Structure and function of novel transporters in alphaproteobacteria. First, detailed knowledge of a set of membrane transporters and the way their activity might be inhibited, will have implications for the treatment of human disease. Second, excellent outcomes are provided for the training of postgraduate students and research staff. This project entails cutting edge technology, and the transfer of technical capabilities not currently available in Australia. Third, our studies on non-pathogenic ....Structure and function of novel transporters in alphaproteobacteria. First, detailed knowledge of a set of membrane transporters and the way their activity might be inhibited, will have implications for the treatment of human disease. Second, excellent outcomes are provided for the training of postgraduate students and research staff. This project entails cutting edge technology, and the transfer of technical capabilities not currently available in Australia. Third, our studies on non-pathogenic species of alpha-proteobacteria provides for a timely advance in our knowledge of their biology: other species of alpha-proteobacteria were amongst the first organisms trialled for biological weapons by the USA and the former Soviet Union, and those pathogenic species are rated as Class 3 organisms.Read moreRead less
The biogenesis of bacterial outer membranes; how bacteria build their surface membranes. The outer membrane protects probiotic bacteria in the human intestine and enables pathogenic bacteria to cause infectious diseases. We will determine bacteria build their outer membranes - outstanding training opportunities come through cutting edge technology and the development of skills not common in Australia.
Molecular insights into bacterial metal ion homeostasis and toxicity. This project aims to measure bacterial cellular metal concentrations, elucidate mechanisms cells use to adapt to changing extracellular metal concentrations, and reveal the molecular targets of metal toxicity. Metal ions are essential to all forms of life, and half of all proteins use metal ions for cellular chemical processes. However, how cells precisely balance sufficient metal ions for essential cellular chemistry without ....Molecular insights into bacterial metal ion homeostasis and toxicity. This project aims to measure bacterial cellular metal concentrations, elucidate mechanisms cells use to adapt to changing extracellular metal concentrations, and reveal the molecular targets of metal toxicity. Metal ions are essential to all forms of life, and half of all proteins use metal ions for cellular chemical processes. However, how cells precisely balance sufficient metal ions for essential cellular chemistry without accumulating a toxic excess (metal homeostasis) is poorly understood. Discovering the roles of metal ions in bacterial cells will be key to defining the chemical biology of living systems and will provide information essential to understanding how microbes adapt to changing environments.Read moreRead less
The biogenesis of bacterial outer membranes: how bacteria build their surface coating. This project will determine how bacteria build their outer membranes. The outer membrane protects 'probiotic bacteria' in the human intestine and enables 'pathogenic' bacteria to cause infectious diseases. The project presents outstanding training opportunities with the use of cutting edge technology and the development of skills not common in Australia.
New molecular tools to study the mechanisms of bacterial metal homeostasis. This project aims to provide new insight into how metal ion uptake is regulated. It will precisely measure the cellular concentrations of metal ions, reveal the roles of metal ions in essential cellular processes, and identify the molecular targets of metal toxicity. Metal ions are essential to all forms of life and are used by up to half of all proteins to facilitate cellular chemical processes. The intended outcome of ....New molecular tools to study the mechanisms of bacterial metal homeostasis. This project aims to provide new insight into how metal ion uptake is regulated. It will precisely measure the cellular concentrations of metal ions, reveal the roles of metal ions in essential cellular processes, and identify the molecular targets of metal toxicity. Metal ions are essential to all forms of life and are used by up to half of all proteins to facilitate cellular chemical processes. The intended outcome of the research is to provide new fundamental knowledge of the roles of metal ions in bacterial cells; knowledge that will be key to defining the chemical biology of living systems and will provide information essential to understanding how microbes adapt to changing environments.Read moreRead less