Novel carbon dioxide tolerant ceramic membranes for oxygen separation to improve the viability of clean energy technology. Conventional cryogenic air separation is a major economic impediment to the deployment of these low emission technologies like Callide oxyfuel combustion. This project will lead to the discovery of a new class of oxygen selective membranes for air separation with significantly reduced cost to improve the viability of these clean energy technologies.
Engineering macromolecular architectures for targeted applications. The purpose of the project is to use intelligent design to synthesise highly complex polymer architectures for targeted applications. The advances of this research will be expanded to target ultrathin gas separation membranes, self-assembling star polymers for drug delivery and fluorinated macromonomers for in-vivo biodistribution studies.
Australian Laureate Fellowships - Grant ID: FL200100133
Funder
Australian Research Council
Funding Amount
$3,358,494.00
Summary
Activating blue carbon for coastal restoration. Coastal blue carbon describes the carbon stored in soils and biomass of coastal wetlands which has an important function in regulating greenhouse gases. They also provide coastal protection, habitat for biodiversity, fisheries and amelioration of land-based pollution. Coastal wetlands have been degraded globally, reducing their capacity to store carbon and to support coastal communities and their economies. This Fellowship aims to assess how restor ....Activating blue carbon for coastal restoration. Coastal blue carbon describes the carbon stored in soils and biomass of coastal wetlands which has an important function in regulating greenhouse gases. They also provide coastal protection, habitat for biodiversity, fisheries and amelioration of land-based pollution. Coastal wetlands have been degraded globally, reducing their capacity to store carbon and to support coastal communities and their economies. This Fellowship aims to assess how restoration of coastal wetlands influences carbon storage and greenhouse gas fluxes, develop new methodologies and to generate new research capacity to inform coastal wetland management globally. The proposed research is expected to enhance coastal sustainability to the benefit of coastal communities.Read moreRead less
Unlocking the anchors of soil organic carbon to manage climate change. Soil is the largest reservoir of terrestrial organic carbon. Most of the organic carbon in soils is preserved by association with minerals, however, the composition and stability of mineral-associated organic carbon remain poorly understood. The project will use novel and emerging techniques to discover the composition of organic carbon and stability of organic carbon present in mineral-organic associations in representative ....Unlocking the anchors of soil organic carbon to manage climate change. Soil is the largest reservoir of terrestrial organic carbon. Most of the organic carbon in soils is preserved by association with minerals, however, the composition and stability of mineral-associated organic carbon remain poorly understood. The project will use novel and emerging techniques to discover the composition of organic carbon and stability of organic carbon present in mineral-organic associations in representative Australian soils. Expected outcomes include new knowledge necessary for emerging global carbon cycling models and improve future climate projections. Read moreRead less
Linking soil acidification with carbon dynamics in Australian agroecosystems. The ability to mitigate climate change by sequestering soil carbon may be limited in acidic soils, which are prevalent in Australia. The project will investigate the link between carbon cycling, soil acidification and liming, and provide important knowledge to identify agricultural practices which have the capacity to build soil carbon.
Identifying cost-effective reforestation approaches for biodiversity conservation and carbon sequestration in southern Australia. The project will determine the reforestation approach that maximises the native biodiversity found in bushland/shrubland regrowth in South Australia, while maximising the carbon sequestered for the lowest cost. This project will use controlled planting experiments modifying tree/shrub diversity and plant density combined with species and carbon monitoring.
Urban biochar: towards prescriptive biochar use for maximum economic productivity and sustainability benefits in urban environments. This project will develop a life cycle assessment of waste management options for green waste and biosolids based on a clear understanding of productivity benefits of urban biochar application to high value production systems.
Synthetic natural gas and biochar from biomass for energy services in remote communities and soil carbon sequestration. Resources, industry and rural communities, the backbone of Australian economy, are confronted by unprecedented challenges of carbon pollution reduction, land conservation and eco-sustainability to combat global climate change. This exciting, highly integrated and multidisciplinary project will develop a scientific basis and technological options for the resources industry and r ....Synthetic natural gas and biochar from biomass for energy services in remote communities and soil carbon sequestration. Resources, industry and rural communities, the backbone of Australian economy, are confronted by unprecedented challenges of carbon pollution reduction, land conservation and eco-sustainability to combat global climate change. This exciting, highly integrated and multidisciplinary project will develop a scientific basis and technological options for the resources industry and remote communities to respond to these challenges. The outcomes of this research will enable the deployment of renewable biomass energy technology, bio-char for carbon storage, and affect the restoration of marginal lands and salinity levels in an environmentally and economically sustainable way, thus contributing to the development of an environmentally sustainable Australia.Read moreRead less
Optimal management of coastal ecosystems for blue carbon sequestration. Optimal management of coastal ecosystems for blue carbon sequestration. This project aims to develop decision tools to predict how different management plans could affect the persistence of coastal ecosystems and their capacity to sequester carbon. Coastal ‘blue carbon’ ecosystems (seagrasses, saltmarshes, mangroves) are among Earth’s most efficient carbon sinks, but coastal development and climate change threaten their capa ....Optimal management of coastal ecosystems for blue carbon sequestration. Optimal management of coastal ecosystems for blue carbon sequestration. This project aims to develop decision tools to predict how different management plans could affect the persistence of coastal ecosystems and their capacity to sequester carbon. Coastal ‘blue carbon’ ecosystems (seagrasses, saltmarshes, mangroves) are among Earth’s most efficient carbon sinks, but coastal development and climate change threaten their capacity to sequester carbon. Resource managers urgently need guidance to manage coasts to minimise carbon losses and maximise gains. This project is expected to develop knowledge of how to manage blue carbon ecosystems to achieve maximum carbon sequestration capacity, and to put Australia at the forefront of international efforts to incorporate coastal carbon within carbon dioxide mitigation strategies.Read moreRead less
Adaptive daytime radiative cooling and heating for buildings . This project aims to develop an adaptive daytime radiative cooling and heating technology suitable for the for the reduction of the energy consumption in buildings for the mitigation of the urban overheating in the built environment. The project expects to generate new knowledge in this area to exploit adaptive strategies in the development of future cooling and heating solutions for buildings. Expected project outcomes consist of th ....Adaptive daytime radiative cooling and heating for buildings . This project aims to develop an adaptive daytime radiative cooling and heating technology suitable for the for the reduction of the energy consumption in buildings for the mitigation of the urban overheating in the built environment. The project expects to generate new knowledge in this area to exploit adaptive strategies in the development of future cooling and heating solutions for buildings. Expected project outcomes consist of the establishment of the new adaptive daytime radiative technology for use on building envelopes to support cooling requirements in hot weather and heating needs under cold conditions. This should lead to significant benefits for the Australian building and construction industry. Read moreRead less