Analytical Mechanics An Introduction

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Format: Hardcover
Pub. Date: 2006-06-01
Publisher(s): Oxford University Press
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Summary

Analytical Mechanics is the investigation of motion with the rigorous tools of mathematics. Rooted in the works of Lagrange, Euler, Poincare (to mention just a few), it is a very classical subject with fascinating developments and still rich of open problems. It addresses such fundamental questions as : Is the solar system stable? Is there a unifying 'economy' principle in mechanics? How can a point mass be described as a 'wave'? And has remarkable applications to many branches of physics (Astronomy, Statistical mechanics, Quantum Mechanics). This book was written to fill a gap between elementary expositions and more advanced (and clearly more stimulating) material. It takes up the challenge to explain the most relevant ideas (generally highly non-trivial) and to show the most important applications using a plain language and 'simple' mathematics, often through an original approach. Basic calculus is enough for the reader to proceed through the book. New mathematical concepts are fully introduced and illustrated in a simple, student-friendly language. More advanced chapters can be omitted while still following the main ideas. Anybody wishing to go deeper in some direction will find at least the flavor of recent developments and many bibliographical references. The theory is always accompanied by examples. Many problems are suggested and some are completely worked out at the end of each chapter. The book may effectively be used (and has been used at several Italian Universities) for undergraduate as well as for PhD courses in Physics and Mathematics at various levels.

Author Biography


Antonio Fasano
Department of Mathematics
University of Firenze
Viale Morgagni 67a,
50134 FIRENZE, ITALY

Table of Contents

1 Geometric and kinematic foundations of Lagrangian mechanics
1(68)
1.1 Curves in the plane
1(2)
1.2 Length of a curve and natural parametrisation
3(4)
1.3 Tangent vector, normal vector and curvature of plane curves
7(5)
1.4 Curves in R³
12(3)
1.5 Vector fields and integral curves
15(1)
1.6 Surfaces
16(17)
1.7 Differentiable Riemannian manifolds
33(13)
1.8 Actions of groups and tori
46(3)
1.9 Constrained systems and Lagrangian coordinates
49(3)
1.10 Holonomic systems
52(2)
1.11 Phase space
54(3)
1.12 Accelerations of a holonomic system
57(1)
1.13 Problems
58(3)
1.14 Additional remarks and bibliographical notes
61(1)
1.15 Additional solved problems
62(7)
2 Dynamics: general laws and the dynamics of a point particle
69(22)
2.1 Revision and comments on the axioms of classical mechanics
69(2)
2.2 The Galilean relativity principle and interaction forces
71(4)
2.3 Work and conservative fields
75(2)
2.4 The dynamics of a point constrained by smooth holonomic constraints
77(3)
2.5 Constraints with friction
80(1)
2.6 Point particle subject to unilateral constraints
81(2)
2.7 Additional remarks and bibliographical notes
83(1)
2.8 Additional solved problems
83(8)
3 One-dimensional motion
91(34)
3.1 Introduction
91(1)
3.2 Analysis of motion due to a positional force
92(4)
3.3 The simple pendulum
96(2)
3.4 Phase plane and equilibrium
98(5)
3.5 Damped oscillations, forced oscillations. Resonance
103(4)
3.6 Beats
107(1)
3.7 Problems
108(4)
3.8 Additional remarks and bibliographical notes
112(1)
3.9 Additional solved problems
113(12)
4 The dynamics of discrete systems. Lagrangian formalism
125(54)
4.1 Cardinal equations
125(2)
4.2 Holonomic systems with smooth constraints
127(1)
4.3 Lagrange's equations
128(8)
4.4 Determination of constraint reactions. Constraints with friction
136(2)
4.5 Conservative systems. Lagrangian function
138(3)
4.6 The equilibrium of holonomic systems with smooth constraints
141(1)
4.7 Generalised potentials. Lagrangian of an electric charge in an electromagnetic field
142(2)
4.8 Motion of a charge in a constant electric or magnetic field
144(3)
4.9 Symmetries and conservation laws. Noether's theorem
147(3)
4.10 Equilibrium, stability and small oscillations
150(9)
4.11 Lyapunov functions
159(3)
4.12 Problems
162(3)
4.13 Additional remarks and bibliographical notes
165(1)
4.14 Additional solved problems
165(14)
5 Motion in a central field
179(34)
5.1 Orbits in a central field
179(6)
5.2 Kepler's problem
185(2)
5.3 Potentials admitting closed orbits
187(6)
5.4 Kepler's equation
193(4)
5.5 The Lagrange formula
197(3)
5.6 The two-body problem
200(1)
5.7 The n-body problem
201(4)
5.8 Problems
205(2)
5.9 Additional remarks and bibliographical notes
207(1)
5.10 Additional solved problems
208(5)
6 Rigid bodies: geometry and kinematics
213(22)
6.1 Geometric properties. The Euler angles
213(3)
6.2 The kinematics of rigid bodies. The fundamental formula
216(3)
6.3 Instantaneous axis of motion
219(2)
6.4 Phase space of precessions
221(2)
6.5 Relative kinematics
223(3)
6.6 Relative dynamics
226(2)
6.7 Ruled surfaces in a rigid motion
228(2)
6.8 Problems
230(1)
6.9 Additional solved problems
231(4)
7 The mechanics of rigid bodies: dynamics
235(44)
7.1 Preliminaries: the geometry of masses
235(1)
7.2 Ellipsoid and principal axes of inertia
236(3)
7.3 Homography of inertia
239(3)
7.4 Relevant quantities in the dynamics of rigid bodies
242(2)
7.5 Dynamics of free systems
244(1)
7.6 The dynamics of constrained rigid bodies
245(5)
7.7 The Euler equations for precessions
250(1)
7.8 Precessions by inertia
251(3)
7.9 Permanent rotations
254(2)
7.10 Integration of Euler equations
256(3)
7.11 Gyroscopic precessions
259(2)
7.12 Precessions of a heavy gyroscope (spinning top)
261(2)
7.13 Rotations
263(2)
7.14 Problems
265(1)
7.15 Additional solved problems
266(13)
8 Analytical mechanics: Hamiltonian formalism
279(22)
8.1 Legendre transformations
279(3)
8.2 The Hamiltonian
282(2)
8.3 Hamilton's equations
284(1)
8.4 Liouville's theorem
285(2)
8.5 Poincaré recursion theorem
287(1)
8.6 Problems
288(3)
8.7 Additional remarks and bibliographical notes
291(1)
8.8 Additional solved problems
291(10)
9 Analytical mechanics: variational principles
301(30)
9.1 Introduction to the variational problems of mechanics
301(1)
9.2 The Euler equations for stationary functionals
302(10)
9.3 Hamilton's variational principle: Lagrangian form
312(2)
9.4 Hamilton's variational principle: Hamiltonian form
314(2)
9.5 Principle of the stationary action
316(2)
9.6 The Jacobi metric
318(5)
9.7 Problems
323(1)
9.8 Additional remarks and bibliographical notes
324(1)
9.9 Additional solved problems
324(7)
10 Analytical mechanics: canonical formalism 331(82)
10.1 Symplectic structure of the Hamiltonian phase space
331(9)
10.2 Canonical and completely canonical transformations
340(12)
10.3 The Poincaré-Cartan integral invariant. The Lie condition
352(12)
10.4 Generating functions
364(7)
10.5 Poisson brackets
371(3)
10.6 Lie derivatives and commutators
374(6)
10.7 Symplectic rectification
380(4)
10.8 Infinitesimal and near-to-identity canonical transformations. Lie series
384(9)
10.9 Symmetries and first integrals
393(2)
10.10 Integral invariants
395(2)
10.11 Symplectic manifolds and Hamiltonian dynamical systems
397(2)
10.12 Problems
399(5)
10.13 Additional remarks and bibliographical notes
404(1)
10.14 Additional solved problems
405(8)
11 Analytic mechanics: Hamilton-Jacobi theory and integrability 413(74)
11.1 The Hamilton-Jacobi equation
413(8)
11.2 Separation of variables for the Hamilton-Jacobi equation
421(10)
11.3 Integrable systems with one degree of freedom: action-angle variables
431(8)
11.4 Integrability by quadratures. Liouville's theorem
439(7)
11.5 Invariant l-dimensional tori. The theorem of Arnold
446(7)
11.6 Integrable systems with several degrees of freedom: action-angle variables
453(5)
11.7 Quasi-periodic motions and functions
458(8)
11.8 Action-angle variables for the Kepler problem. Canonical elements, Delaunay and Poincaré variables
466(5)
11.9 Wave interpretation of mechanics
471(6)
11.10 Problems
477(3)
11.11 Additional remarks and bibliographical notes
480(1)
11.12 Additional solved problems
481(6)
12 Analytical mechanics: canonical perturbation theory 487(58)
12.1 Introduction to canonical perturbation theory
487(12)
12.2 Time periodic perturbations of one-dimensional uniform motions
499(3)
12.3 The equation Dωu = upsilon Conclusion of the previous analysis
502(5)
12.4 Discussion of the fundamental equation of canonical perturbation theory. Theorem of Poincaré on the non-existence of first integrals of the motion
507(9)
12.5 Birkhoff series: perturbations of harmonic oscillators
516(6)
12.6 The Kolmogorov-Arnol'd-Moser theorem
522(7)
12.7 Adiabatic invariants
529(3)
12.8 Problems
532(2)
12.9 Additional remarks and bibliographical notes
534(1)
12.10 Additional solved problems
535(10)
13 Analytical mechanics: an introduction to ergodic theory and to chaotic motion 545(46)
13.1 The concept of measure
545(3)
13.2 Measurable functions. Integrability
548(2)
13.3 Measurable dynamical systems
550(4)
13.4 Ergodicity and frequency of visits
554(9)
13.5 Mixing
563(2)
13.6 Entropy
565(6)
13.7 Computation of the entropy. Bernoulli schemes. Isomorphism of dynamical systems
571(4)
13.8 Dispersive billiards
575(3)
13.9 Characteristic exponents of Lyapunov. The theorem of Oseledec
578(3)
13.10 Characteristic exponents and entropy
581(1)
13.11 Chaotic behaviour of the orbits of planets in the Solar System
582(2)
13.12 Problems
584(2)
13.13 Additional solved problems
586(4)
13.14 Additional remarks and bibliographical notes
590(1)
14 Statistical mechanics: kinetic theory 591(22)
14.1 Distribution functions
591(1)
14.2 The Boltzmann equation
592(4)
14.3 The hard spheres model
596(3)
14.4 The Maxwell-Boltzmann distribution
599(2)
14.5 Absolute pressure and absolute temperature in an ideal monatomic gas
601(3)
14.6 Mean free path
604(1)
14.7 The 'H theorem' of Boltzmann. Entropy
605(4)
14.8 Problems
609(1)
14.9 Additional solved problems
610(1)
14.10 Additional remarks and bibliographical notes
611(2)
15 Statistical mechanics: Gibbs sets 613(58)
15.1 The concept of a statistical set
613(3)
15.2 The ergodic hypothesis: averages and measurements of observable quantities
616(4)
15.3 Fluctuations around the average
620(1)
15.4 The ergodic problem and the existence of first integrals
621(3)
15.5 Closed isolated systems (prescribed energy). Micro canonical set
624(3)
15.6 Maxwell—Boltzmann distribution and fluctuations in the microcanonical set
627(4)
15.7 Gibbs' paradox
631(3)
15.8 Equipartition of the energy (prescribed total energy)
634(2)
15.9 Closed systems with prescribed temperature. Canonical set
636(4)
15.10 Equipartition of the energy (prescribed temperature)
640(5)
15.11 Helmholtz free energy and orthodicity of the canonical set
645(1)
15.12 Canonical set and energy fluctuations
646(1)
15.13 Open systems with fixed temperature. Grand canonical set
647(4)
15.14 Thermodynamical limit. Fluctuations in the grand canonical set
651(3)
15.15 Phase transitions
654(2)
15.16 Problems
656(3)
15.17 Additional remarks and bibliographical notes
659(3)
15.18 Additional solved problems
662(9)
16 Lagrangian formalism in continuum mechanics 671(24)
16.1 Brief summary of the fundamental laws of continuum mechanics
671(5)
16.2 The passage from the discrete to the continuous model. The Lagrangian function
676(2)
16.3 Lagrangian formulation of continuum mechanics
678(2)
16.4 Applications of the Lagrangian formalism to continuum mechanics
680(4)
16.5 Hamiltonian formalism
684(1)
16.6 The equilibrium of continua, as a variational problem. Suspended cables
685(5)
16.7 Problems
690(1)
16.8 Additional solved problems
691(4)
Appendices
Appendix 1: Some basic results on ordinary differential equations
695(10)
A1.1 General results
695(2)
A1.2 Systems of equations with constant coefficients
697(4)
A1.3 Dynamical systems on manifolds
701(4)
Appendix 2: Elliptic integrals and elliptic functions
705(4)
Appendix 3: Second fundamental form of a surface
709(6)
Appendix 4: Algebraic forms, differential forms, tensors
715(14)
A4.1 Algebraic forms
715(4)
A4.2 Differential forms
719(5)
A4.3 Stokes' theorem
724(2)
A4.4 Tensors
726(3)
Appendix 5: Physical realisation of constraints
729(4)
Appendix 6: Kepler's problem, linear oscillators and geodesic flows
733(8)
Appendix 7: Fourier series expansions
741(4)
Appendix 8: Moments of the Gaussian distribution and the Euler Γ function
745(4)
Bibliography 749(10)
Index 759

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