The development of better ways to prevent and treat influenza infection will be a major step forward in lessening the impact of the virus in communities worldwide. We have assembled a research team of seven groups who will determine the ways in which the effects of influenza can be mitigated through an understanding of the factors which lead to severe disease, and how these can be lessened by novel vaccination and treatment strategies.
Some infections can start inflammation that, while controlling the infection, can also attack the body tissues of genetically susceptible people. This inflammation can initiate long term problems including arthritis, diabetes and cancer. Our research program seeks to understand who is genetically at risk of this sort of problem and why, and thus to develop new means to prevent and treat the chronic diseases that are initiated in this way.
This Program studies the mechanisms that control blood cell formation and how abnormalities play a role in leukaemia, a significant health problem worldwide. Despite some improvements, two major problems remain: controlling progression of leukaemia and relapse. The Program tackles these two major issues with the combination of studies of normal blood and leukaemia cell function, drug design and clinical trials ensuring a direct pathway from discovery to patient benefit.
Protein Glycan Interactions In Infectious Diseases.
Funder
National Health and Medical Research Council
Funding Amount
$9,182,220.00
Summary
Infectious diseases remain a serious threat to human health, accounting for over 10 million deaths each year. This is a broad-based collaborative proposal, building on our previous achievements. Its aim is to better understand the dynamic interactions between major disease-causing microbes and their human hosts, and to directly apply this new knowledge to the development of improved vaccines and novel treatment strategies. These are urgently needed to combat infectious diseases in the 21st centu ....Infectious diseases remain a serious threat to human health, accounting for over 10 million deaths each year. This is a broad-based collaborative proposal, building on our previous achievements. Its aim is to better understand the dynamic interactions between major disease-causing microbes and their human hosts, and to directly apply this new knowledge to the development of improved vaccines and novel treatment strategies. These are urgently needed to combat infectious diseases in the 21st century.Read moreRead less
We seek to understand how white blood cells detect and destroy disease, and how molecules of the immune system punch holes in diseased cells. We wish to learn how cancer can sometimes evade the immune system. Our work will also find out how some common treatments for cancer, like chemotherapy, can be used to boost the immune system and eliminate tumours. Through knowledge gained from these studies, we aim to develop new therapies that can help patients with devastating diseases like cancer.
Translating Membrane Proteins Into Therapeutics; From Bedside To Bench
Funder
National Health and Medical Research Council
Funding Amount
$9,466,000.00
Summary
Membrane proteins are the principal gatekeepers for control of cellular response, with G protein-coupled receptors (GPCRs) the largest family of cell surface proteins. These proteins are critically important for pathophysiological control, and are a major target for drug discovery. Nonetheless drug attrition due to lack of clinical efficacy remains high. We are combining cell biology, clinical management and drug discovery science to enable more effective therapeutic translation.
Antigen Presentation, Recognition And The Immune Response
Funder
National Health and Medical Research Council
Funding Amount
$15,780,848.00
Summary
This program focuses on understanding the development of immune response to viruses and other infectious agents using a broad array of techniques to dissect the function of various immune cell types and to explore the relationship between structure and function of important cell surface molecules. These studies will improve our ability to design new generation vaccines for combating infectious diseases, controlling cancer, or limiting autoimmune diseases like diabetes.
Understanding The Major Class Of Cell Surface Drug Targets
Funder
National Health and Medical Research Council
Funding Amount
$7,595,840.00
Summary
G Protein-Coupled Receptors (GPCRs) form the largest family of receptors and drug targets in living organisms. Currently, the major reason that new drugs fail to reach the clinic is lack of appropriate drug effect (approx. 30%). Thus, we need a better understanding of how GPCRs work and how this relates to disease. Our Program addresses this knowledge gap, using GPCR models that are relevant to treatment of metabolic, inflammatory, cardiovascular and central nervous system disease.