A Mechanotransduction Apparatus To Coordinate Epithelial Collective Cell Migration.
Funder
National Health and Medical Research Council
Funding Amount
$994,596.00
Summary
Epithelial cells migrate as physically coherent collective groups, which is necessary for normal development and is disrupted as cancers progress to become invasive and spread. Collective migration requires communication so that the behaviour of individual cells is properly coordinated. In this project we investigate how the transmission of physical force between cells allows them to communicate; and test how its disruption contributes to cancer invasion.
Glioblastomas are the most common and lethal brain tumours and 5 years after diagnosis only 20% of patients diagnosed with a glioblastoma will be alive. The poor survival rate is due to the ability of these tumours to extensively penetrate into the surrounding healthy brain tissue making complete surgical removal very difficult. Our research aims to discover how the glioblastoma cells can penetrate neighbouring brain tissue.
Cortactin: Integrating Cadherin Signalling For Junctional Integrity
Funder
National Health and Medical Research Council
Funding Amount
$593,888.00
Summary
Adhesion between cells holds the human body together and affects many aspects of our health, including normal tissue and organ function. Importantly, loss of normal cell-cell adhesion contributes to many diseases, including cancer and inflammation. One key adhesion molecule, E-cadherin, is necessary for many epithelial tissues and its function is perturbed in disease. This research project addresses how E-cadherin signals into cells to control cell-to-cell interactions.
Targeting The Hypoxia Sensing Pathway To Improve Hematopoietic Stem Cell Mobilisation And Transplantation
Funder
National Health and Medical Research Council
Funding Amount
$653,313.00
Summary
Transplantation of patients’ own blood stem cells is used to treat many blood cancers. It increases the chance of cure. However the damage caused by chemotherapies used to combat the cancer can compromise stem cell collection and transplantation. Without transplant, these patients are less likely to survive cancer. This project is to test new drugs that enhance the harvest of blood stem cells for transplantation. These will increase the success rates of transplants and cure in these cancer patie ....Transplantation of patients’ own blood stem cells is used to treat many blood cancers. It increases the chance of cure. However the damage caused by chemotherapies used to combat the cancer can compromise stem cell collection and transplantation. Without transplant, these patients are less likely to survive cancer. This project is to test new drugs that enhance the harvest of blood stem cells for transplantation. These will increase the success rates of transplants and cure in these cancer patients.Read moreRead less
Increasing Haematopoietic Stem Cell Mobilisation By Targeting A Novel Niche Factor
Funder
National Health and Medical Research Council
Funding Amount
$707,218.00
Summary
Transplantation of patients’ own blood stem cells is used to treat many blood cancers. It increases the chance of cure. However the damage caused by chemotherapies used to combat the cancer can compromise stem cell collection and transplantation. Without transplant, these patients are less likely to be cured. This project is to test new drugs that enhance the harvest of blood stem cells for transplantation. These will increase the success rates of transplants and cure in these cancer patients.
Specialised immune cells, called cytotoxic T cells, circulate through the body, and kill infected cells to protect us from disease. We discovered that a protein, DOCK8, is important for the regulation of T cell function. Importantly, humans with mutations in the DOCK8 gene suffer from a debilitating, and potentially lethal, immunodeficiency disease. This project will therefore elucidate the role of DOCK8 in immune cells, to better understand the consequences of DOCK8 deficiency for immunity.
Myosin VI: A Novel Molecular Apparatus For Epithelial Cohesion
Funder
National Health and Medical Research Council
Funding Amount
$605,096.00
Summary
Adhesion between cells holds the human body together and affects many aspects of our health including normal tissue and organ function. Conversely, loss of normal cell-cell adhesion contributes to major diseases, including cancer and inflammation. One key molecule, E-cadherin, is necessary for many epithelial organs and its function is perturbed in disease. This research project addresses how E-cadherin works with a cellular motor, Myosin VI, to maintain the integrity of epithelial tissues.
Linkage Infrastructure, Equipment And Facilities - Grant ID: LE150100004
Funder
Australian Research Council
Funding Amount
$540,000.00
Summary
An automated 3D electron microscopy facility. An automated 3D electron microscopy facility: The aim of this project is to establish the next generation of electron microscopy facility, with a fully automated tool enabling 3D imaging. The automated serial section system incorporated in a scanning electron microscope circumvents the limitation of transmission electron microscopy, which provides unique insights into molecular structures and cell components at high resolution, however, the area and ....An automated 3D electron microscopy facility. An automated 3D electron microscopy facility: The aim of this project is to establish the next generation of electron microscopy facility, with a fully automated tool enabling 3D imaging. The automated serial section system incorporated in a scanning electron microscope circumvents the limitation of transmission electron microscopy, which provides unique insights into molecular structures and cell components at high resolution, however, the area and volume are limited in size to a few microns. This new type of microscope can image whole organisms and be used by non-electron microscopists. It will be housed in an open access facility and will meet a growing demand for 3D electron microscopy.Read moreRead less
Dementias affect a large number of Australians each year with the number of patients expected to triple by 2050. As such, there is need to develop a better model of this debilitating disorder to provide improved treatments. Mesenchymal stem cells, are relatively easy to obtain and grow, and are able to produce the key cell types in the brain. We can use these cells to identify the processes that control the production of brain cells, which will likely provide better treatment of this disease.
The Impact Of Granzyme B On Cytotoxic T Cell Migration Through Tissue
Funder
National Health and Medical Research Council
Funding Amount
$605,963.00
Summary
Cytotoxic T cells (CTL) are white blood cells that move in an orchestrated way into body tissues to target, and destroy, virus-infected or cancer cells. Destruction of these abnormal cells is achieved when they ingest cytotoxic enzymes (proteases) released by CTL. We propose that one of these cytotoxins, granzyme B, has a dual function, and that it is also involved in helping CTL to efficiently move towards the target cells by clearing a path through the local tissue structure.