k102@mai.ru
Resinets A.A., engineer at Aircraft Design and Certification of Aviation Equipment Department of Moscow Aviation Institute; Moscow
Gusev A.S., lecturer at Aerodynamics Department of Zhukovsky - Gagarin Air Force Academy; Voronezh
Likhachev V.M., senior lecturer at Army Aviation Tactics of Zhukovsky – Gagarin Air Force Academy; Voronezh
The article examines the direct dependence of the quality and level of training of flight personnel on the reliability of the aviation transport system and its ability to make competent non-standard decisions in emergency situations while maintaining a high level of flight safety.
Keywords: aviation transport system, aviation technology, accident, disaster, flight safety.
References:
1. Bondarenko O.A., Movchan Y. I., Tarasova O.G., et al. Chernobyl disaster: 29 years later. Astrakhan bulletin of environmental education. No. 2(32) 2015. pp. 90–104.
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DOI: 10.34214/2312-5209-2021-31-3-78-88
ALL-RUSSIAN COMPETITION OF THE PROGRAM "100 BEST GOODS OF RUSSIA"
The All-Russian Contest under the Program «100 Best Goods of Russia» as a Tool to Improve the Activities of Domestic Producers
Boyeva D.Yu., Head of Expert-Analytical Department, International Public Organization «Academy of Quality Problems»; Moscow
e-mail: d.rudak@100best.ru
The article examines the role and impact on the domestic goods production of one of the most important projects launched by the Academy of Quality Problems, the All-Russian Contest under the Program «100 Best Goods of Russia», being implemented as a tool of living standards improvement. Specific examples and analytics are provided including the features and long-term prospects of this unique project.
Keywords: quality, competitiveness, quality assessment, quality improvement, management system, quality competition, enterprises, manufacturers.
References:
1. Boytsov B.V., Bas V.N., Kruglov N.S., Dubinskaya E.V., Garanina E.I. On methods of socio-scientific assistance to solve quality problems at the regional level. Experience of the International Public Organization «Academy of Quality Problems». Quality and Life. 2020. No. 2.
2. Dubinskaya E.V., Plushchevsky M.B. Results of the system-wide goods and producers characteristics monitoring based on the results of the Contest in 1998–2014. Bulletin of the All-Russian Program «100 Best Goods of Russia». Information materials. Moscow. Academy of Quality Problems, 2014.
3. Plushchevsky M.B. Brief overview and the development prospects of the All-Russian Contest under the Program «100 Best Goods of Russia» // The World of Standards. – 2015. – No. 2.
DOI: 10.34214/2312-5209-2021-31-3-89-95
