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Engineering
Biomedical Engineering
Biomechanics and Rehabilitation Engineering
1. Foundational Principles of Biomechanics
2. Musculoskeletal System Anatomy and Physiology
3. Biomechanics of Hard Tissues
4. Biomechanics of Soft Tissues
5. Joint Biomechanics
6. Human Movement Biomechanics
7. Biomechanical Measurement Techniques
8. Computational Biomechanics
9. Pathomechanics and Clinical Biomechanics
10. Rehabilitation Engineering Principles
11. Prosthetics and Orthotics
12. Assistive Technologies
13. Therapeutic Robotics and Advanced Technologies
14. Research Methods and Clinical Applications
15. Professional Practice and Future Directions
Musculoskeletal System Anatomy and Physiology
Skeletal System
Bone Structure and Composition
Macroscopic Structure
Cortical Bone
Trabecular Bone
Bone Geometry
Microscopic Structure
Osteons and Haversian Systems
Lamellae
Lacunae and Canaliculi
Bone Composition
Organic Matrix
Mineral Phase
Water Content
Bone Development and Growth
Embryonic Development
Endochondral Ossification
Intramembranous Ossification
Growth Plates and Bone Growth
Bone Remodeling
Cellular Mechanisms
Osteoblasts
Osteoclasts
Osteocytes
Remodeling Cycle
Factors Affecting Remodeling
Muscular System
Muscle Structure
Gross Anatomy
Muscle Fiber Arrangement
Pennation Patterns
Muscle Attachments
Microscopic Structure
Muscle Fibers
Myofibrils
Sarcomeres
Contractile Proteins
Muscle Physiology
Excitation-Contraction Coupling
Sliding Filament Theory
Muscle Fiber Types
Type I Fibers
Type II Fibers
Motor Units
Motor Unit Recruitment
Rate Coding
Muscle Mechanics
Force Generation
Length-Tension Relationship
Force-Velocity Relationship
Power Output
Joint System
Joint Classification
Synovial Joints
Cartilaginous Joints
Fibrous Joints
Joint Structure
Articular Cartilage
Synovial Membrane
Joint Capsule
Ligaments
Menisci and Discs
Joint Function
Degrees of Freedom
Range of Motion
Joint Stability
Lubrication Mechanisms
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1. Foundational Principles of Biomechanics
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3. Biomechanics of Hard Tissues