The Department of Bioengineering invites applications for a part-time faculty member to co-teach BIOE 5560: Bioengineering Design for Robotic Rehabilitation. This course is offered in partnership with the Department of Physical Therapy at Northeastern University, bringing together expertise from both engineering and clinical rehabilitation sciences. A Physical Therapy faculty member from Northeastern will cover the clinical, therapeutic, and movement science components of the course; the part-time faculty member sought through this posting will be responsible for the engineering and robotics content, from a user-centered design perspective. This role is an exciting opportunity for a practitioner or researcher with a strong background in robotics and bioengineering to contribute to a graduate-level, project-based course that bridges rigorous engineering design with real-world rehabilitation applications. The course draws on Northeastern’s established strength in Biomedical and Rehabilitation Robotics — a dedicated concentration within the university’s interdisciplinary MS in Robotics program spanning the College of Engineering, Khoury College of Computer Sciences, and the Bouvé College of Health Sciences — and extends that expertise into collaborative, clinically-grounded student projects. BIOE 5560 covers the intersection of robotics, physical therapy, rehabilitation, and movement sciences. The course is co-taught by faculty from the Departments of Bioengineering and Physical Therapy. The Physical Therapy faculty partner leads instruction on clinical rehabilitation, therapeutic principles, and movement sciences, while the engineering faculty member (this position) leads instruction on robotics systems, engineering design methodology, biomechanical analysis, and sensor integration. Students engage in hands-on projects derived from real-world clinical challenges, following a systematic design process from conceptualization through prototype development. The course emphasizes the application of robotics to enhance therapeutic and rehabilitative outcomes, with key engineering topics including robot mechanics and control, assistive and rehabilitation robotics, sensing and navigation, mechatronic integration, prototyping, biomechanics, and motor control from an engineering perspective. Collaborative teamwork with peers, faculty from both departments, and clinical professionals is central to the course experience. The course concludes with a final project presentation in which student teams demonstrate functional prototypes designed to address specific needs in rehabilitation.
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Job Type
Part-time
Career Level
Mid Level