Sensorimotor Rehabilitation

<p>Comprehensive Assessment of Walking Function After Human Spinal Cord Injury</p> <p>Translating Mechanisms of Neuroprotection, Regeneration, and Repair to Treatment of Spinal Cord Injury</p> <p>High Resolution Imaging of the Central Nervous System: How Novel Imaging Methods Combined with Navigation Strategies will Advance Patient Care</p> <p>Assessment of Transmission in Specific Descending Pathways in Relation to Gait and Balance Following Spinal Cord Injury</p> <p>Exciting Recovery: Augmenting Practice with Stimulation to Optimize Outcomes after Spinal Cord Injury</p> <p>Facilitation of Descending Excitatory and Spinal Inhibitory Networks from Training of Endurance and Precision Walking in Participants with Incomplete Spinal Cord Injury</p> <p>Targeted Neuroplasticity for Rehabilitation</p> <p>The "Beneficial" Effects of Locomotor Training after Various Types of Spinal Lesions in Cats and Rats</p> <p>Electrophysiological Mapping of Rat Sensorimotor Lumbosacral Spinal Networks after Complete Paralysis</p> <p>The Extracellular Matrix in Plasticity and Regeneration after CNS Injury and Neurodegenerative Disease</p> <p>Bench to Bedside: Challenges of Clinical Translation</p> <p>Restoring Motor Function With Bidirectional Neural Interfaces</p> <p>Stroke Rehabilitation:  Clinical Picture, Assessment and Therapeutic Challenge</p> <p>Repetitive Transcranial Magnetic Stimulation for Motor Recovery of the Upper Limb after Stroke</p> <p>Cortical Mechanisms Underlying Sensorimotor Enhancement Promoted by Walking with Haptic Inputs in a Virtual Environment</p> <p>Translating the Science into Practice: Shaping Rehabilitation Practice to Enhance Recovery after Brain Damage</p> <p>Inhibition of the Contralesional Hemisphere after Stroke: Reviewing a few of the Building Blocks with a Focus on Animal Models</p> <p>Pathways Mediating Functional Recovery</p> <p>Lost in Translation: Rethinking Approaches to Stroke Recovery</p>