Enhancing Concrete Performance Using Copper Slag

In an effort to enhance concrete's performance and sustainability, this study analyzes the possibility of partially replacing traditional ingredients with copper slag, a by-product of the copper industry. The primary objective of the study is to determine the way adding copper slag in place of cement and/or fine aggregates affects the workability, durability, and mechanical qualities of concrete, including its resistance to sulfate attack, chloride ion penetration, and freeze-thaw cycles, as well as its compressive, tensile, and flexural strengths. The study also looks at the advantages of using copper slag for the environment, such as a smaller reliance on natural resources, better waste management, and maybe lower carbon emissions from the production of cement. Based on studies, copper slag can enhance the strength and durability of concrete when added in suitable amounts. It also provides a more cost-effective and environmentally conscious substitute for conventional concrete mixtures. The results indicate that by reusing industrial waste materials and reducing the environmental impact of concrete production, copper slag can significantly contribute to a circular economy while supporting environmentally friendly practices in the construction sector.

Cement, Copper slag, Aggregates, Industrial waste

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