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Engineering
Biomedical Engineering
Biomaterials and Tissue Engineering
1. Introduction to Biomaterials and Tissue Engineering
2. Materials Science Fundamentals
3. Classes of Biomaterials
4. Cell Biology for Tissue Engineering
5. Cell Sources for Tissue Engineering
6. Extracellular Matrix
7. Growth Factors and Signaling
8. Biocompatibility and Host Response
9. Scaffold Design and Engineering
10. Bioreactor Systems
11. Characterization Methods
12. Tissue Engineering Applications
13. Drug Delivery Systems
14. Medical Device Applications
15. Regulatory and Clinical Translation
16. Emerging Technologies and Future Directions
10.
Bioreactor Systems
10.1.
Bioreactor Functions
10.1.1.
Mass Transfer Enhancement
10.1.2.
Mechanical Stimulation
10.1.3.
Environmental Control
10.1.4.
Monitoring and Control
10.2.
Environmental Parameters
10.2.1.
Temperature Control
10.2.2.
pH Regulation
10.2.3.
Dissolved Oxygen
10.2.4.
CO2 Concentration
10.2.5.
Nutrient Supply
10.2.6.
Waste Removal
10.3.
Mechanical Stimulation
10.3.1.
Types of Mechanical Forces
10.3.1.1.
Compression
10.3.1.2.
Tension
10.3.1.3.
Shear Stress
10.3.1.4.
Hydrostatic Pressure
10.3.2.
Mechanotransduction
10.3.3.
Tissue-Specific Requirements
10.4.
Bioreactor Types
10.4.1.
Static Culture Systems
10.4.2.
Stirred Tank Bioreactors
10.4.3.
Spinner Flask Bioreactors
10.4.4.
Rotating Wall Vessel Bioreactors
10.4.5.
Perfusion Bioreactors
10.4.6.
Compression Bioreactors
10.4.7.
Stretch Bioreactors
10.4.8.
Flow Perfusion Systems
10.5.
Bioreactor Design Considerations
10.5.1.
Scalability
10.5.2.
Sterilization
10.5.3.
Monitoring Systems
10.5.4.
Control Systems
10.5.5.
Material Selection
10.6.
Computational Modeling
10.6.1.
Fluid Dynamics
10.6.2.
Mass Transfer Modeling
10.6.3.
Mechanical Modeling
10.6.4.
Optimization
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9. Scaffold Design and Engineering
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11. Characterization Methods