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for epilepsy and rare neurodevelopmental disorders Department: Department of Physiology & Medical Physics and FutureNeuro Research Centre Reporting to: Prof David Henshall Location: FutureNeuro Research Centre
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highly collaborative research team dedicated to advancing our understanding of epilepsy, sleep physiology, and neural networks through cutting-edge clinical and translational research. Working alongside
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Associate will conduct translational epilepsy research focused on the network mechanisms of ictogenesis in mesial temporal lobe epilepsy (MTLE). The researcher will develop and validate quantitative, event
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lab, including epilepsy and seizure models, and brain disease paradigms. This position is responsible for data compilation, analysis, interpretation and preparation of scientific manuscripts. The person
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take advantage of rare opportunities to record neuronal activity directly in humans during the clinical implantation of devices for intracranial monitoring of drug-resistant epilepsy. Specifically, we
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of his/her scientific mentor to investigate the molecular and circuit mechanism of epilepsy in mouse models; independently designs new analytical approaches and tools; performs experiments; independently
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is seeking a highly motivated postdoctoral associate to work on NIH-funded projects focused on understanding the molecular mechanisms underlying epilepsy. We are a basic and translational neuroscience
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disorders, and epilepsy. The primary project is supported by an NIH R01 grant aimed at characterizing circuit-level spatiotemporal alterations in HD using advanced multimodal MRI. The research spans three
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be responsible for the design, analysis, interpretation, and presentation of experiments regarding the study of the pathophysiology of epilepsy or seizure disorders using murine models and human
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also contribute to other ongoing projects in brain tumor imaging, movement disorders, and epilepsy. The primary project is supported by an NIH R01 grant aimed at characterizing circuit-level