A First Course in Biomechanics

A comprehensive introduction to biomechanics with an emphasis on the mechanical science principles involved in human movement. Perfect for engineers looking to enter the field.

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Discover the Power of Biomechanics

Are you a mechanical engineer or scientist looking to apply your technical expertise to the fascinating world of biomechanics?

A First Course in Biomechanics is the perfect starting point for your journey into this dynamic field. This course bridges the gap between biology and engineering, offering you the foundational knowledge and practical tools to analyze and optimize human movement.

Why This Course is Perfect for Engineers

Bridges Biology and Engineering:

Apply your existing technical expertise to the mechanics of human movement.
Focus on Practical Applications:

Gain real-world insights and skills that can be immediately applied in industries like medical devices, sports performance, and rehabilitation.
Tailored for Technical Minds:

Designed with engineers and scientists in mind, this course cuts through unnecessary fluff and focuses on the mechanics you care about.

What You’ll Learn

Designed to introduce you to biomechanics from an engineer’s perspective, this course focuses on the mechanical principles that govern human movement. Here’s what you’ll gain:

A Strong Foundation in Biomechanics: Understand the intersection of biology and engineering and how these principles work together to explain movement.
Insights into Biomaterial Properties: Learn about the unique properties of biological materials and how they respond to forces and stresses.
Practical Applications and Analysis: Apply biomechanical principles to real-world scenarios, including common exercises like squats and lunges.
Techniques for Injury Prevention: Discover how biomechanics can help prevent injuries by optimizing movement patterns.
Expertise in Rehabilitation: Explore the role of biomechanics in rehabilitation and recovery, giving you valuable tools for advancing careers in sports, health, or human performance.

Get a Glimpse of What's Inside:

1. Introduction
1. Common Misconception
2. What is Real Biomechanics
3. Qualifications
4. Shared Fundamentals in Biomechanics and Engineering
1. Elasticity
2. Plasticity
3. Viscosity
4. Viscoelasticity
5. Creep
6. Stress Relaxation
7. Hysteresis
8. Thixotropy
9. Anisotropy
10. Tribology
11. Porosity
12. Composites
13. Stiffness
14. Auxetic
1. Newton's 2nd Law
2. SUVAT Equations
3. Vector Calculus
1. Quantification of Material Properties
2. Analysis Demonstration
1. Architecture
2. Testing
3. Stress
4. Healing and Adaptation
1. Architecture
2. Extracellular Matrix Properties
3. Stresses
4. Healing and Adaptation
1. Architecture
2. Mechanical Properties
3. Stress
4. Healing and Adaptation
1. Architecture
2. Mechanical Properties
3. Stress
4. Healing and Adaptation
1. Architecture
2. Mechanical Properties
3. Stress
4. Healing and Adaptation
1. General Motor Programs
2. Qualitative vs Quantitative Analysis
3. Kinematics vs Kinetics
4. Technology
1. Skeletal Components and Joints
2. Foot and Ankle
3. Shank
4. Shank and Ankle
5. Knee
6. Patellofemoral Dynamics
7. Hip
8. Sacroilliac Joint
9. Lumbar Spine
10. Thoracic Spine and Ribcage
11. Glenohumeral Joint
12. Sternoclavicular Joint
13. Elbows
14. Wrist
15. Neck
16. Kinematics
17. Kinetics
1. Skeletal Components and Joints
2. Quadriceps Force Diagram
3. Anterior Draw ACL Rupture Mechanism
4. Rotational Component of ACL Rupture
5. Hamstring Attachments
6. Big Toe
7. Kinematics
8. Kinetics
1. Lumbo-Pelvic Rhythm
2. Kinematics
3. Kinetics
1. Scapulothoracic/Scapulohumeral Rhythm
2. Kinematics
3. Kinetics
1. Kinematic Inversion
2. Kinetics
1. Facet Joint
1. Physics
1. Key Points
1. Thank you!