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9783540431633

Statistical Mechanics

by
  • ISBN13:

    9783540431633

  • ISBN10:

    3540431632

  • Format: Hardcover
  • Copyright: 2003-01-01
  • Publisher: Springer Verlag
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Supplemental Materials

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Summary

In addition to a deductive approach to equilibrium statistics and thermodynamics based on a single hypothesis - the form of the microcanonical density matrix - this book treats the most important elements of non-equilibrium phenomena. Intermediate calculations are presented in complete detail. Problems at the end of each chapter help students to consolidate their understanding of the material. Beyond the fundamentals, this text demonstrates the breadth of the field and its great variety of applications. Modern areas such as renormalization group theory, percolation, stochastic equations of motion and their applications to critical dynamics, as well as fundamental considerations of irreversibility, are discussed. The text will be useful for advanced students of physics and other natural sciences; a basic knowledge of quantum mechanics is presumed.

Table of Contents

Basic Principles
1(24)
Introduction
1(3)
A Brief Excursion into Probability Theory
4(5)
Probability Density and Characteristic Functions
4(3)
The Central Limit Theorem
7(2)
Ensembles in Classical Statistics
9(5)
Phase Space and Distribution Functions
9(2)
The Liouville Equation
11(3)
Quantum Statistics
14(2)
The Density Matrix for Pure and Mixed Ensembles
14(1)
The Von Neumann Equation
15(1)
Additional remarks
16(9)
The Binomial and the Poisson Distributions
16(3)
Mixed Ensembles and the Density Matrix of Subsystems
19(2)
Problems
21(4)
Equilibrium Ensembles
25(50)
Introductory Remarks
25(1)
Microcanonical Ensembles
26(9)
Microcanonical Distribution Functions and Density Matrices
26(4)
The Classical Ideal Gas
30(3)
Quantum-mechanical Harmonic Oscillators and Spin Systems
33(2)
Entropy
35(3)
General Definition
35(1)
An Extremal Property of the Entropy
36(1)
Entropy of the Microcanonical Ensemble
37(1)
Temperature and Pressure
38(8)
Systems in Contact: the Energy Distribution Function, Definition of the Temperature
38(3)
On the Widths of the Distribution Functions of Macroscopic Quantities
41(1)
External Parameters: Pressure
42(4)
Properties of Some Non-interacting Systems
46(4)
The Ideal Gas
46(2)
Non-interacting Quantum Mechanical Harmonic Oscillators and Spins
48(2)
The Canonical Ensemble
50(12)
The Density Matrix
50(2)
Examples: the Maxwell Distribution and the Barometric Pressure Formula
52(1)
The Entropy of the Canonical Ensemble and Its Extremal Values
53(1)
The Virial Theorem and the Equipartition Theorem
54(3)
Thermodynamic Quantities in the Canonical Ensemble
57(3)
Additional Properties of the Entropy
60(2)
The Grand Canonical Ensemble
62(13)
Systems with Particle Exchange
62(1)
The Grand Canonical Density Matrix
63(2)
Thermodynamic Quantities
65(1)
The Grand Partition Function for the Classical Ideal Gas
66(2)
The Grand Canonical Density Matrix in Second Quantization
68(1)
Problems
69(6)
Thermodynamics
75(90)
Potentials and Laws of Equilibrium Thermodynamics
75(7)
Definitions
75(4)
The Legendre Transformation
79(2)
The Gibbs-Duhem Relation in Homogeneous Systems
81(1)
Derivatives of Thermodynamic Quantities
82(7)
Definitions
82(2)
Integrability and the Maxwell Relations
84(3)
Jacobians
87(1)
Examples
88(1)
Fluctuations and Thermodynamic Inequalities
89(2)
Fluctuations
89(1)
Inequalities
90(1)
Absolute Temperature and Empirical Temperatures
91(1)
Thermodynamic Processes
92(11)
Thermodynamic Concepts
93(2)
The Irreversible Expansion of a Gas; the Gay-Lussac Experiment
95(2)
The Statistical Foundation of Irreversibility
97(1)
Reversible Processes
98(4)
The Adiabatic Equation
102(1)
The First and Second Laws of Thermodynamics
103(22)
The First and the Second Law for Reversible and Irreversible Processes
103(4)
Historical Formulations of the Laws of Thermodynamics and other Remarks
107(2)
Examples and Supplements to the Second Law
109(11)
Extremal Properties
120(3)
Thermodynamic Inequalities Derived from Maximization of the entropy
123(2)
Cyclic Processes
125(5)
General Considerations
125(1)
The Carnot Cycle
126(2)
General Cyclic Processes
128(2)
Phases of Single-Component Systems
130(14)
Phase-Boundary Curves
130(4)
The Clausius-Clapeyron Equation
134(5)
The Convexity of the Free Energy and the Concavity of the Free Enthalpy (Gibbs' Free Energy)
139(2)
The Triple Point
141(3)
Equilibrium in Multicomponent Systems
144(21)
Generalization of the Thermodynamic Potentials
144(2)
Gibbs' Phase Rule and Phase Equilibrium
146(4)
Chemical Reactions, Thermodynamic Equilibrium and the Law of Mass Action
150(4)
Vapor-pressure Increase by Other Gases and by Surface Tension
154(4)
Problems
158(7)
Ideal Quantum Gases
165(56)
The Grand Potential
165(6)
The Classical Limit z = eμ/kT << 1
171(1)
The Nearly-degenerate Ideal Fermi Gas
172(14)
Ground State, T = 0 (Degeneracy)
173(1)
The Limit of Complete Degeneracy
174(7)
Real Fermions
181(5)
The Bose-Einstein Condensation
186(7)
The Photon Gas
193(9)
Properties of Photons
193(2)
The Canonical Partition Function
195(1)
Planck's Radiation Law
196(4)
Supplemental Remarks
200(1)
Fluctuations in the Particle Number of Fermions and Bosons
201(1)
Phonons in Solids
202(7)
The Harmonic Hamiltonian
202(3)
Thermodynamic Properties
205(2)
Anharmonic Effects, the Mie-Gruneisen Equation of State
207(2)
Phonons und Rotons in He II
209(12)
The Excitations (Quasiparticles) of He II
209(2)
Thermal Properties
211(2)
Superfluidity and the Two-Fluid Model
213(4)
Problems
217(4)
Real Gases, Liquids, and Solutions
221(44)
The Ideal Molecular Gas
221(9)
The Hamiltonian and the Partition Function
221(2)
The Rotational Contribution
223(3)
The Vibrational Contribution
226(2)
The Influence of the Nuclear Spin
228(2)
Mixtures of Ideal Molecular Gases
230(2)
The Virial Expansion
232(6)
Derivation
232(2)
The Classical Approximation for the Second Virial Coefficient
234(3)
Quantum Corrections to the Virial Coefficients
237(1)
The Van der Waals Equation of State
238(15)
Derivation
238(5)
The Maxwell Construction
243(4)
The Law of Corresponding States
247(1)
The Vicinity of the Critical Point
247(6)
Dilute Solutions
253(12)
The Partition Function and the Chemical Potentials
253(4)
Osmotic Pressure
257(1)
Solutions of Hydrogen in Metals (Nb, Pd,...)
258(1)
Freezing-Point Depression, Boiling-Point Elevation, and Vapor-Pressure Reduction
259(3)
Problems
262(3)
Magnetism
265(62)
The Density Matrix and Thermodynamics
265(9)
The Hamiltonian and the Canonical Density Matrix
265(4)
Thermodynamic Relations
269(3)
Supplementary Remarks
272(2)
The Diamagnetism of Atoms
274(2)
The Paramagnetism of Non-coupled Magnetic Moments
276(4)
Pauli Spin Paramagnetism
280(3)
Ferromagnetism
283(20)
The Exchange Interaction
283(2)
The Molecular Field Approximation for the Ising Model
285(11)
Correlation Functions and Susceptibility
296(1)
The Ornstein-Zernike Correlation Function
297(4)
Continuum Representation
301(2)
The Dipole Interaction, Shape Dependence, Internal and External Fields
303(10)
The Hamiltonian
303(1)
Thermodynamics and Magnetostatics
304(4)
Statistical-Mechanical Justification
308(4)
Domains
312(1)
Applications to Related Phenomena
313(14)
Polymers and Rubber-like Elasticity
313(3)
Negative Temperatures
316(3)
The Melting Curve of 3He
319(2)
Problems
321(6)
Phase Transitions, Renormalization Group Theory, and Percolation
327(78)
Phase Transitions and Critical Phenomena
327(8)
Symmetry Breaking, the Ehrenfest Classification
327(1)
Examples of Phase Transitions and Analogies
328(6)
Universality
334(1)
The Static Scaling Hypothesis
335(6)
Thermodynamic Quantities and Critical Exponents
335(4)
The Scaling Hypothesis for the Correlation Function
339(2)
The Renormalization Group
341(16)
Introductory Remarks
341(1)
The One-Dimensional Ising Model, Decimation Transformation
342(3)
The Two-Dimensional Ising Model
345(7)
Scaling Laws
352(3)
General RG Transformations in Real Space
355(2)
The Ginzburg-Landau Theory
357(26)
Ginzburg-Landau Functionals
357(3)
The Ginzburg-Landau Approximation
360(2)
Fluctuations in the Gaussian Approximation
362(7)
Continuous Symmetry and Phase Transitions of First Order
369(7)
The Momentum-Shell Renormalization Group
376(7)
Percolation
383(22)
The Phenomenon of Percolation
383(4)
Theoretical Description of Percolation
387(1)
Percolation in One Dimension
388(1)
The Bethe Lattice (Cayley Tree)
389(5)
General Scaling Theory
394(2)
Real-Space Renormalization Group Theory
396(4)
Problems
400(5)
Brownian Motion, Equations of Motion and the Fokker-Planck Equations
405(28)
Langevin Equations
405(7)
The Free Langevin Equation
405(5)
The Langevin Equation in a Force Field
410(2)
The Derivation of the Fokker-Planck Equation from the Langevin Equation
412(4)
The Fokker-Planck Equation for the Langevin Equation (8.1.1)
412(2)
Derivation of the Smoluchowski Equation for the Overdamped Langevin Equation, (8.1.23)
414(2)
The Fokker-Planck Equation for the Langevin Equation (8.1.22b)
416(1)
Examples and Applications
416(17)
Integration of the Fokker-Planck Equation (8.2.6)
416(2)
Chemical Reactions
418(3)
Critical Dynamics
421(4)
The Smoluchowski Equation and Supersymmetric Quantum Mechanics
425(3)
Problems
428(5)
The Boltzmann Equation
433(42)
Introduction
433(1)
Derivation of the Boltzmann Equation
434(5)
Consequences of the Boltzmann Equation
439(12)
The H-Theorem and Irreversibility
439(3)
Behavior of the Boltzmann Equation under Time Reversal
442(1)
Collision Invariants and the Local Maxwell Distribution
443(2)
Conservation Laws
445(2)
The Hydrodynamic Equations in Local Equilibrium
447(4)
The Linearized Boltzmann Equation
451(13)
Linearization
451(2)
The Scalar Product
453(1)
Eigenfunctions of L and the Expansion of the Solutions of the Boltzmann Equation
454(2)
The Hydrodynamic Limit
456(6)
Solutions of the Hydrodynamic Equations
462(2)
Supplementary Remarks
464(11)
Relaxation-Time Approximation
464(1)
Calculation of W (v1, v2; v'1, v'2)
465(7)
Problems
472(3)
Irreversibility and the Approach to Equilibrium
475(34)
Preliminary Remarks
475(2)
Recurrence Time
477(3)
The Origin of Irreversible Macroscopic Equations of Motion
480(7)
A Microscopic Model for Brownian Motion
480(6)
Microscopic Time-Reversible and Macroscopic Irreversible Equations of Motion, Hydrodynamics
486(1)
The Master Equation and Irreversibility in Quantum Mechanics
487(3)
Probability and Phase-Space Volume
490(4)
Probabilities and the Time Interval of Large Fluctuations
490(3)
The Ergodic Theorem
493(1)
The Gibbs and the Boltzmann Entropies and their Time Dependences
494(2)
The Time Derivative of Gibbs' Entropy
494(1)
Boltzmann's Entropy
494(2)
Irreversibility and Time Reversal
496(7)
The Expansion of a Gas
496(5)
Description of the Expansion Experiment in μ-Space
501(1)
The Influence of External Perturbations on the Trajectories of the Particles
502(1)
Entropy Death or Ordered Structures?
503(6)
Problems
505(4)
Appendix 509(52)
A Nernst's Theorem (Third Law)
509(8)
A.1 Preliminary Remarks on the Historical Development of Nernst's Theorem
509(1)
A.2 Nernst's Theorem and its Thermodynamic Consequences
510(2)
A.3 Residual Entropy, Metastability, etc.
512(5)
B. The Classical Limit and Quantum Corrections
517(15)
B.1 The Classical Limit
517(5)
B.2 Calculation of the Quantum-Mechanical Corrections
522(5)
B.3 Quantum Corrections to the Second Virial Coefficient B(T)
527(5)
C. The Perturbation Expansion
532(1)
D. The Riemann ζ-Function and the Bernoulli Numbers
533(1)
E. Derivation of the Ginzburg-Landau Functional
534(7)
F. The Transfer Matrix Method
541(2)
G. Integrals Containing the Maxwell Distribution
543(1)
H. Hydrodynamics
544(9)
H.1 Hydrodynamic Equations, Phenomenological Discussion
545(1)
H.2 The Kubo Relaxation Function
546(2)
H.3 The Microscopic Derivation of the Hydrodynamic Equations
548(5)
I. Units and Tables
553(8)
Subject Index 561

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