Table of contents
B.S. SOKOLOV, Candidate of Science (Engineering), S.A. ZENIN, Candidate of Science (Engineering)
Research, Design and Technological Institute For Concrete and Reinforced Concrete named after A.A. Gvozdev,
“Research and Development Center “Stroitel’stvo” AO (6, 2nd Institutskaya Street, Moscow, 109428, Russian Federation)
Analysis of the Regulatory Base for Designing Reinforced Concrete Structures
The emergence of new building materials, technologies, and design methods leads to the necessity of permanent renovation of the construction regulatory base, and the expansion and
deepening of cooperation between the states entails the necessity to harmonize Russian regulatory-technical documentation with international documents. Technical regulation in the
field of design and construction with the use of reinforced concrete is of particular importance due to the leading positions of reinforced concrete in the overall structure of the world
manufacture of building products. The analysis of domestic regulatory documents on the design of reinforced concrete structures has been made. The systematization of legal, technical
and methodical documents, codes of rules, standards related to the design of reinforced concrete structures has been executed. Have been analyzed the most widespread foreign and
international systems of regulatory documents in the field of reinforced concrete structures design, their requirements have been compared with requirements of domestic norms. The
issues which were partially covered in the existing regulatory-technical documents have been revealed. Documents required to be developed, redeveloped or canceled have been determined.
On the basis of results obtained, the hierarchical structure of the complex of regulatory documents in the field of the design of reinforced concrete structures including the basic
and three consistently subordinated levels of regulatory documents has been formed. Proposals on correction and addition of the domestic system of regulatory documents, making
changes in the existing documents and development of new ones have been developed. Among the most important areas of work on the development of the regulatory base it is necessary
to identify the regulation in the field of operation of reinforced concrete structures and buildings, regulation in the field of scientific-technical support of design and construction,
regulation in the field of providing the fire resistance and fire durability of reinforced concrete structures.
Keywords: design, reinforced concrete structures, regulatory-technical documentation, standard, code of rules.
For citation: Sokolov B.S., Zenin S.A. Analysis of the regulatory base for designing reinforced concrete structures. Stroitel’nye Materialy [Construction Materials]. 2018. No. 3, pp. 4–12.
1. Almazov V.O. Proektirovanie zhelezobetonnykh konstruktsii
po evrokodam [Designing of reinforced concrete
structures by Eurocodes]. Moscow: ASV. 2011. 216 p.
2. Volkov Ju.S. Issue of Russian practice of application of
Eurocode-2 «Reinforced concrete structures of buildings
» (European standard EN 1992-1-1). Beton i zhelezobeton.
2014. No. 6, pp. 2–3. (In Russian).
3. Kolmogorov A.G., Plevkov V.S. Raschet zhelezobetonnykh
konstruktsii po rossiiskim i zarubezhnym normam
[Calculation of reinforced concrete structures by
the Russian and foreign codes]. Tomsk: Pechatnaya
manufaktura. 2009. 496 p.
4. Puharenko Ju.V., Aubakirova I.U., Staroverov V.D.,
Krishtalevich A.K. Prospect of introduction of Eurocodes
in the Russian Federation. Vestnik grazhdanskih inzhenerov.
2015. No. 2, pp. 107–115. (In Russian).
5. Rosental N.К. About use of Eurocodes in technology of concrete.
Beton i zhelezobeton. 2014. No. 6, pp. 3–4 (In Russian).
6. Sanzharovsky R.S. How to overcome contradictions of
Codes on reinforced concrete of the Russian Federation
and Eurocodes. Stroitelnaya gazeta. 23.11.2012. No. 47,
pp. 1–2. (In Russian).
7. Tamrazyan A.G., Falikman V.R. Basic requirements for the
design of reinforced concrete structures on the fib model
code. Vestnik MGSU. 2016. No. 3, pp. 71–76 (In Russian).
8. The report on research work on a theme: «Implementation
of works on monitoring and the analysis of regulatory
documents in construction and preparation of proposals
on perspective structure of a complex of regulatory technical
documentation in the field of reinforced concrete and
concrete structures». Research, Design and Technological
Institute of Concrete and Reinforced Concrete named
after A.A. Gvozdev, “Research and Development Center
“Stroitel’stvo” The customer: FAU “FCS”. Contract
No. 588/2015 of 09.10.2015. (In Russian).
9. Kozelkov M.M., Lugovoi A.V. Analysis of the basic regulatory
legal documents in the field of designing and construction
for recycling. Vestnik NIC “Stroitel’stvo”. 2017.
No. 4 (15), pp. 134–145. (In Russian).
10. Travush V.I., Volkov Ju.S. Building’s norms: obligatory
or voluntary? The draft of the list of norms as a result of
which application on an obligatory basis realization of
requirements of the technical rules «About safety of
buildings and constructions» is provided. Vestnik MGSU.
2014. No. 3, pp. 7–14 (In Russian).
11. Travush V.I., Volkov Ju.S. That it is necessary to change
in the Technical rules «About safety of buildings and constructions
». Stroitelstvo i rekonstruktsiya. 2015. No. 3,
pp. 75–79. (In Russian)
A.P. SHALAEV, Deputy Head (Pr.Shalaeva@gost.ru)
Federal Agency on Technical Regulating and Metrology (Rosstandart) (7, bldg.1, Kitaygorodsky proeezd, 109074, Moscow, Russian Federation)
Mandatory Confirmation of Compliance of Building Materials
It is shown that today the need for introducing the mandatory confirmation of compliance is once again becoming relevant in different branches of the industry, in the field of manufacturing
construction products including. The central link in the national standardization system is ‘technical standardization committees” (TC) established on the basis of equal representation
of stakeholders in relation to different spheres of standardization. Technical committees TC 144 “Building materials and products” and TC 465 “Construction”, which have a distinction
of activity areas, operate in the field of building materials standardization. All standards for approval that affect common or close areas of standardization have the results of
expertise made by the related technical committee.
Keywords: building materials, standard, certification, technical committee, standardization.
For citation: Shalaev A.P. Mandatory Confirmation of Compliance of Building Materials. Stroitel’nye Materialy [Construction Materials]. 2018. No. 3, pp. 13–16. (In Russian).
1. Tumanov D.K., Sergeyeva A.A., Tumanova M.V.
Problematik of use of construction materials: environmental
friendliness, certification, falsification. Tehnologija
i organizacija stroitel’nogo proizvodstva. 2013. No. 4 (5),
pp. 32–35. (In Russian).
2. Panyukova Yu.V., Gurova M.V. Obligatory examination
and certification of construction materials and products
on indicators of fire safety. Rossijskaja nauka i obrazovanie
segodnja: problemy i perspektivy. 2016. No. 1 (8),
pp. 87–89. (In Russian).
3. Kardapoltsev K.V., Kardapoltseva A.V., Kirpicheva Ya.M.
Features of certification of foreign construction materials
in the territory of the Russian Federation. Tamozhennoe
delo i vneshnejekonomicheskaja dejatel’nost’ kompanij.
2017. No. 1 (2), pp. 433–449. (In Russian).
4. Baburin V.V., Boyko O.A., Sirs S.L. Oborot of counterfeit
construction materials: determinants and measures of
counteraction. Juridicheskaja nauka i pravoohranitel’naja
praktika. 2016. No. 1 (35), pp. 128–133. (In Russian).
5. Skobelev D.O., Guseva T.V., Molchanova Ya.P.,
Averochkin E.M. Power and environmental efficiency of
production of construction materials. Kompetentnost’.
2011. No. 9–10, pp. 32–41. (In Russian).
6. Guseva T.V., Molchanova Ya.P., Mironov A.V.,
Malkov A.V. NDT: new ecological measurement of quality
in the industry of construction materials.
Kompetentnost’. 2015. No. 8 (129), pp. 4–8. (In Russian).
I.I. AKULOVA, Doctor of Sciences (Еconomics) (firstname.lastname@example.org),
E.M. CHERNYSHOV, Doctor of Sciences (Engineering), academician RAACS (email@example.com)
Voronezh State Technical University (84, 20 years of October St., Voronezh, 394006, Russian Federation)
Strategy of Development for a Regional Construction Complex: Technology of Development, Direction and Experience of Realization
Topical issues of development of the strategy of development for the regional construction complex (RCC) are considered. Branch problems, the purpose and problems of development
of a complex are designated. It is shown that the technology of development of strategy of RSK has to lean on modern scientific base which basis is made by the economic theory and
system engineering, the theory of forecasting and economic geography, mathematical modeling and statistics. As the main directions of realization of strategy housing construction,
infrastructure and industrial construction, architectural and construction design, production of construction materials, products and designs, personnel policy, technical regulation are
allocated. It is offered to apply the scenario forecasting providing multiple approach when developing strategy to determination of values of strategic indicators of development of a
regional construction complex. In the procedure of forecasting demographic and social and economic specifics of the region, feature of his source of raw materials and production
potential, a tendency in consumer preferences of the population in relation to parameters of comfort of living conditions have to be considered.
Keywords: regional construction complex, development strategy, technology of development, scenario forecasting, directions of realization.
For citation: Akulova I.I., Chernyshov E.M. Strategy of development for a regional construction complex: technology of development, direction and experience of realization. Stroitel’nye
Materialy [Construction Materials]. 2018. No. 3, pp. 17–23. (In Russian).
1. Akulova I.I., Chernyshov E.M., Praslov V.A.
Prognozirovanie razvitiya regional’nogo stroitel’nogo
kompleksa: teoriya, metodologiya i prikladnye zadachi
[Prediction of development of a regional construction
complex: theory, methodology and application-oriented
tasks]. Voronezh: Voronezhskii gos. tekhn. un-t, 2016.
162 p. (In Russian).
2. Semenov V.N. Perspektivy razvitiya regional’nogo zhilishchnogo
stroitel’stva na primere Voronezhskoi oblasti
[The prospects of development of regional housing construction
on the example of the Voronezh region].
Voronezh: Voronezhskii gos. arkhit.-stroit. un-t, 2011.
139 p. (In Russian).
3. Kondrat’ev V.B. Branch industrial policy as motor of
modernization of economy. V knige: Otrasli i sektora
global’noi ekonomiki: osobennosti i tendentsii razvitiya
[Branches and sectors of global economy: features and
tendencies of development]. Fond istoricheskoi perspektivy
Tsentr issledovanii i analitiki. Moscow, 2015,
pp. 8–32. (In Russian).
4. Macheret D.A., Kuznetsov R.A. Formation of standard
structure of strategy of long-term development of
the enterprises of construction branch. Modern problems
of management of economy of a transport complex of
Russia: competitiveness, innovations and economic sovereignty:
The collection of works of the International scientific
and practical conference devoted to the 85 anniversary
of institute of economy and finance МIEТ.
Moskovskii gosudarstvennyi universitet putei soobshcheniya,
Institut ekonomiki i finansov. 2015,
pp. 160–162. (In Russian).
5. Vil’ner M.Ya. About approaches to formation of the development
strategy of construction branch. BST:
Byulleten’ stroitel’noi tekhniki. 2015. No. 12 (976),
pp. 54–55 (In Russian).
6. Bashtygova I.R Tendencies of development of construction
branch in economy of Russia. Economy and management:
analysis of tendencies and prospects of development:
Collection of works XXXII of the International scientific
and practical conference. Rostov-na-Donu, 2017,
pp. 121–125. (In Russian).
7. Kondrat’ev V.B. Natural resources and economic growth.
Mirovaya ekonomika i mezhdunarodnye otnosheniya. 2016.
T. 60. No. 1, pp. 41–52. (In Russian).
8. Kotova L.G., Shevchenko A.P. Innovative strategy of the
enterprises of construction branch. XXI vek: itogi proshlogo
i problemy nastoyashchego. 2014. T. 1. No. 2 (18),
pp. 170–174. (In Russian).
9. Drogomiretskii A.V. Innovative construction materials as
instrument of strategic development of branch. Fotinskie
chteniya. 2014. No. 1 (1), pp. 113–118. (In Russian).
10. Lomovtseva N.N., Baldina S.G. The strategic directions
of development of the Ulyanovsk region and their realization
by means of state programs. Upravlenie ekonomicheskimi
sistemami: elektronnyi nauchnyi zhurnal. 2015.
No. 6 (78), p. 29. (In Russian).
11. Chernyshov E.M., Akulova I.I., Kukhtin Yu.A. Resourcesaving
architectural and construction systems for residential
buildings (The Voronezh experience). Gradostroitel’stvo.
2011. No. 5, pp. 70–73. (In Russian).
12. Zayanchukovskaya N.V., Oparina L.A. Power - and resource-
saving in a construction housing and utilities sector
in aspect of concepts of strategic development of
Russia. Strategic planning and enterprise development:
Proceedings of the Sixteenth All-Russian symposium.
Moskva, 2015, pp. 80–82. (In Russian).
13. Akulova I.I., Dudina N.A., Baranov E.V. Technique and
results of assessment of competitiveness of the heat-insulating
materials applied in housing construction. Economy.
3D-volumetric Formwork for Efficient Production from Tecnocom SPA (Information) ..... 24
erpbos® is a System of Planning Resources of an Enterprise from Progress Software Development GmbH (Progress Group) (Information) ....25
V.V. GRANEV, Doctor of Science (Engineering) (firstname.lastname@example.org); E.N. KODYSH, Doctor of Science (Engineering) (email@example.com);
N.N. TREKIN, Doctor of Science (Engineering) (firstname.lastname@example.org); K.E. SOSEDOV, Engineer (email@example.com)
AO “TSNIIPromzdaniy”, (46, bldg.2, Dmitrovskoe Highway, Moscow, 127238, Russian Federation).
Reinforcement of An600C Class in Modern Construction
Rebar of An600C class made of 20G2SFBA steel has been developed and is manufactured by Cherepovets Steel Mill of PAO “Severstal”. Due to the chemical composition including niobium
and vanadium, this thermo-mechanically hardened steel has high corrosion resistance, fire resistance and ductility. Research in the use of the rebar of An600S class in prefabricated
reinforced concrete structures has shown the possibility to reduce the consumption of rolled product in structures with frame-reinforced concrete frames by series 1.020-4 and
1.420-35.95 with overlappings from multi-hollow slabs. Reduction in the consumption of reinforcing bars reaches 13.3% in comparison with rebar of A500C class , and in buildings of
the series 1.020-1/ 83 (87) – 9% in comparison with the rebar of A500C class. For multicore slabs, the reduction in consumption of the reinforcement used in the frames of these series
in comparison with rebar of A500C class can reach 21%, and when compared with the widely used rebar A600, the savings can be 7%.
Keywords: reinforcing bars, prefabricated reinforced concrete structures, columns, beams, multicore slabs.
For citation: Granev V.V., Kodysh E.N., Trekin N.N., Sosedov K.E. Reinforcement of An600C class in modern construction. Stroitel’nye Materialy [Construction Materials]. 2018. No. 3,
pp. 26–29. (In Russian).
1. Madatjan S.A. The properties of armatures of ferroconcrete
constructions in Russia at the level of the best international
building standards. Beton i zhelezobeton. 2013.
No. 5, pp. 2–5. (In Russian).
2. Madatjan S.A. Basis for the use of high-strength steel reinforcement
in reinforced concrete. Promyshlennoe i
grazhdanskoe stroitel’stvo. 2013. No. 1, pp. 17–20.
3. Madatjan S.A., Klimov D.E. The new universal welded
reinforcing steel of the class An600s. Chernaja metallurugija.
2012. No. 3, pp. 50–59. (In Russian).
4. Granev V.V., Kodysh E.N., Trekin N.N., Sosedov K.E.
Using of reinforcement Aн600C (Brand 20G2SFBA) in
reinfeorced concrete load bearing structures. Concrete
and reinforced concret – Glance at future: scientific
works of III All Russian (II International) Conference on
Concrete and reinforced Concrete. Moscow. 2014.
Vol. 3, pp. 25–31 (In Russian).
5. Sosedov K.E. Reinforcement bars of An600s from steel of
brand 20G2SFBA and a condition of using in reinforced
concrete designs. Innovations in construction – 2017:
matherials of the International Scientific Conference.
Brjansk. 2017. Vol. 1, pp. 297–302. (In Russian).
IHBF: Half a Century in the Life of Voronezh (Information) .... 30
IHBF: Half a Century in the Life of Voronezh (Information) .... 30
High-Frequency Concrete Mix Vibrator from WECKENMANN (Information).... . 34
EVG will Improve its Mesh-Welding Units (Information) ..... 36
Concrete Mixing Units TEKA for the Factory Producing Ultra-High Performance Concrete Frames in China (Information).... 38
A.V. KOVRIGIN1, Engineer, Head of Technical Support Group (firstname.lastname@example.org), A.V. MASLOV1, Engineer;
A.V. GRANOVSKY2, Candidate of Sciences (Engineering), Head of Laboratory, Research Center of Seismic Stability of Constructions (email@example.com)
Seismic Safety of Wall Panels with Ties SPA7.5
The development of large-panel housing construction requires improvement of the design technology and quality materials used. OOO “The Biysk Factory for Making Glass-Fiber
Reinforced Plastics” in cooperation with Allbau Software have developed the module of automated design of location of flexible ties SPA7.5 for three-layer panels for the design environment
Planbar. To determine the reliability of ties SPA7.5 in the system of three-layer panels when operating in seismic dangerous districts, the relevant tests have been conducted on
the basis of the Laboratory of research in seismic reliability of structures of TsNIISK named after V.A. Kucherenko. The tests have confirmed the seismic safety of three-layer panel with
ties SPA7.5 when operating in areas with seismicity of 7–9 points.
Keywords: seismic safety, three-layer reinforced concrete panels, in-place tests, glass plastic flexible ties SPA7.5, BIM-design, Planbar, module of automated design.
For citation: Kovrigin A.V., Maslov A.V., Granovsky A.V. Seismic safety of wall panels with ties SPA7.5. Stroitel’nye Materialy [Construction Materials]. 2018. No. 3, pp. 41–44.
1 OOO “The Biysk Factory for Making Glass-Fiber Reinforced Plastics” (60/1, Leningradskaya Street, Biysk, Altai Krai, 659316, Russian Federation)
2 TsNIISK named after V.A. Kucherenko, JSC Research Center of Construction, (6, bldg.1 2nd Institutskaya Street, 109428, Moscow, Russian Federation)
1. Kovrigin A.G., Maslov A.V., Vald A.A. Factors influencing
on reliability of composite ties used in large-panel
housing construction. Stroitel’nye Materialy [Construction
Materials]. 2017. No. 3, pp. 31–34. (In Russian).
2. Kovrigin A. G, Maslov A.V. Composite Flexible Bracing
in Large-Panel House Building. Stroitel’nye Materialy(In Russian).
3. Usmanov Sh.I. Formation of economic strategy of development
of industrial housing construction in Russia. Politika,
gosudarstvo i pravo. 2015. No. 1 (37), pp. 76–79. (In Russian).
4. Baranova L.N. Development of industrial housing construction
and the industry of construction materials in
various regions of Russia. Vestnik Rossiiskoi akademii estestvennykh
nauk. 2013. No. 3, pp. 61–63. (In Russian).
5. Lugovoy А.N., Kovrigin A.G. Composite Flexible
Bracings for Three-Layered Thermal Efficient Panels.
Stroitel’nye Materialy [Construction Materiаls]. 2011.
No. 3, pp. 32–33. (In Russian).
6. Lugovoy А.N. Enhancement of Energy Efficiency of
Enclosing Structures. Stroitel’nye Materialy [Construction
Materiаls]. 2014. No. 5, pp. 22–24. (In Russian).
7. Lugovoy А.N., Kovrigin A.G. Three-layer reinforced
concrete wall panels with composite flexible communications.
Stroitel’nye Materialy [Construction Materiаls].
2015. No. 5, pp. 35–38. (In Russian).
8. Hozin V.G., Piskunov A.A., Gizdatullin A.R.,
Kuklin A.N. Coupling of polimerkompozitny fittings
with cement concrete. Izvestiya KazGASU. 2013.
No. 1 (23), рр. 214–220. (In Russian).
9. Blazhko V.P., Granik M.Yu. Flexible bazaltoplastikovy
communications for application in three-layer panels of
external walls. Stroitel’nye Materialy [Construction
Materiаls]. 2015. No. 5, pp. 56–57. (In Russian).
10. Blaznov A.N., Atyasova E.V., Bychin N.V., Shundrina
I.K., Hodakova N.N., Samoylenko V.V. Influence of
extent of hardening of vitrification of composite materials,
binding on temperature. Yushno-sibirskii nauchnyi
vestnik. 2016. No. 1, pp. 13–19. (In Russian).
Industrial Complex Engineering for Building Industry Enterprises from “Privolzhsky Tsentr. StroitelnyieTekhnologii” (Information) ..... 46
O.V. BOGOMOLOV, Doctor of Sciences (Engineering), General Director (firstname.lastname@example.org)
ZAO “Engineering Company “INTERBLOCK” (22, Struktere 1B, 20, Kulakova, 123592, Moscow, Russian Federation)
Estimate of Energy Efficiency of Manufacturing Reinforced Concrete Products
The existing methods for assessing the efficiency of production processes are not always convenient to use in daily activities. A simple method for estimating the efficiency of the heat
supply system of the reinforced concrete products factories is proposed. Twenty years of experience in technical re-equipment of enterprises of the construction complex confirms criteria
and calculation methodology of energy efficiency of manufacturing RCP developed by the Engineering Company “INTERBLOCK” and presented in this article. The use of industrial
steam generators “INTERBLOCK” in technological processes of production, heating, hot water supply provides the reduction in costs for fuel by 2.5–3 times comparing with traditional
boiler and other technologies.
Keywords: energy efficiency, steam generator, steam power utilities of enterprise, power supply, reinforced concrete products.
For citation: Bogomolov O.V. Estimate of energy efficiency of manufacturing reinforced concrete products. Stroitel’nye Materialy [Construction Materials]. 2018. No. 3, pp. 48–49.
1. Bogomolov O.V. A Real Tool of Energy Saving at
Construction Industry Enterprises. Stroitel’nye Materialy
[Construction Materials]. 2013. No. 3, pр. 14. (In Russian).
2. Bogomolov O.V. Reduce costs of thermal energy.
Stroitel’nye Materialy [Construction Materials]. 2012.
No. 3, pp. 20. (In Russian).
3. Bogomolov O.V. A Experience of Energy Saving at
Industrial Enterprises. Stroitel’nye Materialy [Construction
Materials]. 2014. No. 5, pр. 28–29. (In Russian).
4. Patent RF 2591217. Sposob teplovlazhnostnoi obrabotki
betonnykh izdelii [Way of heatmoist processing of concrete
products]. Bogomolov O.V., Malyshev A.A. Declared
10.06.2015. Published 20.07.2016. Bulletin No. 20.
5. Patent RF 2598667. Sposob polucheniya teplonositelya
dlya teplovlazhnostnoi obrabotki betonnykh i zhelezobetonnykh
izdelii [A way of receiving the heat carrier for
heatmoist processing of concrete and concrete goods]
Bogomolov O.V., Malyshev A.A., Gavril’chuk V.A.,
Suvorov A.A., Kovshov A.P. Declared 27.08.2015.
Published 27.09.2016. Bulletin No. 27. (In Russian).
International Experience in Production of Reinforced Concrete Products with Nordimpianti (Information).... 50
T.A. MATSEEVICH, Doctor of Sciences (Physics and Mathematics) (email@example.com); A.A. ASKADSKII, Doctor of Sciences (Chemistry) (firstname.lastname@example.org)
Decking: Structure, Manufactoring, Properties. Part 2. Theral Properies, Water absorption, Abrasion, Hardness,
Resistance to Climatic Influences, the use of Recycled Polymers
Literature data and results of own studies of thermal properties, water absorption, wearing property, hardness and resistance of terrace boards to climatic impacts are stated. The
possibilities to use secondary polymers as binders are briefly analyzed. Terrace boards are made of wood-polymer composites. Main matrix polymers are polyvinylchloride, polyethylene,
and polypropylene. Studies show that terrace boards of the Savewood Company on the basis of PVC have the following characteristics: softening temperature – about 200 Cо,
coefficient of linear thermal expansion measured along the length of a sample – 20.8–27.1 К-1.10-6, water absorption – 1.25%, Brinell hardness – 580 MPa. The material has a high
resistance to climatic impacts. Practically all parameters of the terrace board on the basis of polyvinylchloride are superior to similar products where the matrix polymer is polyethylene
Keywords: decking boards, wood-polymer composites, thermal properties, water absorption, abrasion, hardness, climatic influences, recycled polymers, polyvinylchloride, polyethylene,
For citation: Matseevich T.A., Askadskii A.A. Decking: structure, manufacturing, properties. Part 2. Тhermal properties, water absorption, abrasion, hardness, resistance to climatic influences,
the use of recycled polymers. Stroitel’nye Materialy [Construction Materials]. 2018. No. 3, pp. 55–61. (In Russian).
1 National Research Moscow State University of Civil Engineering (26, Yaroslavskoe Highway, Moscow, 129337, Russian Federation)
2 A.N. Nesmeyanov Institute of Organoelement Compounds of Russian Academy of Sciences (INEOS RAS) (28, Vavilova Street, Moscow, 119991,
1. Moroz P.A., Askadskiy Al.A., Matseyevich T.A., Solovyova
E.V., Askadskiy A.A. Use of secondary polymers for
production of wood and polymeric composites. Plasticheskie
massy. 2017. No. 9–10, pp. 56–61. (In Russian).
2. Matseyevich T.A., Askadskiy A.A. Mechanical properties
of a terrace board on the basis of polyethylene,
polypropylene and polyvinylchloride. Stroitel’stvo: nauka
i obrazovanie. 2017. Vol. 7. No. 3, pp. 48–59. (In Russian).
3. Abushenko A.V., Voskoboynikov I.V., Kondratyuk V.A.
Production of products from WPC. Delovoi zhurnal po
derevoobrabotke. 2008. No. 4, pp. 88–94. (In Russian).
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O.A. Research dependence of properties the wood and
polymeric composites from the chemical composition of
a matrix. Sovremennye problemy nauki i obrazovaniya.
2014. No. 2, p. 26. https://www.science-education.ru/
ru/article/view?id=12363. (In Russian).
5. Klesov A.A. Drevesno-polimernye kompozity / per. s
angl. A. Chmelya. [Wood and polymeric composites /
translation from English A. Chmel.]. Saint Petersburg.
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6. Walcott М.Р., Englund К.A. A technology review of
wood-plastic composites; 3ed. N.Y.: Reihold Publ. Corp.
1999. 151 p.
7. Under edition. R.F. Grossman; translation from English
under the editorship of V.V. Guzeev. Rukovodstvo po
razrabotke kompozitsii na osnove PVKh. [The guide to
development of compositions on the basis of PVC].
Scientific bases and technologies. 2009. 608 p.
8. Kickelbick G. Introduction to hybrid materials. Hybrid
Materials: Synthesis, Characterization, and Applications
/ G. Kickelbick (ed.). Weinheim : Wiley-VCH Verlag
GmbH & Co. KGaA. 2007. 498 p.
9. Wilkie Ch., Summers J., Daniyels of H. Polivinilkhlorid /
per. s angl. pod red. G.E. Zaikova. [The polyvinylchloride
/ translation from English under the editorship of
G.E. Zaikov]. Saint Petersburg. Professiya. 2007. 728 p.
10. Kokta B.V., Maldas D., Daneault C., Bland P. Composites
of polyvinyl chloride-wood fibers. Рolymer-plastics
Technology Engineering. 1990. Vol. 29, pp. 87–118.
11. Nizamov R.K. Polyvinylchloride compositions of construction
appointment with multifunctional fillers. Diss.
Doct. (Engineering). Kazan. 2007. 369 p. (In Russian).
12. Stavrov V.P., Spiglazov A.V., Sviridenok A.I. Rheological
parameters of molding thermoplastic composites high-filled
with wood particles. International Journal of Applied Mechanics
and Engineering. 2007. Vol. 12. No. 2, рр. 527–536.
13. Burnashev A.I. The high-filled polyvinylchloride
construction materials on the basis of the nano-modified
wood flour. Diss. Cand. (Engineering). Kazan. 2011.
159 p. (In Russian).
14. Figovsky O., Borisov Yu., Beilin D. Nanostructured binder
for acid-resisting building materials. Scientific Israel –
Technological Advantages. 2012. Vol. 14. No. 1, pp. 7–12.
15. Hwang S.-W., Jung H.-H., Hyun S.-H., Ahn Y.-S.
Effective preparation of crack-free silica aerogels via
ambient drying. Journal of Sol-Gel Science and Technology.
2007. Vol. 41, рp. 139–146.
16. Pomogaylo A.D. Synthesis and intercalation chemistry
of hybrid organo-inorganic nanocomposites. Vysokomolekulyarnye
soedineniya. 2006. Vol. 48. No. 7,
17. Figovsky O.L., Beylin D.A., Ponomarev A.N. Progress
of application of nanotechnologies in construction materials.
Nanotekhnologii v stroitel’stve. 2012. No. 3, pp. 6–21.
18. Korolev E.V. The principle of realization of nanotechnology
in construction materials science. Stroitel’nye
materialy. 2013. No. 6, pp. 60–64. (In Russian).
19. Abushenko A.B. Wood and polymeric composites: merge of two
branches. Mebel’shchik. 2005. No. 3, pp. 32–36. (In Russian).
20. Abushenko A.V., Voskoboynikov I.V., Kondratyuk V. A.
Production of products from DPK. Delovoi zhurnal po
derevoobrabotke. 2008. No. 4, pp. 88–94. (In Russian).
21. Abushenko A.V. Extrusion of wood and polymeric composites.
Mebel’shchik. 2005. No. 2, pp. 20–25. (In Russian).
22. Shkuro A.E., Gluhikh V.V., Mukhin N.M., etc. Influence
of maintenance of a sevilen in a polymeric matrix on
properties of wood and polymeric composites. Vestnik
Kazanskogo tekhnologicheskogo universiteta. 2012. Vol. 15.
No. 17, pp. 92–95. (In Russian).
23. Matseyevich T.A., Askadskiy A.A. Terrace boards:
structure, production, properties. Part 1. Mechanical
properties. Stroitel’nye materialy [Constructijn Materials].
2018. No. 1–2, pp. 101–105. (In Russian).
24. Askadskiy A.A., Matseyevich T.A., Popova M.N.
Vtorichnye polimernye materialy (mehanicheskie i
bar’ernye svojstva, plastifikacija, smesi i nanokompozity)
[Secondary polymeric materials (mechanical and barrier
properties, plasticization, mixes and nanocomposites)].
Moscow: ASV. 2017. 496 p.
25. Vtorichnaja pererabotka plastmass / Pod red. F. La
Mantija; per. s angl.; pod red. G.E. Zaikova. [Secondary
processing of plastic / Under the editorship of F. La
Mantia; the lane with English; under the editorship of
G.E. Zaikov.]. Saint Petersburg: Professija, 2006. 400 p.
26. Zaikov G.E. Achievements in the field of recycling of
plastics. Plasticheskie massy. 1985. No. 5, pp. 58–61.
G.I. GRINFELD1, Engineer, Executive Director; A.A. VISHNEVSKY2, Candidate of Sciences (Engineering) (email@example.com);
A.S. SMIRNOVA1, Engineer, Assistant Executive Director
Production of Autoclaved Aerated Concrete in Russia in 2017
Volumes of the production of autoclaved aerated concrete in Russia are shown; the dynamics of production of aerated concrete in 2012–2017 is traced. The analysis of production
capacities for producing the autoclaved aerated concrete by workload is presented. The structure of release of products made of autoclaved aerated concrete by types (reinforced, for
stone masonry), by brands of average density (from D200 up to D800) is given. It is shown that the production of aerated concrete reduced less than the production of other piece
materials (by 2.2% comparing with 2016), and the shear of aerated concrete at the market of wall materials increased even more. The analysis of the dynamics of output costs is made,
their reduction and the subsequent stagnation in 2013–2018 are shown. It is concluded that the volumes of production of autoclaved aerated concrete retain a high correlation with the
volumes of housing construction and their share at the market of piece materials.
Keywords: autoclaved aerated concrete, cellular concrete, statistics, production volume, output prediction.
For citation: Grinfeld G.I., Vishnevsky A.A., Smirnova A.S. Production of autoclaved aerated concrete in Russia in 2017. Stroitel’nye Materialy [Construction Materials]. 2018. No. 3,
pp. 62–64. (In Russian).
1 National Association of Autoclaved Aerated Concrete Producers (40A, Oktyabrskaya Embankment, Saint-Petersburg, 193091, Russian Federation)
2 Ural Federal University named after the first President of Russia B.N. Yeltsin (19, Mira Street, Yekaterinburg, 620002, Russian Federation)
1. Vishnevsky A.A., Grinfeld G.I., Kulikova N.O. Analysis of
Autoclaved Aerated Concrete Market of Russia. Stroitel’nye
Materialy [Construction Materials]. 2013. No. 7,
pp. 40–44. (In Russian).
2. Vishnevsky A.A., Grinfeld G.I., Smirnova A.S.
Production of Autoclaved Aerated Concrete in Russia.
Stroitel’nye Materialy [Construction Materials]. 2015.
No. 6, pp. 52–54. (In Russian).
3. Vishnevsky A.A., Grinfeld G.I., Smirnova A.S.
Manufacture of Autoclaved Aerocrete. Results of 2015.
Forecast for 2016. Stroitel’nye Materialy [Construction
Materials]. 2016. No. 5, pp. 4–8. (In Russian).
4. Vishnevsky A.A., Grinfeld G.I., Smirnova A.S. Russian
Market of Autoclave Gas Concrete . Results of 2016.
Stroitel’nye Materialy [Construction Materials]. 2017.
No. 5, pp. 49–51. (In Russian).
N.S. SOKOLOV1,2, Candidate of Sciences (Engineering), Director (firstname.lastname@example.org, email@example.com)
Research and Development of Pulse Current Generator (PCG) for Installation of Bored Piles
The impulse-discharge technology of installation of bored-injection piles opens a new direction in geotechnical construction. Due to its specific qualities, it is an original technology.
Unlike other technologies, it makes it possible to install bored-injection piles with an increased bearing capacity. The originality of this technology is the use of pulse current generators
to create an electro-hydraulic effect in a borehole drilled and filled with fine-grained concrete. The technology of bored piles with the help of a pulse generator improves reliability and
electrical safety by reducing the operating voltage. While forming a high-energy pulse, conditions are created under which a shock wave is formed and developed in the form of an electrohydraulic
effect in a medium of fine-grained concrete on the ground of the walls of a borehole. The generator of pulse current and high-voltage discharger are a uniform construction.
At the same time, PCG is an electric energy storage device, and the discharger discharges this energy in the form of an electrohydraulic effect. This creates a pile-ERT with increased
values of the bearing capacity on the ground. PCG is widely used in geotechnical practice for new construction and reconstruction. Being a unique tool for the installation of piles-ERT
and cementation of bases, the generator of impulse currents has a wide practical significance in construction.
Keywords: capacitor bank, working voltage, coaxial cable КВИМ, step voltage, PCG, bored pile, impulse-discharge technology (IDT), multi-site broadenings.
For citation: Sokolov N.S. Research and development of pulse current generator (PCG) for installation of bored piles. Stroitel’nye Materialy [Construction Materials]. 2018. No. 3,
pp. 65–69. (In Russian).
1 OOO NPF «FORST» (109a, Kalinina Street, Cheboksary,428000, Chuvash Republic, Russian Federation)
2 I.N. Ulianov Chuvash State University (15, Moskovsky Avenue, Cheboksary, 428015, Chuvash Republic, Russian Federation)
1. Patent RF 2250957. Sposob vozvedeniya nabivnoi svai
[The method of1production of a stuffed pile].
Sokolov N.S., Tavrin V.Yu., Abramushkin V.A. Declared
14.07.2003. Published 27.04. 2005. Bulletin No. 12.
2. Gayduk V. N., Shmigel V. N. Praktikum po elektrotekhnologii
[Workshop on electrotechnology]. Moscow:
Agropromizdat. 1989.175 p.
3. Kuzhenin I. P. Ispytatel’nye ustanovki i izmereniya na
vysokom napryazhenii [Test facilities and measurements
on a high tension]. Moscow: Energiya. 1980. 135 p.
4. Razevich D. V. Tekhnika bezopasnosti [Security regulation].
Moscow: Energiya. 1976. 488 p.
5. Fryungel F. Impul’snaya tekhnika. Generirovanie i primenenie
razryadov, kondensatorov [Impulse technique.
Generation and application of discharges, condensers].
Moscow – Leningrad: Energiya. 1965. 488 p.
6. Sokolov N.S., Sokolov S.N., Sokolov A.N. About a
wrong way of the device the buroinjektsionnykh of piles
with use of electrodigit technology. Zhilishchnoe
Stroitel’stvo [Housing Construction]. 2016. No. 11,
pp. 20–29. (In Russian).
7. Sokolov N.S., Sokolov S.N., Sokolov A.N. Fine Concrete
as a Structural Building Material of Bored-Injection Piles
EDT. Stroitel’nye Materialy [Construction Materials].
2017. No. 5, pp. 16–19. (In Russian).
8. Sokolov N.S., Viktorova S.S., Smirnova G.M., Fedoseeva
I.P. Flight augering piles-EDT as a buried reinforced
concrete structure. Stroitel’nye Materialy [Construction
Materials]. 2017. No. 9, pp. 47–50. (In Russian).
9. Sokolov N.S. Ryabinov V.M. The technology of appliance
of continuous flight augering piles with increased
bearing capacity. Zhilishnoe Stroitelstvo [Housing
Сonstruction]. 2016. No. 9, pp. 11–14. (In Russian).
10. Sokolov N.S. Criteria of economic efficiency of use of
drilled piles. Zhilishchnoe Stroitel’stvo [Housing
Construction]. 2017. No. 5, pp. 34–37. (In Russian).
11. Sokolov N.S., Ryabinov V.M. About effectiveness of the
appliance of continuous flight augering piles with multiple
caps using electric-discharge technology. Geotehnika.
2016. No. 2, pp. 28–34. (In Russian).
12. Sokolov N.S., Sokolov S.N., Sokolov A.N. Experience of
use the buroinjektsionnykh of piles ERT at elimination of
an emergency of the public building. Zhilishchnoe
Stroitel’stvo [Housing Construction]. 2016. No. 12,
pp. 31–36. (In Russian).
13. Sokolov N.S., Ryabinov V.M. About one method of calculation
of the bearing capability the buroinjektsi-onnykh
svay-ERT. Osnovaniya, fundamenty i mekhanika gruntov.
2015. No. 1, pp. 10–13. (In Russian).
14. Sokolov N.S. Technological Methods of Installation of
BoredInjection Piles with Multiple En-largements.
Zhilishchnoe Stroitel’stvo [Housing Construction]. 2016.
No. 10, pp. 54–57. (In Russian).
A.M. IBRAGIMOV, Doctor of Sciences (Engineering) (firstname.lastname@example.org), A.V. LIPENINA, Student (email@example.com)
National Research Moscow State University of Civil Engineering (26, Yaroslavskoe Highway, Moscow, 129337, Russian Federation)
Design of the Blast Furnace Wall Structure Made of Efficient Materials.
Part 1. Statement of a Problem and Calculation Prerequisites
Typical multilayered wallings of the blast furnace are considered. The description of layers which are a part of these structures is presented. The main attention is paid to the lining
layer. The process of iron smelting and temperature conditions in characteristic layers of the internal environment of the blast furnace are briefly described. On the basis of the
A.V. Lykov’s theory, the initial equations describing the interconnected heat and mass transfers in the solid body in relation to the set task – an adequate description of processes
with the purpose of further design of the multilayer walling of the blast furnace – have been analyzed. A priory, from a mathematical point of view, the enclosing structure
is considered as an unlimited plate.
Keywords: blast furnace, multilayered structures, lining layer, heat and mass transfer, mathematical model.
For citation: Ibragimov A.M., Lipenina A.V. Design of the blast furnace wall structure made of efficient materials. Part 1. Statement of a problem and calculation prerequisites. Stroitel’nye
Materialy [Construction Materials]. 2018. No. 1–2, pp. 70–74. (In Russian).
1. Kushnarev A.V., Visloguzova E.A., Mironov K.V.,
Baranov E.N. Refractories for lining gutters of foundries
of blast furnaces. Novye ogneupory. 2014. No. 5, pp. 5–7.
2. Fomenko A.P., Nemushkin S.V., Klochok A.V.
Experience in the use of refractory low-cement concretes
for lining the gutters of blast furnaces of the Zaporozhstal
Combine. Stal’. 2013. No. 10, pp. 26–28. (In Russian).
3. Kurunov I.F., Loginov V.N., Lyapin S.S., Polyakov N.S.,
Titov V.N. New technological solutions for the protection
of the furnace lining of blast furnaces. Metallurg.
2007. No. 8, pp. 53–57. (In Russian).
4. Bol’shoi tolkovyi slovar’ russkogo yazyka / Gl. red.
Kuznetsov S.A. [Great Dictionary of the Russian language
/ Ch. Ed. Kuznetsov S.A.]. Saint Petersburg:
Norint. 2001. 1563 p.
5. Politekhnicheskii slovar’ [Polytechnical dictionary / Ch.
Ed. Artobolevsky I.I.] Moscow: Sovietskaya Encyclopediya.
1977. 608 p.
6. Fedosov S.V., Kotlov V.G., Aloyan R.M., Yasinski F.N.,
Bochkov M.V. Simulation of heat-mass transfer in the
gas-solid system at dowel joints of timber structures elements.
Part 2. Dynamics of temperature fields at arbitrary
law of changes of air environment temperature.
Stroitel’nye Materialy [Construction Materials]. 2014.
No. 8, pp. 73–79. (In Russian).
7. Fedosov S.V., Gnedina L.Yu. Non-stationary heat transfer
in a multilayered enclosing structure. In the book.
Problems of construction thermophysics of microclimate and
energy-saving systems in buildings: Collection of reports of
IV scientific-practical conference. Moscow. April 27–29,
1999, pp. 343–348. (In Russian).
8. Bol’shakova N.V. Energy and resource saving in hightemperature
furnaces with a false casing. Izvestiya MGTU
«MAMI». 2013. No. 3 (17). Vol. 2, pp. 79–85. (In Russian).
9. Lykov A.V. Teoreticheskie osnovy stroitel’noi teplofizik
[Theoretical foundations of building thermal physics].
Minsk: AN BSSR Publishing. 1961. 520 p.
M.A. GAZIEV, Candidate of Sciences (Enginering) (firstname.lastname@example.org)
Grozny State Oil Technical University named after acad. M.D. Millionshchikov (100, Isaev Street, Grozny, Chechen Republic 364061, Russian Federation)
An Empirical Method for Calculating Wetness-Carbonization Stresses Emerges in Panels of Aerated Concrete,
with Considering its Rheological Properties
The problem of estimating the shrinkage stresses taking the creep into account arising in the outer layers of the wall panels made of aerated concrete with a contemporaneous action of
wetness and carbonization processes is considered. A practical calculation method is proposed for the determination of these stresses. The method is based on the classical approach
and principles developed by Aleksandrovsky and Arutunyan for solving applied problems in the theory of creep but with considering the influence of wetness and carbonization on
shrinkage, creep and stress relieving of autoclaved aerated concrete. The calculations performed by this method made it possible for the first time to obtain information about the development
of intrinsic stresses in cellular concrete wall panels. This method allows also to determine their limiting total values at which shrinkage cracks can form on the surface of the
wall panels and calculate their depth. This gives us the opportunity to develop technological and constructive activities aimed to improve the longevity of the aerated concrete wares.
Keywords: aerated concrete, carbonization, shrinkage stresses, creeping, stress relieving, crack resistance, longevity.
For citation: Gaziev M.A. An empirical method for calculating wetness-carbonization stresses emerges in panels of aerated concrete, with considering its rheological properties.
Stroitel’nye Materialy [Construction Materials]. 2018. No. 3, pp. 75–79. (In Russian).
1. Aleksandrovsky S.V. Raschet betonnyh i zhelezobetonnyh
konstrukcij na izmenenija temperatury i vlazhnosti s uchetom
polzuchesti [Сalculation of concrete and reinforced
concrete structures for temperature and humidity changes
taking into account creep]. Moscow: Stroyizdat. 1973. 417 p.
2. Aleksandrovskiy S.V. Dolgovechnost’ naruzhnyh ograzhdajushhih
konstrukcij [Durability of external building
envelop]. Moscow: Stroyizdat. 2004. 332 p.
3. Polzuchest’ i usadka betona i zhelezobetonnyh konstrukcij
[Creep and shrinkage of concrete and reinforced concrete
structures. Under the editorship of
S.V. Alexandrovskij]. Moscow: Stroyizdat. 1976. 351 p.
4. Arutyunyan N.H. Nekotorye voprosy teorii polzuchesti
[Some questions in the Creep Theory]. Moscow-
Leningrad: Gostekhizdat. 1952. 324 p.
5. Arutyunyan N.H., Kolmanovsky V.V. Teorija polzuchesti
neodnorodnyh tel [Creep Theory of heterogeneous
bodies]. Moscow: Nauka. 1983. 336 p.
6. Vasilyev P.I. Approximate method of creep deformations account
at determination of temperature stresses in massive concrete slabs.
Izvestiya of VNIIG. 1952. Vol. 47, pp. 120–128. (In Russia).
7. Tamrazyan A.G., Esayan S.G. Mehanika polzuchesti
betona [Creep Mechanics of concrete]. Moscow: MGSU.
2012. 524 p.
8. Silaenkov E.S. Dolgovechnost’ izdelij iz jacheistyh betonov
[Durability of products from aerated concrete].
Moscow: Stroyizdat. 1986. 176 p.
9. Silenkov E.S., Bataev D.K.-S., Madziev H.N., Gaziev M.A.
Povyshenie dolgovechnosti konstruktsii i izdelii iz melkozernistykh
yacheistykh betonov pri ekspluatatsionnykh
vozdeistviyakh [Increase of durability of building structures
made from fine-grained concrete under operational
impacts]. Grozny. 2015. 355 p.
10. Slavcheva G.S., Chernyshov E.M. Algorithm for designing
the structure of cement foam concrete by the complex
of defined properties. Stroitel’nye Materialy [Construction
Materials]. 2016. No. 9, pp. 58–64. (In Russian).
11. Chernyshov E.M. Slavcheva G.S. Management of operational
deformation and crack resistance of macro-porous
(cellular) concrete, Part 1. The context of the problem
and theory questions. Stroitel’nye Materialy [Construction
Materials]. 2014. No. 1, pp. 105–112. (In Russian).
12. Bataev D.K.-S., Gaziev M.A., Pinsker V.A., Chepurnenko A.S.
The theory of shrinkage stress calculation in aerated concrete
wall panels under carbonizing processes taking into account
creep. Vestnik MGSU. 2016. No. 12, pp. 11–22. (In Russian).
13. Apkarov Sh.I., Bataev D.K.-S., Gaziev M.A., Majiev H.N.
Estimation of crack resistance of aerated concrete products
in humid and carbonizing deformations taking into
account stress relaxation. Vestnik DSTU. 2017. Vol. 44.
No. 2, pp. 151–161. (In Russian).
14. Gaziev M.A., Florova M.R. Karbonizatsiya i polzuchest’
gazozolobetona v panelyakh zhilykh zdanii na srednem Urale /
V kn. Vliyanie klimaticheskikh uslovii i rezhimov nagruzheniya
na deformatsii i prochnost’ konstruktsionnykh betonov i elementov
zhelezobetonnykh konstruktsii [Carbonation and
creep of aerated concrete in panels of residential buildings in
the Middle Urals / In the book. Influence of climatic conditions
and loading regimes on deformation and strength of
structural concretes and elements of reinforced concrete structures].
Tbilisi. 1985, pp. 15–16. (In Russian).
15. Gaziev M.A. Stress Relaxation in autoclaved aerated
concrete taking into account their aging due to carbonation.
Performance of composite building materials under
the impact of various operational factors: Interuniversity
collection. Kazan 1985, pp. 44–46. (In Russian).
16. Batayev D.K.-S., Majiev H.N., Murtazaev S.-A.Yu.,
Gaziev M.A. Relaxation of compressive stresses in finegrained
aerated concrete. Modern building materials,
technologies and structures. Materials of the International
Scientific and Practical Conference, dedicated to the 95th
anniversary of the Grozny State Oil Technical University
named after Academician M.D. Millionshchikov. Grozny.
March 24–26, 2015, pp. 166–171. (In Russian).
17. Fedin A.A. Nauchno- tehnicheskie osnovy proizvodstva i
primenenija silikatnogo jacheistogo betona [Scientific and
technical bases of production and application of silicate aerated
concrete]. Moscow: Publishing GASIS. 2002. 264 p.
S.V. ANISIMOVA1, Candidate of Sciences (Chemistry); Yu.N. SHURYGINA2, Chemist, S.M. PAVLIKOVA2, Chemist; A.E. KORSHUNOV1, Magister (email@example.com)
Polymeric Water Dispersions in Technologies of Dry Building Mixes Application
The joint resultative application of dry building mixes on the basis of mineral binders and polymeric water dispersions of styrene-acrylic copolymers is substantiated. Criteria for the
selection of a type of polymeric products when using them as primers for mineral surfaces, water-repellent impregnators and solvents for dry building mixes of special purposes (waterproofing
coatings and polymer-cement glue compositions) are formulated. Materials recommended for each solved problem differ in the composition of copolymers and have certain
indicators. Available test methods and assessment results of the main operational properties of the coatings and compositions obtained are presented. The use of polymeric water dispersions
confirmed by studies is efficient in technologies of works with dry building mixes meeting the modern construction requirements.
Keywords: dry building mixes, styrene-acrylic dispersions, building primers, polymer-cement glues, elastic waterproofing.
For citation: Anisimova S.V., Shurygina Yu.N., Pavlikova S.M., Korshunova A.E. Polymeric Water dispersions in technologies of dry building mixes application. Stroitel’nye Materialy
[Construction Materials]. 2018. No. 3, pp. 80–84. (In Russian).
1 Nizhny Novgorod State University of Architecture and Civil Engineering (65, Il’inskaya Street, Nizhny Novgorod, 603950, Russian Federation)
2 OOO “Homa Company” (4, Industrial zone, Dzerzhinsk, 606000, Nizhny Novgorod Oblast, Russian Federation)
1. Voitovich V.A. Cement and polyvinyl acetate adhesives
as alternative to dry construction mixes. Klei.
Germetiki. Tekhnologii. 2008. No. 9, pp. 7–10.
2. Patent RF 2159749. Sukhaya stroitel’naya smes’ i sposob
prigotovleniya kleevoi kompozitsii [Dry construction mix
and way of preparation of glue composition]. Titov
Yu.N., Rakhmin V.N., Aleksandrov A.V., Bykova S.T.,
Koptelova E.K., Gontar’ Yu.V. Declared 15.11.1999.
Published 27.11.2000. Bulletin No. 12. (In Russian).
3. Mal’tseva I.V. Dry waterproofing mixes. Inzhenernyi vestnik
Dona: online scientific journal. 2016. No. 4. http://ivdon.
dca958ed0e.pdf (Data of access 13.03.2018).
4. Mal’tseva I.V., Mal’tsev E.V. Effective elastic waterproofing.
Materials of the international scientific and practical
conference “Construction - 2015: modern problems of
construction”. Rostov-na-Donu. 2015, pp. 422–424.
5. Khozin V.G., Abdulkhakova A.A., Starovoitova I.A.,
Zykova E.S. Cement compositions modified with an
aqueous emulsion of an epoxy oligomer. Stroitel’nye
Materialy [Construction Materials]. 2017. No. 5, pp. 73–
77. (In Russian).
6. Nalimova A.V. Influence of complex polymeric additive
on durability and shrinkable deformations of a cement
stone. Inzhenernyi vestnik Dona: online scientific journal.
2012. No. 1. http://ivdon.ru/magazine/archive/
n1y2012/737 (Data of access 13.03.2018). (In Russian).
7. Meshkov P.I., Mokin V.A. Waterproofing mixes.
Stroitel’nye Materialy [Construction Materials]. 2001.
No. 4, pp. 12–13. (In Russian).
8. Anisimova S.V. Modern construction finishing materials
on the basis of polymeric water dispersions. Great rivers’
2010: works XII of the international scientific and industrial
forum “Great rivers’ 2010”. Nizhniy Novgorod:
NNGASU. 2011. Vol. 1, pp. 187–190. (In Russian).
9. Anisimova S.V., Korshunov A.E., Pavlikova S.M., etc.
Use of polymeric water dispersions in priming structures
for the porous mineral bases. Privolzhskii nauchnyi zhurnal.
2015. No. 4, pp. 61–69. (In Russian).
10. Anisimova S.V., Vlasova S.S. The choice of polymeric filming
agents for production of decorative finishing materials.
Great rivers’ 2010: works XII of the international scientific and
industrial forum “Great rivers’ 2012”. Nizhniy Novgorod:
NNGASU. 2013. Vol. 1, pp. 146–149. (In Russian).
11. Tekhnicheskie rekomendatsii na proizvodstvo rabot po
ochistke, antiseptirovaniyu i gidrofobizatsii zdanii i
sooruzhenii [Technical recommendations on works on
cleaning, an antiseptirovaniye and gidrofobization of
buildings and constructions]. Moscow: SAZI. 2011. 32 p.
12. Popov K.N. Polimernye i polimertsementnye betony,
rastvory i mastiki [Polymeric and polimertsementny concrete,
solutions and mastics]. Moscow: Vysshaya shkola.
1987. 72 p.
13. Popova M.N., Musafirova G.Ya., Musafirov E.V.,
Adashkevich A.I. Modification cement knitting polyvinyl
acetate dispersion. Promyshlennoe i grazhdanskoe
stroitel’stvo. 2014. No. 5, pp. 59–61. (In Russian).
14. Musafirova G.Ya., Grushevskaya E.N., Musafirov E.V.
Modification of the cement secondary polyamide knitting
disperse additive. Tekhnika i tekhnologiya silikatov. 2015.
Vol. 2–2. No. 3, pp. 2–5. (In Russian).
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for electrotechnical systems. Elektrotekhnicheskie sistemy
i kompleksy. 2015. No. 1, pp. 25–27. (In Russian).
16. Tkach E.V., Oreshkin D.V., Semenov V.S., Gribova V.S.
Technological aspects of receiving the highly effective
modified concrete of the set properties. Promyshlennoe i
grazhdanskoe stroitel’stvo. 2012. No. 4, pp. 65–67.
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