Magnesium slag (MS) is a significant waste product of magnesium production. The sustainable reuse of MS presents a highly promising approach to the development of eco-friendly construction materials. The use of supplementary materials to reduce cement consumption significantly decreases the amount of CO2 produced by ordinary Portland cement concrete (OPCC). The present study systematically analyzes and summarizes the current state of research on the mechanical, durability and micro-structural properties of MS as a building material based on the available literature. The effects of the utilization method, dosage, and curing conditions of MS on the mechanical and durability properties were discussed. Research findings on the strength and durability properties of MS as a building material remain relatively limited, and the conclusions reported in the literature show a lack of full consistency. Overall, MS can effectively serve as a supplementary binder, where an optimum substitution level of approximately 30% is frequently reported for balancing fresh-state workability and compressive strength through the refinement of the hydration product matrix. However, this value is derived from studies employing different MS sources, mix designs, activation routes, and curing conditions, and should therefore be regarded as an indicative, condition-dependent range—varying systematically with the binder type, the pre-treatment applied to the slag, and the curing regime—rather than a universally transferable design value. Accordingly, further investigation is warranted.
This study investigates the mechanical properties and durability of concrete incorporating increased levels of supplementary cementitious materials (SCMs) as a strategy to reduce the carbon footprint of the construction industry. While the Korean Industrial Standard (KS L 5201) currently limits the addition of SCMs to...
Yoonsuk Choi, Hokyu Kim, Bong-Wan Lee· Proceedings of International...· 0 citations
Abstract The incorporation of construction and demolition waste (CDW) into construction materials has stood out due to the search for sustainable practices, facing the environmental challenge of waste generation and reducing CO2 emissions in cement production, in addition to the consumption of raw materials. Therefore,...
E. L. Correia, Leandro Henrique Benittez, Fernanda Giannotti da Silva Ferreira· Revista IBRACON de Estrutura...· 0 citations
The aim of this paper is to investigate the possibility of using waste burned clay bricks powder (WBCBPA) as a partial
replacement of cement in concrete while maintaining its advantages. It is not only a materials issue, but also a constructionchoice issue that involves a synthesis of strength, workability, uncertainty...
V. Kataria, Sanjay Sharma· International Journal for Re...· 0 citations
The production of ordinary Portland cement (OPC) is one of the major sources of carbon dioxide emissions in the
construction industry, creating a need for more sustainable building materials. Fly ash-based geopolymer concrete (GPC) has
emerged as a promising alternative because it can reduce environmental impact while...
Abhishek Jadhav, V. Bogar· International Journal for Re...· 0 citations
Portland cement production is one of the main sources of CO₂ emissions, representing a significant environmental challenge. Supplementary Cementitious Materials (SCMs) have emerged as a promising alternative to mitigate the environmental impact associated with cement manufacturing, while also enhancing the properties o...
Sirgê de Melo, L. C. Mesquita, Marília Gonçalves Marques et al.· Emergent Materials· 0 citations
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