Working with wind energy and forestry for effective eagle conservation. This project aims to reduce the impacts of wind turbines and disturbance from forestry activity on the Tasmanian wedge-tailed eagle. It will do this by understanding the flight behaviour, movements and mortality of eagles, and the behavioural responses of breeding birds to forestry-related disturbance. The project will build new knowledge and institutional partnerships that will be used to minimise impacts on the Tasmanian e ....Working with wind energy and forestry for effective eagle conservation. This project aims to reduce the impacts of wind turbines and disturbance from forestry activity on the Tasmanian wedge-tailed eagle. It will do this by understanding the flight behaviour, movements and mortality of eagles, and the behavioural responses of breeding birds to forestry-related disturbance. The project will build new knowledge and institutional partnerships that will be used to minimise impacts on the Tasmanian eagle population, and develop models for use in planning. This will safeguard Australia's largest eagle and improve the sustainability of energy and forest industries. This research will also provide a model for the resolution of similar problems elsewhere in the world.Read moreRead less
How positive interactions improve predictions of plant community diversity. Though common in nature, the importance of plant-plant facilitation to coexistence and the maintenance of plant diversity at community scales is poorly understood. This project aims to advance understanding of how positive interactions (facilitation) impact on coexistence among plant species as well as local patterns of diversity. To achieve these aims the project will use a combination of field experiments and a compara ....How positive interactions improve predictions of plant community diversity. Though common in nature, the importance of plant-plant facilitation to coexistence and the maintenance of plant diversity at community scales is poorly understood. This project aims to advance understanding of how positive interactions (facilitation) impact on coexistence among plant species as well as local patterns of diversity. To achieve these aims the project will use a combination of field experiments and a comparative analysis of competition and facilitation in Australian, Californian and Spanish annual plant communities with a novel modelling approach for predicting coexistence across variable environments. Outcomes are expected to include an innovative predictive framework of use for plant conservation in Australia and beyond.Read moreRead less
Fire regimes and demographic responses interact to threaten woody species. This project aims to extend and test an Interval Squeeze conceptual model which predicts fire-climate interaction effects on plant species persistence. Complex processes affect future species persistence, and an evidence-based conceptual framework is needed. Working across two continents, this project will quantify the effects of projected shortening of fire intervals, lower rainfall and elevated temperatures on woody pla ....Fire regimes and demographic responses interact to threaten woody species. This project aims to extend and test an Interval Squeeze conceptual model which predicts fire-climate interaction effects on plant species persistence. Complex processes affect future species persistence, and an evidence-based conceptual framework is needed. Working across two continents, this project will quantify the effects of projected shortening of fire intervals, lower rainfall and elevated temperatures on woody plant species. Field evidence spans global change predictions, ecosystems and species representing key system dominants and functional response types. The project will synthesise this data into larger simulation models and extend its conceptual framework to directly inform conservation and fire management.Read moreRead less
Rapid evolution, and the dynamics and stability of ecological communities. Population sizes of species go up and down and often we do not know why. This is a problem because changes in population size underpin more complex ecological change, and understanding why population sizes change affects our ability to manage environmental impacts, and threatened, harvested and pest species. The aim of this project is to discover how rapid evolution – evolution occurring over just a few generations – driv ....Rapid evolution, and the dynamics and stability of ecological communities. Population sizes of species go up and down and often we do not know why. This is a problem because changes in population size underpin more complex ecological change, and understanding why population sizes change affects our ability to manage environmental impacts, and threatened, harvested and pest species. The aim of this project is to discover how rapid evolution – evolution occurring over just a few generations – drives changes in population sizes of plants in Australian freshwater ecosystems. By focusing on this fundamental yet poorly understood process, our results promise to rewrite our understanding of the causes of change in ecological communities, while highlighting a unique and little studied component of Australia’s biota.Read moreRead less
Forecasting coral reef recovery with new data-driven dispersal models. This project aims to combine innovative mathematical methods and new genetic data to accurately predict the larval dispersal patterns of reef fish and corals. Larval dispersal is central to the ecology of coral reefs, and has vital implications for conservation. Most marine organisms spend their early life dispersing in the ocean, but our understanding of where these tiny larvae go is limited by sparse data and unvalidated mo ....Forecasting coral reef recovery with new data-driven dispersal models. This project aims to combine innovative mathematical methods and new genetic data to accurately predict the larval dispersal patterns of reef fish and corals. Larval dispersal is central to the ecology of coral reefs, and has vital implications for conservation. Most marine organisms spend their early life dispersing in the ocean, but our understanding of where these tiny larvae go is limited by sparse data and unvalidated models. Applied to extensive case-studies from Australia and across the western Pacific Ocean, these methods will be used to forecast and understand the recovery of fish and coral populations following severe disturbances. This will provide benefits such as enabling us to prioritise conservation actions in the aftermath of severe disturbances, including the catastrophic 2016 mass coral bleaching on the Great Barrier Reef.Read moreRead less
Wild eco-evolutionary dynamics: the decline of an iconic Australian bird. This project aims to dissect the ecological and evolutionary processes causing a decline in an iconic Australian bird species. Studies that can properly test explanations for declines in wild populations are rare. This project aims to test how environmental and genetic processes shape individual traits, how these traits determine fitness and how changes in individual fitness affect population dynamics. The project expects ....Wild eco-evolutionary dynamics: the decline of an iconic Australian bird. This project aims to dissect the ecological and evolutionary processes causing a decline in an iconic Australian bird species. Studies that can properly test explanations for declines in wild populations are rare. This project aims to test how environmental and genetic processes shape individual traits, how these traits determine fitness and how changes in individual fitness affect population dynamics. The project expects to provide essential information for the improved management of Australian bird populations, and for understanding the effects of environmental change on natural systems globally.Read moreRead less
Investing in ecological portfolios: retaining migratory strategies of fish. In finance, investors minimize risk and optimize long term returns by building stock portfolios with different attributes. This contingency strategy also occurs in ecological systems. We will use portfolio effects as a conceptual model to characterise the poorly known sub-population variations in migratory strategies of estuarine fish and their response to environmental conditions. In doing so, we will determine how envi ....Investing in ecological portfolios: retaining migratory strategies of fish. In finance, investors minimize risk and optimize long term returns by building stock portfolios with different attributes. This contingency strategy also occurs in ecological systems. We will use portfolio effects as a conceptual model to characterise the poorly known sub-population variations in migratory strategies of estuarine fish and their response to environmental conditions. In doing so, we will determine how environmental change drives variations in migratory strategies, impacts long-term growth and population trophic web dynamics. Outcomes will foster novel and dynamic management frameworks that enhance population stability despite the predicted volatility of environmental conditions.Read moreRead less
The role of pollutants and emerging diseases in endangering a global migratory flyway. This project aims to investigate the role of chemical pollution on disease susceptibility and survival in shorebirds along the East Asian-Australasian Flyway (EAAF). Among all long-distance migratory birds, the more than eight million shorebirds along the EAAF have notably been hit hard by global change, with population declines up to 80%. This project will use data from birds on their Asian migratory stopover ....The role of pollutants and emerging diseases in endangering a global migratory flyway. This project aims to investigate the role of chemical pollution on disease susceptibility and survival in shorebirds along the East Asian-Australasian Flyway (EAAF). Among all long-distance migratory birds, the more than eight million shorebirds along the EAAF have notably been hit hard by global change, with population declines up to 80%. This project will use data from birds on their Asian migratory stopover sites, data from seven years of blood and virus samples, and 38 years of banding data collected while staying on the Australian non-breeding grounds. The project will provide essential data for developing mitigation strategies to help curb the populations’ demise, while informing on the effects of pollution on the role of migrants in disease spread.Read moreRead less
Surviving the inferno: how threatened macropods survive catastrophic fire. This project aims to determine the impact of the catastrophic black summer fires of 2019/20 on threatened wallabies, including the parma wallaby (that had 70% of its entire distribution burnt) and the red-legged pademelon. Following these fires, wildlife across Australia has been decimated. This project expects to generate new knowledge by comparing burnt and unburnt areas before and after the fires to determine their imp ....Surviving the inferno: how threatened macropods survive catastrophic fire. This project aims to determine the impact of the catastrophic black summer fires of 2019/20 on threatened wallabies, including the parma wallaby (that had 70% of its entire distribution burnt) and the red-legged pademelon. Following these fires, wildlife across Australia has been decimated. This project expects to generate new knowledge by comparing burnt and unburnt areas before and after the fires to determine their impact on threatened wallaby conservation ecology. The expected outcomes of this project include improved understanding of the impact of fires on Australia's iconic wildlife. This should significantly improve our ability to reduce the risk on these species in future megafires. Read moreRead less
A novel modelling approach for understanding wildlife disease dynamics. This project aims to develop a novel framework for field wildlife disease systems, applied to chytrid fungal infection of an endangered frog species as a case study. The project expects to develop models able to be applied to many disease systems, improve understanding of host resistance and tolerance to infection, and improve capacity for mitigation of emerging infectious diseases. This work should have international impac ....A novel modelling approach for understanding wildlife disease dynamics. This project aims to develop a novel framework for field wildlife disease systems, applied to chytrid fungal infection of an endangered frog species as a case study. The project expects to develop models able to be applied to many disease systems, improve understanding of host resistance and tolerance to infection, and improve capacity for mitigation of emerging infectious diseases. This work should have international impact and provide significant national benefits in ensuring the conservation of Australia’s biodiversity.Read moreRead less