Resource-Saving Technologies in the Thermal Insulation-Structural Foam Glass Production

Abstract:

The modern building materials market places high demands on heat-insulating and heat-insulating structural materials. In this connection, the issues of developing high-quality building materials obtained on the resource-saving technologies basis allowing to solve two interrelated problems are topical. The first problem is the industrial waste generated and existing stocks disposal. The second is associated with a decrease in the traditional raw materials deficit [1]. These problems solution, combining rational technological solutions, is based on the scientific research achievements in this area, in particular in the foam glass production. The priority scientific research areas in the foam glass materials production are the developments related to the study, the new raw materials use and the production of foam glass mixture compositions on their basis, which provide, along with the necessary performance properties, high environmental safety requirements [2, 3].

• Periodical: Materials Science Forum (Volume 974)
• Pages: 356-361
• DOI: https://doi.org/10.4028/www.scientific.net/MSF.974.356
• Online since: December 2019
• Authors: O.V. Kuznetsova*, Natalia Yatsenko, A.I. Subbotin, M.Yu. Klimenko
• Keywords: Building Thermal Insulation, Foam Glass, High-Calcium Waste, Lithium-Containing Inorganic Compounds, Resource Saving, Structural Materials, Technogenic Waste

References

[1] V.K. Demidovich, Penosteklo, Science and Technology,, Minsk, (1975).

[2] L.I. Dvorkin, O.L. Dvorkin, Construction materials from waste industry, Phoenix, Rostov-on/D? (2007).

[3] O.V. Kazmina, V.I. Vereshchagin, A.N. Abiyaka, Foamglass-crystalline materials based on natural and man-made materials, Publishing House of Tomsk Polytechnic University, Tomsk, (2014).

[4] N.I. Minko, O.V. Puchka, M.N. Stepanova, S.S. Weisser, Thermal insulation glass materials, Foam glass: 2nd ed. Belgorod: BSTU named dafter V. G. Shukhov, (2016).

[5] N.I. Minko, O.V. Puchka, E.I. Evtushenko, V.M. Nartsev, S.V. Sergeev, Foam glass is a modern efficient inorganic heat-insulating material, Basic Research. 6-4 (2013) 849-854.

[6] E.V. Veselovskaya, A.G. Shishlo, Experience of using promising water treatment technologies in domestic thermal power plants, Bulletin of the Universities of the Northern Caucausus Region Tech. science. 2 (2016) 62 - 66.

[7] G.I. Ovcharenko, D.I. Gilmiyarov, Strength and phase composition of autoclaved material: an approximation, Magazine of Civil Engineering. 83(7)2018 63–72.

[8] M.A. Frolova, A.S. Tutyigin, A.M. Aizenshtadt, V.S. Lesovik et al, Assessment criterion of surface energy properties, Nanosystems: Physics, chemistry, mathematics. 2 (4) (2011) 120–125. (In Russian).

[9] V.S. Lesovik, N.I. Alfimova, A.V. Savin, A.V. Ginzburg, N.N. Shapovalov, Assessment of passivating properties of composite binder relative to reinforcing steel. World Applied Sciences Journal. 24 (12) (2013) 1691–1695.

[10] N.I. Alfimova, M.S. Sheychenko, S.V. Karatsupa, E.A. Yakovlev, A.S. Kolomatskiy, N.N. Shapovalov, Features of application of high-mg technogenic raw materials as a component of composite binders. Advances in Environmental Biology. 8 (13) (2014) 134–138.

[11] O.V. Kovalchenko, N.I. Alfimova, On the use of volcanic products in building materials science,Bulletin of BSTU named after V.G. Shukhov,6 (2017)24–28.(In Russian).

[12] N.I. Alfimova, N.N. Shapovalov, E.E. Shadsky, T.G. Yurakova, Improving the efficiency of using the products of volcanic activity , Bulletin of BSTU named after V.G. Shukhov. 5 (2015) 11–15.(In Russian).

[13] N.I. Alfimova, I.U. Vishnevskaya, P.V. Trunov, Influence of raw materials of volcanic origin and modes of hardening on the activity of composite binders, Bulletin of BSTU named after V.G. Shukhov. 1 (2011) 52–55. (In Russian).

[14] N.I. Alfimova, Improving the effectiveness of wall stones through the use of man-made materials, Bulletin of BSTU named after V.G. Shukhov.2(2011)56-59. (In Russian).

[15] X.Y. Cong, S. Lu, Y.Yao, Z. Wang, Fabrication and characterization of self-ignition coal gangue autoclaved aerated concrete, Materials and Design. 97 (2016) 155–162.

DOI: 10.1016/j.matdes.2016.02.068

[16] Ying-Liang ChenMing-Sheng KoJuu-En ChangChun-Ta Lin, Recycling of desulfurization slag for the production of autoclaved aerated concrete Article Jan, Construction and Building Materials.158 (2018) 132–140.

DOI: 10.1016/j.conbuildmat.2017.09.195

[17] Tingting Zhang, Yunliang Zhaо, Wei Wang, Shaoxian Song, A Novel Model of Aggregate Gradation for Autoclaved Bricks from Tailings, Minerals. 7(7) (2017) 112.

DOI: 10.3390/min7070112

[18] M.S. Ageeva, N.I. Alfimovа, Effective composite binders based on technogenic raw materials. Monograph. Saarbrucken. (2015) 84.

[19] R.V. Lesovik, N. Ryapukhin, M.S. Ageeva, Fine-grained concrete on industrial sands for bridge structures. Monograph. Saarbrucken. (2016) 168.

[20] T.V. Anikanova, A.S. Pogoromsky, The use of semi-aquatic calcium sulfate to intensify the processes of hardening of structural heat-insulating foamed concrete. Construction Materials and Products. 1(3) (2018) 25–32. (In Russian).

DOI: 10.34031/2618-7183-2018-1-3-25-32

[21] M.S. Ageeva, G.A. Lesovik, S.M. Shapovalov, O.N. Mikhailova et al., The effect of grinding time on the properties of a composite binder, Bulletin of BSTU named after V.G. Shukhov. 4 (2015) 28-32.

[22] Alexander Fomin, P. Khavanov, M.I. Kozhukhova, Autoclave Composites Containing Ferriferous Industrial By-Products, Materials Science Forum. 945 (2019) 1030-1035.

DOI: 10.4028/www.scientific.net/msf.945.1030

[23] E.V. Fomina, N.I. Kozhukhova, S.V. Sverguzova, A.E. Fomin, Application of mathematical model methods for optimization tasks in construction materials technology, Journal of Physics: Conference Series, 1015 (5) ( 2018) 052015,17DUMMY.

DOI: 10.1088/1742-6596/1015/5/052015

[24] N.I. Alfimova, S.Yu. Pirieva, D.V. Gudov, I.M. Shurakov, Е.Е. KorbutOptimization of receptural-technological parameters of manufacture of cellular concrete mixture, Construction Materials and Products, 1 (2) (2018) 30–36. (In Russian).

DOI: 10.34031/2618-7183-2018-1-2-30-36

[25] A.N. Sapelin, M.Yu. Elistratkin Light concrete new generation, Bulletin of BSTU named after V.G. Shukhov,2014. No. 4. P. 79-83. (In Russian).

[26] V.S. Lesovik, Improving the efficiency of production of building materials, taking into account the genesis of rocks. Moscow: Publishing Association of Construction Universities. (2006) 526. (In Russian).

[27] A.I. Bedov, V.V. Babkov, A.I. Gabitov, D.V. Kuznetsov et al., Possibilities of ensuring the operational reliability of the exterior walls of buildings based on autoclaved aerated concrete blocks, Vestnik MGSU. 1 and 2 (2011) 259-262. (In Russian).

[28] Yu.М. Boott and V.V. Timashev. Tutorial on chemical technology of binding materials Moscow: Vischa shkola. (1973) 504. (In Russian).

[29] V.V. Nelyubova, D.A. Chareev, V.V. Strokova et al., Laboratory autoclave for hydrothermal synthesis of building materials. Construction Materials. 3 (2012) 18–19. (In Russian).

[30] V.V. Babkov, A.I. Gabitov, N.S. Samofeev, Physico-chemical processes occurring in the structure of silicate brick in the cycle of operation of the exterior walls of buildings, Bashkir Chemical Journal. 18(2) (2011) 180-184. (In Russian).

[31] V.V. Vlasov, L.G. Barsukova, G.G. Krivneva, E.V. Bautina, Structural changes of cellular silicate concrete in walling after prolonged use, Building materials. 1 (2008) 18-19. (In Russian).