Characterisation Of The Biochemical And Cell Biological Mechanisms Of Cross-presentation In Dendritic Cells
Funder
National Health and Medical Research Council
Funding Amount
$303,828.00
Summary
The immune system possesses several mechanisms to fight viruses and cancer. One of these mechanisms consists of recruiting anti-virus or anti-cancer killer cells. These killer cells are recruited by specialized cells known as Dendritic Cells (DC). The DC are distributed all over the body, and can detect the presence of viruses or cancer cells. When they do, they take up chunks of the virus or cancer cells, break them into small pieces called antigens, and display these antigens on their surface, ....The immune system possesses several mechanisms to fight viruses and cancer. One of these mechanisms consists of recruiting anti-virus or anti-cancer killer cells. These killer cells are recruited by specialized cells known as Dendritic Cells (DC). The DC are distributed all over the body, and can detect the presence of viruses or cancer cells. When they do, they take up chunks of the virus or cancer cells, break them into small pieces called antigens, and display these antigens on their surface, where they can be seen by the killer cells. This initiates an immune response whereby the killer cells seek and destroy the viruses and cancer cells. We are trying to harness the ability of DC to initiate immune responses in order to design more efficient vaccines to fight viruses and cancer. Our goal is to deliver vaccines that will directly target the DC and induce the formation of protective killer cells. These strategies require us to overcome two problems. The first is that we possess different types of DC, which play distinct functions, but we do not know which type is the most effective at recruiting killer cells, or why. The second problem is that we need to understand which vaccine design is the most effective at promoting presentation of the antigens that will be used to induce killer cells. The goal of this research project is to learn how we should deliver antigens to which DC type to generate the best possible vaccine.Read moreRead less
I am a molecular and cellular biologist with particular interest in understanding the regulation of DNA damage surveillance pathway and its role in the maintenance of genome stability.
As women age, the quality of their eggs decline and their chance of having a healthy baby plummets. The accumulation of DNA damage within the egg, and the reduced ability to repair this damage, may be one cause of compromised reproductive success in older women. This project will investigate the ability of eggs to repair DNA damage during maternal aging and will explore the importance of DNA repair to fertility and the transmission of high quality genetic material to their offspring.
Examining The Importance Of DNA Damage Repair For Oocyte Quality, Female Fertility And Offspring Health
Funder
National Health and Medical Research Council
Funding Amount
$318,768.00
Summary
As women age, the quality of their eggs decline and their chance of having a healthy baby plummets. The accumulation of DNA damage within the egg, and the reduced ability to repair this damage, may be one cause of compromised reproductive success in older women. This project will investigate the ability of eggs to repair DNA damage during maternal aging and will explore the importance of DNA repair to fertility and the transmission of high quality genetic material to their offspring.
Roadblocks To DNA Replication And Implications For Antimicrobial Resistance
Funder
National Health and Medical Research Council
Funding Amount
$1,050,000.00
Summary
Antimicrobial drugs have revolutionised modern medicine in their ability to specifically target microbial infections. However, overuse of these drugs is resulting in more and more infectious microbes becoming resistant to them. This program aims to use molecular imaging techniques to visualise how microbes respond to antimicrobials and how they evolve to become resistant. The outcomes of this program will enable the identification of drug targets and the development of diagnostics.
Application Of New Technologies And Methods In Nutrition Research – The Example Of Phenotypic Flexibility
Funder
National Health and Medical Research Council
Funding Amount
$210,823.00
Summary
The aim of the Nutritech project is to develop better diagnostics of the effect of foods and dietary supplements on the health of an individual. NutriTech will develop new analytical technologies to comprehensively investigate the diet-health interrelationship and critically assess their usefulness for the future of nutrition research. A new automated method for measuring the effect of diet on multiple measures of DNA damage and nutrients in single cells will be developed at CSIRO.
The Role Of Nuclear Architecture In The DNA Damage Response
Funder
National Health and Medical Research Council
Funding Amount
$561,966.00
Summary
The goal of the proposed research is to understand how dynamic changes to the chromatin genome packaging network, interact with the DNA damage response and gene expression machinery, to repair damaged DNA and the impact this has on cancer biology. To do so we are combining cutting edge molecular biology techniques with innovative novel microscopy methods developed by our research team, that far exceed the spatiotemporal resolution currently used to study chromatin biology.