SCIENTIFIC AND TECHNICAL RESEARCH ON THE EFFICIENCY OF ORGANIZATIONAL AND TECHNOLOGICAL PROCESSES OF INDUSTRIAL CLUSTERS RE-PROFILING

Authors:

Azariy Lapidus,

DOI NO:

https://doi.org/10.26782/jmcms.2020.04.00030

Keywords:

Construction control,Redevelopment of industrial areas,Reprofiling industrial facilities,Scientific and technical renovation,urban development,

Abstract

Reprofiling industrial facilities allows companies to optimize their structure while also creating a competitive environment in the service sector. In addition, the portfolio of assets undergoes optimization during the reprofiling process. Because of the release of the production space, it would be possible to reduce the costs by preserving, selling, and leasing production space. Therefore, to achieve and strengthen a long-term competitiveness, companies are forced to adjust their activities with an emphasis on the changing demands of the period. The world is constantly changing, so it is very important to respond expediently and quickly to these changes.To date, international practice and experience of reprofiling in the Russian Federation have shown it as one of the most difficult managerial tasks. During this process, many restrictions, along with the unique characteristics of the company, in which it is conducted, should be considered. Consequently, it must be performed only in the presence of the clearly defined goals, the reprofiling concept, and an understanding of each stage and methods to be observed.The topic of this article is relevant since the model of the work performed during the reprofiling allows this process to go as smoothly and efficiently as possible, allowing the company to adapt to new market conditions.However, this issue is poorly covered nowadays. In fact, many sources consider the redesigning strategy only as a special case study of a restructuring strategy or as a strategy for updating the fixed assets. Therefore, regulatory documentation for capital construction projects as well as for reprofiling facilities should be improved.

Refference:

I. A. Ginzburg. Sustainable building life cycle design. MATEC Web of Conferences. XV International conference «Topical problems of architecture, civil engineering, energy efficiency and ecology», Vol.: 02018, n.d.
II. A. Lapidus, D.Topchiy. Formation of Methods for Assessing the Effectiveness of Industrial Areas’ Renovation Projects. Proceedings of the IOP Conference Series: Materials Science and Engineering, Vol.: 471, pp. 1-6, n.d..
III. A. Lapidus, I. Abramov. Formation of production structural units within a construction company using the systemic integrated method when implementing high-rise development projects. E3S Web of Conferences, Vol.: 33, 2018.
IV. A. Volkov, A.Sedova, P.Chelyshkov, B. Titarenko, G.Malyha, E.Krylov. The theory of probabilities methods in the scenario simulation of buildings and construction operation. Research Journal of Pharmaceutical, Biological and Chemical Sciences, Vol.: 7, Issue: 3, pp. 2416-2420, 2016.
V. A. Volkov, V.Chulkov, R.Kazaryan, M.Fachratov, O.Kyzina, R.Gazaryan. Components and guidance for constructional rearrangement of buildings and structures within reorganization cycles. Applied Mechanics and Materials, pp.2281-2284, 2014.
VI. A.A. Lapidus, P.A.Govorukha. Organizational and technologic potential of setting of enclosing structures for residential buildings. International Journal of Applied Engineering Research,Vol.: 10, Issue:20, pp.40946-40949, 2015.
VII. A.N. Vlasov,V.P.Merzlyakov, S.B.Ukhov. Determination of deformation and strength properties of layered rock by asymptotic averaging. Soil Mechanics and Foundation Engineering, Vol.: 6, pp.197-205, 2003.
VIII. B.V. Gusev, Ch. Jenn-Chuan, A.A. Speransky. Waves of innovation, and sustainable development of industry, on an example of construction. Scientific Israel – Technological Advantages, Vol.: 1, pp. 163-173,2 016.
IX. D.D. Zueva, E.S.Babushkin, D.V.Topchiy,A.Yu.Yurgaitis. Construction supervision during capital construction, reconstruction and re-profiling. MATEC Web of Conferences, Vol.: 265, pp. 1-8, 2019.
X. I. Abramov, T. Poznakhirko, A. Sergeev. The analysis of the functionality of modern systems, methods and scheduling tools. MATEC Web Conf 86, Issue: 04063, pp. 1-5, 2016.
XI. I. Abramov. Formation of integrated structural units using the systematic and integrated method when implementing high-rise construction projects. HRC 2017 (HIGH-RISE CONSTRUCTION-2017). E3S Web of Conferences, Vol.: 33, pp. 1-7, 2018.
XII. P. Graham. Building Ecology: First Principles For A Sustainable Built Environment. Blackwell Science, 2003.
XIII. P. Oleynik, S.Sinenko, B.Zhadanovsky, V. Brodsky, M.Kuzhin. Construction of a complex object. MATEC Web of Conferences. 5th International Scientific Conference «Integration, Partnership and Innovation in Construction Science and Education», pp. 4059, 2016.
XIV. R.I. Fokov. Problems of ecological reconstruction of the urbanized environment. International Academy of Ecological Reconstruction, Vol.: 2, pp. 11-21, 2006.
XV. S. Shinri, T. Masamichi. Developing environmental load factors for construction materials used in social infrastructure LCA. Enviromental System Research Papers,Vol.: 38,pp.185-191, n.d.
XVI. S.B. Ukhov. Beds and foundations of high-rise buildings. Scientific aspects and geotechnical problems.Soil mechanics and foundation engineering. Springer New York Consultants Bureau. 2003.
XVII. V.A. Ilyichev, A.S. Aleshin, A.S.Dubovskoi A.S. Instrument problems of deformation monitoring in construction. Soil mechanics and foundation engineering, Vol.: 3, pp. 91-97, 2003.
XVIII. V.I. Telichenko, V.I. Andreev, V.I.Gagin. Civil engieneering education in Russia. RSP-seminar, pp. 21-28, 2005.
XIX. Z.G. Ter-Martirosyan. Fundamentals of settlement analysis for high-rise buildings constructed in deep excavations. Soil Mechanics and Foundation Engineering, Vol.: 5, pp. 190-194, 2003.

View Download