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Australian State/Territory : QLD
Socio-Economic Objective : Nervous system and disorders
Field of Research : Motor Control
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  • Funded Activity

    Discovery Projects - Grant ID: DP0770982

    Funder
    Australian Research Council
    Funding Amount
    $286,000.00
    Summary
    Experimental and computational assessment of the mechanical, musculo-skeletal and neuromuscular contributions to rhythmic multi-joint arm movements. The human body is a complex mechanical system that is controlled by a vast neural network comprising many millions of connections. To date, realistic descriptions of the interactions between these neuro-mechanical features have proved elusive. This project seeks to develop a mathematical model that accurately describes the essential features of the .... Experimental and computational assessment of the mechanical, musculo-skeletal and neuromuscular contributions to rhythmic multi-joint arm movements. The human body is a complex mechanical system that is controlled by a vast neural network comprising many millions of connections. To date, realistic descriptions of the interactions between these neuro-mechanical features have proved elusive. This project seeks to develop a mathematical model that accurately describes the essential features of the control system for human movement, and yet is simple enough to inform the design of artificial devices to generate or assist movement. The knowledge derived should improve mechanical and neural prosthetic systems, and guide rehabilitation protocols. The work will ultimately provide a considerable benefit to the community by reducing the social cost of a range of movement disorders.
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    Funded Activity

    Discovery Projects - Grant ID: DP0665821

    Funder
    Australian Research Council
    Funding Amount
    $205,000.00
    Summary
    An inverse control approach to resolving the neural basis of spatial and muscular dependencies in coordinated multi-limb movements. Each year 48,000 Australians suffer from stroke with many survivors left with problems that limit limb function. With reduced duration of hospital care, the opportunities for retraining in the period immediate following stroke are rapidly diminishing. Effective and efficient strategies of rehabilitation that will maximise the level of recovery following stroke will .... An inverse control approach to resolving the neural basis of spatial and muscular dependencies in coordinated multi-limb movements. Each year 48,000 Australians suffer from stroke with many survivors left with problems that limit limb function. With reduced duration of hospital care, the opportunities for retraining in the period immediate following stroke are rapidly diminishing. Effective and efficient strategies of rehabilitation that will maximise the level of recovery following stroke will result in benefits expressed in terms of enhanced quality of life and functional life-span, as well as significantly reduced costs of health care. In understanding the fundamental principles underlying the stability and adaptability of movement coordination, this research is likely to make a significant contribution to the design of programs for movement rehabilitation.
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    Funded Activity

    Discovery Projects - Grant ID: DP0452132

    Funder
    Australian Research Council
    Funding Amount
    $195,000.00
    Summary
    Interceptive Action: Performance, Neuromotor Control and Learning. Natural, everyday environments are dynamic. People, animals and other objects move around and human behaviour must be geared to these motions: people must anticipate where things are going and when they will get there so that undesirable collisions and contacts can be avoided and desirable ones achieved. This project investigates basic modes of interacting with dynamic environments - intercepting and evading objects in motion. T .... Interceptive Action: Performance, Neuromotor Control and Learning. Natural, everyday environments are dynamic. People, animals and other objects move around and human behaviour must be geared to these motions: people must anticipate where things are going and when they will get there so that undesirable collisions and contacts can be avoided and desirable ones achieved. This project investigates basic modes of interacting with dynamic environments - intercepting and evading objects in motion. The aim is to extend our understanding of the principles, control mechanisms and brain structures involved. Such understanding has the potential to contribute to areas such as road safety, autonomous robotics, sports training and neurological rehabilitation.
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    Funded Activity

    Discovery Projects - Grant ID: DP0558328

    Funder
    Australian Research Council
    Funding Amount
    $364,000.00
    Summary
    Cortical Mechanisms Mediating Bilateral Interactions Between the Upper Limbs. Each year 40,000 Australians suffer from stroke with many survivors left with problems that limit limb function. With reduced duration of hospital care, the opportunities for retraining in the period immediate following stroke are rapidly diminishing. Effective and efficient strategies of rehabilitation that will maximise the level of recovery following stroke will result in benefits expressed in terms of enhanced qual .... Cortical Mechanisms Mediating Bilateral Interactions Between the Upper Limbs. Each year 40,000 Australians suffer from stroke with many survivors left with problems that limit limb function. With reduced duration of hospital care, the opportunities for retraining in the period immediate following stroke are rapidly diminishing. Effective and efficient strategies of rehabilitation that will maximise the level of recovery following stroke will result in benefits expressed in terms of enhanced quality of life and functional life-span, as well as significantly reduced costs of health care. In understanding the fundamental principles underlying the stability and adaptability of movement coordination, this research is likely to make a significant contribution to the design of programs for rehabilitation of the upper limb.
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    Funded Activity

    Discovery Projects - Grant ID: DP0210105

    Funder
    Australian Research Council
    Funding Amount
    $140,000.00
    Summary
    Audio-visual Information for Speech-hand Gestures. How does audio-visual information influence human movement and communication? We will investigate whether speech and hand gestures involve shared information about the timing of rhythmic movements. Using dynamical systems theory and brain imaging techniques, we will study rhythms that emerge during simultaneous speaking and finger tapping in both stutterers and non-stutterers, and in left-handers and right-handers. The communicative interaction .... Audio-visual Information for Speech-hand Gestures. How does audio-visual information influence human movement and communication? We will investigate whether speech and hand gestures involve shared information about the timing of rhythmic movements. Using dynamical systems theory and brain imaging techniques, we will study rhythms that emerge during simultaneous speaking and finger tapping in both stutterers and non-stutterers, and in left-handers and right-handers. The communicative interaction of two persons performing speech-hand gestures will be examined. Results will clarify how brain asymmetry affects gestural coordination in stutterers, how stuttering can be treated, and the hypothesis that speech and language evolved from a communication system based on hand gestures.
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    Funded Activity

    Discovery Projects - Grant ID: DP0344918

    Funder
    Australian Research Council
    Funding Amount
    $560,000.00
    Summary
    An investigation of limb dynamics as a constraint on human motor learning. Everyday we use our limbs to interact with a variety of objects. These objects have various mechanical characteristics (dynamics), which require the human motor system to provide appropriate control. This project seeks to understand how the brain, in both normal and disease states, learns new limb dynamics as we interact with a novel mechanical environmental. Repetitive brain stimulation will be used to selectively block .... An investigation of limb dynamics as a constraint on human motor learning. Everyday we use our limbs to interact with a variety of objects. These objects have various mechanical characteristics (dynamics), which require the human motor system to provide appropriate control. This project seeks to understand how the brain, in both normal and disease states, learns new limb dynamics as we interact with a novel mechanical environmental. Repetitive brain stimulation will be used to selectively block the contribution of various cortical regions during the learning of a new motor skill and later, the recall of that skill. This will allow us to determine definitively which areas are critical to motor skill acquisition.
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    Funded Activity

    Discovery Projects - Grant ID: DP0210500

    Funder
    Australian Research Council
    Funding Amount
    $137,000.00
    Summary
    The neural basis of interlimb coordination. The aims of the proposed research program are to increase our understanding the control of voluntary movement. It is expected that the outcomes of this research program will have eventual application to a number of acquired movement deficits, in particular those arising from spinal cord and brain injury. This research will also be of diagnostic value in determining the integrity of the motor pathways, in both acquired and developmental movement disorde .... The neural basis of interlimb coordination. The aims of the proposed research program are to increase our understanding the control of voluntary movement. It is expected that the outcomes of this research program will have eventual application to a number of acquired movement deficits, in particular those arising from spinal cord and brain injury. This research will also be of diagnostic value in determining the integrity of the motor pathways, in both acquired and developmental movement disorders.
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    Funded Activity

    Linkage - International - Grant ID: LX0667145

    Funder
    Australian Research Council
    Funding Amount
    $10,792.00
    Summary
    How does Motor Cortex Excitability Influence Internal Model Retention. Each year 40,000 Australians suffer from stroke with many survivors left with problems that limit limb function. With reduced duration of hospital care, the opportunities for retraining in the period immediate following stroke are rapidly diminishing. Effective and efficient strategies of rehabilitation that will maximise the level of recovery following stroke will result in benefits expressed in terms of enhanced quality of .... How does Motor Cortex Excitability Influence Internal Model Retention. Each year 40,000 Australians suffer from stroke with many survivors left with problems that limit limb function. With reduced duration of hospital care, the opportunities for retraining in the period immediate following stroke are rapidly diminishing. Effective and efficient strategies of rehabilitation that will maximise the level of recovery following stroke will result in benefits expressed in terms of enhanced quality of life and functional life-span, as well as significantly reduced costs of health care. In understanding the fundamental principles underlying the stability and adaptability of movement coordination, this research is likely to make a significant contribution to the design of programs for rehabilitation of the upper limb.
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    Funded Activity

    Linkage - International - Grant ID: LX0349377

    Funder
    Australian Research Council
    Funding Amount
    $27,068.00
    Summary
    Visuomotor Adaptation and Stimulus Response Compatibility: Basic Mechanisms and Safety Implications for Heavy Equipment. This project will explore mechanisms of human visuomotor adaptation using a directional stimulus-response compatibility (SRC) paradigm. The latter refers to the greatly enhanced performance for ?natural? pairings of control movement directions and system output directions. The outcomes are both theoretical (understanding basic processes) and applied (design and training gui .... Visuomotor Adaptation and Stimulus Response Compatibility: Basic Mechanisms and Safety Implications for Heavy Equipment. This project will explore mechanisms of human visuomotor adaptation using a directional stimulus-response compatibility (SRC) paradigm. The latter refers to the greatly enhanced performance for ?natural? pairings of control movement directions and system output directions. The outcomes are both theoretical (understanding basic processes) and applied (design and training guidelines for equipment in construction, mining, transport and aerospace industries). The issue is also significant both theoretically, since models of adaptation and SRC phenomena have not previously been combined, and practically, as serious heavy equipment accidents can result from designs that are not based on sound human performance principles.
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    Funded Activity

    ARC Future Fellowships - Grant ID: FT0991468

    Funder
    Australian Research Council
    Funding Amount
    $788,800.00
    Summary
    The human mirror system and the perception of others' actions. This research will provide greater understanding of how the human mirror system operates for the perception of actions, a crucial first-step toward understanding disorders of action perception such as autism and apraxia. The research program will also contribute greatly to building national capacity in cognitive neuroscience research, using advanced brain imaging methods. The fellow actively encourages and mentors young scientists, o .... The human mirror system and the perception of others' actions. This research will provide greater understanding of how the human mirror system operates for the perception of actions, a crucial first-step toward understanding disorders of action perception such as autism and apraxia. The research program will also contribute greatly to building national capacity in cognitive neuroscience research, using advanced brain imaging methods. The fellow actively encourages and mentors young scientists, organises advanced workshops that bring brain imaging researchers around the world to Australia, and builds international collaborations based around high-field brain imaging. The Future Fellowship will substantially enhance these activities, building capacity and enhancing Australia's reputation in cognitive neurosciences.
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