Mobility Shocks: Understanding disruptions to Australian migration. This Fellowship aims to generate new knowledge about the impacts of the Covid-19 pandemic on human migration and mobility, in order to advance understanding of major disruptive changes to population movement more broadly. Fellowship outcomes will include designing innovative geospatial research methods, linking and analysing cutting-edge datasets, and building cross-sector collaborations, in order to develop a new theory of ‘Mob ....Mobility Shocks: Understanding disruptions to Australian migration. This Fellowship aims to generate new knowledge about the impacts of the Covid-19 pandemic on human migration and mobility, in order to advance understanding of major disruptive changes to population movement more broadly. Fellowship outcomes will include designing innovative geospatial research methods, linking and analysing cutting-edge datasets, and building cross-sector collaborations, in order to develop a new theory of ‘Mobility Shocks’. This will benefit Australia and its migration partners with new ideas, tools, evidence and expertise to help scholars, policy makers and practitioners to understand, anticipate, and manage future disruptive changes to human migration and mobility in the Australian context and beyond.Read moreRead less
Porous Electromaterials for Hydrogen Production and Energy Storage. This project aims to develop nanocomposite electrodes and membranes for efficient production of renewable hydrogen and the next generation of high-energy-density battery technologies. This will be accomplished by the engineering of multi-scale porous materials with tuneable electrical, chemical and morphological properties using earth abundant elements. The intended outcome is the establishment of a scalable methodology for the ....Porous Electromaterials for Hydrogen Production and Energy Storage. This project aims to develop nanocomposite electrodes and membranes for efficient production of renewable hydrogen and the next generation of high-energy-density battery technologies. This will be accomplished by the engineering of multi-scale porous materials with tuneable electrical, chemical and morphological properties using earth abundant elements. The intended outcome is the establishment of a scalable methodology for the structuring and effective integration of microporous materials in highly conductive scaffolds, achieving superior charge and molecular transport, as well as high surface activity. Broad social and economic benefits are anticipated providing new technological solutions for renewable energy storage and fuel production.Read moreRead less