Proteases, Their Inhibitors And Receptors In Degenerative Disease
Funder
National Health and Medical Research Council
Funding Amount
$5,843,388.00
Summary
Many of the themes of this program are aimed at understanding the molecular basis of several important degenerative diseases that in particular affect the ageing population. These include osteoporosis, arthritis, periodontal disease, wasting diseases of muscle and inherited disorders such as antitrypsin deficiency. The five CI’s on this application have formed a collaborative network since 1996. Dr Whisstock is a bioinformatician and structural biologist with a research focus on the serpin super ....Many of the themes of this program are aimed at understanding the molecular basis of several important degenerative diseases that in particular affect the ageing population. These include osteoporosis, arthritis, periodontal disease, wasting diseases of muscle and inherited disorders such as antitrypsin deficiency. The five CI’s on this application have formed a collaborative network since 1996. Dr Whisstock is a bioinformatician and structural biologist with a research focus on the serpin superfamily of protease inhibitors and their protease partners. He is currently the scientific director of the Victorian Bioinformatics Consortium and an NHMRC Senior Research Fellow. Dr Bird is an NHMRC Senior Research Fellow who discovered the intracellular branch of the serpin superfamily and formulated the hypothesis that describes their function. A-Prof Mackie is a world expert in the field of musculoskeletal biology and pathology. Dr Bottomley is a Senior Logan Fellow and RD Wright Fellow whose research focuses upon how proteins misfold and lead to disease. Dr Pike is an enzymologist whose research area encompasses a wide range of bacterial and mammalian proteases involved in the pathology of human disease. Each individual in this team brings different skills which makes this a very important and powerful collaboration. The research is extensive and involves protein folding, enzyme kinetics, molecular modelling, structural biology, bioinformatics, cell biology and pathology, enzyme kinetics and drug design. Collectively the CI’s have a total of 154 papers since 1998, of which a third include two or more of the CI’s as co-authors. Currently the team holds over >$5 million in grant funding. The team is augmented by four P.I.s: Dr Buckle is a talented structural biologist; Dr Scott is a molecular cell biologist who holds an NHMRC CJ Martin Fellow; Dr Garcia de la Banda is a computer scientist based at Monash and Dr Grigoryev is a world expert in chromatin condensation based at Penn State University (USA).Read moreRead less
Regulation Of Gene Expression: Biomolecular Interactions In Cellular Development And Disease
Funder
National Health and Medical Research Council
Funding Amount
$2,998,713.00
Summary
This team consists of three of Australia�s younger researchers Merlin Crossley, Joel Mackay and Jacqui Matthews (as Chief Investigators), who are recognized as authorities in the areas of gene regulation and the structural and functional analysis of proteins. They are joined by Mitchell Weiss, a world authority on blood development and clinical disorders,and Alexis Verger, a molecular and cell biologist recruited from France, both as Principal Investigators. Crossley, Mackay and Matthews have wo ....This team consists of three of Australia�s younger researchers Merlin Crossley, Joel Mackay and Jacqui Matthews (as Chief Investigators), who are recognized as authorities in the areas of gene regulation and the structural and functional analysis of proteins. They are joined by Mitchell Weiss, a world authority on blood development and clinical disorders,and Alexis Verger, a molecular and cell biologist recruited from France, both as Principal Investigators. Crossley, Mackay and Matthews have worked as a team for around six years to date, have published together in high-quality international journals, and have received anumber of accolades for their contributions to Australian science. For example, Crossley has won a number of national awards, including the Gottschalk Medal of the Australian Academy of Science; Mackay was recently awarded the Prime Minister�s Prize for Life Scientist of the Year, and Matthews won the only Charles and Sylvia Viertel Medical Research Fellowship to be awarded in 2003. The members of this team have collaborated extensively on the world stage and Crossley, Mackay and Matthews have also taken leadership roles in the Australian scientific community. Mitchell Weiss has been an important collaborator, exchanging reagents and advice, since he and Crossley trained together as postdocs in Stu Orkin�s lab at Harvard in the early 90s. Most recently Weiss, in collaboration with Mackay, has made important discoveries on a-globin production, which has led to several highly significant publications including a seminal paper in Cell in 2004.The program of research put forward in this proposal centres around understanding the mechanisms through which genes are switched on and off, using blood development as a model system, that is also fundamental to human life. The regulation of gene output is essential both during the development of an organism and throughout the course of its life. Problems with this regulation can result in many different disease states, most notably cancer, which includes the many different types of leukemias. At one level, gene output is controlled by networks of specific proteins known as transcription factors that interact both with each other and with DNA. Currently, however, the details surrounding which complexes regulate which genes and the processes that control the making and breaking up of the complexes are not well understood. Knowledge of how these interactions take place will put us in a position to control the output of chosen genes for therapeutic purposes. We propose to use a combination of cell biological, biochemical, and structural approaches to firstly shed light on these complexes and secondly develop reagents that can be used to manipulate the activity of specific genes.Read moreRead less
Genetic And Bioinformatic Analysis Of Complex Human Diseases
Funder
National Health and Medical Research Council
Funding Amount
$8,752,567.00
Summary
Some human diseases are common in families; examples include prostate cancer, blood cancers, epilepsy and diabetes. Therefore, close relatives of individuals with a disease have an increased risk of being affected by this disease, implying a genetic basis. Finding the cause of these diseases is difficult, we will be developing novel approaches to the identification of genes responsible for these diseases. This is the first step towards the development of treatments for affected individuals.
The genome project has opened the path for the study of diseases using genetics. This approach is still quite recent in human and mammalian biology. It requires a large amount of input from statisticians and computer scientists as well as from the biologists and clinicians working on the disease. The team is looking for genes causing complex genetic diseases and use human populations and families as well as mouse models of human diseases. This includes modifiers of cancer development and respons ....The genome project has opened the path for the study of diseases using genetics. This approach is still quite recent in human and mammalian biology. It requires a large amount of input from statisticians and computer scientists as well as from the biologists and clinicians working on the disease. The team is looking for genes causing complex genetic diseases and use human populations and families as well as mouse models of human diseases. This includes modifiers of cancer development and response to infectious disease as well as deafness and autoimmune diseases.Read moreRead less
Malaria: From Target Identification And Therapeutics
Funder
National Health and Medical Research Council
Funding Amount
$5,276,440.00
Summary
The team brings together a number of experts in various aspects of malaria, vaccines and drug design to develop new therapeutic approaches to control of one of the world�s major infectious diseases. Recent developments such as the complete sequence of every malaria gene provides an unparalleled opportunity to use a number of powerful new techniques in biology to identify vulnerabilities in the parasite that may be targeted. Members of the team include Professor von Itzstein who was responsible f ....The team brings together a number of experts in various aspects of malaria, vaccines and drug design to develop new therapeutic approaches to control of one of the world�s major infectious diseases. Recent developments such as the complete sequence of every malaria gene provides an unparalleled opportunity to use a number of powerful new techniques in biology to identify vulnerabilities in the parasite that may be targeted. Members of the team include Professor von Itzstein who was responsible for the design of the anti-flu drug Relenza, Professor Ross Coppel who is a pioneer in the application of molecular biology to the study of malaria, and Drs Cooke and Plebanski, exciting and talented young scientists who already have made highly significant and important contributions to our understanding of how malaria parasites function and cause disease. Success in this research program has the capacity to save millions of lives each year by preventing the deadly toll of this important human scourge.Read moreRead less
Atherosclerosis:Lipoproteins, Cell Biology And Vascular Physiology
Funder
National Health and Medical Research Council
Funding Amount
$7,274,391.00
Summary
The team comprises internationally recognised experts in basic, clinical and public health applied research in cardiovascular disease, particularly atherosclerosis that is the commonest cause of death in Australia and other developed countries. Over the last decade, improvement in cardiovascular health has been primarily the result of a better understanding on how to control 'bad' (or LDL) cholesterol. The significance of the proposed studies is that, on the one hand, they will provide new infor ....The team comprises internationally recognised experts in basic, clinical and public health applied research in cardiovascular disease, particularly atherosclerosis that is the commonest cause of death in Australia and other developed countries. Over the last decade, improvement in cardiovascular health has been primarily the result of a better understanding on how to control 'bad' (or LDL) cholesterol. The significance of the proposed studies is that, on the one hand, they will provide new information on how 'good' lipoproteins protect us from atherosclerosis. This information can then be used to regulate 'good' cholesterol in a meaningful manner. On the other hand, the proposed studies will provide fundamental insights into how a range of lifestyle factors, physiological processes and pathological conditions relate to both the function of blood vessel-lining cells and susceptibility of individuals to atherosclerosis.Read moreRead less
This Program Grant investigates a number of important reproductive problems that affect the fertility of men, prostate cancer and the way the mother nurtures and protects the baby during pregnancy. The successful development of sperm requires the proper function of a number of biological processes. This grant investigates the way in which sperm are produced, the genes that are needed to control their development, and the way sperm propel themselves and fertilize the egg. The research also invest ....This Program Grant investigates a number of important reproductive problems that affect the fertility of men, prostate cancer and the way the mother nurtures and protects the baby during pregnancy. The successful development of sperm requires the proper function of a number of biological processes. This grant investigates the way in which sperm are produced, the genes that are needed to control their development, and the way sperm propel themselves and fertilize the egg. The research also investigates how sperm are protected during their development from infection and immunological rejection, achieved in part by a special environment within the tubes in the testis where they grow. It appears that the general mechanisms that the body uses to combat infections are modified within the testis and the way in which this occurs may provide clues that could be applied to prevent the rejection of transplanted organs in general. Some of the substances that control these processes appear to play an important role in the body�s defense against infection. The grant also investigates the processes that are involved in the development of prostate cancer. These changes can occur over many years and the grant will study some substances that appear to be involved. The work will provide new knowledge that may assist in new tests to identify whether a cancer is slow or fast growing, thereby helping each man to decide the most sensible form of treatment. The grant will investigate how a group of proteins, that also are involved in the control of processes discussed above, assist the mother in protecting her baby during pregnancy. The outcomes will assist in the management of disturbances of pregnancy that may put the fetus at risk of survival.Read moreRead less