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Library | Item Barcode | Call Number | Material Type | Item Category 1 | Status |
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Searching... | 30000010201802 | RC1235 C65 2009 | Open Access Book | Book | Searching... |
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Summary
Summary
What are motor abilities of Olympic champions? What are essential psyc- logical characteristics of Mark Spitz, Carl Lewis and Roger Federer? How to discover and maximally develop motor intelligence? How to develop - domitable will power of Olympic champions? What are the secrets of sel- tion for the future Olympic champions? Does for every sport exist a unique model of an Olympic champion? This book gives a modern scienti?c answers to the above questions. Its purpose is to give you the answer to everything you ever wanted to ask about sport champions, but didn't know who or how to ask. In particular, the purpose of this book is to give you the answer to eve- thing you ever wanted to ask about advanced tennis, but didn't know who or how to ask. Its aim is to dispel classical myths of a "biomechanically sound" serve, forehand, and backhand, as well as provide methods for developing superior tennis weapons,a lightning-fast game,and unrivaled mental speed and strength - essential qualities of a future tennis champion.
Table of Contents
1 Introduction | p. 1 |
2 CSB-Physics and Metaphysics | p. 5 |
2.1 Qualitative CSB and Standard Physical Theory | p. 7 |
2.1.1 Poincaré's Qualitative Dynamics | p. 7 |
2.1.2 Poincaré's Point of View: Phase-Portrait | p. 7 |
2.1.3 Standard Description of a Physical Theory | p. 9 |
3 CSB-Structure and Function | p. 11 |
3.1 Basic Input-Output CSB-System | p. 11 |
3.2 Example of a 'Pure CSB-System': Human Skeletal Muscle | p. 13 |
3.3 Example of an 'Applied CSB-System': Sprint Velocity Curve | p. 20 |
4 CSB-Biomechanics: Structure and Function of Human Motion | p. 23 |
4.1 History | p. 23 |
4.2 Group Dynamics | p. 25 |
4.3 Hamiltonian Biomechanics | p. 27 |
4.4 Muscular Mechanics | p. 30 |
4.4.1 Elements of Muscular Histology | p. 30 |
4.4.2 Huxley's Sliding-Filaments Dynamics | p. 32 |
4.4.3 Hill's Force-Velocity (Thermo) Dynamics | p. 33 |
4.4.4 Basic Musculo-Skeletal Dynamics | p. 34 |
4.5 Stretch Reflex and Motor Servo | p. 36 |
4.6 Cerebellar Movement Control | p. 39 |
4.7 Closing the (Bio) Mechanical Circle | p. 45 |
4.8 Biomechanical Chain | p. 47 |
4.9 Estimation of Musculo-Skeletal Parameters | p. 49 |
4.9.1 Measurement of Muscular Input Torqes | p. 49 |
4.9.2 Measurement of Skeleton and Joint Parameters | p. 50 |
4.9.3 Testing of Model Outputs | p. 50 |
4.9.4 Further Analysis of Model Outputs | p. 51 |
4.10 Stochastic Forces | p. 51 |
5 CSB-System | p. 55 |
5.1 Linear CSB | p. 55 |
5.2 Functional CSB | p. 58 |
5.3 Nonlinear CSB | p. 60 |
5.4 CSB-Cognition | p. 62 |
6 CSB-Synergetics: Escape from Chaos | p. 69 |
6.1 Biomechanical Chaos | p. 69 |
6.2 Basic Principles of Synergetics | p. 70 |
6.3 Phase Transitions | p. 72 |
6.4 Order Parameters | p. 74 |
6.5 Macroscopic Biomechanics | p. 75 |
6.6 Control of the Biomechanical Chaos | p. 76 |
7 CSB-Subsystems: Energy and Information Flows | p. 79 |
7.1 CSB-Energy Flows | p. 79 |
7.1.1 The Immediate Energy Source | p. 79 |
7.1.2 The Principle of Coupled Reactions | p. 79 |
7.1.3 ATP - PC: The Phosphagen System | p. 80 |
7.1.4 The Lactic Acid System | p. 80 |
7.1.5 The Oxygen, or Aerobic, System | p. 81 |
7.1.6 The Energy Continuum Concept | p. 82 |
7.2 CSB-Information Flows | p. 83 |
7.2.1 CSB-Motor Learning | p. 83 |
7.2.2 CSB-Adaptive Filtration | p. 84 |
8 Neuro-CSB: Artificial Neural Networks | p. 87 |
8.1 Introduction | p. 87 |
8.2 History | p. 88 |
8.3 Backpropagation of Error | p. 91 |
8.3.1 Encoding | p. 91 |
8.3.2 Recall - Test | p. 92 |
8.4 Hopfield Neural Network | p. 93 |
8.5 CSB-Neurodynamics: The Cerebellum | p. 97 |
9 CSB-Intelligence | p. 105 |
9.1 Human Mind | p. 105 |
9.2 Human Intelligence | p. 143 |
9.2.1 Psychometric Definition of Intelligence | p. 145 |
9.2.2 Correlation and Factor Analysis | p. 149 |
9.2.3 Cognitive Versus Not-Cognitive Intelligence | p. 173 |
9.2.4 Intelligence and Cognitive Development | p. 175 |
9.2.5 Psychophysics | p. 179 |
9.2.6 Human Problem Solving | p. 185 |
9.2.7 Human Mind | p. 192 |
9.2.8 The Mind-Body Problem | p. 197 |
9.2.9 Analytical Psychology | p. 209 |
10 Smart CSB-Agents for Games Modelling | p. 215 |
10.1 CSB-Agents | p. 215 |
10.2 Types of CSB-Agents | p. 217 |
10.2.1 Deliberate Agents | p. 217 |
10.2.2 Reactive Agents | p. 219 |
10.2.3 Hybrid Agents | p. 220 |
10.3 CSB-Agents' Environments | p. 221 |
10.4 CSB-Agents' Reasoning and Learning | p. 224 |
10.4.1 Reasoning and Behavior | p. 224 |
10.4.2 Rational Reasoning | p. 225 |
11 Psycho-CSB: Mental Concentration in Sport | p. 229 |
11.1 Introduction | p. 229 |
11.2 Concentration in Sport: Experiences of Top Athletes | p. 231 |
11.3 Concentration Exercises for Training and Competition | p. 232 |
11.4 Inspiration and Enthusiasm, Discipline and Progress | p. 232 |
12 Tennis Champion of the Future | p. 235 |
12.1 Introduction | p. 235 |
12.2 Contemporary Tennis Science | p. 237 |
12.2.1 Tennis Muscles | p. 237 |
12.2.2 Tennis Anatomy | p. 242 |
12.2.3 Tennis Energetics | p. 243 |
12.2.4 Tennis Biomechanics | p. 249 |
12.2.5 Motor Control in Tennis | p. 255 |
12.2.6 Tennis Psychology | p. 258 |
12.3 Tennis Science of the Future | p. 266 |
12.3.1 High Performance in Tennis | p. 266 |
12.3.2 Athleticism in Tennis | p. 267 |
12.3.3 Muscular Slingshots | p. 272 |
12.3.4 The Biomechanics of Whip-Like Movements | p. 281 |
12.3.5 Superior Tennis Weapons | p. 282 |
12.3.6 Mental Training in Tennis | p. 285 |
12.3.7 Tennis Chess | p. 289 |
12.3.8 The Tennis Champion of the Future | p. 291 |
12.4 A Fuzzy-Logic Tennis Simulator | p. 293 |
References | p. 299 |
Index | p. 319 |