Discovery Early Career Researcher Award - Grant ID: DE190101338
Funder
Australian Research Council
Funding Amount
$373,711.00
Summary
Building your future: builder-building coevolution in animal architectures. This project aims to reconstruct how animal architectures change throughout time and how this affects body shapes and functions of their builders. By clarifying the biological role of building behaviour this project will assist in predicting long term responses of wildlife, ecosystems and human life to a changing environment. The project expects to be achieved by comparing the structure, assembly and mechanical performan ....Building your future: builder-building coevolution in animal architectures. This project aims to reconstruct how animal architectures change throughout time and how this affects body shapes and functions of their builders. By clarifying the biological role of building behaviour this project will assist in predicting long term responses of wildlife, ecosystems and human life to a changing environment. The project expects to be achieved by comparing the structure, assembly and mechanical performance of animal architectures with animal morphology and performance in a global phylogenetic framework. This is critical for strategic planning of wildlife and landscape management.Read moreRead less
Discovery Early Career Researcher Award - Grant ID: DE150101720
Funder
Australian Research Council
Funding Amount
$386,923.00
Summary
Pollination by sexual deception and the evolution of specialisation. Specialised pollination systems are of global scientific importance because they offer unique insights into speciation and are exceptionally vulnerable to anthropogenic change. Fundamental gaps remain in our knowledge of the adaptations required for specialisation, the ecological processes favouring its evolution, and whether specialisation facilitates or constrains floral evolution. This project aims to address these questions ....Pollination by sexual deception and the evolution of specialisation. Specialised pollination systems are of global scientific importance because they offer unique insights into speciation and are exceptionally vulnerable to anthropogenic change. Fundamental gaps remain in our knowledge of the adaptations required for specialisation, the ecological processes favouring its evolution, and whether specialisation facilitates or constrains floral evolution. This project aims to address these questions in a unique and diverse group of Australian orchids that are pollinated by sexual mimicry. This work will apply experimental, ecological and phylogenetic approaches to understand the visual and chemical adaptations to sexual mimicry and their consequences for species diversification, floral evolution and conservation.Read moreRead less
Evolution of Australia's globally unique hotspot of floral diversity. Australia has a globally recognised biodiversity hotspot, the southwest of Western Australia, but this unique eucalypt-dominated flora is threatened. This project will gain new insights into the evolutionary processes that generate and maintain such diversity, their vulnerability; and how the iconic eucalypts came to dominate the Australian landscape.
Bringing Archaeal biodiversity to life from native Australian herbivores . The aim of this project is to provide deep functional understanding of our recent discovery of novel microbes from the Domain Archaea that inhabit the digestive tracts of native Australian herbivores. These animals are unique natural resources of great cultural, environmental, and economic significance, but increasingly susceptible to habitat change and degradation. Very little is currently known about the microbes that h ....Bringing Archaeal biodiversity to life from native Australian herbivores . The aim of this project is to provide deep functional understanding of our recent discovery of novel microbes from the Domain Archaea that inhabit the digestive tracts of native Australian herbivores. These animals are unique natural resources of great cultural, environmental, and economic significance, but increasingly susceptible to habitat change and degradation. Very little is currently known about the microbes that have co-evolved with these animals, to support their nutrition and health. The project will address these knowledge gaps, and the ensuing discoveries are expected to deliver products and services relevant to environmental health assessment and sustaining the "low methane carbon economy" attributed to these iconic species.Read moreRead less
Evolutionary history and conservation of an iconic Australian plant group. This project aims to strengthen biodiversity conservation using evolutionary biology. By using new DNA sequencing technologies the project aims to reconstruct the evolutionary history of the diverse and ecologically important plant family Proteaceae. This will be used to discover how past environmental changes have produced the biodiversity we see today, and forecast likely future changes to biodiversity under expected r ....Evolutionary history and conservation of an iconic Australian plant group. This project aims to strengthen biodiversity conservation using evolutionary biology. By using new DNA sequencing technologies the project aims to reconstruct the evolutionary history of the diverse and ecologically important plant family Proteaceae. This will be used to discover how past environmental changes have produced the biodiversity we see today, and forecast likely future changes to biodiversity under expected rapid environmental change. The key outcome will be a new methodology for a predictive, forward-looking conservation science that accounts explicitly for the dynamic, evolving nature of biodiversity. The key benefit will be a more robust scientific basis for strategic allocation of limited conservation resources.Read moreRead less
Islands of rocks: geckos as a model system to understand patterns of biodiversity, endemism and speciation in the Kimberley. Australia is renowned for its diversity of lizards, yet a plethora of new "cryptic" gecko species continue to be discovered. The project will densely sample the complex Kimberley to understand the evolution of its geckos, which will shed light on true levels of species diversity and the geological and environmental history of this biodiversity hotspot.
Discovery Early Career Researcher Award - Grant ID: DE130101567
Funder
Australian Research Council
Funding Amount
$374,848.00
Summary
Skulls as machines: diversity and evolution in a group of charismatic Australian lizards. This project uses sophisticated computer software to analyse how the complex skulls of dragon lizards work. This will provide a greater understanding of the factors underlying their evolution and radiation in Australia where they are one of the most successful lizard groups and a vital part of the desert fauna.
Phenotypic plasticity and plant water use in a changing climate: a multi-species, multi-site investigation. Plants are highly responsive to the conditions under which they grow, but the combination of conditions they experience will be altered under climate change. This research into plant responses to the novel environments posed by climate change will examine plasticity in water-use-traits to better predict native plant tolerance of climate change.
Discovery Early Career Researcher Award - Grant ID: DE160100614
Funder
Australian Research Council
Funding Amount
$363,612.00
Summary
Evolutionary genomics and origin of the molluscan biomineralisation toolkit. The project aims to use new genomes from understudied lineages of Mollusca to identify the genes involved in shell formation (biomineralisation) and infer their function and evolutionary history. The ability of molluscs to biofabricate intricate and robust skeletal structures from sea water is encoded in their genomes. Understanding the ancestral biomineralisation toolkit is of great interest to materials science, which ....Evolutionary genomics and origin of the molluscan biomineralisation toolkit. The project aims to use new genomes from understudied lineages of Mollusca to identify the genes involved in shell formation (biomineralisation) and infer their function and evolutionary history. The ability of molluscs to biofabricate intricate and robust skeletal structures from sea water is encoded in their genomes. Understanding the ancestral biomineralisation toolkit is of great interest to materials science, which seeks to replicate molluscan biomineralisation in vitro for biomedical and other applications. Understanding the toolkit is an important first step toward synthetic biology techniques to 'print' structures like bones in vitro. Moreover, new genomic resources from molluscs will be of interest to researchers in numerous fields.Read moreRead less
Resolving insect evolution. Our poor understanding of the evolution of insects, life’s most successful group, is a huge gap in our knowledge of nature. By analysing genomic data the project will resolve the insect evolutionary tree and discover what drove insect evolution. This will expand our knowledge of how evolution works - a vital part of conserving our biological diversity.