Deciphering The Neuroprotective Mechanism Of Parkinsons Disease-Associated Protein Kinase PINK1
Funder
National Health and Medical Research Council
Funding Amount
$547,994.00
Summary
Parkinson's disease is caused by premature death of nerve cells that control body movements. The enzyme PINK1 protects against nerve cell death by chemically modifying specific cellular proteins that maintain cell survival. We aim at identifying these proteins and investigating how PINK1-catalysed modification modulates their ability to maintain nerve cell survival. The study will benefit development of drugs that protect against nerve cell death for treatment and prevention of the disease.
Adaptive Changes In HIV-1 Subtype C Envelope Glycoproteins Contributing To Pathogenicity.
Funder
National Health and Medical Research Council
Funding Amount
$427,648.00
Summary
HIV exists as multiple subtypes. The most commonly studied is type B (B-HIV). B-HIV is common in North America, Europe and Asia, but accounts for only a small fraction of HIV infections worldwide. Type C HIV (C-HIV) in Africa and Asia accounts for the majority of infections worldwide, yet very little is known about how C-HIV causes AIDS. We aim to understand how C-HIV causes AIDS. This is critical for development of drugs and vaccines specifically designed for those who are most urgently need.
Molecular Basis For The Emergence Of Community Acquired Staphylococcus Aureus
Funder
National Health and Medical Research Council
Funding Amount
$427,518.00
Summary
Golden Staph is a major problem in our hospitals but serious Golden Staph infections are increasingly common in the community, among otherwise healthy people who have had no contact with hospitals. This project will find out how Golden Staph is evolving to become more likely to cause disease in the community. This knowledge can then be used to design new strategies for early detection, prevention and treatment.
Helicobacter Pylori VacA Toxin: Modulation Of Human Mitochondrial Function By A Bacterial Pathogen
Funder
National Health and Medical Research Council
Funding Amount
$508,003.00
Summary
This work will greatly further our understanding of how a bacterium, Helicobacter pylori, causes stomach ulcers and cancer. We will use cutting edge model systems to study the VacA toxin that is secreted from the bacteria and is targeted to human cells. We will examine where the toxin goes and how it affects our cells. It is expected that the improved understanding that will arise from this work will assist researchers to better devise drugs against this prevalent pathogen.
Discovering How A Novel Anti-malarial Drug Series Rapidly Kills Parasites
Funder
National Health and Medical Research Council
Funding Amount
$672,971.00
Summary
We have developed a new set of highly potent anti-malarial drugs but we do not know how they work. Identifying how these compounds work is important for improving their effectiveness and safety. We will discover how these drugs kill parasites by using a number of cutting edge methods that could also be useful for discovering how other drugs work. Data generated will progress these compounds along the drug development pipeline which urgently needs a constant supply of new antimalarials.
Biochemical Investigation Of Ubiquitination By The Fanconi Anaemia Pathway
Funder
National Health and Medical Research Council
Funding Amount
$603,447.00
Summary
Fanconi anaemia is an inherited disorder with greatly elevated risk of leukaemia and cancers. The causal genes are ‘tumour suppressors’ that protect us from cancer by a complex function in repair of damage to our DNA. This study aims to understand how this DNA repair function protects us from cancer, and may influence some forms of new forms of cancer treatment.
Harnessing The Dual Roles Of Pericytes To Improve Stroke Outcomes
Funder
National Health and Medical Research Council
Funding Amount
$853,943.00
Summary
Pericytes are cells that are in the walls of capillaries - the smallest blood vessels. Pericytes control blood flow and help promote recovery after injury. In stroke, pericytes squeeze the capillary shut, limiting the amount of energy getting to the brain. This proposal will use innovative techniques to understand how pericytes limit blood flow and also how we can utilise pericytes to improve brain recovery after stroke. This will allow us to identify new potential treatment options for stroke.