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Solving the Problem of Large Construction Safe Operation

Treść / Zawartość
Identyfikatory
Warianty tytułu
Języki publikacji
EN
Abstrakty
EN
Bridge construction has a significant amount of data on the periods of trouble-free operation of bridges of various designs and purposes. These data serve as a reliable basis for developing schedules of planned preventive inspections and repairs of bridge structures. However, the statistical nature of this information does not exclude the occurrence of seemingly unpredictable events (destruction of the road surface, loss of stability and destruction of the load-bearing elements of the bridge structure). These events usually occur suddenly, although this is only an external manifestation of hidden processes that occur naturally in the structure up to a certain point in time starting from the moment it is put into operation. To outline these processes, the presented article proposes to describe the bridge structure as a dynamic system developing in an “acute mode”. The mathematical model describing such a dynamic system contains a parameter equal to the time coordinate when a radical change in the law of development of the controlled dynamic system occurs. The testing of the bridge life using forecasting methodology was carried out on the example of a cable-stayed bridge and confirmed its effectiveness.
Wydawca
Rocznik
Tom
Strony
525--530
Opis fizyczny
Bibliogr. 35 poz., rys.
Twórcy
autor
  • Technical University of Kosice Faculty of Manufacturing Technologies Bayerova 1, 08001 Presov, Slovakia
  • Sumy State University Faculty of Electronics and Information Technologies Kharkivska st., 116, 40000 Sumy, Ukraine
  • Institute of Geophysics of the National Academy of Sci-ences of Ukraine Palladin av. 32, 03142 Kiev, Ukraine
  • Military Institute of T. Shevchenko National University Zdanovskaya st. 81, 03189 Kiev, Ukraine
Bibliografia
  • 1. O.I. Dubinchik, V.R. Kildeev. “Prognozirovanie resursa zhelezobetonnykh konstruktsii po vynoslivosti armatury [Prediction of the service life of reinforced concrete structures based on reinforcement fatigue]”. Mosty ta tuneli: teoriya, doslidzhennya, praktyka, no. 7, pp. 13-18, 2015. (in Russian)
  • 2. A.I. Lantukhov-Lyashchenko, K.V. Medvedev. “K voprosu opredeleniya granichnogo iznosa stalezhelezobetonnoho proletnoho stroeniya avto-dorozhnogo mosta [On the issue of determining the ultimate wear of steel-reinforced concrete spans of highway bridges]”. Vestnik KHNADU, no. 58, pp. 90-95, 2012. (in Russian)
  • 3. S.S. Rekunov. “Ob otsenke nadyozhnosti i vosstanovlenii ekspluatatsionnykh kachestv mostovykh sooruzheniy [On the assessment of reliability and restoration of operational qualities of bridge structures]”. Internet-journal “Transportnye sooruzheniya”, vol. 3, no. 2, pp. 1-8, 2016. (in Russian)
  • 4. A.V. Perelmuter, M.M. Korneev. “Ukrainskaya shkola proektirovaniya stalnykh mostov [Ukrainian school of steel bridge design]”. Zbirnyk naukovykh prats Ukrainskoho instytutu stalevykh konstruktsiy imeni V.M. Shymanovskoho, vol. 25-26, pp. 106-143, 2020. (in Ukrainian)
  • 5. I.V. Kandaeva, D.I. Borodai. “Issledovanie nadyozhnosti zhelezobetonnykh proletnykh stroeniy avto-dorozhnogo puteprovoda [Study of the reliability of reinforced concrete spans of a highway overpass]”. Modern Industrial and Civil Construction, vol. 13, no. 2, pp. 47-56, 2017. (in Russian)
  • 6. A.I. Lantuh-Lyashchenko, P.M. Kovalov. “On the question about creation of national framework of bridge operations”. In: Diagnostic operation, longevity and regeneration of bridges and building constructions by applying high technology and materials, issue 1, edited by V.V. Panasiuk, Lviv: Kameniar, pp. 70-76, 1998. (in Ukrainian)
  • 7. P.M. Koval. “Development of the management system of highway bridges of Ukraine”. In: Roads and Bridges, Kyiv: DerzhdorNDI, issue 11, pp. 133-145, 2009. (in Ukrainian)
  • 8. O.I. Nigamatova, I.G. Ovchinnikov. “Systems of state management bridges”. Naukovodenie, vol. 7, no. 3, 2015. Mode of access: http://naukovedenie.ru/PDF/09TVN315.pdf
  • 9. DBN V.2.3-22:2009. “Bridges and tubes. Dominant requirements of design”. Kyiv: Ministry of Regional Development of Ukraine, 52 p., 2009. (in Ukrainian)
  • 10. DBN V.2.3-14:2006. “Bridges and tubes. Design rules”. Kyiv: Minbud of Ukraine, 359 p., 2006. (in Ukrainian)
  • 11. DSTU-N B V.2.3-23:2009. “Guidelines for assessing and forecasting the technical condition of highway bridges”. Kyiv: Ministry of Regional Development of Ukraine, 49 p., 2009. (in Ukrainian)
  • 12. A.I. Lantuh-Lyashchenko. “Otsinka nadijnosti sporudy za modelem Markovs’koho vypadkovoho protsesu z dyzkretnymy stanamy [Reliability assessment of a structure based on the Markov random process model with discrete states]”. Avtomobilni dorohy i dorozhnye budivnytstvo, issue 57, pp. 183-188, 1999. (in Ukrainian)
  • 13. L.I. Iosilevskiy. “Prakticheskie metody upravleniya nadyozhnost’yu zhelezobetonnykh mostov [Practical methods for managing the reliability of reinforced concrete bridges]”. Moscow: Nauchn.-izd. tsentr “Inzhener”, 324 p., 2005. (in Russian)
  • 14. V.V. Panasyuk, Y.Y. Luchko (Eds.). “Mosty: konstruktsii ta nadijnist’ [Bridges: Structures and reliability]”. Lviv: Kameniar, 989 p., 2005. (in Ukrainian)
  • 15. L. Sukhodub, A. Panda, K. Dyadyura, I. Pandova and T. Krenicky. “The design criteria for biodegradable magnesium alloy implants”. MM Science Journal, pp. 2673-2679, 2018
  • 16. A. Panda, V.M. Anisimov, V.V. Anisimov, K. Dyadyura and I. Pandova. „Increasing of wear resistance of linear block-polyurethanes by thermal processing methods.“ MM Science Journal, vol. 21, pp. 4731-4735, 2021
  • 17. I. Pandová, M. Rimár, A. Panda, J. Valíček, M. Kušnerová and M. Harničárová. “A study of using natural sorbent to reduce iron cations from aqueous solutions.” International Journal of Environmental Research and Public Health, vol. 17, 2020
  • 18. M. Harnicarova, J. Valicek, M. Kušnerová, J. Kmec, Z. Palková, I. Kopal, J. Krmela and A. Panda. “Study of the influence of the structural grain size on the mechanical properties of technical materials”. Materialwissenschaft und Werkstofftechnik, vol. 50, no. 5, pp. 635-645, 2019
  • 19. L. Sukhodub, A. Panda, L. Sukhodub, M. Kumeda and P. Baron. “Hydroxyapatite and zinc oxide based two-layer coating, deposited on Ti6Al4V substrate.” MM Science Journal, pp. 3494-3499, 2019
  • 20. A. Panda, M. Prislupčák and I. Pandová. “Progressive technology diagnostics and factors affecting machinability.” Applied Mechanics and Materials, vol. 616, pp. 183-190, 2014
  • 21. A. Panda, J. Duplák. “Comparison of Theory and Practice in Analytical Expression of Cutting Tools Durability for Potential Use at Manufacturing of Bearings”. Operation and Diagnostics of Machines and Production Systems Operational States II, pp. 300-307, 2014
  • 22. A.V. Podlazov. “Regimes with aggravation with complex indicators. Log-periodic oscillations in the model of fiber bundle rupture”. Preprints of the IPM im. M.V. Keldysh, no. 35, 22 p., 2009
  • 23. N.E. Myasnikova. “Decomposition into empirical modes based on extremal filtration”. Digital Signal Processing, no. 4, pp. 13-17, 2014
  • 24. O.V. Urentsov. “Checking the possibility of predicting crises in the financial market using the D method”. Proceedings of the ISA RAS, vol. 40, pp. 174-191, 2008
  • 25. Opis tsyfrovoi systemy otrymannia lazernykh danykh z mosta [Description of the digital system for obtaining laser data from the bridge]. Available at: http://seismo.kiev.ua/pubs/SeismoStUK16UK15OnLine2008.pdf (in Ukrainian)
  • 26. “Opis sertyfikatsii vymiriuvalnykh lazernykh kompleksiv dlia mostiv” [Description of the certification of measuring laser complexes for bridges]. Available at: http://seismo.kiev.ua/pubs/230200ArticleText53105511020210524.pdf (in Ukrainian)
  • 27. S.V. Shcherbina, Yu.V. Lesovoy. “Programmnoe obespechenie telemetricheskoi sistemy sbora i obrabotki mikroseismicheskikh dannykh v rezhime on-line” [Software for a telemetry system for collecting and processing microseismic data in real-time]. Geodinamika, vol. 1, no. 7, pp. 110-115, 2008. (in Ukrainian)
  • 28. S.V. Shcherbina, A.I. Feshchenko, Yu.V. Lisovyi, A.P. Ivashchenko, O.V. Adamenko, Yu.P. Soroka. “Kompleksnyi pidkhid do sertyfikatsii ta metrologichnoho otsiniuvannia suchasnykh tsyfrovykh seismometrychnykh reiestratoriv” [Comprehensive approach to certification and metrological evaluation of modern digital seismometric recorders]. Geofizicheckiy zhurnal, no. 2, vol. 43, pp. 201-217, 2021. (in Ukrainian)
  • 29. S. Shcherbina, A. Feshchenko, R. Nesterenko. “Vykorystannia lazernoi seismo-akustychnoi systemy v ramkakh DBN V.2.5-76:2014 dlia postiiinoho monitorynhu problemnykh mostiv” [Use of the laser seismic-acoustic system within the framework of DBN B.2.5-76:2014 for continuous monitoring of problematic bridges]. II Mizhnarodna naukovo-praktychna konferentsiia im. P.M. Kovalia “Aktualni pytannia mostovoho hospodarstva ta shliakhy yoho pokrashchennia”. 07-09 December 2022, Lviv, Ukraine. (in Ukrainian)
  • 30. O.V. Kendzera, R.B. Kotsur, P.G. Pihulevskyi, A.I. Feshchenko, S.V. Shcherbina. “Patent for a laser Seismological Laser Complex”. UA122603U, no. 2/2018. (in Ukrainian)
  • 31. V. Nahornyi, A. Panda, J. Valíček, M. Harničárová, M. Kušnerová, I. Pandová, S. Legutko, Z. Palková and O. Lukáč. “Method of Using the Correlation between the Surface Roughness of Metallic Materials and the Sound Generated during the Controlled Machining Process”. Materials, vol. 15, 823, 2022
  • 32. A. Panda, V. Nahornyi, J. Valíček et al. “A novel method for online monitoring of surface quality and predicting tool wear conditions in machining of materials.” Int J Adv Manuf Technol, vol. 123, pp. 3599-3612, 2022
  • 33. Rozwadowski K., Konewecki A., Pasek R., Molski Sz.: Results of stress measurements on the guide rail supporting beams in a hoisting installation operated in the shaft Regis in relation to modelling data. Min. Mach. 2024, vol. 42 issue 2, pp. 90-107. DOI: https://doi.org/10.32056/KOMAG2024.2.1
  • 34. Szweda S., Wojtaszczyk M., Krenicky T.: Tests of selected elements of building components in the light of compulsory requirements. Min. Mach. 2022, vol. 40 issue 3, pp. 130-140. DOI: https://doi.org/10.32056/KOMAG2022.3.2
  • 35. A. Panda, K. Dyadyura, J. Valíček, M. Harničárová, M. Kušnerová, T. Ivakhniuk, L. Hrebenyk, O. Sapronov, V. Sotsenko, P. Vorobiov, V. Levytskyi and A. Buketov. “Ecotoxicity Study of New Composite Materials Based on Epoxy Matrix DER-331 Filled with Biocides Used for Industrial Applications.” Polymers, vol 14, 3275, 2022
Typ dokumentu
Bibliografia
Identyfikator YADDA
bwmeta1.element.baztech-88c63976-e50d-4ca7-b7a6-257ab5af644b
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