Linkage Infrastructure, Equipment And Facilities - Grant ID: LE0882289
Funder
Australian Research Council
Funding Amount
$520,000.00
Summary
New generation mass spectrometers for characterisation of molecular shape and size. The ion mobility mass spectrometer (IMMS at UOW) will be the first of its kind in Australia, and together with the ion trap mass spectrometer (ITMS at ANU) will continue the tradition of this partnership in providing researchers with cutting-edge instrumentation for nationally and internationally important projects including: (i) fundamental understanding of the ways in which biomolecules recognize one another, ( ....New generation mass spectrometers for characterisation of molecular shape and size. The ion mobility mass spectrometer (IMMS at UOW) will be the first of its kind in Australia, and together with the ion trap mass spectrometer (ITMS at ANU) will continue the tradition of this partnership in providing researchers with cutting-edge instrumentation for nationally and internationally important projects including: (i) fundamental understanding of the ways in which biomolecules recognize one another, (ii) investigating the structure(s) of lipids (fats) in cardiovascular disease and cataract, (iii) developing anticancer drugs, and (iv) development of new materials.Read moreRead less
The discovery and validation of novel drug classes against parasites with the potential for major economic impacts. This project will develop a quality scientific and technological program in national priority areas, leading to a strong basic research, new concepts and the enhanced international collaborative links; strengthen links between basic and applied research, and academia and industry; develop excellence via pan-Australian collaborations, resulting in a more efficient use of resources i ....The discovery and validation of novel drug classes against parasites with the potential for major economic impacts. This project will develop a quality scientific and technological program in national priority areas, leading to a strong basic research, new concepts and the enhanced international collaborative links; strengthen links between basic and applied research, and academia and industry; develop excellence via pan-Australian collaborations, resulting in a more efficient use of resources in a national and international context; enhance the skills-base in biology, biotechnology and chemistry; increase global visibility with increased investment in Australian science; improve animal welfare and production via improved control of infectious diseases; producing commercial products with benefits to agricultural producers in regional & rural communities.Read moreRead less
From Chemical Architecture to Protein Surfaces. Creation of small stable molecules that reproduce key functions of important protein surfaces, would be a significant technology breakthrough with many important potential applications in science, medicine & industry. As new scientific tools they could be used to interrogate biological systems & implicate specific protein surfaces in biological/disease mechanisms. As leads to new medicines (pharmaceuticals, vaccines, diagnostics), they could offer ....From Chemical Architecture to Protein Surfaces. Creation of small stable molecules that reproduce key functions of important protein surfaces, would be a significant technology breakthrough with many important potential applications in science, medicine & industry. As new scientific tools they could be used to interrogate biological systems & implicate specific protein surfaces in biological/disease mechanisms. As leads to new medicines (pharmaceuticals, vaccines, diagnostics), they could offer new ways of impacting on infection, diseases of the aged, & preventative medicine (National Research Priorities). As new intellectual property, the technology has the potential to advance basic science at the chemistry-biology interface while providing new economic opportunities for Australia.Read moreRead less
Proteomics of the Influenza Virus for In-field Surveillance. The influenza virus continues to pose a serious health risk to Australians and remains a leading cause of death. The molecular characterisation of emerging strains of the virus lies at the heart of current surveillance procedures vital to vaccine preparation and the development of new anti-viral drugs. This research will advance a world-first proteomics surveillance of the virus developed in this laboratory that will enable it to be ch ....Proteomics of the Influenza Virus for In-field Surveillance. The influenza virus continues to pose a serious health risk to Australians and remains a leading cause of death. The molecular characterisation of emerging strains of the virus lies at the heart of current surveillance procedures vital to vaccine preparation and the development of new anti-viral drugs. This research will advance a world-first proteomics surveillance of the virus developed in this laboratory that will enable it to be characterised in-field at the site(s) of infection outbreaks. This rapid response is vital, particularly in the event of a pandemic or a deliberate release of the virus in a bioterrorist attack.Read moreRead less
Linkage Infrastructure, Equipment And Facilities - Grant ID: LE0346895
Funder
Australian Research Council
Funding Amount
$450,000.00
Summary
A Mass Directed Molecular Resolution Laboratory. The proposed "Mass Directed Molecular Resolution Laboratory" combines an integrated suite of instrumentation housed in purpose built laboratories with technical expertise to provide an unique "one stop shop" to meet the burgeoning mass spectrometry needs of the chemical community in the Melbourne area. This truly collaborative effort will service the needs of 17 research groups with 92 PhD students and post doctoral researchers and will enhance ex ....A Mass Directed Molecular Resolution Laboratory. The proposed "Mass Directed Molecular Resolution Laboratory" combines an integrated suite of instrumentation housed in purpose built laboratories with technical expertise to provide an unique "one stop shop" to meet the burgeoning mass spectrometry needs of the chemical community in the Melbourne area. This truly collaborative effort will service the needs of 17 research groups with 92 PhD students and post doctoral researchers and will enhance existing excellence in a range of areas. Finally, the laboratory will provide opportunities to: collaborate and consult with industry; train postgraduate students in instrumentation used at the cutting edge of chemical and biochemical sciences.Read moreRead less
Structure and activity of host-defence peptides from Australian anurans: anticancer agents, neuropeptides and nNOS inhibitors. We have discovered peptides that may have clinical applications. This is significant as these molecules may have one or more of the following properties. They may have anti-cancer effects; they may increase the effectiveness of the immune system by enhancing lymphocyte formation; and, they may act to reduce inflammation, stroke or cardiac conditions by controlling nitri ....Structure and activity of host-defence peptides from Australian anurans: anticancer agents, neuropeptides and nNOS inhibitors. We have discovered peptides that may have clinical applications. This is significant as these molecules may have one or more of the following properties. They may have anti-cancer effects; they may increase the effectiveness of the immune system by enhancing lymphocyte formation; and, they may act to reduce inflammation, stroke or cardiac conditions by controlling nitric oxide formation. Another national benefit is that personnel involved in this project are trained to the highest international standards in peptide chemistry/mass spectrometry/nuclear magnetic resonance: currently, there are not enough trained scientists in this area to meet demand.Read moreRead less
Gas Phase Dynamics of a Biological Molecular Machine: Fundamentals, Stoichiometries and Stabilities. Over the last twenty years advanced molecular measurement techniques have enabled the characterization of individual biological molecules (proteins and DNA) within different types of cells and diseased tissues. This project uses a new technique that literally "weighs" groups of proteins and/or DNA to help us understand how such large molecules fit together and function within cells (sometimes ref ....Gas Phase Dynamics of a Biological Molecular Machine: Fundamentals, Stoichiometries and Stabilities. Over the last twenty years advanced molecular measurement techniques have enabled the characterization of individual biological molecules (proteins and DNA) within different types of cells and diseased tissues. This project uses a new technique that literally "weighs" groups of proteins and/or DNA to help us understand how such large molecules fit together and function within cells (sometimes referred to as molecular machinery). More detailed knowledge of processes such as those involved in copying DNA when new cells are produced will, in the long term, improve our understanding and treatment of conditions or diseases that result from errors in molecular machinery. Read moreRead less
Development of metal probes for the selective recognition of DNA. Transition metal complexes with large aromatic ligands have recently been shown to bind DNA by intercalation. However, controversy continues over their base sequence and groove selectivity. We will synthesise a range of chiral metal complexes and screen these against combinatorial oligonucleotide libraries to determine their base sequence selectivity. The information obtained will help us design better intercalators that can be us ....Development of metal probes for the selective recognition of DNA. Transition metal complexes with large aromatic ligands have recently been shown to bind DNA by intercalation. However, controversy continues over their base sequence and groove selectivity. We will synthesise a range of chiral metal complexes and screen these against combinatorial oligonucleotide libraries to determine their base sequence selectivity. The information obtained will help us design better intercalators that can be used as sensitive molecular probes and may find application as antitumour drugs. Binding interaction between the complex and DNA will be studied by NMR spectroscopy.Read moreRead less
Electron transfer in proteins, a study of mechanism and function. Our research will probe the mechanisms by which nature's living systems build, maintain, and reproduce. We present an ability to understand these processes at a detailed molecular level using science and technology at the forefront of multidisciplinary research. The research will provide a foundation for new smart materials, technologies and future industries, and also ways forward for future basic scientific research and endeavo ....Electron transfer in proteins, a study of mechanism and function. Our research will probe the mechanisms by which nature's living systems build, maintain, and reproduce. We present an ability to understand these processes at a detailed molecular level using science and technology at the forefront of multidisciplinary research. The research will provide a foundation for new smart materials, technologies and future industries, and also ways forward for future basic scientific research and endeavor. All this is done with the best international researchers and capabilities within a local environment that will help to train the next generation of Australian scientists.Read moreRead less
Experimental Charge Density Studies of Hydrogen Bonding. Hydrogen bonds, vital to all biological systems, exhibit extreme variation in chemical properties. Experimental analysis of hydrogen bonds, independent from previous theories and hypotheses, by using an expansion of current high resolution, ultra-low temperature X-ray crystallography is now possible. This allows experimental observation of electronic and electrostatic properties of previously unstudied hydrogen bonds, including weak hydrog ....Experimental Charge Density Studies of Hydrogen Bonding. Hydrogen bonds, vital to all biological systems, exhibit extreme variation in chemical properties. Experimental analysis of hydrogen bonds, independent from previous theories and hypotheses, by using an expansion of current high resolution, ultra-low temperature X-ray crystallography is now possible. This allows experimental observation of electronic and electrostatic properties of previously unstudied hydrogen bonds, including weak hydrogen bonds and those involving metal atoms. Comparison of experimental observations with predictions from high-level theoretical calculations and finally incorporation of these parameters into a prototype force field for computational chemistry will allow better predictions to be made in a range of areas including medicinal and materials chemistry.Read moreRead less