CONCERNING THE RATIO BETWEEN THE ADHESIVE AND MECHANICAL STRENGTH OF BUILDING STRUCTURES – 3D PRINTING PRODUCTS OBTAINED BY FUSED DEPOSITION MODELING OF THERMOPLASTIC MATERIALS

Vladimir Glukhikh, Polina Kovalyova

Abstract


Introduction: 3D printing represents a very promising area in the construction industry. However, the lack of a theoretical framework, which makes it impossible to control the quality of structures obtained, prevents it from being used in mass production. Methods: Adhesion properties largely depending on the cross-section area are one of the most important elements of the technology, which in some cases limit the strength characteristics of a resulting structure. Therefore, it is necessary to know adhesive strength characteristics (besides mechanical ones) of items manufactured using this technology. The paper addresses strength characteristics of a joint between the layers of the extruded material when a structure is manufactured by 3D printing. The authors experimentally determine a dependency of the ratio between the adhesive and mechanical strength on the layer printing time. Results: The practical result of the study is in the revealing of a general relationship in 3D printing both in the area under consideration and in the construction field, and the improvement of the theoretical framework for further development of the technology in the construction industry.

Keywords


Polymer materials, additive manufacturing, fused deposition modeling, mechanical strength, adhesive strength, construction 3D printing.

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References


Arutyunyan, N.Kh. (1952). Some problems of the creep theory. Moscow/Leningrad: Gostekhteorizdat, 324 p.

Demidenko, A.K., Kulibaba, A.V., Ivanov, M.F. (2017). Prospects of 3D-printing in the building complex of the Russian Federation. Construction of Unique Buildings and Structures, 12, pp. 71–96.

Gosstroy of Russia (2012). Set of Rules SP 70.13330.2012. Load-bearing and separating constructions. Moscow: Gosstroy, Federal Center for Regulation, Standardization and Technical Conformity Assessment in Construction.

Gutman, S.G. (1960). Residual stresses induced from accretion under loading. Proceedings of the Conference on Photoelasticity. Leningrad: Leningrad State University.

Kharlab, V.D. (1960). Linear creep theory regarding accreted solids. In: Studies in rod system and continuum mechanics. Proceedings of the Leningrad Institute of Engineering and Construction. Leningrad: s. n.

Kharlab, V.D. (1966). Problem of the stress-strain state of an elastic-creep hardening system with an increasing number of bonds. In: Studies in structural mechanics. Collected works, 249, pp. 121–146.

Kharlab, V.D. (1980). Some general solutions in the linear creep theory regarding accreted solids. In: Analytical and numerical solutions of applied problems in mathematical physics. Inter-university collected works. Leningrad: s. n., pp. 18–26.

Kharlab, V.D. (1980). Towards the linear creep theory regarding accreted solids. In: Rod system and continuum mechanics. Interuniversity collected works, 13. Leningrad: s. n., pp. 149–157.

Kharlab, V.D. (2014). Fundamental issues of the linear creep theory (regarding concrete): monograph. Saint Petersburg: Saint Petersburg State University of Architecture and Civil Engineering, 207 p.

Petrov, V., Bezpal’chuk, S., Yakovlev, S. (2017). 3D-printing from plastics: inner structure influence on the strength. Vestnik Gosudarstvennogo Universiteta Morskogo i Rechnogo Flota Imeni Admirala S. O. Makarova, 9 (4), pp. 765–776. DOI: 10.21821/2309-5180-2017-9-4-765-776.

Rabotnov, Yu.N. (1977). Elements of hereditary solid mechanics. Moscow: Nauka, 384 p.

Rashba, E.I. (1953). Calculation of stresses in bodies under gravity with account for their erection procedure. Collected works of the Institute of Structural Mechanics of the UkrSSR Academy of Sciences, 18, pp. 23–26.

Rzhanitsyn, A.R. (1955). Laying the fundamentals of the general linear creep theory. In: Gvozdyov, A. A. (ed.) Analysis of strength, plasticity and creep of building materials. Moscow: Gosstroyizdat, pp. 33–44.

State Committee of the USSR for Standards (1979). State Standard GOST 14359-69. Plastics. General requirements of the methods of mechanical testing (as amended on 10.04.2018). Moscow: Publishing House of Standards.

State Duma of the Russian Federation (2004). Urban Development Code of the Russian Federation, Federal Law No. 190-FZ dd. 29.12.2004 (as of 03.08.2018).




DOI: https://doi.org/10.23968/2500-0055-2019-4-4-30-37

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ISSN: 2500-0055