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E-raamat: Chaos in Nature [World Scientific e-raamat]

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Teised raamatud teemal:
Chaos theory deals with the description of motion (in a general sense) which cannot be predicted in the long term although produced by deterministic system, as well exemplified by meteorological phenomena. It directly comes from the Lunar theory - a three-body problem - and the difficulty encountered by astronomers to accurately predict the long-term evolution of the Moon using "Newtonian" mechanics. Henri Poincare's deep intuitions were at the origin of chaos theory. They also led the meteorologist Edward Lorenz to draw the first chaotic attractor ever published. But the main idea consists of plotting a curve representative of the system evolution rather than finding an analytical solution as commonly done in classical mechanics. Such a novel approach allows the description of population interactions and the solar activity as well. Using the original sources, the book draws on the history of the concepts underlying chaos theory from the 17th century to the last decade, and by various examples, show how general is this theory in a wide range of applications: meteorology, chemistry, populations, astrophysics, biomedicine, etc.
Foreword v
Otto E. Rossler
Foreword viii
Robert Gilmore
From Celestial Mechanics to Chaos
1(86)
1 The Laws of Dynamics
3(10)
1.1 Kepler's Empirical Laws
3(3)
1.2 The Law of Gravitation
6(5)
1.3 Theory of the Moon
11(2)
2 The Three Body Problem
13(10)
2.1 Imperfections in Newton's Theory
13(1)
2.2 Challenges to the Law of Gravitation
14(5)
2.3 Problem of the Convergence of Series
19(4)
3 Simplification of the Three Body Problem
23(12)
3.1 Simplification of the Geometry
23(2)
3.2 Simplification of the General Equations
25(4)
3.3 The First Exact Solutions
29(6)
4 The Success of Celestial Mechanics
35(16)
4.1 Perturbation Theory
35(3)
4.2 The Theory of Jupiter and Saturn
38(2)
4.3 The Theory of the Moon
40(1)
4.4 Laplacian Determinism
41(3)
4.5 The Discovery of Neptune
44(4)
4.6 The Development of Perturbation Theory
48(3)
5 Birth of the Global Approach
51(22)
5.1 The Restricted Three-Body Problem
51(4)
5.2 A Qualitative Approach
55(1)
5.3 Studies of Sets of Solutions
56(2)
5.4 Dynamical Systems
58(1)
5.5 The Ideal Pendulum
59(4)
5.6 The Poincare-Bendixon Theorem
63(2)
5.7 Doubly Asymptotic Orbits
65(7)
5.8 Deterministic but Unpredictable
72(1)
6 The Stability of the Solar System
73(14)
6.1 The Problem of Small Devisors
74(2)
6.2 The KAM Theorem
76(3)
6.3 A Model for the KAM Theorem
79(4)
6.4 Numerical Approach
83(4)
Chaos in Nature: Properties and Examples
87(284)
1 Periodic and Chaotic Oscillators
89(12)
1.1 Oscillators and Degrees of Freedom
90(3)
1.2 Damped Pendulum
93(1)
1.3 Linear System of Two Oscillators
94(2)
1.4 Nonlinear System of Two Oscillators
96(5)
2 From Mathematics to Electronic Circuits
101(62)
2.1 The Early Self-Oscillating Systems
103(10)
2.1.1 The series dynamo machine
103(1)
2.1.2 The musical arc
103(4)
2.1.3 From vacuum tubes to oscillating valves
107(4)
2.1.4 From the audion to the multivibrator
111(2)
2.2 The First Dynamical Studies of Oscillators
113(13)
2.2.1 Poincare's equation for the musical arc
113(2)
2.2.2 Janet's equation for series dynamo machine
115(1)
2.2.3 Blondel's equation for the triode
116(1)
2.2.4 The van der Pol Equation
116(4)
2.2.5 Some equations for the multivibrator and beyond
120(6)
2.3 Relaxation Oscillations
126(10)
2.3.1 First insights from the German school
126(2)
2.3.2 Van der Pol's contribution
128(4)
2.3.3 Relaxation oscillations in the real world
132(4)
2.4 The First Computer Calculations
136(6)
2.5 First Chaotic Attractors in Electronic Circuits
142(15)
2.6 A Chaotic Thermionic Diode
157(6)
3 From Meteorology to Chaos: The Second Wave
163(26)
3.1 Prediction in Meteorology
163(4)
3.2 The Lorenz System
167(8)
3.2.1 Phase space
168(2)
3.2.2 The stability of periodic solutions
170(1)
3.2.3 Numerical integration and application of linear theory
171(1)
3.2.4 Topological analysis
172(1)
3.2.5 First-return map to maxima
173(2)
3.3 Sensitivity to Initial Conditions
175(3)
3.4 Turbulence, Aperiodic Solutions, and Chaos
178(3)
3.5 Hydrodynamics and the Lorenz Attractor
181(1)
3.6 Laser Dynamics and the Lorenz System
182(7)
4 The Architecture of Chaotic Attractors
189(46)
4.1 The Rossler System
189(26)
4.1.1 A brief biography
189(6)
4.1.2 Rossler's main influences
195(5)
4.1.3 A chaotic chemical reaction
200(6)
4.1.4 The Rossler system
206(3)
4.1.5 A forgotten topological analysis
209(6)
4.2 Poincare Section
215(1)
4.3 Symbolic Dynamics
216(4)
4.4 Topological Characterization
220(2)
4.5 A Simple Model for the Poincare Map
222(7)
4.6 Different Topologies for Chaos
229(6)
5 Chemical Reactions
235(20)
5.1 The Earliest Experiments
235(5)
5.2 Chaos in an Experimental BZ-Reaction
240(6)
5.3 Chaotic Copper Electrodissolution
246(9)
6 Population Evolution
255(22)
6.1 Theories of Malthus and Verhulst
255(5)
6.2 A Model with Two Species
260(4)
6.3 Models with Three Species
264(6)
6.4 Observational Evidence
270(7)
7 Chaos in Biology and Biomedicine
277(46)
7.1 Glycolysis Oscillations
277(5)
7.2 Fluctuations in Hematopoiesis
282(2)
7.3 Cardiac Arrhythmias
284(24)
7.3.1 The beginnings of electrophysiology
285(5)
7.3.2 The heart --- An electric machine
290(3)
7.3.3 Electrocardiograms and arrhythmias
293(4)
7.3.4 Analysis of some heart rate variability
297(11)
7.4 Patient Breathing with a Noninvasive Mechanical Ventilation
308(14)
7.4.1 Early techniques for mechanical ventilation
308(4)
7.4.2 Breathing variability under mechanical ventilation
312(10)
7.5 Conclusion
322(1)
8 Chaotically Variable Stars
323(38)
8.1 The First Observations
324(6)
8.2 The First Chaotic Models
330(9)
8.3 Solar Activity
339(11)
8.4 Chaotic Models of Solar Activity
350(11)
9 Epilogue
361(10)
9.1 The Fourth Dimension
361(2)
9.2 A Weakly Dissipative System
363(1)
9.3 Hyperchaotic Behavior
364(1)
9.4 Toroidal Chaos
365(1)
9.5 Simple Models and Complex Behavior
366(5)
General Index 371(2)
Author Index 373