Experimental Research on foam Concrete with Partial Replacement of Fine Aggregates by Blast Furnace Slag, Fly Ash, and Glass Powder
Keywords:
Foam concrete, Light weight, blast furnace slag, fly ash and glasspowder and compressive strengthAbstract
Although foam concrete was initially intended to be avoid filler and insulating material, interest in its structural qualities has grown again due to its reduced weight, material savings, and potential for extensive use of waste materials like fly ash. This paper's main objective is to review the present state of knowledge on foam concrete, where sand is partially replaced by glass powder, fly ash, and blast furnace slag in various weights and proportions. The review highlights the necessity for creating new pathways by doing in-depth research on materials, mixture design, and methods to maximise the potential of this material for structural applications.
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References
Stella L. Marusin, “Ancient Cement Structures”, Cement International, pp. (56– 58), (1 January 1996).
“Pore cement”, Conference Proceeding, International Scientific & conference, (2005).
Regan PE, Arasteh AR. Lightweight aggregate foamed cement. Struct Eng; 68(9) :( 167– 73), (1990).
McCormick. FC. “Rational proportioning of preformed foam cellular cement”, ACI Material Journal; 64 :( 104–9), (1967).
Herald of BSTU named after V. G. Shukhov – thematicissue“Foam cement”, No.4, (2003).
Byun KJ, Song HW, Park SS., “Development of structural lightweight foamed cement using polymer foam agent”. ICPIC-98; (1998).
ASTM Standard test method for foaming agents for use in producing cellular ent using preformed foam, ASTM C (97- 796). Philadelphia; (1997).
ACI committee 523. “Guide for cellular cements above 50 pcf, and for aggregate cements above 50 pcf with compressive strengths less than 2500 psi”. ACI J; 72 :( 50– 66), (1975).
Kearsley EP. Just foamed cement – an overview. In: Dhir RK, Handerson NA, editors. “Specialist techniques and materials for construction”, London: Thomas Telford; (37– 227),( 1999).
Koudriashoff IT, “Manufacture of reinforced foam cement roof slabs”; 21(1): (37– 48), (1949).
Madjoudj M, Quenendec M, Dheilly RM. “Water capillary absorption of cellular clayed concrete obtained by proteinic foaming”. In: Dhir RK, Hewelett PC, Csetenyi LJ, editors. Innovations and development in concrete materials and construction. UK: Thomas Telford; (21–513), (2002).
Valore RC. “Cellular cement part 2 physical properties’’. ACI J; 50 :( 36–817), (1954).
Nehdi M, Djebbar Y, Khan A., “Neural network sample for preformed foam cellular cement”. ACI Mater; 98 :( 9– 402), (2001).
Kearsley EP., “The use of foamed cement for affordable development in third world countries”. In: Dhir RK, McCarthy MJ, editors. Appropriate cement technology. London: E&FN Spon; (43–233), (1996).
Visagie M, Kearsely EP., “Properties of foamed cement as influenced by air void parameters”. Cement/ Beton; 101 :( 8–14), (2002).
Nambiar EKK, Ramamurthy K., “Air-void characterization of foam cement”. CemConcr Res; 37 :( 30–221), (2007). [17] Durack JM, Weiqing, L., “The properties of foamed air
cured fly ash based cement for masonry production”, In: Page A, Dhanasekar M, Lawrence S, editors. In: Proceedings of 5th Australian masonry conference. Australia: Gladstone, Queensland ;( 38–129), (1998).
Tada S, Nakano S., “Micro structural approach to properties of mist cellular cement”, In: Wittmann FH, editor. Autoclaved aerated cement, moisture and properties. Amsterdam: Elsevier; (71–88), (1983).