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Mar 13, 2025
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BME 4410 - Advanced Biomechanics2 lecture hours 2 lab hours 3 credits Course Description This course presents engineering tools, techniques, and concepts employed in biomechanics applications and research in a number of fields, with an overview of the major challenges in movement biomechanics. The course starts with in-depth talks covering digital signal processing techniques of electromyography signals. Studies merging the knowledge of medical imaging and biomechanical properties are illustrated through ultrasound imaging. The course then discusses analysis of musculoskeletal injuries and disorders and how to diagnose them quantitatively. Several prosthetic device designs as reported in the literature will be discussed and some will be modelled using the tools learnt though the course. Course goals will be achieved through lectures, homework problems, the motion capture laboratory, simulation exercises, and student research projects and presentations. (prereq: BME 3410 ) (quarter system prereq: BE 411) Course Learning Outcomes Upon successful completion of this course, the student will be able to:
- Define the design and behavior of the instrumentation, transducers, force plates, etc. used to collect and process human movement data
- Develop FEM models from anthropometric and biomechanical data
- Obtain inverse solutions of joint moments and reaction forces from kinematic and force plate data
- Design and conduct a human-movement based experiment to test a biomechanical problem and draw scientific conclusions
- Set up complex biomechanics problems and solve them using a multidisciplinary approach; design of a simple prosthetic device
- Obtain knowledge of state-of-the-art solutions through peer-reviewed journals, conference proceedings, and vendor websites, to analyze and solve contemporary open-ended problems
Prerequisites by Topic
- Body movements and terminology
- Anthropometry
- Joint biomechanics and joint stability
- Principles and use of electromyography
- Kinematics and kinetics
Course Topics
- EMG signal processing: time and frequency domain
- Medical imaging in biomechanics: strain imaging
- Musculoskeletal injuries: quantitative analysis
- Viscoelasticity and viscoelastic models
- Computational modeling: finite element modeling
- Prosthetic engineering design principles
Laboratory Topics
- Strain imaging: ultrasound imaging under compression
- Studying viscoelastic behavior (ex.: creep) of a biological material (mechanical tester)
- Study of possible injuries in sports biomechanics: baseball swing
- Study of possible injuries in sports biomechanics: golf swing
- Modeling case study: biomechanical model of the human body in MATLAB
- Modeling case study: finite element model of a human prosthesis
Coordinator Dr. Ahmed Sayed
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