This established team of investigators will research into the molecular control of white blood cell formation and function, using a multidisciplinary, team approach to fundamental biological questions with a focus on potential clinical and commercial outcomes. The team will also attempt to identify new validated targets for therapeutic intervention by using both forward and reverse genetic approaches in mice coupled with complete phenotypic analyses of the blood cell system.
Control Of Cell Proliferation And Differentiation In Breast And Prostate Cancer
Funder
National Health and Medical Research Council
Funding Amount
$5,043,011.00
Summary
Breast and prostate cancer are the most commonly diagnosed cancers in women and men respectively, together accounting for >25% of all newly diagnosed cancers in Australia and other developed countries. Although significant improvements in the management of these cancers have occurred in the past 20 years further research is needed to better understand the molecular mechanisms of disease development and progression. Such research is critical to the better management and ultimate control of the ....Breast and prostate cancer are the most commonly diagnosed cancers in women and men respectively, together accounting for >25% of all newly diagnosed cancers in Australia and other developed countries. Although significant improvements in the management of these cancers have occurred in the past 20 years further research is needed to better understand the molecular mechanisms of disease development and progression. Such research is critical to the better management and ultimate control of these diseases through better treatments and prevention. A multidisciplinary team of cancer researchers at the Garvan Institute of Medical Research, with a 10 year track record of discovery and application of their research into breast and prostate cancer, will employ state-of-the-art research tools to identify new molecules and molecular pathways involved in these diseases. This new information will facilitate the improved management of these cancers through improved assessment of disease progression at the time of diagnosis and the development of new drugs and strategies for treatment and prevention.Read moreRead less
The development of vaccines and better treatments for HIV-AIDS and Hepatitis C are urgent global health priorities. This Program will undertake studies to better understand effective immunity against HIV and hepatitis C, allowing the rational design and testing of novel vaccines and treatments. The Program brings together a team of researchers with skills in basic virology and immunology with those providing expertise in translating findings in the laboratory into human clinical trials.
MOLECULAR AND CELLULAR PATHOGENESIS OF HUMAN LIVER DISEASE
Funder
National Health and Medical Research Council
Funding Amount
$4,928,323.00
Summary
n humans, chronic liver diseases cause cirrhosis of the liver in some but not all individuals. This leads to protracted ill-health, complications (fluid retention in the abdomen, confusion, bloodstream infections, kidney failure, liver cancer) resulting in hospitalisation, liver transplantation and premature death. In Australia, cirrhosis is an important cause of death and of years of potential life lost, while liver cancer has recently doubled and is predicted to treble by 2020. The common caus ....n humans, chronic liver diseases cause cirrhosis of the liver in some but not all individuals. This leads to protracted ill-health, complications (fluid retention in the abdomen, confusion, bloodstream infections, kidney failure, liver cancer) resulting in hospitalisation, liver transplantation and premature death. In Australia, cirrhosis is an important cause of death and of years of potential life lost, while liver cancer has recently doubled and is predicted to treble by 2020. The common causes are hepatitis C, fatty liver disorders, alcohol and hepatitis B; when 2 of these are present together, there is a higher risk of cirrhosis. This program aims to unravel the pathological processes which cause cirrhosis at the molecular and cellular levels, in order to understand why some people are at higher risk. These processes could result from genetic predisposition, other constitutional factors (age, gender) or from lifestyle factors (overnutrition, inactivity, alcohol). The 3 chief investigators from Westmead s Millennium Institute and the Centenary Institute of Royal Prince Alfred Hospital are international experts in hepatitis C, non-alcoholic steatohepatitis (NASH) and other fatty liver disorders, autoimmune hepatitis, liver transplantation, and scarring processes that lead to cirrhosis of the liver. The new knowledge that will result from these studies will be used to help prevent people developing severe forms of chronic liver disease, and for treating cirrhosis if it has already occurred.Read moreRead less
Interactions Between Adaptable Pathogens, Drugs And The Human Host
Funder
National Health and Medical Research Council
Funding Amount
$5,727,327.00
Summary
The Centre for Clinical Immunology and Biomedical Statistics (CCIBS) represents a collaboration between Royal Perth Hospital and Murdoch University that has brought together internationally recognised expertise in clinical immunology, experimental biology and innovation in biostatistics and computing. These resources have been applied to a broad range of research issues within the broad framework of HIV and hepatitis C disease and treatment. CCIBS has become a leading centre of research excellen ....The Centre for Clinical Immunology and Biomedical Statistics (CCIBS) represents a collaboration between Royal Perth Hospital and Murdoch University that has brought together internationally recognised expertise in clinical immunology, experimental biology and innovation in biostatistics and computing. These resources have been applied to a broad range of research issues within the broad framework of HIV and hepatitis C disease and treatment. CCIBS has become a leading centre of research excellence internationally, establishing a reputation for innovative approaches to host-viral interactions that are built on a long tradition of research into the population genetics of both human and viral genomes, combined with a willingness to negotiate complex computation and statistical challenges in order to faithfully reflect dynamic biological processes at a population level. An early recognition that large and integrated repositories of genetic and clinical data are fundamental to the research success in the genomic era has also led to the creation of the single most comprehensive repository of HIV genetic sequencing data in the world. The contributions that CCIBS has made to several distinct areas of research, including understanding viral adaptation to host immune responses, the development of genetic testing to predict drug hypersensitivity reactions, and causes of antiretroviral drug-associated toxicities, have been published in prestigious journals including Science, Nature, Nature Immunology, The Lancet, Proceedings of National Academy of Sciences, and The American Journal of Human Genetics, and have also resulted in numerous international collaborations that recognise the unique attributes that CCIBS has been able to bring to the global research effort aimed at understanding fundamental aspects of HIV and hepatitis C biology and treatment.Read moreRead less
This program brings together a team of researchers from The Walter and Eliza Hall Institute of Medical Research to study how the body regulates antibody production to fight disease. Antibodies are made by B-cells and are essential for a functional immune system. B cells circulate in the body, searching for signs of infection. When they encounter an invader, they mature, with the help of other immune cells, into antibody-producing cells. A small proportion of the cells are set aside as _memory� c ....This program brings together a team of researchers from The Walter and Eliza Hall Institute of Medical Research to study how the body regulates antibody production to fight disease. Antibodies are made by B-cells and are essential for a functional immune system. B cells circulate in the body, searching for signs of infection. When they encounter an invader, they mature, with the help of other immune cells, into antibody-producing cells. A small proportion of the cells are set aside as _memory� cells that can rapidly become antibodyproducing cells should the same infection occur again in the future. This is the basis of vaccination. This program aims to understand how a B cell changes into an antibody-producing cell, by studying the genes that are known to be required for the cells to form, or to do their work. We will study animals whose immune systems are under- or over-active, to find out what part of the antibody-producing process is faulty. Using this information, we hope eventually to be able to study diseases of antibody producing cells in humans (as occur in allergy, asthma, rheumatoid arthritis and leukaemia), to be able to identify the precise cause of the problem, and to suggest a therapy. This information may also be used to improve the outcome of vaccination where an enhanced antibody response is desired.Read moreRead less
Roles Of Impaired Apoptosis And Differentiation In Tumourigenesis And Therapy
Funder
National Health and Medical Research Council
Funding Amount
$21,656,910.00
Summary
The ten scientific laboratories in this program have joined forces to investigate two ways in which tumours develop. Both are of particular interest, because they suggest new ways in which cancer might be overcome. Most of our tissues are continually renewed throughout life by production of new cells. Therefore many of the old cells in each tissue must die off to maintain the proper cell numbers. To eliminate cells that are no longer needed or have become damaged, the body has developed a remark ....The ten scientific laboratories in this program have joined forces to investigate two ways in which tumours develop. Both are of particular interest, because they suggest new ways in which cancer might be overcome. Most of our tissues are continually renewed throughout life by production of new cells. Therefore many of the old cells in each tissue must die off to maintain the proper cell numbers. To eliminate cells that are no longer needed or have become damaged, the body has developed a remarkable cell suicide process termed apoptosis. Unfortunately, however, occasionally a random accident to the genes in one of our cells prevents the machinery for apoptosis from being turned on. In that case, the cell will not die when it should and, by continually dividing, it may eventually give rise to a cancer. Since most cancer cells still retain most of the machinery for apoptosis, however, a drug that could switch on this natural cell death machinery would provide a promising new approach to cancer therapy. Identifying and developing such drugs is one major long-term goal of this program. The other focus of our program concerns stem cells. These are rare cells with the remarkable ability to generate an entire tissue. For example, one of our laboratories has identified stem cells that can generate all the cells in the breast. The almost unlimited regenerative capacity of stem cells has a built-in danger. If a stem cell acquires the ability to proliferate excessively, it can go on to form a tumour. Indeed, many cancer researchers now suspect that rare stem cells within a tumour cause its inexorable growth. If tumour growth is maintained by stem cells, it will be essential to develop new forms of therapy that target these rare cancer stem cells rather than merely the bulk of the tumour cells. This is another key long-term goal of our program.Read moreRead less
Antigen Presentation, Recognition And The Immune Response
Funder
National Health and Medical Research Council
Funding Amount
$15,738,750.00
Summary
The early events in immunity require various molecular interactions. We will examine the structural and biophysical basis for some of these interactions, including those associated with transplant rejection and autoimmunity. We will explore the impact of variation in immune response genes on immune evasion and disease susceptibility. Our basic research will determine the mechanisms by which the immune system discriminates between different self and micro-organism associated determinants. We will ....The early events in immunity require various molecular interactions. We will examine the structural and biophysical basis for some of these interactions, including those associated with transplant rejection and autoimmunity. We will explore the impact of variation in immune response genes on immune evasion and disease susceptibility. Our basic research will determine the mechanisms by which the immune system discriminates between different self and micro-organism associated determinants. We will address the structural and biochemical basis for operation of an immune molecule called tapasin and unravel the basis for how some viruses escape the function of this molecule, thus allowing their immune evasion. We will also explore the use of modified small proteins called peptides in a humanized model of gluten hypersensitivity resembling that of Celiac disease. The molecular basis of the natural human immune system's capacity to recognise and reject grafts will be examined. This complements work aimed at improving the prediction of clinical graft rejection in transplantation. Dendritic cells play a central role in immunity, responsible for capturing material, whether from micro-organisms or self tissues, and presenting it to cells of the immune system. Our program will study the development and immunological function of the different dendritic cell subtypes. We will determine the relative contribution of each to the maintenance of immune tolerance and to the induction of immunity to several pathogens, including herpes simplex virus and malaria. Novel dendritic cell surface molecules that we have discovered will be tested for their ability to enhance the effectiveness of vaccines. Overall, this program utilises a broad array of immunological techniques designed to dissect the development and function of various immune system cell types and determine the structure-function relationships between important cell surface molecules involved in immunity.Read moreRead less