Exploiting the lymphatic system for next generation vaccine development . Vaccination is the most successful and cost-effective means of combating infectious diseases. This project will look at how vaccine adjuvants work and will help the development of new vaccines against infections in both animals and man. It will also promote the training of Australian scientists in the field of vaccine research and development.
Discovery Early Career Researcher Award - Grant ID: DE240100827
Funder
Australian Research Council
Funding Amount
$458,737.00
Summary
Delineating the developmental requirements for stem-like T cells. Stem-like CD8 T cells are critical for sustaining long-term systemic T cell activity. The signalling required for their development, however, remains elusive. Integrating multidisciplinary expertise, cutting-edge technology and highly innovative methods, this project aims to define the signalling cues provided by tissue microenvironment that control the development and maintenance of stem-like T cells, and thereby dictate systemic ....Delineating the developmental requirements for stem-like T cells. Stem-like CD8 T cells are critical for sustaining long-term systemic T cell activity. The signalling required for their development, however, remains elusive. Integrating multidisciplinary expertise, cutting-edge technology and highly innovative methods, this project aims to define the signalling cues provided by tissue microenvironment that control the development and maintenance of stem-like T cells, and thereby dictate systemic immunity. This project is expected to generate fundamental knowledge on basic immunology and T cell biology, which can benefit the academic, public health and biotechnology sectors by enhancing the international standing of Australian research on basic immunology and fostering new commercial opportunities. Read moreRead less
Discovery Early Career Researcher Award - Grant ID: DE210100705
Funder
Australian Research Council
Funding Amount
$462,948.00
Summary
Decoding the enigmatic biology of human gamma-delta T cells. The immune system surveys our body examining molecules that signal whether or not everything is ok. T cells are a central to this and use their receptors to monitor these molecular signals. A specialised subset of T cells known as gamma-delta T cells are critical to detecting infection and cancer, yet their fundamental biology is poorly understood. This project aims to unravel this elusive biology. The aims are to understand 1. The div ....Decoding the enigmatic biology of human gamma-delta T cells. The immune system surveys our body examining molecules that signal whether or not everything is ok. T cells are a central to this and use their receptors to monitor these molecular signals. A specialised subset of T cells known as gamma-delta T cells are critical to detecting infection and cancer, yet their fundamental biology is poorly understood. This project aims to unravel this elusive biology. The aims are to understand 1. The diversity in function between gamma-delta T cell subsets, and 2. The diversity in gamma-delta T cell receptors and the molecules that these receptors detect. This work is essential for understanding gamma-delta T cell immunology which is critical if we ultimately wish to harness this to improve human health.Read moreRead less
Epigenetic regulation of immune memory. Immune memory cells emerge from the dynamic and transient immune response to deliver two critical abilities: to produce rapid recall responses upon reinfection but also to persist for decades. This project aims to define how the polycomb repressive complexes regulate immune cell fate, by utilising cutting-edge cell and chromatin biology techniques coupled with bioinformatic pipelines. Expected outcomes of the proposed research include key insights into epi ....Epigenetic regulation of immune memory. Immune memory cells emerge from the dynamic and transient immune response to deliver two critical abilities: to produce rapid recall responses upon reinfection but also to persist for decades. This project aims to define how the polycomb repressive complexes regulate immune cell fate, by utilising cutting-edge cell and chromatin biology techniques coupled with bioinformatic pipelines. Expected outcomes of the proposed research include key insights into epigenetic programming required for immune cell differentiation and longevity. This should provide significant benefits such as knowledge creation that may lead to development of technology that reprograms cell behaviour, and contribution to Australian research recognition and capacity.Read moreRead less