Linkage Infrastructure, Equipment And Facilities - Grant ID: LE100100015
Funder
Australian Research Council
Funding Amount
$200,000.00
Summary
Purchase of an ultra-performance liquid chromatograph - triple quadrupole mass spectrometer. The diverse research supported by the proposed instrument group addresses several national research priorities. It will lead to a better fundamental understanding of the hormonal control of plant growth, improved catalysts for organic synthesis including pharmaceuticals and improved food safety. In forestry it will help to increase forest productivity through mitigating losses from insect and mamm ....Purchase of an ultra-performance liquid chromatograph - triple quadrupole mass spectrometer. The diverse research supported by the proposed instrument group addresses several national research priorities. It will lead to a better fundamental understanding of the hormonal control of plant growth, improved catalysts for organic synthesis including pharmaceuticals and improved food safety. In forestry it will help to increase forest productivity through mitigating losses from insect and mammalian pests and enhancing wood quality. In pharmaceutics, improved treatments for asthma are expected. This facility will provide the infrastructure essential for many researchers to maintain internationally competitive profiles in their areas and continue to offer postgraduate training and postdoctoral opportunities.Read moreRead less
Understanding algal bloom microbiome function to improve seafood safety. Current phytoplankton ecological theory is derived primarily from lab cultures, but in nature phytoplankton have unique microbiomes that support their growth and ongoing ocean primary production. This project aims to establish the structure and function of these natural microbiomes, and how they contribute to seafood poisoning caused by bacteria and algal biotoxins. Using advanced flow cytometry with single-cell microbial ....Understanding algal bloom microbiome function to improve seafood safety. Current phytoplankton ecological theory is derived primarily from lab cultures, but in nature phytoplankton have unique microbiomes that support their growth and ongoing ocean primary production. This project aims to establish the structure and function of these natural microbiomes, and how they contribute to seafood poisoning caused by bacteria and algal biotoxins. Using advanced flow cytometry with single-cell microbial profiling, we will sample nano-scale plankton microbiomes and synthetic microbiome phylogenomics to the link between microbiomes and seafood poisoning outbreaks. The outcomes will underpin enhanced predictive modelling of seafood risk to ensure the safety and export security of Australia's $2 billion seafood industry.Read moreRead less