Human Dendritic Cell Subsets And Their Application For Immunotherapy
Funder
National Health and Medical Research Council
Funding Amount
$443,946.00
Summary
Immunotherapy is a promising non-toxic strategy for the treatment of many cancers, viruses and other diseases. It works by teaching the patient's own immune system to recognize and destroy the cancer. Specialized blood cells called dendritic cells are essential to this process but they are poorly understood in humans. I aim to investigate the function these cells and use this information to develop new treatments for cancer and viruses.
TARGETING THE HUMAN CROSS-PRIMING DENDRITIC CELLS FOR IMMUNOTHERAPY
Funder
National Health and Medical Research Council
Funding Amount
$589,544.00
Summary
Specialized white blood cells called dendritic cells (DCs) are essential to inducing the immune system to eradicate cancers and viral infections in mice. We have defined human DC subsets and related their functional capacities to the mouse DC subsets. We will now identify the human DC subsets involved in the induction of cancer and viral immune responses and use this information to develop clinical therapeutic cancer vaccination trials.
My research is aiming to study how the immune system controls viral infections in transplant patients and use this information to bolster their immunity in a test tube, providing protection against a virus the patient is unable to fight after their transplant. We are also trying to develop new strategies to use patient's own blood cells which will be grown in the laboratory and returned to the patient, resulting in a full recovery.
Cancer immunotherapy by “checkpoint blockade” boosts the immune response and leads to tumour rejection in some patients. To improve immunotherapy, information will be sought on the capacity of membrane vesicles prepared from dendritic cells (DC) to stimulate immune cells (T cells) in mice and elicit tumour rejection. Experiments are proposed to trace the fate of the vesicles after injection and improve tumour rejection by combination with checkpoint blockade and addition of cytokines.
The human immune system comprises many different types of cells that can detect foreign molecules. My research will lead the way to understanding some of the most abundant, yet least well understood, cells within this system, collectively known as 'unconventional T cells'. This knowledge is essential to optimally and efficiently manipulate the immune system in health and disease.
The Role Of Co-signalling Receptors In Cytotoxic Lymphocyte Activity During Infection And Cancer
Funder
National Health and Medical Research Council
Funding Amount
$739,657.00
Summary
Cytotoxic lymphocytes (CLs) are immune cells that detect and kill cancer cells. CLs recognise ‘stress’ proteins on cancer cells through specialised receptors, and this provides the signal for them to kill. However, some cancer cells, such as leukemic cells, can interfere with this recognition to avoid killing by immune cells. This project will investigate the mechanism of recognition and killing of cancer cells by CLs, using both mouse models and cells from patients with acute myeloid leukemia.
My research centers on the formation and function of T cells, with particular emphasis on normal T cell homeostasis and how T cells respond to foreign antigens while tolerating self antigens.
I am an immunologist, working to understand the function of NKT cells, and how these cells can be manipulated as a means of immune therapy for a range of immunologically related diseases.
The Importance Of GM-CSF In Determining The Fate And Function Of Dendritic Cell (DC) Subsets: Resident DC, Inflammatory DC And Suppressive DC.
Funder
National Health and Medical Research Council
Funding Amount
$334,053.00
Summary
The hormone GM-CSF determines how infections are seen by the immune system GM-CSF is a hormone already in use for increasing the production of white blood cells. We have found that it also affects their function, especially that of specialised white blood cells that process infectious materials to be recognised by the immune system. This project aims to detail the effects of GM-CSF on specialised white blood cells.