This research proposal outlines studies aimed at identifying specific biomarkers of neurodegeneration. Given the complexity and clinical overlap of these disorders the identification of diagnostic biomarkers for their early detection is crucial; especially in the identification of at-risk individuals before the development of symptoms. This will allow early intervention with disease-modifying medications which by arresting neuronal loss would prevent or delay onset of the disease.
Tackling The Complex Pathogenesis Of Non-Alzheimer Dementias And Motor Neurodegenerative Disorders
Funder
National Health and Medical Research Council
Funding Amount
$948,684.00
Summary
I research dementia and motor syndromes as there are no mechanistic treatments for these disorders, and for many there are no treatments at all. Without being able to identify the same diseases and differentiate them from other diseases, no treatments will be successful. To develop more reliably detection methods for these diseases, I perform longitudinally studies where the participants agree to donate serial biological samples and their brain tissue at death.
Development Of Ultrahigh Resolution Brain Imaging For Investigating Neurological And Neurodegenerative Diseases
Funder
National Health and Medical Research Council
Funding Amount
$880,454.00
Summary
Understanding the structural and functional organisation of the human brain is the focus of enormous research effort. Neuroimaging is an extraordinarily important basic and clinical neuroscience discipline, and is unique in being able to provide direct in vivo measurements of the human brain, and crucially in individuals with brain and mind diseases. This research project will develop and utilise ultra-high resolution brain scanning to understand the mechanisms of neurodegenerative diseases.
Structural Studies Of The Molecular Machinery Regulating Cell Death
Funder
National Health and Medical Research Council
Funding Amount
$638,517.00
Summary
Our bodies use a process called Programmed Cell Death to remove unwanted or dangerous cells. This work aims to understand the machinery that regulates this process at the molecular level. These insights will inform the development of drugs aimed at either initiating cell death when required, for example in cancer, or at inhibiting it when excessive cell death causes disease.
I work on mitochondrial diseases, which are inherited disorders of metabolism that block conversion of food energy into chemical energy needed by our cells. We focus on understanding (i) the genetic basis of these disorders using approaches such as massively parallel sequencing, systems biology and experimental studies, and (ii) the detailed mechanisms of disease by studying cell lines from patients and animal models. We aim to develop better methods for diagnosis, treatment and prevention.
Neurobiological ‘risk’ And ‘resilience’ Biomarkers Of Severe Mental Illness
Funder
National Health and Medical Research Council
Funding Amount
$926,980.00
Summary
Mental disorders of childhood (schizotypal disorder, autism spectrum disorders) and adolescence (psychoses, schizophrenia) represent a major burden of disease. We will use sophisticated neuroimaging to examine trajectories of brain growth from childhood to adulthood and identify factors (stress, drugs, inflammation, genes) relevant to risk and resilience to developing these disorders. This will lead to novel early interventions to reduce or ameliorate these conditions.
Outcome Prediction, Stratification And Novel Treatments In Individuals At Ultra High Risk Of Psychosis
Funder
National Health and Medical Research Council
Funding Amount
$774,540.00
Summary
The Ultra High Risk (UHR) criteria have been developed to identify people at high risk of psychotic disorders such as schizophrenia so that treatments can be provided early to reduce risk and disability. However the some UHR people are at risk of other difficulties and disorders and others are not at risk of all. We need to improve our ability to distinguish between these groups so that treatment can be tailored according to risk, and develop new treatments that target underlying problems.
Psychiatric disorders are associated with considerable social and economic burden which could be reduced if we understood mental health outcomes in high risk populations. This fellowship will use advanced brain imaging to understand the development of mental health disorders in those at high risk of bipolar disorder and dementia.
Novel Pathomechanisms And Therapeutic Approaches In Alzheimer's Disease And Related Dementias
Funder
National Health and Medical Research Council
Funding Amount
$804,106.00
Summary
Currently, over 200,000 Australians are affected by Alzheimer's disease (AD) or frontotemporal lobar degeneration (FTLD), causing a huge socio-economic damage. To overcome the lack of effective treatments, we need to understand the underlying causes and translate them into therapy. Using state-of-the-art cell culture and genetic mouse models, I will reveal fundamental processes in AD and related dementias, and develop tailored treatments to battle these devastating disorders.
Through this Australia Fellowship, Prof Keall and his tream will substantially improve the accuracy and effectiveness of radiation therapy for cancer by developing new techniques that will be able to ‘target’ a tumour in real-time and ‘concentrate fire’ on the most resistant and aggressive parts of it. Success in physiological targeting will create a paradigm shift in radiation therapy and could literally be a lifesaver. It’s a big challenge, but if this five-year research program succeeds, it w ....Through this Australia Fellowship, Prof Keall and his tream will substantially improve the accuracy and effectiveness of radiation therapy for cancer by developing new techniques that will be able to ‘target’ a tumour in real-time and ‘concentrate fire’ on the most resistant and aggressive parts of it. Success in physiological targeting will create a paradigm shift in radiation therapy and could literally be a lifesaver. It’s a big challenge, but if this five-year research program succeeds, it will pay big dividendsRead moreRead less