
Discover the fundamentals of biomechanics, from anatomy to statics, dynamics, and mechanics. Build skills to analyze human movement using musculoskeletal insights, forces, and motion analysis tools.
Identify the three axes of rotation—longitudinal, frontal, and transverse—and the three planes—transverse, frontal, and sagittal—within a center-of-mass coordinate system for describing movement of an upright human.
Investigate and simulate motion sequences, detect stresses and strains, prevent injuries, and guide rehabilitation through design of orthoses, prostheses, implants, and surgical techniques.
Explore practical biomechanical examples, from push-ups to femur loading, analyzing forces, moments, and stresses. Examine knee joint kinematics and knee prosthesis design to maximize safety and function.
Define momentum as p = m v and, independent of force, show its conservation in a closed system where momentum before equals momentum after, illustrated by the Newton pendulum.
Explore the basics of trigonometry, focusing on sine and cosine, to calculate angles and side lengths in a right triangle using a practical alpha 30 degrees, c 50 cm example.
Distribute the force into horizontal and vertical components using fx = F cos alpha and fy = -F sin alpha, illustrating static equilibrium.
Explore cortical and spongy bone, contrasting dense, stiff tissue at the shaft with light, stable spongy tissue, and review major bone types—long tubular, flat, short, irregular, and sesamoid (patella).
The knee joint's ligaments limit motion and provide passive stability, shaping biomechanics alongside the muscles, with LCL, MCL, ACL, and PCL guiding tibia movement.
The meniscus is a knee-specific fibrocartilage that cushions the tibia and femur by distributing contact pressure and reducing high stress on incongruent joint surfaces. Lack of blood supply hinders healing.
Explore the three muscle types—smooth, cardiac (myocardium), and skeletal—and their involuntary vs voluntary control, skeletal training for strength, and their roles in movement and maintaining body temperature.
Explore dynamics basics, distinguishing kinematics from kinetics and examining equilibrium in dynamic systems. Classify movements - straight-line, translations, rotations, and repetitive motions - and learn to calculate velocities, accelerations, forces, work, and energy.
Examine three dynamic idealizations—mass point, mass point system, and rigid body—and identify how their degrees of freedom and bindings determine motion in two-dimensional, three-dimensional, and rotational contexts.
Examine how force plates measure ground reaction forces and moments to assess athletic power and vertical jump, while pressure plates map plantar pressures to tailor insoles for foot structure.
Explore data analysis in biomechanics using machine learning to interpret 2D/3D motion data from wearables and IMUs, enabling real-time feedback and bridging coaches and data scientists for performance optimization.
GET TO KNOW THE BIOMECHANICS OF THE HUMAN BODY BY COMBINING THE PHYSICS WITH THE ANATOMY!
In this course, we apply mechanical principles to the musculoskeletal system to understand, analyze, and optimize human movement.
In other words, we combine human anatomy with classical mechanics, forming the interdisciplinary science known as biomechanics. Whether you come from a medical, sports, or health background and already understand the human body—or from an engineering or physics background and are familiar with mechanics—this course will help you understand the other side of the puzzle.
Interested in a Career in Biomechanics? This Course Is for You.
As a trained biomechanist, I study human locomotion and develop methods to analyze and optimize movement. This course brings together scientifically proven knowledge and practical insights I’ve gained over years of studying and working in the field of biomechanics.
The course includes 60+ lectures and over 3.5 hours of content, structured to give you a solid and comprehensive foundation in biomechanics.
I will guide you through all the essential topics in biomechanics—from the fundamental principles of mechanics (statics, elastostatics, kinematics, and kinetics) to the structure and function of the musculoskeletal system. Throughout the course, we’ll use practical examples to illustrate real-world applications of biomechanics in sports, medicine, and industry.
After finishing this course, you will be able to:
Understand the basics of the mechanics as well as the anatomy
Know possible fields of work for biomechanics
Understand how forces act in static and dynamic systems
Understand how bodies deform under stress and strain
Understand how the human body is built mechanically
Know the most common tools used for motion analysis in the industry
Course Content Overview:
Definition
How can we define the term biomechanics?
What are the tasks of biomechanics and which fields of work are there?
What are some practical examples for biomechanical problems?
Basics Of Physics: Mechanics
What do we need to know about the mechanics?
How can we physically define parameters like the velocity, the force or the energy?
What are the mathematical formulas to calculate those parameters?
Statics Of The Human Body
What are Newton's laws are why are they important to understand?
How can we calculate forces and moments in static systems?
What and where is the center of gravity of a body?
The Skeletal System
What's the structure of bones and joints?
What does "stress shielding" mean and why is it bad?
How is the knee joint built and what's the biomechanical role of the patella?
Stability & Resistance Of The Human Body
Which types of loading and deformation are there?
How can we define and calculate internal forces?
How can we calculate the stress and the strain within objects?
The Muscular System
What's the structure and function of tendons and ligaments?
Which types of muscle are there and how are they built?
How do muscles contract and how does it affect force generation?
Kinematics & Kinetics Of Human Movement
What's the difference between kinematics and kinetics?
How can we describe moving bodies?
How can we calculate forces in dynamic systems?
Motion Analysis: Tools & Strategies
What are the objectives of motion tracking?
Which tools for the analysis of human movement exist in the industry?
How can we further analyze data obtained from motion tracking systems?
Risk-Free Enrollment: Of course, there is a 30-day money-back guarantee from Udemy. Feel free to enroll now to see if this course is for you!