BMEG-E 502 Rapid Prototyping and Device Fabrication in Biomedical Engineering
3 credits
- Prerequisite(s): None
- Delivery: On-Campus
Description
This course covers rapid prototyping techniques in biomedical engineering, emphasizing hands-on design, modeling, and fabrication of biomedical devices. Students explore applications in implants, drug delivery, robotics, and diagnostic tools, gaining skills in 3D printing, material selection, and testing to develop innovative healthcare solutions for real-world challenges.
Topics
Introduction to Rapid Prototyping in Biomedical Engineering
- Overview of rapid prototyping and its importance in biomedical engineering
- Historical and current applications in healthcare
- Basic principles and processes involved in prototyping
Computer-Aided Design (CAD) for Biomedical Devices
- Introduction to CAD software and tools
- Designing models for biomedical applications (implants, prosthetics, etc.)
- Exporting and preparing CAD files for prototyping
Material Selection for Biomedical Prototypes
- Overview of biomaterials and their properties
- Criteria for selecting materials for specific biomedical applications
- Biocompatibility and regulatory considerations
3D Printing Technologies in Biomedical Engineering
- Types of 3D printing technologies (FDM, SLA, SLS, etc.)
- Advantages and limitations of different printing techniques
- Preparing 3D models for various printing technologies
Multi-Material and Advanced 3D Printing Techniques
- Multi-material printing and its applications in biomedical devices
- Techniques for complex and customized prototypes
- Surface finishing and post-processing techniques
Prototyping Implants and Prosthetics
- Design considerations for implants and prosthetic devices
- Structural requirements and testing for durability
- Case studies of successful biomedical implants and prosthetics
Drug Delivery Systems Prototyping
- Basics of drug delivery mechanisms and systems
- Prototyping techniques specific to drug delivery applications
- Testing and assessing drug release profiles in prototypes
Biomedical Robotics and Device Prototyping
- Introduction to biomedical robotics applications
- Designing and prototyping robotic devices for healthcare
- Integrating sensors and actuators into biomedical robots
Functional and Structural Testing of Prototypes
- Methods for assessing prototype functionality
- Mechanical testing for structural integrity
- Data analysis for evaluating prototype performance
Finite Element Analysis (FEA) for Biomedical Applications
- Basics of FEA and its relevance in biomedical prototyping
- Setting up simulations for structural analysis
- Case studies in FEA for medical devices
Machine Learning in Biomedical Prototyping
- Introduction to machine learning concepts relevant to prototyping
- Using ML to optimize prototype design and performance
- Applications of machine learning in diagnostics and device development
Customizing Diagnostic and Prognostic Devices
- Prototyping methods for diagnostic devices
- Design considerations for personalized healthcare devices
- Case studies on successful diagnostic and prognostic devices
AI Integration in Biomedical Prototyping
- Applications of artificial intelligence in prototyping and healthcare
- Integrating AI tools for data-driven prototyping
- Future trends in AI and rapid prototyping for medical applications
Biocompatibility and Ethical Considerations
- Ensuring biocompatibility in biomedical prototypes
- Ethical issues in the development of medical devices
- Regulatory considerations and FDA guidelines
Future Directions in Biomedical Prototyping
- Emerging technologies in rapid prototyping
- Challenges and opportunities in biomedical engineering
- Innovations in tissue engineering, regenerative medicine, and digital health
Learning Outcomes
- Analyze the principles and applications of rapid prototyping technologies in biomedical engineering.
- Evaluate material properties and select appropriate materials for creating biomedical prototypes.
- Design, create, and implement 3D models of biomedical devices, such as implants and drug delivery systems, using CAD software and 3D printing workflows.
- Assess the functional and structural performance of prototypes through testing and data analysis.
- Integrate engineering, biological, and clinical considerations to *produce* viable solutions addressing specific healthcare challenges.
- Critique the limitations and potential improvements of prototyping methods for future biomedical applications.
- Apply multi-material printing techniques to *create* customized diagnostic and prognostic devices using rapid prototyping.
- Implement and evaluate AI techniques, including machine learning, to enhance biomedical prototyping and healthcare solutions.
- Simulate the structural performance of biomedical prototypes using finite element analysis.
Policies and Procedures
Please be aware of the following linked policies and procedures. Note that in individual courses instructors will have stipulations specific to their course.