Development of Systems Engineering Principles of Management in the Implementation of Re-engineering in the Construction Industry

Introduction. The context of the digitalization of the national economy and the growing influence of convergence on its constituent parts are leading to an increased emphasis on a systems-based approach to management organization and the practice of their ongoing transformation, including through the development of fundamentally new technical solutions and the qualitative transformation of existing ones. This approach is re-engineering, which, in the traditional sense, is used to modulate business processes, whilst in the new research context it is applied to systemic solutions, which represent the quintessence of a systematic approach. In this interpretation, a systemic solution is viewed as an interconnected hierarchical set of solutions. This is the first time such a study has been conducted in the field of construction re-engineering.

Materials and methods. The study was based on a systematic approach and its integration with concepts such as sustainable development, the logistics of regulatory impacts, and organizational changes and transformations. These concepts determined the appropriateness of using methods of normative, functional, structural and retrospective analysis. The research drew upon the works of domestic and foreign scholars, as listed in the bibliography.

Results. The category of “system solutions” has been identified, including in relation to the investment and construction sector; the composition of a system solution has been determined, as well as the nature of its coverage of the spheres of social production and its manifestation in re-engineering; and the procedure and features of forming a system solution in construction re-engineering have been established.

Conclusions. The application of systems engineering principles of management when implementing re-engineering in the construction sector will enable a business entity to achieve sustainable development, flexibility in its interaction with the surrounding economic environment, and production efficiency; and, on this basis, to build competitive advantages and realize additional benefits.

1. Sborshikov S.B. Logistics of regulatory influences in the investment and construction sector (theory, methodology, practice) : dissertation … doctor of economics. Moscow, 2012; 361. EDN QGBVJV. (rus.).

2. Sborshikov S.B., Lazareva N.V., Zhuravlev P.A. A set of measures to improve the management systems of investment and construction activities based on reengineering. Innovation and Investment. 2026; 2:59-62. EDN DODQIU. (rus.).

3. Sborshchikov S.B., Lazareva N.V. Theoretical and methodological provisions of the concepts of change management and reengineering, prospects for their integration: difference and convergence. Russian Journal of Industrial Economics. 2026; 19(1):59-69. DOI: 10.17073/2072-1633-2026-1-1518. EDN ZBQMVG. (rus.).

4. Sborshchikov S.B., Lazareva N.V. Theoretical foundations and practices of reengineering realization in construction. Vestnik MGSU [Monthly Journal on Construction and Architecture]. 2024; 19(11):1824-1834. DOI: 10.22227/1997-0935.2024.11.1824-1834. EDN EUMLUQ. (rus.).

5. Zhuravlev P.A. System solutions in the reengineering of territories and buildings. Russian Journal of Industrial Economics. 2025; 18(4):499-504. DOI: 10.17073/2072-1633-2025-4-1522. EDN OSPAYN. (rus).

6. Zhuravlev P.A. The system of normative and methodological support for making organizational and technological decisions during the reconstruction and renovation of buildings and structures : dissertation … candidate of technical sciences. 2015; 224. EDN UHTWWH. (rus.).

7. Mitenkov A.V., Eliseeva E.N. Evolution of innovation ecosystems and business transformation. Bulletin of the South Russian State Technical University (NPI). Series: Socio-economic Sciences. 2024; 17(2):154-165. DOI: 10.17213/2075-2067-2024-2-154-165. EDN EXRBOL. (rus.).

8. Mitenkov A.V. The birth of the metaverse and the prerequisites for the transformation of management in organization: the eco-aspect. Management in Russia and abroad. 2024; 4:56-62. EDN XELKPN. (rus.).

9. Mitenkov A.V. On the issue of transformation management methodology: the Shingo model. Bulletin of the Udmurt University. Economics and Law series. 2024; 34(4):652-659. DOI: 10.35634/2412-9593-2024-34-4-652-659. EDN XUTVLE. (rus.).

10. Malakhov V.I. Modern management technologies in construction. Economy. 2018; 1:10-11. (rus.).

11. Malakhov V.I. ISI-30. Classification of construction projects. SamoVod. 2021. (rus.).

12. Chelyshkov P.D., Volkov A.A., Davydov A.E. Digital management system of the life cycle of capital construction objects. Industrial and Civil Engineering. 2023; 2:10-19. DOI: 10.33622/0869-7019.2023.02.10-19. EDN NFJCNH. (rus.).

13. Volkov A.A., Kagan P.B., Afanasyeva A.A. Construction in the context of the development of the digital economy. System engineering of construction. Cyberphysical Building Systems – 2019 : Proceedings of the All-Russian Scientific and Practical Conference. 2019; 63-67. EDN FJGPCH. (rus.).

14. Leibman D.M. Organization of the construction of technically complex facilities. Rationing and Remuneration in Construction. 2018; 5:64-73. EDN YGZNBG. (rus.).

15. Leybman D., Khripko T. Quality assurance program of a nuclear facility. E3S Web of Conferences. 2019; 03015. DOI: 10.1051/e3sconf/20199703015. EDN ZWVUYJ.

16. Shinkareva G.N., Maslova L.A. Engineering as a basis for modernization of the construction industry. Integration, partnership and innovation in construction science and education : collection of materials of the VI International Scientific Conference. 2018; 162-166. EDN YQGTVB. (rus.).

17. Shinkareva G.N. Model of the engineering scheme of construction organization for life cycle contracts : dissertation … candidate of technical sciences. Moscow, 2018. EDN XJZLZQ. (rus.).

18. Shinkareva G.N., Maslova L.A. Integrated engineering as a way to intensify construction production. Rationing and Remuneration in Construction. 2018; 3:37-41. EDN QIPUEW. (rus.).

19. Zharov Ya.V. Organizational technological design in construction based on an intelligent planning unit. Bulletin of Civil Engineers. 2019; 6(77):193-199. DOI: 10.23968/1999-5571-2019-16-6-193-199. EDN RQXZDJ. (rus.).

20. Zharov Ya.V. Building information modeling based on block-cluster structure. Rationing and Remuneration in Construction. 2019; 11:10-14. EDN XTWNSE. (rus.).

21. Khripko T. Mathematical modeling of failure of port control systems. IOP Conference Series: Materials Science and Engineering. 2021; 012101. DOI: 10.1088/1757-899X/1030/1/012101. EDN MFGKEQ.

22. Popkov A.G. Implementation of integrated logistics solutions of the corporation "single customer": on the example of the construction industry. Economics: Yesterday, Today and Tomorrow. 2022; 12(5-1):324-328. DOI: 10.34670/AR.2022.65.75.026. EDN URUYYR. (rus.).

23. Popkov A.G. Promote women in the combination of career and reproductive labor. Economics and Entrepreneurship. 2019; 2(103):779-781. EDN BZAZYK. (rus.).

24. Kochenkova E.M. Environmental protection. Features of information modeling at the stages of construction of a high-rise building life cycle. Construction — formation of the living environment : collection of materials from the seminar of young scientists of the XXV International Scientific Conference. 2022; 115-120. EDN XSOQZK. (rus.).

25. Sborshikov S., Vvedenskiy R., Markova I. Development of methods of operational and production management of construction of nuclear facilities. E3S Web of Conferences. 2021; 02047. DOI: 10.1051/e3sconf/202126302047. EDN HBQVVX.