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
Androgen receptor: A master regulator of lipid metabolism. This project aims to understand how male sex hormones, or androgens, affect the amount and metabolism of fats in normal body tissues. By integrating our multi-disciplinary expertise in androgen action, molecular biology, metabolism and bioinformatics with novel techniques and instrumentation, this collaboration expects to generate the first detailed picture of how fat metabolism is controlled by androgens in humans, and how closely this ....Androgen receptor: A master regulator of lipid metabolism. This project aims to understand how male sex hormones, or androgens, affect the amount and metabolism of fats in normal body tissues. By integrating our multi-disciplinary expertise in androgen action, molecular biology, metabolism and bioinformatics with novel techniques and instrumentation, this collaboration expects to generate the first detailed picture of how fat metabolism is controlled by androgens in humans, and how closely this relates to mice. Expected outcomes and benefits will be a new understanding of which aspects of fat metabolism are most influenced by androgens, and an ability to anticipate potential metabolic impacts of natural or pharmacological fluctuations in androgen levels in humans, laboratory animals and livestock.Read moreRead less
Characterisation of novel gene products that regulate phospholipid metabolism and lipid droplet formation in the yeast saccharomyces cerevisiae. This project aims to study gene products that control lipid storage in the form of lipid droplets. The biogenesis and composition of lipid droplets in plant seeds or algae determine the quantity and quality of oil/biodiesel production.
Dairy Milk Phospholipids in the Prevention of Atherosclerosis. The present project is expected to provide novel information pertaining to the separation of phospholipid (PL) fractions from buttermilk. In addition, it will generate scientific/medical knowledge concerning the use of dietary PL preparations in the prevention of arterial atherosclerosis. Together, this innovative research will help support the commercial development of PL separation from buttermilk. It will also lay the ground-wo ....Dairy Milk Phospholipids in the Prevention of Atherosclerosis. The present project is expected to provide novel information pertaining to the separation of phospholipid (PL) fractions from buttermilk. In addition, it will generate scientific/medical knowledge concerning the use of dietary PL preparations in the prevention of arterial atherosclerosis. Together, this innovative research will help support the commercial development of PL separation from buttermilk. It will also lay the ground-work for additional studies into the therapeutic benefit of dietary PLs and the commercialization of milk PL as a nutraceutical or functional food. The present project thus has significant academic, commercial and therapeutic value of potential benefit to all Australians.Read moreRead less
Targeting brain lipid homeostasis to treat Alzheimer's disease. Dementia affects approximately 250,000 people in Australia at an estimated cost (in 2002) of $6.6 billion per annum. The major cause of dementia (accounting for approximately 70% of all cases) is Alzheimer's disease (AD); a progressive neurodegenerative illness for which there is no curative or disease-stalling treatment. Due to increases in life expectancy, the incidence of AD is predicted to triple by 2050 unless disease-modifying ....Targeting brain lipid homeostasis to treat Alzheimer's disease. Dementia affects approximately 250,000 people in Australia at an estimated cost (in 2002) of $6.6 billion per annum. The major cause of dementia (accounting for approximately 70% of all cases) is Alzheimer's disease (AD); a progressive neurodegenerative illness for which there is no curative or disease-stalling treatment. Due to increases in life expectancy, the incidence of AD is predicted to triple by 2050 unless disease-modifying treatments are developed. This research program will provide novel realistic pharmaceutical approaches to treat AD. Even if the onset of AD could be delayed by a few years the personal and financial benefits would be enormous. The potential for this research to generate commercially viable Australian intellectual property is also significant.Read moreRead less
Identifying tear lipids, their deposition onto contact lenses and their role in the development of dry eye. Lipids provide a critical layer in the human tear film that retards evaporation and helps nourish and protect the eye. We will identify the molecules within this essential "oil slick" to better understand dry eye syndrome and the discomfort associated with wearing contact lenses. This may lead to new treatments for dry eye and novel technologies that provide greater comfort for the ~120,00 ....Identifying tear lipids, their deposition onto contact lenses and their role in the development of dry eye. Lipids provide a critical layer in the human tear film that retards evaporation and helps nourish and protect the eye. We will identify the molecules within this essential "oil slick" to better understand dry eye syndrome and the discomfort associated with wearing contact lenses. This may lead to new treatments for dry eye and novel technologies that provide greater comfort for the ~120,000 Australians who wear contact lenses. This collaborative research directly supports the mission of a respected non-profit organisation (Institute for Eye Research) and will train scientists in world-leading analytical technologies that are essential to Australia's emerging biotechnology industries.Read moreRead less
Genome wide screening for gene products that regulate the celluar dynamics of lipid droplets. Obesity is a pandemic that if not stopped, will lead to huge social and economic problems in Australia. In essence, the hallmark of human obesity is the accumulation of cellular lipid droplets. This research will benefit Australia by providing a fundamental understanding of how lipid droplets are formed. This will have immediate international impact at the scientific level and will also provide novel ta ....Genome wide screening for gene products that regulate the celluar dynamics of lipid droplets. Obesity is a pandemic that if not stopped, will lead to huge social and economic problems in Australia. In essence, the hallmark of human obesity is the accumulation of cellular lipid droplets. This research will benefit Australia by providing a fundamental understanding of how lipid droplets are formed. This will have immediate international impact at the scientific level and will also provide novel targets and strategies for treating obesity. The proposed study will also benefit Australian agriculture by providing strategies to improve oil production from plant seeds. Read moreRead less
Linkage Infrastructure, Equipment And Facilities - Grant ID: LE0989078
Funder
Australian Research Council
Funding Amount
$400,000.00
Summary
Unique, state-of-the-art lipidomics infrastructure. The new technologies provided through this grant will significantly enhance our understanding of lipids and their role in normal cell biology and disease. These new insights will be vital in improving our understanding of lipid-related disorders such obesity, type 2 diabetes and cardiovascular disease and helping to improve their treatment and prevention.
Lipidomics Associated with Metabolic Syndrome, Aging and Metabolic Variation between Species. The aim is to apply state-of?the-art mass spectrometry to identify and quantify alterations in membrane lipidomes (i.e. lipid classes, molecular species, structure alterations and by-products) related to two major health problems facing Australia i.e. the Metabolic Syndrome and an Ageing population plus insight into the variation in metabolic rate between organisms. This research offers the opportunity ....Lipidomics Associated with Metabolic Syndrome, Aging and Metabolic Variation between Species. The aim is to apply state-of?the-art mass spectrometry to identify and quantify alterations in membrane lipidomes (i.e. lipid classes, molecular species, structure alterations and by-products) related to two major health problems facing Australia i.e. the Metabolic Syndrome and an Ageing population plus insight into the variation in metabolic rate between organisms. This research offers the opportunity for the development of mass spectrometry based technologies for the early clinical diagnosis of metabolic disorders plus provides a template of information for our Linkage partner (AstraZeneca) to develop pharmaceutical therapies targeting key molecular lipid species identified as critical to particular membrane functions.Read moreRead less
Lipidomics of vision. Presbyopia and cataract are the major causes of visual impairment worldwide. Nevertheless, our understanding of lens ageing at both a cellular and molecular level is limited. This project will gain new insight into the effect of age on lens membrane lipids and their role in the development of presbyopia and cataract.