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Critical experimental work on effect of ceramic tile waste in concrete as a substitute to aggregates

Suchithra Shanmughan|Santhosh Kumaar Kaliyannan|Sowmiya Marasamy|Pavithran Thiyagarajan
청정에너지연구소 (Clean-Energy Research Institute)|2023.02|Journal of Ceramic Processing Research|제24권 제1호|pp. 111-119|DOI 10.36410/jcpr.2023.24.1.111

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참고문헌

키워드

Mechanical propertiesMaterial propertiesCoarse aggregateCeramic tile wasteFresh concrete properties
주제분류재료공학

초록

The use of waste materials such as ceramics as a building material alternative is gaining popularity these days. While someother ceramic product wastes, like sanitary wares and electrical insulators, have received substantial research, ceramic walland floor tile wastes have received less attention. As a consequence, the focus of the research is on the mechanicalcharacterisation of aggregate concrete made from waste ceramic wall and floor tiles. Ceramic wastes were collected frombuilding and demolition sites and reduced to required size using a quarry metal hammer. According to industry standards,ceramic tiles were sieved into fine and coarse particles. Slump test was order to evaluate the fresh concrete workability. Theimpact of ceramic tile waste on the mechanical and micro level characteristics in concrete is the focus of this study. Concreteutilising ceramic waste as a substitute for cement and aggregate was found to have better mechanical properties. It wasdiscovered that the usage of ceramic waste in the building industry not only lowers the construction materials cost, but alsoaids in the attainment of sustainability.

Abstract

The use of waste materials such as ceramics as a building material alternative is gaining popularity these days. While someother ceramic product wastes, like sanitary wares and electrical insulators, have received substantial research, ceramic walland floor tile wastes have received less attention. As a consequence, the focus of the research is on the mechanicalcharacterisation of aggregate concrete made from waste ceramic wall and floor tiles. Ceramic wastes were collected frombuilding and demolition sites and reduced to required size using a quarry metal hammer. According to industry standards,ceramic tiles were sieved into fine and coarse particles. Slump test was order to evaluate the fresh concrete workability. Theimpact of ceramic tile waste on the mechanical and micro level characteristics in concrete is the focus of this study. Concreteutilising ceramic waste as a substitute for cement and aggregate was found to have better mechanical properties. It wasdiscovered that the usage of ceramic waste in the building industry not only lowers the construction materials cost, but alsoaids in the attainment of sustainability.

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