Reactive intermediates and microwave-assisted organic reactions. The use of our chemistry to help develop new, safer, better drugs against schizophrenia is a strong driving force for this research. This relates to the National Research Priority of promoting and maintaining good health, ageing well and productively, and preventative healthcare. Microwave-assisted chemical synthesis will undoubtedly become a very important methodology in the pharmaceutical industry, and our work will help develop ....Reactive intermediates and microwave-assisted organic reactions. The use of our chemistry to help develop new, safer, better drugs against schizophrenia is a strong driving force for this research. This relates to the National Research Priority of promoting and maintaining good health, ageing well and productively, and preventative healthcare. Microwave-assisted chemical synthesis will undoubtedly become a very important methodology in the pharmaceutical industry, and our work will help developing such know-how in Australia and thereby contribute to the Australian economic fabric. Read moreRead less
Disrupting Chemical Communication in Bacteria: A Novel and Effective Antimicrobial Strategy. Due to increased application of antibiotics for disease control, many pathogenic bacteria have developed resistance to existing antimicrobials. The infections associated with the resistant bacteria incur a high cost in terms of human health, well being and health care costs. Thus, there is a clear need to develop new antimicrobials that have a novel mechanism of action. The technology proposed here has ....Disrupting Chemical Communication in Bacteria: A Novel and Effective Antimicrobial Strategy. Due to increased application of antibiotics for disease control, many pathogenic bacteria have developed resistance to existing antimicrobials. The infections associated with the resistant bacteria incur a high cost in terms of human health, well being and health care costs. Thus, there is a clear need to develop new antimicrobials that have a novel mechanism of action. The technology proposed here has the potential to deliver enormous health and social welfare benefits to the Australian population as well as commercial benefits to Australian industry, through provision of new, locally produced technologies for the control of bacterial virulence.Read moreRead less
The Design and Development of the Next Generation Anti-HIV Drugs. This medicinal chemistry project will develop new computer-aided modelling techniques for drug design and development and will then apply them to the design of new therapeutics for the treatment of HIV-1/AIDS. Once developed, these new techniques can also be applied to other disease targets including various cancers, where specific proteins have been identified as causative. This research will also contribute to the education of y ....The Design and Development of the Next Generation Anti-HIV Drugs. This medicinal chemistry project will develop new computer-aided modelling techniques for drug design and development and will then apply them to the design of new therapeutics for the treatment of HIV-1/AIDS. Once developed, these new techniques can also be applied to other disease targets including various cancers, where specific proteins have been identified as causative. This research will also contribute to the education of young scientists, training them in cutting-edge research skills.Read moreRead less
A Unique Target in the Purine Biosynthesis of the Pathogen Helicobacter pylori. The uptake systems of purine and analogues of the human pathogen Helicobacter pylori will be characterised because they can be utilised to introduce cytotoxic compounds into the cells. The first step in de novo purine biosynthesis of the bacterium is catalysed by two different enzymes, which are components of other biosynthetic pathways. These unique properties make them excellent potential therapeutic targets. Their ....A Unique Target in the Purine Biosynthesis of the Pathogen Helicobacter pylori. The uptake systems of purine and analogues of the human pathogen Helicobacter pylori will be characterised because they can be utilised to introduce cytotoxic compounds into the cells. The first step in de novo purine biosynthesis of the bacterium is catalysed by two different enzymes, which are components of other biosynthetic pathways. These unique properties make them excellent potential therapeutic targets. Their individual combined activities in purine biosynthesis will be characterised in situ and in vitro. Isogenic mutants with inactivated genes encoding for these enzymes will be constructed to investigate their role in the survival of the organism.Read moreRead less