Industrial Transformation Training Centres - Grant ID: IC220100035
Funder
Australian Research Council
Funding Amount
$4,958,927.00
Summary
ARC Training Centre for Hyphenated Analytical Separation Technologies . The toughest analytical science challenges typically require advanced analytical technologies to acquire the desired solutions. In the field of separation science this inevitably involves hyphenated separation technologies, specifically the combination of chromatography and mass spectrometry. Advancing this technology to its full capability requires the collaborative strength of academic, industry and end-user partnerships, ....ARC Training Centre for Hyphenated Analytical Separation Technologies . The toughest analytical science challenges typically require advanced analytical technologies to acquire the desired solutions. In the field of separation science this inevitably involves hyphenated separation technologies, specifically the combination of chromatography and mass spectrometry. Advancing this technology to its full capability requires the collaborative strength of academic, industry and end-user partnerships, providing the materials and inspiration for young researchers to apply novel hyphenated methods to complex environmental and industrial systems. This Centre will deliver fundamental developments in hyphenated technologies, new analytical capability, and applied outcomes across multiple end-user groups and interests. Read moreRead less
Developing next-generation mass spectrometry imaging with isomer resolution. Mass spectrometry imaging (MSI) is a rapidly emerging technology for mapping molecular distributions within biological samples. This project will bring together market-leading MSI instrumentation from the industry partner Waters Corporation with unique technologies developed at QUT and UOW to develop an integrated MSI-platform capable of achieving high mass- and spatial-resolution, as well as discrimination of lipid iso ....Developing next-generation mass spectrometry imaging with isomer resolution. Mass spectrometry imaging (MSI) is a rapidly emerging technology for mapping molecular distributions within biological samples. This project will bring together market-leading MSI instrumentation from the industry partner Waters Corporation with unique technologies developed at QUT and UOW to develop an integrated MSI-platform capable of achieving high mass- and spatial-resolution, as well as discrimination of lipid isomers. Resolution of lipid isomers using this instrumentation will afford researchers a first glimpse of isomer-resolved images that will be used to visualise tissue-specific changes resulting from underlying chemical, physical or metabolic processes; changes that are currently invisible to contemporary imaging technologies.Read moreRead less
Pluses and minuses of lipid mass spectrometry. This project aims to investigate the structural diversity of lipids. Lipids are among the most structurally diverse of all the biomolecules and thus deciphering their many functions requires bio-analytical technologies capable of uniquely identifying and quantifying individual molecules in a milieu of many thousands of analogues. Mass spectrometry is the pre-eminent technique for contemporary lipid analysis but is challenged by the preference of cer ....Pluses and minuses of lipid mass spectrometry. This project aims to investigate the structural diversity of lipids. Lipids are among the most structurally diverse of all the biomolecules and thus deciphering their many functions requires bio-analytical technologies capable of uniquely identifying and quantifying individual molecules in a milieu of many thousands of analogues. Mass spectrometry is the pre-eminent technique for contemporary lipid analysis but is challenged by the preference of certain lipids to ionise with a polarity that affords sensitive detection but does not permit detailed structure elucidation. This project will develop advanced instrumentation capable of on-demand polarity switching of ionised lipids such that the detection and interrogation of molecular structure can take place in the optimal charge state.Read moreRead less
Discovery Early Career Researcher Award - Grant ID: DE240100259
Funder
Australian Research Council
Funding Amount
$445,437.00
Summary
Next Generation Mass Spectrometry for Single-Cell Metabolomics. Characterising metabolites at the single cell level will provide valuable insights into the functionality of individual cells and reveal mechanisms that cannot be observed in bulk cell analysis. To address existing challenges in single-cell metabolite analysis, this project aims to develop an ultra-sensitive nanostructure-initiator mass spectrometry (NIMS) platform, which uses an innovative carbon material with a carefully designed ....Next Generation Mass Spectrometry for Single-Cell Metabolomics. Characterising metabolites at the single cell level will provide valuable insights into the functionality of individual cells and reveal mechanisms that cannot be observed in bulk cell analysis. To address existing challenges in single-cell metabolite analysis, this project aims to develop an ultra-sensitive nanostructure-initiator mass spectrometry (NIMS) platform, which uses an innovative carbon material with a carefully designed nanostructure to enhance detection efficiency. Expected outcomes include the development of a revolutionary carbon assisted NIMS platform for single-cell metabolomics analysis, and valuable intellectual property of commercial interest to provide economic benefit to Australia through technology advancement.Read moreRead less
Using multiple data sources to understand the opioid crisis in Australia . This project aims to improve the quality and integration of population-level data for monitoring the consumption of opioids, licit and illicit, in Queensland communities. The analysis of opioids in wastewater, integrated with opioid use information such as prescription and seizure statistics will vastly increase knowledge of consumption patterns of opioids. By analysing wastewater samples from 2011 and triangulating with ....Using multiple data sources to understand the opioid crisis in Australia . This project aims to improve the quality and integration of population-level data for monitoring the consumption of opioids, licit and illicit, in Queensland communities. The analysis of opioids in wastewater, integrated with opioid use information such as prescription and seizure statistics will vastly increase knowledge of consumption patterns of opioids. By analysing wastewater samples from 2011 and triangulating with other datasets, the expected outcomes include building capacity to estimate consumption of all opioids; detecting the misuse of licit and illicit opioids over time. Anticipated benefit is to provide objective evidence of opioid use patterns for decision makers and a framework for a national opioids monitoring program.Read moreRead less
A global platform for identifying emerging chemical threats. This project aims to develop an automated early warning social network to systematically detect newly identified emerging chemical threats. Rapid identification of chemical exposures is key to managing chemical threats and associated risks. Global collaboration and sharing of archived, high-resolution mass spectrometry data through open/social platforms will revolutionise data processing and chemical threat identification. This project ....A global platform for identifying emerging chemical threats. This project aims to develop an automated early warning social network to systematically detect newly identified emerging chemical threats. Rapid identification of chemical exposures is key to managing chemical threats and associated risks. Global collaboration and sharing of archived, high-resolution mass spectrometry data through open/social platforms will revolutionise data processing and chemical threat identification. This project will result in a new and cost-effective approach for the identification, tracking and prioritisation of emerging chemical threats and address key national and global health risks. The outcomes include the first spatial and temporal distribution of new emerging chemical threats in Australia.Read moreRead less
Uncovering Antarctica’s Secret Chemical Voyagers for Expedited Regulation. This project aims to strengthen global chemical policy by rapidly identifying chemicals that demonstrate environmental persistence and mobility, two requisite risk criteria for regulatory action. It will take the novel approach of applying powerful non-target chemical screening approaches to Antarctic environmental media, leveraging the remoteness of Antarctica to derive unambiguous evidence against the key risk criteria. ....Uncovering Antarctica’s Secret Chemical Voyagers for Expedited Regulation. This project aims to strengthen global chemical policy by rapidly identifying chemicals that demonstrate environmental persistence and mobility, two requisite risk criteria for regulatory action. It will take the novel approach of applying powerful non-target chemical screening approaches to Antarctic environmental media, leveraging the remoteness of Antarctica to derive unambiguous evidence against the key risk criteria. Research will uncover a new catalogue of proven persistent and mobile chemicals, and further assess their ubiquity and biomagnification potential in the Antarctic system. Project findings will be directly disseminated to policymakers, facilitating expedited regulatory decision-making for improved Planetary Health outcomes.Read moreRead less
Correction of non-linearity in inductively-coupled-plasma mass-spectrometry. Chemical analyses by mass spectrometers underpin key Australian economic sectors, particularly minerals and agriculture. The quadrupole inductively-coupled-plasma mass-spectrometer has seen a particular rise in prominence over last 25 years. In this collaboration between mass spectrometrists and the leading instrument designer, we will improve the linearity of its detection system for more precise and accurate data. Bet ....Correction of non-linearity in inductively-coupled-plasma mass-spectrometry. Chemical analyses by mass spectrometers underpin key Australian economic sectors, particularly minerals and agriculture. The quadrupole inductively-coupled-plasma mass-spectrometer has seen a particular rise in prominence over last 25 years. In this collaboration between mass spectrometrists and the leading instrument designer, we will improve the linearity of its detection system for more precise and accurate data. Better elemental and isotope ratio data from these high-throughput instruments will open up new real-world applications in many areas of Australian interest, such as biosecurity, forensics, groundwater management, and drug design. The research will also inform design of the next generation instruments by the industry partner.Read moreRead less
Discovery Early Career Researcher Award - Grant ID: DE170100677
Funder
Australian Research Council
Funding Amount
$360,000.00
Summary
Deconstructing molecular self-assembly by advanced mass spectrometry. This project aims to develop ion-mobility mass spectrometry methods to observe the molecular evolution of model self-assembly reactions with high temporal and structural resolution, and interrogate the intrinsic gas phase functionality of the assemblies themselves, including aggregation, inclusion and disassembly behaviours. Lack of knowledge of reaction intermediates, mechanisms and kinetics hampers the industrial potential o ....Deconstructing molecular self-assembly by advanced mass spectrometry. This project aims to develop ion-mobility mass spectrometry methods to observe the molecular evolution of model self-assembly reactions with high temporal and structural resolution, and interrogate the intrinsic gas phase functionality of the assemblies themselves, including aggregation, inclusion and disassembly behaviours. Lack of knowledge of reaction intermediates, mechanisms and kinetics hampers the industrial potential of self-assembly to fabricate highly functional materials. This project expects to determine the critical link between the assemblies’ structure and function, and provide the rational framework to optimise and direct synthetic outcomes. This could enable Australian manufacturers to create low-energy production processes of high value commodities.Read moreRead less