NEURAL MECHANISMS UNDERLYING VISUAL CONTROL OF FLIGHT IN HONEYBEES. Recent behavioural studies of freely flying bees have uncovered novel principles by which bees regulate flight speed, avoid collisions with obstacles, orchestrate smooth landings and estimate distance flown. This is a proposal to investigate the neural mechanisms that mediate these behaviours. The results will provide new insights into the mechanisms subserving flight control and navigation, as well as suggest innovative, biolog ....NEURAL MECHANISMS UNDERLYING VISUAL CONTROL OF FLIGHT IN HONEYBEES. Recent behavioural studies of freely flying bees have uncovered novel principles by which bees regulate flight speed, avoid collisions with obstacles, orchestrate smooth landings and estimate distance flown. This is a proposal to investigate the neural mechanisms that mediate these behaviours. The results will provide new insights into the mechanisms subserving flight control and navigation, as well as suggest innovative, biologically inspired stratagems for the guidance of autonomous aerial vehicles, with applications in national defence and planetary exploration.Read moreRead less
Force from lipids: the role of the lipid bilayer in mechanosensory transduction. The proposed research will significantly contribute to a better understanding of the wide range of physiological processes underlying mechanosensory transduction in living cells. The direct benefit for Australian science consists of: (i) strengthening international links with leading overseas laboratories, and (ii) accessing the state-of-the-art expertise not available in Australia. The acquired knowledge will aid i ....Force from lipids: the role of the lipid bilayer in mechanosensory transduction. The proposed research will significantly contribute to a better understanding of the wide range of physiological processes underlying mechanosensory transduction in living cells. The direct benefit for Australian science consists of: (i) strengthening international links with leading overseas laboratories, and (ii) accessing the state-of-the-art expertise not available in Australia. The acquired knowledge will aid in developing and designing artificial tactile sensors inspired by their biological models studied in this project. Long-term, the project is expected to make an original contribution towards developing new technologies and novel medical applications, both of which promise to be of great national benefit.Read moreRead less
Learning and memory in the honeybee: Task-dependent brain development. We wish to explore whether the development of specific brain regions in young bees depends upon the nature of the learning task in which they are engaged. We will examine tasks that involve two sensory modalities: olfaction and vision, both of which are important to successful foraging. The relative ease with which bees can be trained, and their nervous systems accessed, make them a very attractive subject in which to study f ....Learning and memory in the honeybee: Task-dependent brain development. We wish to explore whether the development of specific brain regions in young bees depends upon the nature of the learning task in which they are engaged. We will examine tasks that involve two sensory modalities: olfaction and vision, both of which are important to successful foraging. The relative ease with which bees can be trained, and their nervous systems accessed, make them a very attractive subject in which to study fundamental principles of learning and memory that may span a variety of organisms.Read moreRead less
Higher cognitive functions emerging from a small brain. The honeybee is becoming one of the most attractive model systems in which to study processes of learning, memory and cognition, given its rich and flexible behaviour, its relatively simple nervous system, and a genome that is on the verge of being sequenced. We intend to examine how bees learn rules, associations, concepts and categories, and to uncover some of the underlying neuronal substrates. The results should illuminate fundamental p ....Higher cognitive functions emerging from a small brain. The honeybee is becoming one of the most attractive model systems in which to study processes of learning, memory and cognition, given its rich and flexible behaviour, its relatively simple nervous system, and a genome that is on the verge of being sequenced. We intend to examine how bees learn rules, associations, concepts and categories, and to uncover some of the underlying neuronal substrates. The results should illuminate fundamental principles of cognitive function across a variety of animal species, and suggest novel approaches to artificial intelligence.Read moreRead less
Linkage Infrastructure, Equipment And Facilities - Grant ID: LE0989788
Funder
Australian Research Council
Funding Amount
$108,481.00
Summary
Nuclear Magnetic Resonance Microimaging and Relaxometry Facility. Many of the research projects to be supported by the facility are dedicated to improving our understanding of conditions and diseases that detrimentally affect many in our community. Projects investigating Alzheimer's disease, the central nervous system and its ability to repair, cancer and associated therapeutic treatments are some of the areas that will benefit from access to this equipment. The new facility will also provide un ....Nuclear Magnetic Resonance Microimaging and Relaxometry Facility. Many of the research projects to be supported by the facility are dedicated to improving our understanding of conditions and diseases that detrimentally affect many in our community. Projects investigating Alzheimer's disease, the central nervous system and its ability to repair, cancer and associated therapeutic treatments are some of the areas that will benefit from access to this equipment. The new facility will also provide unique insights into aspects of fundamental plant biology, with implications for improving crop productivity and better managing our natural ecosystems. The community will also benefit from the development and testing within the facility of new diagnostic tools and markers for a range of diseases.Read moreRead less
Using light to probe brain activity in three dimensions. The project aims to understand information flow in the mammalian brain using simultaneous projection of multiple light probes directed into living brain tissues to manipulate and record brain activity.
Four-dimensional analysis of information processing in brain circuits. Analysing how neurons process information could provide us with knowledge of the basic function of the brain as well as insights to neuropsychiatric disorders. The aim is to understand how does a single neuron process its synaptic inputs to arrive at an output response. To achieve this, the project will follow two approaches: it will study single neurons via in vitro experiments, where spatiotemporal patterns of light stimuli ....Four-dimensional analysis of information processing in brain circuits. Analysing how neurons process information could provide us with knowledge of the basic function of the brain as well as insights to neuropsychiatric disorders. The aim is to understand how does a single neuron process its synaptic inputs to arrive at an output response. To achieve this, the project will follow two approaches: it will study single neurons via in vitro experiments, where spatiotemporal patterns of light stimuli mimic physiological synaptic inputs; and, it will build a unique in vivo microscope to map sensory inputs to neuronal circuits in the intact brain. The first approach provides an accurate analysis of neuronal circuits while the second creates an overall map of cortical processing of sensory inputs from a live animal.Read moreRead less
ARC Research Network for Advanced Materials. Materials science/engineering is decidedly interdisciplinary, covering all science and impacting on all manufacturing industry. This network will promote interactions that do not usually occur between materials researchers and students across Australia and internationally from diverse disciplines. The scope is broadly based on advanced materials production, processing and properties but focused in four areas, involving: i) innovative structural/functi ....ARC Research Network for Advanced Materials. Materials science/engineering is decidedly interdisciplinary, covering all science and impacting on all manufacturing industry. This network will promote interactions that do not usually occur between materials researchers and students across Australia and internationally from diverse disciplines. The scope is broadly based on advanced materials production, processing and properties but focused in four areas, involving: i) innovative structural/functional materials, ii) high-tech IT/communications/sensing materials, iii) materials solutions for manufacturing, iv) materials for a sustainable Australia, and v) emerging materials technologies. Key programs will promote interdisciplinary workshops and early career researcher interactions.Read moreRead less
Linkage Infrastructure, Equipment And Facilities - Grant ID: LE0882701
Funder
Australian Research Council
Funding Amount
$300,000.00
Summary
Establishment of a confocal/multiphoton microscope for imaging of living systems. This facility will allow us to study the dynamic changes in living systems, from the smallest unicellular organisms in the ocean through to the sophisticated neural networks of the living brain. Not only will this imaging facility allow us to understand how living systems work, we will also be able to explore the dynamic changes that underlie human disease and injury.
Improving plant productivity and human health using next generation biotechnology approaches. Both medical and plant sciences face similar technological problems in harnessing the power of modern DNA sequencing for accelerating the pace of beneficial gene function discovery. Plant and animal researchers will collaborate in this program to meet this common challenge. The research outcomes envisaged in this proposal will benefit human health by enabling more rapid discovery of genes related to obe ....Improving plant productivity and human health using next generation biotechnology approaches. Both medical and plant sciences face similar technological problems in harnessing the power of modern DNA sequencing for accelerating the pace of beneficial gene function discovery. Plant and animal researchers will collaborate in this program to meet this common challenge. The research outcomes envisaged in this proposal will benefit human health by enabling more rapid discovery of genes related to obesity, immunity, fertility, neurological function and cancer. In the plant sphere, the outcomes will shed new light on plant functions related to plant energy metabolism, vitamin biosynthesis drought tolerance and water use by crops. The research will benefit both human health and agricultural food production and quality.Read moreRead less