Lecture: 3.5 hours/ week
and
Lab: 0.5 hours/week
In this course, students engage in a variety of learning activities such as lecture, group work, labs, and problem-based learning.
- Foundational concepts
- Anatomical terminology and concepts of human movement
- Structure and function of the musculoskeletal system
- Planes of motion (sagittal, frontal, transverse)
- Anatomical axes of rotation (medio-lateral, antero-posterior, longitudinal)
- Degrees of freedom at joints
- Phases of human movement
- Kinematics (Linear and Angular Motion)
- Displacement, velocity, acceleration, and time
- Linear and angular kinematic equations
- Projectile motion
- Kinetics (Linear and Angular)
- Force, mass, and acceleration
- Torque, moment of inertia, and angular acceleration
- Work, power, energy, momentum, and impulse in linear and angular systems
- Linear and angular kinetic equations
- Free-body diagrams and force analysis in human movement
- Muscle and tissue mechanics
- Structure and function of muscle-tendon complex
- Mechanisms of force production in skeletal muscle
- Force–length and force–velocity relationships
- Tissue mechanics: compression, tension, shear, and strain
- Viscoelastic properties of biological tissues (e.g., hysteresis)
- Mechanical properties of tissues (e.g., Young’s modulus) and musculoskeletal adaptation
- Injury mechanics
- Mechanical loading and tissue stress in acute and chronic injury
- Internal and external forces contributing to injury mechanisms
- Data collection and biomechanical analysis
- Methods and tools used to collect human movement data
- Processing and analysis of biomechanical data
- Graphical interpretation of kinematic and kinetic variables
- Application of peer-reviewed research to biomechanical data interpretation
Upon successful completion of this course, students will be able to:
- apply knowledge of human anatomy and fundamental principles of mechanics, including Newton’s laws of motion, to analyze human movement;
- derive and apply kinematic equations to analyze human motion in two dimensions;
- analyze projectile motion and the factors influencing projectile trajectory;
- construct and interpret free-body diagrams to solve problems in human movement;
- explain how forces are generated by the muscle-tendon complex;
- calculate and apply principles of angular kinetics to analyze human movement;
- apply the concepts of work, energy, and power to analyze human movement;
- explain mechanisms of injury as they relate to internal and external forces;
- interpret graphs, models, and biomechanical data describing human movement;
- describe methods and tools used to collect human movement data and evaluate their limitations;
- collect and process biomechanical data related to human movement;
- apply evidence-based principles to interpret and analyze biomechanical research data;
- apply active learning, critical thinking, and problem-solving skills in the qualitative analysis of human movement.
This is a letter-graded course. Assessment will be in accordance with the Douglas College Evaluation Policy. The instructor will present a course outline with specific evaluation criteria at the beginning of the semester. Evaluation will be based on the following:
| Research and Practical Assignments | 10-30% |
| Laboratory Reports | 10-40% |
| Laboratory Tests | 0-40% |
| Test(s) | 15-40% |
| Final Exam | 15-40% |
| Total | 100% |
Consult the Douglas College Bookstore for the latest required textbooks and materials. Example textbooks and materials may include:
- Flanagan, S.P., (current edition). Biomechanics: A Case-Based Approach. Jones and Bartlett Learning.
- Hamm, K. (current edition). Biomechanics of Human Movement. OER Commons.
- Scientific calculator
One of:
Foundations of Math 11 with a minimum grade of C
or
Precalculus Math 11 with a minimum grade of C
or
MATU 0411 with a minimum grade of C
or
Successful completion of the Douglas College Math 11 Exemption Test (DCMX)
None
None