Discovery Early Career Researcher Award - Grant ID: DE200100620
Funder
Australian Research Council
Funding Amount
$424,856.00
Summary
Phenotypic plasticity of reef fish vision in a changing world. This project aims to investigate why fishes have more colour vision channels than any other vertebrate on the planet by studying representatives from the most vibrant ecosystem on earth, the Great Barrier Reef. It is currently not clear how vision is controlled on the molecular level and how this translates to the performance and survival of an animal. Through an innovative approach to understanding colour vision and animal behaviour ....Phenotypic plasticity of reef fish vision in a changing world. This project aims to investigate why fishes have more colour vision channels than any other vertebrate on the planet by studying representatives from the most vibrant ecosystem on earth, the Great Barrier Reef. It is currently not clear how vision is controlled on the molecular level and how this translates to the performance and survival of an animal. Through an innovative approach to understanding colour vision and animal behaviour, this project expects to advance Australia’s leadership in neuroscience and ecology, while also increasing the capacity for international collaborations. Beyond the scientific benefit, it will create public awareness about an endangered ecosystem, inform reef guardianship and may inspire new sensory technology.Read moreRead less
Unravelling the principles of bilateral brain wiring. This project seeks to investigate the molecular principles of brain wiring in mammals and how small changes can generate complex outcomes. Neurons in the mammalian brain must be precisely wired together for the brain to function correctly. The project aims to identify the molecular and cellular rules governing commissural wiring in the mammalian cortex to determine how the largest fibre tract in the human brain, the corpus callosum, evolved. ....Unravelling the principles of bilateral brain wiring. This project seeks to investigate the molecular principles of brain wiring in mammals and how small changes can generate complex outcomes. Neurons in the mammalian brain must be precisely wired together for the brain to function correctly. The project aims to identify the molecular and cellular rules governing commissural wiring in the mammalian cortex to determine how the largest fibre tract in the human brain, the corpus callosum, evolved. This may have involved modifications in mechanisms affecting axon guidance that differ between placentals and marsupials. The project investigates the regulatory gene networks determining commissural neuron fate, the regulation of axon guidance components, and the influence of surrounding brain tissue on the development of commissural connections.Read moreRead less
Origins of Parasitism in the Psocodea (Insecta). The Psocodea has 2 groups: the lice and the psocopterans (the psocids and their kin). The lice are parasites whereas the psocopterans are free-living. The Psocodea are a unique model-system that will allow us to discover the processes that preadapt arthropods for parasitism and the processes that facilitate "explosive" radiations of arthropods once they become parasites. We will infer evolutionary trees for these insects from 3 genes. Then we ....Origins of Parasitism in the Psocodea (Insecta). The Psocodea has 2 groups: the lice and the psocopterans (the psocids and their kin). The lice are parasites whereas the psocopterans are free-living. The Psocodea are a unique model-system that will allow us to discover the processes that preadapt arthropods for parasitism and the processes that facilitate "explosive" radiations of arthropods once they become parasites. We will infer evolutionary trees for these insects from 3 genes. Then we will use these trees to track the evolution of feeding, attachment, senses and reproduction through evolutionary time. Our work should provide unprecedented insight into the evolution of parasitism in the arthropods.Read moreRead less
Macrophage control of mammalian growth and development. The immediate postnatal period in mammals is crucial for survival, long term health and productivity. This project is an international collaboration that aims to investigate how cells of the innate immune system called macrophages control somatic growth and development of mature organ function in the early postnatal period. The project aims to build upon investment in new animals models and a novel discovery to generate significant new know ....Macrophage control of mammalian growth and development. The immediate postnatal period in mammals is crucial for survival, long term health and productivity. This project is an international collaboration that aims to investigate how cells of the innate immune system called macrophages control somatic growth and development of mature organ function in the early postnatal period. The project aims to build upon investment in new animals models and a novel discovery to generate significant new knowledge that will challenge current concepts of mammalian growth control. The outcomes will enhance Australia's international reputation in the fields of physiology, immunology and developmental biology. Read moreRead less
Cellular Ageing: Is the Plasma Membrane the Control Hub? This project aims to determine whether the plasma membrane lipid composition is a major driver of cellular ageing. It expects to generate new knowledge in the molecular mechanism of cellular ageing, utilising our team’s deep expertise in lipid biology, bioinformatics, biophysics, extracellular vesicle biology and cellular ageing. Expected outcomes include the identification of novel cellular ageing markers and anti-ageing targets while als ....Cellular Ageing: Is the Plasma Membrane the Control Hub? This project aims to determine whether the plasma membrane lipid composition is a major driver of cellular ageing. It expects to generate new knowledge in the molecular mechanism of cellular ageing, utilising our team’s deep expertise in lipid biology, bioinformatics, biophysics, extracellular vesicle biology and cellular ageing. Expected outcomes include the identification of novel cellular ageing markers and anti-ageing targets while also cementing long-standing partnerships and fostering new interdisciplinary collaborations. This cellular ageing study will provide novel insights into the basic principles of cellular behaviour, e.g. growth, differentiation, communication and death, reinforcing Australia’s leadership in biological science.Read moreRead less
Marine sponge–microbe interactions and the origin of animal innate immunity. This project aims to address how the animal innate immune system evolved to discriminate between potential pathogens versus beneficial symbionts by studying a marine sponge holobiont. Using advanced genomic and cellular approaches, the project will uncover deeply conserved regulatory pathways used by the cells of sponges, humans and other animals, and thereby identify cardinal rules governing animal innate immunity and ....Marine sponge–microbe interactions and the origin of animal innate immunity. This project aims to address how the animal innate immune system evolved to discriminate between potential pathogens versus beneficial symbionts by studying a marine sponge holobiont. Using advanced genomic and cellular approaches, the project will uncover deeply conserved regulatory pathways used by the cells of sponges, humans and other animals, and thereby identify cardinal rules governing animal innate immunity and its evolutionary origin. The project will provide an understanding of how beneficial microbial symbionts are recruited and maintained by animals, and are instrumental to the health of our environment and all its inhabitants.Read moreRead less
Unravelling reef fish vision through gene-editing and behavioural ecology. This project aims to enhance understanding of visual neuroscience, genetic control of vision and environmental ecology on The Great Barrier Reef (GBR). Using the anemonefish as a model, together with new genetic, photographic and behavioural approaches, the project aims to reveal novel aspects of colour vision on the reef. Outcomes beyond multiple scientific disciplines include enhanced international collaboration and bui ....Unravelling reef fish vision through gene-editing and behavioural ecology. This project aims to enhance understanding of visual neuroscience, genetic control of vision and environmental ecology on The Great Barrier Reef (GBR). Using the anemonefish as a model, together with new genetic, photographic and behavioural approaches, the project aims to reveal novel aspects of colour vision on the reef. Outcomes beyond multiple scientific disciplines include enhanced international collaboration and building capacity for improved reef guardianship. The benefits are scientific discovery in multiple areas, providing greater community understanding of complex science and a desire to preserve the GBR for future generations.Read moreRead less
Molecular control of postnatal heart development. This project aims to improve our understanding of how the heart develops after birth and the molecules that control this process. Recent advances in tissue engineering have opened up opportunities for the generation of synthetic tissues but these studies have also highlighted a fundamental knowledge gap in our understanding of how complex tissues mature to prepare for life as an adult. Much is known about the molecules that control early embryoni ....Molecular control of postnatal heart development. This project aims to improve our understanding of how the heart develops after birth and the molecules that control this process. Recent advances in tissue engineering have opened up opportunities for the generation of synthetic tissues but these studies have also highlighted a fundamental knowledge gap in our understanding of how complex tissues mature to prepare for life as an adult. Much is known about the molecules that control early embryonic development but little is known about the molecules that control maturation after birth. This project aims to build new knowledge that is expected to improve our ability to generate mature heart muscle cells for stem cell applications, tissue repair and regeneration.Read moreRead less
Understanding specificity and flexibility in coral symbioses. This project aims to understand why some corals can switch algal partners while others remain faithful to a single strain. This is important because corals depend on their symbiotic algal partners for survival and because some algae provide greater resilience to environmental stress than others. This project will greatly enhance our understanding of the molecular and physiological factors governing flexibility and specificity in coral ....Understanding specificity and flexibility in coral symbioses. This project aims to understand why some corals can switch algal partners while others remain faithful to a single strain. This is important because corals depend on their symbiotic algal partners for survival and because some algae provide greater resilience to environmental stress than others. This project will greatly enhance our understanding of the molecular and physiological factors governing flexibility and specificity in coral-algal symbioses. It will provide much-needed knowledge required to identify associations most appropriate for specific conditions, prioritise populations for conservation, and assess the feasibility of new approaches to managing and restoring coral reefs.
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Is SPINT1 a key regulator of placental development? . The placenta is an essential organ required for reproduction in placental species. This project aims to elucidate the fundamental biology of SPINT1 in placental development. It will generate new knowledge about whether the spatial and temporal expression of SPINT1 is conserved across several species; cow, sheep, lizard, mouse and human. It will also define the molecular mechanisms by which SPINT1 directs formation, maturation and expansion o ....Is SPINT1 a key regulator of placental development? . The placenta is an essential organ required for reproduction in placental species. This project aims to elucidate the fundamental biology of SPINT1 in placental development. It will generate new knowledge about whether the spatial and temporal expression of SPINT1 is conserved across several species; cow, sheep, lizard, mouse and human. It will also define the molecular mechanisms by which SPINT1 directs formation, maturation and expansion of the placental exchange interface which is critical for offspring survival.
The project will increase understanding of placental development, enhance collaboration and research knowhow, and promote future applied projects in all species that reproduce via placental support.Read moreRead less