Paul Grimshaw is Associate Professor in Sports Engineering within the School of Mechanical Engineering at the University of Adelaide, Australia, where he is also Director of Engagement and Bachelor of Engineering (Mechanical and Sports) Program Coordinator. His main research interests are concerned with the prevention of injury in the knee and lower back, especially in golf.

Michael Cole isSenior Lecturer in Neuroscience and Motor Control within the School of Exercise Science at the Australian Catholic University, Australia. He has been involved in a number of multi-disciplinary research programs that focus on injury prevention and span the areas of sports biomechanics, clinical biomechanics and neuroscience. His particular areas of expertise are in the assessment of postural instability, gait disability and falls in people with Parkinson's disease and the evaluation of the invasive and non-invasive therapies for movement disorders.

Adrian Burden is Reader in Sport and Exercise Biomechanics in the Department of Sport and Exercise Sciences at Manchester Metropolitan University, UK, and is a Senior Fellow of the Higher Education Academy. He has held workshops on surface electromyography on behalf of the British Association of Sport and Exercise Sciences, and his research interests lie in the application of electromyography in clinical, sport and exercise settings.

Neil Fowler is Dean of Students at the University of Salford, UK. Before joining the University of Salford, Neil held the roles of Head of Exercise and Sport Science and Associate Dean of Learning Teaching and Quality Enhancement at Manchester Metropolitan University, UK. His research interests include spinal mechanics and pain management, the energetics of wheelchair propulsion and Paralympic sport, and the biomechanics of jumping.

Section A: Kinematics of Linear Motion, A1. Linear Motion, A2. Centre of Gravity and Centre of Mass, A3. Equilibrium, A4. Kinematic Data: Differentiation, A5. Kinematic Data: Integration, A6. Uniform Acceleration and Projectile Motion, Section B: Kinetics of Linear Motion, B1. Forces, B2. Gravity, Weight and Vertical Projection, B3. Friction, B4. Impulse and Momentum, B5. Conservation of Linear Momentum, B6. Newton's Laws of Motion: Linear Motion, Section C: Kinematics and Kinetics of Angular Motion, C1. Angular Motion, C2. Linear-Angular Motion, C3. Torque and Moments, C4. Levers, C5. Centripetal Force and Acceleration, C6. Moment of Inertia and Angular Momentum, C7. Newton's Laws of Motion: Angular Motion, Section D: Muscle and Joint Kinematics and Kinetics, D1. Muscle and Joint Forces: Statics and Dynamics, Section E: Special Topics, E1. Work, Power and Energy, E2. Conservation of Energy, E3. Mechanics of Materials, E4. Impacts, E5. Centre of Percussion, Section F: Human Movement Applications, F1. Walking, F2. Running, F3. Jumping, F4. Throwing, F5. Kicking, F6. Swimming, F7. Golf, Section G: Measurement and Analysis Techniques, G1. Optoelectronic Analysis, G2. Wearable Sensors, G3. Force Plate, G4. Pressure Measurement, G5. Electromyography, G6. Isokinetics, G7. Sports Equipment, G8. Data Smoothing, Filtering and Processing, Section H: Appendices, H1. Planes and Axes of Motion, H2. Free Body Diagrams, H3. Sampling Theory, H4. Biomechanics Apps (Applications), H5. Foundations of Motion Analysis, H6. Mathematics: Algebra and Trigonometry