Linkage Infrastructure, Equipment And Facilities - Grant ID: LE0453915
Funder
Australian Research Council
Funding Amount
$280,917.00
Summary
Furnace to Test Nano-Geopolymers under Extreme Fire Loading. The deleterious effects of extreme fire on structures (e.g. buildings) are significant, whereby structures are designed to ensure that they do not collapse during fire causing human loss. At high temperatures, materials like concrete lose strength and deteriorate. There is a need in Australia for a shared furnace facility between collaborating Institutions to test, share knowledge and expertise, and compare advanced geopolymer materia ....Furnace to Test Nano-Geopolymers under Extreme Fire Loading. The deleterious effects of extreme fire on structures (e.g. buildings) are significant, whereby structures are designed to ensure that they do not collapse during fire causing human loss. At high temperatures, materials like concrete lose strength and deteriorate. There is a need in Australia for a shared furnace facility between collaborating Institutions to test, share knowledge and expertise, and compare advanced geopolymer materials to different types of concrete when exposed to extreme fire and temperature (e.g. hydrocarbon fire). Geopolymers material offer fire resistance potential, but this needs to be quantified and linked to microstructure prior to commercial acceptance.Read moreRead less
The development of novel geopolymers incorporating calcium and cellulosic material. Geopolymer technology transforms waste aluminosilicate materials into commercially viable products, which possess superior physical and chemical properties compared to ordinary concrete. These high-tech materials have novel acid and fire resistance applications, e.g. in construction and for the coating of optical fibres. Understanding the chemical relationship between geopolymers and other cementitious materials ....The development of novel geopolymers incorporating calcium and cellulosic material. Geopolymer technology transforms waste aluminosilicate materials into commercially viable products, which possess superior physical and chemical properties compared to ordinary concrete. These high-tech materials have novel acid and fire resistance applications, e.g. in construction and for the coating of optical fibres. Understanding the chemical relationship between geopolymers and other cementitious materials is pivotal to further advances in inorganic polymers. This project uses surface reactivity, spectroscopy, electronmicroscopy and electron diffraction to determine the role of calcium and cellulosic additives in the phase composition, microstructure and properties of geopolymers. Therefore, the factors distinguishing geopolymers from alkali-activated cement and ordinary concrete are identified.Read moreRead less