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9789810241483

Topics in Nonlinear Time Series Analysis : With Implications for EEG Analysis

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  • ISBN13:

    9789810241483

  • ISBN10:

    9810241488

  • Format: Hardcover
  • Copyright: 2000-05-01
  • Publisher: WORLD SCIENTIFIC PUB CO INC
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Supplemental Materials

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Summary

Provides a thorough review of a class of powerful algorithms fro the numerical analysis of complex time series data which were obtained from dynamical systems.

Table of Contents

Preface vii
Introduction
1(8)
Linearity and the beginning of time series analysis
1(2)
Irregular time series and determinism
3(1)
The objective of nonlinear time series analysis
4(1)
Outline of the organisation of the present study
5(4)
Dynamical systems, time series and attractors
9(30)
Overview
9(1)
Dynamical systems and state spaces
9(1)
Measurements and time series
10(2)
Deterministic dynamical systems
12(16)
Attractors
12(3)
Linear systems
15(1)
Invariant measures
15(3)
Sensitive dependence on initial conditions
18(1)
Maps and discretised flows
19(2)
Some important maps
21(3)
Some important flows
24(4)
Stochastic dynamical systems
28(5)
Pure noise time series
29(1)
Noise in dynamical systems
30(1)
Linear stochastic systems
31(2)
Nonstationarity
33(2)
Experimental and observational time series
35(4)
Electroencephalograms
36(3)
Linear methods
39(10)
Overview
39(1)
Linear autocorrelation
39(1)
Fourier spectrum estimation
40(6)
Discrete Fourier transform and power spectrum
40(2)
Practical application of Fourier spectrum estimation
42(4)
Linear prediction and linear filtering
46(3)
State Space Reconstruction: Theoretical foundations
49(24)
Overview
49(1)
The reconstruction problem
49(2)
Definition of an embedding
51(1)
Measures of the distortion due to embedding
52(1)
The embedding theorem of Whitney and its generalisation
53(2)
Time-delay embedding
55(2)
The embedding theorem of Takens and its generalisation
57(2)
Some historical remarks
59(1)
Filtered time-delay embedding
59(10)
Derivatives and Legendre coordinates
60(4)
Principal components: definition and properties
64(3)
Principal components: applications
67(2)
Other reconstruction methods
69(1)
Interspike intervals
70(3)
State space reconstruction: Practical application
73(20)
Overview
73(1)
The effect of noise on state space reconstruction
73(2)
The choice of the time delay
75(3)
In search of optimal embedding parameters
78(15)
The Fillfactor algorithm
79(3)
Comparing different reconstructions by PCA
82(2)
The Integral Local Deformation (ILD) algorithm
84(3)
Other algorithms for the estimation of optimal embedding parameters
87(6)
Dimensions: Basic definitions
93(20)
Overview
93(1)
Why estimate dimensions?
94(1)
Topological dimension
95(1)
Hausdorff dimension
95(2)
Capacity dimension
97(1)
Generalisation of the Hausdorff dimension
98(2)
Generalisation of capacity dimension
100(2)
Information dimension
102(1)
Continuous definition of generalised dimensions
103(1)
Pointwise dimension
103(1)
Invariance of dimension under reconstruction
104(2)
Invariance of dimension under filtering
106(1)
Methods for the calculation of dimensions
107(6)
Box-counting algorithm
107(2)
Pairwise-distance algorithm
109(4)
Lyapunov exponents and entropies
113(10)
Overview
113(1)
Lyapunov exponents
113(2)
Estimation of Lyapunov exponents from time series
115(1)
Kaplan-Yorke dimension
116(1)
Generalised entropies
117(2)
Correlation entropy for time-delay embeddings
119(1)
Pesin's theorem and partial dimensions
120(3)
Numerical estimation of the correlation dimension
123(26)
Overview
123(1)
Correlation dimension as a tail parameter
123(1)
Estimation of the correlation integral
124(2)
Efficient implementations
126(1)
The choice of metric
127(1)
Typical behaviour of C(r)
128(3)
Dynamical range of C(r)
131(2)
Dimension estimation in the case of unknown embedding dimension
133(1)
Global least squares approach
134(2)
Chord estimator
136(1)
Local-slopes approach
137(4)
Implementation of the local-slopes approach
138(1)
Typical behaviour of the local-slopes approach
138(3)
Maximum-likelihood estimators
141(6)
The Takens estimator
141(2)
Extensions to the Taken Estimator
143(1)
The binomial estimator
144(1)
The algorithm of Judd
145(2)
Intrinsic dimension and nearest-neighbour algorithms
147(2)
Sources of error and data set size requirements
149(34)
Overview
149(1)
Classification of errors
149(2)
Edge effects and singularities
151(5)
Hypercubes with uniform measure
151(1)
Underestimation due to edge effect
152(1)
Data set size requirements for avoiding edge effects
153(2)
Distributions with singularities
155(1)
Lacunarity
156(2)
Additive measurement noise
158(1)
Finit-resolution error
159(1)
Autocorrelation error
160(18)
Periodic-sampling error
161(3)
Circles
164(2)
Trajectory bias and temporal autocorrelation
166(3)
Space-time separation plots
169(1)
Quasiperiodic signals
169(3)
Topological structure of Nt-tori
172(1)
Autocorrelations in Nt-tori
173(2)
Noise with power-law spectrum
175(3)
Unrepresentativity error
178(1)
Statistical error
178(2)
Other estimates of data set size requirements
180(3)
Monte Carlo analysis of dimension estimation
183(38)
Overview
183(1)
Calibration systems
184(4)
Mackey-Glass system
184(2)
Gaussian white noise
186(2)
Filtered noise
188(1)
Ns-spheres
188(14)
Analytical estimation of statistical error
189(3)
Minimum data set size for Ns-spheres
192(2)
Monte Carlo analysis of statistical error
194(3)
Limited number of reference points
197(1)
Comparison between GPA and JA
198(2)
Results for maximum metric
200(2)
Multiple Lorenz systems: True state space
202(7)
Monte Carlo analysis of statistical error
203(3)
Comparison between GPA and JA
206(2)
Results for maximum metric
208(1)
Multiple Lorenz systems: Reconstructed state space
209(12)
Exact derivative coordinates
210(2)
Time-delay coordinates
212(6)
Hybrid coordinates
218(3)
Surrogate data tests
221(28)
Overview
221(1)
Null hypotheses for surrogate data testing
222(2)
Creation of surrogate data sets
224(8)
Typical-realisation surrogates
224(2)
Constrained-realisation surrogates
226(4)
Surrogates with non-gaussian distribution
230(2)
Refinements of constrained-realisation surrogate data set creation procedures
232(10)
Improved AAPR surrogates
232(2)
The wraparound artifact
234(1)
Noisy sine waves
235(3)
Limited phase randomisation
238(2)
Remedies against the wraparound artifact
240(2)
Evaluating the results of surrogate data tests
242(2)
Interpretation of the results of surrogate data tests
244(1)
Choice of the test statistic for surrogate data tests
245(1)
Application of surrogate data testing to correlation dimension estimation
246(3)
Dimension analysis of the human EEG
249(24)
Overview
249(1)
The beginning of dimension analysis of the EEG
250(1)
Application of dimension analysis to cerebral diseases and psychiatric disorders
251(3)
EEG recordings from epileptic patients
252(1)
EEG recordings from human sleep
252(2)
Scepticism against finite dimension estimates from EEG recordings
254(7)
Application of GPA to an EEG time series from sleep stage IV
255(3)
Interpretation of the finite estimates found in the literature
258(3)
Dimension analysis using moving windows
261(10)
Application to nonstationary time series
262(3)
Application to stationary time series
265(2)
Application to a nonstationary EEG time series
267(4)
Dimension analysis of EEG time series: Valuable or impractical?
271(2)
Testing for determinism in time series
273(36)
Overview
273(1)
The BDS-statistic
274(3)
The dependence parameters δm by Savit & Green
277(6)
Generalisations of the δm
280(1)
Predictability parameters and the relationship between the δm and entropies
281(2)
Testing for determinism and minimum embedding dimension
283(3)
Continuous versus discrete data sets
286(1)
Reduction of EEG time series to discrete phase information
287(4)
Savit-Green analysis of ISI series from multiple Lorenz systems
291(5)
Distribution of the dependence parameters δm(r)
291(2)
Surrogate data testing applied to the predictability parameters Sm(r)
293(3)
Savit-Green analysis of ISI series from nonstationary time series
296(2)
Savit-Green analysis of ISI series from EEG time series
298(6)
Analysis of an EEG time series from sleep stage IV
299(2)
Analysis of a nonstationary EEG time series
301(3)
Surrogate data testing of differenced time series
304(5)
Conclusion
309(6)
Table of notation 315(6)
Bibliography 321(16)
Index 337

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