journal article·2003-02

Effect of silica sol of different routes on the properties of low cement castables

D. Daspoddar, Swapan Kr Das, P. K. Daspoddar

Bulletin of Materials Science· Volume 26· Issue 2
Publisher page

Abstract

Silica sols synthesized through different routes viz. inorganic, organic and ion-exchange routes, have been incorporated in the low cement alumina castable composition in various proportions and cast samples in the form of 2 inch cube briquettes were prepared. The cast briquettes after curing were subjected to heat treatment at various temperatures. The effect of different sources of such sols on the important physico-mechanical properties of the castables such as bulk density, apparent porosity, compressive strength, volume shrinkage and residual strength after spalling have been studied. Some of the selected samples were also subjected to microstructural evaluation. It is observed that silica sol synthesized through cation exchange routes has significant beneficial role on the properties of castable with 3% addition.
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Research context

OpenAlex topics: Advanced ceramic materials synthesis · Concrete and Cement Materials Research · Recycling and utilization of industrial and municipal waste in materials production

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References (22)

Show source-provided references
1. Alier R K 1959Colloid chemistry of silica and silicates (Moscow, Russia: Izd-vo Lit-ry po str-vu)
2. Banerjee S 1998A comprehensive hand book on monolithic refractories (Westerville O H: Am. Ceram Soc. Publication)10.1142/3461 ↗
3. Clavaud B, Kiehl J P and Schmidt-Whitley R D 1983Proceedings int. conference on refractories (Tokyo, Japan: Technical Association of Refractories)
4. Clavaud B, Kiehl J P and Radal J P 1984Proceedings of the annual session of Am. Ceram. Soc. (Pittsburgh, USA: American Ceramic Society)
5. Clavaud B, Kiehl J P and Radal J P 1985Proceedings of the annual session of Am. Ceram. Soc. (Columbus, USA: American Ceramic Society)
6. Das S K, Kumar S and Daspoddar P K 1997Ind. Ceram. 17 17
7. Das S K, Mondal P K and Mukherjee S N 2002 Indian Patent CSIR file No. NF-9
8. Eguchi T, Takita I, Yoshitomi J, Kiritani S and Sato M 1989Taikabutsu Overseas 9 10
9. Freidenberg A S and Khvorov N V 1989Refractories 30 61410.1007/BF01280761 ↗
10. Gauckler L J, Graule T J and Baader F A 1999Mater. Chem. Phys. 61 7810.1016/S0254-0584(99)00117-0 ↗
11. Hillebrand W F and Lundell G E F 1953Applied inorganic analysis (New York: John Wiley & Sons) 2nd ed.
12. Jones V 1998Ceramic Ind. 4910.1353/aph.1999.0104 ↗
13. Kang K H, Cha C H and Yong S Y 1995Proceedings of UNITECR’95 (Kyoto, Japan: Technical Association of Refractories publication)
14. Kendall T 1995Ind. Mineral 33
15. Li Z and Ye G 1992Interceram 41 169
16. Masanyk J S, Steinke R A and Videtto R B 1993Proceedings of UNITECR’93 (Sao Paulo, Brazil: Brazil Ceramic Soc. Publication)
17. Midgley H G 1980Proceedings of 7th Congress Chem Cement (Paris: Akademia Books International) p. 68
18. Myhre B 1994Proceedings of Am. ceram. soc. annual refractory symposium (St Louis, Missouri, USA: Am. Ceram. Soc. Publication)
19. Pivinskii I Y E 1995Refractories 36 310.1007/BF02226978 ↗
20. Roy A K and Banerjee G 1997 Indian Patent file No. 909/DEL
21. Studart A R, Zhong W and Pandolifelli V C 1999Am. Ceram. Soc. Bull. 65
22. Studart A R, Valenzuela F A O, Pandolfelli V C, Tervoort E and Gauckler L J 2002Am. Ceram. Soc. Bull. 81 26