Syllabus
Introduction: Overview of Robotic Neurorehabilitation. Neurophysiology of Motor Recovery.
Biomechatronics and Design Concepts: Biomechatronics for Robot-mediated Neurorehabilitation. Robotic Architectures. Overview of Sensors and Actuators for Human-Robot Interaction. Robotic Neurorehabilitation Systems: Wearable Robotic Systems. Control Strategies. Upper-limb Exoskeletons. Robot-assisted Upper-limb Rehabilitation. Exoskeletal Devices for Lower-limb. Robot-assisted Gait Rehabilitation. Gait Analysis. Computational Neurorehabilitation: Quantitative measures – encompassing kinematic, kinetic, timing, sensory, and neuromechanical aspects of performance. Models of Neuromotor Recovery. Computational Models of Motor Learning. BCI and Neurorehabilitation: Reverse Engineer the Brain. Neurophysiological Bases of EEG. Motor Imagery Brain Computer Interface (BCI) and Neurorehabilitation. Mental Fatigue and Adaptive BCIs. Advances in Robot-assisted Rehabilitation: Haptics-enabled Interactive Robotic Neurorehabilitation. Hybrid Functional Electrical Stimulations. Design of Innovative Control Strategies. Reinforcement Learning Driven Intelligent Robotic Devices for Neurorehabilitation.
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