Module #1 Introduction to Biomechanical Modeling for Orthopedic Devices Overview of the importance of biomechanical modeling in orthopedic device design and development
Module #2 Biomechanics Fundamentals for Orthopedic Devices Review of key biomechanics concepts, including kinematics, kinetics, and tissue mechanics
Module #3 Types of Orthopedic Devices and Their Applications Overview of common orthopedic devices, including joint replacements, spinal implants, and fracture fixation devices
Module #4 Importance of Modeling in Orthopedic Device Development Discussion of the role of modeling in device design, testing, and regulatory approval
Module #5 Basic Mathematical Modeling Concepts for Biomechanics Review of mathematical modeling techniques, including linear algebra, differential equations, and numerical methods
Module #6 Finite Element Analysis (FEA) for Biomechanical Modeling Introduction to FEA, including basics of mesh generation, element types, and boundary conditions
Module #7 Multi-Body Dynamics for Orthopedic Device Modeling Introduction to multi-body dynamics, including joint models, rigid body dynamics, and constraint equations
Module #8 Computational Modeling of Soft Tissues Overview of methods for modeling soft tissue behavior, including nonlinear elasticity and viscoelasticity
Module #9 Creating and Working with 3D Models for Biomechanical Analysis Practical guide to creating and working with 3D models, including CAD software and file formats
Module #10 Biomechanical Modeling Software and Tools Overview of commercial and open-source software for biomechanical modeling, including ABAQUS, ANSYS, and OpenSim
Module #11 Modeling of Total Joint Replacements Case study on biomechanical modeling of total joint replacements, including hip, knee, and shoulder joints
Module #12 Modeling of Spinal Implants and Intervertebral Discs Case study on biomechanical modeling of spinal implants and intervertebral discs
Module #13 Modeling of Fracture Fixation Devices and Bone Healing Case study on biomechanical modeling of fracture fixation devices and bone healing
Module #14 Modeling of Orthopedic Implants for Sports Injuries Case study on biomechanical modeling of orthopedic implants for sports injuries, including ACL reconstruction and shoulder stabilization
Module #15 Modeling of Pediatric Orthopedic Devices Case study on biomechanical modeling of pediatric orthopedic devices, including scoliosis implants and clubfoot correction devices
Module #16 Uncertainty Quantification and Sensitivity Analysis in Biomechanical Modeling Introduction to uncertainty quantification and sensitivity analysis techniques for biomechanical modeling
Module #17 Machine Learning and Artificial Intelligence in Orthopedic Device Modeling Overview of machine learning and AI techniques in orthopedic device modeling, including image-based modeling and personalized medicine
Module #18 Multiscale Modeling of Orthopedic Devices and Biological Tissues Introduction to multiscale modeling techniques for coupling device and tissue behavior
Module #19 In Silico Clinical Trials and Regulatory Approvals for Orthopedic Devices Discussion of in silico clinical trials and regulatory approval processes for orthopedic devices
Module #20 Future Directions and Emerging Trends in Biomechanical Modeling for Orthopedic Devices Overview of emerging trends and future directions in biomechanical modeling for orthopedic devices
Module #21 Practical Exercise:Biomechanical Modeling of a Simple Orthopedic Device Hands-on exercise in biomechanical modeling of a simple orthopedic device using commercial software
Module #22 Practical Exercise:Biomechanical Modeling of a Complex Orthopedic Device Hands-on exercise in biomechanical modeling of a complex orthopedic device using open-source software
Module #23 Final Project:Biomechanical Modeling of an Orthopedic Device of Choice Final project in which students apply biomechanical modeling techniques to an orthopedic device of their choice
Module #24 Additional Resources for Biomechanical Modeling of Orthopedic Devices Compilation of additional resources, including textbooks, research articles, and online courses
Module #25 Professional Development and Career Opportunities in Biomechanical Modeling for Orthopedic Devices Discussion of professional development and career opportunities in biomechanical modeling for orthopedic devices
Module #26 Ethical Considerations in Biomechanical Modeling for Orthopedic Devices Discussion of ethical considerations in biomechanical modeling for orthopedic devices, including patient privacy and data security
Module #27 Standards and Regulations for Biomechanical Modeling in Orthopedic Device Development Overview of standards and regulations for biomechanical modeling in orthopedic device development
Module #28 Collaboration and Communication in Biomechanical Modeling for Orthopedic Devices Discussion of collaboration and communication strategies for effective biomechanical modeling in orthopedic device development
Module #29 Lessons Learned and Best Practices in Biomechanical Modeling for Orthopedic Devices Compilation of lessons learned and best practices in biomechanical modeling for orthopedic devices
Module #30 Course Wrap-Up & Conclusion Planning next steps in Biomechanical Modeling for Orthopedic Devices career
