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9781402014710

Iutam Symposium on Nonlinear Stochastic Dynamics

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  • ISBN13:

    9781402014710

  • ISBN10:

    1402014716

  • Format: Hardcover
  • Copyright: 2003-12-01
  • Publisher: Kluwer Academic Pub
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Summary

Non-linear stochastic systems are at the center of many engineering disciplines and progress in theoretical research had led to a better understanding of non-linear phenomena. This book provides information on new fundamental results and their applications which are beginning to appear across the entire spectrum of mechanics. The outstanding points of these proceedings are Coherent compendium of the current state of modelling and analysis of non-linear stochastic systems from engineering, applied mathematics and physics point of view. Subject areas include: Multiscale phenomena, stability and bifurcations, control and estimation, computational methods and modelling. For the Engineering and Physics communities, this book will provide first-hand information on recent mathematical developments. The applied mathematics community will benefit from the modelling and information on various possible applications.

Table of Contents

Preface xv
Part I Multi-scale Phenomena
Nonlinear Diffusion Approximation of Slow Motion
5(14)
Ludwig Arnold
Introduction
5(2)
Averaging
7(1)
Linear Diffusion Approximation
8(3)
Nonlinear Diffusion Approximation
11(1)
Toy Examples
12(2)
The Lorenz-Maas Atmosphere-Ocean Model
14(5)
Appendix: Sketch of the Proof of Theorem 4.3
15(4)
Experiments on Large Fluctuations
19(10)
A. Bandrivskyy
S. Beri
D. G. Luchinsky
P. V. E. McClintock
Introduction
19(1)
Basis of the Theory
20(1)
Basis of the Experiments
21(1)
Finite Noise Intensity
22(3)
Fast Monte Carlo Technique
25(1)
Conclusion
26(3)
Stochastic Averaging
29(14)
P. Bernard
Introduction
30(1)
Averaging Method for ODE's
30(3)
Averaging result
31(1)
Example
31(1)
Amplitude-angle variables
32(1)
Example
33(1)
Stochastic Averaging
33(2)
Limit theorems
34(1)
Averaging a Stochastic Nonlinear Oscillator
35(1)
Application to Approximations of the Law of the Maximum of the Displacement of a Nonlinear Oscillator
35(4)
Some results about one-dimensional diffusions
36(1)
Definitions
36(1)
Properties
36(1)
Approximation of the probability distribution of the maximum of a one-dimensional diffusion
37(1)
Approximating the law of the maximum of the stationary displacement of a stochastic nonlinear oscillator
38(1)
Conclusion
39(4)
Noise Sensitivity of Stochastic Resonance
43(14)
Mark Freidlin
Introduction
43(2)
Action Functional for the Process Xtδε
45(3)
Wavefront Propagation Problem
48(4)
Exit Problem and Stochastic Resonance
52(5)
Stochastic Resonance
57(14)
Peter Imkeller
Ilya Pavlyukevich
Background and Paradigm
58(1)
Freidlin's Approach
59(2)
Spectral Power Amplification
61(2)
The Spectral Gap
63(1)
Asymptotics of the SPA Coefficient
64(2)
The `Effective Dynamics': Two-state Markov Chains
66(5)
Metastability of Diffusion Processes
71(12)
C. Schutte
W. Huisinga
S. Meyn
Introduction
71(1)
V-uniform Ergodicity and Spectral Gaps
72(4)
Diffusion semigroups
73(2)
Non-probabilistic semigroups
75(1)
Metastability and Exit Rates
76(7)
Exit rates
76(1)
The twisted process
77(2)
Consequences for exit times
79(4)
Stochastic Averaging Near Homoclinic Orbits via Singular Perturbations
83(14)
Richard B. Sowers
Introduction
83(2)
Problem Formulation
85(12)
Part II Stability and Bifurcations
Stochastic Internal Resonance
97(14)
S. T. Ariaratnam
N. M. Abdelrahman
Introduction
97(1)
Conservative Systems
98(6)
Double Fourier Expansion
101(1)
Calculation of Lyapunov Exponent
102(2)
Non-conservative Systems
104(4)
Conclusions
108(3)
Dynamics of Globally Coupled Noisy Excitable Elements
111(14)
J. A. Acebron
A. R. Bulsara
W.-J. Rappel
Introduction
112(1)
Model Equations
112(4)
Bifurcation Analysis
116(7)
Conclusion
123(2)
Stochastic Duffing-van der Pol Oscillator
125(12)
Peter H. Baxendale
Introduction
125(3)
Behavior Near 0
128(1)
Khasminskii-Carverhill Formula
128(1)
The Duffing Case B = 0, β < 0
129(1)
The Case A > 0, B > 0
130(7)
Numerical calculations for λave
133(4)
Slow Sweep Through a Period-Doubling Cascade
137(10)
Huw G. Davies
Philotas Kyriakidis
Introduction
138(1)
A Coupled-modes Model
139(2)
A Period-doubling of a Map
141(3)
Conclusion
144(3)
Multi-Scale Analysis of Noise-Sensitivity Near a Bifurcation
147(10)
R. Kuske
Introduction
147(1)
Multi-scale analysis
148(5)
Additive noise: β < 0
149(1)
Multiplicative noise: β < 0
150(3)
Supercritical Case: β > 0
153(1)
Conclusion
154(3)
Appendix: Details of the Multi-scale Analysis
154(3)
Hopf Meets Hamilton Under Whitney's Umbrella
157(10)
William F. Langford
Introduction
157(1)
Classical Hopf Bifurcation Theorem
158(1)
Hamiltonian-Hopf Bifurcation
159(2)
Whitney's Umbrella
161(2)
Near-Hamiltonian Hopf Bifurcation
163(1)
Conclusion
164(3)
Stochastic Stability of Two Coupled Oscillators in Resonance
167(12)
N. Sri Namachchivaya
N. Ramakrishnan
H. J. Van Roessel
L. Vedula
Introduction
168(1)
Problem Formulation
169(1)
Moment Lyapunov Exponents
170(3)
The Eigenvalue Problem
173(1)
Numerical Results
174(5)
Appendix: Drift and Diffusion Coefficients
176(3)
On Stabilizing the Double Oscillator by Mean Zero Noise
179(12)
Volker Wihstutz
Introduction
179(1)
Stabilizing the Inverted Pendulum
180(1)
Admissible Noise
181(2)
A Stabilization Result
183(1)
Proofs
184(7)
Proof of the lemma
184(3)
Proof of the lemma
187(4)
Stability of a Two-Dimensional System
191(14)
Wei-Chau Xie
Introduction
191(2)
Formulation
193(1)
Moment Lyapunov Exponents
194(6)
Zeroth-order perturbation
195(1)
First-order perturbation
196(1)
Second-order perturbation
196(1)
Determination of Λ2
197(1)
Determination of λ2
198(2)
Conclusion
200(5)
Part III Control and Estimation
The Distributed Nonlinear Stochastic World of Networks
205(12)
P. R. Kumar
Introduction
205(1)
Some Questions of Perhaps Permanent Interest
206(2)
A Single Queue
208(1)
Queueing Networks
209(2)
Computational Proofs of Stability for Queueing Networks
211(2)
Determining the Capacity of a Wireless Network
213(2)
Conclusion
215(2)
Noise effects in Nonlinear System Identification
217(10)
Patricia Davies
Rong Deng
Timothy Doughty
Anil K. Bajaj
Introduction
217(1)
System Models
218(2)
Asymptotic Bias Analysis
220(1)
Results and Discussion
221(3)
Conclusion
224(3)
Structural Vibration Mitigation using Dissipative Smart Damping Devices
227(10)
Erik A. Johnson
Baris Erkus
Introduction
227(3)
EVP Representation of an LQR Problem
230(1)
Definitions
230(1)
Dissipativity constraint
231(1)
A Numerical Example
231(4)
9-story benchmark and EVP verification
233(1)
The effects of the dissipativity constraint
233(2)
Conclusion
235(2)
Parameter Estimation for Stochastic Systems
237(10)
Rafail Z. Khasminskii
Linear Systems
237(2)
Nonlinear Systems
239(3)
Examples
242(2)
Conclusion
244(3)
Control Against Large Deviation for Oscillatory Systems
247(10)
Agnessa Kovaleva
Introduction
247(3)
Main Equations and Performance Criteria
250(2)
Controlled Synchronization in the Presence of Noise
252(2)
Conclusion
254(3)
Parameter Analysis
257(12)
F. Ma
H. Zhang
A. Bockstedte
G. C. Foliente
P. Paevere
Introduction
258(1)
Differential Hysteresis
259(1)
Elimination of Redundant Parameter
260(2)
Parameter Sensitivity Analysis
262(4)
Local sensitivity analysis
262(1)
Global sensitivity analysis
263(3)
Conclusion
266(3)
Stochastic Parameter Estimation of Non-Linear Systems
269(10)
Marcello Vasta
Introduction
269(1)
The Estimation Problem
270(1)
The Spectral Method
271(2)
Energy Based Stochastic Estimation Method
273(2)
Identification to Spectral Representation Input Processes
275(2)
Conclusion
277(2)
Lyapunov Exponent and Stability of Controlled Systems
279(12)
W. Q. Zhu
Z. L. Huang
Introduction
279(1)
Stochastic Averaging
280(1)
Ergodic Control
281(1)
The Largest Lyapunov Exponent
282(2)
Example
284(3)
Conclusion
287(4)
Part IV Modeling
From Earth's Ice Ages to Human Sensory Systems
291(8)
Kurt Wiesenfeld
Fernan Jaramillo
Introduction
291(1)
Stochastic Resonance in Physics
292(3)
Brownian motion and hair bundles
295(4)
Response Spectral Densities
299(8)
G. Q. Cai
Introduction
299(1)
Analysis
300(2)
Example
302(3)
Conclusion
305(2)
Stochastic Lotka-Volterra Systems
307(12)
Mikhail F. Dimentberg
Stochastic L-V Model in Population Dynamics and its Analysis
307(2)
Intermittency in Population Sizes and its Analytical Description
309(5)
Expected Time for Quasiextinction: First-Passage Problem
314(5)
Dynamic Systems Driven By Poisson/Levy White Noise
319(12)
Mircea Grigoriu
Gennady Samorodnitsky
Introduction
319(1)
Why Non-Gaussian White Noise?
320(1)
Linear Systems
321(1)
Nonlinear Systems
322(7)
Multiplicative noise
322(4)
Additive noise
326(3)
Conclusion
329(2)
Stochastic Dynamics of Friction-Induced Vibration in Disc Brakes
331(12)
S. Qiao
R. A. Ibrahim
Stochasticity of Friction
331(1)
Analytical Modeling
332(9)
Dynamics under Constant Friction Coefficient
338(1)
Dynamics under Random Friction Coefficient
339(2)
Conclusion
341(2)
Multiplicative Random Impulse Process
343(10)
Radoslaw Iwankiewicz
Introduction
343(2)
Dynamical Systems With Multiplicative Random Impulse Noise: Statement of the Problem
345(3)
Ito's Stochastic Differential Equation for Dynamical Systems with Multiplicative Random Impulse Noise
348(3)
General procedure
348(1)
Dynamical systems with linear term b(t, Y(t))
349(1)
Dynamical systems with quadratic term b(t, Y (t))
350(1)
Conclusion
351(2)
Multiscale Impact Models: Multibody Dynamics and Wave Propagation
353(10)
W. Schiehlen
R. Seifried
Introduction
353(1)
Multibody Systems with Impact
354(1)
Elastodynamic Contact Using Wave Propagation
355(1)
Contact Simulation Using Finite Elements
356(1)
Experimental Validation
356(2)
Computation of the Coefficient of Restitution
358(2)
Signal Analysis
360(1)
Conclusion
361(2)
Nonstationary Response of Nonlinear Systems
363(12)
Andrew W. Smyth
Sami F. Masri
Overview of Nonstationary Excitation Compact Representation
364(1)
Statistical Linearization and Nonstationary Excitation
364(1)
Example Application
365(5)
Wide-banded real world excitation data example
367(1)
Narrow-banded excitation
368(1)
Response estimation with a highly non-Gaussian excitation process
369(1)
Conclusion
370(5)
Hilbert Spectral Description and Simulation
375(12)
Y. K. Wen
Ping Gu
Introduction
375(2)
Hilbert-Huang Transform (HHT) and Empirical Mode Decomposition (EMD)
377(2)
Hilbert Spectral Description and Representation of a Nonstationary process
379(3)
Simulation of Nonstationary Process Based on Sample Observation
382(2)
Conclusion
384(3)
Part V Computational Methods
Random Vibrations of Riding Cars with Bilinear Damping
387(14)
Walter V. Wedig
Introduction into the Problem
387(3)
Asymptotic Solutions of the FP-Equation
390(3)
Expansions by Orthogonal Polynomials
393(1)
Riding Cars Excited by Colored Noise
394(4)
Conclusion
398(3)
Solutions of the First-Passage Problem by Importance Sampling
401(14)
Christian Bucher
Michael Macke
Introduction
401(1)
Importance Sampling Method
402(3)
Linear Oscillator under Parametric Excitation
405(2)
Oscillator with Nonlinear Damping
407(2)
Hysteretic Oscillator under Non-Gaussian Excitation
409(2)
Conclusion
411(4)
Passive Fields and Particles
415(10)
Bruno Eckhardt
Erwan Hascoet
Wolfgang Braun
Introduction
415(1)
Relaxation in Chaotic Advection
416(3)
Polymer Stretching in Chaotic Flows
419(6)
Sample Point Uniformity Measures
425(10)
Erik A. Johnson
Steven F. Wojtkiewicz
Lawrence A. Bergman
Introduction
426(1)
Uniform Sample Distributions
427(1)
Uniformity in stochastic dynamics
427(1)
Uniformity in response surface methodologies
428(1)
Quantitative Measure of Uniformity
428(3)
Discrepancy: A measure of uniformity
428(2)
Discrepancy sensitivity: Contribution to uniformity
430(1)
Numerical Examples
431(1)
Numerical example in uncertainty
431(1)
Discrepancy sensitivity in response surfaces
432(1)
Conclusion
432(3)
Kinks in a Stochastic PDE
435(10)
Grant Lythe
Salman Habib
Numerical solution
436(2)
Counting kinks
438(1)
The Steady State Density of Kinks
439(6)
Path Integration as a Tool for Investigating Chaotic Behaviour
445(10)
Arvid Naess
Christian Skaug
Introduction
445(1)
The Nonlinear Oscillators
446(1)
The Stochastic Differential Equation and its Solution
447(2)
Numerical Examples
449(3)
Conclusion
452(3)
Time-Varying Cardiovascular Oscillations
455(10)
V. N. Smelyanskiy
D. A. Timucin
D. G. Luchinsky
A. Stefanovska
A. Bandrivskyy
P. V. E. McClintock
Introduction
456(1)
The Problem
457(1)
Mode Decomposition
458(1)
Basic Ideas of the Modelling
458(5)
Inference
463(1)
Conclusion
463(2)
Index 465

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