This program will investigate the strategies used by pathogenic bacteria to cause human diseases. The research will focus on how bacteria initiate infections, how they invade, cause cell and tissue damage and respond to their human host. It will also examine how the host’s innate immune system interacts with these bacteria. The results will provide new insights into host-pathogen interactions and reveal new targets for the development of novel antibacterial drugs and vaccines.
What is killing the honeybees? The role of RNA viruses. This project aims to determine if the Varroa mite, the most important parasite of honeybees, selects for virulent strains of RNA viruses. Before Varroa’s inevitable arrival in Australia, this project will disentangle the effect of Varroa and the bees’ immune system on the evolution of virulence of bee viruses. Australia’s honeybees are Varroa-naïve and don’t carry virulent viruses. There is a known association between Varroa and colonies dy ....What is killing the honeybees? The role of RNA viruses. This project aims to determine if the Varroa mite, the most important parasite of honeybees, selects for virulent strains of RNA viruses. Before Varroa’s inevitable arrival in Australia, this project will disentangle the effect of Varroa and the bees’ immune system on the evolution of virulence of bee viruses. Australia’s honeybees are Varroa-naïve and don’t carry virulent viruses. There is a known association between Varroa and colonies dying from viruses; however, it is not known what is cause and effect. This project will clarify Varroa’s exact role in the evolution of virulence in RNA viruses. The intended outcome is increased knowledge allowing the design of an effective treatment to prevent the death of honeybee colonies.Read moreRead less
Cancers of the skin are the most common tumours in humans, and their diagnosis and treatment impose the largest costs on Australia’s cancer budget. While much has been learned about the roles of sunlight and skin type as risk factors for skin cancer, relatively little is known about the genes conferring risk. This study will compare the genetic profiles of over 6000 patients with skin cancer to 3000 people without skin cancer to pinpoint the genes responsible for skin cancer.
Evolution And Function Of A Novel Lateral Flagellar Locus, Flag-2, In Pathogenic Escherichia Coli
Funder
National Health and Medical Research Council
Funding Amount
$465,158.00
Summary
This project will study how the bacteria that cause infant diarrhoea colonize the intestine and induce disease. We have identified a novel genetic region that allows E. coli to survive and persist in the intestine. Similar genes are also present in closely related organisms. This project will help us to undestand how new diseases evolve and emerge and may lead to the development of new vaccines to protect against infant diarrhoea.
Prevalence Of Dementia In The Torres Strait And Common Health Issues Of Later Life In The Torres Strait
Funder
National Health and Medical Research Council
Funding Amount
$365,000.00
Summary
The aim of the project is to assess the prevalence of dementia in people aged 45 years and over living in Torres Strait Islander communities and identify potential risk and protective factors associated with dementia risk. An additional aim is to revalidate a culturally appropriate cognitive assessment tool, the Kimberley Indigenous Cognitive Assessment (KICA) for use in the Torres Strait.
Prospective Imaging Study Of Ageing: Genes, Brain & Behaviour
Funder
National Health and Medical Research Council
Funding Amount
$6,465,047.00
Summary
While the burden of dementia in Australia occurs late in life, the underlying brain disease accumulates for decades prior to dementia onset. Disease modifying interventions have the greatest potential to avert later disease burden if introduced during this crucial window, well before the onset of clear cognitive decline. To reduce Australia's future dementia burden, it is thus imperative to identify those Australians at risk of dementia whilst they are still relatively young.
Understanding the basic biology of cells will allow us to pinpoint key mechanisms and molecules that underpin multiple diseases and are targets for treatments. The broad aims of this research program include the development of new therapies for chronic inflammatory diseases, understanding how proteins are sorted and trafficked inside cells in processes that are essential to immunity and cancer biology, and identifying new intracellular targets to block bacterial invasion and infectious diseases.
The Aetiology Of Alcohol Use Disorders In Adulthood: A Generational Perspective
Funder
National Health and Medical Research Council
Funding Amount
$630,927.00
Summary
This study aims to investigate the causes of alcohol problems in adult Australians. We will follow-up participants from a birth cohort study who are now in their thirties. We will assess long term outcomes from in-utero exposure to alcohol and biological, developmental and genetic predictors of alcohol disorders in adulthood. This study also aims to study genetic factors which may be important in the development of alcohol abuse and dependence.
Which Modifiable Risk Factors Actually Cause Cancer?
Funder
National Health and Medical Research Council
Funding Amount
$384,076.00
Summary
Observational studies suggest that modifiable risk factors such as low vitamin D levels, coffee consumption, alcohol consumption and obesity may be important in cancer risk. However, observational studies can only demonstrate association between a risk factor and cancer, and association does not equal causation. We present an alternative approach to help determine which risk factors actually cause cancer.
Pathogenomics: New Ways To Exploit Genome Sequence Data From Pathogenic Bacteria.
Funder
National Health and Medical Research Council
Funding Amount
$547,372.00
Summary
Bacterial pathogens are locked in an evolutionary battle of survival with their eukaryote hosts. The rapidly evolving genes of medically-important pathogens are generally those required for adaptation to the human host. This project aims to exploit the abundance of available bacterial genome sequences to predict rapid evolution in bacterial pathogens using computational methods. The protein products of such genes offer novel targets for therapeutic intervention.