Architecture Engineers Award

The recycling of waste glass presents a promising yet underutilized opportunity in sustainable construction materials due to challenges associated with alkali–silica reaction (ASR). This study introduces a comprehensive approach to developing high-performance glass pervious concrete (HPGPC), integrating material innovation, structural optimization, and multi-dimensional sustainability assessment. By combining waste glass powder in ultra-high-strength mortar and introducing a reinforced ternary composite cover, the research addresses both durability and load-bearing limitations typically found in pervious concrete applications. Material Design Using Waste Glass Powder for Enhanced Bonding A central focus of the research lies in the development of an ultra-high-strength mortar formulated with waste glass powder, aimed at improving aggregate bonding within HPGPC. This innovative material design strategy allows the integration of up to 20% waste glass aggregates while maintaining compre...

  Unlock the Power of Nano-Reinforced Cement for Smart & Energy-Efficient Construction Modern construction demands strong, durable, and energy-efficient materials . While traditional cement provides structural integrity, it often falls short in thermal management and electrical conductivity . Enter nano-reinforced cement — a revolutionary solution using Multi-Walled Carbon Nanotubes (MWCNTs) and Graphene Nanoplatelets (GNPs) to transform ordinary concrete into smart, multifunctional building materials . What is Nano-Reinforced Cement? Nano-reinforced cement involves incorporating advanced nanomaterials into cement matrices to enhance mechanical strength, durability, and functional performance . MWCNTs and GNPs improve load transfer , crack bridging , and introduce thermal and electrical conductivity , making them ideal for smart construction applications. How Nano-Inclusions Enhance Cement Properties Adding CNTs and graphene nanoplatelets significantly improves the ...