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TMS Advances in Clinical Practice
Grant Hilary Brenner, MD, DFAPADone
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A Novel Home-based Device for Combined Occipital and Trigeminal Afferent Stimulation to Treat Depression
Linda L. Carpenter, MDDone
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Optimizing TMS: Lessons from the world's largest TMS database
Eleanor Cole, MSc PhDDone
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Romain Duprat, PhD
Done
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Lunch
Done
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Prime-TMS: The Path to Theoretical and Clinical Precision
Travis E. Baker, PhDDone
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Signals of Emotion
Alana Campbell, PhDDone
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Martijn Schreuder, PhD
Done
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Poster Session
Done
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Brain Monitoring Beyond the Laboratory: fNIRS Across Disciplines and Real-World Contexts
Hasan Ayaz, PhDDone
Transcranial Magnetic Stimulation in Human Motor Recovery for Stroke and Spinal Cord Injury
Neuromodulation - Advancements and Refinements
4/16/26, 10:00 AM
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4/16/26, 10:35 AM
(US/Eastern)
(35 minutes)
Dylan J. Edwards, PhD
Nancy W. Shrier Director
at Jefferson Moss Rehabilitation Research Institute, Thomas Jefferson University
Dylan J. Edwards, PhD
Nancy W. Shrier Director
at Jefferson Moss Rehabilitation Research Institute, Thomas Jefferson University
Dr. Dylan J. Edwards is the Nancy Wachtel Shrier Director of Jefferson Moss Rehabilitation Research Institute, Director of the Human Motor Recovery Laboratory at the Institute, Professor in the Department of Rehabilitation Medicine at The Sidney Kimmel Medical College at Thomas Jefferson University, and Adjunct Professor of Neuroscience and Director of the NeuroRehabilitation and Robotics Laboratory at Edith Cowan University. He is dedicated to translating basic science findings in neurologically healthy people to develop and evaluate novel, clinically-relevant approaches for neurological assessment and neurorehabilitation in stroke and spinal cord injury using non-invasive stimulation, neuromodulation, robotics, combinatorial therapies, neuroimaging, and telerehabilitation.
Transcranial Magnetic Stimulation (TMS) can activate human motor cortex, and as of today, is undergoing two divergent methods in neurorehabilitation applications. The first aims to reduce the method to simple and practical application, and the second aims to develop detailed, sophisticated targeting and modulation. Using TMS with neuronavigation and contemporary modeling of cortical electric field distribution, we seek to evaluate the functional organization of the primary motor cortex with greater detail, as well as reorganization following brain lesion. We also consider that targeting inaccuracy may in part contribute to the high variability in response rate to repetitive TMS (rTMS). TMS targeting precision will be discussed in the context of neurorehabilitation for individuals with stroke and spinal cord injury.