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9783540441984

Trends in Nonlinear Analysis

by ; ; ; ;
  • ISBN13:

    9783540441984

  • ISBN10:

    3540441980

  • Format: Hardcover
  • Copyright: 2003-02-01
  • Publisher: Springer Verlag
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Summary

Applied mathematics is a central connecting link between scientific observations and their theoretical interpretation. Nonlinear analysis has surely contributed major developments which nowadays shape the face of applied mathematics. At the beginning of the millennium, all sciences are expanding at increased speed. Technological, ecological, economical and medical problem solving is a central issue of every modern society. Mathematical models help to expose fundamental structures hidden in these problems and serve as unifying tools to deepen our understanding. What are the new challenges applied mathematics has to face with the increased diversity of scientific problems? In which direction should the classical tools of nonlinear analysis be developed further? How do new available technologies influence the development of the field? How can problems be solved which have been beyond reach in former times? It is the aim of this book to explore new developments in the field by way of discussion of selected topics from nonlinear analysis.

Table of Contents

Interview with Willi Jager
1(22)
Willi Jager
Markus Kirkilionis
Susanne Kromker
Rolf Rannacher
Friedrich Tomi
Spatio-Temporal Dynamics of Reaction-Diffusion Patterns
23(130)
Bernold Fiedler
Arnd Scheel
Introduction and Overview
23(4)
One Space Dimension: Global Attractors
27(24)
Lyapunov Functions, Comparison Principles, and Sturm Property
27(1)
Lyapunov functions
27(2)
Comparison principles
29(1)
Sturm property, revisited
30(3)
Sturm Attractors on the Interval
33(1)
Global attractors
33(1)
Sturm attractors and Sturm permutations
34(4)
Sturm permutations and heteroclinics
38(3)
Combinatorics of Sturm attractors
41(4)
Sturm Attractors on the Circle
45(1)
Poincare-Bendixson theory
45(2)
Heteroclinic connections of rotating waves
47(4)
One Unbounded Space-Dimension: Travelling Waves
51(29)
Unbounded Domains and Essential Spectra
51(1)
From bounded to unbounded domains
51(2)
Spectra of travelling waves: group velocities and Fredholm indices
53(7)
Instabilities of Travelling Waves
60(1)
Instability of a front caused by point spectrum
61(1)
The Turing instability
61(3)
Essential Hopf instability of a front
64(3)
Instability of a pulse caused by the essential spectrum
67(1)
Fredholm indices and essential instabilities
67(3)
Spatial dynamics and essential instabilities
70(4)
From Unbounded to Large Domains: Absolute Versus Essential Spectra
74(6)
Two Space Dimensions: Existence of Spiral Waves
80(13)
Kinematics and its Defects
80(2)
Curvature flow of Archimedean spirals
82(1)
The front-back matching problem
83(3)
Archimedean Spiral Waves in Radial Dynamics
86(1)
Rigid rotation and asymptotic wavetrains
86(2)
Linear and nonlinear group velocities
88(1)
Characterizing Archimedean spirals
89(2)
Bifurcation to Spiral Waves
91(2)
Two Space Dimensions: Bifurcations from Spiral Waves
93(30)
Phenomenology of Spiral Instabilities
93(2)
Meandering Spirals and Euclidean Symmetry
95(1)
Euclidean equivariance
96(1)
Relative center manifolds
97(1)
Palais coordinates
98(1)
Spiral tip motion, Hopf meandering, and drift resonance
99(3)
Relative normal forms
102(2)
Relative Hopf resonance
104(1)
Relative Takens-Bogdanov bifurcation
105(2)
Spectra of Spiral Waves
107(1)
The eigenvalue problem for spiral waves: core versus farfield
107(2)
Spatial Floquet theory and the dispersion relation of wavetrains
109(2)
Relative Morse indices and essential spectra of spiral waves
111(3)
Absolute spectra of spiral waves
114(2)
Point spectrum and the shape of eigenfunctions
116(2)
Comparison with Experiments
118(1)
Meander instabilities
118(2)
Farfield and core breakup
120(3)
Three Space Dimensions: Scroll Waves
123(30)
Filaments, Scrolls, and Twists
123(1)
Spirals, tips, and Brouwer degree
124(1)
Scroll waves, filaments, and twists
124(3)
Generic Changes of Scroll Filament Topology
127(1)
Generic level sets
128(1)
Sturm property, revisited
129(1)
Comparison principle and nodal domains
130(1)
Annihilation of spiral tips
131(1)
Collisions of scroll wave filaments
131(3)
Numerical Simulations
134(6)
References
140(13)
Some Nonclassical Trends in Parabolic and Parabolic-like Evolutions
153(40)
Paul Fife
Introduction
153(1)
The Simplest Nonlocal Parabolic-like Evolution and its Relatives
154(6)
Comparison Between the Local and Nonlocal Equations
156(1)
Models from Statistical Mechanics
157(1)
Related Nonlocal Evolutions
158(1)
Digression on the Role of Gradient Flows in Modeling
158(2)
The Issue of Discontinuous Profiles in the Nonlocal Problem
160(1)
The Simplest Pattern-Forming Parabolic Equation
160(4)
Overview
160(2)
Spinodal Decomposition in Higher Dimensions
162(2)
Layer Phenomena Related to the Cahn-Hilliard Equation
164(4)
The Slowness of Some Motions
164(1)
Phenomena in 1D
164(1)
Bubbles and such
165(1)
Reduction to the Mullins-Sekerka Problem
165(1)
Further Reductions: Ripening
166(2)
Patterning Due to Competition in General Gradient Systems
168(3)
An Abstract Setting
168(1)
Examples
169(1)
Threshold results
170(1)
Properties of the minimizers
170(1)
Restriction to real-valued functions
170(1)
Conserved Evolutions
171(1)
A Paradigm
171(1)
Ginzburg-Landau Energies with Nonlocal Additions
171(2)
A Prototypical Inverse Elliptic Reduction
172(1)
Free Boundary Reductions
173(2)
Another Kind of Competition
175(2)
Models for Copolymers
176(1)
Conclusion
177(16)
References
178(15)
Mathematical Aspects of Design of Beam Shaping Surfaces in Geometrical Optics
193(32)
Vladimir Oliker
Introduction
193(2)
Creating a Prescribed Intensity Distribution in the Far-Field
195(10)
Statement of the Problem
195(1)
Weak Formulation of the Problem
196(4)
Strong Solutions of the Reflector Problem
200(1)
Existence, Uniqueness and Regularity
200(3)
Computational Methods
203(1)
The method of supporting paraboloids (SP method)
203(1)
Open Problems
204(1)
Creating a Prescribed Intensity Distribution in the Near-Field
205(5)
Statement of the Near-Field (NF) Reflector Problem
206(1)
Weak Formulation and Solution of the NF Reflector Problem
207(3)
Some Open Problems
210(1)
Two-Reflector System for Transforming a Beam of Parallel Rays
210(9)
Statement of the Problem
211(3)
Properties of Reflectors R1 and R2
214(1)
Weak Formulation and Weak Solutions
215(3)
Regularity and Numerics
218(1)
Two-Reflector System with a Point Source
219(6)
References
222(3)
Recent Developments in Multiscale Problems Coming from Fluid Mechanics
225(44)
Andro Mikelic
Homogenization of Flow Problems in the Presence of Rough Boundaries and Interfaces
226(23)
Wall Laws at Rough Boundaries
226(1)
Introduction
226(2)
Navier's boundary layer
228(2)
Justification of the Navier's slip condition for the laminar 3D Couette flow
230(6)
Drag Reduction and Homogenization
236(2)
Law of Beavers and Joseph
238(1)
Introduction
238(3)
Modeling of the experiment by Beavers and Joseph
241(2)
Navier's boundary layer
243(2)
Justification of the law by Beavers and Joseph
245(4)
Interactions Flow-Structures
249(20)
Introduction
249(3)
Biot's Model Without Dissipation
252(7)
Biot's Model with Dissipation
259(5)
References
264(5)
From Molecular Dynamics to Conformation Dynamics in Drug Design
269(20)
Peter Deuflhard
Introduction
269(1)
Classical Molecular Dynamics
270(2)
Hamiltonian Differential Equations
270(1)
Condition of Molecular Initial Value Problems
271(1)
Example: Trinucleotide ACC
272(1)
Metastable Conformations as Almost Invariant Sets
272(8)
Perron-Frobenius Operator
274(1)
Stochastic Transition Operator
274(2)
Perron Cluster Analysis (PCCA)
276(4)
Approximation of the Transition Operator
280(6)
Example: HIV protease inhibitor VX-478
284(2)
Perspectives
286(3)
References
286(3)
A Posteriori Error Estimates and Adaptive Methods for Hyperbolic and Convection Dominated Parabolic Conservation Laws
289(18)
Dietmar Kroner
Marc Kuther
Mario Ohlberger
Christian Rohde
Introduction
289(2)
A Posteriori Error Estimates for Scalar Hyperbolic Conservation Laws
291(7)
Cell Centered Finite Volume Approximations
292(3)
Staggered Lax-Friedrichs Approximations
295(3)
A Posteriori Error Estimates for Weakly Coupled Systems
298(4)
The finite volume scheme
299(3)
Numerical Experiments
302(2)
Transport of Contaminants with Degradation
302(2)
Conclusion
304(3)
References
305(2)
On Anisotropic Geometric Diffusion in 3D Image Processing and Image Sequence Analysis
307(16)
Karol Mikula
Tobias Preußer
Martin Rumpf
Fiorella Sgallari
Introduction
307(1)
Review of Related Work
308(3)
Anisotropic Geometric Diffusion on Still Images
311(4)
Processing Image Sequences via Coupled Anisotropic Geometric Diffusion
315(1)
Local Curvature and Motion Evaluation
316(1)
Finite Element Discretization
317(6)
References
320(3)
Population Dynamics: A Mathematical Bird's Eye View
323(18)
Odo Diekmann
Markus Kirkilionis
The Chemostat
323(1)
Consumer-Resource Interaction
324(3)
Competition for Substrate in the Chemostat
327(1)
A Chemostat Containing a Food-Chain
328(3)
Infectious Agents and the Art of Averaging
331(2)
Heterogeneity
333(2)
Heterogeneity Deriving from Physiological Differences
333(1)
Heterogeneity Deriving from Spatial Position
334(1)
The gradostat and the creation of niches
335(1)
The Pecularities of Semelparity
335(1)
Concluding Sermon
336(5)
References
337(4)
Did Something Change? Thresholds in Population Models
341(34)
Frank Hoppensteadt
Paul Waltman
Introduction
341(2)
Mathematical Background on Bifurcations
343(4)
Disease Thresholds
347(5)
Kermack-McKendrick
347(3)
Schistosomiasis
350(2)
Predator-Prey Systems
352(9)
The Basic Model
353(3)
Subcritical Bifurcation
356(3)
Bifurcation from a Limit Cycle
359(2)
Chaos
361(3)
Iterating Reproduction Curves
361(3)
Random Perturbations of Ecological Systems
364(8)
Lotka-Volterra Model with Random Perturbations
365(6)
The Basic Model with Random Perturbations
371(1)
Summary
372(3)
References
373(2)
Multiscale Modeling of Materials -- the Role of Analysis
375(34)
Sergio Conti
Antonio DeSimone
Georg Dolzmann
Stefan Muller
Felix Otto
Introduction
375(2)
Soft Magnetic Films
377(9)
Micromagnetics
378(2)
Thin Film Limit
380(3)
Numerical Results and Comparison with Experiment
383(2)
Discussion
385(1)
Nematic Elastomers
386(23)
Microscopic Model
387(4)
Quasiconvexification
391(5)
Finite-Element Computations
396(3)
Attainment Results
399(1)
Attainment and non-attainment for Dirichlet boundary conditions
399(2)
Attainment for a Dirichlet-Neumann problem
401(3)
Discussion and Perspectives
404(2)
References
406(3)
Appendix Color Plates 409

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