OBJECTS OF TRANSPORT INFRASTRUCTURE: EXPERIENCE OF SCIENTIFIC SUPPORT IN CONSTRUCTION WITHIN THE “QUALITY” CONCEPT IMPLEMENTATION
https://doi.org/10.26518/2071-7296-2019-5-618-634
Abstract
Introduction. The paper deals with the issues related to the implementation of the “quality” concept in the construction of reinforced concrete transport facilities linked with the scientific support during design and construction. Nowadays this problem particularly relevant in the context of the modern construction solutions, combined with the need to obtain the required properties of concrete structures and ensure the economic feasibility of construction. The aim of the research is to generalize and systematize the main methods and techniques of concrete works, which minimize the defects and cracks while the construction of transport infrastructure.
Materials and methods. On the example of different technologies used in the Russian construction over last 10 years, the authors demonstrated the developed methods of obtaining high quality concrete products taking into account tested and proved modern building materials.
Results. The results of the research formed the basis of the projects, technological regulations for the production, specifications and standards of organizations, guidelines. Moreover, the results also allowed implementing the concept of “quality” in transport construction based on obtaining defect-free reinforced concrete structures with specified properties, taking into account the use of modern building materials.
Discussion and conclusions. The research allows carrying out construction of various massiveness and extent. The obtained results form the basis of construction technology of other industrial and civil construction objects with reinforced concrete application. The paper is interesting and useful for specialists in providing defect-free construction of reinforced concrete building structures, for engineering and technical staff. The authors dedicate the research to the memory of Professor and Doctor of Technical Sciences, A.R. Solovyanchik (1938-2019).
About the Authors
I. S. PulyaevRussian Federation
Ivan S. Pulyaev – Candidate of Technical Sciences, Associate Professor, Associate Professor of the Department of Binders and Concretes’ Technologies
MoscowS. M. Pulyaev
Russian Federation
Sergey M. Pulyaev – Candidate of Technical Sciences, Associate Professor, Associate Professor of the Construction Materials and Engineering Department
MoscowReferences
1. Frolov V.K. Regulirovanie temperaturnogo rezhima betona pri sooruzhenii plotin [Regulation of the temperature regime of concrete in the construction of dams]. L. –M.: Energy, 1964: 168 p.
2. Frid S.A., Lövenich, D.P. Temperaturnye vozdejstviya na gidrotekhnicheskie sooruzheniya v usloviyah severa [Temperature effects on hydraulic structures in the North]. Leningrad: Stroyizdat, 1978. 202 p.
3. Goritskii L.I. Teoriya i raschet cementno- betonnyh pokrytij na temperaturnye vozdejstviya [Theory and design of cement concrete pavement to the temperature effect]. M.: Transport, 1965. 284 p.
4. Petrov-Denisov V.G., Gordeeva V. N., Shifrin S. A., Li A. I. Chislennoe modelirovanie teploobmena pri teplovoj obrabotke izdelij na elektrostende [Numerical simulation of heat transfer during heat treatment of products on the electric stand]. Scientific and technical journal Beton i zhelezobeton, no 1. M.: 1992. pp. 45-51.
5. Solov’yanchik A.R., Shifrin S.A. Upravlenie termonapryazhennym sostoyaniem monolitnyh zhelezobetonnyh konstrukcij pri skorostnom kruglogodichnom stroitel’stve transportnyh sooruzhenij [Management of thermally stressed state of monolithic reinforced concrete structures in high-speed year-round construction of transport facilities]. Nauchnyye trudy OAO TSNIIS. 2000; 203: 25–32.
6. Tarasov A.M., Bobrov F.YU., Pryakhin D.V. Primeneniye fizicheskogo modelirovaniya pri stroitel’stve mostov i drugikh sooruzheniy [Application of physical modeling in the construction of bridges and other structures]. Nauchno-tekhnicheskiy zhurnal Vestnik mostostroyeniya. 2007; 1: 21–26.
7. Pryakhin D.V. Issledovaniye raboty vantovogo prolotnogo stroyeniya mosta metodami fizicheskogo modelirovaniya [Investigation of the cable-stayed bridge structure using physical modeling methods]. Nauchno-tekhnicheskiy zhurnal Transportnoye stroitel’stvo. 2009; 10: 11–13.
8. Luk’yanov V.S., Solov’yanchik A.R. Fizicheskiye osnovy prognozirovaniya sobstvennogo termonapryazhonnogo sostoyaniya betonnykh i zhelezobetonnykh konstruktsiy [Physical basis for predicting the intrinsic thermo-stress state of concrete and reinforced concrete structures]. Sbornik nauchnykh trudov TSNIIS. 1972; 73: 36–42.
9. Solov’yanchik A.R., Smirnov N.V., Il’in A.A. Opredelenie modulya uprugosti betona v rannem vozraste i osobennosti ego ucheta pri raschetah termonapryazhennogo sostoyaniya konstrukcij [Determination of the modulus of elasticity of concrete at an early age and features of its account in the calculations of the thermally stressed state of structures]. Nauchnyye trudy OAO TSNIIS. 2004; 204: 27–32.
10. Shifrin S.A. Sovremennaya differencial’naya kalorimetricheskaya ustanovka CNIIS dlya issledovaniya teplovydeleniya modificirovannyh betonov [Modern differential calorimetric unit TsNIIS for the study of heat generation of modified concrete]. Nauchno-tekhnicheskij zhurnal «Pribory». 2007; 5: 18–22.
11. Zasedatelev I.B., SHifrin S.A., Tkachev A.V. Osobennosti termoobrabotki tonkostennyh izdelij v gelioformah. [Peculiarities of heat treatment of thin-walled products in helioform]. Scientific and technical journal Beton i zhelezobeton. 1986; 1: 7–12.
12. Pulyayev I.S., Dudayeva A.N. Issledovaniye temperaturnogo rezhima tverdeyushchego betona verkhnikh yarusov verkhney chasti pilonov pri stroitel’stve mosta cherez r. Oku na obkhode g. Muroma [Investigation of the temperature regime of hardening concrete of the upper layers of the upper part of the pylons during the construction of the bridge over the Oka River on the bypass of the city of Murom]. Nauchnyye trudy OAO TSNIIS «Ispytaniya i raschoty konstruktsiy transportnykh sooruzheniy». 2009; 251: 45–52.
13. Sokolov S.B. Vliyaniye kolebaniy temperatury vozdukha v teplyakakh na temperaturu tverdeyushchego betona pri vozvedenii monolitnykh plitno-rebristykh prolotnykh stroyeniy v kholodnyy period goda [Influence of air temperature fluctuations in hotbeds on the temperature of hardening concrete during the erection of monolithic slab-ribbed spans during the cold period of the year]. Nauchnyye trudy OAO TSNIIS Ot gidravlicheskogo integratora k sovremennym komp’yuteram. 2002; 213: 167–172.
14. Solov’yanchik A.R., Korotin V.N., Shifrin S.A., Veytsman S.G. Opyt snizheniya treshchinoobrazovaniya v betone ot temperaturnykh vozdeystviy pri sooruzhenii Gagarinskogo tonnelya [Experience in reducing cracking in concrete from thermal effects during the construction of the Gagarinsky tunnel]. Nauchno-tekhnicheskiy zhurnal Vestnik mostostroyeniya. 2002; 3–4: 53–59.
15. Ginzburg A.V. Obespecheniye vysokogo kachestva i effektivnosti rabot pri vozvedenii tonneley iz monolitnogo betona [Ensuring the high quality and efficiency of work in the construction of tunnels from monolithic concrete]. Nauchno- tekhnicheskiy zhurnal Vestnik MGSU. 2014; 1: 98–110.
16. Solov’yanchik A.R., Shifrin S.A., Korotin V.N., Veytsman S.G. Realizatsiya kontseptsii «kachestvo» pri sooruzhenii Gagarinskogo tonnelya v g. Moskve [Realization of the concept of “quality” in the construction of the Gagarinsky tunnel in Moscow]. Nauchnyye trudy OAO TSNIIS Tekhnologii i kachestvo vozvodimykh konstruktsiy iz monolitnogo betona. 2003; 217: 206–212.
17. Komandrovskij A.F. Opyt sooruzheniya prolyotnyh stroenij iz monolitnogo prednapryazhennogo zhelezobetona [Experience in the construction of superstructures of monolithic prestressed concrete]. Nauchno-tekhnicheskiy zhurnal Vestnik mostostroyeniya. 2003; 3–4: 24–29.
18. Vasil’yev A.I., Veytsman S.G. Sovremennyye tendentsii i problemy otechestvennogo mostostroyeniya [Modern trends and problems of domestic bridge construction]. Nauchno-tekhnicheskiy zhurnal Vestnik mostostroyeniya. 2015; 1: 2–17.
19. Kosmin V.V., Mozalev S.V. Problemy issledovaniy, proyektirovaniya i stroitel’stva mostov bol’shikh prolotov [Problems of research, design and construction of large span bridges]. Nauchno-tekhnicheskiy zhurnal Vestnik mostostroyeniya. 2014;1: 19–24.
20. Balyuchik E.A., Chernyy K.D. Povysheniye treshchinostoykosti opor mostov iz monolitnogo betona konstruktivnymi metodami [Increasing the crack resistance of bridge supports made of solid concrete with constructive methods]. Sbornik nauchnykh trudov TSNIIS. 2010; 257: 49–57.
21. Solov’yanchik A.R., Shifrin S.A., Il’in A.A., Sokolov S.B. Vybor tekhnologicheskikh parametrov proizvodstva betonnykh rabot pri vozvedenii massivnykh rostverkov i opor arochnogo pilona vantovogo mosta cherez reku Moskvu [Selection of technological parameters for the production of concrete works during the erection of massive grillage and support of the arch bridge of the cable bridge over the Moscow River]. Nauchnyye trudy OAO TSNIIS Issledovaniye transportnykh sooruzheniy. 2006; 230: 24–30.
22. Solov’yanchik A.R., Shifrin S.A., Korotin V.N., Veytsman S.A. Opyt ispol’zovaniya nepolnogo obzhatiya betona dlya preduprezhdeniya poyavleniya treshchin v konstruktivnykh elementakh transportnykh sooruzheniy [Experience in the use of incomplete compression of concrete to prevent the appearance of cracks in structural elements of transport structures]. Nauchnyye trudy OAO TSNIIS «Tekhnologiya i kachestvo vozvodimykh konstruktsiy iz monolitnogo betona». 2003; 217: 200–205.
23. Balyuchik E.A., Velichko V.P., Chernyy K.D. Izgotovleniye blokov oblitsovki v zimniy period stroitel’stva mosta cherez reku Angaru [Manufacturing of cladding units during the winter construction of a bridge across the Angara River]. Nauchno-tekhnicheskiy zhurnal «Transportnoye stroitel’stvo». 2012; 10: 4–7.
24. Velichko V.P., Chernyy K.D. Uchet napryazhenno- deformirovannogo sostoyaniya v sborno-monolitnykh oporakh mostov na stadii ikh sooruzheniya [Account of the stress-strain state in the team-monolithic bridge supports at the stage of their construction]. Nauchno-tekhnicheskiy zhurnal «Transportnoye stroitel’stvo». 2013; 2: pp. 11–13.
Review
For citations:
Pulyaev I.S., Pulyaev S.M. OBJECTS OF TRANSPORT INFRASTRUCTURE: EXPERIENCE OF SCIENTIFIC SUPPORT IN CONSTRUCTION WITHIN THE “QUALITY” CONCEPT IMPLEMENTATION. The Russian Automobile and Highway Industry Journal. 2019;16(5):618-634. (In Russ.) https://doi.org/10.26518/2071-7296-2019-5-618-634