Covers how to quantitatively predict exercise thermal response, using metric unitsAddresses respiratory models, cardiovascular models, and thermal modelsDemonstrates exactly how equations and methods are applied with worked quantitative examplesProvides mathematical equations you can use to predict physiological responsesIncludes tables of physiological variable values for estimating normal responses and building modelsPresents models that contain precise informationDiscusses the mechanical approaches to the understanding of exercise, both from a static and from an dynamic viewpoint
Whether you are a bioengineer designing prosthetics, an aerospace scientist involved in life support, a kinesiologist training athletes, or an occupational physician prescribing an exercise regimen, you need the latest edition of Biomechanics and Exercise Physiology: Quantitative Modeling. Using numerous worked examples to demonstrate what and when to calculate, this book covers more than the fundamentals of exercise physiology and shows you how to calculate responses magnitudes. The second edition improves upon the first edition with inclusion of numerical examples, homework problems, margin notes, and updated material.
The five sections cover the energetics of exercise, biomechanics, circulation, respiration, and thermoregulation. The author explains physiological models, demonstrating the conversion of physiology into quantitative form. Tables of values, diagrams, and figures make this book helpful for estimating magnitudes, determining trends, and illustrating concepts. The book emphasizes quantitative mathematical models if possible and conceptual models when mathematical models are not available.
Covering a broad scope of material, the author emphasizes quantitative description as much as possible. The book demonstrates the vast amount of physiological material that can be quantitatively predicted and how to translate this information into applications.
Table of Contents
Exercise Intensity and Duration
Cardiovascular Exercise Limitation
Variability of Responses
Physics of Movement
Energy Cost of Movement
Walking and Running
Aging and Training
Cardiovascular Mechanical Models
Cardiovascular Control Models
Appendix 3.1 Numerically Solving Differential Equations
Appendix 3.2 Pontryagin Maximum Principle
Appendix 3.3 Laplace Transform
Control of Respiration
Respiratory Mechanical Models
Respiratory Control Models
Appendix 4.1 Lagrange Multipliers
Appendix 4.2 Method of Calculus of Variations
Body Temperature Response