Utilization of Bone China Waste in Eco-Friendly Concrete Blocks for Green Building Applications

Abstract

The increasing demand for sustainable construction practices has led to a significant interest in the utilization of industrial waste materials as alternatives to conventional building materials. This study explores the potential of incorporating bone china waste into eco-friendly concrete blocks for green building applications. Bone china, a by-product of the ceramics industry, offers unique properties that can enhance the mechanical performance, durability, and sustainability of concrete. The research reviews the findings of various scholars on the role of industrial waste in construction, highlighting the benefits of using bone china waste to reduce the environmental impact of concrete production. The study presents a detailed analysis of the mechanical properties, durability, workability, and cost-effectiveness of concrete blocks made with bone china waste, drawing on literature from experts like Agrawal et al., Dhone et al., and Raghunath et al., among others. The findings suggest that bone china waste can significantly improve the compressive strength and water resistance of concrete while reducing the carbon footprint associated with traditional concrete production.

Additionally, incorporating bone china waste can contribute to developing lightweight concrete, which offers advantages such as reduced transportation costs and improved insulation properties. The study also addresses the economic and environmental benefits of utilizing bone china waste, including its potential to support green building certifications like LEED and BREEAM. Despite the promising results, challenges such as waste availability, material standardization, and long-term durability need further investigation. This study underscores the importance of interdisciplinary research to optimize the use of bone china waste in concrete, ultimately contributing to the development of sustainable, eco-friendly construction materials for future building applications.