Influence of Synthetic Fibers Dispersed Reinforced Concrete

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Nowadays, construction often is used a composite material. Including fibro concrete of reinforcing synthetic fibers. In this title was survey the effect of fiber reinforcement. PAN and HC on the properties of concrete in depend of length fibers, its design, types dressing, composition of concrete, aggregate fineness and etc. As a result of influence was revealed that is not depend of length fibers in the same mobility of concrete mix and differente flow consumption of cement concrete strength in compressive decreases and increases a concrete of fiber. The same conditions strength concrete in flexural with increases content fibro rising. In attendance fibro model is deformation decreases but maximum permission increase.

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543-558

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January 2015

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© 2015 Trans Tech Publications Ltd. All Rights Reserved

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[1] Rabinovich, F.N. Dispersnoarmirovanniye betony [Dispersion reinforced concrete] (1989) Stroyizdat, 177 p. (rus).

Google Scholar

[2] Portnoy, K.I. Voloknistiye kompozitsionniye materialy. V kn.: Voloknistyye i dispersnouprochnenniye kompozitsionniye materialy [The fibrous composite materials. Proc .: Fibrous and dispersion hardening composite materials] (1976).

Google Scholar

[3] Krylova, B.A. Fibrobeton i yego primeneniye v stroitelstve [Fiber concrete and its application in construction] (1979) Stroyizdat, 173 p. (rus).

Google Scholar

[4] Vatin, N.I., Voylokov, I.A. Promyshlenniye poly so sloyem iznosa izfibrobetona [Industrial floors with a layer of fiber-reinforced concrete wear] (2006) Stroyprofil, p.15. (rus).

Google Scholar

[5] Lesovik, R.V., Klyuyev, S.V. Fibrobeton na kompozitsionnykh vyazhushchikh i tekhnogennykh peskakh Kurskoy magnitnoy anomaliy dlya izgibayemykh konstruktsiy [Fiber concrete on composite binders and industrial sands Kursk magnetic anomaly for bent designs] (2012).

DOI: 10.5862/mce.29.5

Google Scholar

[6] Swamy, R.N., Mangat, P.S., Rao, С.V.S.K. The Mechanics of Fibre Reinforcement of Cement Matrices (1974) American Concrete Institute, pp.1-28.

Google Scholar

[7] Romualdi, J.P., Mandel, J.A., Am, J. Concr. Inst. (1964), 61(6), p.657.

Google Scholar

[8] Rabinovich F.N. Ob urovnyakh dispersnosti armirovaniya betonov [On the levels of dispersion of the reinforcement of concrete] (1981) Stroitelstvo i arkhitektura: Izvestya vuzov, pp.30-36. (rus).

Google Scholar

[9] Rilem, S. Fibre reinforced cement and concrete (1975), p.450.

Google Scholar

[10] Krylov, B. A. Fibrobeton i yego svoystva [Fiber concrete and its properties] (1979) Obzor TsINIS, pp.5-53. (rus).

Google Scholar

[11] Krylov, B.A., Trambovetsky V.P., Investigation of Fibre-Reinforced Materials in the USSR (1975), pp.419-424.

Google Scholar

[12] Rabinovich, F.N. Kompozity na osnove dispersno-armirovannykh betonov [Composites based on fiber concrete] (2004) Voprosy teorii I proyektirovaniya, tekhnologiya, konstruktsii: monogrIzd-vo ASV, 560 p. (rus).

Google Scholar

[13] Bazhenov, Yu.M. Tekhnologiya betona [Concrete Technology] (2002) Uchebnik, Izd-vo ASV, 500 p. (rus).

Google Scholar

[14] Varshavskiy, V. Ya. Uglerodnyye volokna [carbon fiber] (2005) Nauka, 500 p. (rus).

Google Scholar

[15] Haneda, I., Sakurai, T., Yanagisawa, M., Okuyama, K., Niwa, K. Pitch-reinforced carbon fiber brake disc and pyrolytic carbon resin-reinforced carbon fiber friction pads (1996) Composites Part A: Applied Science and Manufacturing, p.87.

DOI: 10.1016/1359-835x(95)98834-x

Google Scholar

[16] Rozental, N.K., Chekhniy, G.V., Belnik, A.R. Korrozionnaya stoykost polimernykh kompozitov v shchelochnoy srede betona [Corrosion resistance of the polymer composites in the alkaline medium of the concrete] (2002).

Google Scholar

[17] Solovyeva, T.A., Pushkarskaya, O. Yu., Akchurin, T.K. Stroitelnyye kompozitsi i novogo pokoleniya, modifitsirovanniye uglerodnymi voloknami [Building of new generation of the composition, the modified carbon fibers] (2012).

Google Scholar

[18] Kobets, L.P., Deev, I.S. Composites Seience and Technology(1997), pp.1571-1580.

Google Scholar

[19] Gabidullin, M.G., Bagmanov, R.T., Shankarayev, A. Ya. Issledovaniyevliyaniya kharakteristik steklofibryna fiziko-mekhanicheskiye svoystva steklofibrobetona [Investigation of the influence of characteristics glassfibre on physical and mechanical properties of GRC] (2010).

Google Scholar

[20] Kobets, L.P., Deyev, I.S., Zhukova Z.N., Materialovedeniye [Materials Science](2006), pp.24-36. (rus).

Google Scholar

[21] Litvinov, V.B., Kobets, L.P., Toksanbayev, M.S., Deyev, I.S., Buchnev, L.M. Strukturno-mekhanicheskiye svoystva vysokoprochnykh uglerodnykh volokon [Structural and mechanical properties of high carbon fibers] (2011).

Google Scholar

[22] Litvinov, V.B., Toksanbayev, M.S., Artemyev, A.V., Borodulin, A.S., Chudnov, I.V., Trofimova, M.V. Sposob i osnastka dlya izgotovleniya osesimmetrichnykh pustotelykh obolochek(obolochek vrashcheniya) izpolimernykh kompozitsionnykh materialov [Process and accessories for the manufacture of axisymmetric hollow shells (shells of revolution) of polymer composites] (2010).

Google Scholar

[23] Gerber, D.V. Issledovaniye vliyaniya nanomodifitsirovannykh volokon na svoystva kompozitsionnykh materialov s tsementnoy matritsey [Investigation of the effect on the properties of nano-modified fiber composite materials with cement matrix] (2011).

Google Scholar

[24] Gerber, D.V., Krivoborodov, Yu.R. Vliyaniye modifitsiruyushchikh dobavok na svoystva samouplotnyayushchegosya betona [Influence of modifying additives on the properties of self-compacting concrete] (2010).

Google Scholar