Designed and developed advanced hybrid laminated materials, including Fire-Resistant Geopolymers (FRG) and Smart Geopolymer Composite Materials (SCGM), for enhanced structural performance.
Optimized printable synthesis conditions for geopolymer mortars, leveraging principles from ancient architectural Roman mortars for sustainable construction applications.
Pioneered the design and development of geopolymers from waste ceramic tile and brick, achieving significant energy efficiency gains and reduced carbon emissions through advanced geopolymerization and additive manufacturing.
Utilized advanced characterization techniques (XRD, XRF, FTIR, SEM) to analyze chemical composition and microstructural properties, providing critical insights into energy-efficient building materials.
Developed novel composite materials with improved thermal insulation properties, conducting rigorous experiments to measure performance and durability, contributing to energy-efficient building design.
Optimized printable geopolymer slurry synthesis for additive manufacturing from waste tile and brick powders, enhancing pumpability, extrudability, and buildability parameters during 3D printing applications.
Co-led the EU-funded DEFEAT project (INTEGRATED/0918/0052), developing innovative insulation fire-resistant façades from construction and demolition waste, significantly mitigating environmental impacts.
Contributed to the BAM project (EXCELLENCE/0421/0137), developing Hybrid Laminated Materials (HLM) and Smart Composite Geopolymer Concrete (SCGC) engineered for extreme conditions (blasts, impacts, fires) using sustainable raw materials.