- Anatomical concepts to describe human movement
1.1. Movements in the sagittal, frontal and transverse planes.
1.2. Movements occuring about the medio-lateral, antero-posterior and longitudinal axis.
1.3. Muscle, bones and joints with the correct terminology.
1.4. Degrees of freedom at a joint based on its anatomy.
1.5. Proper terminology to describe human movement.
- Describing human movement – Kinematics
2.1 Kinematic variables using vector analysis to quantify human movement.
2.2 Problems in 2-dimensions involving: displacement, velocity, acceleration, time.
2.3 Factors that affect the trajectory of a projectile.
2.4 Free-body diagrams to illustrate the variables that affect the trajectory of a projectile.
2.5 Graphical interpretation to determine relationships between kinematic variables in 2-dimensions.
2.6 Peer-reviewed research applied to the interpretation of kinematic data.
2.7 Tools used to acquire human movement data.
- Forces that change motion – Kinetics
3.1. Kinetic variables to the quantification of human movement.
3.2. Problems in 2-dimensions involving: mass, force, friction, acceleration, moment of inertia, work, power, energy, momentum and impulse for both linear and angular movements.
3.3. Free-body diagrams to understand the net effect of forces on a body or system. These free-body diagrams are used to solve problems involving balanced or unbalanced forces and objects on inclined surfaces.
3.4. The role that play internal and external forces in the development of acute and chronic injuries.
3.5. Graphical interpretation to determine relationships between kinetic variables.
3.6. Peer-reviewed research applied to the interpretation of kinetic data.
3.7. Kinetic data collection with the appropriate tools.
- Muscle-Tendon Complex (MTC)– generators of force
4.1. The elements of the human musculo-skeletal system and how the system's properties interact during human movement.
4.2. How muscles generate forces and their effect on the structures surrounding them.
4.3. Concepts of force-length, force-velocity, hysteresis, compression, tension, shear, strain and Young’s Modulus to explain musculo-skeletal adaptation.
4.4. The interaction of the mechanical properties of the musculo-skeletal system as they affect human movement.
4.5. Collecting data using surface electrodes over appropriate anatomical landmarks during a range of human movements.
4.6. The conceptual framework for EMG analysis of human movement and the physiological and biomechanical basis for recording electrical potentials from striated muscles using surface electrodes.
- Discussion group
- Audio-visual presentations
- Labs – data collection, analysis and presentation
- Critical thinking and problem solving
- Work stations
Evaluation will be carried out in accordance with Douglas College policy. The instructor will present a written course outline with specific evaluation criteria at the beginning of the semester. Evaluation will be based on the following criteria:
Research and Practical Assignments
Upon completion of this course, students will be able to:
- Apply knowledge of human anatomy to describe human movement in both anatomical and mechanical terms.
- Describe the elementary mechanical principles that are applicable to analyzing human movement.
- Derive and solve equations of human motion in two dimensions.
- Describe the movement of a projectile and discuss the factors that influence projectile trajectory.
- Draw and use the concept of a free-body diagram as it applies to human movement.
- Explain how forces are generated by the muscle-tendon complex.
- Discuss the mechanisms of injury as they relate to internal and external forces.
- Interpret graphs and simple models which are used to explain human movement.
- Apply related peer-reviewed research to interpret data collected.
- Describe which tools are used to acquire human movement data and show an understanding of their efficacy.
- Apply active learning, critical thinking, and problem solving skills in the qualitative analysis of human movement.
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
- Scientific calculator
- Foundations of Math 11 with a minimum grade of “C”, or
- Precalculus Math 11 with a minimum grade of "C", or
- "C" or better in MATU 0411, or
No corequisite courses.
No equivalent courses.
Course Guidelines for previous years are viewable by selecting the version desired. If you took this course and do not see a listing for the starting semester / year of the course, consider the previous version as the applicable version.
|Institution||Transfer Details||Effective Dates|
|Camosun College (CAMO)||CAMO PHYS 160 (3)||2014/09/01 to -|
|Capilano University (CAPU)||CAPU HKIN 151 (3)||2004/09/01 to 2021/08/31|
|Capilano University (CAPU)||CAPU KINE 151 (3)||2021/09/01 to -|
|Kwantlen Polytechnic University (KPU)||No credit||2004/09/01 to -|
|Langara College (LANG)||LANG KINS 1151 (3)||2013/09/01 to -|
|Langara College (LANG)||LANG HKIN 1151 (3)||2004/09/01 to 2013/08/31|
|Simon Fraser University (SFU)||SFU KIN 1XX (3)||2004/09/01 to 2013/08/31|
|Simon Fraser University (SFU)||SFU BPK 1XX (3)||2013/09/01 to -|
|Thompson Rivers University (TRU)||TRU PHED 1XX (3)||2005/09/01 to 2010/08/31|
|Thompson Rivers University (TRU)||TRU PHED 1XXX (3)||2010/09/01 to -|
|Trinity Western University (TWU)||TWU HKIN 370 (3)||2008/05/01 to -|
|University of British Columbia - Okanagan (UBCO)||UBCO HMKN 101 (3)||2005/05/01 to -|
|University of British Columbia - Vancouver (UBCV)||UBCV KIN 216 (3)||2004/09/01 to -|
|University of Northern BC (UNBC)||UNBC SCIE 1XX (3)||2004/09/01 to -|
|University of the Fraser Valley (UFV)||UFV KIN 215 (3)||2004/09/01 to -|
|University of Victoria (UVIC)||UVIC PHYS 1XX (1.5)||2004/09/01 to 2014/08/31|
|University of Victoria (UVIC)||UVIC EPHE 201 (1.5)||2014/09/01 to -|