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Geopolymer mortar can serve as a new-age construction material due to its outstanding performance characteristics and reduced carbon footprints. Derived from conscious industrial by-products such as fly ash, rice husk ash, and red mud, geopolymer mortar has remarkable qualities and offers a viable green substitute for conventional cement-based mortar. The traditionally used two-part geopolymers can pose scalability limitations for large-scale engineering applications due to challenges associated with handling and storing corrosive alkaline activator solutions during transportation and prefabrication. Considering this limitation, a one-part geopolymer mortar is formulated. This behaviour results from pre-incorporated alkaline binding agents being activated. These materials are mostly silicate and aluminate, derived from recycled wastes that are rich in silica and alumina. By reducing carbon emissions, this innovative method complies with global environmental goals while improving the performance and management of one-part geopolymer mortar. This paper has been formulated on the basis of significant recent findings by researchers. It aims to highlight the distinctive mechanical performance of one-part geopolymer mortar. It focuses on how feasible it is as an environmentally friendly industrial waste management solution within the framework of the building sector. The study meticulously synthesizes recent information about the unique mechanical characteristics of one-part geopolymer mortar and highlights its possible uses in environmentally friendly construction methods. The material is analysed as a resilient and eco-friendly replacement for repair and building applications, showcasing numerous advantages over traditional cement-based mortar. This study signifies a paradigm shift towards the application of one-part geopolymer mortar in construction projects, providing valuable insights for researchers, engineers, and industry professionals looking for an easy, resilient, and eco-friendly alternative with superior mechanical performance.

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Critical Evaluation of the Mechanical Performance of One-Part Geopolymer Mortar for Sustainable Industrial Waste Solutions

  • 章节

  • 发表日期：

    2025年

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  • Sajan Sharma,
  • Shailja Bawa

摘要

Geopolymer mortar can serve as a new-age construction material due to its outstanding performance characteristics and reduced carbon footprints. Derived from conscious industrial by-products such as fly ash, rice husk ash, and red mud, geopolymer mortar has remarkable qualities and offers a viable green substitute for conventional cement-based mortar. The traditionally used two-part geopolymers can pose scalability limitations for large-scale engineering applications due to challenges associated with handling and storing corrosive alkaline activator solutions during transportation and prefabrication. Considering this limitation, a one-part geopolymer mortar is formulated. This behaviour results from pre-incorporated alkaline binding agents being activated. These materials are mostly silicate and aluminate, derived from recycled wastes that are rich in silica and alumina. By reducing carbon emissions, this innovative method complies with global environmental goals while improving the performance and management of one-part geopolymer mortar. This paper has been formulated on the basis of significant recent findings by researchers. It aims to highlight the distinctive mechanical performance of one-part geopolymer mortar. It focuses on how feasible it is as an environmentally friendly industrial waste management solution within the framework of the building sector. The study meticulously synthesizes recent information about the unique mechanical characteristics of one-part geopolymer mortar and highlights its possible uses in environmentally friendly construction methods. The material is analysed as a resilient and eco-friendly replacement for repair and building applications, showcasing numerous advantages over traditional cement-based mortar. This study signifies a paradigm shift towards the application of one-part geopolymer mortar in construction projects, providing valuable insights for researchers, engineers, and industry professionals looking for an easy, resilient, and eco-friendly alternative with superior mechanical performance.