These positions are co-supervised span chemical engineering, materials science, chemistry, sustainabilty, supply chain, energy, resource efficiency, circular economy, nuclear, environmental and civil engineering.
This project aims to provides greater understanding of geopolymer reaction, setting and hardening, by investigating fundamental particle interactions, so that robust specifications can be developed, and geopolymer wasteform properties and performance can be predicted. The project also aims to assess mobility of fission products, and establish chemical durability and radioactive waste retention.
This project aims to reveal the composition-structure-property relationships, reaction mechanisms and kinetics in these low-carbon cements produced from industrial wastes and low-carbon activators, using an array of state-of-the-art characterisation approaches.
This cross-disciplinary PhD project aims to develop a new material chemistry circularity comparative framework for sustainable cement for construction and energy sectors. It will perform a hybrid life cycle analysis (LCA) of AAC/AEAC produced from both traditional and non-traditional raw materials, in a system defined in space and time, and compare the environmental and economic performance of these low-carbon cements against traditional Portland cement.