Geostationary Observations for Regional Greenhouse Gas Emissions (GORGE). Using satellite measurements it is possible to pinpoint emissions of greenhouse gases. This project (GORGE) will map these emissions throughout Asia and Australia, including the burgeoning emissions from megacities. It will allow real-time monitoring of the effects of climate change policies as well as the effects of climate change on forests and agriculture.
The Norfolk Island Carbon and Health Evaluation Program: a case study of personal carbon trading for reducing obesity and greenhouse gas emissions. This project tests a system of Personal Carbon Trading for reducing greenhouse gas emissions and improving health. Carbon credit cards given to everyone on Norfolk Island are designed to financially reward people for reducing energy use (fuel and fatty food mainly) by increasing walking/cycling and improving nutrition to improve health
Methane and nitrous oxide in agro-ecological systems: novel technologies and understandings to improve ecosystem management. Methane and nitrous oxide are critical greenhouse gases but globally we lack ecosystem scale analyses of the balance of emissions, including animal emissions, and soil oxidation. This project will quantify this balance for a range of agro-ecosystems, and explore and develop opportunities for improving soil-based Greenhouse Gas (GHG) mitigation measures.
Resolving the role of kelp in blue carbon cycles to enable management. We aim to uncover how kelp forests contribute to carbon storage, biodiversity enhancement and nutrient mitigation in Australia. We will combine mapping and modelling to identify local variation in kelp carbon stocks and sequestration potential and verify kelp carbon export to deep ocean sinks through genetic tracing in seawater and sediments. Co-benefits will be identified through nutrient experiments and reef surveys. We wil ....Resolving the role of kelp in blue carbon cycles to enable management. We aim to uncover how kelp forests contribute to carbon storage, biodiversity enhancement and nutrient mitigation in Australia. We will combine mapping and modelling to identify local variation in kelp carbon stocks and sequestration potential and verify kelp carbon export to deep ocean sinks through genetic tracing in seawater and sediments. Co-benefits will be identified through nutrient experiments and reef surveys. We will also assess the risk that calcification and production of halogenic gas within the kelp forest could offset its climate mitigation potential. Project outcomes will enable management to consider kelp ecosystem services broadly and optimize our capacity to meet current emission reduction and biodiversity commitments.Read moreRead less
Genomics and mixed source populations in wildlife translocations. Translocation is a conservation strategy to help the plight of endangered species, and is becoming increasing important to mitigate against climate change. However translocations often fail. Theory suggests mixing individuals from different source populations would benefit species' genomic diversity and potentially success rates, however this is untested in animals. Also unclear is what parts of the genome are important for mitiga ....Genomics and mixed source populations in wildlife translocations. Translocation is a conservation strategy to help the plight of endangered species, and is becoming increasing important to mitigate against climate change. However translocations often fail. Theory suggests mixing individuals from different source populations would benefit species' genomic diversity and potentially success rates, however this is untested in animals. Also unclear is what parts of the genome are important for mitigating against climate change. Using an endangered lizard model, this project aims to understand how to best start new populations by 1) providing the first empirical test in terrestrial vertebrates of using mixed source populations; and 2) uncovering regions of the genome important for considering in translocations.Read moreRead less
Maximising carbon sequestration in freshwater wetlands. Maximising carbon sequestration in freshwater wetlands. This project aims to determine how manipulation of wetland hydrology can alter sulphur and iron cycling to inhibit methane emission and improve wetland net-carbon sequestration. Wetlands are among earth's most efficient ecosystems for carbon sequestration, but methane emission can offset this capacity. Redox cycling of sulphur and iron in wetlands can inhibit methane emission, but the ....Maximising carbon sequestration in freshwater wetlands. Maximising carbon sequestration in freshwater wetlands. This project aims to determine how manipulation of wetland hydrology can alter sulphur and iron cycling to inhibit methane emission and improve wetland net-carbon sequestration. Wetlands are among earth's most efficient ecosystems for carbon sequestration, but methane emission can offset this capacity. Redox cycling of sulphur and iron in wetlands can inhibit methane emission, but the precise biogeochemical processes and their efficiency are very poorly constrained due to a lack of studies—especially in Australian freshwater wetlands. This project is expected to inhibit methane emission in freshwater wetlands and maximise their net carbon sequestration efficiency.Read moreRead less
Innovation in agricultural sector Green House Gas abatement in NSW. This project aims to develop a land sector greenhouse gas abatement, food production and environmental economics model for NSW. We expect to identify innovation in carbon payment policy and brokerage business models to achieve agricultural GHG abatement, while simultaneously improving sustainability. Expected outcomes include evaluation of the innovations of expert landholders, related businesses and governments to find ways to ....Innovation in agricultural sector Green House Gas abatement in NSW. This project aims to develop a land sector greenhouse gas abatement, food production and environmental economics model for NSW. We expect to identify innovation in carbon payment policy and brokerage business models to achieve agricultural GHG abatement, while simultaneously improving sustainability. Expected outcomes include evaluation of the innovations of expert landholders, related businesses and governments to find ways to influence land use decisions. This should provide significant benefits to landholders, governments involved in land management and the public through increased productivity, profitability, biodiversity and ecosystem health in the context of future climate, agricultural commodity and carbon market uncertainties.Read moreRead less
Energy capture from polymer based synthetic foliage. Wind powered renewable energy technologies are rejected in urban or natural environments because of their noise and perceived danger to avian wildlife from conventional rotary wind turbines. The synthetic foliage will be used as a device for low energy applications which is expected to be more socially acceptable in urban settings. We anticipate that this will lead to increased adoption of renewable energy by the Australian public. Success of ....Energy capture from polymer based synthetic foliage. Wind powered renewable energy technologies are rejected in urban or natural environments because of their noise and perceived danger to avian wildlife from conventional rotary wind turbines. The synthetic foliage will be used as a device for low energy applications which is expected to be more socially acceptable in urban settings. We anticipate that this will lead to increased adoption of renewable energy by the Australian public. Success of the project will lead to long term benefits for Australia including reduction of greenhouse gas emissions and the creation of jobs in the sustainable energy sector.Read moreRead less
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.
Reconciling competing objectives for the design of marine reserve networks: biodiversity, food security, and local equity in benefits. This project uses a decision-theoretic framework to balance the often conflicting marine conservation objectives of preserving biodiversity and building food security for local communities in the socially and ecologically complex region of the Coral Triangle. A new reserve design will boost biodiversity conservation and better support livelihoods.