Principles of Biomechanics and Motion Analysis
Paperback | 24 October 2005 | Edition Number 1
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Industry Reviews
Preface | p. v |
Introduction to Motion Analysis | p. 1 |
Introduction to Motion Analysis | p. 1 |
Two-dimensional (2D) Motion Analysis | p. 2 |
Three-dimensional (3D) Motion Analysis | p. 3 |
Digital Camcorder With DVD Storage for Video Analysis | p. 5 |
Calibration of Motion Analysis Systems | p. 6 |
Video-based Two-dimensional Systems | p. 6 |
Three-dimensional Optical Motion Capture Systems | p. 7 |
High-Speed Videography | p. 8 |
Two- and Three-Dimensional Kinematics | p. 9 |
Automated Multi-camera Systems With LED Strobes and Retro-reflective Markers | p. 10 |
Instrumentation for Measurement of Force and Pressure | p. 12 |
Introduction to Force Transducers | p. 12 |
Force Plates | p. 12 |
Plantar Pressure Distribution Measurement | p. 13 |
Application of Motion Analysis to Design of Sports Equipment | p. 15 |
Application of Motion Analysis for Improving Sports Techniques | p. 17 |
Application of Motion Analysis to Injury Prevention and Rehabilitation | p. 21 |
Scalar Quantities and Vector Quantities in Mechanics and Motion Analysis | p. 25 |
Adding and Subtracting Vectors | p. 26 |
Examples of Scalar Quantities | p. 26 |
Examples of Vector Quantities | p. 27 |
Addition of Scalars | p. 27 |
Examples of Scalar Addition | p. 27 |
Addition of Vectors | p. 27 |
Adding Two Vectors at Right Angles | p. 30 |
Magnitude and Direction of Force Vectors During Walking | p. 31 |
Parallelogram Rule | p. 34 |
Resolution of a Vector Into Components | p. 37 |
Resolution of a Vector Along Two Perpendicular Directions | p. 37 |
Unit Vectors in Three Dimensions | p. 39 |
Multiplication of Vectors | p. 39 |
Multiplication of a Vector by a Scalar | p. 39 |
Higher Velocity with New Golf Club | p. 40 |
Velocity of Cricket Ball at Different Times | p. 40 |
Scalar Product of Two Vectors | p. 41 |
Downward and Upward Movements in a Squat | p. 43 |
Vector Product of Two Vectors | p. 44 |
System of Units | p. 47 |
Linear Kinematics | p. 52 |
The Law of Inertia | p. 53 |
Measurement of an Object's Speed or Velocity | p. 53 |
Graphical Means of Deriving Velocity | p. 54 |
Velocity of a Toboggan Sliding Along a Track Measured by Students | p. 56 |
Equations for Displacement and Velocity for the Case of Uniform Acceleration | p. 58 |
Acceleration as the Slope of a Velocity-Time Graph | p. 62 |
Light Gates Used to Obtain Split Times in a 100m Sprint | p. 63 |
Frames of Reference | p. 65 |
Projectiles | p. 66 |
Resolution of Velocity Into Vertical and Horizontal Components | p. 66 |
Finding the Flight Time T | p. 68 |
Finding the Horizontal Range R | p. 69 |
Projectile Released at a Height Above or Below the Level at Which it Lands | p. 69 |
Parabolic Path | p. 70 |
Motion of a Hockey Ball After Bouncing From Floor Using Motion Analysis | p. 71 |
Equilibrium | p. 77 |
Conditions for Static Equilibrium | p. 77 |
The Effect of Friction and Its Importance for Establishing Equilibrium | p. 78 |
Hockey Ball Rolling Across a Flat Level Synthetic Polymer Surface | p. 80 |
Definition of Moment of a Force | p. 80 |
Adding and Subtracting Parallel Forces | p. 81 |
Weight Distribution Between the Left and Right Feet | p. 82 |
Center of Gravity and Center of Mass | p. 83 |
Center of Mass of Human Body Found Using Reaction Board Method | p. 84 |
Couples: Two Equal and Opposite Forces Applied at Different Points | p. 85 |
Bodies at Rest | p. 86 |
Equilibrium Under the Action of Two Forces | p. 87 |
Center of Mass of a Stationary Body | p. 88 |
Equilibrium Under the Action of Three Forces | p. 89 |
Three Parallel Forces | p. 90 |
Three Nonparallel Forces | p. 91 |
Hydrostatics and Flotation | p. 93 |
Hydrostatic Pressure as a Function of Depth | p. 93 |
Upthrust on an Immersed Body | p. 93 |
Specific Gravity | p. 94 |
The Segmental Method for Estimating a Person's Center of Mass | p. 94 |
Free Body Diagrams | p. 98 |
Calculation of Unknown Forces | p. 98 |
Calculation of Joint Moments | p. 101 |
Buoyancy and Stability in a Kayak | p. 102 |
Dynamics I | p. 109 |
Inertia and Mass | p. 109 |
Force | p. 110 |
Newton's First Law | p. 110 |
Gravitational Forces | p. 110 |
Newton's Second Law | p. 111 |
Measurements of Mass and Force | p. 112 |
Comparing Unknown Forces With Known Forces | p. 112 |
Strain Gauges | p. 112 |
Load Cells and Force Platforms | p. 113 |
Voltage Output Calculations | p. 114 |
COP Calculation | p. 115 |
Male Subject Wearing Trainers Walking Across a Force Plate | p. 115 |
The Acceleration Attributable to Gravity and Weight | p. 116 |
Vertical Jumping | p. 117 |
Newton's Third Law | p. 120 |
Friction | p. 122 |
Friction and Area of Contact | p. 124 |
Friction and Velocity | p. 124 |
Summary of Static Friction and Kinetic Friction | p. 125 |
Maximum Speed on Banked Race Track | p. 127 |
Rolling Friction on Hockey Ball | p. 128 |
The Momentum of a Body | p. 128 |
Projectile Motion, Taking Into Account the Drag Force | p. 130 |
Introduction | p. 130 |
Reynolds' Number | p. 130 |
Drag Force and Its Effect on the Motion | p. 132 |
Numerically Modeling a Ball's Motion | p. 132 |
Dynamics II | p. 138 |
Work Done by a Constant Force | p. 138 |
Work Done by a Force That Varies | p. 140 |
Kinetic Energy | p. 142 |
Gravitational Potential Energy | p. 143 |
Conservation of Mechanical Energy | p. 144 |
Power | p. 146 |
Impulsive Forces and Collisions | p. 146 |
The Impulse-Momentum Relationship | p. 146 |
Special Case of a Constant Impulsive Force | p. 148 |
Collisions in One Dimension | p. 148 |
Conservation of Linear Momentum | p. 149 |
Elastic and Inelastic Collisions | p. 150 |
Coefficient of Restitution of a Ball Measured by Incident and Rebound Velocities From a Steel Surface | p. 152 |
Oblique Impacts | p. 154 |
Bat-and-Ball Games and the Effect of Spin | p. 154 |
Oscillations | p. 156 |
Springs and Hooke's Law | p. 156 |
Oscillatory Motion | p. 157 |
Damped Oscillations | p. 159 |
Calculation of the Friction Coefficient b in a Simple Mass-Spring Oscillator | p. 161 |
Pendula | p. 162 |
The Simple Pendulum | p. 162 |
The Physical Pendulum | p. 163 |
Acute Effects of Exercise on Passive Joint Stiffness | p. 164 |
Angular Kinematics | p. 169 |
Fundamentals of Rotational Motion | p. 169 |
Angular Displacement, Velocity, and Acceleration | p. 169 |
The Relationship Between Linear Velocity and Angular Velocity | p. 171 |
Tangential and Centripetal Accelerations | p. 171 |
Absolute Angles and Relative Angles | p. 174 |
Calculation of Angular Information from (x,y) Coordinate Data | p. 175 |
Calculation of Angular Displacements | p. 175 |
Calculation of Angular Velocity From Angular Displacement | p. 176 |
Calculation of Angular Acceleration From Angular Velocity Data | p. 177 |
Formulas for Rotation for the Case of Constant Angular Acceleration | p. 178 |
The Rotation of a Football | p. 179 |
Evaluation of Centripetal and Tangential Accelerations on a Stunt Rider | p. 181 |
The Use of Angle-Angle Diagrams in Comparison of Sprinting Drills | p. 183 |
Rotational Dynamics | p. 189 |
Angular Motion Vectors | p. 189 |
Torque | p. 191 |
Rotational Inertia | p. 192 |
Calculating the Moment of Inertia | p. 196 |
Moment of Inertia of Human Body | p. 197 |
Angular Momentum | p. 199 |
Angular Kinetic Energy | p. 201 |
Combined Translation and Rotation | p. 201 |
Angular Momentum in Linked Systems | p. 203 |
Manipulation of Axis of Rotation | p. 204 |
Power Flows in a Lower Leg Segment | p. 205 |
Data Filtering, Smoothing, and Trends | p. 210 |
Coordinate Data | p. 210 |
Calculation of Velocity and Acceleration From Displacement-Time Coordinate Data | p. 212 |
The Problem of Noise on Signals | p. 214 |
Noise Removal by Finite Difference Smoothing | p. 217 |
Missing Data | p. 219 |
Fitting Trend Lines to Data | p. 221 |
Fitting Curves to Linear Data | p. 221 |
Summary | p. 224 |
Fitting Curves to Quadratic and Cubic Data | p. 226 |
Do My Data Fit a Trend or Not? | p. 227 |
A Suspected Linear Trend | p. 227 |
A Suspected Quadratic Trend | p. 230 |
A Simple Method for Data Smoothing and Interpolation | p. 230 |
Fourier Analysis | p. 233 |
The Sampling Theorem | p. 234 |
Digital Filtering | p. 235 |
Phase Shift | p. 237 |
Exploration of Motion Data Using Spreadsheets | p. 242 |
Text or ASCII Files | p. 242 |
Finite-Difference Formulas | p. 243 |
Moving-Point Averages | p. 246 |
Calculating Magnitudes of Vector Quantities From the Components | p. 248 |
Drawing Smoothed and Curved Trend Lines Through Data Points | p. 248 |
Calculating Relative and Absolute Angles | p. 251 |
Reduction of Noise on Angular Velocity-Time Graphs Using Moving-Point Average Methods | p. 252 |
Dynamic Analyses | p. 254 |
Correcting for Friction in a Moment of Inertia Experiment | p. 257 |
Balls in Flight and Fluid Dynamics | p. 263 |
Viscosity | p. 263 |
Buoyancy Forces | p. 264 |
Density and Specific Gravity | p. 265 |
Buoyancy of the Human Body | p. 266 |
Dynamic Fluid Forces | p. 266 |
Relative Velocity | p. 267 |
Drag Force | p. 268 |
Lift Force | p. 270 |
Bernoulli's Principle | p. 271 |
Spin and the Magnus Effect | p. 271 |
Center of Pressure | p. 273 |
Effects of Dynamic Fluid Forces | p. 273 |
The Boundary Layer | p. 274 |
The Curling Kick | p. 276 |
A Soccer Ball in Flight | p. 278 |
Gait Analysis and Biomechanics | p. 286 |
What is Gait Analysis? | p. 286 |
Temporal Parameters of the Gait Cycle | p. 287 |
Body Segments | p. 287 |
Joint Motions | p. 290 |
Angular Velocity of a Body Segment | p. 292 |
Ground Reaction Forces | p. 293 |
Kinetic Studies | p. 297 |
Obtaining Joint Forces | p. 297 |
Quasi-static Determination of the Joint Moments | p. 298 |
Power | p. 300 |
Injuries | p. 302 |
Answers to Study Questions | p. 303 |
Units of Measurement and Mathematical Methods | p. 313 |
Anatomy and Movement of the Ankle and Foot | p. 327 |
Index | p. 333 |
Table of Contents provided by Ingram. All Rights Reserved. |
ISBN: 9780781752312
ISBN-10: 0781752310
Published: 24th October 2005
Format: Paperback
Language: English
Number of Pages: 339
Audience: Professional and Scholarly
Publisher: Lippincott Williams and Wilkins
Country of Publication: US
Edition Number: 1
Dimensions (cm): 29.21 x 22.23 x 2.54
Weight (kg): 1.09
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