Peripheral isolates as hotbeds of adaptive diversity. This project uses cutting edge molecular technology and spatial analyses to predict the location of diversity relevant to managing the impact of climate change. Knowledge generated in this project will open the door to the informed use of genetic translocation in efforts to kerb expected biodiversity losses.
Private Land Conservation in a Dynamically Changing and Risky World. Climate change, and the increasing risk of drought, heatwaves, and fire, have major implications for the design and effectiveness of private land conservation programs. This project aims to generate new knowledge about the effect of climate change on adoption and outcomes of private land conservation agreements. It will use an innovative social-ecological approach focused on koalas. Expected outcomes include an innovative frame ....Private Land Conservation in a Dynamically Changing and Risky World. Climate change, and the increasing risk of drought, heatwaves, and fire, have major implications for the design and effectiveness of private land conservation programs. This project aims to generate new knowledge about the effect of climate change on adoption and outcomes of private land conservation agreements. It will use an innovative social-ecological approach focused on koalas. Expected outcomes include an innovative framework to help make decisions about private land conservation investments under climate change. This should provide significant benefits for government and non-government organisations by providing solutions to climate-proof their conservation investments on private land in a rapidly changing world.Read moreRead less
Discovery Early Career Researcher Award - Grant ID: DE200101791
Funder
Australian Research Council
Funding Amount
$427,082.00
Summary
Mathematically optimal R&D for coral reef conservation. This project aims to develop mathematical methodologies for optimising Research & Development (R&D) of technologies that will secure complex and uncertain ecosystems into the future. Current conventional management approaches will not prevent the degradation of threatened ecosystems like the Great Barrier Reef, so new technologies are needed. The biggest challenge in choosing these technologies is the long delay between development and depl ....Mathematically optimal R&D for coral reef conservation. This project aims to develop mathematical methodologies for optimising Research & Development (R&D) of technologies that will secure complex and uncertain ecosystems into the future. Current conventional management approaches will not prevent the degradation of threatened ecosystems like the Great Barrier Reef, so new technologies are needed. The biggest challenge in choosing these technologies is the long delay between development and deployment, in which time ecosystem function may collapse and complex, dynamic ecological and social systems will change. The mathematical methods and theory developed will inform a Great Barrier Reef case study, and will be ready for rapid application to other ecosystems as the urgent need arises.Read moreRead less
Discovery Early Career Researcher Award - Grant ID: DE220101310
Funder
Australian Research Council
Funding Amount
$434,582.00
Summary
A unique and overlooked microbial process scavenging two greenhouse gases. This project aims to perform the first-ever systematic investigation of a novel microbial process, in which two potent gases (methane and nitric oxide) responsible for the climate change are metabolized simultaneously. This process is suggested to be universal in early and modern Earth's aquatic systems, which is a potential but overlooked microbial sink for methane and nitric oxide. By identifying the responsible organis ....A unique and overlooked microbial process scavenging two greenhouse gases. This project aims to perform the first-ever systematic investigation of a novel microbial process, in which two potent gases (methane and nitric oxide) responsible for the climate change are metabolized simultaneously. This process is suggested to be universal in early and modern Earth's aquatic systems, which is a potential but overlooked microbial sink for methane and nitric oxide. By identifying the responsible organisms and their metabolic pathway, this project represents a critical step towards a full understanding of their roles in affecting the greenhouse gas emission. This understanding will also enable us to more reliably predict the global climate change, which is one of the most significant challenges in the 21st Century.Read moreRead less
Iron-dependent anaerobic oxidation of methane process. This project aims to investigate the microbial process of iron-dependent anaerobic oxidation of methane. This process may be pervasive in Earth's aquatic systems, and possibly a major methane sink. This project will identify the organisms mediating this reaction, elucidate their metabolic pathways and characterise their ecophysiological properties. This project is expected to understand how this process regulates the atmospheric concentratio ....Iron-dependent anaerobic oxidation of methane process. This project aims to investigate the microbial process of iron-dependent anaerobic oxidation of methane. This process may be pervasive in Earth's aquatic systems, and possibly a major methane sink. This project will identify the organisms mediating this reaction, elucidate their metabolic pathways and characterise their ecophysiological properties. This project is expected to understand how this process regulates the atmospheric concentration of methane and more reliably predict global methane emissions in a changing climate. By addressing this key knowledge gap, this project will enhance our ability to predict global methane emissions in a changing climate.Read moreRead less
Modelling the potential of large-scale revegetation to reduce the impacts of climate change in semi-arid Australia. This project will contribute to Australia's capacity to respond to climate change and to the ecologically sustainable management of our natural resources. It will provide a comprehensive understanding of the potential of large-scale revegetation to moderate climate change, and to identify limitations to adaptation.
Prioritising habitat restoration for biodiversity and ecosystem service outcomes. An emerging carbon market will provide funds for habitat restoration over the coming decades, but this will only be realised through careful prioritisation and planning. This research will prioritise investments in habitat restoration in order to cost-effectively achieve biodiversity conservation and ecosystem service protection goals.
Managing environmental change through planning for transformative pathways. The project plans to bring together Chinese and Australian researchers to investigate how planning systems in the two countries can be enhanced to avoid tipping points due to urbanisation processes and environmental change. It aims to formulate transformative pathways for two case study areas, situated in peri-urban areas of a rapidly growing region in each country, which seek to link adaptation and sustainability to add ....Managing environmental change through planning for transformative pathways. The project plans to bring together Chinese and Australian researchers to investigate how planning systems in the two countries can be enhanced to avoid tipping points due to urbanisation processes and environmental change. It aims to formulate transformative pathways for two case study areas, situated in peri-urban areas of a rapidly growing region in each country, which seek to link adaptation and sustainability to address and/or avoid land use planning failures. The anticipated outcome of the project is to address environmental and social change resulting from rapid urbanisation and environmental change.Read moreRead less