Chip liquid chromatography-inductively coupled plasma-mass spectrometry: a new hyphenated microfluidic instrument for metallomics. An alliance of two Australian universities and a world-leading scientific instrument company will develop innovative technology that will enable new reliable, sensitive and patient-specific medical tests, as well as being used to probe causes of significant diseases that appear to involve trace levels of metals in the body.
Multiplexed bio-imaging mass spectrometry. This project aims to develop technology for simultaneous three-dimensional imaging of trace elements and molecules in biological tissues. This technology is an essential analytical and diagnostic advance to uncover latent mechanistic biology and will reveal subtle metabolic interactions between cells. The project will use laser ablation-inductively coupled plasma-mass spectrometry and lanthanide-conjugated probes to map the zinc metabolic pathway in the ....Multiplexed bio-imaging mass spectrometry. This project aims to develop technology for simultaneous three-dimensional imaging of trace elements and molecules in biological tissues. This technology is an essential analytical and diagnostic advance to uncover latent mechanistic biology and will reveal subtle metabolic interactions between cells. The project will use laser ablation-inductively coupled plasma-mass spectrometry and lanthanide-conjugated probes to map the zinc metabolic pathway in the ageing mouse brain. It is expected to result in a complete imaging solution for quantitative spatial determination of all important elements, co-factors, metabolites and other functional molecules to investigate metabolic pathways which current technologies find difficult or impossible to track. Ultimately this technology is expected to underpin investigations of diseases where trace metal and chemical species dysfunction is implicated.Read moreRead less
Linkage Infrastructure, Equipment And Facilities - Grant ID: LE0346903
Funder
Australian Research Council
Funding Amount
$250,000.00
Summary
LC-MS system for Faculty of Sciences, U.N.E. LC-MS is a technique for investigating the composition of complex mixtures and identifying its components. This instrumentation will be utilised at UNE in a diverse range of analytical investigations to further the research aims of scientists in chemistry, biological sciences, archaeology, physics, environmental sciences, marine science as well as biological researchers in specialised units based at UNE. The extraordinarily versatile capacity of this ....LC-MS system for Faculty of Sciences, U.N.E. LC-MS is a technique for investigating the composition of complex mixtures and identifying its components. This instrumentation will be utilised at UNE in a diverse range of analytical investigations to further the research aims of scientists in chemistry, biological sciences, archaeology, physics, environmental sciences, marine science as well as biological researchers in specialised units based at UNE. The extraordinarily versatile capacity of this technique for analysis and identification of organic substances, from small molecules through to large proteins and complex plant and animal metabolites, will provide impetus for existing research and stimulus for new research directions.Read moreRead less
Discovery Early Career Researcher Award - Grant ID: DE120100467
Funder
Australian Research Council
Funding Amount
$375,000.00
Summary
Unravelling the intrinsic structure and stability of multiply charged anions in the gas-phase using photoelectron spectroscopy and mass spectrometry. Molecules possessing multiple negative charges are common constituents in chemistry, influencing a range of processes ranging from photochemical smog formation to protein structure in vivo. This project will develop new technologies to probe their molecular structure in the gas-phase, leading to a more rigorous understanding of these species.
Differential Isotope Proteome Mapping of Transforming Growth Factor Beta Cell Signalling. Our research will capitalise on Australia's expertise and prior infrastructure investments in frontier, proteomic technologies to elucidate novel intracellular signalling pathways that contribute to the development of cancer. New approaches will be developed using isotopes to provide sensitive and accurate measurements of changes in protein expression levels. This technology will allow us to define complex ....Differential Isotope Proteome Mapping of Transforming Growth Factor Beta Cell Signalling. Our research will capitalise on Australia's expertise and prior infrastructure investments in frontier, proteomic technologies to elucidate novel intracellular signalling pathways that contribute to the development of cancer. New approaches will be developed using isotopes to provide sensitive and accurate measurements of changes in protein expression levels. This technology will allow us to define complex intracellular signalling networks. This is an important step towards identifying new drug targets that are responsible for tumour growth. Australian science will benefit from the training of new scientists in modern, post-genome technologies where there is currently a world shortage of experienced personnel.Read moreRead less
Discovery Early Career Researcher Award - Grant ID: DE180100194
Funder
Australian Research Council
Funding Amount
$374,200.00
Summary
Quantitative three-dimensional imaging of membrane proteins. This project aims to address the challenge of in-situ quantification of membrane proteins through the emerging field of antibody-imaging mass spectrometry. The project will develop new protocols for quantitative three-dimensional imaging that aim to negate histological artifacts created by freeze-thaw and cryo-sectioning. Membrane proteins are involved in numerous cellular functions and this project expects to increase our knowledge o ....Quantitative three-dimensional imaging of membrane proteins. This project aims to address the challenge of in-situ quantification of membrane proteins through the emerging field of antibody-imaging mass spectrometry. The project will develop new protocols for quantitative three-dimensional imaging that aim to negate histological artifacts created by freeze-thaw and cryo-sectioning. Membrane proteins are involved in numerous cellular functions and this project expects to increase our knowledge of these fundamental biological processes by providing new insights into the study of these essential biomolecules. Tracking protein heterogeneity in three-dimensions will provide significant benefits to our understanding of systems biology and will benefit numerous area, including the pharmaceutical industry.Read moreRead less
Visualising below the tip of the proteome iceberg. Proteomics attempts to understand human biology by examining the protein components of cells and tissues. Unfortunately, currently available technology only allows approximately 10% of the complexity of these cells and tissues to be concurrently investigated. This project will the physical, chemical and functional properties of protein classes for enrichment, as well as improve technologies for protein visualization, identification and character ....Visualising below the tip of the proteome iceberg. Proteomics attempts to understand human biology by examining the protein components of cells and tissues. Unfortunately, currently available technology only allows approximately 10% of the complexity of these cells and tissues to be concurrently investigated. This project will the physical, chemical and functional properties of protein classes for enrichment, as well as improve technologies for protein visualization, identification and characterization. These approaches will allow the scientific community to further mine beneath the surface of the proteomics 'iceberg'.Read moreRead less
On-fibre separation science with ambient ionisation mass spectrometry. This project aims to combine fibre-based electrofluidics and ambient ionisation mass spectrometry. Fibre-based electrophoresis is a separation technology which is cheaper, simpler and faster than pre-MS analyses. This project will use the fibre simultaneously as the ionisation platform for ambient mass spectrometry, combining the processes of separation and ionisation in a portable and flexible platform. The developed technol ....On-fibre separation science with ambient ionisation mass spectrometry. This project aims to combine fibre-based electrofluidics and ambient ionisation mass spectrometry. Fibre-based electrophoresis is a separation technology which is cheaper, simpler and faster than pre-MS analyses. This project will use the fibre simultaneously as the ionisation platform for ambient mass spectrometry, combining the processes of separation and ionisation in a portable and flexible platform. The developed technology is expected to provide new capability in bioanalysis, proteomics and rapid clinical diagnostics. Future benefits may include new commercial fibre based technologies which could be applied within industrial and clinical laboratories within the next ten years.Read moreRead less
Linkage Infrastructure, Equipment And Facilities - Grant ID: LE0454207
Funder
Australian Research Council
Funding Amount
$311,381.00
Summary
New Technology to Fight Crime and Terrorism: Laser Ablation Inductively Coupled Plasma Mass Spectrometer Facilities (LA-ICP-MS). Australia urgently needs new technologies to prevent and fight crime and terrorism. This equipment will address current outstanding problems in forensic science and related disciplines, namely the requirement to (1) analyse minute quantities of samples, (2) differentiate samples with similar matrices but trace differences, (3) analyse solid samples that are difficult t ....New Technology to Fight Crime and Terrorism: Laser Ablation Inductively Coupled Plasma Mass Spectrometer Facilities (LA-ICP-MS). Australia urgently needs new technologies to prevent and fight crime and terrorism. This equipment will address current outstanding problems in forensic science and related disciplines, namely the requirement to (1) analyse minute quantities of samples, (2) differentiate samples with similar matrices but trace differences, (3) analyse solid samples that are difficult to analyse by current techniques. This equipment is also vital for research which will improve the justice system, the quality of food and health products and increase industry competitiveness through novel industrial and environmental testing. Acquiring this infrastructure will safeguard and ensure Australia's continuing prosperity.Read moreRead less
Development of ozone-induced dissociation for lipidomics workflows. An Australian invention (ozone induced dissociation) will be developed in collaboration with a major instrument manufacturer. This project will provide Australian researchers with unique capabilities to investigate the role of lipids (fats) in human disease and will place them at the forefront of lipid research internationally.