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Research Topic : Movement dysfunction
Socio-Economic Objective : Biological sciences
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Human Movement and Sports Science (4)
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  • Funded Activity

    Discovery Projects - Grant ID: DP0770913

    Funder
    Australian Research Council
    Funding Amount
    $420,000.00
    Summary
    Passive mechanical properties of human muscles. Australia has a strong record in the discipline of biomechanics. The proposed studies will help maintain Australia's standing in the discipline. They will provide fundamental new data on the properties of human muscles and basic insights into muscle growth and adaptation. The data will be used to develop more refined biomechanical models than is currently possible. The studies will also provide training in world-leading research methods for two PhD .... Passive mechanical properties of human muscles. Australia has a strong record in the discipline of biomechanics. The proposed studies will help maintain Australia's standing in the discipline. They will provide fundamental new data on the properties of human muscles and basic insights into muscle growth and adaptation. The data will be used to develop more refined biomechanical models than is currently possible. The studies will also provide training in world-leading research methods for two PhD students and a research associate.
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    Funded Activity

    Discovery Projects - Grant ID: DP0209570

    Funder
    Australian Research Council
    Funding Amount
    $140,000.00
    Summary
    Biological Role of Contraction-Induced Heat Shock Protein Expression. It is well known that mammalian skeletal muscle increases its expression of a group of highly conserved proteins, the heat shock proteins (HSP) in response to repeated contraction. However, the biological role of this expression is unclear. The aim of this project is to determine the biological role of contraction-induced HSP expression. We expect to show that HSP synthesis in response to exercise has three major roles; 1) to .... Biological Role of Contraction-Induced Heat Shock Protein Expression. It is well known that mammalian skeletal muscle increases its expression of a group of highly conserved proteins, the heat shock proteins (HSP) in response to repeated contraction. However, the biological role of this expression is unclear. The aim of this project is to determine the biological role of contraction-induced HSP expression. We expect to show that HSP synthesis in response to exercise has three major roles; 1) to act to repair damaged proteins in recovery from muscle injury 2) to act as a "molecular motor" to translocate proteins from one region of a muscle cell to another and 3) to be released into the circulation in order to act as a central signal to activate immune cells. Such a project will be significant because it will allow for a fundamental understanding as to why these proteins are produced in response to exercise. We expect to enhance our understanding of fundamental cell biology.
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    Funded Activity

    Discovery Projects - Grant ID: DP0665941

    Funder
    Australian Research Council
    Funding Amount
    $260,000.00
    Summary
    Theoretical and experimental studies on magnetoelectroelastic bone remodelling process. The project combines biotechnology and material science which will have national economic, social and environment impact. It can benefit industry by providing knowledge that help scientists understand remodeling under coupled fields and is used to develop bone replacement. By better understanding remodeling due to multi-field loading, we can assist scientists in aeronautical industry in developing countermeas .... Theoretical and experimental studies on magnetoelectroelastic bone remodelling process. The project combines biotechnology and material science which will have national economic, social and environment impact. It can benefit industry by providing knowledge that help scientists understand remodeling under coupled fields and is used to develop bone replacement. By better understanding remodeling due to multi-field loading, we can assist scientists in aeronautical industry in developing countermeasures that reduce or eliminate bone loss resulting from long-duration space flight. It can provide knowledge that can be used to explore underlying mechanisms controlling bone remodeling and self-repair in gaining insight into debilitating diseases such as osteoporosis, to develop high-performance prosthetics for medical injury healing.
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    Funded Activity

    Discovery Projects - Grant ID: DP0880844

    Funder
    Australian Research Council
    Funding Amount
    $357,564.00
    Summary
    Molecular dissection of the effects of alpha-actinin-3 deficiency on normal variation in skeletal muscle function. We will study the mechanisms by which a common genetic variant influences muscle bulk, muscle strength and the metabolic efficiency of muscle in the general population. Common genetic variants that influence skeletal muscle function have major potential public health implications as they are likely to influence individuals' response to exercise and diet, and to contribute to suscept .... Molecular dissection of the effects of alpha-actinin-3 deficiency on normal variation in skeletal muscle function. We will study the mechanisms by which a common genetic variant influences muscle bulk, muscle strength and the metabolic efficiency of muscle in the general population. Common genetic variants that influence skeletal muscle function have major potential public health implications as they are likely to influence individuals' response to exercise and diet, and to contribute to susceptibility to common diseases such as obesity, diabetes, and the loss of muscle strength in the elderly. In addition, the identification of genetic factors that influence muscle bulk in vertebrates has implications for breeding programs in sheep and cattle and may provide commercial benefit to the livestock industry.
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    Funded Activity

    Discovery Projects - Grant ID: DP1094024

    Funder
    Australian Research Council
    Funding Amount
    $225,000.00
    Summary
    Impact of shear stress on vascular adaptations in humans. Large arteries are important for the delivery of blood and oxygen to organs such as the heart and brain. A primary physiological stimulus which controls the size and function of these crucial arteries is the magnitude of flow or, more accurately, shear force that the inner wall of the artery is exposed to. We have developed novel software which enables non-invasive assessment of arterial wall velocity, diameter and blood flow. We will ass .... Impact of shear stress on vascular adaptations in humans. Large arteries are important for the delivery of blood and oxygen to organs such as the heart and brain. A primary physiological stimulus which controls the size and function of these crucial arteries is the magnitude of flow or, more accurately, shear force that the inner wall of the artery is exposed to. We have developed novel software which enables non-invasive assessment of arterial wall velocity, diameter and blood flow. We will assess the impact of acute and chronic changes in wall flow and shear on arterial size and function. We will also develop new software which measures other aspects of artery wall behaviour. These basic human physiology studies have direct implications for assessment of artery health in humans.
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