Protein Homeostasis, Protein Aggregation And Amyotrophic Lateral Sclerosis
Funder
National Health and Medical Research Council
Funding Amount
$428,065.00
Summary
There is a desperate need for biomarkers and therapeutics for Motor Neurone Disease (MND). Mutations in a growing list of genes are implicated as a cause of MND, although the way these cause MND remains a mystery. I aim to build a uniquely positioned research team that approaches this problem from a protein centric view and incorporating strategic collaborative efforts to the understanding of the pathogenesis of MND; the longterm goal of which is translation to biomarkers and therapeutics.
Role Of Hsp40 And Hsp70 In Huntingtin Misfolding, Oligomerization And Inclusion Assembly
Funder
National Health and Medical Research Council
Funding Amount
$590,103.00
Summary
Huntington disease results from a mutation that causes the Htt protein to become abnormally sticky and form toxic clusters in neurons. Cells have natural defences to clustering with proteins called chaperones, which are exciting therapeutic targets. This project will examine how chaperones defend against toxic Htt clustering with cutting-edge imaging technologies. The knowledge gained will aid in designing therapeutic strategies that stimulate the defence processes and suppress the clusters.
Alzheimer's, Huntington's and Parkinson's diseases involve the formation of protein aggregates, termed amyloid. The formation of amyloid leads to cell death and neurodegeneration. The most important cellular events perturbed by the formation of amyloid aggregates are unclear. Recent evidence suggests that sterols (including cholesterol) have an important role in cellular toxicity. This study will examine the molecular basis for this, enhancing our understanding of the amyloid diseases and could ....Alzheimer's, Huntington's and Parkinson's diseases involve the formation of protein aggregates, termed amyloid. The formation of amyloid leads to cell death and neurodegeneration. The most important cellular events perturbed by the formation of amyloid aggregates are unclear. Recent evidence suggests that sterols (including cholesterol) have an important role in cellular toxicity. This study will examine the molecular basis for this, enhancing our understanding of the amyloid diseases and could suggest novel therapeutic avenues.Read moreRead less
Pathogenic And Adaptive Molecular Interactions With Mutant Huntingtin Exon 1
Funder
National Health and Medical Research Council
Funding Amount
$727,117.00
Summary
This project aims to determine how the gene mutation that causes Huntington’s disease (HD) damages cells in the brain. The diseased gene creates a protein that is abnormally sticky, which causes it to form clumps. Our goal is to determine the components of the cell that are disrupted and damaged as clumping happens. Understanding this link will enable therapeutics to be logically designed in efforts to prevent harm to the brain, potentially before symptoms are evident.
Blood clotting is the underlying cause of heart attacks and strokes. We have discovered that the protein, ERp5, is essential for normal blood clotting. Our preliminary findings indicate that ERp5 controls the function of blood platelets in clotting. Our overall aim is to elucidate how ERp5 regulates platelet function. It is crucial that we understand how ERp5 functions in blood clotting if we are to effectively target it in disease.
Viewing The Cellular Responses In Huntington’s Disease Through An Aggreomics Framework
Funder
National Health and Medical Research Council
Funding Amount
$363,218.00
Summary
Huntington disease results from a mutation that causes the Htt protein to form abnormal toxic clusters in neurons that eventually leads to cell death. This project will develop and apply new technology to identify how the clustering process damages cells and will measure all the gene expression changes that occur during the clustering process. The project offers much potential for revealing new therapeutic targets to this incurable disease.
Characterisation Of TIA Proteins In RNA Recognition And Stress Granule Formation
Funder
National Health and Medical Research Council
Funding Amount
$566,966.00
Summary
Cells in our body need to be able to respond to stresses such as heat, hypoxia, chemical stress or infection. In this project we investigate the specialized TIA proteins that have the job of protecting RNA in stressed cells. We will investigate the way TIA proteins recognize particular mRNA and form temporary protective clusters. By better understanding this process we will gain insight into the way in which cells are susceptible to damage in diseases including neurodegenerative disease.