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9783540306634

Geometric Numerical Integration

by ; ;
  • ISBN13:

    9783540306634

  • ISBN10:

    3540306633

  • Edition: 2nd
  • Format: Hardcover
  • Copyright: 2006-05-16
  • Publisher: Springer Verlag
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Summary

Numerical methods that preserve properties of Hamiltonian systems, reversible systems, differential equations on manifolds and problems with highly oscillatory solutions are the subject of this book. A complete self-contained theory of symplectic and symmetric methods, which include Runge-Kutta, composition, splitting, multistep and various specially designed integrators, is presented and their construction and practical merits are discussed. The long-time behaviour of the numerical solutions is studied using a backward error analysis (modified equations) combined with KAM theory. The book is illustrated by many figures, it treats applications from physics and astronomy and contains many numerical experiments and comparisons of different approaches. The second edition is substantially revised and enlarged, with many improvements in the presentation and additions concerning in particular non-canonical Hamiltonian systems, highly oscillatory mechanical systems, and the dynamics of multistep methods.

Table of Contents

Examples and Numerical Experiments
1(27)
First Problems and Methods
1(7)
The Lotka--Volterra Model
1(2)
First Numerical Methods
3(1)
The Pendulum as a Hamiltonian System
4(3)
The Stormer--Verlet Scheme
7(1)
The Kepler Problem and the Outer Solar System
8(7)
Angular Momentum and Kepler's Second Law
9(1)
Exact Integration of the Kepler Problem
10(2)
Numerical Integration of the Kepler Problem
12(1)
The Outer Solar System
13(2)
The Henon--Heiles Model
15(3)
Molecular Dynamics
18(3)
Highly Oscillatory Problems
21(3)
A Fermi--Pasta--Ulam Problem
21(2)
Application of Classical Integrators
23(1)
Exercises
24(3)
Numerical Integrators
27(24)
Runge--Kutta and Collocation Methods
27(11)
Runge--Kutta Methods
28(2)
Collocation Methods
30(4)
Gauss and Lobatto Collocation
34(1)
Discontinuous Collocation Methods
35(3)
Partitioned Runge--Kutta Methods
38(4)
Definition and First Examples
38(2)
Lobatto IIIA--IIIB Pairs
40(1)
Nystrom Methods
41(1)
The Adjoint of a Method
42(1)
Composition Methods
43(4)
Splitting Methods
47(3)
Exercises
50(1)
Order Conditions, Trees and B-Series
51(46)
Runge--Kutta Order Conditions and B-Series
51(15)
Derivation of the Order Conditions
51(5)
B-Series
56(3)
Composition of Methods
59(2)
Composition of B-Series
61(3)
The Butcher Group
64(2)
Order Conditions for Partitioned Runge--Kutta Methods
66(5)
Bi-Coloured Trees and P-Series
66(2)
Order Conditions for Partitioned Runge--Kutta Methods
68(1)
Order Conditions for Nystrom Methods
69(2)
Order Conditions for Composition Methods
71(12)
Introduction
71(2)
The General Case
73(2)
Reduction of the Order Conditions
75(5)
Order Conditions for Splitting Methods
80(3)
The Baker-Campbell-Hausdorff Formula
83(4)
Derivative of the Exponential and Its Inverse
83(1)
The BCH Formula
84(3)
Order Conditions via the BCH Formula
87(8)
Calculus of Lie Derivatives
87(2)
Lie Brackets and Commutativity
89(2)
Splitting Methods
91(1)
Composition Methods
92(3)
Exercises
95(2)
Conservation of First Integrals and Methods on Manifolds
97(46)
Examples of First Integrals
97(4)
Quadratic Invariants
101(4)
Runge--Kutta Methods
101(1)
Partitioned Runge--Kutta Methods
102(2)
Nystrom Methods
104(1)
Polynomial Invariants
105(4)
The Determinant as a First Integral
105(2)
Isospectral Flows
107(2)
Projection Methods
109(4)
Numerical Methods Based on Local Coordinates
113(5)
Manifolds and the Tangent Space
114(1)
Differential Equations on Manifolds
115(1)
Numerical Integrators on Manifolds
116(2)
Differential Equations on Lie Groups
118(3)
Methods Based on the Magnus Series Expansion
121(2)
Lie Group Methods
123(8)
Crouch-Grossman Methods
124(1)
Munthe-Kaas Methods
125(3)
Further Coordinate Mappings
128(3)
Geometric Numerical Integration Meets Geometric Numerical Linear Algebra
131(8)
Numerical Integration on the Stiefel Manifold
131(4)
Differential Equations on the Grassmann Manifold
135(2)
Dynamical Low-Rank Approximation
137(2)
Exercises
139(4)
Symmetric Integration and Reversibility
143(36)
Reversible Differential Equations and Maps
143(3)
Symmetric Runge--Kutta Methods
146(3)
Collocation and Runge--Kutta Methods
146(2)
Partitioned Runge--Kutta Methods
148(1)
Symmetric Composition Methods
149(12)
Symmetric Composition of First Order Methods
150(4)
Symmetric Composition of Symmetric Methods
154(4)
Effective Order and Processing Methods
158(3)
Symmetric Methods on Manifolds
161(10)
Symmetric Projection
161(5)
Symmetric Methods Based on Local Coordinates
166(5)
Energy -- Momentum Methods and Discrete Gradients
171(5)
Exercises
176(3)
Symplectic Integration of Hamiltonian Systems
179(58)
Hamiltonian Systems
180(2)
Lagrange's Equations
180(1)
Hamilton's Canonical Equations
181(1)
Symplectic Transformations
182(5)
First Examples of Symplectic Integrators
187(4)
Symplectic Runge--Kutta Methods
191(4)
Criterion of Symplecticity
191(3)
Connection Between Symplectic and Symmetric Methods
194(1)
Generating Functions
195(9)
Existence of Generating Functions
195(3)
Generating Function for Symplectic Runge--Kutta Methods
198(2)
The Hamilton--Jacobi Partial Differential Equation
200(3)
Methods Based on Generating Functions
203(1)
Variational Integrators
204(8)
Hamilton's Principle
204(2)
Discretization of Hamilton's Principle
206(2)
Symplectic Partitioned Runge--Kutta Methods Revisited
208(2)
Noether's Theorem
210(2)
Characterization of Symplectic Methods
212(10)
B-Series Methods Conserving Quadratic First Integrals
212(5)
Characterization of Symplectic P-Series (and B-Series)
217(3)
Irreducible Runge--Kutta Methods
220(2)
Characterization of Irreducible Symplectic Methods
222(1)
Conjugate Symplecticity
222(5)
Examples and Order Conditions
223(2)
Near Conservation of Quadratic First Integrals
225(2)
Volume Preservation
227(6)
Exercises
233(4)
Non-Canonical Hamiltonian Systems
237(66)
Constrained Mechanical Systems
237(17)
Introduction and Examples
237(2)
Hamiltonian Formulation
239(3)
A Symplectic First Order Method
242(3)
Shake and Rattle
245(2)
The Lobatto IIIA - IIIB Pair
247(5)
Splitting Methods
252(2)
Poisson Systems
254(7)
Canonical Poisson Structure
254(2)
General Poisson Structures
256(2)
Hamiltonian Systems on Symplectic Submanifolds
258(3)
The Darboux--Lie Theorem
261(7)
Commutativity of Poisson Flows and Lie Brackets
261(1)
Simultaneous Linear Partial Differential Equations
262(3)
Coordinate Changes and the Darboux--Lie Theorem
265(3)
Poisson Integrators
268(6)
Poisson Maps and Symplectic Maps
268(2)
Poisson Integrators
270(2)
Integrators Based on the Darboux--Lie Theorem
272(2)
Rigid Body Dynamics and Lie--Poisson Systems
274(19)
History of the Euler Equations
275(3)
Hamiltonian Formulation of Rigid Body Motion
278(2)
Rigid Body Integrators
280(6)
Lie--Poisson Systems
286(3)
Lie--Poisson Reduction
289(4)
Reduced Models of Quantum Dynamics
293(8)
Hamiltonian Structure of the Schrodinger Equation
293(2)
The Dirac--Frenkel Variational Principle
295(1)
Gaussian Wavepacket Dynamics
296(2)
A Splitting Integrator for Gaussian Wavepackets
298(3)
Exercises
301(2)
Structure-Preserving Implementation
303(34)
Dangers of Using Standard Step Size Control
303(3)
Time Transformations
306(4)
Symplectic Integration
306(3)
Reversible Integration
309(1)
Structure-Preserving Step Size Control
310(6)
Proportional, Reversible Controllers
310(4)
Integrating, Reversible Controllers
314(2)
Multiple Time Stepping
316(6)
Fast-Slow Splitting: the Impulse Method
317(2)
Averaged Forces
319(3)
Reducing Rounding Errors
322(3)
Implementation of Implicit Methods
325(10)
Starting Approximations
326(4)
Fixed-Point Versus Newton Iteration
330(5)
Exercises
335(2)
Backward Error Analysis and Structure Preservation
337(52)
Modified Differential Equation -- Examples
337(5)
Modified Equations of Symmetric Methods
342(1)
Modified Equations of Symplectic Methods
343(5)
Existence of a Local Modified Hamiltonian
343(1)
Existence of a Global Modified Hamiltonian
344(3)
Poisson Integrators
347(1)
Modified Equations of Splitting Methods
348(2)
Modified Equations of Methods on Manifolds
350(6)
Methods on Manifolds and First Integrals
350(2)
Constrained Hamiltonian Systems
352(2)
Lie--Poisson Integrators
354(2)
Modified Equations for Variable Step Sizes
356(2)
Rigorous Estimates -- Local Error
358(8)
Estimation of the Derivatives of the Numerical Solution
360(2)
Estimation of the Coefficients of the Modified Equation
362(2)
Choice of N and the Estimation of the Local Error
364(2)
Long-Time Energy Conservation
366(3)
Modified Equation in Terms of Trees
369(12)
B-Series of the Modified Equation
369(4)
Elementary Hamiltonians
373(2)
Modified Hamiltonian
375(1)
First Integrals Close to the Hamiltonian
375(4)
Energy Conservation: Examples and Counter-Examples
379(2)
Extension to Partitioned Systems
381(5)
P-Series of the Modified Equation
381(3)
Elementary Hamiltonians
384(2)
Exercises
386(3)
Hamiltonian Perturbation Theory and Symplectic Integrators
389(48)
Completely Integrable Hamiltonian Systems
390(14)
Local Integration by Quadrature
390(3)
Completely Integrable Systems
393(4)
Action-Angle Variables
397(2)
Conditionally Periodic Flows
399(3)
The Toda Lattice -- an Integrable System
402(2)
Transformations in the Perturbation Theory for Integrable Systems
404(9)
The Basic Scheme of Classical Perturbation Theory
405(1)
Lindstedt--Poincare Series
406(4)
Kolmogorov's Iteration
410(2)
Birkhoff Normalization Near an Invariant Torus
412(1)
Linear Error Growth and Near-Preservation of First Integrals
413(4)
Near-Invariant Tori on Exponentially Long Times
417(6)
Estimates of Perturbation Series
417(4)
Near-Invariant Tori of Perturbed Integrable Systems
421(1)
Near-Invariant Tori of Symplectic Integrators
422(1)
Kolmogorov's Theorem on Invariant Tori
423(7)
Kolmogorov's Theorem
423(5)
KAM Tori under Symplectic Discretization
428(2)
Invariant Tori of Symplectic Maps
430(4)
A KAM Theorem for Symplectic Near-Identity Maps
431(2)
Invariant Tori of Symplectic Integrators
433(1)
Strongly Non-Resonant Step Sizes
433(1)
Exercises
434(3)
Reversible Perturbation Theory and Symmetric Integrators
437(18)
Integrable Reversible Systems
437(5)
Transformations in Reversible Perturbation Theory
442(6)
The Basic Scheme of Reversible Perturbation Theory
443(1)
Reversible Perturbation Series
444(1)
Reversible KAM Theory
445(2)
Reversible Birkhoff-Type Normalization
447(1)
Linear Error Growth and Near-Preservation of First Integrals
448(3)
Invariant Tori under Reversible Discretization
451(2)
Near-Invariant Tori over Exponentially Long Times
451(1)
A KAM Theorem for Reversible Near-Identity Maps
451(2)
Exercises
453(2)
Dissipatively Perturbed Hamiltonian and Reversible Systems
455(16)
Numerical Experiments with Van der Pol's Equation
455(3)
Averaging Transformations
458(2)
The Basic Scheme of Averaging
458(1)
Perturbation Series
459(1)
Attractive Invariant Manifolds
460(4)
Weakly Attractive Invariant Tori of Perturbed Integrable Systems
464(1)
Weakly Attractive Invariant Tori of Numerical Integrators
465(4)
Modified Equations of Perturbed Differential Equations
466(1)
Symplectic Methods
467(2)
Symmetric Methods
469(1)
Exercises
469(2)
Oscillatory Differential Equations with Constant High Frequencies
471(60)
Towards Longer Time Steps in Solving Oscillatory Equations of Motion
471(7)
The Stormer--Verlet Method vs. Multiple Time Scales
472(1)
Gautschi's and Deuflhard's Trigonometric Methods
473(2)
The Impulse Method
475(1)
The Mollified Impulse Method
476(1)
Gautschi's Method Revisited
477(1)
Two-Force Methods
478(1)
A Nonlinear Model Problem and Numerical Phenomena
478(8)
Time Scales in the Fermi--Pasta--Ulam Problem
479(2)
Numerical Methods
481(1)
Accuracy Comparisons
482(1)
Energy Exchange between Stiff Components
483(1)
Near-Conservation of Total and Oscillatory Energy
484(2)
Principal Terms of the Modulated Fourier Expansion
486(4)
Decomposition of the Exact Solution
486(2)
Decomposition of the Numerical Solution
488(2)
Accuracy and Slow Exchange
490(6)
Convergence Properties on Bounded Time Intervals
490(4)
Intra-Oscillatory and Oscillatory-Smooth Exchanges
494(2)
Modulated Fourier Expansions
496(7)
Expansion of the Exact Solution
496(2)
Expansion of the Numerical Solution
498(4)
Expansion of the Velocity Approximation
502(1)
Almost-Invariants of the Modulated Fourier Expansions
503(7)
The Hamiltonian of the Modulated Fourier Expansion
503(2)
A Formal Invariant Close to the Oscillatory Energy
505(2)
Almost-Invariants of the Numerical Method
507(3)
Long-Time Near-Conservation of Total and Oscillatory Energy
510(3)
Energy Behaviour of the Stormer--Verlet Method
513(3)
Systems with Several Constant Frequencies
516(10)
Oscillatory Energies and Resonances
517(2)
Multi-Frequency Modulated Fourier Expansions
519(2)
Almost-Invariants of the Modulation System
521(3)
Long-Time Near-Conservation of Total and Oscillatory Energies
524(2)
Systems with Non-Constant Mass Matrix
526(3)
Exercises
529(2)
Oscillatory Differential Equations with Varying High Frequencies
531(36)
Linear Systems with Time-Dependent Skew-Hermitian Matrix
531(8)
Adiabatic Transformation and Adiabatic Invariants
531(5)
Adiabatic Integrators
536(3)
Mechanical Systems with Time-Dependent Frequencies
539(16)
Canonical Transformation to Adiabatic Variables
540(7)
Adiabatic Integrators
547(3)
Error Analysis of the Impulse Method
550(4)
Error Analysis of the Mollified Impulse Method
554(1)
Mechanical Systems with Solution-Dependent Frequencies
555(9)
Constraining Potentials
555(3)
Transformation to Adiabatic Variables
558(5)
Integrators in Adiabatic Variables
563(1)
Analysis of Multiple Time-Stepping Methods
564(1)
Exercises
564(3)
Dynamics of Multistep Methods
567(50)
Numerical Methods and Experiments
567(6)
Linear Multistep Methods
567(2)
Multistep Methods for Second Order Equations
569(3)
Partitioned Multistep Methods
572(1)
The Underlying One-Step Method
573(3)
Strictly Stable Multistep methods
573(2)
Formal Analysis for Weakly Stable Methods
575(1)
Backward Error Analysis
576(9)
Modified Equation for Smooth Numerical Solutions
576(3)
Parasitic Modified Equations
579(6)
Can Multistep Methods be Symplectic?
585(7)
Non-Symplecticity of the Underlying One-Step Method
585(2)
Symplecticity in the Higher-Dimensional Phase Space
587(2)
Modified Hamiltonian of Multistep Methods
589(2)
Modified Quadratic First Integrals
591(1)
Long-Term Stability
592(8)
Role of Growth Parameters
592(2)
Hamiltonian of the Full Modified System
594(2)
Long-Time Bounds for Parasitic Solution Components
596(4)
Explanation of the Long-Time Behaviour
600(2)
Conservation of Energy and Angular Momentum
600(1)
Linear Error Growth for Integrable Systems
601(1)
Practical Considerations
602(7)
Numerical Instabilities and Resonances
602(3)
Extension to Variable Step Sizes
605(4)
Multi-Value or General Linear Methods
609(6)
Underlying One-Step Method and Backward Error Analysis
609(2)
Symplecticity and Symmetry
611(3)
Growth Parameters
614(1)
Exercises
615(2)
Bibliography 617(20)
Index 637

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