[1]
I.G. Dovzhenko, Efficiency of use of steel-smelting slags in coarse-grained masses for production of ceramic brick. Basic researches, 4 (2011) 78-82.
Google Scholar
[2]
E.I. Yevtushenko, A.S. Ivanov, Development of composition of masses for ceramic brick with use of metallurgical slags. Basic researches, 11 (2008) 84-85.
Google Scholar
[3]
M.I. Barmin, M.I. Golubev, A.N. Grebenkin, V.P. Kartavykh, V.V. Melnikov, Cellolignin as the burning component by production of ceramic brick. Stroyprofil, 4 (66) (2008) 54-56.
Google Scholar
[4]
V.A. Kulikov, V.K. Semenychev, V.Z. Abdrakhimov, I.V. Kovkov, Sharing of metallurgical slags and cinder-slag material for production of ceramic materials. Bashkir chemical magazine. 2(17) (2010) 173-175.
Google Scholar
[5]
GOST 530-2012, Brick and stone ceramic. General specifications, (2012).
Google Scholar
[6]
N.S. Lupandina, Zh.A. Sapronova, Sewage purification from heavy metals by production wastes of bioses, Monograph, Belgorod, (2012).
Google Scholar
[7]
I. Ya. Guzman, The chemical technology of ceramics, Study guide for higher educational institutions, LLC RIF «Building materials», Moscow, (2003).
Google Scholar
[8]
GN 2. 1. 5. 689-98 Threshold Limit Values (TLV) of chemicals in water of water objects of economic and cultural community water use, Russian Ministry of Health, Moscow, (1998).
Google Scholar
[9]
L.I. Mirkin, X-ray polycrystal structure analysis. Reference book, Fizmatlit, Moscow, (1961).
Google Scholar
[10]
S.S. Gorelik, Yu.А. Skakov, L.N. Rastorguev, X-ray and electro-optical analysis, MISIS, Moscow, (2000).
Google Scholar
[11]
Yu.М. Butt, V.V. Timashev, Practical course of binding materials chemical technology, Study guide for chemical and engineering specialities in higher educational institutions, Vysshaya shkola, Moscow, (1973).
Google Scholar
[12]
T.A. Vasilenko, Use of Electric Steel Melting Slag in Production of Expanded Clay Gravel, Materials Science Forum, (2016) 345-351.
DOI: 10.4028/www.scientific.net/msf.870.345
Google Scholar
[13]
А.М. Salakhov, R.А. Salakhova, Ceramics: raw material research, structure, properties, Study guide, Kazan, (2013).
Google Scholar
[14]
P.P. Budnikov, D.N. Poluboyarinov, The chemical technology of ceramics and refractory materials, Stroyizd, Moscow, (1972).
Google Scholar
[15]
А.А. Krupa, V.S. Gorodov, The chemical technology of ceramic materials, (1990).
Google Scholar
[16]
N. Yu. Kiryushina, N.S. Lupandina, Pore-forming additives for ceramic gravel production made of technogenic material, Materials Science Forum, (2016) 196-201.
DOI: 10.4028/www.scientific.net/msf.870.196
Google Scholar
[17]
H.E. Fadaly, Chemical and microbiological Analyses of certain water sources and industrial wastewater samples in Egypt, Pakistan Journal of biological Sciences, 3(5) (2001) 777-781.
DOI: 10.3923/pjbs.2000.777.781
Google Scholar
[18]
W.A. Halim, D. Weichgrebe, K.H. Rosenwinkel, J. Verink, Sustanable sewage treatment and re-use in developing countries 12-th international conference, (2008) 1397-1409.
Google Scholar
[19]
V.V. Kroz, О.V. Kulikovskaya, N.I. Belomerya, Obtaining heat-insulating materials from technogenic products, Materials of the 5th International Research and Practice Conference and Exhibition «Environmental problems of industrial megalopolises», Donetsk, (2008).
Google Scholar
[20]
S.P. Onatsky, Claydite production, Stroyizdat, Moscow, (1987).
Google Scholar
[21]
N. Yu. Kiryushina, S.V. Sverguzova, Purification of electroplating industry wastewater from Fe2+, Fe3+, Zn2+ ions with electric-furnace steelmaking slag, Belgorod, (2013).
Google Scholar
[22]
О.F. Filenko, I.V. Mikheeva, Basics of aquatic toxicology, Kolos, Moscow, (2007).
Google Scholar
[23]
S.V. Sverguzova, Z.A. Sverguzova, G.I. Tarasova, Effective sewage treatment as a factor of ecological safety, Journal of safety of human activities, 8 (2010) 36-38.
Google Scholar