Destruction of reinforced concrete structures of sewage systems

Authors

DOI:

https://doi.org/10.32347/tit.2023.61.0101

Keywords:

plane, strain, impact, composite material, armed material, reinforced material, elastic-plastic, deformation

Abstract

Composites materials are artificially created materials that consist of two or more components that differ in composition and are separated by a pronounced boundary. The development of modern composite materials is associated with the discovery of high-strength whiskers, with the study and use of aluminides and high-strength alloys. At present, various composite materials have been developed and used: fibrous; reinforced with whiskers and continuous crystals and fibres of refractory compounds and elements; dispersion-hardened materials; layered materials; alloys with directional crystallization of eutectic structures; alloys with intermetallic hardening. There are many technologies for producing composites: imbibition of reinforcing fibres with matrix (base) material; cold pressing of components followed by sintering; sediment of the matrix by plasma spraying on the hardener, followed by compression; batch diffusion welding of multilayer tapes of components; joint rolling of reinforcing elements with a matrix, and etc. The use of composites makes it possible to reduce the weight of aircraft, cars, ships, increase the efficiency of engines, and create new constructions with high performance and reliability. The development of composites with high impact resistance is an important direction in the industry. The strength characteristics of a layered composite material are decisive under shear loads, loading of the composite in directions other than the orientation of the layers, and cyclic loading. In this paper, we study the non-stationary interaction of an absolutely rigid body on a two-layer reinforced composite material. The action of the striker is replaced by a non-stationary vertical even distributed load, which changes according to a linear function, in the area of initial contact, which is assumed to be unchanged over time.

In contrast to the previous articles (Parts I and II), in this papers there is an investigation of the strain-stress state, the fields of the Odquist parameter and normal stresses depending on the material of the first (upper) layer.

References

Makarenko, V. D., Belyaev, V. A., Prokhorov, N. N., Shatilo, S. P., Galichenko, N. E., Chernov, V. Y., &Mukhin, M. Y. (2001). Ef-fect of modifying microadditions on the corro-sion resistance of welded joints in oil and gas pipelines. Welding International, 15(9), 723-728.

Makarenko, V. D., Belyaev, V. A., Protasov, V. N., Shatilo, S. P., &Gumerskii, K. H. (2000). Mathematical model of the mechanism of resistance of welded joints in oil and gas pipelines to static hydrogen fatigue. Welding International, 14(4), 324-326.

Berdnyk O Yu, Lastivka O V, Maystrenko A A, Amelina N O. Processes of structure formation and neoformation of basalt fiber in an alkaline environment. IOP Conf. Series: Materi-als Science and Engineering. Innovative Tech-nology in Architecture and Design (ITAD 020), Vol. 907, 012036. https://iopscience.iop.org/article/10.1088/1757-899X/907/1/012036/pdf.

Gots V. I., Lastivka O. V., Berdnyk O. Yu., Tomin O. O., Shilyuk P. S. Corrosion re-sistance of polyester powder coatings using fill-ers of various chemical nature. Key Engineering Materials, Vol.864, 115-121. https://doi.org/10.4028/ www.scitific.net/KEM.864.115.

Kuznetsova E. L., Tarlakovsky D. V., Fe-dotenkov G. J., Medvedsky A. L. (2013). Influence of nonstationary distributed load on the surface of the elastic layer. Works MAI, 71, 1-21. (in Russian).

Bogdanov V. R. (2018). Impact a circular cyl-inder with a flat on an elastic layer. Transfer of Innovative Technologies, Vol.1(2), 68-74, DOI: 10.31493/tit1812.0302.

Bogdanov V. R. (2022). Problem of plane strain state of two-layer body in dynamic elastic-plastic formulation. Part I. Underwater Technologies, Kyiv, 2022, No.12, 3-14. DOI: 10.32347/uwt.2022.12.1101.

Bogdanov V. R. (2022). Problem of plane strain state of two-layer body in dynamic elastic-plastic formulation. Part II. Underwater Technologies, Kyiv, 2022, No.12, 15-23. DOI: 10.32347/uwt.2022.12.1102.

Kachanov L. M. (1969). Fundamentals of the theory of plasticity. Nauka, Moscow, 420 (in Russian).

Collection: Theory of plasticity IL. (1948). Moscow, 460.

Kruglitsky N. N., Boiko G. P. (1981). Phisico-Chemical Mechanics of cementpolymer compositions, Naukoba dumka, Kyiv.

Von Schulz H. W. (1975). Kunststoff und Beton. Kunstobbe, N47, 604.

Tsapko Yu., Zavialov D., Bondarenko O., Marchenco N., Mazurchuk S., Horbachova O. (2019). Determination of thermal and physi-cal characteristics of dead pine wood ther-malinsulation products, Eastern-European Jour-nal of Enterprise Technologies, 4/10 (100), 37-43. DOI:10.15587/1729-4061.2019.175346.

Savchuk Y., Plugin A., Lyuty V., Pluhin O., Borziak O. (2018). Study of influence of the alkaline component on the physico-mechanical properties of the low clinker and clinkerless wa-terproof compositions. MATEC Web of Confer-ences 230, 03018. doi: 10.1051/matecconf/201823003018

Glukhovsky V. D. etc. (1979). Alkali-activated and alkaline-alkaline-earth hydraulic binders and concretes. Vysha shkola, Kyiv.

Glukhovsky V. D. etc. (1981). Alkaline activated concretes on fine aggregates. Vyshcha shkola, Kyiv.

Runova R. F., Nosovskyi Yu. L., Dvorkin L. Y., Dvorkin О. L. (2012). Binders. Textbook, Osnova, Kyiv.

Chistyakov V. V., Grankovskii I. G., Gots V. I. (1986). Journal of appli ed chemistry. 59, 3 542–546.

Ye H., Radlińska A. (2017). Effect of Alkalis on Cementitious Materials: Understanding the Relationship between Composition, Structure, and Volume Change Mechanism. Journal of Advanced Concrete Technology, 15(4), 165–177. doi: 10.3151/jact.15.165.

Rebinder P. А., Segalova Ye. Ye., Amelina Ya. А. (1976). Phisical-chemical foundations of binders hydration hardening. Paper presented at the VI international congress on cement chemis-try, Book 1, Vol.2, 58–64.

Downloads

Published

2023-12-31

How to Cite

Gots, V., Makarenko, V., & Berdnyk, O. (2023). Destruction of reinforced concrete structures of sewage systems. Transfer of Innovative Technologies, 6(1), 3–10. https://doi.org/10.32347/tit.2023.61.0101

Issue

Section

Construction, Architecture